Waterbury Farrel ICOP Press

WATERBURY FARREL
ATTACKS COST FACTORS
• LOWEST TOOLING COST. The machine itself is a universal
die set. Tooling is confined to simple· punches, die inserts,
stripper sleeves and shaping of transfer fingers.
a complete system for
automatic production
of drawn metal parts
• LESS DOWN TIME. Independent stations permit easy tooling- tool maintenance and changeover is a cinch.
• LOWER MATERIAL COST. Scrap is automatically reduced
through the elimination of carrier strips. Double and
triple row blanking provide even more savings.
• LOWER CAPITAL INVESTMENT. "Off-the-Shelf" and
"On-the-Machine" accessories make each machine a
complete production unit for finished parts. Many single
operation machines are eliminated .
• LOWER DIRECT LABOR COSTS. With electronic safety
devices one man may operate as many as nine I.C.O .P.
machines.
• LOWER COST TOLERANCES. Tight tolerances become
simpler and less costly with individual stations and the
uncomplicated tooling requirement.
• LOWER OPERATING COSTS. Positive Part Control automatically assures high operating efficiency.
• VERSATILITY. Versatility is unsurpassed in these machines
-they are equally adaptable to the economic needs of
short run jobbing work or the high speed requirements
of long production runs.
PUNCH
PUNCH
PUNCH
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EJECTOR
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EJECTOR
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This diagram shows that all
parts are clear of the die, and
still supported by their respective punches, at the time for
transfer finger engagement.
Dwell on the lift stroke automatically brings all plungers to
this position at the same time.
-
-
-
-
-
-
-
-
-
_
This illustration shows what happens to the strip metal as it automatically proceeds from station to station during a typical
application. Dependent upon .material and work to be done, production rotes for finished parts can be as high as 550 pcs.
per minute
2
l.C.D.P. MAKES THE SYSTEM GD
The heart of Waterbury Farrel's complete
system for automatic production of drawn metal
parts is a totally unique, yet extremely simple
type of automatic, multiple station press. These
machines feature I.C.O.P. (Individual Cam Operated Plungers). This means that each working
station has its own set of cams which provide
a motion to each station that is independent of
every other station. Each of these independent
stations function as an individual press. However, all of these operations are joined into one
synchronized machine through an integrated
transfer mechanism.
This modular, or l.C.O.P. concept permits the
ultimate in tooling simplicity, plus extreme latitude
in machine capability. Furthermore, this machine
motion automatically provides POSITIVE PART
CONTROL (PC*) throughout the entire cycle-a
prime requisite for any transfer operation.
POSITIVE PART CONTROL through 1.C.O.P.
was originated by Waterbury Farrel.
l.C.O.P. HAS UNIQUE MOTION ...
The motion of Waterbury Farrel l.C.O.P. Automatic
Multiple Station Presses assures low tooling costs, great
flexibility, high operating speeds and outstanding operating
efficiency.
To better understand this motion, refer to figures 1 and 2
during the following description of plunger action.
All plungers are individually cam operated, each having its own down stroke cam and its own lifter cam.
These cams are mounted alternately on the upper cam
shaft. A cam roll follower is mounted at the top of each
plunger. Shut height of the plunger is adjustable through
a simple wedge mechanism located beneath the cam roll
follower.
The upward motion of the plunger is controlled by
the lifter cam which operates against a horizontal lifter
arm. Note that the lifter cam has two areas of lift with
an intervening dwell. The lifter arms are adjustable in
position on a lifter rod which is attached to the plunger
by a yoke. When the horizontal lifter arm is adjusted
away from the cam, contact with the cam will occur later
in cam rotation providing a shorter first lift stroke.
Longer first lift strokes are provided by setting the lifter
arm closer to the cam. This first lift provides full extraction of the part from the die for any depth of engagement in the die between zero and maximum.
The dwell area of the lift allows the punch to remain
stationary while fully inserted in the part, and level
with the top of the die. It is during this dwell on the
upstroke that the transfer is brought into full engagement.
After the transfer is firmly engaged, and only then,
does the second lift occur. The part is restrained from
moving upward with the punch by means of a stripper
sleeve, and remains in the transfer fingers ready for
movement to the next station. The parts are never out
of full contact with the tooling, and firm transfer engagement is always assured. All parts are ready for
transfer at exactly the same time. The built-in tool
motion on the lift stroke permits fixed transfer timing.
To hold the plungers in the correct positions at each
end of the stroke, an adjustable friction, aided by air
springs on the lifter rod, counterbalances the plunger
mechanism to compensate for lifter arm offset.
The I.C.O.P. upstroke dwell provides Positive Part
Control. Positive Part Control is the most vital element
in any kind of transfer equipment and was developed by
Waterbury Farrel. Further, this vital motion is obtained
with a general purpose set of ca.ms.
Fig. 1.
Cross sedion of single station
Figure 2 is a diagram of typical plunger action throughout a full 360° of camshaft revolution. A full stroke for
deepest draw, a shorter stroke for intermediate draw,
and a stroke at the top of the die, are diagramed to
illustrate the automatic timing that is built into the
I.C.O.P. motion. You'll note that the shorter the stroke,
the longer the dwell before the first lift stroke. This
affords automatic timing of all plungers and assures
that all are stationary and clear of the die in the pickup
zone. Remember, punches remain fully inserted in the
parts until transfer fingers are fully engaged. The lift
stroke then resumes for the stripping of the part from
the plunger.
Fig . 2
Diagram of typical plunger action throughout 360° revolution ~
of camshaft. The dQtted line is a typical sine wove of crank
action in other types of presses. Note the longer stroke required for crank action and the lock of a definite provision
for transfer engagement
4
... AND THE MOTION PROVIDES FDR
SIMPLE, VERSATILE TOOLING
Waterbury Farrel's I.C.O.P. Machines readily accept
close tolerance work. The individual station adjustment,
wide open design, and POSITIVE PART CONTROL provide for tooling setups that are simple, versatile, easy to
change and maintain.
Tooling is greatly simplified, consisting of simple punches,
stripper sleeves, die inserts, knockout pins and tran$fer
fingers. The repetitive and costly precision work required in
progressive tools is eliminated. Intricate special operations
are handled by standard integrated attachments as opposed
to customi~ed, costly, "built-in" devices required in progressive tools. The investment and maintenance of complicated
tool holders and die cushions are also eliminated.
TOOLS FOR
BLANKING
STATION
WHAT IS THE TOOLING? IT'S THIS SIMPLE
;:;uch parts as sere\\" chucks for the plungers, die holder fitted to the bed, blank transfer fingers, centering
punches, and plit, pre haped knockout cams are furnished with the machine.
• Die blocks are standard and furnished with the
machine- you bore for your standardized die
size and make a simple die insert.
• Punches are solid, easy-to-make tools that mount
in reusable screw chucks furnished in the machine. The motion eliminates the need for complicated, costly spring pins in punches.
• Stripper bushings are a simple lathe job .
• Transfer fingers come blank with the machine
and are bored or shaped to fit the part.
TOOLS FOR
WORK STATIONS
That's it-punches-dies-stripper sleeves and shaped
transfer fingers. TOOLING INVESTMENT CAN BE
AS LITTLE AS 1/ 5 THE COST OF A PROGRESSIVE
DIE. Also, tooling tryout time and initial setup are
greatly reduced.
LOWER DOWNTIME
i
FULL
CAMSHAFT
The machine design eliminates time consuming alignment and complicated transfer timing. Parts are not
ejected into the transfer fingers or stripped by the fingers, thus there is no maintenance caused by upward
pressure on the fingers. Tooling is changed with far
greater ease- and significantly quicker than in any
transfer press. Setup for part changeover can be reduced to a procedural operation.
REVOLUTION
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Positive part control is assured without the use of
special tooling gimmicks such as spring pins. Also, the
parts are drawn in the "bottom down" position. This
permits adequate lubricant flow over the die radii which
is necessary for long draws, or when working in difficult
metals. For these reasons of economy-and because it is
so easy-most customers prefer to make their own tools.
However, Waterbury Farrel is well equipped to completely tool the machines to customer specifications-or
to offer tooling suggestions. Inquiries should be accompanied by all available data pertinent to the job including samples, drawings showing tolerances, required
production volume, etc.
5
THE PC SYSTEM - WE NEVER LET GD OF THE PART
Depth of draw into the die on the down st roke determines
length of the punch.
The t ransfer mechanism, also cam driven, advances and
return once for each work cycle. As it completes its return
stroke, the pring loaded t ransfer fingers slip around and
grip the work which waits at the top of the die. At t ransfer
engagement all punches are stationary and fully in the
work. As the punches withdraw, t ripper keep t he work
in place betwee n tationary tran fer fingers. When all
punches clear, the t ransfer advances the work to the next
Small parts are drawn on Waterbury F arrel Independent
Cam Op rated Plunger presses. Blanks up to 3 ~-in. diameter can be drawn to a maximum depth of 3Ys-in.
E ach pre s station has its own individual set of lifter
and plunger cams mounted on a common shaft. The
plunger cam drives the plunger down by means of the
roller follower. The lifter cam raise the plunger by acting on the lifter arm . Both cam foll owers are rigidly connected through the lifter rod. p troke motion is adj usted
by moving the lifter arm up or dO\rn on the lifter rod.
Ii\ BOTTOM
lAJ OF STROKE
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1t"etwut.
[IB FIRST LIFT
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~LIFT
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UPSTROKE PAUSE FOR
~ L.l:U TRANSFER ENGAGEMENT
OUT
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OR FULL FOLLOW CAMS
LI FTER ARM
!ADJUSTABLE ON
LI FTER ROD!
ROLL
FOLLOWER
Plun ger begins first
lift to top o f die.
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DR AW PUNCH
PAUSE
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OUT
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Clearance delays
of stroke.
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first lift . Punch
still at bottom
6
PAUSE
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w
DIE LINE -
Stil l ho ldin g wo rk . plun ger dwells at
to p of di e to per mit tra nsfer pick -up .
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With transfer engaged, a ll punches
withdraw from work.
Stripper prevents
work from following
punc h.
Delayed first lift permit s a ll pu nch e to
re:1c h top o f di e at th e sa me tim e. a nd
d we ll fo r tra nsfer e ngageme nt.
-J6---J6--
station. The fingers hold the work until the punch carries
it int o the die. Then the cycle repeat .
The sequence dra\\·ing at left show how clearance
between the lifter cam a nd lifter arm delays the withdrawal of the punch a nd its \\·ork from the die in t he lo\\·er,
horter-draw sequence. By properly adjusting clearance
all work reaches the die line simultaneously. In this manner
the motion of each plunger i coordi nated to the t ran fe r po itively co ntrolling the part at all times regardless of the
length of stroke.
N ote in the sequence drawings that:
l. Spacing between lifte r arm a nd roll follower is diffe rent
~
TOP OF
lr STROKE
<'/~
@DOWN
at the two illustrated stations, but in each ca e remains
constant during cycle.
2. Amount of cleara nce equals difference between maximum die penetration a nd required die penetration.
3. pstroke consists of t wo lifts separated by an important
pa u e for transfer engagement .
4. D epth of draw into the die determines length of the
punch.
Standard ICOP presses have IO or 12 stations and can
operate at up to 140 strokes per minute. With certain adaptations, described on pages 13 and 14, this rate can be doubled.
BOTTOM
[}{] OF STROKE
S<UH.e. aJ. @i
~STROKE
lT
LIFTER R O D - - - - - - - .
LIFT CAM----.,.
PLUNGER CAM---+-M
DWELL
w
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-®----Jb-Tra nsfe r advances
work as plun ge rs
dwell at top of
st roke.
Plunger cam drives
punch down into
work.
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Work completed.
PLUNGER-------
11
11
Friction device supports
lifter rod and plunger I when not in contact
DWELLwith ei ther cam.
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TRANSFER
SLIDE----~
Single ICOP station: top of stroke, transfer advancing work.
7
STANDARD FEATURES
FEED
The Roll Feed is located immediately back of the
blanking plunger. It is intermittently driven by a gear
driven crankplate. This drive allows easy feed adjustment
for varyi ng blank sizes.
When multiple rows of blanks are to be cut, the coil of
metal is removed from the take-up reel in the back, transferred to the front, and run through again. To minimize
material handling and downtime, a stagger feed system
for multiple row blanking is available.
STOCKFEED FINGER MOTION IOPTIONJ
A 8top Finger motion provides an accurate method
for blanking more than one row of blanks from a strip
of metal. On successive passes the rnll is set to slightly
overfeed. The finger device po itively engages the
previous row of holes and registers the stock correctly
over the blanking die. This allows for the most economical use of the strip metal.
BLANK HOLDER
A lever type Blank Holder, operated from a cam
on the lower shaft, is mounted in front of the o. 2,
or cupping die. This device exerts sufficient pressure
on the blanks to provide accurate location, prevent
wrinkling or puckering, and to insure a concentri c first
cup. The blank holder pressure ii' easi ly adjusted from
the front of the machine.
8
a complete system for
automatic production
of drawn metal parts
TRANSFER
The Transfer Slide is bolt connected to a cam driven
member. This transfer cam is mounted on the gear
driven side shaft. Because of the unique machine
motion, transfer time is fixed and no adjustments
are necessary.
A series of pivoted transfer fingers are arranged in
pairs for gripping the work. They are precisely spaced
in the slide to correspond with the plungers at the
stations whi ch follow the o. 1 or blanking station.
The fingers are furnished blank for subsequent shaping
on the ends to suit t he work . Gripping pressure for
the transfer fingers is adjustable.
KNOC KOUT
The lower, or knockout shaft is driven from the
side shaft by bevel gears. The knockout shaft drives
the stock feed finger motion cam and the blank holder
mechanism. It also drives a series of positive knockout
cams, one for each station. There are no springs to
fail on the knockouts.
The knockou t cams are split for easy removal and
adjustment. They operate the knockout pins which
follow t he punch on the upstroke to assure positive
ejection from the die. The knockout cams are preshaped and hardened.
STRIPPERS
All Waterbury Farrel l.C.O.P. Machines are equipped
with fork-lever strippers for operating the stripper thimbles on the punches. These levers are mounted on a bar in
back of the plungers and are used in combination with the
stripper release.
9
a complete system for
automatic production
of drawn metal parts
STRIPPER RELEASE
A Stripper release is standard for all models. This device
permits the stripper thimbles to move upward after the
stripping is completed. This provides for additional work
clearance as in the case of a conical or irregular flange. This
release motion requires the use of fork-lever type strippers.
SCRAP SHEAR
The shear, operated by the blanking station lifter rod, is a
blade type cutter which cuts scrap into short lengths to
facilitate handling. Either carbide, or hardened tool steel
blades are available.
The shear is easily disengaged when it is desired to use a
standard scrap winder.
ELECTRONIC SAFETY DEVICE
Labor and tooling costs are drastically minimized
through the use of this automatic monitoring system.
Efficient safe operation at very high speed is assured,
as electronic probes constantly supervise the machine
action at all stations.
One man can confidently operate several machines at
the same time. In the event that a part is improperly
transferred between stations, this device will automatically energize the fast acting brake system which is
standard on all machines. All machine action is stopped in
a fraction of a second-much faster than any human
reaction. The danger of damaged tooling is practically
eliminated.
10
11
DFF-THE-SHELF" ACCESSORIES FDR
ON THE MACHINE OPERATIONS
ACCELERATOR PLUNGERS
Punch accelerator plungers may be incorporated to
increase the depth of drawn shells when working with
light gauge drawing operations. In many cases, depth of
draw may be increased approximately 45-50% over
the standard machine capacity. These units are easily
interchanged with standard plungers.
BLANK AND CUPP l l\(G COMBINATION
Slight machine modification permits combined blanking and cupping in the first station. Blank and cupping
attachments are used to add an additional work station
when needed. Machines equipped for blanking and cupping in the first station may be easily reconverted for
conventional machine operation where blanking is performed in the first station and cupping in the second.
Simple adjustments assure positive and uniform blank
holding pressures.
COMBINATION THREADING
AND BEADING ATTACHMENTS
Independent motor driven attachments are available for all
sizes of Waterbury Farrel l.C.O.P. machines. A great variety
of single and multiple beading and threading operations may
be performed during the machine cycle in any work station.
These attachments provide for higher speed operation and
longer tool life through the use of extra long spindles and
anti-friction bearings.
11
EVEN MORE SPEED WITH
CPCS
*
Full follow cams
Waterbury Farrel's I.C.O.P. Machines can provide very high production speed (up to 550 pieces
per minute) through the use of "full-follow" cams,
and/ or dual feed arrangements.
FULL FOLLOW CAMS
Duo/ feed-two feed rolls
In many cases, where high speed, long run production
is desired the use of "full-follow" caroming is extremely
profitable. When using fu ll-follow cams, plunger roll
followers and lifter arms are always in contact with the
activating cams, and machine cycles are increased.
Individual cams a re designed for each operation, including the appropriate dwells, and a re mounted on the
upper camshaft.
Standard machines may be easi ly changed for fullfollow operation, and vice versa. Si mply replace the
standard universal cam shaft with the appropriate fullfollow camshaft.
DUAL FEED
Production may be doubled for many jobs which require limited operations (up to six stations). This is
accomplished by feeding two rolls of strip into the machine (one at the first station and another at the sixth
station) and , in essence, making two machines out of one.
Another method of dual feed is to loop the stock from
the first station over or under the machine and make a
second blan k in the last station. Parts are then progressively drawn and transferred toward the center of the
machine. T hi s method provides even more effective use
of materi al as two blanks are taken from a single width
of strip metal.
Dual feed-loop over system
12
Machine is shown without guards/or illustration purposes.
OSHA -
A CONTINUOUS PROGRAM
At WATERBURY FARREL we continuously strive
to determine the most effective methods of insuring safety
and at the same time, attempt to maintain the production
efficiency of our line of presses.
Research is concentrated in two general categories;
protecting operator, maintenance, and plant personnel
from physical injury; and the reduction of machine noise.
With the guidance of OSHA, our refinements in guarding are aimed to eliminate pinch-points and dangerously
exposed areas in the machine. We also utilize mechanical
and electric safety devices in our machines in an effort to
protect the machine operators. These include such devices
as two-hand controls, solenoid air valves and double
brake circuitry. Furthermore, interlocked safety doors
and plexiglass shielding are utilized to give greater protection to the operator from flying objects while the machine
is in operation.
We approach noise reduction from several directions.
First, a complete, "computer assist," investigation of cam
and lever designs has helped to reduce noise within
mechanical systems. Bull gears are treated and coated for
sound reduction.
Substantial progress has been realized through improvements of sound insulating properties of machine
guarding. The most successful insulating application, so
far, has been the effective use of a lead foam insulating
material. This material is sandwiched between layers of
vibration insulation polyurethane and is adhered to the
inside surface of the guards- with ·satisfactory results.
It should be noted that tooling is a large contributor of
noise and since we do not have control over tooling once
the machine leaves our premises, we are unable to assume
noise reduction responsibility in this area.
13
SIZES AND CAPACITIES
Waterbury Farrel l.C.O.P . Machines are built in four standard
frame sizes, each with various numbers of plunger stations. The digits
in the model number are for indentification purposes. For example,
in Model #1012, the first two digits indicate a #10 size frame and the
last two digits indicate a 12 plunger station machine.
The capacities of these machines are determined by the diameter of
the blank, stock thickness, and the stroke of the cam. The length of
shell that can be drawn is calculated by subtracting W' from the
stroke of the last cam and dividing the remainder by 2. Example
#2012 machine.
672" -)i" + 2
=
length of shell 3Ys"
Capacities t hus determined are sometimes m odified by ot her
considerations, such as t hickness and physical characteristics of
the met al, t he sha pe of t he finished part, t olerances, etc.
a complete system for
automatic production
of drawn metal parts
MOTOR DRIVE
All models are provided with variable speed drive as standard . An
air clutch and brake provide a convenient jog action for ease of setup,
and crisp starting and stopping action during runs .
Variable speed drives are particularly desirable because they provide a slow speed for tooling and testing, as well as various operating
speeds for different types of jobs.
STANDARD CAM STROKES
DIMENSIONS IN INCHES AND MILLIMETERS
DIMENSIONS IN INCHES AND MILLIMETERS
No. 1 No. 2 No. 3 No. 4 No. 5 No.6 No. 7 No. 8 No. 9 No. 10 No. 11
Cam Cam Cam Cam Cam Cam Cam Cam Cam Cam
Cam
in.
1%
PA
2%
2%
2%
2%
2%
2%
2%
l3A
2%
mm 35,3 44,4 44,4 60,3 60,3 60,3 60,3 60,3 60,3 60,3
60,3
1212
41A
12*
in.
1~
41A
41A
21A
41A
41A
41A
41A
41A
41A
mm 41,3
57,1 63,5 63,5 63,5 63,5 . 63,5 63,5 63,5 63,5
63,5
1512
12 ~
in.
21A
41h
41h
41h
41h
41h
41h
31A
41h
41h
41h
mm 57,1 82,5 114,3 114,3 114,3 114,3 114,3 114,3 114,3 114,3 114,3
2010
10
in. 23A
41h
5%
5%
61h
61h
61h
61h
61h
61h
2012
in. 2%
12*
41h
61h
61h
61h
61h
61h
5%
5%
61h
61h
2016
16
in. 2%
41h
5%
5%
61h
61h
61h
61h
61h
61h
61h
mm 69,9 114,3 136,5 136,5 165,1 165,1 165,1 165,l 165,l 165,1 165,1
* One additional station can be provided which is driven by the plunger of the twelfth station.
Size of
Machine
1012
14
No. of
Plungers
12*
No. 12
Cam
2%
60,3
41A
63,5
41h
114,3
61h
61h
165,1
No. 13
Cam
No. 14
Cam
No. 15
Cam
No. 16
Cam
-
-
-
-
-
-
-
-
-
-
-
-
-
-
-
61h
165,1
61h
165,1
-
61h
165,1
-
-
61h
165,1
INDIVIDUAL CAM OPERATED PLUNGER PRESS
SPECIFICATIONS
12
15
1012
12 + 1**
3 tons
3
1212
12 + 1**
6 tons
5
1512
12 + 1**
8 tons
10
2010
10
9 tons
20
2012
12 + 1**
9 tons
20
2016
16
8 tons
20
inch
mm
1.75
44.5
2.75
69.9
3.25
82.6
4.75
120.7
3.75
95.3
3.25
82.6
inch
mm
inch
mm
1.12
28.5
1.50
38.1
1.062
27.0
1.44
36.5
2.25
57.1
2.00
50.80
1.69
42.8
3.125
79.4
2.62
66.6
2.50
63.5
4.00
101.6
3.125
79.4
2.00
50.8
3.75
95.3
3.125
79.4
1.69
42.8
3.125
79.4
3.125
79.4
60-120
2.50
63.5
3.25
82.6
50-100
2.875
73.0
4.50
114.3
Machine Model Number
Number of Plunger Stations
Rated capacity on any one station
Motor Horsepower
Max. Dia. of Blank
Single Row Blanking
Two Row Blanking
with Stagger Feed:
Using Second Station
Idle Second Station
Max. Depth of Drawn Shellt
inch
mm
Pieces Per Minute Using
Standard Camstt
Tool Center Distance
inch
mm
Shut Height
inch
mm
Floor Space
Width x Depth x Height
20·
10
Frame Size
inch
meters
Ceil ing Height Necessary
to Remove lifter Rods
inch
meters
Approximate Net Weight
pounds
kilograms
45-90
3.38
85.9
5.63
143.0
35-70
5.00
127.0
6.00
152.4
35-70
4.00
101.6
6.00
152.4
35-70
3.38
85.9
6.00
152.4
92x54x85
100x54xl00
119x65x110
140x62x127
140x62x127
140x62x127
2.34xl.37x2.16 2.54x l.37x2.54 3.02x 1.65x2.79 3.56x 1.57x3.23 3.56x 1.57x3.23 3.56x 1. 75x3.23
97
154
113
131
154
154
2.46
2.87
3.91
3.91
3.91
3.33
30,000
7,600
11,500
18,200
30,500
31,000
3,420
5,175
8,190
13,500
13,725
13,950
* 20 frame-size machines are available with a slide driving the plungers for higher-tonnage, short-draw production.
** The cam-driven twelfth station plunger is attached to, and drives, the additional station plunger.
t Maximum depth of drawn shell may be increased on application.
tt Higher production ratesare realized on specific parts, particularly on machinesequipped with optional special cam packages, i.e. (short stroke, custom full follow and/ or dual feed
configurations). Production rates are also dependent on material and type of work.
Single- or double-row blanking may be employeddependent upon the application.
Waterbury Farrel reserves the right to update machine specification's and physical characteristics at anytime without published notice.
15
Product lines of Waterbury Farrel
the productivity company
High Speed Hydraulic Presses
High Speed Transfer Presses
Rolling Mills and Automatic Gage Control Systems
Cleveland Hobbing Machines
Thompson Surface Grinders
Jones & Lamson Numerical Control Lathes
Jones & Lamson Precision Automatic Lathes
Jones & Lamson Automatic Form Grinders
Jones & Lamson Numerical Control Cylindrical Grinders
Jones & Lamson Automatic Computerized Measuring Systems
Jones & Lamson Optical Comparators
MAIN PLANT Cheshire, Conn.
Home Office: Waterbury Farrel Division of Textron Inc., West Johnson Ave., Cheshire, Connecticut 06410
DISTRICT OFFICES
DETROIT
WATERBURY FARREL
1035 Crooks Rd .
Troy, Michigan 48084
Tel: (313) 435-4044
CHARLOTTE
WATERBURY FARREL
501 Kings Mt. St.
York, SC 29745
Tel : (803) 684-9936
HOUSTON
WATERBURY FARREL
100 East T idwell Road
Houston, TX 77022
Tel: (713) 691 -3800
CHESHIRE
WATERBURY FARREL
West Johnson Avenue
Cheshire, Connecticut 06410
Tel : (203) 272-3271
Answering Service
BOSTON (617) 862-7620
ROCHESTER (716) 546-4246
UTICA (315) 732-3012
LOS ANGELES
WATERBURY FARREL
980 East Orangethorpe Avenue
Anaheim, California 92801
Tel : (213) 865-0205
(714) 526-8301
CHICAGO
WATERBURY FARREL
1101 West Thorndale Avenue
Itasca, Illinois 60143
Tel: (312) 773-4545
Answering Service
DAVENPORT (319) 324-2428
INDIANA (317) 773-5092
MADISON (414) 342-7514
MILWAUKEE (414) 342-7514
PHILADELPHIA
WATERBURY FARREL
219 Rittenhouse Circle
Bristol , PA 19007
Tel : (215) 781 -0430
WESTERN EUROPE
JONES & LAMSON EUROPE
J. Huysmanslaan 59
B-1660, Lot, Belgium
Tel: 376-2090
Telex: 21798 WFEBEL B
CLEVELAND
WATERBURY FARREL
5811 Canal Road
Cleveland, Ohio 44125
Tel : (216) 524-9610
Answering Service
DAYTON (513) 433-9662
CINCINNATI (513) 433-9662
COLUMBUS (513) 433-9662
ERIE (41 2) 441-0555
PITTSBURGH (412) 441-0555
JONES & LAMSON EUROPE
Div. of Textron Ltd.
Robert Hawkins
301 Stoney Lane
Yardley
Birmingham B25 8YG ENGLAND
AGENCIES IN MAJOR CITIES WORLDWIDE
WATERBURY FARREL lj i £j i ~•]: 1
Waterbury Farrel Division of Textron Inc.
Form No. C0-7701-R82
Printed in USA