Ars.hh

Go to the documentation of this file.

#ifndef __ANTARESDAQ__ARS__
#define __ANTARESDAQ__ARS__

#include <ostream>
#include <iomanip>

#include <TROOT.h>
#include <TObject.h>

#include "DataTypes.hh"


/**
 * ARS timestamp LSB [ns]
 */
static const double    ARS_TIMESTAMP_NS  =  25.0;


/**
 * ARS item interface.
 */
class ARS_Item {
public:
  /**
   * Virtual destructor.
   */
  virtual ~ARS_Item() {}

  ClassDef(ARS_Item,2);
};


/**
 * ARS STATUS
 */
class Status_Item :
  public ARS_Item
{
public:
  /** ARS status */
  unsigned char status;

  /** ARS timestamp (24 bits) */
  unsigned int  timestamp;

  /** 
   * Default constructor.
   */
  Status_Item() :
    status(0),
    timestamp(0)
  {}

  /**
   * Print ASCII.
   *
   * \param out     output stream
   * \param object  Status item
   * \return        output stream
   */
  friend std::ostream& operator<<(std::ostream& out, const Status_Item& object)
  {
    using namespace std;
    
    return out << setw(2) << setfill('0') << hex << (int) object.status 
               << setw(6) << setfill('0') << hex << object.timestamp 
               << setfill(' ') << dec;
  }

  /** ROOT class definition */
  ClassDef(Status_Item, 2);
};


/**
 * ARS RTS
 */
class RTS_Item :
  public Status_Item
{
public:
  /** 
   * Default constructor.
   */
  RTS_Item() :
    Status_Item()
  {}

  /** ROOT class definition */
  ClassDef(RTS_Item, 2);
};


/**
 * ARS CRM
 */
class CRM_Item :
  public Status_Item
{
public:
  /** ARS Count Rate Monitor value */
  unsigned char crm;

  /** 
   * Default constructor.
   */
  CRM_Item() :
    Status_Item(),
    crm(0)
  {}

  /**
   * Print ASCII.
   *
   * \param out     output stream
   * \param object  CRM item
   * \return        output stream
   */
  friend std::ostream& operator<<(std::ostream& out, const CRM_Item& object)
  {
    using namespace std;
    
    out << static_cast<const Status_Item&>(object);
    out << setw(2) << hex << object.crm << dec;

    return out;
  }
    
  /** ROOT class definition */
  ClassDef(CRM_Item, 2);
};


/**
 * ARS SPE
 */
class SPE_Item :
  public Status_Item
{
public:
  /** ARS Analogue to Voltage Convertor */
  unsigned char avc;

  /** ARS Time to Voltage Convertor */
  unsigned char tvc;

  /** 
   * Default constructor.
   */
  SPE_Item() :
    Status_Item(),
    avc(0),
    tvc(0)
  {}

  /**
   * Print ASCII.
   *
   * \param out     output stream
   * \param object  SPE item
   * \return        output stream
   */
  friend std::ostream& operator<<(std::ostream& out, const SPE_Item& object)
  { 
    using namespace std;

    out << static_cast<const Status_Item&>(object);
    out << setw(2) << setfill('0') << hex << (int) object.avc 
        << setw(2) << setfill('0') << hex << (int) object.tvc 
        << setfill(' ') << dec;

    return out;
  }
    
  /** ROOT class definition */
  ClassDef(SPE_Item, 2);
};


/**
 * Anode waveform sample
 */
class AWF_Sample { 
public:
  /** TVC */
  unsigned char time;
  /** AVC */
  unsigned char anode;

  /**
   * Default constructor.
   */
  AWF_Sample() :
    time(0),
    anode(0)
  {}

  /**
   * Virtual destructor.
   */
  virtual ~AWF_Sample() {};

  /** ROOT class definition */
  ClassDef(AWF_Sample, 2);
};


/**
 * Dynode waveform sample
 */
class DWF_Sample :
  public AWF_Sample
{
public:
  /** AVC dynode 1 */
  unsigned char dynode1;
  /** AVC dynode 2 */
  unsigned char dynode2;

  /**
   * Default constructor.
   */
  DWF_Sample() :
    AWF_Sample(),
    dynode1(0),
    dynode2(0)
  {}

  /** ROOT class definition */
  ClassDef(DWF_Sample, 2);
};


/**
 * ARS WF header interface
 *
 * Note that the waveform header is padded to 4x4 Bytes
 * due to the minimal bus transfer size of 4 words.
 */
class WF_Header :
  public SPE_Item
{
public:
  /** Waveform address */
  unsigned char waveformAddress;

  /**
   * Default constructor.
   */
  WF_Header() :
    SPE_Item(),
    waveformAddress(0)
  {}

  /** ROOT class definition */
  ClassDef(WF_Header, 2);
};


/**
 * ARS waveform
 */
template<class T>
class WF_Item :
  public WF_Header
{
protected:
  /**
   * number of waveform samples
   */
  static const unsigned int NUMBER_OF_SAMPLES = 128;

  /** data */
  T data_[NUMBER_OF_SAMPLES];

public:

  typedef T*       iterator;          //!< iterator
  typedef const T* const_iterator;    //!< const iterator

  /** begin iterator of waveform data */
  iterator begin() { return data_; }

  /** end iterator of waveform data */
  iterator end()   { return data_ + NUMBER_OF_SAMPLES; }

  /** access to waveform data */
  const T& operator[](const int i) { return data_[i]; }

  /**
   * Default constructor.
   */
  WF_Item() :
    WF_Header()
  {}

  /** ROOT class definition */
  ClassDef(WF_Item, 2);
};

ClassDefT2(WF_Item,T);
ClassImpT(WF_Item,T);


/**
 * ARS Anode waveform
 */ 
class AWF_Item :
  public WF_Item<AWF_Sample>
{
public:
  /**
   * Default constructor.
   */
  AWF_Item() : WF_Item<AWF_Sample>() {}

  /** ROOT class definition */
  ClassDef(AWF_Item, 2);
};


/**
 * ARS Dynode waveform
 */ 
class DWF_Item :
  public WF_Item<DWF_Sample>
{
public:
  /**
   * Default constructor.
   */
  DWF_Item() :
    WF_Item<DWF_Sample>()
  {}

  /** ROOT class definition */
  ClassDef(DWF_Item, 2);
};


/**
 * Determine the TVC number.
 *
 * \param  timestamp   ARS time stamp
 * \param  tvc         ARS TVC value
 * \return             0/1
 */
inline int getTVC(const unsigned int  timestamp, 
                  const unsigned char tvc)
{
  switch (timestamp & 0x3) {

  case 0:
    if (tvc & 0x80)
      return 1;
    else
      return 0;
    break;

  case 1:
    return 0;
    break;

  case 2:
    if (tvc & 0x80)
      return 0;
    else
      return 1;
    break;

  case 3:
    return 1;
    break;
  }

  return 0;
} 


/**
 * equal operator for Status item
 *
 * \param  first       Status item
 * \param  second      Status item
 * \return             true if first equals second; else false
 */
inline bool operator==(const Status_Item& first, const Status_Item& second)
{
  return (first.timestamp == second.timestamp);
}


/**
 * not-equal operator for Status item
 *
 * \param  first       Status item
 * \param  second      Status item
 * \return             true if first not equals second; else false
 */
inline bool operator!=(const Status_Item& first, const Status_Item& second)
{
  return (first.timestamp != second.timestamp);
}


/**
 * comparator for Status item; earliest hit first
 *
 * \param  first       Status item
 * \param  second      Status item
 * \return             true if first earlier than second; else false
 */
inline bool operator<(const Status_Item& first, const Status_Item& second)
{
  return (first.timestamp < second.timestamp);
}


/**
 * equal operator for SPE item
 *
 * \param  first       SPE item
 * \param  second      SPE item
 * \return             true if first equals second; else false
 */
inline bool operator==(const SPE_Item& first, const SPE_Item& second)
{
  return (first.timestamp == second.timestamp &&
          first.tvc       == second.tvc);
}


/**
 * not-equal operator for SPE item
 *
 * \param  first       SPE item
 * \param  second      SPE item
 * \return             true if first not equals second; else false
 */
inline bool operator!=(const SPE_Item& first, const SPE_Item& second)
{
  return (first.timestamp != second.timestamp ||
          first.tvc       != second.tvc);
}


/**
 * comparator for SPE item; earliest hit first
 *
 * \param  first       SPE item
 * \param  second      SPE item
 * \return             true if first earlier than second; else false
 */
inline bool operator<(const SPE_Item& first, const SPE_Item& second)
{
  if (first.timestamp == second.timestamp) {
      
    const int firstTvcInUse  = getTVC(first.timestamp,  first.tvc);
    const int secondTvcInUse = getTVC(second.timestamp, second.tvc);
      
    if (firstTvcInUse == secondTvcInUse)
      return first.tvc < second.tvc;
    else
      return firstTvcInUse < secondTvcInUse; //!
      
  } else {
    return first.timestamp < second.timestamp;
  }
}


/**
 * comparator for SPE item; earliest hit first
 *
 * \param  first       SPE item
 * \param  second      timestamp
 * \return             true if first earlier than second; else false
 */
inline bool operator<(const SPE_Item& first, const unsigned int second)
{
  return first.timestamp < second;
}


/**
 * comparator for SPE item; earliest hit first
 *
 * \param  first       timestamp
 * \param  second      SPE item
 * \return             true if first earlier than second; else false
 */
inline bool operator<(const unsigned int first, const SPE_Item& second)
{
  return first < second.timestamp;
}

#endif