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TEAM 2 Remote Control Car.

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Presentation on theme: "TEAM 2 Remote Control Car."— Presentation transcript:

1 TEAM 2 Remote Control Car

2 Team #2: Total Resources
500 Man hours $500 or key part availability for material and prototyping LPI-Sean (BSEE) LSD-Russ (BSEE) LPM-Adam (BSEE) LRM-Brad (BSEE) LMM-Barry (BSEE)

3 Team #2 Project Our project is a remote control car, that can display battery life speed and direction, and can turn on the lights at the flip of a switch or if it gets dark. The benefit to the user would be a better remote control car There are similar types of products, however we are the only one that has all of these features. Our product would fall under the consumer industry Picture from

4 Project Features The remote control car has a two-way antenna that can transmit to and receive data from the car. Control of the car will come from the controller. The car can turn its lights on and off manually, and automatically if it gets dark enough. The display will tell us the speed and direction of the car, and the battery life remaining.

5 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

6 System - Std Reqs: Marketing Requirement Units to Specify
Competitors Market Size Average List Price Market Geography Market Demography Intended Application Material Cost Manufacturing Cost Annual Volume Traxxus, Tra5510 $600 million, website $200 World-Wide 6 yr. old to adult, boys Home, toy $80 / unit $20 / unit 6 million / yr

7 System - Std Reqs: Production Requirement Units to Specify
Max Volume Shipping Container Size Max Mass Elec I/F Connector(s) Max # of PC Bds Max PCB Circuit Area Max Shock 12,000 cm3 18,000 cm3 2 Kilograms Tyco (e.g. IEC320, Nema, etc) 5 200 cm2 Total 50 G force

8 System - Std Reqs: Mfg & Life Cycle Requirement Units to Specify
Max Parts Count Max Unique Parts Count Parts/Mat $ Allocation Asm/Test $ Allocation Product Life, Reliability Full Warranty Period Service Strategy 200 Total Parts 100 Unique Parts $80 (Parts+Mfg=Product Cost) $20 (Parts+Mfg=Product Cost) 3 yrs 6 months Repair

9 System - Std Reqs: Enviroment Requirement Units to Specify
Min Oper Temp Range Min Oper Humidity Range Min Oper Alt or Press Range Min Storage Temp Range Min Storage Humidity Range Min Storage Alt or Press Range Max Storage Duration 10-60 Co 10-90% non-condensing Meters 0-80Co 10-90% non-condensing 1 year

10 System - Std Reqs: Power Interfaces Requirement Units to Specify
Energy Source List Source Connection List Min Oper Voltage Range Max Power Consumption Max Energy Consumption Battery (Nimh or Li Ion) Temporary 5-9.0 V and V 18.0 Watts Total 6000 mAH Total

11 System – Perf Reqs: Power Requirement Definition
Modes of Operation CAR Battery Chemistry Battery Capacity Controller Battery Pack Display Segments Accuracy On/Off Nimh 6000 mA-Hrs i.e. AA 1.5V 10 bars ⅛ battery life

12 System – Perf Reqs: Display
LCD Display: Display size: Max. Display Distance: Viewing Environment: Display Char Matrix: Display Size: Display Illumination: Mono Color 150mm x 70mm 1 meter Any 20 Total Char/Row, 4 Total Rows 20cm x 10cm LED

13 System – Perf Reqs: Operator I/F Inputs Requirement Definition
40 dB 1% 80 .25V .005s 300m Min SNR Max THD Min Power Gain Max Error Voltage Max Delay Min EM Transmission Distance

14 System – Perf Reqs: Mech Interfaces Requirement Definition
Connectors Signal 1 Max Current Limit Signal 1 Max Trip Time Signal 2 Max Current Limit Signal 2 Max Trip Time Max Potential Male pin, female socket .5 Amps .01 s 5 V

15 System – Perf Reqs: Lights & Speed Requirement Definition
Power Saving Modes Accuracy Updates Speed Range ON/OFF/AUTO None ± 3 mph 200 ms 0-40 mph

16 System – Perf Reqs: Direction & Battery Requirement Definition
Accuracy Response Time Input/Output Updates 8 Directional Units 200 ms 0-5V logic levels

17 System – Perf Reqs: Safety Standards
UL precautions so there is no risk to the user from the electrical circuit UL precautions so there is no risk to the user from the motor overheating. UL 1977-precautions so connectors don’t get blown out due to high voltage or amperage

18 System – Perf Reqs: Safety Requirements
UL The maximum surface voltage is under 9.0V Cispr – Our frequency will not operate in the 1910 – 1930 MHz frequencies bands. UL Only use connectors rated type 0

19 EMC Standards ESD immunity test, essential in order to protect the product from electrostatic discharge from humans ESD immunity test, essential in order to protect humans from the electrostatic discharge from the product Determines if the product is safe from surges in power

20 Designed by: Barry Gentz
Signal Input Designed by: Barry Gentz

21 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

22 Block 1 Signal input consists of 2 potentiometers, a switch, ESD protection, filtering, and logic gates. Display mounted on the controller to relay information to the user which is able to be viewed in a dim/dark environment with backlight.

23 Block 1 - Std Reqs: Env & Safety Requirement Units to Specify
Min Oper Temp Range Min Oper Humidity Range Min Oper Alt or Press Range Min Storage Temp Range Min Storage Humidity Range Min Storage Alt or Press Range Max Storage Duration 10-60 Co 10-90% non-condensing Meters 0-80Co 10-90% non-condensing 1 year

24 Block 1 - Std Reqs: Power Interfaces Requirement Units to Specify
Energy Source List Source Connection List Operating Voltage Range Max Power Consumption Max Energy Consumption Max Potential Power Supply Permanent/Temp V 18.0 Watts 1000 mAH 9 V

25 Block 1 - Std Reqs: Mechanical Requirement Units to Specify
Elec I/F Connector(s) Max # of PC Bds Max PCB Circuit Area Max Shock Tyco 2 153 cm2 Total 50 G force

26 Block 1- Std Reqs: Mfg & Life Cycle Requirement Units to Specify
Max Parts Count Max Unique Parts Count Parts/Mat $ Allocation Asm/Test $ Allocation Product Life, Reliability Full Warranty Period Product Disposition Service Strategy 25 Total Parts 12 Unique Parts $125 $50 3 yrs 6 months Dispose Dispose or Repair

27 Block 1 – Perf Reqs: Operator I/F Inputs Requirement Definition
60 dB 1% 80 .25V Min SNR Max THD Min Power Gain Max Error Voltage

28 Block 1– Perf Reqs: Mech Interfaces / Safety
Connectors Signal 1 Max Current Limit Signal 1 Max Trip Time Signal 2 Max Current Limit Signal 2 Max Trip Time Signal 3 Max Current Limit Signal 3 Max Trip Time Signal 4 Max Current Limit Signal 4 Max Trip Time Male pin .005 Amps .004 s .160 Amps

29 Signal Input Speed Display Analog Direction Processor Analog Lights
Digital Power ( 5V )

30 Signal Input : Signal Type
Digital Analog

31 Display : Power Display : Digital

32

33 Designed by: Brad LaCount
Power Supply Designed by: Brad LaCount

34 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

35 Power Supply Block Consists of 10 AA style batteries and a low-dropout voltage reference supplying 5V to the controller components.

36 Block 2 - Std Reqs: Env & Safety Requirement Units to Specify
Min Oper Temp Range Min Oper Humidity Range Min Oper Alt or Press Range Min Storage Temp Range Min Storage Humidity Range Min Storage Alt or Press Range Max Storage Duration 10-60 Co 10-90% non-condensing Meters 0-80Co 10-90% non-condensing 1 year

37 Block 2 - Std Reqs: Power Interfaces Requirement Units to Specify
Energy Source List Source Connection List Operating Voltage Range Max Power Consumption Max Energy Consumption Battery Temporary V 18.0 Watts 2800 mAH

38 Block 2 - Std Reqs: Mechanical Requirement Units to Specify
Elec I/F Connector(s) Max # of PC Bds Max PCB Circuit Area Max Shock Tyco 1 20 cm2 Total 50 G force

39 Block 2- Std Reqs: Mfg & Life Cycle Requirement Units to Specify
Max Parts Count Max Unique Parts Count Parts/Mat $ Allocation Asm/Test $ Allocation Product Life, Reliability Full Warranty Period Product Disposition Service Strategy 30 Total Parts 5 Unique Parts $10 (Parts+Mfg=Product Cost) $50 (Parts+Mfg=Product Cost) 3 yrs 6 months Dispose Dispose or Repair

40 Block 2 – Perf Reqs: Power Input(s)
Controller Battery Pack 10 AA 1.5V

41 Block 2 – Perf Reqs: Electrical Interfaces
Electrical Signal Req Direction Power Signal Output

42 Block 2 – Perf Reqs: Operator I/F Inputs Requirement Definition
60 dB 1% 80 .25V Min SNR Max THD Min Power Gain Max Error Voltage

43 Requirement Definition
Block 2– Perf Reqs: Mech Interfaces / Safety Requirement Definition Connectors Max Potential Male pin, Battery tray 9V

44 Requirement Definition
Block 2 – Perf Reqs: Modes of Operation Requirement Definition Power Modes Power Saving Modes ON/OFF None

45 Controller Power Supply Block Diagram
Battery Pack Lights Voltage Regulator 5V LDO CPU Speed Direction

46 Power

47 Block Prototyping Plan Template Power Supply
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors Power Supply 250 20 Perfboard Pins/ wires/solder DIP and SMT Conversion Sockets None

48 CPU Control and Display
Designed by: Brad LaCount

49 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

50 Block 3 :CPU and Display Description Four line display
It is mounted on the controller to relay information to the user Able to view in dim/dark environment – backlight The Processor is used to coordinate and executed the function of the Controller Display mounted on the controller to relay information to the user Chip on glass (COG) technology

51 Block 4 Standard Requirements
Min Oper Temp Range: Min Oper Humidity Range: Min Oper Alt or Press Range: Min Oper Range (Distance): Min Storage Temp Range: Min Storage Humidity Range: Min Storage Alt or Press Range: Max Storage Duration: Value 0-60 Co 10-90% non-condensing Meters Line of Sight 0-80Co 10-90% non-condensing 1 year

52 Controller Processor Block Diagram

53 Block 3 Analog Digital Power

54 Block Prototyping Plan Template Controller Processor
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors Controller Processor 250 50 Perfboard Pins/ wires/solder DIP and SMT Conversion Sockets None

55 Designed by: Sean Murphy
RF Trans/Rec Designed by: Sean Murphy

56 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

57 Block 4 - RF Two way real time digital communication between controller and car processors Feeds information to car such as speed and direction Feedback information to controller on battery life, speed, and direction

58 Block 4 Standard Requirements
Min Oper Temp Range: Min Oper Humidity Range: Min Oper Alt or Press Range: Min Oper Range (Distance): Min Storage Temp Range: Min Storage Humidity Range: Min Storage Alt or Press Range: Max Storage Duration: Value 0-60 Co 10-90% non-condensing Meters Line of Sight 0-80Co 10-90% non-condensing 1 year

59 Block 4 Performance Requirements
Value

60 Car Processor Power RF Transceiver Supply Power RF Transceiver Supply
Block 4 Signals RF Car Processor Digital Power Supply 5V DC Transmitted Bit Package Car To Controller: Speed Indicator Direction Indicator Battery Life RF Transceiver Digital Transmitted Bit Package Controller To Car: Speed From User Dir From User Lights On/Off/Ambient Power Supply RF Transceiver 5V DC Digital Ctrlr Processor

61 RF Transceiver : Digital
RF Transceiver : Power RF Transceiver : Digital

62 Block 4 Prototyping Plan Template
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors RF 250 200 (2 – 10x10) Glass fiber Standoffs N/A Multi-pin

63 Designed by: Sean Murphy
Power Source Designed by: Sean Murphy

64 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

65 Block 5: Car Power Source
Provides power to all on car devices and functions Indicates battery life remaining to processor Will require voltage regulation Device Voltage Req Direction Sensor: 5V Speed Sensor: Lights: Direction Control: Speed Control: 0-15V RF:

66 Standard Requirements

67 Performance Requirements

68 Car Power Supply Block Diagram

69 Power Source: Power

70 Block Prototyping Plan Template Power Source
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors Car Power 250 50 Perfboard Pins/ wires/solder DIP and SMT Conversion Sockets None

71 Designed by: Russ Diamond
Car CPU Designed by: Russ Diamond

72 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

73 Block 6: Car Processor Interprets signals from the transceiver and outputs control signals to the rest of the board. It also passes back data sensed on the car to the transceiver.

74 Performance Requirements

75 Car Processor

76 Block Prototyping Plan Template Car Processor
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors Car CPU 25 40 Perfboard Pins/ wires/solder DIP and SMT Conversion Sockets 20 pin mini

77 Block 6: Car Processor Inputs Outputs CPU for Car PIC 16F777
(40-pin dip)

78 Car Processor : Digital
Car Processor: Power Car Processor : Digital

79 Block Prototyping Plan Template Car Processor
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors CPU for Car 250 50 Perfboard Pins/ wires/solder DIP and SMT Conversion Sockets None

80 Designed by: Russ Diamond
Motor Control Designed by: Russ Diamond

81 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

82 Block 6: Motor Control Generates an analog voltage across the voltage terminals for the motor

83 Block 7: Car Processor Min Oper Temp Range 10-60 Co
Min Oper Humidity Range Min Oper Alt or Press Range Min Storage Temp Range Min Storage Humidity Range Min Storage Alt or Press Range Max Storage Duration 10-60 Co 10-90% non-condensing Meters 0-80Co 10-90% non-condensing 1 year

84 Performance Requirements

85 Block 7 – Motor Control Motor Control Circuit 4 Digital inputs
2 Analog outputs To Motor 1 Digital Input Traxxas Servo Position Control is achieved by sending a pulse to the servo every 20ms. The length of the pulse determines the positioning of the servo.

86 Electromechanical Control

87 Block Prototyping Plan Template Motor Control
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors Motor Control 30 15 Perfboard Pins/ wires/solder None Three position connector

88 Designed by: Adam Wozniak
Car Signals Designed by: Adam Wozniak

89 Team #2: Project 1 Block Assignment
Digital RF Trans / Rec Sean [4] RF Trans / Rec Sean [4] Digital Digital Digital Power Supply Brad [2] Ctrlr Processor Brad [3] Car Processor Russ [6] On Car Sensing Adam [8] Digital Analog Analog Electromechanical Control Russ[7] Digital Signal Input & Display Barry [1] Power Source Sean [5] PCB 1, power supply will be connected to all blocks PCB 2, power supply will be connected to all blocks

90 Block 6: Car Sensing Signals if the lights are on or off Signals how fast the car is going Signals in which direction the car is moving

91 Standard Reqs: Car Sensor Requirement Definition
Direction Sensor Accuracy Response Time Speed Sensor Updates Speed Range 4 Directional Units 500 ms + 5 mph 0-25 mph

92 Performance Reqs: Car Sensor Requirement Definition
Direction Sensor Accuracy Response Time Speed Sensor Updates Speed Range 8 Directional Units 200 ms + 3 mph 0-40 mph

93 Block 8: Car Sensing Direction Sensor Car Sensing Transmit to CPU
Digital Car Sensing Car Processor Transmit to CPU Speed Sensor Speed digital Lights digital Light Sensor Power

94 Speed Indicator: Power
Speed Indicator : Digital Speed Indicator : Analog

95

96 Estimation Slide From Lab 1 Manhours-500 Material $500 ~2% for design
~86% for detailed design ~2% for verification ~10% for documentation From Lab 3 Manhours-1702 Material $1031 These values may be off due to overlapping of projects.

97 Block Prototyping Plan Template Overall
Name Block Area (cm2) Total PCB Area (cm2) PCB Substrate Type Comp Attachment Socketed Components Types of Connectors Overall 1550 650 Perfboard, breadboard Pins/ wires/solder None

98 Gantt Chart


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