CDR October 9, 2008 Mike Oertli Jonathan Karnuth Jason Rancier.

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Presentation transcript:

CDR October 9, 2008 Mike Oertli Jonathan Karnuth Jason Rancier

Division of Labor Mike O. Program MCU Matlab interface Jonathan K. Construct rails Assist in control system design and coding Jason R. Construct capacitor array Design voltage sensors

Block Diagram MSP430F169 Power Supply Keypad LCD Railgun Capacitor Array Kill Switch LEDs Inductor Voltage Sensor Pneumatic Starter System Encoder

Budget ItemQty. NeededCost PerTotal for item Brass Rails (36") Garolite G-10 (39") Teflon (12") Aluminum (12") Capacitors50Donated0.00 PCB Microcontroller20.00 Air compressor Air tank Solenoid Valve Pressure Regulator Transformer Plastic housing Sensors/Miscellaneous Grand Total1,038.70

Safety Features Voltage sensors on rails, cap bank, & source Kill power if out of expected range Plexiglas casing o Keep user isolated from high voltages and short circuited rails Pressure Regulator o Added ability to safely release tank pressure

Power System Diagram

Capacitor Battery 50x 450V 3.7mF Capacitor Donated by CDE Array of 3 banks of 16 in parallel Overall: 1350V ~ 20mF

Capacitor Battery

Basic Charger

Power Parts 2x 3W 1x W 50x 3 W 3x 50 W 1x 120V 15 Amp AC switch 1x Fuse Holder 120VAC 1x 1600v Power Diode 2x High Voltage Switch(1000V) 1x Microwave Transformer 1x Variac Variable Transformer Copper Plate Plexiglass Box

Cylindrical Rail Design Design Difficulties Material Tolerances Material Loss Toxic materials Difficult to machine at desired barrel length Efficient Design method Maintain physical contact despite material disintegration

Machined & Fabricated Parts

Compressed Air Injector Adapter

Injector Adapter Drawing

Brass Rails Composite: ~70% Copper, ~.07% Lead, ~.05% Iron, Remainder Zinc Electrical Conductivity: 28% IACS Electrical Resistance: 6.2µΩ/cm Friction: Very low with Most metals Melting Point: 910 o C Inner/Outer Diameter: 0.87”/1”

Projectile Metal: Aluminum Composite: 2011 Temper: T3 Part #: 88615K411 Melting point: 540 o C Electrical Conductivity: 45% IACS Electrical Resistivity: 3.8µΩ/cm Diameter: 7/8” Length: ~1”

Pneumatic Kick-start Avoids spot welding projectile Added kinetic energy Eliminates static friction coefficients Compressed Air system Activated by Microcontroller post safety checks Additional safety with inclusion of Pressure Regulator

Injection System

Complete System Compressed Air Tank Compressor Solenoid Valve Ball Valve Pressure Regulator Manufactured Parts Railgun Adapter Tank Adapter Compressor Adapter

Electromagnetic Solenoid Valve

Pressure Regulator Features High Pressure capabilities Very Low Flow 1/150 Flow of the Solenoid (.06 Cv) Adjustable Pressure Range Low leakage Value 3600 Psi Capabilities

Chassis Specs Inner SupportOuter Sheath CompositeTeflon PTFEGrade G-10/FR4 Crosswise Tensile Strength 3,900 PSI35,000 PSI Melting Point 335 o C ~384 o C Max Temp Dielectric Strength19.7MV/m15.7MV/m Inner/Outer Diameter.875”/1”1”/1.375” Cost$9.21 per 12”$92.16 for 39” Part #8547K298668K49

Parts List- Control System Voltage Sensor MM74C key encoder Keypad, 3-line LCD Master kill switch “Hot” switch

Parts List- MCU MSP430F169 2 ADC 1 RS232 Voltage regulator LEDs

Interfaces MSP430F169Matlab RS232 Key EncoderKeypadMSP430F169 Wire-wrap/Solder MSP430F169 P6 I/O (ADC) Voltage Sensor 3-Line LCDMSP430F169 Wire-wrap/Solder

Keypad Pin Layout

Key Encoder MM74C Key Debounce Continuous row scan

Keypad & Encoder Schematic

Keypad Demo

Software- MCU Language: C++ Inputs: Keypad (via encoder chip on P1), voltage sensors (1 on ADC on P6, 2 nd via off board ADC), power (6V) Outputs: 3-line LCD (P2), Matlab (RS232), capacitor charging control (switch based on sensors), safety/kill switch

MCU Logic

Software- Matlab Plot time domain analysis of sensor readings Keep test-run information Inputs: Data from MSP Outputs: GUI showing data Interface: RS232

Questions?