HL-PDJ-1/components/libraries/csense/nrf_csense_macros.h

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/**
* Copyright (c) 2016 - 2020, Nordic Semiconductor ASA
*
* All rights reserved.
*
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* are permitted provided that the following conditions are met:
*
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*
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*
* 3. Neither the name of Nordic Semiconductor ASA nor the names of its
* contributors may be used to endorse or promote products derived from this
* software without specific prior written permission.
*
* 4. This software, with or without modification, must only be used with a
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*
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*
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#ifndef NRF_CSENSE_MACROS_H__
#define NRF_CSENSE_MACROS_H__
/** @file
*
* @defgroup nrf_csense_macros Capacitive sensor macros
* @{
* @ingroup nrf_csense
*
* @brief A set of macros to facilitate creation of a new capacitive sensor instance.
*/
#define NRF_CSENSE_INTERNAL_BUTTON_DEF(name, p1) \
static nrf_csense_pad_t CONCAT_2(name, _pad) = \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}; \
static nrf_csense_min_max_t CONCAT_2(name, _minmax); \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = &CONCAT_2(name, _pad), \
.min_max = &CONCAT_2(name, _minmax), \
.steps = 1, \
.number_of_pads = 1, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_SLIDER_2_DEF(name, steps_no, p1, p2) \
static nrf_csense_pad_t CONCAT_2(name, _pad)[2] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
} \
}; \
\
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[2]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 2, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_SLIDER_3_DEF(name, steps_no, p1, p2, p3) \
static nrf_csense_pad_t CONCAT_2(name, _pad)[3] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[2], \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p3, \
.pad_index = 2, \
.analog_input_number = GET_ARG_1 p3 \
} \
}; \
\
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[3]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 3, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_SLIDER_4_DEF(name, steps_no, p1, p2, p3, p4) \
static nrf_csense_pad_t CONCAT_2(name, _pad)[4] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[2], \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[3], \
.threshold = GET_ARG_2 p3, \
.pad_index = 2, \
.analog_input_number = GET_ARG_1 p3 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p4, \
.pad_index = 3, \
.analog_input_number = GET_ARG_1 p4 \
} \
}; \
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[4]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 4, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_SLIDER_5_DEF(name, steps_no, p1, p2, p3, p4, p5) \
static nrf_csense_pad_t CONCAT_2(name, _pad)[5] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[2], \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[3], \
.threshold = GET_ARG_2 p3, \
.pad_index = 2, \
.analog_input_number = GET_ARG_1 p3 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[4], \
.threshold = GET_ARG_2 p4, \
.pad_index = 3, \
.analog_input_number = GET_ARG_1 p4 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p5, \
.pad_index = 4, \
.analog_input_number = GET_ARG_1 p5 \
} \
}; \
\
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[5]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 5, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_WHEEL_3_DEF(name, steps_no, p1, p2, p3) \
static nrf_csense_pad_t CONCAT_2(name, _pad)[4] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[2], \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[3], \
.threshold = GET_ARG_2 p3, \
.pad_index = 2, \
.analog_input_number = GET_ARG_1 p3 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p1, \
.pad_index = 3, \
.analog_input_number = GET_ARG_1 p1 \
} \
}; \
\
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[4]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 4, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_WHEEL_4_DEF(name, steps_no, p1, p2, p3, p4) \
static nrf_csense_pad_t CONCAT_2(name, _pad)[5] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[2], \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[3], \
.threshold = GET_ARG_2 p3, \
.pad_index = 2, \
.analog_input_number = GET_ARG_1 p3 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[4], \
.threshold = GET_ARG_2 p4, \
.pad_index = 3, \
.analog_input_number = GET_ARG_1 p4 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p1, \
.pad_index = 4, \
.analog_input_number = GET_ARG_1 p1 \
} \
}; \
\
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[5]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 5, \
.is_active = false, \
.is_touched = false \
};
#define NRF_CSENSE_INTERNAL_WHEEL_5_DEF(name, steps_no, p1, p2, p3, p4, p5)\
static nrf_csense_pad_t CONCAT_2(name, _pad)[6] = \
{ \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[1], \
.threshold = GET_ARG_2 p1, \
.pad_index = 0, \
.analog_input_number = GET_ARG_1 p1 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[2], \
.threshold = GET_ARG_2 p2, \
.pad_index = 1, \
.analog_input_number = GET_ARG_1 p2 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[3], \
.threshold = GET_ARG_2 p3, \
.pad_index = 2, \
.analog_input_number = GET_ARG_1 p3 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[4], \
.threshold = GET_ARG_2 p4, \
.pad_index = 3, \
.analog_input_number = GET_ARG_1 p4 \
}, \
{ \
.p_next_pad = &CONCAT_2(name, _pad)[5], \
.threshold = GET_ARG_2 p5, \
.pad_index = 4, \
.analog_input_number = GET_ARG_1 p5 \
}, \
{ \
.p_next_pad = NULL, \
.threshold = GET_ARG_2 p1, \
.pad_index = 5, \
.analog_input_number = GET_ARG_1 p1 \
} \
}; \
\
static nrf_csense_min_max_t CONCAT_2(name, _minmax)[6]; \
static nrf_csense_instance_t name = \
{ \
.p_nrf_csense_pad = CONCAT_2(name, _pad), \
.min_max = CONCAT_2(name, _minmax), \
.steps = steps_no, \
.number_of_pads = 6, \
.is_active = false, \
.is_touched = false \
};
/** @} */
#endif // NRF_CSENSE_MACROS_H__