// CONFIG 1 ads129x_device.base->setReadbackMode(ADS1X_READBACK_DAISY_CHAIN); ads129x_device.base->setDataRate(ADS1x_DR2); /* SET the output data rate on 4kHz for the DEFAULT LOW-POWER mode */ // CONFIG 3 ads129x_device.base->setPowerDownReferenceBuffer(ADS1x_PD_REF_ENABLED); // enable internal reference buffer ads129x_device.setRLDReferenceSignalSource(ADS129x_RLD_REF_SIG_INTERNAL); ads129x_device.setRLDBufferPower(ADS129x_RLD_BUFFER_ENABLED); // RLD buffer is enabled ads129x_device.setPGAGain(ADS1X_CHANNEL1,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL2,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL3,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL4,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL5,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL6,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL7,ADS129x_GAIN_6); ads129x_device.setPGAGain(ADS1X_CHANNEL8,ADS129x_GAIN_6); ads129x_device.setReferenceVoltage(ADS1x_REF_VOLTAGE_2_4V); // RLD_SENSP // ch2 and ch3 set ads1x_channel_status_t rldSenseP; rldSenseP.channel1 = ADS1x_STAT_DISABLED; rldSenseP.channel2 = ADS1x_STAT_ENABLED; rldSenseP.channel3 = ADS1x_STAT_ENABLED; rldSenseP.channel4 = ADS1x_STAT_DISABLED; rldSenseP.channel5 = ADS1x_STAT_DISABLED; rldSenseP.channel6 = ADS1x_STAT_DISABLED; rldSenseP.channel7 = ADS1x_STAT_DISABLED; rldSenseP.channel8 = ADS1x_STAT_DISABLED; ads129x_device.setRightLegDriveSense(ADS1x_POL_POSITIVE, rldSenseP); // RLD_SENSN // ch2 ads1x_channel_status_t rldSenseN; rldSenseN.channel1 = ADS1x_STAT_DISABLED; rldSenseN.channel2 = ADS1x_STAT_ENABLED; rldSenseN.channel3 = ADS1x_STAT_DISABLED; rldSenseN.channel4 = ADS1x_STAT_DISABLED; rldSenseN.channel5 = ADS1x_STAT_DISABLED; rldSenseN.channel6 = ADS1x_STAT_DISABLED; rldSenseN.channel7 = ADS1x_STAT_DISABLED; rldSenseN.channel8 = ADS1x_STAT_DISABLED; ads129x_device.setRightLegDriveSense(ADS1x_POL_NEGATIVE, rldSenseN); // WCT1 // bit3 PD_WCTS = 1 poweron // WCTA 011, channel2 negative ads129x_device.setWctAPowerDown(ADS129x_WCTA_STAT_POWERED_ON); ads129x_device.setWctAmplifierAChannelSelection(ADS129x_WCTAC_AMP_CH2_N); // WCT2 // PD_WCTC = 1 powered on // PD_WCTB = 1 powered on // WCTB 010 // WCTC 100 ads129x_device.setWctBPowerDown(ADS129x_WCTB_STAT_POWERED_ON); ads129x_device.setWctAmplifierBChannelSelection(ADS129x_WCTB_AMP_CH2_P); ads129x_device.setWctCPowerDown(ADS129x_WCTC_STAT_POWERED_ON); ads129x_device.setWctAmplifierCChannelSelection(ADS129x_WCTAC_AMP_CH3_P); // --LEAD off detection tryed with resistor puls but did not function // Comp TH change comparator treshold 75% ads129x_device.setLeadOffComparatorThreshold(ADS1X_COMP_TH_P_95_0); ads129x_device.setLeadOffDetectionMode(ADS129x_LOFF_MODE_CURRENT_SOURCE); // I_LEAD_OFF_enable current magnitude 12nA // ads129x_device.setLeadOffCurrentMagnitude(ADS129x_LOFF_MAG_12NA); // Lead off detection ads129x_device.setLeadOffComparatorPowerState(ADS1x_LOFF_COMP_ENABLED); // Enable lead off ads1x_channel_status_t lead_off_SenseN; lead_off_SenseN.channel1 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel2 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel3 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel4 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel5 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel6 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel7 = ADS1x_STAT_ENABLED; lead_off_SenseN.channel8 = ADS1x_STAT_ENABLED; ads129x_device.setLeadOffSense(ADS1x_POL_NEGATIVE, lead_off_SenseN); ads1x_channel_status_t lead_off_SenseP; lead_off_SenseP.channel1 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel2 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel3 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel4 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel5 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel6 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel7 = ADS1x_STAT_ENABLED; lead_off_SenseP.channel8 = ADS1x_STAT_ENABLED; ads129x_device.setLeadOffSense(ADS1x_POL_POSITIVE, lead_off_SenseP);