/*! This switch enables support for power factor measurement. This feature
    includes a lead/lag assessment. A frequency independant method, based
    on the ratio of scalar dot products, is used. */
#undef POWER_FACTOR_SUPPORT

/*! This switch selects support for measuring the total active energy consumption. */
#define TOTAL_ENERGY_SUPPORT

/*! This switch selects support for measuring the active energy consumption on a phase
    by phase basis. This is only significant for poly-phase meters. */
#define PER_PHASE_ENERGY_SUPPORT

#define set_phase_1_energy_pulse_indicator()        (P3OUT &= ~BIT0)
#define set_phase_2_energy_pulse_indicator()        (P3OUT &= ~BIT1)
#define set_phase_3_energy_pulse_indicator()        (P3OUT &= ~BIT2)
#define clr_phase_1_energy_pulse_indicator()        (P3OUT |= BIT0)
#define clr_phase_2_energy_pulse_indicator()        (P3OUT |= BIT1)
#define clr_phase_3_energy_pulse_indicator()        (P3OUT |= BIT2)

/*! This switch selects support for measuring the total reactive energy. */
#define TOTAL_REACTIVE_ENERGY_SUPPORT

/*! This switch selects support for measuring the reactive energy on a phase by phase
    basis. This is only significant for poly-phase meters. */
#undef PER_PHASE_REACTIVE_ENERGY_SUPPORT

/*! This enables the generation of total energy pulses to an accuracy of 1/32768s, instead
    of 10/32768s, when building meters using the ADC12 ADC converter. This features uses channel
    2 of timer A, and the pulse LED/opto-coupler/etc. must be attached to the TA2 pin of the MCU.
    Because extra hardware resources are used, and most meters do not require this level of pulse
    position accuracy, this feature is made an option. */
#undef FINE_ENERGY_PULSE_TIMING_SUPPORT

/*! This switch enables use of the MSP430's internal temperature diode to
    measure the meter's temperature. */
#define TEMPERATURE_SUPPORT

/*! This switch selects support for the monitoring of a hall-effect magnetic sensor. This can be
    used to detect very high magnetic fields which might be used for tampering (i.e. fields strong
    enough to paralyse CTs, and other magnetic components in the meter's design). */
#undef MAGNETIC_INTERFERENCE_SUPPORT

/*! This sets the number of consecutive seconds magnetic interference must be present
    or not present before the magnetic tampering state will switch. */
//#define MAGNETIC_INTERFERENCE_PERSISTENCE_CHECK     5

/*! The hall effect sensors used to detect magnetic tampering output pulses, whose on/off ratio
    reflects the scale of the magnetic field. This sets the ratio at which magnetic tampering is
    declared. */
//#define MAGNETIC_INTERFERENCE_SAMPLE_RATIO          10

/*! When magnetic tampering is detected, the output of CTs is completely unreliable. The meter can only
    assume there is a very high load at unity power factor, and charge accordingly. This sets the current
    to be used in this calculation. It is specified in milliamps. */
#define MAGNETIC_INTERFERENCE_CURRENT               60000

/*! This switch selects support for a short range RF link. */
#undef RF_LINK_SUPPORT

/*! This selects real time clock support. This is implemented in software on
    the MSP430. */
#define RTC_SUPPORT

/*! Related definitions to get special action routines to be called at various
    intervals. User supplied callback functions must be provided. Note these
    callback routines are called from within the per second timer interrupt
    service routine. Don't do anything too complex within them. If a long
    activity is required, set a flag within a simple routine, and do the main
    work in the main non-interrupt loop. */
#undef PER_SECOND_ACTIVITY_SUPPORT
#undef PER_MINUTE_ACTIVITY_SUPPORT
#undef PER_HOUR_ACTIVITY_SUPPORT
#undef PER_DAY_ACTIVITY_SUPPORT
#undef PER_MONTH_ACTIVITY_SUPPORT
#undef PER_YEAR_ACTIVITY_SUPPORT

/*! Corrected RTC support enables temperature and basic error compensation for
    the MSP430's 32kHz crystal oscillator, so it makes for a higher quality RTC
    source, even using low accuracy (eg 20ppm) crystals. */
#define CORRECTED_RTC_SUPPORT

/*! This select support for a custom real time clock. The customer's routine
    will be called every second. */
#undef CUSTOM_RTC_SUPPORT
#if defined(__MSP430__)
#define custom_rtc()                                /**/
#define custom_rtc_set()                            /**/
#define custom_rtc_retrieve(x)                      /**/
#endif

/*! This switch enables measurement of the third and fifth harmonic contents
    of the current waveform. */
#undef HARMONICS_SUPPORT

/*! This switch select the use of current dependant phase correction, to allow
    the use of non-linear CTs. */
#define PHASE_CORRECTION_SUPPORT

/*! This switch enables dynmaic phase correction for non-linear CTs, or other sensors
    for which the phase changes with the current. */
#undef DYNAMIC_PHASE_CORRECTION_SUPPORT

/* This select support for a custom real time clock. The customer's routine
   will be called every second. */
#undef CUSTOM_RTC_SUPPORT

/* This switch enables power down to battery backup status on loss of line
   power. */
#undef POWER_DOWN_SUPPORT

/* These switches select a method of detecting when power is restored, if
   power down mode is supported. */
/* This method assumes the voltage waveform is being turned into simple
   digital pulses into an I/O pin. If this feature is used, POWER_UP_VOLTAGE_PULSE
   must define the way a voltage pulse is sensed. */
#undef POWER_UP_BY_VOLTAGE_PULSES
//#define power_up_voltage_pulse()                  (P1IN & BIT0)

/* This method assumes the pre-regulator power supply voltage is being
   monitored by Comparator A. This method is suitable for meters which
   support a live/neutral only mode, for tamper resistance. */
#define POWER_UP_BY_SUPPLY_SENSING

/* This switch enables custom routines to be called as the meter enters and
   exits the power fail state. These might be used to save and restore things,
   using non-volatile memory. */
#undef CUSTOM_POWER_DOWN_SUPPORT

/* Many data logging requirements can be met by using only the MSP430's
   info memory. If an external serial EEPROM is needed for more
   complex requirements, this switch will enable an interface to
   I2C type serial EEPROMs. Basic routines to driver these EEPROMs are
   included in the toolkit. Routines to actually store and retrieve
   information are left to the meter designer. */
#undef EXTERNAL_EEPROM_SUPPORT

/* This switch enables support of an IR receiver and/or transmitter for
   programming and/or reading the meter. */
#define IEC1107_SUPPORT

/*! This definition specifies the port bit change required to enable the IR
    receiver, when one is used. */
#define enable_ir_receiver()                        /**/

/*! This definition specifies the port bit change required to disable the IR
    receiver, for power saving, when one is used. */
#define disable_ir_receiver()                           /**/

/*! This defines the speed of UART 0 */
#define USART0_BAUD_RATE                              9600

/*! This defines the speed of UART 1 */
//#define USART1_BAUD_RATE                                9600

/*! This switch enables a rolling display of all the meter's measured
    parameters, for demonstration purposes. The parameters are displayed
    on a local attached LCD, which may be driven by an MSP430's internal
    LCD controller, or be part of a standard external module.
    Real meters will generally need to replace this with their own custom
    display routines. */
#define BASIC_LCD_SUPPORT

/*! This switch enables the calling of a custom LCD display routine. This allows
    easy integration of custom code for specific meter designs. */
#undef CUSTOM_LCD_SUPPORT

/*! This is called to perform initialisation of a custom display */
#define custom_lcd_init()                           /**/

/*! This is called to perform custom display processing when the meter goes to
    sleep. This is typically turning off the display, to conserve energy. */
#define custom_lcd_sleep_handler()                  (LCDsleep(), display_power_fail_message())

/*! This is called to perform custom display processing when the meter wakes up from
    the sleeping condition. */
#define custom_lcd_wakeup_handler()                 LCDawaken()

/*! This switch enables multi-rate tariff features */
#undef MULTI_RATE_SUPPORT

/*! This is called from within the main processing loop. This allows easy integration
    of custom code for specific meter designs. This routine is called often in normal
    operating mode. In limp mode it is called once each time the background activity
    informs the foreground activity there is a block of data to be processed. It will
    also be called when a key is pressed, or for each repeat if a key is in repeat
    mode. */
#define custom_mainloop_handler()                   /**/

/*! This is called in the main processing once every 2 seconds. */
#if defined(__MSP430__)
#define custom_2second_handler()                    /**/
#endif

/*! This switch enables support for some basic keypad handling, to work
    with the basic demonstration LCD display routines. It demonstrates an
    approach to keypad handling within an e-meter. */
#define BASIC_KEYPAD_SUPPORT

/*! This switch enables the calling of a custom keypad handler routine. This
    allows easy integration of custom code for specific meter designs. */
#undef CUSTOM_KEYPAD_SUPPORT

/*! These are used with the above switches to determine the port bits assigned
    to the keys. Only define the buttons which are actually used. */
#define sense_key_1_up()                            (!(P1IN & BIT6))
#undef sense_key_2_up
#undef sense_key_3_up
#undef sense_key_4_up

/*! These are used to select the features required of the keys. They are bits in
    the key_states variable. Only define the features being used. Usually for
    each key the "DOWN" option and either the "LONG_DOWN" or "REPEAT_DOWN" option
    should be specified. Do not select both the "LONG_DOWN" and "REPEAT_DOWN" for the
    same key. */
#define KEY_1_DOWN                                  0x01
#undef KEY_1_LONG_DOWN                           //0x02
#define KEY_1_REPEAT_DOWN                           0x02
#undef KEY_2_DOWN                                //0x04
#undef KEY_2_LONG_DOWN                           //0x08
#undef KEY_2_REPEAT_DOWN                         //0x08
#undef KEY_3_DOWN                                //0x10
#undef KEY_3_LONG_DOWN                           //0x20
#undef KEY_3_REPEAT_DOWN                         //0x20
#undef KEY_4_DOWN                                //0x40
#undef KEY_4_LONG_DOWN                           //0x80
#undef KEY_4_REPEAT_DOWN                         //0x80

/*! Normally the meter software only calculates the properly scaled values
    for voltage, current, etc. as these values are needed. This define
    enables additional global parameters, which are regularly updated with
    all the metrics gathered by the meter. This is generally less efficient,
    as it means calculating things more often than necessary. However, some
    may find this easier to use, so it is offered as a choice for the meter
    designer. */
#define PRECALCULATED_PARAMETER_SUPPORT

/*! A PWM generator can be used to add dithering to the signals, to expand the
    effective resolution of the ADC. */
#undef PWM_DITHERING_SUPPORT

#undef DAC12_DITHERING_SUPPORT

/*! This switch select the use of current dependant phase correction, to allow
    the use of non-linear CTs. */
#define DYNAMIC_FIR_SUPPORT

/*! This switch selects where a backup battery's condition is monitored. */
#undef BATTERY_MONITOR_SUPPORT

/*! Target specific definitions for controlling the indicator LEDs */
#if defined(__MSP430__)
/*! This definition specifies the port bit change required to turn on the
    normal operation indicator LED, when one is used. If this is defined,