uni/mmme/3085_computer_engineering_and_mechatronics/past_papers/20-21/Results.txt

@@ -1,15 +0,0 @@
-Fred Bloggs		73
-Michael Smith	43
-Claire White	64
-Simon Black		23
-Joshua Mason	-20
-Jenny Jones		57
-George Clark	40
-Ann Bell		101
-Fay Allen		52
-John Morris		60
-Steven Hayes	47
-Hannah Jackson	94
-Alex Benson		50
-Susan Baker		70
-Wendy Brooks	57

uni/mmme/3085_computer_engineering_and_mechatronics/past_papers/21-22/TemperatureData.txt

@@ -1,27 +0,0 @@
-12
-0
-12.343
-1
-13.574
-2
-14.359
-3
-14.367
-4
-15.694
-5
-17.489
-6
-19.486
-7
-20.427
-8
-21.759
-9
-20.402
-10
-19.444
-11
-18.736
-12
-17.445

uni/mmme/3085_computer_engineering_and_mechatronics/past_papers/22-23/Letters.txt

@@ -1 +0,0 @@
-The quick brown fox jumped over the lazy dog!

uni/mmme/3085_computer_engineering_and_mechatronics/res/Generate_PWM_Skeleton_Mega.ino

@@ -1,19 +0,0 @@
-#include <avr/io.h>
-
-
-void setup() 
-{ 
-  DDRB |= (1<<7);  // Set pin 13 as output
-  TCCR1A = (1<<WGM11) | (1<<COM1C1); 
-  TCCR1B = (1<<WGM12) | (1<<WGM13) | (1<<CS10);
-  TCCR1C = 0;    // No force output compare
-  ICR1 = 799;   // Set PWM frequency noting prescale if any
-  OCR1C = 79;  // Set PWM duty cycle as a fraction of ICR1
-}
-
-void loop()
-{
-}
-
-
-

uni/mmme/3085_computer_engineering_and_mechatronics/res/Generate_and_Measure_Mega.ino

@@ -1,53 +0,0 @@
-
-// Program to generate and count pulses using hardware only.
-// Also uses interrupt to handle register overflow.
-// For Arduino Mega only, as T/C 1 Compare Output Channel C is linked to pin 13. 
-// Frequency generation loosely based on code within "Newbie's Guide to AVR Timers".
-// The code is revised by Abdelkhalick Mohammad for MMME3085 Module.
-
-#include <avr/io.h>
-
-unsigned long bigLaps; // To record how many times T/C5 overflows
-
-void setup() 
-{ 
-  Serial.begin(9600);
-
-  // ===Timer/Counter 5 settings to count input pulses ====
-
-  //set pin T5 as input (external); this is pin 47 (Arduino Mega pin mapping) 
-  pinMode(47, INPUT);// set pin to input
-  
-  TCCR5A=0;// No waveform generation needed (T/C is counting only)
-  TCCR5B=(1<<CS50)|(1<<CS51)|(1<<CS52);// Normal mode, external clock on rising edge 
-  TCCR5C=0;//No force output compare (we will not study about this in the module)
-  TCNT5=0;//Initialise counter register to zero
-  TIMSK5=(1<<TOIE5);//When the T/C reach its maximum, an interrupt will be activated
-  bigLaps=0;//When an overflow happens, we will increase this bigLaps by 1
-
-  sei();// Enable all active interrupts
-  
-  // === Timer/Counter 1 settings to generate pulses with different frequencies ===
-
-  DDRB|=(1 << 7);//T/C1 channel C is connected to pin 13, set it as output
-  TCCR1B=(1 << WGM12 );//Configure T/C1 for CTC mode
-  TCCR1A=(1 << COM1C0 );//Enable T/C1 Compare Output channel C in toggle mode
- // OCR1A= 7;//Set CTC compare value to 2 MHz at 16MHz AVR clock with no prescaling
- // TCCR1B|= (1 << CS10 ) ;//Start T/C1 at Fcpu with no prescaling (i.e., 16MHz)
-  OCR1A=1249;//Set CTC compare value to 200 Hz at 16MHz AVR clock with 1/64 prescaling
-  TCCR1B|= (1 << CS10 )|(1 << CS11 );// Start T/C1 at Fcpu (i.e., 16MHz)
-}
-
-// === This is a routine which will be called if an overflow happens in T/C5 ===
-ISR(TIMER5_OVF_vect )
-{
-  bigLaps++; //when this runs, you had 65365 pulses counted
-}
-
- unsigned long Current_Count=0;//A variable to store the total number of pulses
-
-void loop() {
- Current_Count = TCNT5 + bigLaps*65536;
-  Serial.println(Current_Count); // Print the current number of pulses
-  delay(1000); // Intervals between each two consecutive prints
-}