2015 Program Booklet
Transcription
2015 Program Booklet
Université Laval, 2014 Overall Winner 1 2 W elcome to the Formula North 2015 competition – the fourth edition to the Canadian Formula Student series. This year we are running two categories – Combustion and Electric at the Barrie Molson Center from June 4-7, 2015. Twenty-eight teams will be competing in the former, while 4 teams will be competing in the latter category. In addition to the event, we will be running the Career Fair on Thursday, June 4th and the Wine and Cheese Networking session on Friday, June 5th. The theme that has resonated this year was ‘Teamwork’. Over the past eight months, I was working abroad on a placement and as you can imagine, it was definitely a formidable task organizing the event from so far. From handling finances to sponsorships, managing a team over a 9-hour time zone difference proved to be quite a challenge. However, it was teamwork that pulled us through. Many of the team members took ownership of new tasks and followed through their responsibilities with a lot of dedication. Some of the core members rose up to leadership positions to manage a variety of activities, both relevant and non-relevant to their core responsibility. With the new Electric category installation at Formula North, it was imperative that the team was strategically aligned for a successful 2015 event. Isn’t teamwork the core to a successful Formula Student team? During my years as a student in FS and after graduation, I’ve had the opportunity to see big and small well-functioning teams as well as the ‘one-man-show’ teams. While the latter is possible, the concept of Formula Student as a student initiative, where a group of students work together, to learn, grow and excel, is lost. We are all human, with the tendency to like or dislike certain characters and personalities. Hence teamwork will be a challenge when you don’t gel well with a certain person on the team. But it is important to remember that each individual has a certain set of skills which will contribute to the success of the project. If a team member can put their ego aside, there might be a greater possibility to harness the skills of another that would propel the team to go far ahead ‘together’. The principle works in all aspects of life as well, from work, to family, to chores! On behalf of the Formula North 2015 team, I would like to thank all our sponsors and donors for making this year’s event possible. I am truly humbled by their continuous generosity towards making this event a successful one every year. I would also like to thank our volunteers who continue to assist with executing this annual event. The journey has been inspirational so far and I am glad you are here to be a part of it. Sincere regards, Cathy D’Souza Event Chair – Formula North 2015 President – Formula North Inc. 3 CONTENTS Welcome Schedule Maps of Event Grounds We Would Like You To See Sub Events Participating Teams Formula North Team & Volunteers Sponsors 3 5 6-7 8 9 11 22 24 ABOUT Formula North 2015 is Canada’s Formula Student event. The purpose of the competition is to promote the awareness of practical engineering experience and student innovation through creating a competitive Canadian platform for Canadian and international teams. Teams take on the assumption they are a manufacturer developing a prototype to be evaluated for production and that a group of developers are interested in investing in their project. The intended sales market is the non-professional weekend autocrosser. Therefore, the car must have high performance in terms of its acceleration, braking and handling qualities. The car must be low in cost, easy to maintain and reliable. In addition, the car’s marketability is enhanced by other factors such as aesthetics, comfort and use of common parts. In short, would you, the weekend autocrosser, be interested in purchasing one of these vehicles? The challenge to the design team is to design and fabricate a prototype that best meets these goals and intents. Over the course of a four-day competition, a jury of experts from the motorsport, automotive and supplier industries judges the design, cost and business planning of all the teams to determine the best team and vehicle; in addition, the teams’ on-track performance scores will demonstrate how well they hold up under real-life conditions. Formula North is divided into two disciplines: Static and Dynamic. The Static disciplines challenge students on the overall design of the car, cost and marketability.The Dynamic disciplines challenge the car’s performance on track. A total of 1000 points are available at both events. STATIC EVENTS DYNAMIC EVENTS 1. ENGINEERING DESIGN EVENT 150 POINTS Teams must submit an eight-page design report to convince judges of the construction and performance of their vehicles. At the event, judges examine the car and question teams on their engineering design goals, program simulations and vehicle testing results. Hybrid teams are also judged on how sustainability was incorporated into the design of their vehicle. 1. SKID-PAD 50 POINTS The self-built cars drive on a track in the shape of an eight. There are two consecutive laps on each circle, with the second lap being timed. The cars demonstrate, with a fast lap time, how much lateral acceleration they can generate (up to 1.4 g). 2. COST EVENT 100 POINTS As costs play an important factor in building a race car, teams must put together a ‘Cost Report’ that contains a list of all components - from wheels to manufacturing processes to labour costs and special tools. Judges then evaluate the clarity and accuracy of the report by comparing the document with the life-size construction. 3. MARKETING EVENT 75 POINTS Teams must present a business plan for the built prototype to a group of industry professionals. Teams must try to convince the audience that their car meets the demands of an amateur weekend autocross racer and that it can be produced and marketed profitably. Judges score teams on content, structure, organization and delivery of the presentation. 4 2. ACCELERATION 75 POINTS The race cars prove their accelerating abilities over a distance of 75 meters. The fastest need less than four seconds. 3. AUTOCROSS 150 POINTS A course of perhaps one kilometer through straights and curves. The lap time serves as indicator for driving dynamics and handling qualities. The results of the Autocross discipline determine the starting order of Endurance. 4. ENDURANCE 300 POINTS Providing the highest number of points, Endurance is the main discipline. Over a distance of 22 kms the cars have to prove their durability under long-term conditions and the drivers’ handling skills are put to the test. A driver change takes place after 11 kms. 5. FUEL EFFICIENCY 100 POINTS Fuel consumption is a considerable factor in the development of future cars. Teams that successfully complete the Endurance event are weighed. Their final weight is compared to their original weight when filled up and teams are awarded points based on the amount of fuel used. VISITORS SCHEDULE Registration is open daily from 8:30am to 6:00pm. Entrance is free on Friday, Saturday & Sunday All visitors are required to sign a liability waiver upon entry. Adjudicated events are not open to the public. THURSDAY MAY 22 8:30 am - 6:00 pm 9:00 am - 5:30 pm 10:00 am - 4:00 pm Paddocks open Tech Inspection open Cafeteria open 12:00 pm - 3:00 pm 5:30 pm - 6:30 pm 6:30 pm Career Fair Welcome Ceremony Panoramic Photo FRIDAY MAY 23 8:30 am - 6:00 pm 9:00 am - 4:30 pm 10:00 am - 4:00 pm Paddocks open Tech Inspection open Cafeteria open 9:00 am 9:00 am 5:30 pm 6:30 pm Team Photos begin Static Events - Design, Cost, Business begin Lecture on Hybrid and Electric Powertrains Wine and Cheese Reception* SATURDAY MAY 24 8:30 am - 6:00 pm 9:00 am - 6:00 pm 10:00 am - 4:00 pm Paddocks open Tech Inspection open Cafeteria open 10:00 am - 1:00 pm 10:00 am - 1:00 pm 10:00am - 5:00pm 2:00 pm - 5:00 pm 5:00 pm - 6:00 pm 5:00 pm - 6:00 pm Acceleration event open Skidpad event open Brack Driving Concepts Exhibit Open Outside Autocross event open Design Finals (Not Open To Public) Business Winners Presentations - Main Stage SUNDAY MAY 25 8:30 am - 6:00 pm 9:00 am - 6:00 pm 10:00 am - 4:00 pm Paddocks open Tech Inspection open Cafeteria open 10:00 am - 4:00 pm 10:00 am - 5:00 pm 10:00am - 5:00pm 4:00 pm - 5:00 pm 5:30 pm - 7:00 pm Endurance event open Fuel Efficiency / Energy Consumption Event open Brack Driving Concepts Exhibit Open Outside Design Review Awards *Starred events are Paid events 5 6 7 You’re a builder, an adventurer, a problem solver. You think in terms of smarter, cleaner, safer, and lighter. And always better. It’s who you are. Drive your passion. Closed Environment Training to assist Where Good Drivers with today’s Get Better driving challenges Coach in your car to assist you with skills for accident avoidance, skid control and confidence building skills Shannonville Motorsport Park Belleville Ontario $275+hst 8:30a.m to 5p.m. www.brackdriving.com facebook.com/brack.driving 416-255-4222 Honda is the Proud Sponsor of the Formula North 2015 competition. 8 SUB EVENTS CAREER FAIR - THURSDAY JUNE 3, 12PM - 3PM Honda of Canada Manufacturing is one of Honda’s premier manufacturing facilities in the world. Founded 140 years ago, the IET is one of the world’s leading professional societies for the engineering and technology community. IMechE Central Canada Branch provides a local forum for members to get news and information about the Branch and their activities. Magna is a leading global automotive supplier. “FUNDAMENTALS OF POWER-TRAIN DESIGN FOR MORE-ELECTRIC VEHICLES” By Speaker, Nigel Schofield. Friday June 5th at 5:30pm, lasting 30 mnutes. Future vehicle power-train concepts will invariably encompass dual or multiple off- or on-board energy sources, each of which will have distinct electrical interface characteristics. These features, coupled with dynamic electro-mechanical load profiles and wide thermal and environmental operating environments have a significant impact on the design of power-train components for all- and hybrid-electric vehicles covering a variety of market sectors, for example, road, air and marine.The lecture will cover typical specification requirements, power-train component options and their electrical and electronic interconnection for more-electric vehicle power-trains. WINE AND CHEESE NETWORKING EVENT - FRIDAY JUNE 5, 6:30 PM Formula North hosts a wine and cheese networking event at which sponsors, judges and volunteers can network with each other. The Mayor of Barrie, Jeff Lehman and MPP Rod Jackson will be in attendance as well. BRACK DRIVING CONCEPT EXHIBIT - SAT & SUN, JUNE 6-7, 10AM - 5PM Brack Driving Concepts provides advanced driver training programmes to provide skills to every-day drivers to become better on the road, master their skills and also help gain motorsport experience. AWARDS CEREMONY - SUNDAY JUNE 7, 5:30 PM The Awards Ceremony marks the finale of the Formula North 2014 event. Visitors are more than welcome to attend and cheer on the teams as they collect their trophies. 9 10 THE TEAMS The concept behind each team is that a fictional manufacturing company has contracted a design team to develop a small Formula-style race car. The prototype race car is to be evaluated for its potential as a production item. The target marketing group for the race car is the non-professional weekend autocross racer. Each student team designs, builds and tests a prototype based on a series of rules whose purpose is both to ensure onsite event operations and promote clever problem solving. Featured teams submitted program materials via email. 11 Car #3 Carleton University Brake System Cast iron floating rotor / AP master cylinders / Wilwood calipers Bore/Stroke/Cylinders/Dis. Cooling System 77.0mm / 53.6mm / 1 cylinder / 250cc Drive Type Liquid cooled 6 speed chain drive, custom Honda differential Electronics MoTeC M48 ECU and SPDi Spark Plasma Ignition Engine Yamaha WR250 FR/RR Track (mm/inches) Frame Construction 1270mm / 1245mm Fuel System Fuel injected Fuel Type 100 octane Material 1020 steel Max Power Design (rpm) 11500rpm 9000rpm Max Power Torque (rpm) Steel space frame Overall L/W/H (mm/in) Suspension 2705mm / 1476mm / 1349mm Tire Size / Compound Type Hoosier 20.5x7.0-13 R25B Unique Features - Weight w/150lb driver 260kg Wheelbase (mm/inches) 1550mm Double A-Arm, pushrod actuated spring and damper, u-bar ARB Car #1 University of Toledo 12 Carleton University’s Ravens Racing has designed and produced a highperformance race car making it an ideal weekend race vehicle targeting the amateur autocross enthusiast. Design highlights for the 2015 vehicle include: single cylinder EFI turbocharged engine for performance and reliability; customizable fuel and ignition system; steel space frame chassis with carbon fibre panels for a high rigidity-to-weight ratio; and in-house manufactured custom aluminum wheel centers. Carleton’s design goals emphasize a balance between performance and cost-effective manufacturing. To achieve the design goals, a closed loop design process is used to create an environment of continuous improvement. Design criteria are based on the lessons learned in testing and past competitions. A wheels-in design approach is supported by Creo Parametric solid modelling, Creo Simulate FEA, and Creo Mechanism dynamic simulation.Vehicle testing is used to verify criteria compliance and provide feedback for future design work, thus completing the design cycle. Car #2 University of Toronto Car #5 Oakland University Car #4 Cornell University Cornell Racing proudly presents its entry, ARG15, into the 2015 Formula North Competition. ARG15 maintains its power advantage and makes improvements to driveability and reliability compared to the previous year’s entry. ARG15 implements a 3/4 carbon fiber monocoque with a steel frame engine bay to increase engine serviceability. At the heart of ARG15’s engine package is a turbocharged Honda CBR600RR controlled by a MoTeC M400 ECU. Additionally, ARG15 features front and rear wings to increase high speed stability. Brake System Floating, cast iron rotors w/ 2 piston calipers Bore/Stroke/Cylinders/Dis. Cooling System 67mm/42.5mm/4cyl/599cc Drive Type Water Cooled Chain Electronics MoTeC M400 Engine Honda CBR600RR FR/RR Track (mm/inches) Frame Construction 47.5in/46.5in Fuel System Sequential Injection Fuel Type E85 Material Carbon Fiber, Aluminum, Steel Max Power Design (rpm) 9000rpm 6500rpm Max Power Torque (rpm) Hybrid Frame Overall L/W/H (mm/in) Suspension 114.6 in/54.3 in/47.6 in Tire Size / Compound Type 18x6.0-10/18x7.5-10 Hoosier R25B Unique Features Turbocharger with custom turbine housing, 3/4 Moncoque with space frame, DRS Weight w/150lb driver 600Ibs Wheelbase (mm/inches) 62in Car #7 Double unequal length a-arms, front/rear pushrod, adj anti-roll Rensselaer Polytechnic Institute Carleton University’s Ravens Racing has designed and produced a high-performance race car making it an ideal weekend race vehicle targeting the amateur autocross enthusiast. Design highlights for the 2015 vehicle include: single cylinder EFI turbocharged engine for performance and reliability; customizable fuel and ignition system; steel space frame chassis with carbon fibre panels for a high rigidity-to-weight ratio; and in-house manufactured custom aluminum wheel centers. Carleton’s design goals emphasize a balance between performance and cost-effective manufacturing. To achieve the design goals, a closed loop design process is used to create an environment of continuous improvement. Design criteria are based on the lessons learned in testing and past competitions. A wheels-in design approach is supported by Creo Parametric solid modelling, Creo Simulate FEA, and Creo Mechanism dynamic simulation.Vehicle testing is used to verify criteria compliance and provide feedback for future design work, thus completing the design cycle. Brake System Wilwood GP200/PS1 Front/Rear Bore/Stroke/Cylinders/Dis. Cooling System 67mm/42.5mm/4cylinder/599cc Drive Type 12.5x7.6” radiator, 1400CFM 520 X Ring Chain Electronics PE3 ECU, student-build DAQ and shifting system Engine Honda CBR 600 F4i FR/RR Track (mm/inches) Frame Construction FR: 1230mm/48.4in, RR: 1200mm/47.2in Fuel System Custom fuel injection system controlled by PE3 ECU Fuel Type 93 Octane Material 4130 Chromoly Steel Max Power Design (rpm) 11200rpm 8000rpm Max Power Torque (rpm) 4130 Chromoly Steel Space Frame Overall L/W/H (mm/in) Suspension 3200mm/126.0in / 1401mm/55.2in / 1180mm/46.5in Tire Size / Compound Type Hoosier 18.0x6.0-10 R25B Unique Features Custom aluminum diff housing, carbon/kevlar hybrid body kit * Weight w/150lb driver 580lb/263kg Wheelbase (mm/inches) 1640mm/64.6in Unequal Length Double Wishbone, Front/Rear Pullrods * custom SLS intake, titanium bellcranks 13 Car #6 École de Technologie SupÉrieure Car #12 Car #8 Polytechnique MontrÉal Car #9 University of Connecticut University of Waterloo The design of the 2015 car was based around the philosophy of being simple, effective, and efficient. Vehicle simulations were performed to evaluate various design concepts and these results were balanced against many other factors, such as cost and reliability, to select the final vehicle concept. The suspension system was simplified to reduce manufacturing time and weight. New wing elements were used on the front wing and it was lowered to take advantage of ground effect to increase downforce generation. CFD and wind tunnel testing was done to optimize the aerodynamic system and the interaction between the front and rear wing. A new engine management system was implemented and changes were made to the intake manifold to address both comments from driver feedback and to achieve target powertrain goals. Brake System Wilwood GP200, Front and Rear Bore/Stroke/Cylinders/Dis. Cooling System 67mm/42.5mm/4/599cc Drive Type Dana Air to Water and Air to Oil Radiators Custom Salisbury Style LSD Electronics MoTeC M150 with custom shift and PD modules Engine Honda CBR600RR FR/RR Track (mm/inches) Frame Construction FR: 1210mm/47.6in RR: 1200mm/47.2in Fuel System EFI with Walbro Pump Fuel Type 93 Octane Material CFRP, Glass-sintered nylon Max Power Design (rpm) 9000rpm 60Nm Max Power Torque (rpm) Hybrid Spaceframe with Shear Panels Overall L/W/H (mm/in) Suspension 3051mm/120.1in, 1386mm/54.6in, 1527mm/60.1in Tire Size / Compound Type 10” Hoosier LC0 Unique Features M150 engine management, custom driver seats Weight w/150lb driver 630 lbs Wheelbase (mm/inches) 1645mm/64.8in 14 Double Wishbone Car #14 Western University Western Formula Racing is the FSAE team from Western University in London, Canada. Beginning in 1988, we’ve competed every year since 1996. Our team has a philosophy of Excellence, Endurance, and Enthusiasm: building highly-skilled and effective professionals; ensuring the long term success of the team; and having fun! WFR-15 features one of the skinniest cars at competition for improved driving line. We’ve also built our team’s first monocoque and composite wheels. WFR-15 features several driver aids such as: DRS (Drag Reduction System); traction control; and auto up-shifting, as well as tuning aids: driver adjustable antiroll bars, and brake bias.We continue to use 13” rims for increased grip.This year, we implemented a 4-2 exhaust system with twin mufflers. Our aerodynamics package utilizes sidewings as well as multi-plane front and rear wings. Thank you to our major sponsors for their support this year: Western Engineering, Armatec Survivability, Honda Canada, Lubrico Warranty, Autotube, and the University Student Centre (USC). Brake System Floating Ductile Iron Rotors; Tilton Master Cylinder; Driver Adjustable Bias Bore/Stroke/Cylinders/Dis. Cooling System 67 mm / 42 mm / 4 cyl / 600 cc Drive Type Water cooled; Side-mounted Radiator with thermostatically controlled fan Roller Chain; Drexler LSD Electronics AEM EMS4 ECU, EVO3 Pro DAQ Engine Honda CBR 600 F4i FR/RR Track (mm/inches) Frame Construction 1050 mm / 1050 mm Fuel System Returnless EFI with custom aluminum fuel tank Fuel Type 93 Octane Material Varies by application Max Power Design (rpm) 11000rpm 9500rpm Max Power Torque (rpm) Car #10 The Ohio State University Hybrid: Front CFRP-Foam Monocoque; Rear Chromoly tube space-frame Overall L/W/H (mm/in) Suspension 2967 mm / 1291 mm / 1180 mm Tire Size / Compound Type 20” x 7.5” -13. R25B Hoosier Unique Features Driver Adj. anti-roll, brakes, DRS; Twin Mufflers; Traction Ctrl. Weight w/150lb driver 630 lbs Wheelbase (mm/inches) 1525 mm Car #11 Queen’s University Double Unequal Wishbone; Pull-rod front, push-rod rear Car #13 Sheridan College 15 Car #16 Iowa State University CR-20 is Iowa State University’s 20th car to compete in the Formula SAE series. For CR-20, emphasis was placed on the continued improvement of all systems from the previous generations. Reducing the number and complexity of components to decrease manufacturing time, improved reliability, and refinement of the engine system was also strongly emphasized. To increase manufacturing simplicity, all 2D parts were water jet or laser cut. This year’s car continues on 10” wheels and features unique a-arms that are machined from aluminum plates. The powertrain remains largely the same as last year as we continue to use the Yamaha YFZ450R engine. Our intake/restrictor is 3D printed in Stratasys’s proprietary high strength material, ULTEM 9085. The pedal mounts have 5” of adjustability to accommodate a range of driver heights.The use of aircraft fabric bodywork eliminated the need for composites molds and saved time, money and weight. Brake System Wilwood PS-1 Calipers, Tilton 77 Series Master Cylinders Bore/Stroke/Cylinders/Dis. Cooling System 95 mm/63.4 mm/1/449 cc Drive Type Polaris WideTrak 600 Radiator, SPAL Fan Chain Drive, Torsen Type T1 Differential in Student Built Alum. Housing Electronics Performance Electornics PE3 ECU, AiM MXL Data Logger Engine 2014 Yamaha YFZ450R, 14:1 Wiseco Piston FR/RR Track (mm/inches) Frame Construction Front: 1168 mm/46 inch, Rear: 1270 mm/50 inch Fuel System Single Bosch EV14 Injector, Aeromotive FPR, Welded Aluminum Tank Fuel Type Car: E85, Team: Burritos, Panda Express, Arnold Palmer * Material Rhealogical Magnetic Aluminum Max Power Design (rpm) 42 HP at 9000 RPM (31.3 kW) 28 ft-lb at 7750 RPM (38 Nm) Max Power Torque (rpm) TIG Welded 1020 Steel Spaceframe, Black Textured Powder Coat Overall L/W/H (mm/in) Suspension 2781mm/109.5in / 1435mm/56.5in / 1067mm/42in Tire Size / Compound Type 6.0/18.0-10 Hoosier LC0 Unique Features Machined Aluminum A-Arms, Trademarked University Logo, Chick Magnet Weight w/150lb driver 524 lb/238 kg Wheelbase (mm/inches) 1575 mm/62 inch Pushrod Actuated Ohlins TTX25 MKII Dampers • * PeaceTea price went up • NonParallel Unequal Length A-Arm Car #18 Northwestern University Brake System 9” diameter scalloped rotors, Tilton 77 Series master cylinders Bore/Stroke/Cylinders/Dis. Cooling System 67/66.8/2/471 Drive Type Aluminum core single pass radiator, 2400 cfm fan mounted to radiator Chain Drive Electronics Electronic shifting, variable digital clutch control, automatic shifting Engine CBR500R FR/RR Track (mm/inches) Frame Construction 1219.2 mm/1219.2mm Fuel System Honda CBR500 Injectors with Powerflow 180LPH EFI Pump Fuel Type 93 Material Solids, some liquids, and gas Max Power Design (rpm) 9000rpm 7000rpm Max Power Torque (rpm) Northwestern Formula Racing set out to make major redesigns during the 2015 season. We started from the basics and entirely revamped our suspension geometry based on tire data analysis and principles of vehicle dynamics. We also upgraded to the two-cylinder Honda CBR500R, which gives us more power out of a light engine. Our car features updated electronics that are focused on data acquisition and increased reliability. A carbon fiber steering wheel with integrated electronics and an LED screen allows the driver total control and feedback during driving. We have focused on the implementation of structural carbon fiber components, which can be found in our floors and drop links. TIG Welded Steel Space frame Overall L/W/H (mm/in) Suspension Length: 2735.97 mm, Width: 1376.54 mm, Height: 1215.27 Tire Size / Compound Type 20.5 x 7, R25B Hoosier Unique Features Electric shifting, brand new trailer Weight w/150lb driver 600 lbs Wheelbase (mm/inches) 1524 mm Double unequal wishbone suspension, pushrod actuated, Torsion ARB 16 Car 17 - Concordia University has withdrawn it’s registration from Formula North. Car #15 Ryerson University Car #22 Car #19 Temple University University of Michigan- Dearborn Brake System Tilton 77 Master Cylinders, AP Racing and ISR brake calipers Bore/Stroke/Cylinders/Dis. Cooling System 77mm/53.6mm/2/499cc Drive Type Single mounted dual core heat exchanger, Dual 300 cfm fans Continuously variable transmission to chain drive Electronics Bussman Power Distribution Box, Relays driven from Bosch MS3 Sport ECU Engine Yamaha Genesis 80fi FR/RR Track (mm/inches) Frame Construction 48 inches/48 inches Fuel System Port Fuel Injection/Denso Injectors Fuel Type E-85 Material Steel/Aluminum/CFRP Max Power Design (rpm) 11,500rmp 9,250rpm Max Power Torque (rpm) Car #20 UniversitÉ du QuÉbec À Trois-RiviÈres Produce an easy to drive vehicle in a timely manner yielding large amounts of practice time for drivers, tuning, and determination of hardware viability. In addition, maximizing the lateral and longitudinal acceleration capabilities of the vehicle through the tires, aerodynamics, and a continuously variable transmission. Welded Steel Tube Space Frame Overall L/W/H (mm/in) Suspension L: 3077.62mm, W: 1455.42mm, H: 1200mm Tire Size / Compound Type Hoosier R25B 7.5” Unique Features Unsprung Mounted Wings/CVT Weight w/150lb driver 610 lbs Wheelbase (mm/inches) 66 in Pushrod actuated SLA 17 Car #23 McGill University The MRT16 combustion prototype will mark the McGill Racing Team’s 16th entry into the FSAE series.The vehicle targets were based on a point mass lap time simulation that allowed the team to assess the effect of vehicle parameters on competition performance. As a result, the MRT16 features a CFRP monocoque for the first time, a re-designed aerodynamics package (front, mid, and rear wings), and an E85-powered naturally aspirated Rotax DS450 single cylinder engine. Alongside vehicle development, the McGill Racing Team focused on increasing documentation of the design process including simulation, analysis, and testing, as well as improving project management and team communication. Brake System Steel Discs, 4/2-Piston Calipers F/R Bore/Stroke/Cylinders/Dis. Cooling System 97/60.8/1/450cc Drive Type Twin Water-to-Air Heat Exchangers 4-Speed Gearbox, Chain-Final, LSD Electronics Dash, DAQ, ECU Engine Can-Am/Rotax DS-450 FR/RR Track (mm/inches) Frame Construction 1117.6/1117.6 mm (44/44 in) Fuel System Port Fuel Injection Fuel Type E-85 Material CFRP, Aluminum, Steel, Titanium, Super-Alloys, Plastics Max Power Design (rpm) 9000rpm 8000rpm Max Power Torque (rpm) CFRP Monocoque Overall L/W/H (mm/in) Suspension 2918/1328/1181 mm (114.87/52.28/46.5 in) Tire Size / Compound Type 18x6-10, LC0 Unique Features Systems Integration Weight w/150lb driver 480ibs Wheelbase (mm/inches) 1549.4mm/61in Double unequal length A-Arm, Pull/Push-rod actuated Dampers Car #21 University of Guelph 18 18 Car #24 Vanderbilt University Car #26 University of Windsor Car #25 University of Nebraska – Lincoln Brake System Wilwood Master Cylinder with GP200 Calipers Bore/Stroke/Cylinders/Dis. Cooling System 67mm / 42.5mm / 4 Cyl. / 599cc Drive Type Water cooled Limited slip differential Electronics Megasquirt 3 Pro ECU Engine Kawasaki Ninja ZX6R FR/RR Track (mm/inches) Frame Construction 48/46 inches Fuel System - Fuel Type E-85 Material 1020 Steel Max Power Design (rpm) 85 hp at 10000 rpm 45 ft-lbs at 8500 rpm Max Power Torque (rpm) In only its fourth year of existence, the Husker Motorsports team established high goals for 2015. One goal for the 2015 car was to make minimal changes to the previous generation in order to focus on driver training and extensive testing and tuning of the new car. Husker 04 is a robust car with a steel tube space frame, a 2009 Kawasaki zx6r 600cc engine, and an all carbon fiber body. Some key features include a data acquisition system, electronic push-button shifting, and launch control with an automatic shift system.The major addition for this year was the design of an aerodynamic undertray – rear diffuser; this is the first year that Husker Motorsports decided to begin preliminary research into the benefits of aerodynamics for the FSAE car. It was determined that the first step in developing an aerodynamics package would be to design an aerodynamic undertray – rear diffuser that would reduce the overall drag force on the car and also create a small amount of downforce. Steps were also taken to improve upon some of the designs from the previous year that proved to be less reliable. The Husker 04 has the highest potential for success of any previous car produced by Husker Motorsports. Steel tube space frame Overall L/W/H (mm/in) Suspension 114/ 55/ 45 inches Tire Size / Compound Type 10 inches Unique Features - Weight w/150lb driver 600 lbs Wheelbase (mm/inches) 65 inches Double wishbone with front and rear anti-roll bar Car #27 The University of Akron Since the start of ZipsRacing in 1990 the team has strived to present a simple yet performant vehicle at competition. Our new vehicle, the ZR15, is no exception to this philosophy. Iterating on past designs the ZR15 joins years of knowledge in development to provide the most advanced vehicle that the ZipsRacing team has ever built. Brake System 4-Disk, floating rotors, ISR Calipers Bore/Stroke/Cylinders/Dis. Cooling System 95.0mm, 63.4mm, single, 450cc Drive Type Single side mounted radiator with controlled fan Chain-Drive, Drexler Formula Student Diff Electronics Motec M150, ACL,VIM, PDM Engine Yamaha WR450F FR/RR Track (mm/inches) Frame Construction 1250mm, 1245mm Fuel System Student designed sequential fuel injection Fuel Type E-85 Material 4130, CFRP, Ti, Al, Plastics Max Power Design (rpm) 10500rpm 7500rpm Max Power Torque (rpm) Tubular space frame with bonded composite honeycomb panels Overall L/W/H (mm/in) Suspension 2923.5mm, 1473mm, 1200mm Tire Size / Compound Type Hoosier 6.0/18.0-10 LC0 Unique Features Unsprung Aerodynamics Weight w/150lb driver 228kg Wheelbase (mm/inches) 1530mm Double unequal length A-Arms. Pullrod actuated coilovers 19 Car #28 Columbia University KMR-15 is the ninth car constructed by Knickerbocker Motorsports. By using testing data and driver feedback from our prior cars, we were able to redesign many systems to be lighter and more efficient. Major modifications to systems such as the chassis, body and fuel allowed us to reduce the car’s weight by 9 kg, as compared to KMR-14. Additional sensors have been integrated into the design to gain greater control during competition and to gather more data for testing analysis. We would like to thank our sponsors, whose generous contributions and support have been integral to our team’s progress: Alcoa Inc, Martini Racing, EVS Metals, Columbia Engineering Alumni Association, CU Department of Mechanical Engineering, Carleton Laboratory, CU Facilities, Activities Board at Columbia, Monster Tool, Espo’s Powder Coating, PTC, Morel Industries, Hot Seat Chassis, DENSO, Quality Bearings & Components, Zoltek, Lincoln Electric, Carbontech, Tri Power and microGreen. Brake System Brembo P2-34/P2-24 calipers, Semi-floating rotors, AP Racing CP2623 master cylinder Bore/Stroke/Cylinders/Dis. Cooling System 67 mm bore / 42.5mm stroke / 4 cyl. / 600 cc Drive Type Single side-mounted custom radiator 520 Chain Driven, Qualife ATB, 52:11 gear ratio Electronics Megasquirt MS3 ECU, Race Technology DASH2 display and traction/launch control Engine Honda CBR600 F4i, custom intake and 4-1 exhaust system FR/RR Track (mm/inches) Frame Construction 1270 mm front, 1220 mm rear Fuel System DW100, fully sequential E.F.I. Fuel Type 93 Octane Gasoline Material Steel space frame, carbon fiber with foam core body Max Power Design (rpm) 10,500 RPM 9,000 RPM Max Power Torque (rpm) 4130 Steel space frame Overall L/W/H (mm/in) Suspension 3 m long, 1.4 m wide, 1.1 m high Tire Size / Compound Type Hoosier 20.5x7.0-13 R25B Unique Features Carbon fiber seat, cockpit controls, modular electronics box Weight w/150lb driver 219kg Wheelbase (mm/inches) 1550mm Unequal length double wishbone, push rod actuated Ohlins shocks ELECTRIC SHOWCASE T he Formula North 2015 competition is hosting a pre-electric event this year. Four teams, representing McGill University, Polytechnique Montreal, Carleton University and San Jose State University, will be competing with Formula-style electrically powered vehicles which follow a similar set of Formula SAE rules as the combustion category. Formula Student Electric made its first debut at the Formula Student Germany series in 2010. The series was introduced, following the strategy of the mobility industry, to innovate sustainable modes of transportation in the future. As the trend for the development of electric vehicles is in a full swing, the idea to include a ‘100%’ electrically powered vehicle as a series of its own, was a logical one. While in Europe, many of the existing Formula Student (FS) competitions began to include the electric category in their events, Formula SAE in North America included the series in 2013. With challenges of its own, the FS Electric category has seen a great number of success stories in the past few years. Electric teams such as AMZ Racing of ETH Zurich have accelerated to 100 km/hr within 1.785 seconds, beating even the fastest ac- Car #e02 San Jose State University 20 Car #e04 McGill University he Formula North 2015 competition is hosting a pre-electric event this year. Four teams, representing McGill University, Polytechnique Montreal, Carleton University and San Jose State University, will be competing with Formula-style electrically With challenges of its own, the FS Electric category has seen a great number of success stories in the past few years. Electric teams such as AMZ Racing of ETH Zurich have accelerated to 100 km/hr within 1.785 seconds, beating even the fastest acceleration timing for combustion vehicles. With a more robust rules platform which is a collaborated effort between Formula Car #e01 Polytechnique MontrÉal Poly eRacing is an all-electric formula SAE team which started from nothing in 2009, wanting to reduce greenhouse gas emission by training students in transportation electrification. Our first prototype, unveiled at the summer of 2012, never competed in a dynamic event. 2015’s prototype, our second, is the result of a redesign and will be a strong base for upcoming cars. Brake System Cooling System Floating rotors, adjustable bias Liquid snow (motor), Northern wind(cells) Drive Type Quaife LSD Electronics Self developped low voltage electronics Electrode Mat / CA Capacity : NCM vs graphite / 5.3 kWh FR/RR Track (mm/inches) Frame Construction Material Spaceframe 4130 Chromoly Max Motor RPM 5000 rpm Max System Voltage (v) 300 V Motor Controller Unitek BAMOCAR D3 Enstroj EMRAX 228 Motor Type Overall L/W/H (mm/in) Car #e03 1200/1100 mm / 47/43 in 2930, 1420, 1110 mm / 115, 56, 44 in Suspension Tire Size / Compound Type Double a-arms/push-rod with adjustable anti-roll bars Transmission Ration (Pri/ Sec) 3:1 Unique Features - Weight w/150lb driver 615 lbs Wheelbase (mm/inches) 1600 mm / 63 in Hoosier 18.0 x 6.0 Carleton University Carleton University’s Ravens Racing has designed and produced a high-performance race car making it an ideal weekend race vehicle targeting the amateur autocross enthusiast. Design highlights for the 2015 vehicle include: lithium iron phosphate battery back for performance, light weight, and safety; three phase AC synchronous motor with a high power-to-weight ratio; steel space frame chassis with carbon fibre panels for a high rigidityto-weight ratio; and in-house manufactured custom aluminum wheel centers. Carleton’s design goals emphasize a balance between performance and cost-effective manufacturing. To achieve the design goals, a closed loop design process is used to create an environment of continuous improvement. Design criteria are based on the lessons learned in testing and past competitions. A wheels-in design approach is supported by Creo Parametric solid modelling, Creo Simulate FEA, and Creo Mechanism dynamic simulation. Vehicle testing is used to verify criteria compliance and provide feedback for future design work, thus completing the design cycle. Brake System Cooling System Cast iron floating rotor / AP master cylinders / Wilwood calipers Air and liquid cooled Drive Type Chain drive, custom Honda differential Electronics Custom Electrode Mat / CA Capacity : LiFePO4 / 5.5kWh FR/RR Track (mm/inches) Frame Construction 1270mm / 1245mm Material Steel space frame 1020 steel Max Motor RPM 3000rpm Max System Voltage (v) 300V Motor Controller Unitek Bamocar D3 Enstroj Emrax 228 Motor Type Overall L/W/H (mm/in) 2705mm / 1476mm / 1349mm Suspension Double A-Arm, pushrod actuated spring and damper, u-bar ARB Tire Size / Compound Type Hoosier 20.5x7.0-13 R25B Transmission Ration (Pri/ Sec) 1:3 Unique Features - Weight w/150lb driver 300kg Wheelbase (mm/inches) 1550mm 21 VOLUNTEER STAFF DESIGN EVENT JUDGES TECHNICAL INSPECTORS Andrew Shenouda, L-3 Wescam - Aerospace Engineer Geoff Turner, Entreprenur Bogdan Oprea, Honda Canada Inc. - Engineering analyst Pulasti Bandara, General Motors - Engine Controls & Calibration Analysis Daxin Zhao, Bombardier Aerospace - Flight Controls System Engineer Mark Earle, Honda of Canada Manufacturing - Technical Planning Glen Clarke, Sphenic Technologies - Founder Ross Eddie, C. R. Eddie Engineering Inc. - President Philip R Apperly, Retired Igor Krivoshlykov, BlackBerry - Software Developer Jan Klinger, Audi Sport - Design Engineer Prateek Gupta, Gates Corporation - Engineering Assistant Maciej K. Hryniewicki, University of Toronto - Ph.D. Candidate Morgan Crouch, KLA-Tencor - Mechanical Design Engineer Ahmad Barari, University of Ontario Institute of Technology - Assistant Professor Pierre Hinse, UOIT - Engineer Ross Eddie, C. R. Eddie Engineering Inc. - President Jason Sousa, Omron Automotive Technologies - Advanced Design Engineer Chris Stavropoulos, Gnosis autosports - Owner/designer Kenneth Chow, Mechanical Engineer James Timbers, Honda of Canada Manufacturing - Engineer Juan Carlo Soriano, Xytheon Labs - CEO Shariq Khan, Georgian College - Program Coordinator Randell Pierre, Race Buro - Tech Vinh Pham, Toyota Canada Inc. - Manager, Product Quality Glen O’Brien, Maples Springs Energy - Teacher/Engineer Prateek Gupta, Gates Corporation - Engineering Assistant Jo DeMarco, Dragonwerks Inc. - Owner Scott Nicol, Honda of Canada Mfg. - Research Driver Adam Bezzina, Honda of Canada Mfg. - Product Engineer Stephen Singh, Honda of Canada Mfg. - Engineering Pierre Hinse, UOIT - Engineer Ryan Alexander, Design Engineer Lance Mooney, Royal Military College of Canada - Military Faculty Soeren Striepe, Magna International - Senior Manager Trevor Vaughan, Morgan Solar Inc. - Mechanical Engineer Juan Carlo Soriano, Xytheon Labs - CEO Randell Pierre, Race Buro - Tech Chris Storoschuk, Siemens Wind Power - Process Engineering Specialist MARKETING EVENT JUDGES Sonya Favretto, IBM - IBM Supply Chain Client Manager Mark Earle, Honda of Canada Manufacturing - Technical Planning Patrice Bansa, Oetiker Ltd. - Marketing and Product Manager, Americas Puja Patel, Councils of Agencies Serving South Asians - Research Assistant Colin Howard, ACE - Marketing & Business Development Victor H Vasco, ABC Group - Project Engineering Omid Sadeghi, APTCO - Founder Xueying Jennifer Zhang, AMD - Senior Engineer Tina Emamverdi, Glencore XPS - EIT Business Improvement Tausif Agha, CASC - Vice President FORMULA NORTH STAFF Cathy D’Souza - Event Manager Michael Bakaic - Technical Operations Manager, Design and Cost Documents Lead Finola D’souza - Registration Manager Yashashree Chaugule - Hospitality Manager, Event Management Assist Nicholas Burgwin - Track and Timing Operations Manager, Cost Documents Lead Lauren Patrick - Logistics Manager Anna Bechtel - Graphics Director, Media Channels Manager, Marketing Event Lead Tanya Paes - Volunteer Recruitment Nathan Lobo - Scoring Director, Tech Ops Lead,Volunteer Recruitment Chriselle D’Souza - Media Director, PR & Publicity Sean Roberge - PR & Publicity Director, Media Channels Manager Roger Lobo - Tech Ops Lead Trevor Nathaniel - Tech Ops Lead Leon Lobo - Ceremonies and Awards Manager, Tech Ops Mark Prelich - Tech and Track Ops Lead Trevor Vaughan - Design Event Lead, Track Operations Lead Justin Fontolliet - Cost Documents Lead Simren Gill - Tech Ops Lead Hugues Marceau - EV Pre-Event Tech Lead Laurent Dagenais - EV Pre-Event Tech Lead Morgan Crouch - EV Pre-Event Tech Lead Joey Penniman - EV Pre-Event Documents Assist Jacob Oberlin - EV Pre-Event Documents Assist Andrea Kiel, Morneau Shepell - Senior Analyst, Client Strategy Anna Bechtel, General Motors - Creative Clay Sculptor COST EVENT JUDGES VOLUNTEERS Michael Bakaic R. 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