Motors, Sensors, and Samantha SSI Robotics September 7, 2013 Capitol College.

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Presentation transcript:

Motors, Sensors, and Samantha SSI Robotics September 7, 2013 Capitol College

Agenda Allowed motors and servos – LEGO – MATRIX – TETRIX Sensors – LEGO – HiTechnic Samantha – Wiring considerations How to choose – Motor – Sensor

3 Motor ports – Used for LEGO motors 4 Sensor ports – Used for sensors – Used for TETRIX or MATRIX motor/servo controllers 1 USB port – Used to connect Samantha Wi-Fi module The Intelligent NXT Brick

3 ports – Each port can have 1 NXT interactive servo (W979842) – Each port can have 1 XL power function motor (W778882) – Each port can have 2 E power function motors (W979670) – Each port can have 2 M power function motors (W978883) – Each port can have 1 E and 1 M motor LEGO Motors

E Motor – 9V DC – Torque 4.5 Ncm – 800 RPM (no load) M Motor – 9V DC – Torque 11 Ncm – 400 RPM (no load) – Specifications from web site LEGO Motors

XL Motor – 9V DC – Torque 40 Ncm – 220 RPM (no load) Interactive Servo Motor – 9V DC – Torque 50 Ncm – 170 RPM (no load) – Specifications from web site LEGO Motors

Can use either MATRIX or TETRIX motors – NOT BOTH Any number of controllers allowed (limited by NXT hardware and software) Maximum of 8 TETRIX or MATRIX DC motors Maximum of 12 Servos MATRIX and TETRIX Motors

Each controller uses 1 sensor port 4 servos per controller – AND 4 motors per controller MATRIX Controllers

Speed 0.14s/60 degrees Stall torque 6.5 kg-cm Stall current 1500mA Operating Travel 120 degrees Specifications from MATRIXrobotics.com web site. MATRIX Servos

MATRIX Motors Standard and High Torque – 9V DC with encoder – rpm no load – Stall Torque 5.75 kg-cm (S) 16.8 kg-cm (HT) – Stall Current 4200 mA (S) 5800 mA (HT) – Encoder provides ticks per revolution Specifications from MATRIXrobotics.com web site.

Each controller uses 1 sensor port – Can daisy chain 4 controllers on one sensor port 6 independent servo ports per controller – Can use “Y” cables to have 2 servos on one port 2 motor ports per controller – Can use 2 motors on 1 port 1 encoder port per motor port TETRIX Controllers

TETRIX Motors One size – 12V DC with optional encoder – 152 rpm no load – 300 oz-in of torque – Optional encoder provides 1440 ticks per revolution

TETRIX Servos Many options – 4 models available from parts.ftcrobots.com 2 standard – 1 “normal” 180 degrees, 89 oz-in torque (6.4 kg-cm) – 1 continuous rotation 52 RPM, 46.8 oz-in (3.37 kg-cm) 2 quarter-scale – 1 “normal” 180 degrees, 183 oz-in torque (13.2 kg-cm) – degree rotation, 183 oz-in torque (12.2 kg-cm) – Any standard size or smaller servo with a rated stall current of 800 mA or less – No more than 2 quarter-scale servos per controller with at most one other standard servo – If only 1 quarter-scale servo on the controller then up to 4 standard servos may be used

Sensors TETRIX/MATRIX/LEGO – Motor Encoder LEGO – Color Sensor – Touch – Ultrasonic – Sound – Light

Sensors HiTechnic – Accelerometer – Angle – Color V2 – Compass – EOPD – Force – Gyro – IR Seeker V2 – Magnetic – PIR – Touch Mux – Sensor Mux – SuperPro Prototype Board

Sensors Motor encoders – Can be used to count motor rotations LEGO Color sensor – Used to check color of an object LEGO Touch sensor – Used to detect something touching the sensor LEGO Ultrasonic sensor – Used to measure distance to an object LEGO Sound sensor – Used to measure ambient sound level LEGO Light sensor – Used to measure light level – Useful for line detection/following

Sensors HiTechnic Accelerometer sensor – Can be used to measure acceleration and tilt in 3-axes HiTechnic Angle sensor – Used to measure absolute angle, accumulated angle or rotational speed HiTechnic Color sensor V2 – Used to measure the color of an object in front of the sensor HiTechnic Compass sensor – Used to measure magnetic heading of the sensor HiTechnic EOPD sensor – Electro Optical Proximity Detector – Used to accurately measure distance (up to 8”)

Sensors HiTechnic Force sensor – Used to measure how hard something is pushing on the sensor HiTechnic Gyro sensor – Can be used to measure angular rotation HiTechnic IR Seeker V2 – Used to detect either a constant or modulated IR signal HiTechnic Magnetic sensor – Used to detect a magnetic field in front of the sensor HiTechnic PIR sensor – Passive Infrared – Used to detect people or animals moving in front of the sensor

Sensors HiTechnic Touch sensor multiplexer – Allows 4 standard touch sensors to be plugged into one sensor port HiTechnic Sensor multiplexor – Allows 4 NXT or HiTechnic sensors to be plugged into one sensor port HiTechnic SuperPro Prototyping board – Allows any sensor to be integrated to the NXT provided it is powered by the board – Processor on the board may not be re- programmed

Samantha Provides communication to the field Mount high on robot with lights visible Make sure cables can NOT come loose during a match (either end) Use HIGH quality USB cable routed away from other wires Add Ferrite chokes to USB cable if necessary to reduce ESD problems

How do you choose motors and sensors? Roll a die? Flip a coin?

How do you choose motors and sensors? Motors – How much room do you have? Physical space Available control ports – LEGO motor – TETRIX/MATRIX motor – Servo Weight budget / stability issues – Do you need full rotation ability or is limited ok? – How much torque do you need?

How do you choose motors and sensors? Sensors – What are you trying to determine? – How many sensor ports do you have left?