Flowmaster RS Manual
Transcription
Flowmaster RS Manual
Pitney Bowes Sure-Feed Engineering FlowMaster RS Servo Drive Inserter with Rotary Servo Drive Feeder Technology 1 Pitney Bowes Sure-Feed Engineering Special Note: Some pictures and illustrations may have color, hue and contrast graphically altered for clearity when printing in black and white and may not necessarily reflect the actual color of the product when viewed on compact disk. Documentation Created By Technical Writer: Bill Spencer - Manager, Training / Service Photographs By: Bill Spencer - Manager, Training / Service . Line Drawings and Illustrations By: Bill Spencer - Manager, Training / Service Bitmap Screens Provided By: Ron Kinney - Manager, Software and Electrical Engineering Subject Matter Experts: Bill Spencer - Manager, Training / Service Layout and Editing By: Bill Spencer - Manager, Training / Service Hand Models: Katherine Mitchell, Carrie Brand, Lashawna Hammond, Debbie Eaton © Pitney Bowes Inc. All rights reserved. This book may not be reproduced in whole or in part in any fashion or stored in a retrieval system of any type or transmitted by any means, electronically or mechanically, with out the express written permission of Pitney Bowes. The use of this information by the recipient or others for the purposes other than the training of customers on Pitney Bowes equipment may constitute an infringement of patent rights and/or other intellectual property rights of Pitney Bowes or others and Pitney Bowes assumes no responsibility for any such use of the information. We have made every reasonable effort to ensure the accuracy and usefulness of this manual. However, we cannot assume responsibility for errors or omissions or liability for the misuse or misapplication of our products Except as provided in writing, duly signed by an officer of Pitney Bowes, no license either expressed or implied, under any Pitney Bowes or third party’s patent, copyright or other intellectual property rights is granted by providing this information. 2 Pitney Bowes Sure-Feed Engineering Table of Contents Topic Page Number Section I Physical Dimensions of the FlowMaster RS inserter 6 Section II Safety Features Safety Recommendations 9 13 Section III Material Specifications 15 Section IV Environment Electrical Requirements 18 19 Section V Collator installation 22 Section VI Front Table Installation 29 Section VII Envelope In-Feed Conveyor Installation 42 Section VIII Turnover Installation 51 Section IX Flap Moistener Brush Installation 55 Section X Shingle Conveyor installation 58 Section XI Servo Drive Box installation 61 Section XII Cable Connections 65 3 Pitney Bowes Sure-Feed Engineering Table of Contents Topic Page Number Section XIII General Job Set Up Homing the FlowMaster RS Inserter Overhead Vacuum Assist Envelope Opener, Lift Insert Air Plate, Selecting and Installing Air Pressure Setting Envelope Setup Front Table Setup Envelope Entry Finger Alignment Material Track Setup Material Drag Strap Setup Friction Feeder Setup Rotary Feeder Setup Envelope Turnover Setup Shingle Conveyor Setup Envelope In-Feed Conveyor Pusher Finger Configuration 74 84 87 93 96 108 113 119 123 125 132 149 151 154 159 Section XIV Optional Overhead Vacuum Assist Envelope Opener, Setup 164 Section XV Remote Control Operation Battery Removal / Replacement, Remote Control 171 172 Section XVI Touch Screen Menus Factory Settings 174 190 Section XVII Electronic Timing 202 4 Pitney Bowes Sure-Feed Engineering Section - I Physical Dimensions Of the FlowMaster RS Inserter 5 Pitney Bowes Sure-Feed Engineering 10.25’ Width Length 4.25’ 6’ Location of Air Drop for Speed Sort Conveyor with * Pattern Match Scan Base 9.42’ 9’ 9’ Electrical Requirements 220 VAC / 30 Amp. Single Phase 13.75’ 1.25’ 4.4’ Special Note: Additional 220 VAC / 30 Amp. Single phase. Drop is required if in line with the F.B.I. 6 Please see the following page for additional lengths and widths when adding other inline equipment to the FlowMaster RS inserter (Fig. 1-1) Pitney Bowes Sure-Feed Engineering The standard FlowMaster RS inserter, when assembled measures 10.25’ wide by 13.75’ long using a total of 141 square feet of floor space. Please add the approximate dimensions shown to the overall width depicted in the diagram on the previous page for the following components: Postage Meter, R-150 base – 1.25’ Postage Meter, Infinity Base – 1.6’ Ink Jet Base – 3.5’ Heater Base – 2.5’ Diverter Base – 1.5’ *Pattern Match Scan Base, Speed Sort Conveyor 2.5’ Please add the approximate dimensions shown to the overall length depicted in the diagram on the previous page for the following components: Bulk Loader for Feeder #1 - 8.4’ Flexible Bindery Interface – 8.2’ Hi-Boy Ink Jet Base – 1.8’ Collator Section of the FlowMaster RS inserter can be ordered in various lengths in increments of three (3) stations. Please add the approximate dimensions shown to the overall length depicted in the diagram on the previous page for the following collator sizes: 9 Station Collator – 3.6’ 12 Station Collator – 7.2’ 15 Station Collator – 10.8’ 18 Station Collator – 14.4’ 21 Station Collator – 18’ 24 Station Collator – 21.6’ 7 Pitney Bowes Sure-Feed Engineering Section - II Safety Features and Safety Recommendations 8 Pitney Bowes Sure-Feed Engineering Safety Features: All Servo Drive FlowMaster RS inserters manufactured have been designed with several safety features to safeguard persons operating and or working on or around the inserter. These features include: ¾ Hard lexan hinge mounted door covers, cover the side of each feeder at the material transport area as well as the material pathway of the collator under each feeder. These cover doors are electronically wired with safety interlock switches, programmed to stop the machine in the event one of the cover doors is opened. ¾ A lexan cover is hard mounted over the top of the material transport area of each feeder. ¾ A hard lexan hinged door is mounted over the side of each material feeder and is electronically wired with a safety interlock switch, programmed to stop the machine in the event the cover door is opened. ¾ Each feeder is equipped with a low paper sensor programmed to stop the feeder in the event the paper supply becomes so low that the possibility of exposing the friction feed belts is critical. ¾ A metal cover is hard mounted over the material pathway behind feeder #1, covering the material pusher pins at the point where they enter the track of the material pathway. ¾ A hard lexan hinged door is mounted over the material pathway between the last feeder and the pusher finger assembly. This cover door is electronically wired with a safety interlock switch, programmed to stop the machine in the event the cover door is opened. ¾ A hard lexan hinged door is mounted over the pusher finger assembly. This cover door is electronically wired with a safety interlock switch, programmed to stop the machine in the event the cover door is opened. ¾ Three hard lexan hinge mounted door covers, cover the envelope transport area and the insert area of the front table. These cover doors are electronically wired with safety interlock switches, programmed to stop the machine in the event one of the cover doors is opened. ¾ The envelope feeder is equipped with a low paper sensor programmed to stop the machine in the event the envelope supply becomes so low that the possibility of exposing the envelope vacuum shuttle is critical. ¾ The service doors of the front table are electronically wired with safety interlock switches, programmed to stop the machine in the event one of the cover doors is opened. ¾ Two hard lexan hinge mounted door covers, cover the envelope turnover transport area. These cover doors are electronically wired with safety interlock switches, programmed to stop the machine in the event one of the cover doors is opened. (Warning: The safety features, covers, doors and electrical sensors are installed by the manufacture to safeguard all persons operating and or working on or around the FlowMaster RS inserter. Removing, altering, disabling and or bypassing any of these items will void any and all warranties, either real or implied, purchased or offered with the FlowMaster RS inserter. All companies connected with the manufacturing, promotion and sale of the FlowMaster RS inserter shall be held harmless in the event the safety features, covers, doors and / or electrical sensors are removed, altered, disabled and / or bypassed after installation by a factory authorized representative. ) 9 Pitney Bowes Sure-Feed Engineering All Servo Drive FlowMaster inserters have various caution and or warning labels or stickers visibly posted at certain points of concern. These labels and or stickers must not be removed, defaced or obstructed in any way. These are as follows: Black and yellow “Caution” label. Posted on the top cover next to the envelope feeder, alerting the operator to avoid certain conditions that may become a contributing factor resulting in a possible injury. Red and Black “No Water Symbol” stating “Unsafe to Drink”. Posted on the side of the water tank for the envelope flap moistener, indicating that the water, once placed into the tank is no longer fit for human consumption. 10 Pitney Bowes Sure-Feed Engineering Black and yellow “Caution” label. Posted on the side guide of one or more feeders, alerting the operator to the proximity of moving parts and stating to “Use care when reloading the feeders”. Red and black Danger warning sticker. Posted on the center frame of the front table visible when the service doors are open. Visual warning and alerting persons operating and or working on or around the FlowMaster of moving gears and or pulleys. Sticker states, “Pinch points. Watch your hands” 11 Pitney Bowes Sure-Feed Engineering Black and yellow “Caution” label. Located on the top of the main power switch box. States, “High Leakage Current. Earth connection (Ground) essential before connecting supply. 12 Pitney Bowes Sure-Feed Engineering In addition to the safety devices and warnings installed on the FlowMaster RS inserter by the manufacturer, the following recommendations for safe operation and maintenance of the FlowMaster RS inserter are as follows: ¾ Any persons designated to operate, work on or near the FlowMaster RS inserter should be fully trained by a factory-authorized representative. ¾ Do not operate or perform any type of maintenance on the FlowMaster RS inserter while under the influence of drugs or alcohol. ¾ Do not operate or perform any type of maintenance on the FlowMaster RS inserter in or around free standing water. ¾ Do not wear loose or baggy fitting shirts, shirts with billowing sleeves, bracelets, rings, necklaces, neckties or other loose apparel that may come into close proximity with moving parts of the machine. ¾ Wear protective safety eyeglasses or goggles and use a particle mask or similar device when cleaning off the FlowMaster RS inserter with compressed air. Alert all other persons in the area to stand a minimum of thirty (30) feet from the area where compressed air is put to such use. ¾ All persons having hair greater than shoulder length who operate, work on or near the FlowMaster RS inserter should keep their hair pulled back in ponytail fashion then pinned up or otherwise retained to the top of their head or confined under the back of their shirt. ¾ Turn off the main power to the FlowMaster RS before opening the front table service doors, removing the side covers of the collator, removing the side covers of the envelope turnover or performing any other maintenance. ¾ Any persons working near any of the electrical motors of the FlowMaster RS inserter should use caution. Electrical motors give off heat, contact with or exposure to bare skin may result in burns. ¾ The FlowMaster RS inserter was designed to feed, transport and insert paper into paper envelopes. Do not attempt to feed and / or run materials made of or containing glass, metal, wood, hard or brittle plastics, liquids, foods, powders, gasses, explosives or toxic and hazardous chemicals on the FlowMaster RS inserter. (Note: The manufacturer recognizes and acknowledges that the FlowMaster RS inserter is capable of successfully inserting compact disk and audio cassettes into paper envelopes, however the manufacture and other companies connected with the promotion and sale of the FlowMaster RS inserter do not assume any responsibility for any damage to the FlowMaster RS inserter or product and shall be held harmless for any damages and or injuries resulting in this practice.) \ 13 Pitney Bowes Sure-Feed Engineering Section - III Material Specifications For FlowMaster RS Feeders 14 Pitney Bowes Sure-Feed Engineering The FlowMaster RS Inserter can be equipped 3 basic types of feeders. 1. The Standard Friction Feeder with Dynamic Rotating Separator offered in (6 X 9) or (10 X 13) size configuration. 2. The Standard Thin Sheet Feeder with an Adjustable Separator Gate offered in (6 X 9) or (10 X 13) size configuration. 3. The Servo Drive Rotary Feeder. These feeders are capable of running a wide range of materials Feeder Model #1 Standard Friction Feeder with Dynamic Rotation Separation Paper Stock Specification 20# / 50# bond paper Embossed foil print cards, folded or flat Business Cards Credit cards with or without embossed print Stapled bound booklets, catalogs Glue Bound booklets / Catalogs Z Folded paper or Hy-Bulk Die Cut paper or card stock Sticker sheets Die Cut Crack and Peel Stickers 1/2 Folded - Paper, Hy-Bulk or Card Stock 1/4 Folded - Paper, Hy-Bulk or Card Stock End Folded - Paper, Hy-Bulk or Card Stock End Staple bound Payment Booklets End Glue bound Payment Booklets Business Reply Envelopes (In any direction) Paper Banded Groups of BRE's (In any Direction) Gloss and Coated paper, text weight to cover weight Folded Letters with Cards affixed (In any Direction) Feeder Model #2 Standard Thin Sheet Feeder with Adjustable Separator Gate Paper Stock Specification 20# / 50# bond paper (Non-Folded single sheet) Business Cards Paper Banded Groups of BRE's (In any Direction) End Staple bound Payment Booklets End Glue bound Payment Booklets Gloss and Coated paper, text weight to cover weight (Non-Folded single sheet) Stapled bound booklets, catalogs Glue Bound booklets / Catalogs 15 Pitney Bowes Sure-Feed Engineering Feeder Model #3 Rotary Servo Drive Feeder Paper Stock Specification Multiple Coupons in loose stack with hole drilled through all but top piece Prospectus (onion skin) paper folded edge only or in booklet form spine first 20# / 50# bond paper shingle sheet or folded edge first Gloss and Coated paper, text weight to cover weight 1/2 Folded - Paper, Hy-Bulk or Card Stock 1/4 Folded - Paper, Hy-Bulk or Card Stock Stapled bound booklets, catalogs Glue Bound booklets / Catalogs 16 Pitney Bowes Sure-Feed Engineering Section - IV Environment and Electrical Requirements 17 Pitney Bowes Sure-Feed Engineering Environment: The installation of the FlowMaster RS inserter is intended for operation in a specific environment. See Operating Environment Table below for details. Operating Environment Table Item Place Ambient Temperature Relative Humidity Atmosphere Altitude Vibration Radiation Specifications Indoor +40 to '+90° F or '+13 to '+30° C 5 to 95% RH no condensation allowed Must not be exposed to; corrosive gas inflammable gas, oil mist, vapor or water. There must be no water condensation due to sudden changes in temperature 3300 feet or 1000m or less Air Pressure 86 kPa to 106 kPa Not Applicable Should not exceed tolerable levels other than associated with UV dryer lamps 18 Pitney Bowes Sure-Feed Engineering Inspection of Installation Area Once the FlowMaster inserter has been removed from the shipping container and / or transport vehicle, perform the following: 1. Inspect the location where the machine is to be set up. (Note: The manufacture recommends that the area be a relativity flat and smooth concrete or hard wood surface, similar substrates are acceptable. The area should be free of holes, divots, loose floorboards, etc. and not subject to retaining moisture from water seepage.) ( ! Warning: In the event the floor does not meet the recommended requirements, seek an alternate location or reschedule the installation after repairs to the floor have been completed) 2. Inspect the line current at the point where the power cable of the machine is to be plugged in. (Note: Conventional wall sockets, ceiling line drops and D-Boxes should be free of cracks, rust, visible signs of heat stress and flash marks.) (Special Note: For installations in Europe check the condition of the voltage converter box or other voltage reducing device that may be in use. In the event of a line voltage inspection failure, report your findings to the person or persons in charge of the building and postpone the installation until corrections are made.) 3. Check the line voltage to ensure that the minimum and maximum requirements are present. In the event the line voltage has a consistent reading lower than 200 Volts or a momentary drop below 200 Volts advise the customer that a “Buck-Boost Transformer” must be installed on the line to ensure the longevity of the electronic motors and components. (Note: The FlowMaster RS inserter must have a dedicated line on a 30 AMP service.) 4. Check to see what volt value the machine transformer is pinned out to at the voltage selection block, see figure 4-1. If the volt value is different from the line voltage you checked in step 3, the transformer will need to be re-pinned to the best match. If you are unsure what pin to select, refer to the chart below. Transformer Voltage Table Line Voltage Reading Transformer Pin Selection 200 volts to 206 volts 200 207 volts to 216 volts 210 217 volts to 226 volts 220 227 volts to 236 volts 230 237 volts to 246 volts 240 *** Less than 200 volts *** Recommend a Buck Boost Transformer 19 Pitney Bowes Sure-Feed Engineering To change the pin setting on the transformer, perform the following: a. Using a medium tip Phillips head screwdriver, loosen the retaining screw in the connection block that the “Dark Gray Voltage Select Wire” is currently connected to, see figure 4-1. ( ! Caution: The “Dark Gray Voltage Select Wire” is located on the side of the connect block next to the “Volt Value Labels”. It is the only wire that occupies this side of the block. Do not move or in any way re-locate any of the stripped or gray wires from the side of the connect block opposite the “Volt Value Labels”). Re-locate this gray wire, if necessary, to the port that best matches the line voltage Do not move or in any way re-locate any of the striped or gray wires from this side of the connection block. 200 V 210 V 220 V 230 V 240 V Fig. 4-1 b. Insert the “Dark Gray Voltage Select Wire” in the connection port that is labeled for the best match for the line voltage discovered in step 3, see figure 4-2. Secure by tightening the retaining screw using a medium tip Phillips head screwdriver. ( ! Caution: Do not over tighten.) 200 V 210 V 220 V 230 V Line voltage tested at 215 V, the “Dark Gray Voltage Select Wire” was originally pined to the 240V contact port, now shown re-located to the best matching volt value, the 210 V contact port. 240 V (Helpful Tip: If the line voltage falls in the middle of two listed voltages, pin to the lower voltage) 20 Fig. 4-2 Pitney Bowes Sure-Feed Engineering Section - V Preparation and Installation of the Collator 21 Pitney Bowes Sure-Feed Engineering Installation of the FlowMaster inserter: The FlowMaster inserter may be shipped to the customer location without a shipping crate. The standard machine will be delivered in five (5) sections. The separate sections are as follows: Collator Front Table Envelope Continuous Feed Conveyor Envelope Turn Over Envelope Collecting Conveyor All five (5) sections will be shipped with all electrical connections, airlines and water lines, coiled and secured with electrical tie wraps. The main power line coming from the FlowMaster will have a Hubble 30 Amp / 250 Volt Male plug on it, the customer will be responsible for supplying the correct electrical female plug or receptacle. The service technician will be responsible for connecting the power supply line from the building to the FlowMaster RS inserter. Should the customer request changing the Hubble 30 Amp / 250 Volt Male plug on the FlowMaster inserter to a different name brand plug with electrical capacities equal to or greater than the Hubble 30 Amp / 250 Volt Male plug, the service technician should accommodate the request providing the plug presented by the customer is in good working order. Under no circumstances should the service technician attempt to wire, modify or make any changes to the electrical outlet or breaker box servicing the building. The FlowMaster inserters can be purchased with an optional “Air Leg” conveyor containing a combination compressor and vacuum pump. If the optional air leg was not purchased, the customer would be responsible for supplying the air compressor and airline with a 5/8” X ¼” female fitting. The service technician will be responsible for connecting the compressor line to the pneumatic system. If the electrical and pneumatic components supplied by the customer are not in good condition and proper working order, do not use them; see the customer for suitable replacements. A diagram depicting the requirements for air pressure, space and electrical needs for the FlowMaster RS should be sent to the customer, before the FlowMaster RS arrives at the customer’s location. Step 1: Initial Set up 1. Position the collator section of the machine in the work area previously established by the customer. 2. Remove all of the side collator covers exposing the pneumatic and electrical connections. 3. Raise the collator section to a height of thirty-four inches, (34”) see figure 5-1, by using the threaded leveler feet and pads, see figure 5-2. The objective is to distribute the weight of the collator evenly between the leveler feet so check the height setting at several different locations around the collator. (Note: It is imperative to have the collator as close to level as the floor will allow.) Measure from the top of the console cover 34” to the floor 34” (Fig. 5-1) 22 Pitney Bowes Sure-Feed Engineering (Fig. 5-2) Turn the leveler bolt counter clock-wise to lower the bolt to the floor to raise the collator After all the leveler bolts have been set, tighten the lock nut to the frame by turning it in a clockwise direction Place a pad under each leveler bolt 23 Pitney Bowes Sure-Feed Engineering 4. Make sure the front frame area of the collator is free of all obstruction and the insert pusher fingers are not over hanging the insert air plate. (Note: The Pusher Fingers can be moved by turning the silver knob located at the right end of the box cam assembly, see figure 5-3.) Make sure the Pusher Fingers not out over the front of the insert air plate Turn knob in a counter clock-wise direction to move the pusher fingers back away from the front of the Collator (Fig. 5-3) 24 Pitney Bowes Sure-Feed Engineering 5. Make sure the Entry Fingers are not over-hanging the insert air plate. (Note: They can be manually moved by using a 5/32 Allen wrench, loosen the socket-head Allen screw located on the Entry Finger Operating Bar, then lift the Entry Fingers out of the way and re-tighten the socket head Allen screw, see figure 5-4.) (Fig. 5-4) Using a 5/32 Allen wrench loosen the socket head screw by turning it counter clock-wise Swing the entry fingers up out of the way and retighten the Allen screw 25 Pitney Bowes Sure-Feed Engineering 6. Using a 9/16 open-end wrench remove the Collator Centering Yoke for the Front Table Timing Belt, see figure 5-5. (Note: Set the centering yoke assembly aside at this time) (Fig. 5-5) (view from inside collator) Using an open-end wrench remove the two (2) outside bolts by turning them in a counter clock-wise direction. Remove the centering yoke assembly and set it aside. (Note: It is not necessary to remove the bolts shown in this view to remove the yoke assembly) (view from outside collator) 26 Pitney Bowes Sure-Feed Engineering 8. Make sure the Envelope Flap Detect Sensor is not over hanging the collator, see figure 5-6. Using a 5/32 Allen wrench, loosen the retaining screw to pivot the sensor Pivot the sensor so that it does not over hang the collator and re-tighten the retaining screw. (Fig. 5-6) 27 Pitney Bowes Sure-Feed Engineering Section - VI Preparation and Installation of the Front Table 28 Pitney Bowes Sure-Feed Engineering 1. Remove the socket head screws from the bottom center of the four (4) leveler pads located on the outer back surface of the front table, see figure 6-1. (Note: The outer back surface will be the surface of the front table that makes contact with the collator section.) Using a 5/16 Allen Wrench, remove the socket head screw by turning it counter clock-wise. (Note: Do not miss-place these screws, they will be needed latter in the install) (Fig.6-1) 29 Pitney Bowes Sure-Feed Engineering 2. Slide the front table up to the exposed frame section at the front of the collator. Leave a four (4) to six (6) inch gap between the collator and the front table. Guide the blue vacuum lines from the Front Table Vacuum Dishes at the insert area through the center frame section of the collator, see figure 6-2. (Help Tip: The Vacuum lines may be secured inside the front table with an electrical tie wrap for shipping, use caution when cutting the tie wrap to avoid damaging the vacuum lines.) (Note: Do not attempt to join the front table and the collator at this time) (Fig.6-2) Guide the blue vacuum lines through the collator pin-belt frames and over the center frame 30 Pitney Bowes Sure-Feed Engineering 3. Line up the each of the four (4) centering studs, located on the collator frame, to the guide holes at the center of the leveler pads located on the front table frame, see figure 6-3 Slide Front Table to Collator Centering Stud on the Collator Frame Guide Hole in the center of the Leveler Pad (Fig.6-3) 31 Pitney Bowes Sure-Feed Engineering 4. Slid the front table up to the collator using the centering studs on the collator frame to mate both frame surfaces correctly. (Helpful Tip: No floor is perfectly level, it may be necessary to adjust the threaded leveler feet of the front table in order to mate with the collator guide studs correctly) 5. Bolt the two sections together using the socket head bolts removed from the front table in step # 6. Insert the bolts from the inside frame of the collator, accessible through the opening provided after the side cover was removed in step # 2, into the center bottom hole of each leveler pad attached to the front table frame. Hand tighten the bolts until the heads are flush with the inside collator frame, then tighten firmly with an allen wrench following the sequence shown in figure 6-4. (Fig.6-4) Bolt tightening sequence shown via numbers and dotted line 1 2 3 4 View from inside of the Collator (Note: Incomplete machine photographed, missing floor pans and pump for clear view of bolts) 32 Pitney Bowes Sure-Feed Engineering Set the Height of the Front Table The front table must be positioned so that the top surface of the envelope vacuum plates is .025” lower than the top flat surface of the insert deck. To set this height perform the following: 1. Loosen all 16 leveler pad bolts located on the inside back frame of the front table. These are accessible through the service doors of the front table see figure 6-5. (Note: Use a 7/32” allen wrench for the 8 button head bolts located on the top frame section and a 9/16” open-wrench for the hex-head bolts located on the lower frame section.) Using a 7/32 Allen wrench loosen each of the 4 button head Allen screws found in both of the top leveler pad on the Front Table frame ! Caution: “Line of Sight Inhibited” The screws and bolts depicted in the expanded view are located on the “Back” frame sections behind the motor, gear box, index box and electrical box. Use caution when loosening and tightening. Using a 9/16 open-end wrench loosen each of the four bolts found in each of the lower leveler pads found in the Front Table bottom frame (Fig.6-5) 33 Pitney Bowes Sure-Feed Engineering 2. Lay any type of object having a flat straight surface on the flat surface of the insert deck extending out over the front table for a height reference see figure 6-6. (Note: Make sure that the straight edge you are using is supported by the insert deck. Resting it solely on the insert air plate is not recommended for the following reasons; the insert air plate could flex providing you with a false collator height, machine specifications for the insert deck manifold allow for a tolerance of + 0.003” / - 0.000”, machine specifications for the insert air plates allow for a tolerance of + 0.000” / - 0.003” (Helpful Tip: A 3/8” Allen wrench will do very well for this.) Note: It is very important to check the 0.025” gap at each side of the insert deck to ensure the height differential is uniform across the insert area Place straight edge under pusher drive shaft, flush against the insert deck. (Advisement: Do not use the Insert Air Plate as a base to set the height differential from) Set the height differential to 0.025” between the insert deck and the front table (Fig.6-6) 34 Pitney Bowes Sure-Feed Engineering 3. Adjust the leveler feet of the front table until a gap of .025” is obtained between the top of the envelope vacuum plate of the front table and the reference tool placed on the insert deck as stated in step 2. (Note: Be sure the check the gap at each side of the insert air plate to ensure an even gap has been established across the width of the insert area.) 4. After the .25” gap has been established, tighten the 8 button head bolts on the top frame section, then check the gap once more to ensure it has not changed after the bolts were tightened. Next tighten the 8 socket head bolts on the lower frame section. Use the sequence pattern shown in figure 6-7 to tighten the bolts in both frame sections. (Fig.6-7) Front Table Bolt Pattern To be used for both button head and socket bolts 4 3 1 2 7 5 6 8 ! Caution: “Line of Sight Inhibited” The screws and bolts depicted in the expanded view are located on the “Back” frame sections behind the motor, gear box, index box and electrical box. Use caution when loosening and tightening. 35 Pitney Bowes Sure-Feed Engineering 5. Re-install the Timing Belt Centering Yoke, previously removed in step 6 of the Collator installation section by performing the following: (A) Start the two long bolts with the flat washers, previously removed in step 6, page , through the side frame, fee figure 6-8. (Fig.6-8) Start the 2 bolts with washers through the side frame just enough to be held in place by the frame. (B) Set the block spacer onto the exposed thread of the bolts now showing on the inside of the frame, see figure 6-9. Slide the Spacer Block onto the bolts Front View of Spacer Block (Fig.6-9) Special Note: The photographs in this figure are staged. The front table that would have already been installed onto the collator is not shown. 36 Pitney Bowes Sure-Feed Engineering (C) Place the single Yoke Gibb onto the exposed thread, capturing the timing pulley and belt on the square shaft in the front table, see figure 6-10. (Fig.6-10) Place one of the Gibb Yoke sides onto the exposed bolts now showing through the spacer block Front View of Yoke Gibb Placement of the timing pulley and belt Special Note: The photographs in this figure are staged. The front table that would have already been installed onto the collator is not shown. Placement is shown for the timing belt and pulley (D) Hold the opposing Yoke Gibb, (still mounted to the Yoke Block) up to the exposed threads, capturing the timing belt and pulley in the front table and begin threading the bolts into the open side of the Yoke Block, see figure 6-11. (Note: Do not tighten the bolts at this time) Hold the Yoke Gibb, still mounted to the center block, up the exposed threads and begin threading the bolts into the open side of the center block (Fig.6-11) Front View of Yoke Gibb and center block Placement of the timing pulley and belt Special Note: The photographs in this figure are staged. The front table that would have already been installed onto the collator is not shown. Placement is shown for the timing belt, pulley and square shaft. 37 Pitney Bowes Sure-Feed Engineering (E) Adjust the Center Yoke assembly to allow clearance around the square shaft as well as clearance above the front table mount plate, see figure 6-12. (Fig.6-12) Inside, Left view Inside, Right view Adjust the center yoke to provide clearance for free movement of the square shaft Make sure that the center yoke assembly does not drag or make any contact with the front table mount plate The Center Yoke Gibbs must be set to provide clearance around the square shaft The through holes for the mounting bolts are over-sized. Adjust by rotating Center Yoke Gibb assembly before tightening the bolts The Center Yoke Gibbs must be set to provide clearance over the mount plate 38 Pitney Bowes Sure-Feed Engineering (F) Pull the timing belt between the center yoke gibbs, back to the timing pulley on the collator and start the belt onto the pulley at the 6 o’clock position and roll the belt up towards the 9 o’clock position, see figure 6-13. (Note: Push the belt up far enough so that it will stay on part of the pulley. Do not try to force the belt all the way onto the pulley. At this point there should be only enough pressure on the belt to prevent it from falling off.) (Fig.6-13) Pull timing belt from front table Start the timing belt at the 6 o’clock position and roll the belt up towards the 9 o’clock position (G) Open the front service doors of the Front Table, insert the crank handle into the manual cycle slot and manually cycle the front table by turning the crank handle in a clock-wise direction, see figure 6-14. (Note: This will effectively position the timing belt the rest of the way onto the pulley.) (Fig.6-14) Turn the crank handle clock-wise to advance the Front Table and finish setting the timing belt into the pulley 39 Pitney Bowes Sure-Feed Engineering (H) After the timing belt has been seated into the pulley, tighten the belt using the tension roller. Push up on the tension roller and tighten the retaining screw using a ¼” Allen wrench, see figure 6-15. (Fig.6-15) Test the tension of the belt by grasping the belt, mid way between the front table pulley and the Collator timing pulley, with your thumb and forefinger and flex-twist it. You should be abler to twist the belt almost 45 degrees Push the tension roller up to tighten the belt Using a ¼” Allen wrench, tighten the retaining screw by turning it in a clockwise direction Push the tension roller up Special Note: When the belt is properly tensioned, you should be able to grasp the belt, mid way between the front table pulley and the Collator timing pulley, with your thumb and forefinger and flex it almost 45 degrees 40 Pitney Bowes Sure-Feed Engineering Section - VII Preparation and Installation of the Envelope In-Feed Conveyor (Air Leg) 41 Pitney Bowes Sure-Feed Engineering 1. Position the In-Feed Conveyor close to the back side of the front table, near the back side of the collator and remove the “Mount Bars” found in-side the Air Leg console, see figure 7-1. Using a 9/16” open-end wrench, remove the two hex head bolts, by turning them in a counter clock-wise direction. Remove the two mount bars. (Note: One spacer bar has an additional short spacer) (Fig.7-1) 2. Screw the mount bars into the threaded studs located on the back of the front table, see figure 7-2. Tighten the mount bars as tight as you can by hand. ( ! Caution: Do not use any type of jaw tool to tighten the mount bars to the front table.) Screw the mount bars onto the threaded studs and hand tighten (Fig.7-2) 42 Pitney Bowes Sure-Feed Engineering 3. Push the Envelope In-Feed Conveyor up to the mount bars and align the mount holes in the Envelope In-feed conveyor to the mount bars. To obtain proper alignment, perform the following: A. Remove the retaining nuts found on each of the four (4) leveler castors B. Turn the castor body, counter clock-wise to raise, clock-wise to lower, until the bolt holes align with the mount bars, see figure 7-3. Retaining nuts have been removed in this view Turn the castor body, counter clock-wise to raise, clock-wise to lower (Fig.7-3) C. Thread one of the mount bolts into the outer most mount bar. (Note: Hand tighten only.) D. Slide the short spacer between the in-feed conveyor leg and the inner most mount bar, then tread the other mount bolt through the short spacer and into the threads of the mount bar, see figure 7-4. (Fig.7-4) Slide the short spacer between the in-feed conveyor leg and the inner most mount bar E. Using a 9/16” open-end wrench, tighten both mount bolts using moderate force. 43 Pitney Bowes Sure-Feed Engineering 4. Remove the Cross Bracket from the back of the envelope in-feed conveyor, then remove the bolt, nut and washer from the slotted end of the cross brace, see figure 7-5. (Fig.7-5) Remove the bolt, nut and washer from this end Cut Plastic Tie Wraps to remove the Cross Brace from the back panel of the envelope in-feed conveyor 5. Push the “Hooked” end under the collator lower frame panel and pull the hook back to seat it to the panel, see figure 7-6. Outer Frame Panel Collator Frame Slide the “Hooked” end under the collator and rotate the hooked end up to catch the lower part of the frame panel Pull back to seat (Fig.7-6) 44 Pitney Bowes Sure-Feed Engineering 6. Slide the slotted end of the Cross Brace down and against the bottom frame of the in-feed conveyor and secure it with the bolt, nut and washer removed from the cross brace in step 4, see figure 7-7. Pivot the cross brace down to the bolt opening in the base, insert the bolt and secure the washer and nut under the base. Push towards Conveyor Base (Fig.7-7) 7. Establish the “Pass Line” between the envelope guide fingers located at the feed end of the envelope in-feed conveyor and the envelope guide block of the envelope hopper located on the front table, see figure 7-8. To establish a pass line perform the following: a. b. Place a straight edge inside the envelope hopper flush against the envelope guide fingers of the conveyor, see figure 7-8. While maintaining contact with the envelope guide fingers, gently slide the straight edge towards the envelope feed gate, it should pass by the envelope guide block without touching, see figure 7-8. 45 Pitney Bowes Sure-Feed Engineering Envelope guide block Envelope Conveyor Guide Finger Slide the straight edge against the guide fingers up to and past the envelope guide block (Fig.7-8) 46 Pitney Bowes Sure-Feed Engineering In the event the straight edge strikes the envelope guide block make the following adjustments shown in figures 7-9, 7-10 and 7-11. (Note: Do not deviate from the order shown.) To gain access to the Envelope Guide Block assembly to make the adjustment, reach through the open space between the Envelope In-Feed Conveyor and the Front Table, under the conveyor bed ! Caution: “Line of Sight Inhibited” The screws depicted in the expanded view are located on the “Back” frame section of the separator gate. Use caution when loosening and tightening. Pivot the Envelope Guide Block back or forward to make adjustment. Tighten the socket head screws when adjustment has been made Loosen the two (2) socket head screws located on the inner most side of the “Envelope Separator Gate” (Fig.7-9) 47 Pitney Bowes Sure-Feed Engineering Pivot the mounting block forward or backward Remove End Cover Adjust the envelope guide fingers to improve the pass line. Loosen the two button head screws on each side of the finger mounting block to pivot the fingers forward or backwards. Helpful Tip: Never adjust the fingers out further than the conveyor belts Pivot the mounting block forward or backward (Fig.7-10) 48 Pitney Bowes Sure-Feed Engineering Adjust Conveyor Bed Forward or Backward (Fig.7-11) 49 Pitney Bowes Sure-Feed Engineering Section - VIII Preparation and Installation of the Envelope Turnover 50 Pitney Bowes Sure-Feed Engineering To set up the envelope turnover, perform the following: 1. Raise the height of the envelope turnover until the top belt of the turnover can be moved freely over the exit end of the front table by adjusting the leveler feet of the envelope turnover. To do this: a. Loosen the 5/8” lock nuts of the four (4) leveler feet by turning them in a counter clock-wise direction see figure 8-1, page 52. b. Turn each leveler foot in a counter clock-wise direction to raise the unit. c. Tighten the lock nuts by turning them in a clock-wise direction. 2. Align the envelope turnover with the exit idler roller end of the front table. Position the tension roller of the top belt squarely over the top center of the idler roller of the front table. (Note: When correctly positioned, there should be approximately ¼” to 1/8” between the lower frame base of the turnover and the outer cabinet of the front table and the overhang from the turnover above the front table, see figure 8-2, page 52.) 3. Set the tension roller of the envelope turnover to its lowest position. Do this by turning the adjustment knob, located near the tension roller on the operator’s side, in a counter clock-wise direction until the retaining nut bottoms out on the mounting frame, see figure 8-3, page 53. 4. Lower the height of the envelope turnover until the top belt just makes even contact with the exit idler roller of the front table, by adjusting the leveler feet of the envelope turnover. To do this: a. Loosen the lock nuts of the four (4) leveler feet by turning them in a counter clock-wise direction b. Turn each leveler foot in a clock-wise direction to lower until the desired height is obtained. c. Tighten the lock nuts by turning them in a clock-wise direction. ( ! Caution: Do not allow the weight of the turnover to rest on the exit idler roller of the front table.) 5. Manually place an envelope under the tension roller of the envelope turnover 6. Adjust the tension setting until there is moderate resistance felt on the envelope when it is pulled back. (Note: Too much tension will cause the surface of the envelope to wrinkle, too little tension may cause the envelopes to jam on the front table in front of the turnover. 51 Pitney Bowes Sure-Feed Engineering Envelope Turnover Leveler Foot 5/8” Lock Nut (Fig.8-1) Envelope Turnover Note: The space between the surfaces of the Front Table and the Envelope Turnover must be maintained. (Fig.8-2) 52 Pitney Bowes Sure-Feed Engineering Tension Roller Adjustment Knob Front Table Retaining Nut Top Tension Roller of Envelope Turnover Exit Idler Roller of Front Table (Fig.8-3) 53 Pitney Bowes Sure-Feed Engineering Section - IX Installation of the Water Brush 54 Pitney Bowes Sure-Feed Engineering To install the Water Brush perform the following: 1. Remove the two (2) hex-head screws located on the right end of the box cam assembly next to the sliver manual cycle knob. 2. Thread the water line down between the water overflow tray and the collator top cover, see figure 9-1. (Fig.9-1) Thread the water line down the back side of the overflow tray 3. Place the water brush assembly removed from the collator assemble during preparation, against the box cam side frame and secure it using the two screws removed in step 1, see figure 9-2. Using a 5/32 Allen wrench turn the hexhead screw clockwise to tighten (Fig.9-2) 55 Pitney Bowes Sure-Feed Engineering 4. Once the water line is threaded down behind the overflow tray, guide the line under the lower cross frame of the collator and into the front table. Connect the water line to the fitting next to the water solenoid, see figure 9-3. Push the water line firmly into the fitting The water solenoid and valve is located on the inside portion of the front frame (Fig.9-3) Special Note: Open the Flow Valve three (3) full turns when the FlowMaster inserter is installed. This is the recommended starting reference for most climates and altitudes. Further adjustments may be needed. Turn the valve counter clock-wise to open and clock-wise to close. (Fig.9-4) 56 Pitney Bowes Sure-Feed Engineering Section - X Preparation and Installation of the Envelope Shingle Conveyor 57 Pitney Bowes Sure-Feed Engineering Shingle Conveyor 1. Position the edge of the shingle conveyor approximately three (*3) inches from exit end of the turnover also aligning the center of the envelope knock down assembly with the center material transport belt of the turnover, see figure 10-1. (Note: (*3) inches stated in this step is a starting reference point for the approximate distance when running a I-ounce, #10 envelope. The size and weight of the material as well as the selected running speed of the FlowMaster RS inserter has a direct bearing on the distance between the shingle conveyor and the exit end of the turnover. Increasing or decreasing this distance may be required to accommodate the weight of the material and the speed you are running.) Aprox. 3” Align the red gum belt and exit roller with the center of the stop plate on the conveyor (Fig.10-1) 58 Pitney Bowes Sure-Feed Engineering 2. Raise the height of the conveyor using the leveler bolts located under each corner of the conveyor. Raise the height of the conveyor until the conveyor bed is approximately 3 inched below the exit roller of the turnover, see figure 10-2. Turn lock-nut clock-wise to secure leveler bolt after the adjustment has been made Turn Leveler Blot counter clock-wise to raise conveyor (Fig.10-2) 59 Pitney Bowes Sure-Feed Engineering Section - XI Preparation and Installation of the Servo Drive Box 60 Pitney Bowes Sure-Feed Engineering Preparation and Installation of the Servo Drive Box 1. Slide the Servo Drive Box under the conveyor bed of the envelope in-feed conveyor, position the servo drive box so that the right mounting bracket is approximately 8” from the end of the conveyor bed, see figure 11-1. (Note: Leave the box on the floor under the conveyor bed at this time. The mount bars will have already been installed under the conveyor bed before the machine was shipped. Do not assume that they are correctly positioned, they most likely need to be re-aligned.) (Fig.11-1) Set the back of the right mount bracket 8” from the end of the X X Slide box under conveyor 2. Set the position of the mount bars under the conveyor bed to align left side of the bar with the right side of the mount brackets of the servo drive box, see figure 11-2. (Fig.11-2) Align the left side of the mount bars under the conveyor bed to the right side of the mount brackets on the servo drive box 61 Pitney Bowes Sure-Feed Engineering 3. To change the position of the mount bars under the conveyor for optimum alignment, perform the following steps: (A) (B) Using a 5/32 Allen wrench loosen the retaining screw found at each end of the mount bar, see figure 11-3. Slide the mount bars along the lower side frame of the conveyor bed to align them with the mounting brackets of the servo drive box. Align the mount bars with the mounting brackets by sliding them along the lower side from of the conveyor bed Turn the Allen Screw counter clock-wise to loosen, clock-wise to tighten. (Fig.11-3) 62 Pitney Bowes Sure-Feed Engineering 4. Lift the servo drive box onto the mount bars, see figure 11-4. Once the mount bars have been seated into both of the mounting brackets, release the servo box. It will stay under it’s own weight. ( ! Warning: The Servo Drive Box weighs approximately 80 LBS, practice safe lifting techniques or acquire assistance to lift the box while mounting it under the conveyor.) ! Warning The Servo Drive Box weighs approximately 80 LBS, practice safe lifting techniques or seek assistance to lift the box. Lift up, then to the right to seat the servo drive box mounting brackets onto the mount bars (Fig.11-4) 5. Slide the servo drive box back so the conveyor belts do not drag against the retaining screws on the mounting brackets, see figure 11-5. Slide the servo box back on the mounting bars so the conveyor belts travel between the retaining screws of the mount brackets. (Fig.11-5) 6. Tighten the retaining screws in both of the mount brackets to secure the servo drive box to the mounting bars under the envelope in-feed conveyor. 63 Pitney Bowes Sure-Feed Engineering Section - XII Cable Connections 64 Pitney Bowes Sure-Feed Engineering 1. Recheck the line voltage as you did in step 3 of section 2 and recheck the pin-out on the transformer. If this step was over looked during the installation perform the following steps now if the volt value is different from the line voltage you checked. Re-pin the transformer for the best match. If you are unsure what pin to select, refer to the chart below. ( ! Caution: This procedure is to determine required pin configuration for the transformer only, Do Not connect the main power supply to line voltage at this time.) Transformer Voltage Table Line Voltage Reading Transformer Pin Selection 200 volts to 206 volts 200 207 volts to 216 volts 210 217 volts to 226 volts 220 227 volts to 236 volts 230 237 volts to 246 volts 240 *** Less than 200 volts *** Recommend a Buck Boost Transformer To change the pin setting on the transformer, perform the following: b. Using a medium tip Phillips head screwdriver, loosen the retaining screw in the connection block that the “Dark Gray Voltage Select Wire” is currently connected to, see figure 12-1. ( ! Caution: The “Dark Gray Voltage Select Wire” is located on the side of the connect block next to the “Volt Value Labels”. It is the only wire that occupies this side of the block. Do not move or in any way re-locate any of the stripped or gray wires from the side of the connect block opposite the “Volt Value Labels”). Re-locate this gray wire, if necessary, to the port that best matches the line voltage Do not move or in any way re-locate any of the striped or gray wires from this side of the connection block. 200 V 210 V 220 V 230 V 240 V (Fig. 12-1) 65 Pitney Bowes Sure-Feed Engineering c. Insert the “Dark Gray Voltage Select Wire” in the connection port that is labeled for the best match for the line voltage discovered in step 3, see figure 12-2. Secure by tightening the retaining screw using a medium tip Phillips head screwdriver. ( ! Caution: Do not over tighten.) (Fig. 12-2) 200 V 210 V 220 V 230 V Line voltage tested at 215 V, the “Dark Gray Voltage Select Wire” was originally pined to the 240V contact port, now shown re-located to the best matching volt value, the 210 V contact port. 240 V (Helpful Tip: If the line voltage falls in the middle of two listed voltages, pin to the lower voltage) 66 Pitney Bowes Sure-Feed Engineering To complete the installation you will need to connect all of the electrical cables in the following manner: 1. Locate the Cat. 5 cable which can be found on the floor of the Collator section near the front table of the FlowMaster RS, route it under the lower frame section of the front table and plug it into the Variable Frequency Drive Box located at the center of the front table floor, see figure 12-3. Gently push in the male Cat 5 connection plug into the female receptacle until it spans into place (Fig. 12-3) 2. Locate the round female 110 VAC cable which can be found on the floor of the Collator section near the front table, route it under the lower frame of the front table and plug it into the male receptacle of the front table electrical box, see figure 12-4. Push in the female plug into the male receptacle and turn it in a clock-wise direction to lock into place. (Fig. 12-4) 67 Pitney Bowes Sure-Feed Engineering 3. Locate the square 15 pin connector plug of the safety interlock harness which can be found on the floor of the Collator section near the front table, route it under the lower frame of the front table and connect it to the square 15 pin plug found in the grey wire-way next to the Variable Frequency Drive, see figure 12-5. Press the square 15 pin connector into the matching receptacle until the retaining clips on the side of the plug locks into place. (Fig. 12-5) 4. Locate the square female 240 VAC cable which can be found on the floor of the Collator section near the front table, route it under the lower frame of the front table and plug it into the male receptacle of the Variable Frequency Drive box, see figure 12-6. Press the square 240 VAC connector into the matching receptacle to seat it firmly in place. (Fig. 12-6) 68 Pitney Bowes Sure-Feed Engineering 5. Locate the Encoder cable, which can be found on the floor of the front table, route it to the right of the up-right center frame section then under the upper frame section of the front table and plug it into the encoder wire harness found secured to the inside back-frame section of the Collator, see figure 12-7. View of Back-Frame section under the pusher assembly 6. (Fig. 12-7) Locate the 24-volt mocon signal cable, found on the floor of the right side of the front table, pass this cable through the center frame section of the front table and plug it into the matching receptacle located on the front of the air leg, see figure 12-8. View from the front table service doors Press the 24-volt mocon single plug into the receptacle on the front of the airleg until the retaining clips lock into place. (Fig. 12-8) 69 Pitney Bowes Sure-Feed Engineering Move to the area between the front table and the turnover and continue the following: 6. Loosen all the retaining rings on the strain relief’s located at the exit end of the front table and pull all cables out of the front table approximately 2 ½ to 3 feet then re-tighten the retaining rings, see figure 12-9. ( ! Caution: Cables should come through easily. If they Do Not, open front table service doors and free cables from snag or obstruction) Turn retaining ring counter clockwise to loosen, clockwise to tighten Gently pull the cables through the strain relief’s. ( ! Caution: Cables should come through easily. If they Do Not, open front table service doors and free cables from snag or obstruction) (Fig. 12-9) 7. Connect the cables to the matching receptacle on the entry end of the turnover, see figure 12-10. (Fig. 12-10) 70 Pitney Bowes Sure-Feed Engineering 8. Route the Fiber Optic Cable from the main electrical box to the Servo Drive Box. ( ! Caution: Handle the Fiber Optic Cable with extreme care. Scraping, stretching or kinking the fiber optic cable may cause damage to the cable and render it inoperative.) Connect the Fiber Optic cable to the primary servo drive, see figure 12-11. Holding the fiber optic cable plug connector by the plug handle, insert it into the servo drive Route the Fiber Optic Cable from the main electrical box to the Servo Drive Box (Fig. 12-11) 71 Pitney Bowes Sure-Feed Engineering Section - XIII General Job Set-Up 72 Pitney Bowes Sure-Feed Engineering Homing & Timing the FlowMaster RS Inserter 73 Pitney Bowes Sure-Feed Engineering Homing the FlowMaster RS inserter Once the assembly of the FlowMaster is complete, time the machine by performing the following: 1. Turn the machine power on by placing the main power switch in the up position. 2. Once the machine has booted up, press the Servo Menu button located in the upper right hand corner of the operators run screen, see figure 13-1. (Note: For menu selection for all FlowMaster models see pages 79 through 82.) Press this button to open the “Home Servo” feature (Fig. 13-1) 2. Once the Servo Menu has been opened, a single or multiple timing selection, depending on the model FlowMaster you have, will appear, see figures 13-6 through 13-9. 3. Select the Pusher configuration and Pin spacing you plan to run the machine in and depress the “Home Servo’s” button. (When the Home Servo’s is engaged, the selected button you pushed will light up) (To change Pusher Finger configuration, see Pusher Finger Configuration, page 154 through 157.) 74 Pitney Bowes Sure-Feed Engineering 4. Press the “Blue Start” button and the “Green Run” button, located on the collator console, at the same time. (The machine will advance at jog speed in stages, first the envelope gripper jaw chain will advance to the *“Home” position, then the collator track pins will move until the pass a recognition sensor, then the pusher fingers will move until they pass a recognition sensor and then the collator track pins and the pusher fingers will move in unison.) The machine is now timed. (Note: The “Home” position is an encoder reference position designated by the number located below the Homing Selection in the Homing menu. This number value can be changed by pressing the number, a numeric touch pad will appear, entering a new number value and pressing the return arrow to enter the new number value. The electronic events taking place are as follows, when the envelope gripper jaw chain stops at the Home position, the PLC sends a signal through an output module via a fiber optic cable to the primary servo drive labeled “Servo 1”. Servo 1 then begins running the homing program which triggers Servo 2 to run the collator track pins first followed by the pusher fingers and finally both. It should be noted that his program is embedded in the servo drive and can not be altered.) 5. Check the timing references of the FlowMaster RS inserter to ensure that the Homing program ran completely and accurately. To check the timing references perform the following: (A) Jog the envelope gripper chain to the full stop mark, jog the machine until the envelope gripper opens, continue jogging until the gripper jaw closes completely, then STOP. In this position you should see one of the pusher finger shafts at the “Three O’clock” position on the drive shaft sprocket, see figure 13-2. The timing reference between the pusher fingers and the envelope gripper jaw ensures that the pusher finger has completed it’s stoke before the gripper has completed closed. (Note: In this position you can also check the reference encoder in the timing menu. If the encoder has been properly set it should read 45 degrees plus or minus 5 degrees.) Pusher shaft and lug at the 3 O’clock position to the drive sprocket Inside of the Gripper jaw aligned with the full stop mark Full Stop Mark (This is a factory applied machine index mark) (Fig. 13-2) 75 Pitney Bowes Sure-Feed Engineering (B) Jog the FlowMaster RS inserter until one of the pusher finger shafts completes the return cycle and begins the forward stroke along the insert deck. Stop the jogging when the clamp seam of the pusher fingers aligns with the left end of one of the insert deck grooves, see figure 13-3. In this position you should see one set of collator track pins with the back side of the pin aligned with the front of the pusher finger. This timing reference ensures that the pusher fingers have settled behind the collated material in time to capture it before the collator track pins drop below the surface of the insert deck. Back of Collator track pins even with the front of the pusher finger Pusher finger clamp seam aligned with left end of insert deck groove (Fig. 13-3) (Special Note: Should one of the jam sensors become blocked during the Homing process, the Homing program may be aborted. If this happens, clear the obstructed sensor and re-home the machine.) It is critical for these timing references to be maintained for consistent high speed inserting. If your machine does not reflect these basic timing references adjustments can be made to restore them. 76 Pitney Bowes Sure-Feed Engineering In the event the timing references need to be adjusted perform the following: 1. Re-home the machine to ensure the Homing program ran in its entirety and check the timing references again before making any adjustments. If you find that one or more of the timing references are out continue with the following: To adjust the Pusher Finger timing: (A) Open the “Homing” menu on the operator’s run screen. (B) (C) (D) Press the number located at the bottom of the menu to engage a numeric touch pad, see figure 13-4. Enter a new “Homing Position” number then press the “Enter” button to initiate the new setting. (Note: To retard the timing of the pusher finger to the envelope gripper jaw, enter a higher number. To advance the timing of the pusher finger to the envelope gripper jaw, enter a lower number.) Re-home the machine for the change to take effect then re-check the timing reference. Press the current Homing number to open the numeric touch pad x 150 150 7 8 9 AC 4 5 6 Del 1 2 3 + /- 0 Enter Using the numeric touch pad enter a new Homing number then press the enter button to initiate the new setting (Fig. 13-4) 77 Pitney Bowes Sure-Feed Engineering To adjust the collator track pin timing: (A) Remove the side cover located below the pusher finger assembly. (B) Loosen the thumb lock screw of the collator track pin recognizing sensor, located on the inside frame, by turning it in a counter clock-wise direction, see figure 13-5. (C) Slide the sensor along the inside frame and secure it in a new position by turning the thumb lock screw in a clock-wise direction. ( ! Caution: Do not over tighten the thumb lock screw) (D) Relocate the opposing sensor located on the other inside frame section in the same manner. (Note: these are reciprocating sensors make sure they are aligned with one another.) (Helpful Tip: Relocate the sensors a distance equal to the distance you want the collator track pins to move. To advance the collator track pin timing, move the sensors to the left. To retard the collator track pin timing, move the sensors to the right.) Move Sensors to Left to Advance Pin position Move Sensors to Right to Retard Pin position Relocate the opposing sensor in the same manner Loosen the thumb screw to relocate the sensor (Fig. 13-5) 78 Pitney Bowes Sure-Feed Engineering Servo Menu for Standard FlowMaster LS A B 150 (Fig. 13-6) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 79 Pitney Bowes Sure-Feed Engineering Servo Menu for Standard FlowMaster LS 12000 XL A B 150 (Fig. 13-7) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 80 Pitney Bowes Sure-Feed Engineering Servo Menu for the FlowMaster RS 6X9 A B 150 (Fig. 13-8) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 81 Pitney Bowes Sure-Feed Engineering Servo Menu for the FlowMaster RS XL A B 150 (Fig. 13-9) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 82 Pitney Bowes Sure-Feed Engineering Lifting the Over Head Vacuum Assist for General Job Set Up 83 Pitney Bowes Sure-Feed Engineering While continuing the job set up there will be various times that you wish to lift the Over Head Vacuum Assist Envelope Opener assembly for greater access when positioning the Envelope Entry Fingers, changing the Insert Air Plate or changing the pusher configuration. To lift the Over Head Vacuum Assist Envelope Opener, perform the following: 1. Manually lift the clear lexan cover up and towards the front table. This cover has a gas piston operating near the cover hinge and will automatically hold this cover open when fully extended. 2. Manually pivot the Over Head Vacuum Assist Envelope Opener up and back towards the feeders, see figure 13-10. ( ! Caution: This device has a gravity operated position lock, visually check to see that it has fallen into place before releasing the Over Head Vacuum Assist Envelope Opener assembly.) Manually pivot the Over Head Vacuum Assist Envelope Opener up and back towards the feeders Make sure the gravity lock is in place before releasing the assembly (Fig. 13-10) 84 Pitney Bowes Sure-Feed Engineering 3. To return the Over Head Vacuum Assist Envelope Opener assembly to the operating position, lift up on the assembly, manually pull back and up on the gravity lock and gently pivot the assembly down to the normal operating position, see figure 13-11. Gently lower the assembly back to the operating position Lift the gravity lock and hold it out of the way while lowering the assembly (Fig. 13-11) 85 Pitney Bowes Sure-Feed Engineering Insert Air Plate 86 Pitney Bowes Sure-Feed Engineering Insert Air Plate Set Up The FlowMaster RS comes equipped with eight (8) standard size Insert Air Plates. The insert air plate works with compressed air in synchronized time with two vacuum plates to form and open an envelope to the natural contour of the throat without distortion, allowing for smooth insertion at any speed. The correct size insert air plate to use should measure ¾” to 1” less in width at the front edge of the plate, than the inside width of the envelope, see figure 13-12. This rule should be observed at all times for optimal inserting at any speed. (Note: If you match the envelope to the same size insert air plate you will not be able to obtain consistent inserting at any speed.) (Fig. 13-12) The overall width of the insert air plate must be ¾” to 1” LESS than the overall width of the envelope you are running 87 Pitney Bowes Sure-Feed Engineering Phillips head screw locations Insert Air Plate Orifices Front view of Insert Air Plate Showing air orifice (Staged) (Fig. 13-13) 88 Pitney Bowes Sure-Feed Engineering (Fig. 13-14) 18005-047 18005-046 18005-045 18005-042 18005-044 18005-012 18005-043 18005-048 89 Pitney Bowes Sure-Feed Engineering Change the insert air plate at the insert deck to properly fit the size of the envelope being used by: 1. Jog the machine until the insert pusher fingers and the envelope entry fingers are in the back position. 2. Note the position of the insert entry fingers leading edge, in relationship to the front edge of the insert air plate. The leading edge of the entry fingers should be even with the front edge of the insert air plate. (You will need to return them to this position as soon as the selected insert air plate is in place) Loosen the lock knobs of the insert guide fingers, swing the insert finger arms up off of the insert air plate and set the lock knobs to temporarily secure them in this position. 3. Remove the two (2) button head Allen screws that hold the material side guides to the base of the insert air plate, see figure 13-15. Following the material side guides towards the collator section of the machine you will find two (2) more button head Allen screws. These do not need to be removed, but they do need to be loosened. (This will provide enough play to remove the insert air plate as described in step “5”) (Fig. 13-15) Using a 1/8 Allen wrench, remove the button head Allen screws from the ends of the material track guide rails 90 Pitney Bowes Sure-Feed Engineering 4. Remove the four (4) Phillips head screws from the base of the insert air plate, see figure 13-16. (Fig. 13-16) Remove the four (4) Philips head screws shown to remove the insert air plate Note: View of this Philips head screw is obscured by the over head vacuum assist envelope opener 5. Lift up the front edge closest to the envelope chain, then pull the plate towards the envelope chain to remove it, see figure 13-17. (Fig. 13-17) Lift the edge of the insert air plate up then pull out over the top of the front table 91 Pitney Bowes Sure-Feed Engineering 6. Holding the desired insert air plate by the front edge, set the base of the plate onto the insert deck, gently lower the front edge of the plate into place, see figure 13-18. ( ! Caution: The top surface of the insert air plate must be .025” above the top surface of the front table, make sure there is no dirt or debris in the manifold relief that the insert air plate sets into before installing a different air plate. Avoid setting the insert air plate on top of the Insert Hold Down Drag Straps) Visually inspect the manifold for dirt and debris Holding the insert air plate by the front edge, slide it back into the manifold (Fig. 13-18) 7. Secure the insert air plate to the insert deck using the four (4) Phillips head screws, set the screws flush with the surface of the plate and tighten moderately. ( ! Caution: Do not over tighten) 8. Reposition the material side guides to accommodate the width of the largest piece to be inserted. 9. Return the envelope entry fingers to their original position as noted in step 2. (Note: All Insert Air Plates are the same length, however the widths are different. If a narrower insert air plate is now in use, make sure the outer entry fingers are supported on the plate.) 92 Pitney Bowes Sure-Feed Engineering Insert Air Pressure Setting: The amount of air pressure emitted through the insert air plate may need to be adjusted to accommodate the envelope and insert stock you’re using. Most materials will run smoothly with a setting between 3 to 5 PSI. The objective here is to open the envelope without distortion and insert the material without loss of control. (Note: Changing the air pressure setting will only effect the insert air, it will not effect the envelope vacuum ports in front of the insert air plate. The timing setting is common to both as stated in Section XVII, page 212.) To adjust the air pressure setting: 1. Gently push down on the red retaining ring on the control knob located on the collator cabinet between the insert box cam and the envelope feed conveyor see figure 13-19. Insert Air Pressure Control Knob Air Pressure Gauge Turn knob counter clockwise to increase air pressure, clockwise to decrease air pressure (Fig. 13-19) 2. To increase the air pressure, turn the knob counter clockwise. 3. To decrease the air pressure, turn the knob clockwise. 4. Once the air pressure has been set, lift the red retaining ring up until it snaps into he lock position. (Note: Setting the air pressure too high may result in a loss of control of insert material at the point of envelope entry. See item #2, figure 13-20, page 94, showing the direction and path the air follows from the insert air plate.) 93 Pitney Bowes Sure-Feed Engineering (Fig. 13-20) 1 2 4 3 2 2 6 9 8 7 1 - Insert Entry Finger Assembly 2 – Direction of Air Flow 3 – Cut Away Side View of Envelope 4 – Insert Material 5 – Insert Pusher Finger 6 – Insert Air Plate 7 – Static Flap Brush 8 – Cut Away Side View of Envelope Chain Track 9 – Stationary Vacuum Port 94 Pitney Bowes Sure-Feed Engineering Envelope Set Up 95 Pitney Bowes Sure-Feed Engineering Envelope Settings: From the Run Menu: Set the envelope options: 1. Press the Envelope Menu button to bring up the menu window. 2. Press “Envelope On” button. This will engage the continuous envelope feed conveyor and activate the envelope hopper and shuttle vacuum, see figure 13-21. 3. Set the “Water Time” by pressing the “Number Area” located under “Water Time” on the envelope menu. This will bring up a numeric touch pad, enter the water time setting and press the return arrow to close the touch pad window. The time will now be displayed in the envelope menu. See figure 13-21. (Helpful Tip: Most envelopes manufactured in the United States, seal well with the water time set at “01” or “02”) (Note: Each number increment equals 10 milliseconds of real time. This regulates the amount of time the water solenoid is open to feed water, through the valve, to the flap moistener brush) 4. To set the envelope flap detector see, Section XVII, Electronic Timing Settings, page 216. Envelope Menu Press the ENV ON / OFF button until it reads ENV ON, Press the “Number” under Water Time to change the duration AUTO MODE ENV OFF WATER TIME 02 ENV ASSIST TIMING MENU CONTINUE TRYING Jog MISS 315 Missed flap Position 20 # OF DIVERTS FOR STOP DIVERT MISS ONLY DIVERT FLAP (Fig. 13-21) 96 Pitney Bowes Sure-Feed Engineering Helpful Tip: If the water time is set at 01 and less water is required, turn down the water tank air pressure at the pressure gauge, see figure 18-22. Alter air pressure by: 1. Gently pull up on the control knob to unlock it. 2. To increase the air pressure, turn the knob clockwise. 3. To decrease the air pressure, turn the knob counter clockwise. 4. Once the air pressure has been set, push the control knob back down to lock it. Water volume can be further decreased by turning the flow valve in a clockwise direction, see figure 9-4, page 56, to limit the water flow in the line. Turn know counter clockwise to increase air pressure, clockwise to decrease (Fig. 13-22) 97 Pitney Bowes Sure-Feed Engineering Setting Options in the Envelope Menu Window: The FlowMaster RS is programmed with two distinct options that deal with, missed envelopes. The first is the “Jog Miss / Miss Stop” option that was primarily designed to be used with good envelope stock. The second is the “Continue Trying” option that was designed to be used with envelope stock that is in less than optimum condition. Jog Miss / Miss Stop Button “Jog Miss” When a missed envelope flap is detected, this feature will allow the machine to continue to run at jog speed until it reaches a predetermined position. The ideal position for the machine to stop is when the material being inserted is in front of the insert air plate, providing access for easy removal, see figure 13-23. Envelope Menu ENV OFF AUTO MODE WATER TIME 02 Each time this button is pressed it will change between “Jog Miss” and “Miss Stop” Jog MISS 315 Missed flap Position DIVERT FLAP ENV ASSIST TIMING MENU CONTINUE TRYING 20 # OF DIVERTS FOR STOP DIVERT MISS ONLY (Fig. 13-23) “Miss Stop” This will stop the machine when the material being inserted is still on the insert deck. This will occur when an envelope flap is not detected. (i.e. envelope miss feeds or the flap doesn’t open properly.) The operator is now required to lift the cover over the pusher fingers to remove the material manually from the insert deck or replace the missing or defective envelope. 98 Pitney Bowes Sure-Feed Engineering “Continue Trying” To use this feature press the button, the button will light up indicating that the feature is engaged, see figure 13-24. This feature will allow the front table to continue cycling two more times in an attempt to pull an envelope while suspending all activity on the rest of the machine. If after two more attempts to pull an envelope fail, the machine will stop indicating a missed envelope. The logic program in the machine has assumed that the envelope at the vacuum shuttle is damaged requiring operator intervention to correct it. When using this feature the machine speed must be set no higher than 10,000 per hour. The reason for the speed reduction is this, the feature was installed for the purpose of running curled or bent envelopes that tend to be difficult to run. Lowering the speed gives the vacuum plate in the envelope shuttle more time to acquire each envelope. The pusher assembly is driven by a servo motor. This motor will stop while the front table attempts to pull an envelope, when the envelope is pulled the motor will resume running at the speed set in the operator’s run screen. If the speed is set higher than 10,000 per hour, the impact to the motor starting at the higher speed may cause the motor to exceed the torque limitation set in the servo drive and error out the motor. The “Cascade” feature found in feeder #1 must be turned “OFF” to prevent a conflict in logic when using this feature. Envelope Menu This button will light up when the feature is engaged. (Reminder: The machine speed must be set to 10,000 or less. The “Cascade” feature in feeder #1 must be turned OFF.) ENV OFF AUTO MODE WATER TIME 02 Jog MISS 315 Missed flap Position DIVERT FLAP (Fig. 13-24) 99 ENV ASSIST TIMING MENU CONTINUE TRYING 20 # OF DIVERTS FOR STOP DIVERT MISS ONLY Pitney Bowes Sure-Feed Engineering Divert On/Off Button “Divert Miss Only” This feature allows the machine to continue to run the material group containing an “Divert Double Only” incomplete collated set or a set containing a double without disrupting the integrity of the other “Divert Miss & Double” material groups in the material track or stopping the machine, see figure 13-25. When a feed error is detected at a material feeder, a signal is simultaneously sent to the remaining feeders in sequence, disabling the impulse to feed into the collated set where the error occurred. The collated set containing the error will be inserted into a envelope and passed “Unsealed” through the turnover to the Diverter where it will be automatically taken out of the mail stream. (Note: You must have a Diverter installed in your system before this feature will work) (Fig. 13-25) Envelope Menu ENV OFF AUTO MODE WATER TIME 02 Jog MISS 315 Missed flap Position DIVERT FLAP ENV ASSIST TIMING MENU CONTINUE TRYING Press once to “Divert Miss Only”. Press twice to “Divert Doubles” Only”. Press a third time to “Divert Miss & Doubles”. 20 # OF DIVERTS FOR STOP DIVERT MISS ONLY Press the number, a numeric touch pad will appear. Set the number of diverts you wish to run before stopping the machine to make corrections on the feeder set up causing the errors. The number range is from 1 to 999. (Reminder: Don’t enter any number higher than the amount of envelopes you wish to correct.) 100 Pitney Bowes Sure-Feed Engineering Envelope Feed Hopper Set Up: 1. Press the Envelope Menu button on the operators run screen, then press the “Auto Mode / Setup Mode” button to read “Set-Up Mode”, see figure 13-26. This feature will allow the envelopes to run without the material feeders engaged. (Note: Do not leave the Set-Up Mode on while running a job. The Set-Up Mode by design will disable the Envelope Detect Sensor. If the Envelope Detect Sensor does not register the presence of an envelope, the CPU will not send a pulse to activate the water solenoid. Running a job in “Set-Up Mode” will result in unsealed envelopes.) Press button until it reads “Set-Up Mode” ENV OFF AUTO MODE WATER TIME 02 MISS STOP 315 Missed flap Position ENV ASSIST TIMING MENU CONTINUE TRYING 20 # OF DIVERTS FOR STOP DIVERT FLAP DIVERT MISS ONLY Envelope Menu (Fig. 13-26) 101 Pitney Bowes Sure-Feed Engineering 2. Standing in front of the “Front Table”, loosen the lock knobs that secure the envelope hopper side guide and guide rail to the top of the “Front Table”, loosen the lock knobs that secure the envelope hopper back plat as well. 3. Place an envelope into the envelope feed hopper, holding the bottom edge of the envelope flush against the inside surface of the envelope guide rail of the envelope feed hopper, see figure 13-27. 4. Move the envelop guide rail and sample envelope until the flap edge of the envelope is approximately 1/8” from touching the stationary guide fingers of the envelope in-feed conveyor. Set the envelope guide rail to provide an 1/8” gap between the top of the envelope and the guide fingers of the envelope in-feed conveyor Loosen lock knob to adjust the envelope guide rail (Fig. 13-27) 5. Go to the exit end of the front table and place the same sample envelope in the envelope track with bottom edge flush against the inside surface of the envelope guide rail, see figure 13-28. 6. Move the envelop guide rail and sample envelope until the flap edge of the envelope is approximately 3/16” to ¼” from touching the inside surface of the stationary flap closer guide. Set the envelope guide rail to provide a 3/16” to ¼” gap between the top of the envelope and the stationary flap closer guide (Fig. 13-28) 102 Pitney Bowes Sure-Feed Engineering Place a moderate stack of envelopes into the envelope feed hopper. 8. Set the trailing back plate of the envelope feed hopper to “just” touch the stack of envelopes in the envelope hopper, secure the adjustment with the retaining lock knobs, see figure 13-29. Turn the retaining lock knobs counter clockwise to loosen, clockwise to tighten. Position back plate to “Just” touch the stack of envelopes in the hopper (Fig. 13-29) 7. Jog the machine to the position where the envelope feed shuttle has retracted completely into the envelope feed hopper.(Commonly known as the “Full Back Position”) Position the “Envelope Jog Wedge” so that the thinnest edge rest approximately 1/8 under the envelope stack, see figure 13-30. 8. Adjust the height of the feed gate by turning the adjustment knob located on the top of the assembly, allowing free passage of only one (1) envelope under the feed gate. (Note: Turning the adjustment knob clockwise will lower the feed gate, turning the adjustment knob counter-clock wise will raise the feed gate. See figure 13-30.) 103 Pitney Bowes Sure-Feed Engineering Adjust the separator gate by turning the adjustment knob clockwise to lower the gate, counter clockwise to raise it. (View of Envelope Jog Wedge looking through the envelope guide rail) Position the jog wedge 1/8” under the envelope stack with the envelope shuttle in the “Full Back Position” (Fig. 13-30) 104 Pitney Bowes Sure-Feed Engineering Settings to Open the Envelope Flap: The envelope opening features of the FlowMaster are made up of three different assemblies that work, in conjunction with each other. The first is the Pre-Open Flex Guide. The flex guide starts the flap to lift by bending the top edge of the envelope slightly below the surface of the envelope track. The second is the Envelope Wheel Opener Assembly. The wheel opener allows for the continuation of flap lift, to a near vertical position, before passing under the Opener Plow. The plow then forms the lifted flap into an open position and guides it under the insert air plate. 1. Jog the machine forward until an envelope is fed into the gripper jaw and begins to move from the envelope feed hopper. Stop the envelope when the leading upper left-hand corner is under the envelope pre-open flex bar, as shown in figure 13-31. Loosen screw located under the front table jam detect sensor to adjust the Pre-Flex envelope opener bar Manually adjust the position of the pre-flex bar and tighten the retaining screw located under the front table jam detect sensor (Fig. 13-31) 2. Using a 5/32 Allen wrench, loosen the retaining screw located under the front table jam detect sensor, adjust the envelope pre-flex bar , until the flap edge is slightly bent just below the surface of the envelope track and tighten the retaining screw, see figure 13-31. 105 Pitney Bowes Sure-Feed Engineering 3. Continue to slowly jog the envelope forward until the lead edge of the envelope approaches the “Opener Plow”. The flap of the envelope should be raised enough so the opener plow can pass under it. The contour edge of the plow will then finish opening the envelope as it passes under it and guide the flap under the insert air plate. (Special Note: Some FlowMaster inserters have an optional “Over Head Vacuum Assist Envelope Opening device on them. If the machine you are setting up has such a device it will be necessary to move it up and out of the way. To accomplish this please see page .) Adjust the position of the plow by: A. Using a 5/32 Allen wrench, loosen the two (2) socket head Allen screws holding the clamp on the mounting bar for the plow, see figure 13-32. B. Change the position of the plow by sliding the clamp along the adjustment slots in the mounting bar. When the plow is positioned as described in step 3, tighten the socket head Allen screws. ( ! Caution: When positioning the plow, be sure to leave enough clearance for the envelope gripper jaw to pass.) Adjust the opener plow for the style and size of the envelope you are running by sliding it back and forth along the adjustment slots in the mount bar Using a 5/32 Allen wrench, loosen the retaining screws to adjust the envelope opener plow (Fig. 13-32) 106 Pitney Bowes Sure-Feed Engineering 5. Continue to jog the envelope forward until it approaches the insert air plate, the curved “Flap Guide” should allow the flap to slide under the insert air plate without creasing the flap. Adjust the position of the guide by: A. Using a 9/64 Allen wrench, loosen the two (2) socket head Allen screws holding the rod clamp on the trailing end of plow, see figure 13-33. B. Extend or retract the rod as needed to provide guidance up to the insert air plate. (Note: Do not extend the flap guide rod so far that it is under the insert air plate, see figure 13-33.) C. Rotate the guide until the end curves down just below the level of the bottom side of the insert air plate. When properly adjusted, the guide should not touch the envelope flap when the envelope is in the stop position at the insert air plate. (Helpful Tip: There are different guide groves in the flap plow and different length of guides. Choose the guide length and placement that best accommodates the flap style you are using, see figure ) Secure the adjustment using the two (2) socket head Allen screws, see figure D. (Fig. 13-33) Extend the guide rod up to the insert air plate but never under the insert air plate Turn the socket head screws counter clockwise to loosen, clockwise to tighten 107 Pitney Bowes Sure-Feed Engineering Front Table Set Up 108 Pitney Bowes Sure-Feed Engineering Front Table: Setting the Front Table Position: In order to obtain smooth and consistent inserting, it is important to have the envelope centered properly in relationship to the insert air plate. The front table is designed to allow movement of the envelope feed hopper and envelope track and can be repositioned to achieve this. 1. Place an envelope flush into an envelope gripper jaw at the envelope feed hopper. 2. Jog the machine forward until the lead edge of the envelope advances to the “Full Stop” mark in front of the insert air plate, see figure 13-34. (Note: The envelope chain should be stopped when forward movement has ceased and the gripper jaw is still closed.) 3. Remove the envelope from the gripper jaw and fold it in half to establish a center crease, then return the creased envelope back inside the gripper jaw, see figure 13-34. (Fig. 13-34) Lead edge of the envelope shown at the “Full Stop” mark Center crease in envelope shown aligned with the center of the insert air plate 109 Pitney Bowes Sure-Feed Engineering 4. To align the insert air plate with the envelope, go to the Run Menu: A. Press the “Front Table” button to bring up the Front Table menu, see figure 13-35. B. Select the type of movement, “Constant” or “Increment” (In the “Constant” mode the table will move continuously until the movement is stopped by the operator pressing the direction button a second time or the full range of motion is reached. The “Increment” mode will move the table 1/16” each time the direction button is pressed) E. Press the right or left direction arrow buttons to move the Front Table and position the center of the envelope throat to the center of the insert air plate. Press the center button to select between incremental and constant motion FRONT TABLE ADJUSTMENT CONSTANT Press directional arrows for the direction you wish to move the front table (Fig. 13-35) 110 Pitney Bowes Sure-Feed Engineering There are two Envelope Insert Vacuum plates located on the front table between the insert air plate and the envelope gripper jaw chain. One vacuum plate is stationary and contains only one (1) vacuum dish, which is always open. This plate is positioned so that the leading edge of an envelope will be over the vacuum dish when the envelope chain stops. (Providing the envelope gripper chain is in time with the front table) The other vacuum plate contains three (3 to 5) vacuum dishes and is designed to be adjusted to the trailing edge of an envelope. Together, these two plates hold the face of the envelope while the insert air plate directs air into the envelope, forming the envelope open for inserting. 5. Set the “Envelope Insert Vacuum Plate” by: A. Jog the machine forward until an envelope stops in front of the insert air plate with the leading edge even with the “Full Stop” mark, see figure 13-36. Lead edge of the envelope is at the “Full Stop” mark (Fig. 13-36) 111 Pitney Bowes Sure-Feed Engineering B. Observe the location of the vacuum dishes in relationship to the trailing edge of the envelope. One of these dishes needs be under the envelope approximately 1/8” from the trailing edge, see figure 13-37. If this is already the case, skip to step “D” and proceed, if this is not the case, proceed with step “C”) Actual location of the vacuum dishes under the envelope The stationary vacuum dish should automatically align to 1/8” from the lead edge of the envelope (Providing the gripper chain is in time with the front table) The adjustable vacuum plate should have one of the vacuum dishes located 1/8” from the trailing edge of the envelope (Fig. 13-37) 112 Pitney Bowes Sure-Feed Engineering C. Loosen the two (2) Phillips head screws, closest to the envelope chain, then slide the vacuum plate into position so that one (1) of the vacuum ports is situated 1/8” under the envelope from the trailing edge, see figure 13-38. ( ! Caution: Only loosen, removal these two (2) Phillips head screws could cause the adjustment block to fall into the machine where damage may occur) Once the plate is in this position, moderately tighten the two (2) Phillips head screws. ( ! Caution: Do not over tighten) The vacuum plate has a 1” range of motion sliding parallel to the gripper chain Loosen the two Philips screws to adjust the position of the vacuum plate (Fig. 13-38) 113 Pitney Bowes Sure-Feed Engineering D. With the vacuum plate in position, open the selected vacuum port by: (a) Insert a 5/64” Allen wrench into one of the three (3) port set screws, see figure 13-39. (b) Turn the set screw in a clockwise direction until the head of the screw is below the bottom surface of the vacuum plate. Then turn the set screws two (2) full turns more. (c) Repeat steps (a) and (b) for the two (2) remaining set screws in the selected vacuum port. (Note: Engage only one vacuum port on the adjustable plate at a time. Opening more that one port may cause vacuum to bleed off) Turn each of the set screws in the dish clockwise to open, counter clockwise to close (Fig. 13-39) 114 Pitney Bowes Sure-Feed Engineering Aligning the Envelope Entry Fingers The envelope entry fingers are designed to enter the envelope before the insert material to prevent the insert material from catching or snagging on the lifted edge of the open envelope. The air that is emitted from the insert air plate must also be considered here. As the air enters the envelope to form it in an open position, it is deflected at the bottom inside portion of the envelope and comes back out. (See item #2, figure 13-20, page 94, showing the path of the insert air) This outward moving air can be disruptive to the insert material as it enters the envelope. It is extremely important to set the insert air pressure and the envelope entry fingers properly for the material you are running. Because there are so many different envelope styles and configurations, it is important to check the entry fingers at each set up and adjust them as needed. Align the insert entry fingers, to the envelope in the following manner: 1. Jog the machine forward until an envelope has been fed and is in the full stop position in front of the insert air plate. 2. Loosen the ratchet handles, located at the top of each entry finger arm, see figure 13-40. Turn the Ratchet Handle counter clockwise to loosen, clockwise to tighten. ( ! Caution: Do not over tighten. Over tightening may cause damage.) Using a 5/32” Allen wrench, turn the retaining screw counter clockwise to loosen, clockwise to tighten. (Fig. 13-40) 115 Pitney Bowes Sure-Feed Engineering 3. Position the side entry fingers to enter the envelope just inside each end of the envelope. The side edges of the material should be completely contained under the entry fingers, see figure 13-41. Tighten the lock knobs of the side entry fingers. (Note: Movement of the entry fingers should be from side to side or parallel with the control shaft they are mounted to. Do not move the entry fingers into the envelope at this time. Movement towards or away from the envelope will be accomplished when the timing of the entry fingers is set.) 4. Position the center entry fingers to enter the envelope where they best control the leading edge of the inserts. Tighten the lock knobs of the center entry fingers, see figure 13-41. (Helpful Tip: For diagonal seam envelopes, place the center entry fingers to enter the envelope at the top of each seam. For end seam envelopes, place the center entry fingers near the lowest point of the envelope throat.) ( ! Caution: Be sure the envelope entry fingers have sufficient clearance to allow the insert pusher fingers to pass between them.) (Fig. 13-41) Position the entry to completely contain the side edges of the material ½” Adjust the timing cam of the entry fingers so they enter the envelope ½” ahead of the material Position the entry fingers in the throat of the envelope where they will best control the lead edge of the material 5. Check the insert material with the entry fingers for downward pressure. If the material curls up while going under the entry fingers, the pressure is too sever, adjust the pressure using the socket head screw located on the side of the entry finger block, see figure.13-40, page 115. 6. Place a complete set of collated material to be inserted into the envelope in the material track in front of feeder number 6. 116 Pitney Bowes Sure-Feed Engineering 7. Jog the machine forward until the material is ½” from the throat of the envelope. In this position you should see the insert entry fingers inside the throat of the envelope. If not, adjust the timing cam located between the box cam assembly and the envelope in-feed conveyor, see figure 13-42. Using a 1/8” T-Handle Allen wrench, loosen both set screws in the cam. Move the cam towards the front table to advance the timing. Move the cam towards the feeders to retard the timing. (Fig. 13-42) (Note: The tips of the envelope entry fingers should be just entering the envelope ahead of the insert material. If they are not entering the envelope ahead of the material, the timing must be re-set, see figure 13-42. 117 Pitney Bowes Sure-Feed Engineering - Material Track Set Up 118 Pitney Bowes Sure-Feed Engineering Setting Up the Material Track 3. Loosen the retaining knobs located in the top track cover at the end of the machine, near feeder #1, that secure both material side rails to the material pathway, see figure 13-43. 2. Using the widest piece of material being used in the job, fold it in half to create a center crease, then unfold the sample piece. 3. Place the crease of the unfolded piece on the center of the screw head located in the middle track section of the material path way, under feeder # 1, see figure 13-43. 4. Position the side rails so the end edges of the unfolded piece is on top of the bottom surface of each side rail and approximately 1/4” from the side surface of each rail, see figure 13-43. 5. Tighten the retaining lock knobs to secure the side rail to the material path. Top View of Collator under and behind feeder #1 (Fig. 13-43) Position each side approximately ¼” from the edge of the material Line up the center crease in the material with the center screws in the track Place letter on center track rail align center screw with crease in paper then move side guide approximately ¼ inch from edge of each material side guide Turn the retaining lock knob counter clockwise to loosen, clockwise to tighten 119 Pitney Bowes Sure-Feed Engineering 6. Open the cover over the insert pusher assembly and loosen the button head Allen screws near each end of both box cams that secure both material side rails to the material path way and insert deck. 7. Place the unfolded setup piece under the hold down drag straps and over the end of the insert deck and insert air plate. Position the crease in the center of the setup piece on the center groove in the insert deck. 8. Slide the side rails over to almost touch the end edges of the unfolded piece, see figure 13-44. ( ! Caution: Make sure the holds down straps are not under either side rail) 9. Tighten the button head Allen screws to secure the side rails to the end of the insert deck near the insert air plate, then tighten the screws at the exit end of the material path way near the insert deck. (Fig. 13-44) Slide the side rails over to almost touch the end edges of the set up material. Tighten button head screws to secure this adjustment 120 Pitney Bowes Sure-Feed Engineering Setting Material Pusher Pins The FlowMaster inserter is equipped with four (4) material belts, outer left, center left, center right and outer right. Each belt has thirty-four (34) or more depending on the size of the FlowMaster RS that are aligned to form rows of pusher pins in groups of four (4) to transport material in the pathway. These pins are pin set into a nylon block that is welded to the material belt. In the event the material being setup fits an envelope measuring 4 3/4”X6 1/2”, it may be necessary to disengage some of the material pusher pins on the material belts in the pathway, in order to narrow the material pathway. Keep in mind that the FlowMaster RS is designed to run all material to the center of the material pathway. You may find that the dimensions of the material seem to fit well after disengaging the material pusher pins from one of the material belts, however it is vital to remove the pins from both of the outside material belts to maintain the center justification required for smooth inserting. To remove the material pusher pins, perform the following: A. Jog the machine forward until one (1) group of pusher pins is even with the Phillips head screws that secure the material track sections to the material bed between the last feeder and the pusher assembly, as shown in figure 13-45. B. Lift the clear lexan cover. This will open a safety interlock circuit making it safe to interact with the material track belts C. Using your finger, push the pusher pin to the right until it is below the surface of the material track rails, see figure 13-45. Then jog the machine forward and repeat until all of the desired pins have been flipped down. (Note: The position in which you flip the pusher pins is important, it places the pusher pins over a support bracket that the material track sections and belt tracks are secured to and will eliminate unnecessary stress to the tracks and belts while flipping the pusher pins.) (Fig. 13-45) Line up pusher pins with the center screws in the material track rails between the last feeder and the pusher assembly Using your finger, push the pusher pins to the right until they are below the surface of the material track rails 121 Pitney Bowes Sure-Feed Engineering To return the pins to their up-right position, perform the following: A. Jog the machine forward until one (1) group of pusher pins is even with the phillips head screws that secure the material track sections to the material bed between the last feeder and the pusher assembly, as shown in figure 13-45. B. Slid the eraser end of a pencil between the track rails just ahead of the pusher pin, move the pencil along the belt until it engages the pusher pin, then flip the pusher pin to it’s original up-right position, see figure 13-47. (Fig. 13-46) Flip the Pusher Pin to the right until it is below the level of the material track rail. (Tip: The eraser end of a pencil works very nicely for getting the pins all the way down) Material Track Rail . Pusher pin mount block Pusher Pin Belt Flip the Pusher Pin to the left to bring it back to the original up-right position. (Tip: The eraser end of a pencil works very nicely for getting the pins above the track rail) Material Track Rail Pusher pin mount block . Pusher Pin Belt (Fig. 13-47) (Note: The position in which you fold down the pusher pins is important, it places the pusher pins over a support bracket that the material track sections and belt tracks are secured to and will eliminate unnecessary stress to the tracks while removing or replacing the pusher pins.) 122 Pitney Bowes Sure-Feed Engineering Setting Material Drag Straps Depending on the characteristics of the material being run, it may be necessary to re-position the two (2) hold down drag straps that control material in the material pathway between each of the feeders. To do this: (a) Locate the hold down drag strap clamp on the same cross member of the feeder the “Miss Sensor Emitter” is mounted to. (b) Loosen the lock knob on the clamp by turning it in a counter-clockwise direction. (c) Re-position each strap to gain optimum control of the material in the material pathway and tighten the Lock knobs by turning them in a clockwise direction. ( ! Caution: Make sure the clamp is not pinching the lead wires to the emitter before tightening the clamp. Make sure the hold down straps are positioned in-between or to the side of, the material pusher pins in the material pathway, see figure 13-48.) (Fig. 13-48) Secure Drag Straps between belts, on the lower bar. ! Caution: ! Caution: Do Not place a drag strap in the center of the feeder lower bar. A drag strap in this position will block the “Collator Track Jam Sensor” resulting in false jams. Be careful not to pinch or disrupt the electrical wire when placing a drag strap next to the emitter sensor 123 Pitney Bowes Sure-Feed Engineering Friction Feeder Set Up 124 Pitney Bowes Sure-Feed Engineering Setting Up the Material Friction Feeder Stations: (The following instruction will accommodate friction feeders using rotating separator wheels or thin sheet separator gates) From the Run Menu: 1. Select the material feeder you wish to use by pressing the appropriate feeder button according to feeder number. The setup menu, for the selected feeder will appear, see figure 13-49. (Tip: If using a window envelope, the addressed piece must be positioned to feed with the address side down. Feeder number one (1) is the preferred feeder to use for pre-addressed inserts because of the “Cascade” feature. For details of this feature see figure 162, page 177. ) Feeder Select Buttons Press this button until it reads “ON” to engage the feeder 265 318 200 09 (Fig. 13-49) 2. Press the On / Off button to engage the feeder, see figure 13-49. 125 Pitney Bowes Sure-Feed Engineering Special Note: If you are setting up a FlowMaster RS “XL” friction feeder, (A feeder with two (2) elevator belts near the back wedge) using material measuring less then 8-1/2” linear running length you should lower the elevator belts to avoid damage to them or the back wedge. To adjust the height of the elevator belts perform the following: 3. Open the clear lexan cover located at the side of the feeder. This will open a safety interlock circuit making it safe to interact with the feeder. 4. Turn the adjustment knob clockwise to lower the elevator belts, counter clockwise to raise them, see figure 13-50. ( ! Caution: To avoid damaging the elevator belts before running material measuring less than 8-1/2” linear running length.) Top view of adjustable elevator belts ! Caution: Lower the elevator belts before adjusting the back wedge when running material measuring less than 8-1/2” linear running length. Turn the adjustment knob clockwise to lower the elevator belts, counter clockwise to raise (Fig. 13-50) 126 Pitney Bowes Sure-Feed Engineering Go to the material feeder you selected: 3. Center the material in the feeder by: A. Fold one (1) piece of material in half to establish a center crease B. Loosen the two knobs, found on each side guide clamp. (The lever style knob at the top of the clamp, aligns the side guide vertically, the round style knob at the back of the clamp, aligns the side guide horizontally, see figure 13-51.) C. Place the creased piece on the feeder friction belts D. Align the crease with the phillips head screws located in the center of the separator shroud, on the separator wheels, see figure 13-51 E. Set the side guides of the feeder, to the width of the material to be run. Allow a little extra room so the material can slide freely to the friction belts of the feeder. (Note: Be sure the material is centered in relationship to the Separator Wheels) The ratchet handle locks the side guide vertically Round style knob, locks the side guide horizontally Line up the center crease in the paper with the Phillips head screws in the separator shroud (Fig. 13-51) 127 Pitney Bowes Sure-Feed Engineering 5. Set the height of the “Separator Wheel” to allow the thickness of one (1) piece of material to pass under it. To do this, turn the adjustment knob clock wise to raise the wheel, counter clock wise to lower the wheel, see figure 13-52. (Note: There should be a little resistance felt by hand, when the material is directly under the separator wheels, when this is properly set) (Helpful Tip: The thinner the material is, the more critical this setting is) (Fig. 13-52) Rotate the separator adjustment know clockwise to raise and counterclockwise to lower 5. Set the “Wedge” under the material to obtain the proper stack angle for feeding, see figure 13-53. The variables of this setting may be dependent on the characteristics of the material. A “Wedge Extension” can be used when setting up narrow material. To use a wedge extension, simply snap the anchor slots on the base of the extension to the base center rod on the wedge of the feeder. (Helpful Tip: The more the wedge is pushed under the material, the less critical the separator wheel setting becomes. If the wedge is placed out from the material, the separator wheel setting will become more critical) (Fig. 13-53) Slide the back wedge under the material to obtain the best stack angle for the material you are running Loosen the retaining lock knob to move the back wedge 128 Pitney Bowes Sure-Feed Engineering 7. Set the gap or nip of the “Ejector Rollers”. Turning the adjustment knob (See figure 13-54) clock wise and counter clock wise will change the position of the “Upper” ejector only. Turn the upper ejector roller down until it just touches the “Lower” ejector roller, this is the recommended setting for common use of letters or letter style materials. It may become necessary to raise the upper ejector roller if staple bound booklets or similar types of materials are used. (Note: Placing a single piece between the ejector rollers, you should feel a greater degree of resistance by hand, than was previously noticed at the separator wheels) Turn the eject roller adjustment knob clockwise to raise, counter clockwise to lower. (Note: Different model feeders may have a different style knob) (Fig. 13-54) 8. Fill the feeder with material. The feeders are designed to hold a stack of material up to eighteen (18) inches, depending on the characteristics of the material or a maximum weight of fifteen (15) pounds Test this part of the set up by pressing the “One Shot” button, found on the feeder menu, see figure 16-2, page177 to advance one piece at a time. Check the pieces as they feed to ensure proper separation. (Tip: If you are resetting a feeder after the initial setup and a running speed has already been set, you may wish to check the feeder at the running speed. To ramp up to running speed, press the “One Shot” button one time then press and hold down the Blue Start button located on the collator cabinet for four (4) seconds. The feeder will advance to the set running speed of the machine and will respond at that speed each time the “One Shot” button is pressed. If a safety interlock is open during this time, the feeder will go back to responding at “Jog” speed when the “One Shot” button is pressed and it will be necessary to ramp up the speed again.) (Note: The “Continuous Cycle” option, shown in the “Feeder” menu, can be used by pressing the “Continuous Cycle” button. This will allow the feeder to run continuously, at “Jog” speed, so the “Separator Wheels” can be fine tuned.) 129 Pitney Bowes Sure-Feed Engineering 10a. Set the “Double Detector” by: Method One, Presence of a Double A. Pivot the digital display screen facing the feeder you are setting up. (Make sure the correct feeder menu is displayed. See step 1, figure 13-49, page 125.) B. Press the “One Shot” button on the “Feeder Set Up” menu. This will allow one piece to feed out to the ejector rollers. (Note: It is very important to position the piece with its thickest part under the double detector roller. Shift the piece by hand if needed in order to achieve this) C. Manually place a second piece of material under the double detector roller. Check the digital display if the double indicator icon is lit, turn the detector adjustment knob in a clockwise direction until this icon is no longer lit, see figure 13-55. (Note: Just because you may find the double detector icon lit, it can not be assumed that it is set properly for the material you are about to run) D. Very slowly turn the adjustment knob in a counter clock wise direction until the “Double Icon” light goes off, see figure 13-55. (Note: Each time the latch light comes on while making this setting, it must be reset by pressing the “Reset” button in the feeder setup window. The latch light is a setup tool to be used when setting the double detector. The actual doubled detector light is designed to operate at high speeds and may flicker too fast for the human eye to see during some steps of the setup)) Turn the double detect knob clockwise to raise the detector away from the material, counter clockwise to lower the detector onto the material (Fig. 13-55) E. Verify the setting by pressing the “One Shot” button on the “Feeder Set Up” menu two (2) to three (3) times. Watch for the latch light to come on and manually check the pieces fed to ensure that no doubles are present. (Note: When properly set, the latch light should not come on) (There is no miss detector to set; the FlowMaster is designed with an automatic miss sensor at ever feeder) 130 Pitney Bowes Sure-Feed Engineering 10b. Set the “Double Detector” by: Method Two, Absence of a Double A. Pivot the digital display screen facing the feeder you are setting up. (Make sure the correct feeder menu is displayed. See step 1, figure 13-26, page 101.) B. Press the “One Shot” button on the “Feeder Set Up” menu. This will allow one piece to feed out to the ejector rollers. (Note: It is very important to position the piece with its thickest part under the caliper roller. Shift the piece by hand if needed in order to achieve this) C. Turn the detector adjustment knob in a counter clock wise direction until the “Double Icon” icon light comes on, see figure 13-55. (Note: The latch light is a setup tool to be used when setting the double detector. The actual doubled detector light is designed to operate at high speeds and may flicker too fast for the human eye to see during some steps of the setup) D. Very slowly turn the adjustment knob in a clock wise direction until the “Double Icon” light goes off, see figure 13-55. Continue to turn the adjustment knob another quarter turn when setting up a tri-fold letter. (Helpful Tip: Turn the adjustment knob more than a quarter turn when setting up thicker material and less than a quarter turn when setting up single sheet material) E. Verify the setting by pressing the “One Shot” button on the “Feeder Set Up” menu two (2) or three (3) times. Watch for the latch light, when properly set, it should not come on and manually check the pieces fed to ensure that no doubles are present. (Set all additional material feed stations by repeating steps 1 through #10a - A through E or #10b - A through E of the “Setting Up the Material Feeder Stations” section) F. When the set up is complete, exit the set up menu simply by pressing the upper right-hand corner of the set up menu window. This will automatically return you to the “Run Menu”. 131 Pitney Bowes Sure-Feed Engineering Rotary Feeder Set Up 132 Pitney Bowes Sure-Feed Engineering Setting Up the Rotary Feeder The Rotary Feeders are servo driven. These feeders have to be turned on in the operator’s run screen and feeder type must read “Rotary” before the machined is “Homed”. If you were running a job without the use of a rotary feeder and then want to use one for the next job, open the rotary feeder menu, turn on the feeder and “Re-Home” the machine, see figure 13-56. (Fig. 13-56) Press the desired feeder button to open the feeder menu Press this button until the word “Rotary” appears before Homing the machine Press the Feeder “ON / OFF” button in the feeder menu until it lights up and the word “ON” appears ON 265 Rotary 318 200 09 Special Note After turning the rotary feeder “ON” “Re-Home” the machine. To re-home the machine see Section XIII, page 74 through page 82. 133 Pitney Bowes Sure-Feed Engineering Set up the Rotary Feeder in the following manner: 1. Acquire a sample of the material you are setting up and fold it in half to create a center crease. 2. Un-fold the sample and place in the feeder. Align the center crease with the center of the middle vacuum cup, see figure 13-57. (Fig. 13-57) Secure each of the side guides by tightening the ratchet handle. Turn clockwise to tighten, counter clockwise to loosen. Align the center crease with the center of the vacuum cup. (Vacuum cup is currently under the sample piece and not visible in this photograph.) Set both side guides to 1/16” from the side edge of the sample piece. 3. Slide each of the side guides over until they are approximately 1/16” from the side edge of the sample piece. 4. Secure the side guides by tightening the ratchet handle, see figure 13-57. 5. Place a small stack of material into the feeder. 134 Pitney Bowes Sure-Feed Engineering 6. Slide the back guide up the stack of material until it lightly touches the material, secure the back guide in place by tightening the ratchet handle, see figure 13-58. (Note: If all the guides are positioned correctly, the material should slide freely in the feeder.) (Fig. 13-58) Turn ratchet handle clockwise to tighten, counter clockwise to loosen. Slide the back guide until it lightly touches the material 7. Loosen the retaining knob on the deck plate and slide the deck plate under the stack of material until ½ to ¾ of the stack is supported by the plate, see figure 13-59. (Fig. 13-59) Loosen retaining knob by turning it counter clockwise, tighten by turning it clockwise Slide the deck plate ½ to ¾ under the stack to support the material 135 Pitney Bowes Sure-Feed Engineering 7. Dial in the separator pins in the front of the stack to provide support to the front of the stack of material, see figure 13-60. (Note: There are additional separator pins located in the back guide and side guides of the feeder that are very useful in gaining controlled support for a wide range of different paper stocks, see figure 13-61.) (Note: The amount of separator pins use is directly proportionate to the amount of deck plate placed under the stack of material in step 7. A balance between the two must be established for smooth operation.) Turn the front separator pins clockwise to increase the amount of pin under the material stack, counter clockwise to decrease the amount of pin under the material stack. (Fig. 13-60) Front Separator Pins, Inside view Additional Separator Pins located in the Back Guide Additional Separator Pin located in each Side Guide (Fig. 13-61) 136 Pitney Bowes Sure-Feed Engineering 8. Dial in the vacuum cup until it approximately 1/8” under the lead edge of the material stack, see figure 13-62. The thumb screw adjustment is located in the front of the feeder, turn it clockwise to dial it further under the stack, turn it counter clockwise to dial out away from the stack. (Note: The amount of vacuum cup used is proportionate to the resistance in the material stack created by the deck plate and separator pins.) Inside View of the Center Vacuum Cup Turn thumb screw clockwise to place the vacuum cup further under the material stack, counter clockwise to move the vacuum out from the material stack. (Fig. 13-62) The Rotary feeder has a total of three vacuum cups located under the lead edge of the deck plate the outer vacuum cups can be turned on or off through the feeder menu, see figure 13-63. (Fig. 13-63) 265 Press the “Outer Vac” button to turn the outer vacuum cups “ON” or “OFF” 318 200 09 137 Pitney Bowes Sure-Feed Engineering 9. The vacuum cup has no height adjustment. If you need to alter the height relationship between the vacuum cup and the material stack, turn the height adjustment knob located on the top of the feeder, see figure 13-64. This will raise or lower the feeder assembly from the material deck up. Turn the height adjustment clockwise to raise the feeder up, counter clockwise to lower (Fig. 13-64) 10. Press the “One Shot” button in the feeder menu to cycle the feeder. Visually check the separation of the material from the bottom of the stack. In the event the feeder cycles too fast to see all the parts of the feeder moving in unison, press the “Slow Cycle” button in the feeder menu, the feeder will now cycle at 20 percent of it’s normal jog speed, see figure 13-65. (Fig. 13-65) 265 Press the “Slow Cycle button until it lights up and reads “SLOW CYCLE ON” 200 318 09 138 Pitney Bowes Sure-Feed Engineering When the Rotary Feeder cycles you should see the following events take place: ¾ The vacuum cup engages, comes up acquires the bottom piece in the material stack. ¾ The vacuum cup draws the bottom piece in the material stack down past the separator pins at the same time the mechanical separator feet come out from under the material stack. ¾ The mechanical separator feet return to their original position, under the material stack at the same time the vacuum is released from the vacuum cup. ¾ The gripper jaws in the rotary drum close on the piece pulled by the vacuum cup. ¾ The rotary drum moves forward under the product sensor and double detector holding the piece “Staged” for the following cycle. In the event the vacuum does not engage soon enough to acquire the material, set the timing for the vacuum to come on sooner by performing the following: A. Open the timing menu by pressing the “Timing” button on the operator’s run screen, see figure 13-66. B. Press the “Password” button located in the bottom left corner on the timing menu, a numeric touch pad will appear. C. Enter the password “12006” and press the “Enter” key on the numeric touchpad. (If this was done correctly a message will appear indicating successful password entry, if this message does not appear you will have to enter the password again) D. Press the “Close” window button X located in the upper right hand corner of the successful password enter message. The red “Factor Settings” button should now be visible in the lower left corner of the Timing Menu. E. Press the “Factory Settings” button to open the factory settings menu, see figure 13-66. F. Press the “Servo Setup” button located in the lower left corner of the Factory Setting menu to op the Servo Settings menu. G. All factory default settings are “0”, locate the feeder number reference for the feeder you wish to make a change to, press the “0” in the “VAC ON REF. column for that feeder. A numeric touchpad will appear. H. Enter a negative number such as [- 1] and press the enter button on the numeric touch pad. The new number value will now appear in the VAC ON REF. column, see figure 13-66. (Note: If you want to delay when the vacuum comes on, enter a positive number [1]. It is not necessary to enter a (+) symbol to indicate a positive number.) I. Press the “Close” window button X return to the Factory Settings menu. J. Press the “Timing” menu button located in the lower right hand corner of the Factory Settings menu to return to the Timing menu. K. Press the “Run Screen” button located in the lower right hand corner of the Timing menu to return to the operator’s run screen. located in the upper right hand corner of the Servo Settings menu to 139 Pitney Bowes Sure-Feed Engineering Press the Timing button to open the timing Menu Press the “Password” button, a numeric touch pad will open. Enter the password “12006” and the “Factory Settings” Button will become visible x 150 Press the “Factory Setting” button to open the Factory Setting menu FACTORY SETTING 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter Press the “Servo Set Up” button to open the Servo Set Up menu Press the number value in the “VAC ON REF.” column next to the feeder number of the feeder you wish to adjust, a numeric touch pad will appear. Enter a negative (-) number value if you want to trigger the vacuum cups sooner that the Factory Settings provided for, enter a positive (+) number value, if you want to trigger the vacuum later than the factory settings provided for. (Fig. 13-66) 140 Pitney Bowes Sure-Feed Engineering In the event the vacuum turns “Off” too soon resulting in the mechanical separator feet catching or preventing the material from being captured by the gripper jaws, set the timing for the vacuum to stay on longer by performing the following: A. Open the timing menu by pressing the “Timing” button on the operator’s run screen, see figure 13-67. B. Press the “Password” button located in the bottom left corner on the timing menu, a numeric touch pad will appear. C. Enter the password “12006” and press the “Enter” key on the numeric touchpad. (If this was done correctly a message will appear indicating successful password entry, if this message does not appear you will have to enter the password again) D. Press the “Close” window button X located in the upper right hand corner of the successful password enter message. The “Factor Settings” button should now be visible in the lower left corner of the Timing Menu. E. Press the “Factory Settings” button to bring up the factory settings menu, see figure 13-67. F. Press the “Servo Setup” button located in the lower left corner of the Factory Setting menu to op the Servo Settings menu. G. All factory default settings are “0”, locate the feeder number reference for the feeder you wish to make a change to, press the “0” in the “VAC OFF REF. column for that feeder. A numeric touchpad will appear. H. Enter a positive number such as [1] and press the enter button on the numeric touch pad. It is not necessary to enter a + symbol to indicate a positive number. The new number value will now appear in the VAC OFF REF. column, see figure 13-67. (Note: If you the vacuum shut off sooner, enter a negative number [- 1].) I. Press the “Close” window button X return to the Factory Settings menu. J. Press the “Timing” menu button located in the lower right hand corner of the Factory Settings menu to return to the Timing menu. K. Press the “Run Screen” button located in the lower right hand corner of the Timing menu to return to the operator’s run screen. located in the upper right hand corner of the Servo Settings menu to 141 Pitney Bowes Sure-Feed Engineering Press the Timing button to open the timing Menu Press the “Password” button, a numeric touch pad will open. Enter the password “12006” and the “Factory Settings” Button will become visible x 150 Press the “Factory Setting” button to open the Factory Setting menu FACTORY SETTING 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter Press the “Servo Set Up” button to open the Servo Set Up menu Press the number value in the “VAC OFF REF.” column next to the feeder number of the feeder you wish to adjust, a numeric touch pad will appear. Enter a negative (-) number value if you want to trigger the vacuum cups sooner that the Factory Settings provided for, enter a positive (+) number value, if you want to trigger the vacuum later than the factory settings provided for. (Fig. 13-67) 142 Pitney Bowes Sure-Feed Engineering In the event the mechanical separator feet are set to a height which is not conducive to smooth operation due to the relative to the height of the vacuum cup, adjust the height of the mechanical separator feet by performing the following: 1. Pivot the rotary feeder up until the gravity latch catches and holds the feeder in the up position, see figure 13-68. ( ! Warning: To avoid damage to the machine and possible minor injury, Do Not release the feeder until the latch is securely in place to support the feeder.) The latch is gravity operated and should fall into place. To lower the feeder lift “Up” on the feeder, then lift “Up” on the latch, hold the latch out of the way while lower the feeder to the operating position. ! Warning: ! Make sure the latch is securely in place before releasing the feeder Pivot the feeder up to the right (Fig. 13-68) 143 Pitney Bowes Sure-Feed Engineering 2. Using a 4mm Allen wrench loosen the retaining screw on both mechanical kicker feet, then slide each mechanical kicker foot to the height you desire. Tighten the retaining screws to secure the adjustment, see figure 13-69. (Fig. 13-69) Using a 4mm Allen wrench, loosen the mechanical kicker foot by turning the screw counter clockwise, tighten by turning clockwise Adjust the mechanical kicker foot by sliding it up or down to the desired height ! Caution ! Make sure you adjust “Both” mechanical kicker feet to the same height. Failure to do so may result in paper jams 144 Pitney Bowes Sure-Feed Engineering Once the feeder is separating and pulling material correctly, set the double detector by performing the following: 1a. Set the “Double Detector” by: Method One, Presence of a Double A. Pivot the digital display screen facing the feeder you are setting up. (Make sure the correct feeder menu is displayed.) B. Lift the feeder to the “Up and Latched” position, see figure 13-70. C. Manually place two (2) pieces of material under the double detector roller. (See figure 13-70) if the double indicator icon is lit, turn the detector adjustment knob in a clockwise direction until this icon is no longer lit. (Note: Just because you may find the double detector icon lit, it can not be assumed that it is set properly for the material you are about to run) D. Manually remove one (1) of the two (2) pieces of material from under the double detector. The double detect icon light should go off. E. Verify the setting by pressing the “One Shot” button on the “Feeder Set Up” menu two (2) to three (3) times. Watch for the latch light to come on and manually check the pieces fed to ensure that no doubles are present. (Note: When properly set, the latch light should not come on) F. When the set up is complete, exit the set up menu simply by pressing the upper left-hand corner of the set up menu window. This will automatically return you to the “Run Menu”. Turn the adjustment knob clockwise to raise the detector, counter clockwise to lower the detector Place sample pieces under the double detector roller bearing (Fig. 13-70) 145 Pitney Bowes Sure-Feed Engineering 1b. Set the “Double Detector” by: Method Two, Absence of a Double A. Pivot the digital display screen facing the feeder you are setting up. (Make sure the correct feeder menu is displayed.) B. Lift the feeder to the “Up and Latched” position, see figure 13-70. C. Manually place two (2) pieces of material under the double detector roller. (See figure 13-70) Turn the detector adjustment knob in a counter clock wise direction until the double detector icon light comes on. (Note: Just because you may find the double detector icon lit, it can not be assumed that it is set properly for the material you are about to run) D. Very slowly turn the adjustment knob in a clock wise direction until the double detector icon light goes off. Continue to turn the adjustment knob another quarter turn when setting up a tri-fold letter. (Helpful Tip: Turn the adjustment knob more than a quarter turn when setting up thicker material and less than a quarter turn when setting up single sheet material) E. Verify the setting by pressing the “One Shot” button on the “Feeder Set Up” menu two (2) to three (3) times. Watch for the latch light to come on and manually check the pieces fed to ensure that no doubles are present. (Note: When properly set, the latch light should not come on) F. When the set up is complete, exit the set up menu simply by pressing the upper left-hand corner of the set up menu window. This will automatically return you to the “Run Menu”. The Rotary Feeder also has a product sensor that functions similarly to the product sensor on the friction feeder with one major exception both the double detector and the product detector time of engagement can be set in the “Servo Menu” of the Factory Settings. Depending on the type of product you are running, you may wish to advance the timing of the detection. To adjust the settings perform the following: A. Open the timing menu by pressing the “Timing” button on the operator’s run screen, see figure 13-71. B. Press the “Password” button located in the bottom left corner on the timing menu, a numeric touch pad will appear. C. Enter the password “12006” and press the “Enter” key on the numeric touchpad. (If this was done correctly a message will appear indicating successful password entry, if this message does not appear you will have to enter the password again) D. Press the “Close” window button X located in the upper right hand corner of the successful password enter message. The red “Factor Settings” button should now be visible in the lower left corner of the Timing Menu. E. Press the “Factory Settings” button to bring up the factory settings menu, see figure 13-71. F. Press the “Servo Setup” button located in the lower left corner of the Factory Setting menu to open the Servo Settings menu. 146 Pitney Bowes Sure-Feed Engineering G. All factory default settings are “0”, locate the feeder number reference for the feeder you wish to make a change to, press the “0” in the “MISS CHK SETTINGS. column for that feeder. A numeric touchpad will appear. H. Enter a negative number such as [- 1] and press the enter button on the numeric touch pad. The new number value will now appear in the “MISS CHK SETTINGS”. Column see figure 13-71. (Note: If you want to delay when the vacuum comes on, enter a positive number [1]. It is not necessary to enter a + symbol to indicate a positive number.) I. Press the “Close” window button X return to the Factory Settings menu. J. Press the “Timing” menu button located in the lower right hand corner of the Factory Settings menu to return to the Timing menu. K. Press the “Run Screen” button located in the lower right hand corner of the Timing menu to return to the operator’s run screen. located in the upper right hand corner of the Servo Settings menu to Depending on the type of product you are running, you may wish to retard the timing of the detection, to do this perform the following: A. Open the timing menu by pressing the “Timing” button on the operator’s run screen. B. Press the “Password” button located in the bottom left corner on the timing menu, a numeric touch pad will appear. C. Enter the password “12006” and press the “Enter” key on the numeric touchpad. (If this was done correctly a message will appear indicating successful password entry, if this message does not appear you will have to enter the password again) D. Press the “Close” window button X located in the upper right hand corner of the successful password enter message. The “Factor Settings” button should now be visible in the lower left corner of the Timing Menu. E. Press the “Factory Settings” button to bring up the factory settings menu. F. Press the “Servo Setup” button located in the lower left corner of the Factory Setting menu to op the Servo Settings menu. G. All factory default settings are “0”, locate the feeder number reference for the feeder you wish to make a change to, press the “0” in the “MISS CHK SETTINGS”. column for that feeder. A numeric touchpad will appear. H. Enter a positive number such as [1] and press the enter button on the numeric touch pad. It is not necessary to enter a + symbol to indicate a positive number. The new number value will now appear in the “MISS CHK SETTINGS”. column. (Note: If you the vacuum shut off sooner, enter a negative number [- 1].) I. Press the “Close” window button X return to the Factory Settings menu. J. Press the “Timing” menu button located in the lower right hand corner of the Factory Settings menu to return to the Timing menu. 147 located in the upper right hand corner of the Servo Settings menu to Pitney Bowes Sure-Feed Engineering K. Press the “Run Screen” button located in the lower right hand corner of the Timing menu to return to the operator’s run screen. Press the Timing button to open the timing Menu Press the “Password” button, a numeric touch pad will open. Enter the password “12006” and the “Factory Settings” Button will become visible x 150 Press the “Factory Setting” button to open the Factory Setting menu FACTORY SETTING 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter Press the “Servo Set Up” button to open the Servo Set Up menu Press the number value in the “Miss CHK Settings” column next to the feeder number of the feeder you wish to adjust, a numeric touch pad will appear. Enter a negative (-) number value if you want to trigger the miss sensor and double detector sooner that the Factory Settings provided for, enter a positive (+) number value, if you want to trigger the detection later than the factory settings provided for. (Fig. 13-71) 148 Pitney Bowes Sure-Feed Engineering Envelope Turnover Set Up 149 Pitney Bowes Sure-Feed Engineering Set up the Envelope Turnover The turnover has an adjustable take up roller, (ie: The front top crown roller of the top gum belt), that can be set to accommodate the thickness of the inserted envelope you are running, To make this adjustment, perform the following: 1. Jog the machine forward until an inserted envelope approaches the exit end of the front table. 2. Manually slide the inserted envelope under the take up roller of the turnover. 3. Hold the end of the inserted envelope with your left hand and slowly adjust the pressure adjustment knob with your right hand until moderate to firm pressure is felt on the end of the envelope under the take up roller, see figure 13-72. Manually place the lead edge of an inserted envelope under the take up roller Turn the adjustment knob, clockwise to raise, counter clockwise to lower, until moderate to firm pressure is detected. (Fig. 13-72) 150 Pitney Bowes Sure-Feed Engineering Shingle Conveyor Set Up 151 Pitney Bowes Sure-Feed Engineering Set Up of the Shingle Conveyor Set up the Shingle Conveyor by performing the following: 1. Position the edge of the shingle conveyor approximately three (*3) inches from exit end of the turnover also aligning the center of the envelope knock down assembly with the center of the red gum belts. (Note: (*3) inches stated in this step is a starting reference point for the approximate distance when running a I-ounce, #10 envelope. The size and weight of the material as well as the selected running speed of the FlowMaster RS inserter has a direct bearing on the distance between the shingle conveyor and the exit end of the turnover. Increasing or decreasing this distance may be required to accommodate the material your running.) 2. Remove both the envelope knock downs by turning the retaining lock knob, located on the envelope knock down mounting clamp, in a counter clock-wise direction, then lift each mounting clamp free from the stop plate, see figure 13-73. 3. Cycle the FlowMaster RS inserter at regular running speed. 4. Observe the material at the exit end of the turnover as it lands on the shingle conveyor, the material should lightly strike the stop plate of the envelope knock down assembly near the surface of the conveyor bed, see figure 13-74. (Note: If the material is landing on the conveyor bed or striking the stop plate too high above the conveyor bed, you may need to adjust the position of the stop plate or the position of the conveyor as described in step #1 or position and adjust the envelope knock downs previously removed in step #2.) 5. Return both of the envelope knock downs (removed in step #2), to the stop plate. Position each envelope knock down approximately 1/4 “ from the top and bottom edge of the material, and tighten the retaining lock knob by turning it in a clock-wise direction, see figure 13-74. 6. Adjust the knock down straps. Once the job has been started and running speed has been established, watch the finished product as it lands on the shingle conveyor and look for these occurrences: A. The material strikes the stop plate so hard that it bounces back before landing on the conveyor. Adjust the knock down straps to apply greater resistance to the material, (slowing it down) before it strikes the stop plate. Do this by turning the adjustment knobs, on both envelope knock downs, in a clock-wise direction. B. The material lands on the conveyor before reaching the stop plate. Adjust the knock down straps to apply less resistance to the material, (allowing it to maintain speed) to reach the strikes the stop plate. Do this by turning the adjustment knobs; on both envelopes knock downs, in a counter clock-wise direction. 152 Pitney Bowes Sure-Feed Engineering (Fig. 13-73) Top View – Shingle Conveyor Loosen these Retaining Lock Knobs to adjust the position of the Envelope Knock Down Assembly Envelope Knock Down Assembly Position Knock Downs approximately ¼” from the edges of the material Loosen this retaining lock knob to adjust the height of the Envelop Knock Down Adjustment knob to increase or decrease pressure of the envelope knock down guide Loosen this retaining lock knob to adjust the position of the Envelope Knock Down on the Stop Plate (Fig. 13-74) 153 Pitney Bowes Sure-Feed Engineering Envelope In-Feed Conveyor Set Up 154 Pitney Bowes Sure-Feed Engineering The FlowMaster RS insert is designed with an envelope in-feed conveyor for continuous filling envelope hopper. This conveyor is activated by a Banner AN-7 sensor. Setting up the envelope in-feed conveyor is typically the last step in a normal job set up. To set up the envelope in-feed conveyor perform the following: 1. Loosen all three (3) of the retaining lock knobs found on the back edge of the envelope guide rail. 2. Using one the envelopes of the job as a straight edge, lay it flat on the conveyor bed with one edge against the back guide rail overhanging the end of the conveyor into the envelope hopper, see figure 13-75. Adjust envelope back guide by sliding back and forth Sample envelope must have just enough clearance to pass Separator Gate Slide sample envelope along envelope back guide (Fig. 13-75) 3. While holding the sample envelope against the back guide rail, slide the guide rail back until the sample envelope makes light contact with the inside surface of the envelope hopper separator gate, see figure 13-75. 155 Pitney Bowes Sure-Feed Engineering 4. Tighten the retaining lock knob located on the back of the envelope guide rail, close to the envelope hopper, see figure 13-76. 5. Using the same sample envelope, lay it flat on the conveyor with one end against the back edge of the envelope guide rail. Fold the sample envelope over the edge of the conveyor bed and crease the firmly to create a 90 degree angle in the envelope sample, see figure 13-76. (Fig. 13-76) Fold the sample envelope over the conveyor bed to create a gauge to set the other lock knobs by Turn Retaining Lock Knob counter clockwise to loosen, clockwise to tighten 6. Using the folded envelope as a gauge, lay it on the conveyor with the folded end against the back edge of the envelope guide rail, adjust the envelope guide rail to match the folded envelope end dimension then tighten the center retaining lock knob. Repeat this step at the far end of the envelope guide rail. This will ensure that the envelopes will travel the length of the conveyor without skewing before entering the envelope hopper. 156 Pitney Bowes Sure-Feed Engineering 7. Over-fill the envelope hopper with a stack of envelopes a 3” to 4” higher than the envelope in-feed conveyor bed, see figure 13-80. (Note: The envelope must be placed in the envelope hopper with the flap side face up and the flap edge facing the envelope in-feed conveyor.) Over-fill envelope hopper 3” to 4” (Fig. 13-77) 8. Place your hand flat along the outer edge of the envelope stack and pull the top portion of the stack back onto the conveyor bed, see figure 13-78. (Fig. 13-78) Pull the top portion of the envelope stack back onto the envelope in-feed conveyor 157 Pitney Bowes Sure-Feed Engineering 9. Fill the remaining length of the conveyor with envelopes. Fan them out and keep the height equal to the height of the envelope guide rail, see figure 13-79 Keep the height of the envelopes equal to or less than the height of the envelope guide rail (Fig. 13-79) 158 Pitney Bowes Sure-Feed Engineering Changing the Pusher Finger Configuration 159 Pitney Bowes Sure-Feed Engineering Pusher Finger Configuration for the 16-K FlowMaster In order to run the FlowMaster at speeds over 12000 per hour, it will be necessary to change the pusher finger configuration depending on the model FlowMaster you are running and / or the pin spacing you’re running in. To change the pusher finger configuration, perform the following: 1. Jog the machine forward until three (3) pusher lugs appear on the top surface of the box cam and one (1) pusher lug is positioned at 3-o’clock on the pusher drive sprocket and one (1) pusher lug is positioned at 9-o’clock on the idler sprocket, see figure 13-75. (Note: The pushers can also be positioned manually. Open the clear pusher finger cover, the servo drive will automatically disengage, move the pusher finger lungs into the reference position by hand.) Reference position for pusher finger configuration Top View (Set with 2 pushers) C B D E A Side View (Set with 2 pushers) F (Fig. 13-75) 160 Pitney Bowes Sure-Feed Engineering 2. Set up the pusher finger configuration to match the pusher requirements of the Servo Homing menu you wish to use. See reference charts on this page. Pusher Configuration for the FlowMaster RS 16000 (16K - 6 X 9) 16K Servo Homing Use Pusher Machine Type Selection Chain Lugs 4 Pushers FlowMaster 16000 7" Pin Spacing A, C, E, F 3 Pushers FlowMaster 16000 7" Pin Spacing B, D, F Maximum Speed 16,000 12,000 Pusher Configuration for the FlowMaster RS 16000 XL (16K - 10 X 13) 16K Servo Homing Use Pusher Maximum Machine Type Selection Chain Lugs Speed 4 Pushers FlowMaster 16000 XL 7" Pin Spacing A, C, E, F 16,000 3 Pushers FlowMaster 16000 XL 7" Pin Spacing B, D, F 12,000 2 Pushers FlowMaster 16000 XL 14" Pin Spacing C, F 12,000 161 Pitney Bowes Sure-Feed Engineering To remove a pusher finger shaft assembly, perform the following: 1. Remove the pusher finger shaft lug caps from each end of the pusher finger shaft of the selected assembly using a 3/32 allen wrench. (Note: The cap and base of each pusher finger lug were machine milled as a set. Each cap and base has been stamped with matching identification numbers. These identification numbers must be matched when re-assembling the caps back to their original position on the bases. If the caps are not properly matched to the bases, it may cause an uneven wear pattern on the pusher finger shaft, see figure 13-76.) Socket Head Allen Screws Lug Cap L4 Matching identification Numbers L4 Lug Base (Fig. 13-76) 2. Manually position the pusher shaft to the bottom side of the box cam assembly approximately one (1) inch to the right of the idler sprockets. 3. Lift the box cam assembly, from the operator’s side, and retrieve the pusher shaft. (Note: If these steps have been performed correctly, the pusher shaft should be found laying freely on the insert deck.) 4. Return the pusher chain to the original position, where step #1 was performed and return the lug caps to their prospective bases. (Note: Be sure to line up the matching identifying numbers.) 162 Pitney Bowes Sure-Feed Engineering To add a pusher finger shaft to a selected chain lug, perform the following: 1. Remove the lug caps from the lug bases on both pusher chains at the selected position. (Note: The cap and base of each pusher finger lug were machine milled as a set. Each cap and base has been stamped with matching identification numbers. These identification numbers must be matched when re-assembling the caps back to their original position on the bases. If the caps are not properly matched to the bases, it may cause an uneven wear pattern on the pusher finger shaft, see figure 13-76.) 2. Manually position the un-capped lug bases to 4-o’clock on the pusher assembly drive sprocket, located at the right end of box cams. 3. Position the pusher shaft assembly on the lug bases, (be sure that the white nylon spacers at both ends of the pusher shaft are arranged between the lug bases and the inside surface of the box cams, see figure 19.). (Note: It may be necessary to move the entry fingers out of the way to gain extra room for this step.) 4. While holding the pusher shaft to the lug bases, manually pull the pusher shaft assembly into the top track of the box cam, see figure 13-77. Shown with entry fingers moved out of normal operating position (Fig. 13-77) 5. Secure the pusher shaft to the lug bases with the prospective caps. (Note: Be sure to line up the matching identifying numbers.) 163 Pitney Bowes Sure-Feed Engineering Section - XIV Optional Over Head Vacuum Assist Envelope Opener 164 Pitney Bowes Sure-Feed Engineering The Optional Over Head Vacuum Assist Envelope Opener has been found to be a useful device in running flat size end seam envelopes that have been packaged and stored on end causing a sever curl at one end of the envelope. It has also been found useful in running some custom style envelopes. To set up and run the Over Head Vacuum Assist Envelope Opener, perform the following: 1. Open the envelope menu by pressing the “ENV MENU” button located in the upper right hand corner on the operator’s run screen. 2. Press the “Envelope Assist Timing Menu” Button located in the upper right corner of the Envelope Menu, see figure 14-1. 3. Press the “Opener ON / OFF” button located in the upper left hand corner of the Envelope Assist Timing Menu until it reads “Opener ON”. 4. Jog the machine forward until an envelope comes to the “Full Stop” mark and the chain stops moving. (Helpful Tip: Take note of the “Encoder Position” reference located in the bottom center of the Envelope Assist Timing Menu. You will need to use this reference in Step 5.) 5. Press the number value under the heading “Plunger Down Vac On”. A numeric touch pad will appear. Enter the number currently appearing in the “Encoder Position” previously referenced in Step 4 then press the “Enter” key on the numeric touch pad, see figure 14-1. The number you entered on the touchpad should now appear as the setting for the “Opener On” value. 6. Press the number value under the heading “Plunger Up”. A numeric touch pad will appear. Enter a number ten (10) degrees higher than the “Plunger Down Vac On” value then press the “Enter” key on the numeric touch pad. The number you entered on the touch pad should now appear as the setting for the “Opener On” value. 7. Open the “Timing Menu” by pressing the Timing Menu button located on the left side of the operator’s run screen. 8. Check the number value under the heading “Insert Air OFF”. Go back to the operator’s run screen, re-open the Envelope Menu, then re-open the “Envelope Assist Timing Menu” 9. Press the number value under the heading “Plunger Vac Off”. A numeric touch pad will appear, see figure 14-1. Enter the number value found in the “Insert Air Off” section of the Timing Menu then press the “Enter” key on the numeric touch pad. The number you entered on the touch pad should now appear as the setting for the “Plunger Vac Off” value. 165 Pitney Bowes Sure-Feed Engineering Env Assist Timing Menu WATER TIME Auto Mode ENV OFF 02 Continue Trying Miss Stop 320 Missed Flap Position ENV ASSIST MENU Opener Off Plunger Down Vac On 025 Divert Flap Plunger 220 Divert Miss & Doubles Plunger Vac Off Up 230 # Of Diverts For Stop 285 Encoder Position Press the number value under the headings, a numeric touch pad will appear, enter the new number and press the enter key. The new number should appear under the heading 220 “Encoder Position” is for reference only. Do not attempt to change the number value. x 150 7 8 9 AC 4 5 6 Del 1 2 3 + /- 0 Enter (Fig. 14-1) 166 Pitney Bowes Sure-Feed Engineering To position the vacuum cups of the Over Head Vacuum Assist Opener, perform the following: 1. Jog the machine forward until an envelopes comes to the “Full Stop” mark and the envelope gripper chain stops moving. 2. Position the vacuum cups towards the outer edges of the envelope near the throat in the following manner: a. Using a 3/16” Allen wrench, loosen the socket head retaining screws located at each end of the sliding mount plate to adjust the side to side location of the vacuum cups. The screws are accessible from each side of the vacuum solenoid, see figure 14-2. ( ! Caution: Do Not block the operating path of the Insert Entry Fingers with the vacuum cup assemblies.) Adjust the side to side location of the vacuum cups Using a 3/16 Allen wrench, turn both of the retaining screw counter clockwise to loosen, clockwise to tighten. (Fig. 14-2) 167 Pitney Bowes Sure-Feed Engineering b. Using a 3/16” Allen wrench, loosen the socket head retaining screw located on the top of each solenoid at the slide bar to adjust the forward or backward position of the vacuum cups, see figure 14-3. ( ! Caution: Do Not block the operating path of the Envelope Gripper Chain with the vacuum cup assemblies.) Adjust the forward and backward position of the vacuum cups Using a 3/16” Allen Loosen the retaining screw by turning it counter clockwise, turn clockwise to tighten (Fig. 14-3) 168 Pitney Bowes Sure-Feed Engineering c. Adjust the height of the vacuum cup solenoid inside the housing so that it assist in opening the envelope with minimal distortion to the throat of the envelope, see figure 14-4. ( ! Caution: Some distortion may occur using the Optional Overhead Vacuum Assist Envelope Opener, use care to keep it to a minimum, see figure 14-5 and 14-6.) Adjust the height of the vacuum cup solenoid inside the housing Using a 2.5 mm Allen wrench loosen the retaining screws by turning them counter clockwise, turn clockwise to tighten (Fig. 14-4) 169 Pitney Bowes Sure-Feed Engineering The symbol indicates the ideal placement for the vacuum cups of the Over Head Vacuum Assist Opener (Fig. 14-5) Minimal height Maximum end clearance Maximum height Minimal end clearance (Fig. 14-6) 170 Pitney Bowes Sure-Feed Engineering Section - XV Remote Control 171 Pitney Bowes Sure-Feed Engineering The FlowMaster RS is equipped with a remote control for basic run functions. The remote can be carried by an operator or mechanic and used to “Stop”, “Jog” or “Run” the machine from several feet away. For remote control operations, see figure 15-1. START button will run the machine providing there are no errors displayed on the run screen and there are no open safety interlocks STOP button will stop the machine under any condition or cycle state the machine is in START STOP CYCLE ALT ALT button has no function on the FlowMaster RS inserter CYCLE button will run the machine at jog speed only while the button is pressed providing there are no errors displayed on the run screen and there are no open safety interlocks (Fig. 15-1) 172 Pitney Bowes Sure-Feed Engineering The Remote Control of the FlowMaster RS inserter is powered by two (2) RENATA 3 volt batteries, model CR2450N. RENATA lithium batteries offer excellent storage characteristics. The loss of capacity due to self discharge is less than 1% per year at room temperature (23°C). Thanks to the high stability of their chemical system, MnO2/Li batteries have a shelf life of up to 10 years, at room temperature. The internal chemical reactions of a battery are accelerated by high temperatures and slowed by low temperatures. In other words, the loss of capacity during storage depends largely on storage temperature. Higher temperatures result in increased self discharge rates, while lower temperatures reduce self discharge. Storage at low temperatures bears the risk, however, that batteries are short circuited by moisture condensation when transferred into a warmer environment. The actual life expectancy of the batteries is undetermined due the variance of operating temperature and frequency of use. In the event you remote control fails due to weak batteries, the batteries can be easily be changed, see figure 15-2. Remove the two screws from the battery cover Remove the battery cover from the back of the remote Remove the old batteries and replace them with new batteries (Fig. 15-2) 173 Pitney Bowes Sure-Feed Engineering Section - XVI Touch Screen Menus & Factory Settings 174 Pitney Bowes Sure-Feed Engineering Operator’s Run Screen B A C R D E Operators Run Screen F Q G H P I 16000 (Fig. 16-1) O N M 175 L K J Pitney Bowes Sure-Feed Engineering Reference Letter A Feature Input Menu B C D E Feeder Menu Envelope Menu Servo Menu Maintenance Menu F G Timing Report Screen H Front Table I Conveyor Menu J Sequential Start / Stop K End L Arrow UP M Speed Input N Arrow DOWN O New Job P Job # Q Piece Count R Input Double Detect Function Access input menu to enable optional input See Fig Schedule 16-2 and 16-3 See Fig Schedule 16-4 See Fig Schedule 16-8 thru 16-11 Access Maintenance Menu to manually engage all air and vacuum solenoids See Fig Schedule Review all machine activity for the most current job run Note: This information is not stored to memory but may be hard wired to a printer. Access Front Table Menu to re-position front table for job set up Access Conveyor Menu for optional sort conveyor "Start" Begins job run by engaging all feeders in sequential order "Stop" Ends job run by disengaging all feeders in sequential order Signals PLC that the job being run is finished, also stops the clock in the Report feature Increases machine speed in increments of 1000 or 500 Changes speed increments from 1000 to 500 also displays current running speed Decreases machine speed in increments of 1000 or 500 Prompts PLC to receive new feeder selection and feature selection Displays job number on screen and in report menu Displays quantity of envelopes inserted. Resets when "New Job" button is depressed Set up tool for optional input 176 Setting Type Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button Touch Screen Button & Visual indicator Touch Screen Button Touch Screen Button Numeric Touch Screen Visual indicator Visual indicator Pitney Bowes Sure-Feed Engineering A B C D E F Q G P O H 265 200 318 09 (Fig. 16-2) N M L K J I Feeder One Item Description On / Off button A One Shot button B Batch On / Off button C Batch Count Number D Friction / Shuttle button E F Outer VAC On / Off button Air Jet On / Off button G H Slow Cycle On / Off button Placement In Track I Feed Time J K L M N O P Cascade button Encoder Position Double Latch Icon Double / Jam Detect Double Detect Icon Reset button Q Count. Cycle Function Engages and disengages feeder Manuals triggers feeder to cycle one time only Engages and disengages Batch Counting function Point of entry for amount of pieces to be batched Press to identify feeder type, Friction or Rotary Engages and disengages outer vacuum cup in Rotary Feeder Only Engages and disengages "Air" separation in Rotary Feeder Only Press to reduce feeder cycle speed of "One Shot" function in Rotary Feeder Only Point of entry to determine where Rotary Feeder places piece in track Point of entry to determine when a Friction Feeder begins to cycle Engage and disengages Cascade feature. In the event feeder #1 miss feeds or runs out of paper, the machine will not stop, no other feeders will feed into a belt placement missed by feeder #1 including the envelope View field to display current encoder position (This is not an active button) Illuminates to show double is detected in test cycle during set-up Point of entry to determine when product sensor becomes active for this feature Illuminates to show double is manually detected during set-up Press to reset "Double Latch" icon after test cycle Press to continually cycle feeder during set up (Must be press a second time to stop feeder) 177 Pitney Bowes Sure-Feed Engineering A B C D E F Q G P O H 265 200 318 09 (Fig. 16-3) N M L K J I Item Description Function On / Off button Engages and disengages feeder A One Shot button Manuals triggers feeder to cycle one time only B Batch On / Off button Engages and disengages Batch Counting function C Batch Count Number Point of entry for amount of pieces to be batched D Friction / Shuttle button Press to identify feeder type, Friction or Rotary E Engages and disengages outer vacuum cup in Rotary Feeder Only F Outer VAC On / Off button Air Jet On / Off button Engages and disengages "Air" separation in Rotary Feeder Only G H Slow Cycle On / Off button Press to reduce feeder cycle speed of "One Shot" function in Rotary Feeder Only Placement In Track Point of entry to determine where Rotary Feeder places piece in track I Feed Time Point of entry to determine when a Friction Feeder begins to cycle J Backup Feeder button Engage and disengages Backup feature (See page for details) K Encoder Position View field to display current encoder position (This is not an active button) L Double Latch Icon Illuminates to show double is detected in test cycle during set-up M Double / Jam Detect Point of entry to determine when product sensor becomes active for this feature N Double Detect Icon Illuminates to show double is manually detected during set-up O Reset button Press to reset "Double Latch" icon after test cycle P Press to continually cycle feeder during set up Count. Cycle (Must be press a second time to stop feeder) Q 178 Pitney Bowes Sure-Feed Engineering The following pages depict menu and feature changes found only on the Servo drive FlowMaster RS inserters. Envelope Menu B A Env Assist Timing Menu WATER TIME Auto Mode ENV OFF D C 02 K Miss Stop 320 Missed Flap Position J E Continue Trying Divert Flap Divert Jam Time # Of Diverts For Stop 015 025 Divert Miss & Doubles (Fig. 16-4) I H G 179 F Pitney Bowes Sure-Feed Engineering Envelope Menu Legend Reference Letter A B b C D E F G G2 G3 H I J K K2 Setting Function Type Engage envelope feeder Touch Screen Button Auto Mode to run live jobs Touch Screen Button Set Up Mode to run Touch Screen Button envelopes only. Used during machine set up Water Time Determine how long water Real time / Milli-seconds solenoid stays on Envelope Assist Opens menu for the Overhead Touch Screen Button Vacuum Assist Opener Determine how long sensor is blocked Divert Jam Time Real time / Milli-seconds To signal jam at diverter Determines amount of diverts occur # of Diverts for Stop Number Value Before stopping machine Divert On Miss Only Diverts inserted envelope Touch Screen Button if one or more pieces that Are detected as missing Divert On Double Only Diverts inserted envelope Touch Screen Button if one or more pieces are detected as doubled Divert On Miss and Double Diverts inserted envelope Touch Screen Button in the event of a miss feed or double feed Continue Trying Suspends Collator and Touch Screen Button Pusher activity while (Note: “Cascade” in Feeder envelope attempt to feed #1 Must be turned OFF) Divert Flap Suspends Collator and Pusher Touch Screen Button activity while front table runs out (Note: “Continue Trying” Unopened envelope to diverter Must be turned ON) Missed Flap Position Determines what point in the Encoder reference machine cycle the machine will stop in for a missed envelope. Works in conjunction "Jog Miss" feature Miss Stop Stops machine if envelope Touch Screen Button flap is not detected Jog Miss Reduces machine to jog speed Touch Screen Button then advances to "Missed Flap Position" before stopping Feature Envelope On / Off Auto Mode / Set Up Mode 180 Pitney Bowes Sure-Feed Engineering Envelope Assist Opener Menu ENV ASSIST MENU A Opener Off Plunger Down Vac On Plunger Up 220 225 Plunger Vac Off 220 B Encoder Position 135 E Item A B C D E D C (Fig. 16-5) Setting I.D. Setting Type Factory Setting Function Opener Enables & Disables On / Off Button None Overhead Vac. Assist Opener Plunger Encoder Turns Vacuum Vac. Off Reference 285 Solenoid Off Plunger Encoder Activates Plunger Up Reference 225 to lift up Encoder Encoder Displays current Position Reference None Encoder position Plunger Down Encoder Activates Plunger, down Vac. On Reference 220 Turns Vac. Solenoid On * Functional only after adding other devices to the FlowMaster RS & LS Inserters 181 Pitney Bowes Sure-Feed Engineering Timing Menu A B C D E 265 225 F R G 135 330 H 318 Q I P O 285 140 14795 Factory Setting (Fig 16-7) N M L K J (Note: Figure 16-7 shows the timing menu as it would appear after the password is entered to make the “Factor Settings” button visible) See Factory Settings chart on page 188 for an explanation of settings (A) through (R) as shown in figure 16-13. 182 Pitney Bowes Sure-Feed Engineering Timing Menu Settings for FlowMaster RS (In 4 Pusher Configuration) Item Setting I.D. Setting Type Factory Setting A * Match Times Button Varies B Feed Times Button 200 C * Input Times Varies D Batch Interrupt Envelope Detect Envelope Vacuum On Envelope Vacuum Off Insert Air On Insert Air Off Run Screen * Print Screen Job Number Button Encoder Reference Encoder Reference Encoder Reference Encoder Reference Encoder Reference Encoder Reference Button None Button Informational Display None None E F G H I J K L M N O P Q R Note: 265 225 135 330 140 285 Password Factory Settings Time & Date Button None Button Informational Display None Enter Encoder Display Button Informational Display None None None Function Factory Control for Camera Matching System Encoder reference for Feeder Start times Factory Control for Input Devices to be Added Position to hold Collator for a Feeder to Batch Count Position to activate Sensor to detect an envelope Position to activate Vacuum Solenoid Position to deactivate Vacuum Solenoid Position to activate Air & Vacuum Solenoid Position to deactivate Air & Vacuum Solenoid Returns user to Operator Run Screen Activates Printer Displays Job Number Opens Numeric touch pad to enter password Accesses Factory Settings menu after password is entered Displays Date & Time Press button to enter number displayed on Encoder to a selected timing reference Displays current Encoder position Encoder Visual Displays current Dial Display None Encoder position * Functional only after adding other devices to the FlowMaster RS & LS Inserters These are standard factory timing settings and do not reflect accommodations or concessions for variables in paper stock, which may differ regionally. If by some unknown circumstance any or all timing settings are rendered to a 0 value, these settings are useful only as a starting point. Further adjustment may be necessary dependent on paper characteristics and conditions in your region. 183 Pitney Bowes Sure-Feed Engineering Timing Menu Settings for FlowMaster RS & LS (In 2 Pusher Configuration) Item Setting I.D. Setting Type Factory Setting A * Match Times Button Varies B Feed Times Button 100 C * Input Times Varies D Batch Interrupt Envelope Detect Envelope Vacuum On Envelope Vacuum Off Insert Air On Insert Air Off Run Screen * Print Screen Job Number Button Encoder Reference Encoder Reference Encoder Reference Encoder Reference Encoder Reference Encoder Reference Button None Button Informational Display None None E F G H I J K L M N O P Q R Note: 265 225 135 330 140 285 Password Factory Settings Time & Date Button None Button Informational Display None Enter Encoder Display Button Informational Display None None None Function Factory Control for Camera Matching System Encoder reference for Feeder Start times Factory Control for Input Devices to be Added Position to hold Collator for a Feeder to Batch Count Position to activate Sensor to detect an envelope Position to activate Vacuum Solenoid Position to deactivate Vacuum Solenoid Position to activate Air & Vacuum Solenoid Position to deactivate Air & Vacuum Solenoid Returns user to Operator Run Screen Activates Printer Displays Job Number Opens Numeric touch pad to enter password Accesses Factory Settings menu after password is entered Displays Date & Time Press button to enter number displayed on Encoder to a selected timing reference Displays current Encoder position Encoder Visual Displays current Dial Display None Encoder position * Functional only after adding other devices to the FlowMaster RS & LS Inserters These are standard factory timing settings and do not reflect accommodations or concessions for variables in paper stock, which may differ regionally. If by some unknown circumstance any or all timing settings are rendered to a 0 value, these settings are useful only as a starting point. Further adjustment may be necessary dependent on paper characteristics and conditions in your region. 184 Pitney Bowes Sure-Feed Engineering Timing Menu Settings for FlowMaster RS & LS (In 3 Pusher Configuration) Item Setting I.D. Setting Type Factory Setting A * Match Times Button Varies B Feed Times Button 75 C * Input Times Varies D Batch Interrupt Envelope Detect Envelope Vacuum On Envelope Vacuum Off Insert Air On Insert Air Off Run Screen * Print Screen Job Number Button Encoder Reference Encoder Reference Encoder Reference Encoder Reference Encoder Reference Encoder Reference Button None Button Informational Display None None E F G H I J K L M N O P Q R Note: 265 225 135 330 140 285 Password Factory Settings Time & Date Button None Button Informational Display None Enter Encoder Display Button Informational Display None None None Function Factory Control for Camera Matching System Encoder reference for Feeder Start times Factory Control for Input Devices to be Added Position to hold Collator for a Feeder to Batch Count Position to activate Sensor to detect an envelope Position to activate Vacuum Solenoid Position to deactivate Vacuum Solenoid Position to activate Air & Vacuum Solenoid Position to deactivate Air & Vacuum Solenoid Returns user to Operator Run Screen Activates Printer Displays Job Number Opens Numeric touch pad to enter password Accesses Factory Settings menu after password is entered Displays Date & Time Press button to enter number displayed on Encoder to a selected timing reference Displays current Encoder position Encoder Visual Displays current Dial Display None Encoder position * Functional only after adding other devices to the FlowMaster RS & LS Inserters These are standard factory timing settings and do not reflect accommodations or concessions for variables in paper stock, which may differ regionally. If by some unknown circumstance any or all timing settings are rendered to a 0 value, these settings are useful only as a starting point. Further adjustment may be necessary dependent on paper characteristics and conditions in your region. 185 Pitney Bowes Sure-Feed Engineering Servo Menu for Standard FlowMaster LS A B 150 (Fig. 16-8) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 186 Pitney Bowes Sure-Feed Engineering Servo Menu for Standard FlowMaster LS 12000 XL A B 150 (Fig. 16-9) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 187 Pitney Bowes Sure-Feed Engineering Servo Menu for the FlowMaster RS 6X9 A B 150 (Fig. 16-10) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 188 Pitney Bowes Sure-Feed Engineering Servo Menu for the FlowMaster RS XL A B 150 (Fig. 16-11) Reference Letter A B Feature Home Servo's to designated pusher configuration and pin spacing Homing Position Function Setting Type Automatically advances the Touch Screen Button Gripper jaws, Pusher fingers and Collator Track Pins to the correct timing position Encoder reference set for Encoder Setting homing position 189 Pitney Bowes Sure-Feed Engineering Factory Settings 190 Pitney Bowes Sure-Feed Engineering Factory Settings for the Q Series PLC FlowMaster RS inserters come with preset factory settings in the Programmable Logic Controller, (PLC). These settings control the frequency for the feeder drives as well as the front table drive motor for the FlowMaster. There are also encoder and time settings used for some machine functions such as batch feed, speed up after stop, jog speed and standard delay start. These settings were derived by running the FlowMaster inserter with 220 volts, single phase, with a 30 amp breaker, set up with 50# offset or 20# bond paper inserting into a 24# white wove standard #10, 6X9 and 9X12 booklet envelopes. In order to gain access to the factory default settings screen, perform the following: (1) Press the Timing button located on the upper right side of the Operator’s Touch Screen, the Timing menu will appear on the screen, see item F, figure 16-1. (2) Press the Password button located on the lower left side of the Timing menu. A security password window will appear along with a numeric touch pad, see figure 16-12. (3) Enter “12006” on the numeric touch pad and press the return arrow located in the bottom right corner of the touch pad. The Security Password window will now read, (If this was done correctly a message will appear indicating successful password entry, if this message does not appear you will have to enter the password again). (4) Press the “Close” window button X located in the upper right hand corner of the successful password enter message. The “Factor Settings” button should now be visible in the lower left corner of the Timing Menu. (5) A factory Setting button will now be visible in the lower left corner of the Timing menu. Press the Factory Setting button to gain access to the factory setting menu, see figure 16-1. The standard factory default settings can be found on page . (Note: The factory setting button is a secure button and will only remain visible on the timing menu for five (5) minutes. If after five (5) minutes you wish to re-enter the factory settings menu, you will have to re-enter the password in order to gain access 191 Pitney Bowes Sure-Feed Engineering Timing Menu (Fig. 16-12) 225 265 135 330 140 295 318 Factory Setting Security Password Pressing the “Password” button will bring up the window as shown at the right. The “Factory Settings” button will not be visible until the password “12006” has been entered correctly COMPLETED x 150 7 8 9 4 5 6 1 2 3 + 0 Note: The Security Password screen shown in this view has been reduced to fit the illustration. 192 Pitney Bowes Sure-Feed Engineering Factory Settings Menu A B C D 0015760951 0014650025 218 285 Diverter Connected S E 80 R F Q 112607 P 150 G 200 H 140 I 10 2000 120 2500 J (Fig. 16-13) O N M L K Note: The number values shown in this diagram are for illustration only and may not accurately represent the real factory settings for all Servo Drive FlowMaster RS Models. See Factory Settings chart on pages 189 for an explanation of settings (A) through (S) as shown in figure 16-13. (Note: Some settings are different depending on Servo Drive Model, Pin configuration and Pusher configuration.) 193 Pitney Bowes Sure-Feed Engineering Factory Settings for FlowMaster RS Item Setting I.D. A Total Envelopes B Total Cycles Select # C of Feeders Current Encoder Position Diverter Connected Turnover Type Feeder Fault Position 7" Servo Setup Feeder Speeds Timing Screen D E F G H I J L M N O P Q Factory Setting Function Displays total Display Informational Display None envelopes run Displays total machine cycles Selects Button Informational Display Button Button Encoder Reference None Set to Number of Feeders on machine None Active if Diverter is present Set to motor style in Turnover 140 Button None Button None Button None Jam Time Real Time In 1/10 of second 10 Speed Up After Stop Feeder Fault Position 14" Jog Speed (Feeder Drive) Jog Speed (Main Drive) Encoder Setting Encoder Reference Piece Per/ Hour Piece Per/ Hour Pump Motor Real Time In 1/10 of second Informational Display Feeder K Setting Type Informational Time Out Software Revision Delay R Start Real Time In 1/10 of second S Batch Speed Hertz Setting 120 140 2500 2000 150 Parameters in PLC Displays current encoder position Enables / Disables Diverter Not Active in all Models Position in cycle to stop for feeder error Opens Servo Menu Opens Feeder Speeds Menu (See Fig. 16-6) Returns to Timing Menu Actual time the material obstructs the miss sensor when it is interpreted as a jam Encoder position the machine must pass before ramping up to the selected run speed after stopping Position in cycle to stop for feeder error Actual speed feeders run while jogging machine Actual speed machine runs while jogging Actual time the pump motor runs after machine None stops before timing out Identifies Software installed in machine Delays machine motion when started to allow 01 80 Warning: Never set over 90 time for air to engage Accelerates feeder speed when batch counting 194 Pitney Bowes Sure-Feed Engineering In the event you wish to change the factory settings perform the following: (1) Open the factory settings menu as described on page 186, remember, the password to enter is, 12006. (2) Press the number of the function you wish to change. A numeric touch pad will appear. (3) Enter the new setting on the numeric touch pad and press the return arrow located in the lower right hand corner. The new number you entered on the touch pad will now appear as the new setting. In most applications the FlowMaster RS will run exceptionally well with the factory settings. However, paper characteristics can vary dramatically in different regions. In some cases altering some of the factory settings may improve the efficiency of the FlowMaster RS. (Caution: Many of the factory settings reference the encoder position or time. Before altering the factory settings, make sure the FlowMaster RS is properly timed and the encoder is set correctly as stated on pages 75 through 76 of the Operator’s Manual.) The following are some examples of conditions that warrant changing the factory settings. Example (A) Issue: After a feeder miss or double, some of the feeders feed the first piece onto the Pusher pins of the collator material belts instead of between them, often times causing a “Collator Track Jam” error. This only happens while the machine is ramping up to run speed. It doesn’t happen while jogging the machine. Cause: The collator track belts startup too fast or too slow to accommodate the feeders. Solution: Alter the Speed Up After Start setting in order to accommodate the feeders first cycle while ramping up to run speed. (Helpful Tip: If the leading edge of the material is landing on top of the pusher pins, lower the setting of the “Speed Up After Stop” function. If the trailing edge of the material is landing on top of the pusher pins, raise the setting of “Speed Up After Stop” function.) Example (B) A feeder errors occurs but when the “Fill Track” button is pressed the material feeds Issue: into the back of the pusher pins of the collator material belts and wrinkles up. Cause: The collator material belts have stopped too close to the feeder when the error occurred. Solution: Jog the machine forward until the pusher pins of the collator material belts are far enough ahead of the feeder to allow the material land flat into the material pathway. Review the “Current Encoder Position” displayed in the upper right hand corner of the Factory Setting menu, enter that number as the “Feeder Fault Stop Position”. (Note: On FlowMaster RS model XL, be sure to enter the new setting in the correct pin spacing menu that the machine is currently running. ie: 14” or 7”. ) 195 Pitney Bowes Sure-Feed Engineering Example (C) Issue: When jogging the machine a “Collator Track Jam” error appears Cause: At jog speed the material is landing on top of the pusher pins of the collator material belts. Solution: Increase or decrease the “Jog Speed Feeder Drive” so the material will land Between the pusher pins of the collator material belts. (Note: The jog speed of the feeder drive is normally 50 to 60 percent faster than the jog speed for the main drive.) If the FlowMaster is set up to run non-uniform size or some other paper medium that varies significantly from the normal, it may again become necessary to alter some of the factory settings. The following is an example of when changing the hertz settings of the feeder drive may be appropriate. Example (D) Size issue: While running a standard letter folded to 3-5/8” X 8-1/2” in some of the feeders and a coupon measuring 2-1/2” X 6” in one of the other feeders at 10,000 per hour, the FlowMaster gives a false feeder miss error only in the feeder running the smaller coupon size piece on the operators run screen, at 8,000 per hour the false miss still occurs but not as often, at 6,000 per hour the false miss still occurs but less often than it did at 8,000 per hour. The lower the speed the machine is set at the less frequent the false miss occurs. Cause: The smaller size piece is passing under the miss sensor, faster than the miss sensor can register or the space between pieces shingling from the separator wheels is greater than ½”. Solution: Check the set up of the feeder, make sure that a ½” space is being created between pieces as they pass under the miss sensor. Lower the hertz settings at each speed level the problem is occurring. Typically the problem is more pronounced at higher running speeds. Start at the lower speeds first then work your way up, see page . (Note: Adjustment of the hertz settings is not a solution for a poor set-up, always check the feeder set-up before adjusting the hertz settings.) 196 Pitney Bowes Sure-Feed Engineering To Change the hertz setting, perform the following: (1) Open the factory settings menu as described on page 175, remember, the password to enter is, 12006. (2) Press the Feeder Speeds button located in the lower right corner of the factory settings menu. A window will appear over the factory settings menu, see figure 16-5, item (I) page 179. (3) Press the number of the hertz setting located below the speed range that you wish to change. A numeric touch pad will appear, see figure 16-6. (4) Enter the new hertz setting on the touch pad and press the return arrow located in the bottom left corner of the touch pad. The new number you entered will now appear as the hertz settings for the speed range you chose to alter. (Note: The FlowMaster RS & LS models has two different hertz setting charts that appear in the same window. The top chart reads “FEEDER SPEEDS IN HZ @ 14” SPACING” the bottom chart reads “FEEDER SPEEDS IN HZ @ 7” SPACING”. This refers to the spacing of the collator material belt pin configuration. Be careful to adjust the hertz in the spacing chart the machine is currently set up for.) 11 MAIN 2500 or LESS 2501 to 3500 3501 to 4500 4501 to 5500 30 35 40 25 6501 to 7500 7501 to 8500 50 8501 to 9500 55 5501 to 6500 15 Feeder 45 9501 to 10500 10501 to 11500 GREATER THEN 11500 65 70 75 60 FEEDER SPEEDS IN HZ @ 14 “ SPACING 11 MAIN 2500 or LESS 15 6501 to 7500 2501 to 3500 3501 to 4500 4501 to 5500 5501 to 6500 20 25 30 35 40 7501 to 8500 15 Feeder 45 8501 to 9500 9501 to 10500 10501 to 11500 11501 to 12500 12501 to 13500 13501 to 14500 14501 to 15500 GREATER THEN 15500 50 55 60 65 70 75 80 80 x FEEDER SPEEDS IN HZ @ 7 “ SPACING 150 7 8 9 AC 4 5 6 Del 1 2 3 + /- 0 Note: The number values shown in this diagram are for the FlowMaster RS Model only and may not accurately represent the real factory settings for all Servo Drive FlowMaster Models. For Servo Drive Models see charts on pages 188 and 189. Enter (Fig 16-14) 197 Pitney Bowes Sure-Feed Engineering FlowMaster RS Servo Drive - 16K / 4 Pusher Configuration Pin Spacing Speed Range 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 2500 or Less 2501 to 3500 3501 to 4500 4501 to 5500 5501 to 6500 6501 to 7500 7501 to 8500 8501 to 9500 9501 to 10500 10501 to 11500 11501 to 12500 12501 to 13500 13501 to 14500 14501 to 15500 Greater Than 15500 Hertz Setting 15 20 25 30 35 40 45 50 55 60 65 70 75 80 80 Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz FlowMaster RS & LS Servo Drive - 16K & 12K / 3 Pusher Configuration Pin Spacing Speed Range 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 7 - Inch 2500 or Less 2501 to 3500 3501 to 4500 4501 to 5500 5501 to 6500 6501 to 7500 7501 to 8500 8501 to 9500 9501 to 10500 10501 to 11500 11501 to 12500 12501 to 13500 13501 to 14500 14501 to 15500 Greater Than 15500 198 Hertz Setting 35 40 45 50 55 60 65 70 75 80 85 0 0 0 0 Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Pitney Bowes Sure-Feed Engineering FlowMaster RS & LS - XL Servo Drive - 12 K / 2 Pusher Configuration Pin Spacing Speed Range 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 14 - Inch 2500 or Less 2501 to 3500 3501 to 4500 4501 to 5500 5501 to 6500 6501 to 7500 7501 to 8500 8501 to 9500 9501 to 10500 10501 to 11500 11501 to 12500 12501 to 13500 13501 to 14500 14501 to 15500 Greater Than 15500 Hertz Setting 25 30 35 40 45 50 55 60 65 70 75 0 0 0 0 199 Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Hertz Pitney Bowes Sure-Feed Engineering Servo Drive Menu A B C D N E F G H (Fig. 16-15) M L K J I Special Note: Feeder reference designation in figure 16-15 is for Rotary Feeder placement in any of the 6 standard feeder locations. 200 Pitney Bowes Sure-Feed Engineering Item Setting I.D. Feeder Home Setting Type Program Factory Setting A Offset Column Miss Check Setting Vac. On Reference Vac. Off Reference Servo Fault Display Pusher Servo Fault Display Collator Servo Fault Feeder Major Column Servo Fault Feeder Minor Column Value Program Value Program Value Program Value 0 B C D E F G H I J K L M N Informational Display Informational Display Informational Display Informational Display Informational Display Program Value 0 Function Feeder Default for Homing Also effects material release in track Determines when Product Sensor & miss detect activate Determines when Vacuum Solenoid turns ON Determines when Vacuum Solenoid turns OFF None Shows Servo Faults That Occur with Pusher Motor None Shows Servo Faults That Occur with Collator Motor None Shows Servo Faults in Feeders Major Column 0 0 Shows Servo Faults in Feeders Minor Column Identifies program segment Program # None that faulted Program Error Identifies the type of error Code None that occurred by code Feeder Cams Turns on / Off On / Off Button None Cam Profile Feeder Air Jet Program Determines when feeder Duration Column Value 0 air jets turn OFF Feeder Air Jet Program Determines when feeder On Column Value 0 air jets turn ON Feeder # Informational Identifies feeder location I.D. Columns Display None in program * Functional only after adding other devices to the FlowMaster RS & LS Inserters None 201 Pitney Bowes Sure-Feed Engineering Section - XVII Electrical Timing Settings 202 Pitney Bowes Sure-Feed Engineering Electrical Timing Settings The FlowMaster RS and LS inserters have several electrical timing settings that can be adjusted to accommodate different paper characteristics and envelope sizes. To determine what timing settings are right for the job you’re running, Perform the following: Check and Set the “Envelope Vacuum On / Off” in accordance to the size of the envelope you’re setting up by performing the following: 1. Press the Timing Screen button on the Operator’s Run Screen to open the timing menu, see figure 17-1 Press the Timing button to open the timing Menu (Fig. 17-1) 2. Place a sample of the envelope you’re setting up on the envelope track rail, slide it towards the envelope hopper until the back edge of the envelope touches the envelope stack in the hopper, see figure 17-2. (Fig. 17-2) Place a sample envelope on guide rail Slide the sample envelope back until it touches the envelopes in the hopper 203 Pitney Bowes Sure-Feed Engineering 3. Jog the machine forward until a gripper jaw is positioned at the opposite end of the sample envelope, see figure 17-3. Special Note: The envelope vacuum On / Off timing as stated will accommodate any size envelope from 6” linear running length to 13” linear running length providing the Model FlowMaster is designed to run flat size envelopes. In the event the envelope you are setting up measures less than 6” linear running length, make sure the envelope shuttle plate is completely under the envelope stack in the hopper before setting the “ENV. VAC. ON”. Jog the machine forward to position a gripper jaw at the opposite end of the envelope Note: The gripper jaw should be positioned so the inside of the grip surface of the jaw is even with the end of the sample envelope (Fig. 17-3) 5. Read the number value located under the encoder dial on the Timing menu previously opened in step 1 and compare it the number under the “ENV. VAC. ON” button. If the number value under the “Env. Vac. ON” button is within a 5 degree range, (+) plus or (-) minus, make no change and move on the next step. If the number value range is greater than 5 degrees, change the number under the “Env. Vac. ON”. This can be accomplished in one of two ways: (A) Press the actual button marked “ENV. VAC. ON”. The button will now read “Press Enter”. Press the “Yellow” Enter button located under the encoder dial. The number value shown under the encoder dial will now appear as the new setting for the “ENV. VAC. ON”, see item (A), figure 17-4. (B) Press the number value under the “ENV. VAC. ON” button, a numeric touch pad will appear. Manually enter the number value shown under the encoder dial, then press the “Enter” key on the touch pad. The number you entered will now appear as the new setting for the “ENV. VAC. ON”, see item (B), figure17-4. 204 Pitney Bowes Sure-Feed Engineering (A) Press the “ENV. VAC. ON. Button then press the “Yellow” Enter button 135 135 (B) Press the number value under the “ENV. VAC, ON.” Button, a numeric touch pad will appear 135 (B) Enter the number value shown under the encoder on the touch pad then press the enter key 135 x 150 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter (Fig. 17-4) 205 Pitney Bowes Sure-Feed Engineering 5. Jog the machine forward until a gripper jaw comes under the “Front Table Jam Sensor”, mounted to the envelope hopper, continue jagging the machine until the gripper jaw opens, and continue jogging the machine until the gripper jaw JUST starts to close. STOP jogging the machine at this point, see figure 17-5. (Fig. 17-5) Jog the machine forward until a gripper jaw appears under the Front Table Jam sensor Continue jogging until the gripper jaw has opened and JUST starts to close, then STOP jogging the machine 6. Read the number value located under the encoder dial on the Timing menu previously opened in step 1 and compare it the number under the “ENV. VAC. OFF” button. If the number value under the “Env. Vac. Off” button is within a 5 degree range, (+) plus or (-) minus, make no change and move on the next step. If the number value range is greater than 5 degrees, change the number under the “Env. Vac. Off”. This can be accomplished in one of two ways: (A) Press the actual button marked “ENV. VAC. OFF”. The button will now read “Press Enter”. Press the “Yellow” Enter button located under the encoder dial. The number value shown under the encoder dial will now appear as the new setting for the “ENV. VAC. OFF”, see item (A), figure 17-6. (B) Press the number value under the “ENV. VAC. OFF” button, a numeric touch pad will appear. Manually enter the number value shown under the encoder dial, then press the “Enter” key on the touch pad. The number you entered will now appear as the new setting for the “ENV. VAC. OFF”, see item (B), see figure 17-6. 206 Pitney Bowes Sure-Feed Engineering (A) Press the “ENV. VAC. OFF. Button then press the “Yellow” Enter button 330 330 330 (B) Enter the number value shown under the encoder on the touch pad then press the enter key 330 (B) Press the number value under the “ENV. VAC, OFF.” Button, a numeric touch pad will appear x 150 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter (Fig. 17-6) 207 Pitney Bowes Sure-Feed Engineering Setting the “Insert Air On / Off” The Insert Air feature is a dual function feature. It activates the insert air blowing into the envelope to form the envelope to an open posture following the natural contour of the envelope throat and it activates the insert vacuum dishes located on the front table in front of the insert air plate which anchor the envelope, holding it securely in place to be inserted. To setup the Insert Air On / Off, perform the following: Insert Air On: (A). Open the envelope menu, and press the “Auto Mode / Setup Mode” button until it reads “Setup Mode”. (B). Return to the Timing Menu following the procedure stated in step (1) figure 17-7. (C). Jog the machine forward until it acquires an envelope, continue jogging the machine forward until the lead edge of the envelope is even with the center groove of the insert air plate then stop jogging, see figure . (Note: Since the insert vacuum dishes and the insert air are activated from the same timing feature, ”Insert Air On” turning the insert air on at this position ensures that the vacuum dishes will be at maximum potential when the envelope comes to the “Full Stop Mark”.) Jog an envelope forward until the lead edge is even with the center groove of the insert air plate (Fig. 17-7) (D). Read the number value located under the encoder dial on the Timing menu previously opened in step 2 and compare it the number under the “Insert Air On” button. If the number value under the “Insert Air On” button is within a 5 degree range, (+) plus or (-) minus, make no change and move on the next step. If the number value range is greater than 5 degrees, change the number under the “Insert Air On”. This can be accomplished in one of two ways: (A) Press the actual button marked “Insert Air On”. The button will now read “Press Enter”. Press the “Yellow” Enter button located under the encoder dial. The number value shown under the encoder dial will now appear as the new setting for the “Insert Air On”, see item (A), figure 17-8. (B) Press the number value under the “Insert Air On” button, a numeric touch pad will appear. Manually enter the number value shown under the encoder dial, then press the “Enter” key on the touch pad. The number you entered will now appear as the new setting for the “Insert Air On”, see item (B), see figure 17-8. 208 Pitney Bowes Sure-Feed Engineering (A) Press the “Insert Air On”. Button then press the “Yellow” Enter button 135 135 (B) Enter the number value shown under the encoder on the touch pad then press the enter key 135 135 (B) Press the number value under the “Insert Air On” Button, a numeric touch pad will appear x 150 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter (Fig. 17-8) 209 Pitney Bowes Sure-Feed Engineering Insert Air Off: 1. Acquire a sample of the “Top” piece of the collated set and place it on the insert deck in front of one set of pusher fingers. 2. Jog the machine forward until the sample piece enters the envelope and travels ¼” to ½” past the lowest point of the envelope throat, then STOP jogging the machine, see figure 17-9. (Fig. 17-9) Note: Envelope was cut away for visual reference Jog the machine forward until the sample piece is ¼” to ½” past the lowest point of the envelope throat ¼” to ½” 3. Read the number value located under the encoder dial on the Timing menu previously opened in step 2 and compare it the number under the “Insert Air Off” button. If the number value under the “Insert Air Off” button is within a 5 degree range, (+) plus or (-) minus, make no change and move on the next step. If the number value range is greater than 5 degrees, change the number under the “Insert Air Off”. This can be accomplished in one of two ways: (A) Press the actual button marked “Insert Air Off”. The button will now read “Press Enter”. Press the “Yellow” Enter button located under the encoder dial. The number value shown under the encoder dial will now appear as the new setting for the “Insert Air Off”, see item (A), figure 17-10. (B) Press the number value under the “Insert Air Off” button, a numeric touch pad will appear. Manually enter the number value shown under the encoder dial, then press the “Enter” key on the touch pad. The number you entered will now appear as the new setting for the “Insert Air Off”, see item (B), see figure 17-10. 210 Pitney Bowes Sure-Feed Engineering (A) Press the “Insert Air On”. Button then press the “Yellow” Enter button 295 295 (B) Enter the number value shown under the encoder on the touch pad then press the enter key 295 295 (B) Press the number value under the “Insert Air Off” Button, a numeric touch pad will appear x 150 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter (Fig. 17-10) 211 Pitney Bowes Sure-Feed Engineering The Envelope Detect feature is comprised of a Banner AN-7 sensor that emits a short range inferred light, positioned to reflect off an open envelope flap, back to the sensor. This detector can be positioned anywhere along a 180 degree arc. The operator has control over when this sensor becomes activated. Once activated the sensor has pulse length of approximately 2 milliseconds. (In effect, operates much like the shutter on a camera.) In the event the flap of the envelope you are setting up has any bold lettering or logo art printed in Purple, Red, Orange, Pink or Black ink, reposition the sensor to read on a non-printed surface of the flap. (i.e.; In-between the printed lettering or logo art.) (Special Note: Purple, Red, Orange and Pink ink all contain a red pigment that will absorb inferred light to the degree that it will not reflect back to the sensor causing a “False” detect. Black Ink absorbs all color bands of light.) To find the number value for the Flap Detect feature, perform the following: 1. Jog the machine forward until the envelope gripper chain stops. A gripper jaw should be a the full stop mark with the gripper jaw unopened, see figure 17-11. Inside of the Gripper jaw aligned with the full stop mark Full Stop Mark (This is a factory applied machine index mark) (Fig. 17-11) 2. Read the number value located under the encoder dial on the Timing menu previously opened in step 2 and compare it the number under the “Envelope Detect” button. If the number value under the “Envelope Detect” button is within a 5 degree range, (+) plus or (-) minus, make no change and move on the next step. If the number value range is greater than 5 degrees, change the number under the “Envelope Detect”. This can be accomplished in one of two ways: (A) Press the actual button marked “Envelope Detect”. The button will now read “Press Enter”. Press the “Yellow” Enter button located under the encoder dial. The number value shown under the encoder dial will now appear as the new setting for the “Insert Air Off”, see item (A), figure 17-12. (B) Press the number value under the “Envelope Detect” button, a numeric touch pad will appear. Manually enter the number value shown under the encoder dial, then press the “Enter” key on the touch pad. The number you entered will now appear as the new setting for the “Envelope Detect”, see item (B), see figure 17-12. 212 Pitney Bowes Sure-Feed Engineering (A) Press the “ENV DETECT”. Button then press the “Yellow” Enter button 125 125 125 (B) Enter the number value shown under the encoder on the touch pad then press the enter key (B) Press the number value under the “ENV DETECT” Button, a numeric touch pad will appear 125 x 150 7 8 9 4 5 6 Del 1 2 3 + /- 0 AC Enter (Fig. 17-12) 213 Pitney Bowes Sure-Feed Engineering The “Feeder Start Time” can be altered at any time during a job setup or job run in order to accommodate any type of paper or any change in paper characteristic. Ideally the paper should feed from the feeder at a 22 degree down angle plane and strike the back of a set of collator pusher pins near the track rails, see figure 17-13. Time the feeder to feed the paper so that it strikes the back of the collator pusher pins near the track rails (Fig. 17-13) Typical factory set feeder start times are as follows: 4 Pusher Configuration – 200 3 Pusher Configuration – 75 2 Pusher Configuration - 100 In the event you observe the material lead edge landing on the top of the collator pusher pins, manually put in a HIGHER number value for that feeder start time. In the event you observe the material trailing edge landing on the top of the collator pusher pins, manually put in a LOWER number value for that feeder start time. 214 Pitney Bowes Sure-Feed Engineering 215