Temperature sense demo reloading problems

I have been trying to reload the temperature sensor demo to play with it and see if I can modify the code.  Every place I have copied the code back from I get a TON of errors and it will not load.  I have a MSP430G2553 on the launchpad. 

Here is the code I found and it is supposed to be the correct one, but still blows up in CCS

/******************************************************************************
 *                  MSP-EXP430G2-LaunchPad User Experience Application
 *
 * 1. Device starts up in LPM3 + blinking LED to indicate device is alive
 *    + Upon first button press, device transitions to application mode
 * 2. Application Mode
 *    + Continuously sample ADC Temp Sensor channel, compare result against
 *      initial value
 *    + Set PWM based on measured ADC offset: Red LED for positive offset, Green
 *      LED for negative offset
 *    + Transmit temperature value via TimerA UART to PC
 *    + Button Press --> Calibrate using current temperature
 *                       Send character '°' via UART, notifying PC
 * SFB 1/2012
 ******************************************************************************/

#include  "msp430g2553.h"

#ifndef TIMER0_A1_VECTOR
#define TIMER0_A1_VECTOR    TIMERA1_VECTOR
#define TIMER0_A0_VECTOR    TIMERA0_VECTOR
#endif

#define     LED0                  BIT0
#define     LED1                  BIT6
#define     LED_DIR               P1DIR
#define     LED_OUT               P1OUT



#define     BUTTON                BIT3
#define     BUTTON_OUT            P1OUT
#define     BUTTON_DIR            P1DIR
#define     BUTTON_IN             P1IN
#define     BUTTON_IE             P1IE
#define     BUTTON_IES            P1IES
#define     BUTTON_IFG            P1IFG
#define     BUTTON_REN            P1REN

#define     TXD                   BIT1                      // TXD on P1.1
#define     RXD                   BIT2                      // RXD on P1.2

#define     APP_STANDBY_MODE      0
#define     APP_APPLICATION_MODE  1

#define     TIMER_PWM_MODE        0
#define     TIMER_UART_MODE       1
#define     TIMER_PWM_PERIOD      2000
#define     TIMER_PWM_OFFSET      20

#define     TEMP_SAME             0
#define     TEMP_HOT              1
#define     TEMP_COLD             2

#define     TEMP_THRESHOLD        5

//   Conditions for 9600/4=2400 Baud SW UART, SMCLK = 1MHz
#define     Bitime_5              0x05*4                      // ~ 0.5 bit length + small adjustment
#define     Bitime                13*4//0x0D

#define     UART_UPDATE_INTERVAL  1000


unsigned char BitCnt;


unsigned char applicationMode = APP_STANDBY_MODE;
unsigned char timerMode = TIMER_PWM_MODE;

unsigned char tempMode;
unsigned char calibrateUpdate = 0;
unsigned char tempPolarity = TEMP_SAME;
unsigned int TXByte;

/* Using an 8-value moving average filter on sampled ADC values */
long tempMeasured[8];
unsigned char tempMeasuredPosition=0;
long tempAverage;

long tempCalibrated, tempDifference;



void InitializeLeds(void);
void InitializeButton(void);
void PreApplicationMode(void);                     // Blinks LED, waits for button press
void ConfigureAdcTempSensor(void);
void ConfigureTimerPwm(void);
void ConfigureTimerUart(void);
void Transmit(void);
void InitializeClocks(void);

void main(void)
{
  unsigned int uartUpdateTimer = UART_UPDATE_INTERVAL;
  unsigned char i;
  WDTCTL = WDTPW + WDTHOLD;                 // Stop WDT

  InitializeClocks();
  InitializeButton();
  InitializeLeds();
  PreApplicationMode();                     // Blinks LEDs, waits for button press

  /* Application Mode begins */
  applicationMode = APP_APPLICATION_MODE;
  ConfigureAdcTempSensor();
  ConfigureTimerPwm();

  __enable_interrupt();                     // Enable interrupts.


  /* Main Application Loop */
  while(1)
  {
    ADC10CTL0 |= ENC + ADC10SC;             // Sampling and conversion start
    __bis_SR_register(CPUOFF + GIE);        // LPM0 with interrupts enabled


    /* Moving average filter out of 8 values to somewhat stabilize sampled ADC */
    tempMeasured[tempMeasuredPosition++] = ADC10MEM;
    if (tempMeasuredPosition == 8)
      tempMeasuredPosition = 0;
    tempAverage = 0;
    for (i = 0; i < 8; i++)
      tempAverage += tempMeasured[i];
    tempAverage >>= 3;                      // Divide by 8 to get average

    if ((--uartUpdateTimer == 0) || calibrateUpdate )
    {
      ConfigureTimerUart();
      if (calibrateUpdate)
      {
        TXByte = 248;                       // A character with high value, outside of temp range
        Transmit();
        calibrateUpdate = 0;
      }
      TXByte = (unsigned char)( ((tempAverage - 630) * 761) / 1024 );
      Transmit();
      uartUpdateTimer = UART_UPDATE_INTERVAL;
      ConfigureTimerPwm();
    }


    tempDifference = tempAverage - tempCalibrated;
    if (tempDifference < -TEMP_THRESHOLD)
    {
      tempDifference = -tempDifference;
      tempPolarity = TEMP_COLD;
      LED_OUT &= ~ LED1;
    }
    else
    if (tempDifference > TEMP_THRESHOLD)
    {
      tempPolarity = TEMP_HOT;
      LED_OUT &= ~ LED0;
    }
    else
    {
      tempPolarity = TEMP_SAME;
      TACCTL0 &= ~CCIE;
      TACCTL1 &= ~CCIE;
      LED_OUT &= ~(LED0 + LED1);
    }

    if (tempPolarity != TEMP_SAME)
    {
      tempDifference <<= 3;
      tempDifference += TIMER_PWM_OFFSET;
      TACCR1 = ( (tempDifference) < (TIMER_PWM_PERIOD-1) ? (tempDifference) : (TIMER_PWM_PERIOD-1) );
      TACCTL0 |= CCIE;
      TACCTL1 |= CCIE;
    }
  }
}

void PreApplicationMode(void)
{
  LED_DIR |= LED0 + LED1;
  LED_OUT |= LED0;                          // To enable the LED toggling effect
  LED_OUT &= ~LED1;

  BCSCTL1 |= DIVA_1;                        // ACLK/2
  BCSCTL3 |= LFXT1S_2;                      // ACLK = VLO

  TACCR0 = 1200;                             //
  TACTL = TASSEL_1 | MC_1;                  // TACLK = SMCLK, Up mode.
  TACCTL1 = CCIE + OUTMOD_3;                // TACCTL1 Capture Compare
  TACCR1 = 600;
  __bis_SR_register(LPM3_bits + GIE);          // LPM0 with interrupts enabled
}

void ConfigureAdcTempSensor(void)
{
  unsigned char i;
  /* Configure ADC Temp Sensor Channel */
  ADC10CTL1 = INCH_10 + ADC10DIV_3;         // Temp Sensor ADC10CLK/4
  ADC10CTL0 = SREF_1 + ADC10SHT_3 + REFON + ADC10ON + ADC10IE;
  __delay_cycles(1000);                     // Wait for ADC Ref to settle
  ADC10CTL0 |= ENC + ADC10SC;               // Sampling and conversion start
  __bis_SR_register(CPUOFF + GIE);          // LPM0 with interrupts enabled
  tempCalibrated = ADC10MEM;
  for (i=0; i < 8; i++)
    tempMeasured[i] = tempCalibrated;
  tempAverage = tempCalibrated;
}


void ConfigureTimerPwm(void)
{
  timerMode = TIMER_PWM_MODE;

  TACCR0 = TIMER_PWM_PERIOD;                              //
  TACTL = TASSEL_2 | MC_1;                  // TACLK = SMCLK, Up mode.
  TACCTL0 = CCIE;
  TACCTL1 = CCIE + OUTMOD_3;                // TACCTL1 Capture Compare
  TACCR1 = 1;
}

void ConfigureTimerUart(void)
{
  timerMode = TIMER_UART_MODE;               // Configure TimerA0_0 UART TX

  CCTL0 = OUT;                               // TXD Idle as Mark
  TACTL = TASSEL_2 + MC_2 + ID_3;            // SMCLK/8, continuous mode
  P1SEL |= TXD + RXD;                        //
  P1DIR |= TXD;                              //
}

// Function Transmits Character from TXByte
void Transmit()
{
  BitCnt = 0xA;                             // Load Bit counter, 8data + ST/SP
  while (CCR0 != TAR)                       // Prevent async capture
    CCR0 = TAR;                             // Current state of TA counter
  CCR0 += Bitime;                     // Some time till first bit
  TXByte |= 0x100;                        // Add mark stop bit to TXByte
  TXByte = TXByte << 1;                 // Add space start bit
  CCTL0 =  CCIS0 + OUTMOD0 + CCIE;          // TXD = mark = idle
  while ( CCTL0 & CCIE );                   // Wait for TX completion
}



// Timer A0 interrupt service routine
#pragma vector=TIMER0_A0_VECTOR
__interrupt void Timer_A (void)
{
  if (timerMode == TIMER_UART_MODE)
  {
    CCR0 += Bitime;                           // Add Offset to CCR0
    if (CCTL0 & CCIS0)                        // TX on CCI0B?
    {
      if ( BitCnt == 0)
        CCTL0 &= ~ CCIE;                        // All bits TXed, disable interrupt
      else
      {
        CCTL0 |=  OUTMOD2;                    // TX Space
        if (TXByte & 0x01)
        CCTL0 &= ~ OUTMOD2;                   // TX Mark
        TXByte = TXByte >> 1;
        BitCnt --;
      }
    }
  }
  else
  {
    if (tempPolarity == TEMP_HOT)
      LED_OUT |= LED1;
    if (tempPolarity == TEMP_COLD)
      LED_OUT |= LED0;
    TACCTL0 &= ~CCIFG;
  }
}

#pragma vector=TIMER0_A1_VECTOR
__interrupt void ta1_isr(void)
{
  TACCTL1 &= ~CCIFG;
  if (applicationMode == APP_APPLICATION_MODE)
    LED_OUT &= ~(LED0 + LED1);
  else
    LED_OUT ^= (LED0 + LED1);

}

void InitializeClocks(void)
{

  BCSCTL1 = CALBC1_1MHZ;                    // Set range
  DCOCTL = CALDCO_1MHZ;
  BCSCTL2 &= ~(DIVS_3);                         // SMCLK = DCO / 8 = 1MHz
}

void InitializeButton(void)                 // Configure Push Button
{
  BUTTON_DIR &= ~BUTTON;
  BUTTON_OUT |= BUTTON;
  BUTTON_REN |= BUTTON;
  BUTTON_IES |= BUTTON;
  BUTTON_IFG &= ~BUTTON;
  BUTTON_IE |= BUTTON;
}


void InitializeLeds(void)
{
  LED_DIR |= LED0 + LED1;
  LED_OUT &= ~(LED0 + LED1);
}

/* *************************************************************
 * Port Interrupt for Button Press
 * 1. During standby mode: to exit and enter application mode
 * 2. During application mode: to recalibrate temp sensor
 * *********************************************************** */
#pragma vector=PORT1_VECTOR
__interrupt void PORT1_ISR(void)
{
  BUTTON_IFG = 0;
  BUTTON_IE &= ~BUTTON;            /* Debounce */
  WDTCTL = WDT_ADLY_250;
  IFG1 &= ~WDTIFG;                 /* clear interrupt flag */
  IE1 |= WDTIE;

  if (applicationMode == APP_APPLICATION_MODE)
  {
    tempCalibrated = tempAverage;
    calibrateUpdate  = 1;
  }
  else
  {
    applicationMode = APP_APPLICATION_MODE; // Switch from STANDBY to APPLICATION MODE
    __bic_SR_register_on_exit(LPM3_bits);
  }
}

#pragma vector=WDT_VECTOR
__interrupt void WDT_ISR(void)
{
    IE1 &= ~WDTIE;                   /* disable interrupt */
    IFG1 &= ~WDTIFG;                 /* clear interrupt flag */
    WDTCTL = WDTPW + WDTHOLD;        /* put WDT back in hold state */
    BUTTON_IE |= BUTTON;             /* Debouncing complete */
}

// ADC10 interrupt service routine
#pragma vector=ADC10_VECTOR
__interrupt void ADC10_ISR (void)
{
  __bic_SR_register_on_exit(CPUOFF);        // Return to active mode
}


Aplication GUI (Processing):

/**
 * LaunchPad GUI
 * 
 * Select COM port that LaunchPad is connected to
 * receive serial communication from LaunchPad for 
 * instantaneous temperature readings.
 *
**/
PFont fontA;
char instruct;
color backColor;
int dataRead;
boolean portChosen = false;
int COMPort;
int [] keyIn = new int[3];
int i, keyIndex=0;



// The serial port:
Serial myPort; 

void setup()
{
  //setup window

  size(1000, 500);
  smooth();
  //load font
  fontA = loadFont("CourierNew36.vlw");
  
  // Set the font, its size (in units of pixels), and alignment
  textAlign(CENTER);
  
  //Set background color
  color baseColor = color(70);
  backColor = baseColor;
  //import serial library
  import processing.serial.*;

  // List all the available serial ports, then give prompt
  println(Serial.list());
  println("Please type in the serial COM port that your LaunchPad is connected to.");
  
  background(backColor);
  stroke(255);
  textFont(fontA, 13);
  text("Please, select the COM port that your LaunchPad is connected to.", 265, 20);
  textAlign(LEFT);
  for(i=0; i<Serial.list().length; i++){
    text("[" + i + "] " + Serial.list()[i], 215, 38+13*i);
  }
  //wait for keypress --> Refer to void keyPressed()
}

void draw()
{
  if(portChosen == true){
    dataRead= myPort.read();
    if(dataRead != -1){
      
      //clear previous temperature reading from screen
      background(backColor);
      stroke(255);
      //Update console
      print("Temp: ");
      print(dataRead); 
      println("°");
      
      //Update on screen GUI
      text("Temperatura atual: ", 420, 60);
      text(dataRead, 835, 60);      
      text("°", 900, 60);      
      
    }
  }
}

//wait for key press. Once key is entered, initialize serial com port
void keyPressed() { 
  if(portChosen == false){
    
    if (key != 10) //Enter
      keyIn[keyIndex++] = key-48;
    else
    {
      COMPort = 0;
      for (i = 0; i < keyIndex; i++)
        COMPort = COMPort * 10 + keyIn[i];      
      println(COMPort);
      myPort = new Serial(this, Serial.list()[COMPort], 2400);
      portChosen = true;
      textFont(fontA, 60); // change font size & alignment for temp readings
      textAlign(CENTER);
    }
  }
}