TOUCHSENSING: a free source code library written in C allowing designers familiar with the use of standard microcontrollers to create higher-end human interfaces by replacing conventional electromechanical switches by capacitive sensors. Software or hardware acquisition Software or hardware acquisition Software or hardware acquisition Formula calculation for TSLPRM_TOTAL_CHANNELS default value. Formula calculation for TSLPRM_TOTAL_CHANNELS default value. Formula calculation for TSLPRM_TOTAL_CHANNELS default value. Total number of channels in application (range=1..24) One TouchKey: one channel One LinRot: 3, 4, 5 or 6 channels depending of selected one Be aware that if your TSC is not correctly configured, i.e. not enough channels activated then you will get error message because of this. Total number of channels in application (range=1..34) One TouchKey: one channel One LinRot: 3, 4, 5 or 6 channels depending of selected one Total number of channels in application (range=1..255) One TouchKey: one channel One LinRot: 3, 4, 5 or 6 channels depending of selected one Total number of touchkeys, maximum being nbr of activated channels in TSC IP Total number of touchkeys, maximum being nbr of activated channels in TS IP Total number of touchkeys Total number of touchkeys, maximum 24 Total number of touchkeys, maximum 24 Total number of touchkeys USER INFORMATION: Total number of channels in application activated on TSC IP TSLPRM_TOTAL_CHANNELS cannot be higher USER INFORMATION: Total number of channels in application activated on TSC IP TSLPRM_TOTAL_CHANNELS cannot be higher Formula calculation for TSLPRM_TOTAL_TOUCHKEYS_ACTIVE_CHANNELS default value. Formula calculation for TSLPRM_TOTAL_TOUCHKEYS_MAX default value. Formula calculation for TSLPRM_TOTAL_TOUCHKEYS_MAX default value. Formula calculation for TSLPRM_TOTAL_TOUCHKEYS_B_ACTIVE_CHANNELS default value. Formula calculation for TSLPRM_TOTAL_TOUCHKEYS_B_MAX default value. Formula calculation for TSLPRM_TOTAL_TOUCHKEYS_B_MAX default value. Total number of "Extended" TouchKeys in application Total number of "Extended" TouchKeys in application Total number of "Extended" TouchKeys in application (range=0..255) TouchKey IO n°1 TouchKey IO n°1 TouchKey IO n°1 Total number of "Basic" TouchKeys in application Total number of "Basic" TouchKeys in application Total number of "Basic" TouchKeys in application () TouchKey B IO n°1 TouchKey B IO n°1 TouchKey B IO n°1 Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 3 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M1 = Mono electrodes design with 0/255 position at extremities of the sensor Formula calculation for TSLPRM_USE_3CH_LIN_M1_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_LIN_M1 Extended type Number of TSLPRM_USE_3CH_LIN_M1 Extended type Formula calculation for TSLPRM_USE_3CH_LIN_M1_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_LIN_M1 Basic type Number of TSLPRM_USE_3CH_LIN_M1 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 3 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M2 = Mono electrodes design Formula calculation for TSLPRM_USE_3CH_LIN_M2_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_LIN_M2 Extended type Number of TSLPRM_USE_3CH_LIN_M2 Extended type Formula calculation for TSLPRM_USE_3CH_LIN_M2_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_LIN_M2 Basic type Number of TSLPRM_USE_3CH_LIN_M2 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 3 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor H = Half-ended electrodes design Formula calculation for TSLPRM_USE_3CH_LIN_H_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_LIN_H Extended type Number of TSLPRM_USE_3CH_LIN_H Extended type Formula calculation for TSLPRM_USE_3CH_LIN_H_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_LIN_H Basic type Number of TSLPRM_USE_3CH_LIN_H Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 3 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used ROT = Rotary sensor Formula calculation for TSLPRM_USE_3CH_ROT_M_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_ROT_M Extended type Number of TSLPRM_USE_3CH_ROT_M Extended type Formula calculation for TSLPRM_USE_3CH_ROT_M_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_3CH_ROT_M Basic type Number of TSLPRM_USE_3CH_ROT_M Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 4 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M1 = Mono electrodes design with 0/255 position at extremities of the sensor Formula calculation for TSLPRM_USE_4CH_LIN_M1_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_LIN_M1 Extended type Number of TSLPRM_USE_4CH_LIN_M1 Extended type Formula calculation for TSLPRM_USE_4CH_LIN_M1_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_LIN_M1 Basic type Number of TSLPRM_USE_4CH_LIN_M1 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 4 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M2 = Mono electrodes design Formula calculation for TSLPRM_USE_4CH_LIN_M2_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_LIN_M2 Extended type Number of TSLPRM_USE_4CH_LIN_M2 Extended type Formula calculation for TSLPRM_USE_4CH_LIN_M2_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_LIN_M2 Basic type Number of TSLPRM_USE_4CH_LIN_M2 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 4 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor H = Half-ended electrodes design Formula calculation for TSLPRM_USE_4CH_LIN_H_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_LIN_H Extended type Number of TSLPRM_USE_4CH_LIN_H Extended type Formula calculation for TSLPRM_USE_4CH_LIN_H_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_LIN_H Basic type Number of TSLPRM_USE_4CH_LIN_H Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 4 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used ROT = Rotary sensor Formula calculation for TSLPRM_USE_4CH_ROT_M_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_ROT_M Extended type Number of TSLPRM_USE_4CH_ROT_M Extended type Formula calculation for TSLPRM_USE_4CH_ROT_M_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_4CH_ROT_M Basic type Number of TSLPRM_USE_4CH_ROT_M Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 5 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M1 = Mono electrodes design with 0/255 position at extremities of the sensor Formula calculation for TSLPRM_USE_5CH_LIN_M1_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_LIN_M1 Extended type Number of TSLPRM_USE_5CH_LIN_M1 Extended type Formula calculation for TSLPRM_USE_5CH_LIN_M1_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_LIN_M1 Basic type Number of TSLPRM_USE_5CH_LIN_M1 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 5 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M2 = Mono electrodes design Formula calculation for TSLPRM_USE_5CH_LIN_M2_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_LIN_M2 Extended type Number of TSLPRM_USE_5CH_LIN_M2 Extended type Formula calculation for TSLPRM_USE_5CH_LIN_M2_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_LIN_M2 Basic type Number of TSLPRM_USE_5CH_LIN_M2 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 5 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor H = Half-ended electrodes design Formula calculation for TSLPRM_USE_5CH_LIN_H_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_LIN_H Extended type Number of TSLPRM_USE_5CH_LIN_H Extended type Formula calculation for TSLPRM_USE_5CH_LIN_H_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_LIN_H Basic type Number of TSLPRM_USE_5CH_LIN_H Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 5 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used ROT = Rotary sensor Formula calculation for TSLPRM_USE_5CH_ROT_M_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_ROT_M Extended type Number of TSLPRM_USE_5CH_ROT_M Extended type Formula calculation for TSLPRM_USE_5CH_ROT_M_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_ROT_M Basic type Number of TSLPRM_USE_5CH_ROT_M Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 5 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used ROT = Rotary sensor D = Dual electrodes design Formula calculation for TSLPRM_USE_5CH_ROT_D_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_ROT_D Extended type Number of TSLPRM_USE_5CH_ROT_D Extended type Formula calculation for TSLPRM_USE_5CH_ROT_D_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_5CH_ROT_D Basic type Number of TSLPRM_USE_5CH_ROT_D Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 6 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M1 = Mono electrodes design with 0/255 position at extremities of the sensor Formula calculation for TSLPRM_USE_6CH_LIN_M1_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_LIN_M1 Extended type Number of TSLPRM_USE_6CH_LIN_M1 Extended type Formula calculation for TSLPRM_USE_6CH_LIN_M1_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_LIN_M1 Basic type Number of TSLPRM_USE_6CH_LIN_M1 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 6 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor M2 = Mono electrodes design Formula calculation for TSLPRM_USE_6CH_LIN_M2_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_LIN_M2 Extended type Number of TSLPRM_USE_6CH_LIN_M2 Extended type Formula calculation for TSLPRM_USE_6CH_LIN_M2_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_LIN_M2 Basic type Number of TSLPRM_USE_6CH_LIN_M2 Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 6 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used LIN = Linear sensor H = Half-ended electrodes design Formula calculation for TSLPRM_USE_6CH_LIN_H_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_LIN_H Extended type Number of TSLPRM_USE_6CH_LIN_H Extended type Formula calculation for TSLPRM_USE_6CH_LIN_H_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_LIN_H Basic type Number of TSLPRM_USE_6CH_LIN_H Basic type Select which Linear and Rotary sensors you use in your application. Warning: it is recommended to activate IO's in 6 groups of TS/TSC peripheral for optimized performances - 0 = Not Used - 1 = Used ROT = Rotary sensor Formula calculation for TSLPRM_USE_6CH_ROT_M_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_ROT_M Extended type Number of TSLPRM_USE_6CH_ROT_M Extended type Formula calculation for TSLPRM_USE_6CH_ROT_M_B_NBR_ACTIVE_CHANNELS default value. Number of TSLPRM_USE_6CH_ROT_M Basic type Number of TSLPRM_USE_6CH_ROT_M Basic type 3CH_LIN_M1 n°1 channel 1 3CH_LIN_M1 n°1 channel 2 3CH_LIN_M1 n°1 channel 3 3CH_LIN_M1_B n°1 channel 1 3CH_LIN_M1_B n°1 channel 2 3CH_LIN_M1_B n°1 channel 3 3CH_LIN_M2 n°1 channel 1 3CH_LIN_M2 n°1 channel 2 3CH_LIN_M2 n°1 channel 3 3CH_LIN_M2_B n°1 channel 1 3CH_LIN_M2_B n°1 channel 2 3CH_LIN_M2_B n°1 channel 3 3CH_LIN_H n°1 channel 1 3CH_LIN_H n°1 channel 2 3CH_LIN_H n°1 channel 3 3CH_LIN_H_B n°1 channel 1 3CH_LIN_H_B n°1 channel 2 3CH_LIN_H_B n°1 channel 3 3CH_LIN_ROT_M n°1 channel 1 3CH_LIN_ROT_M n°1 channel 2 3CH_LIN_ROT_M n°1 channel 3 3CH_LIN_ROT_M_B n°1 channel 1 3CH_LIN_ROT_M_B n°1 channel 2 3CH_LIN_ROT_M_B n°1 channel 3 4CH_LIN_M1 n°1 channel 1 4CH_LIN_M1 n°1 channel 2 4CH_LIN_M1 n°1 channel 3 4CH_LIN_M1 n°1 channel 4 4CH_LIN_M1_B n°1 channel 1 4CH_LIN_M1_B n°1 channel 2 4CH_LIN_M1_B n°1 channel 3 4CH_LIN_M1_B n°1 channel 4 4CH_LIN_M2 n°1 channel 1 4CH_LIN_M2 n°1 channel 2 4CH_LIN_M2 n°1 channel 3 4CH_LIN_M2 n°1 channel 4 4CH_LIN_M2_B n°1 channel 1 4CH_LIN_M2_B n°1 channel 2 4CH_LIN_M2_B n°1 channel 3 4CH_LIN_M2_B n°1 channel 4 4CH_LIN_H n°1 channel 1 4CH_LIN_H n°1 channel 2 4CH_LIN_H n°1 channel 3 4CH_LIN_H n°1 channel 4 4CH_LIN_H_B n°1 channel 1 4CH_LIN_H_B n°1 channel 2 4CH_LIN_H_B n°1 channel 3 4CH_LIN_H_B n°1 channel 4 4CH_LIN_ROT_M n°1 channel 1 4CH_LIN_ROT_M n°1 channel 2 4CH_LIN_ROT_M n°1 channel 3 4CH_LIN_ROT_M n°1 channel 4 4CH_LIN_ROT_M_B n°1 channel 1 4CH_LIN_ROT_M_B n°1 channel 2 4CH_LIN_ROT_M_B n°1 channel 3 4CH_LIN_ROT_M_B n°1 channel 4 5CH_LIN_M1 n°1 channel 1 5CH_LIN_M1 n°1 channel 2 5CH_LIN_M1 n°1 channel 3 5CH_LIN_M1 n°1 channel 4 5CH_LIN_M1 n°1 channel 5 5CH_LIN_M1_B n°1 channel 1 5CH_LIN_M1_B n°1 channel 2 5CH_LIN_M1_B n°1 channel 3 5CH_LIN_M1_B n°1 channel 4 5CH_LIN_M1_B n°1 channel 5 5CH_LIN_M2 n°1 channel 1 5CH_LIN_M2 n°1 channel 2 5CH_LIN_M2 n°1 channel 3 5CH_LIN_M2 n°1 channel 4 5CH_LIN_M2 n°1 channel 5 5CH_LIN_M2_B n°1 channel 1 5CH_LIN_M2_B n°1 channel 2 5CH_LIN_M2_B n°1 channel 3 5CH_LIN_M2_B n°1 channel 4 5CH_LIN_M2_B n°1 channel 5 5CH_LIN_H n°1 channel 1 5CH_LIN_H n°1 channel 2 5CH_LIN_H n°1 channel 3 5CH_LIN_H n°1 channel 4 5CH_LIN_H n°1 channel 5 5CH_LIN_H_B n°1 channel 1 5CH_LIN_H_B n°1 channel 2 5CH_LIN_H_B n°1 channel 3 5CH_LIN_H_B n°1 channel 4 5CH_LIN_H_B n°1 channel 5 5CH_LIN_ROT_M n°1 channel 1 5CH_LIN_ROT_M n°1 channel 2 5CH_LIN_ROT_M n°1 channel 3 5CH_LIN_ROT_M n°1 channel 4 5CH_LIN_ROT_M n°1 channel 5 5CH_LIN_ROT_M_B n°1 channel 1 5CH_LIN_ROT_M_B n°1 channel 2 5CH_LIN_ROT_M_B n°1 channel 3 5CH_LIN_ROT_M_B n°1 channel 4 5CH_LIN_ROT_M_B n°1 channel 5 5CH_LIN_ROT_D n°1 channel 1 5CH_LIN_ROT_D n°1 channel 2 5CH_LIN_ROT_D n°1 channel 3 5CH_LIN_ROT_D n°1 channel 4 5CH_LIN_ROT_D n°1 channel 5 5CH_LIN_ROT_D_M n°1 channel 1 5CH_LIN_ROT_D_M n°1 channel 2 5CH_LIN_ROT_D_M n°1 channel 3 5CH_LIN_ROT_D_M n°1 channel 4 5CH_LIN_ROT_D_M n°1 channel 5 6CH_LIN_M1 n°1 channel 1 6CH_LIN_M1 n°1 channel 2 6CH_LIN_M1 n°1 channel 3 6CH_LIN_M1 n°1 channel 4 6CH_LIN_M1 n°1 channel 5 6CH_LIN_M1 n°1 channel 6 6CH_LIN_M1_B n°1 channel 1 6CH_LIN_M1_B n°1 channel 2 6CH_LIN_M1_B n°1 channel 3 6CH_LIN_M1_B n°1 channel 4 6CH_LIN_M1_B n°1 channel 5 6CH_LIN_M1_B n°1 channel 6 6CH_LIN_M2 n°1 channel 1 6CH_LIN_M2 n°1 channel 2 6CH_LIN_M2 n°1 channel 3 6CH_LIN_M2 n°1 channel 4 6CH_LIN_M2 n°1 channel 5 6CH_LIN_M2 n°1 channel 6 6CH_LIN_M2_B n°1 channel 1 6CH_LIN_M2_B n°1 channel 2 6CH_LIN_M2_B n°1 channel 3 6CH_LIN_M2_B n°1 channel 4 6CH_LIN_M2_B n°1 channel 5 6CH_LIN_M2_B n°1 channel 6 6CH_LIN_H n°1 channel 1 6CH_LIN_H n°1 channel 2 6CH_LIN_H n°1 channel 3 6CH_LIN_H n°1 channel 4 6CH_LIN_H n°1 channel 5 6CH_LIN_H n°1 channel 6 6CH_LIN_H_B n°1 channel 1 6CH_LIN_H_B n°1 channel 2 6CH_LIN_H_B n°1 channel 3 6CH_LIN_H_B n°1 channel 4 6CH_LIN_H_B n°1 channel 5 6CH_LIN_H_B n°1 channel 6 6CH_LIN_ROT_M n°1 channel 1 6CH_LIN_ROT_M n°1 channel 2 6CH_LIN_ROT_M n°1 channel 3 6CH_LIN_ROT_M n°1 channel 4 6CH_LIN_ROT_M n°1 channel 5 6CH_LIN_ROT_M n°1 channel 6 6CH_LIN_ROT_M_B n°1 channel 1 6CH_LIN_ROT_M_B n°1 channel 2 6CH_LIN_ROT_M_B n°1 channel 3 6CH_LIN_ROT_M_B n°1 channel 4 6CH_LIN_ROT_M_B n°1 channel 5 6CH_LIN_ROT_M_B n°1 channel 6 USER INFORMATION: Refparameter defined by TSC IP USER INFORMATION: Refparameter defined by TS IP USER INFORMATION: Refparameter defined by TSC IP USER INFORMATION: Refparameter defined by TS IP USER INFORMATION: Total number of shields in application activated on TSC IP USER INFORMATION: Total number of shields in application activated on TSC IP USER INFORMATION: Total number of sampling in application activated on TSC IP USER INFORMATION: Total number of sampling in application activated on TSC IP Total number of "Extended" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Extended" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Extended" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Extended" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Extended" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Basic" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Basic" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Basic" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Basic" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of "Basic" Linear and Rotary sensors in application Count also the 1-channel linear sensor used as TouchKey Total number of sensors/objects in application Count all TouchKeys, Linear and Rotary sensors Total number of sensors/objects in application Count all TouchKeys, Linear and Rotary sensors Total number of sensors/objects in application Count all TouchKeys, Linear and Rotary sensors Total number of linrots 3CH Total number of linrots 3CH Total number of linrots 3CH Total number of lin M1 3CH Total number of lin M1 3CH Total number of lin M1 3CH Total number of lin M2 3CH Total number of lin M2 3CH Total number of lin M2 3CH Total number of lin H 3CH Total number of lin H 3CH Total number of lin H 3CH Total number of rot 3CH Total number of rot 3CH Total number of rot 3CH Total number of linrots 4CH Total number of linrots 4CH Total number of linrots 4CH Total number of lin M1 4CH Total number of lin M1 4CH Total number of lin 4CH Total number of lin M2 4CH Total number of lin M2 4CH Total number of lin M2 4CH Total number of lin H 4CH Total number of lin H 4CH Total number of lin H 4CH Total number of rot M 4CH Total number of rot M 4CH Total number of rot M 4CH Total number of linrots 5CH Total number of linrots 5CH Total number of linrots 5CH Total number of lin M1 5CH Total number of lin M1 5CH Total number of lin M1 5CH Total number of lin M2 5CH Total number of lin M2 5CH Total number of lin M2 5CH Total number of lin H 5CH Total number of lin H 5CH Total number of lin H 5CH Total number of rot M 5CH Total number of rot M 5CH Total number of rot M 5CH Total number of rot D 5CH Total number of rot D 5CH Total number of rot D 5CH Total number of linrots 6CH Total number of linrots 6CH Total number of linrots 6CH Total number of lin M1 6CH Total number of lin M1 6CH Total number of lin M1 6CH Total number of lin M2 6CH Total number of lin M2 6CH Total number of lin M2 6CH Total number of lin H 6CH Total number of lin H 6CH Total number of lin H 6CH Total number of rot M 6CH Total number of rot M 6CH Total number of rot M 6CH Record the last measure (0=No, 1=Yes) If No the measure is recalculated using the Reference and Delta Proximity detection usage (0=No, 1=Yes) Minimum acquisition measurement (range=0..65535) This is the minimum acceptable value for the acquisition measure. The acquisition will be in error IF the measure is below this value. Maximum acquisition measurement (range=0...65535) This is the maximum acceptable value for the acquisition measure. The acquisition will be in error IF the measure is above this value. This parameter is set by TSC IP Maximum acquisition measurement (range=(TSC_MVC)255, 511, 1023, 2047, 8191, 16383) This is the maximum acceptable value for the acquisition measure. The acquisition will be in error IF the measure is above this value. Number of calibration samples (range=4, 8, 16) Low value = faster calibration but less precision. High value = slower calibration but more precision. Delay in measurement samples before starting the calibration (range=0..40) - This is useful IF a noise filter is used. - Write 0 to disable the delay. TouchKeys Proximity state input threshold (range=0..255) Enter Proximity state IF delta is above TouchKeys Proximity state output threshold (range=0..255) Exit Proximity state IF delta is below TouchKeys Detect state input threshold (range=0..255) Enter Detect state IF delta is above TouchKeys Detect state input threshold (range=0..255) Enter Detect state IF delta is above TouchKeys Detect state output threshold (range=0..255) Exit Detect state IF delta is below TouchKeys Detect state output threshold (range=0..255) Exit Detect state IF delta is below TouchKeys re-Calibration threshold (range=0..255) @warning The value is inverted in the sensor state machine Enter Calibration state IF delta is below TouchKeys re-Calibration threshold (range=0..255) @warning The value is inverted in the sensor state machine Enter Calibration state IF delta is below TouchKey, Linear and Rotary sensors thresholds coefficient (range=0..4) This multiplier coefficient is applied on Detect and Re-Calibration thresholds only. 0: feature disabled 1: thresholds x 2 2: thresholds x 4 3: thresholds x 8 4: thresholds x 16 Linear/Rotary Proximity state input threshold (range=0..255) Enter Proximity state IF delta is above Linear/Rotary Proximity state output threshold (range=0..255) Exit Proximity state IF delta is below Linear/Rotary Detect state input threshold (range=0..255) Enter Detect state IF delta is above Linear/Rotary Detect state input threshold (range=0..255) Enter Detect state IF delta is above Linear/Rotary Detect state output threshold (range=0..255) Exit Detect state IF delta is below Linear/Rotary Detect state output threshold (range=0..255) Exit Detect state IF delta is below Linear/Rotary re-Calibration threshold (range=0..255) @warning The value is inverted in the sensor state machine Enter Calibration state IF delta is below A low absolute value will result in a higher sensitivity and thus some spurious, recalibration may be issued. Linear/Rotary re-Calibration threshold (range=0..255) @warning The value is inverted in the sensor state machine Enter Calibration state IF delta is below A low absolute value will result in a higher sensitivity and thus some spurious, recalibration may be issued. Linear/Rotary Delta normalization (0=No, 1=Yes) - When this parameter is set, a coefficient is applied on all Delta of all sensors in order to normalize them and to improve the position calculation. - These coefficients must be defined in a constant table in the application (see Library examples). - The MSB is the coefficient integer part, the LSB is the coefficient real part. - Examples: - To apply a factor 1.10: 0x01 to the MSB 0x1A to the LSB (0.10 x 256 = 25.6 -> rounded to 26 = 0x1A) - To apply a factor 0.90: 0x00 to the MSB 0xE6 to the LSB (0.90 x 256 = 230.4 -> rounded to 230 = 0xE6) - To apply no factor: 0x01 to the MSB 0x00 to the LSB Position resolution in number of bits (range=1..8) - A Low value will result in a low resolution and will be less subject to noise. - A High value will result in a high resolution and will be more subject to noise. Direction change threshold in position unit (range=0..255) - Defines the default threshold used during the change direction process. - A Low value will result in a faster direction change. - A High value will result in a slower direction change. Direction change debounce (range=0..63) - Defines the default integrator counter used during the change direction process. - This counter is decremented when the same change in the position is detected and the direction will change after this counter reaches zero. - A Low value will result in a faster direction change. - A High value will result in a slower direction change. Proximity state debounce in samples unit (range=0..63) - A Low value will result in a higher sensitivity during the Proximity detection but with less noise filtering. - A High value will result in improving the system noise immunity but will increase the system response time. Detect state debounce in samples unit (range=0..63) - A Low value will result in a higher sensitivity during the detection but with less noise filtering. - A High value will result in improving the system noise immunity but will increase the system response time. Release state debounce in samples unit (range=0..63) - A Low value will result in a higher sensitivity during the end-detection but with less noise filtering. - A High value will result in a lower sensitivity during the end-detection but with more noise filtering. Re-calibration state debounce in samples unit (range=0..63) - A Low value will result in a higher sensitivity during the recalibration but with less noise filtering. - A High value will result in a lower sensitivity during the recalibration but with more noise filtering. Error state debounce in samples unit (range=0..63) - A Low value will result in a higher sensitivity to enter in error state. - A High value will result in a lower sensitivity to enter in error state. Environment Change System Slow K factor (range=0..255) - The higher value is K, the faster is the response time. Environment Change System Fast K factor (range=0..255) - The higher value is K, the faster is the response time. Environment Change System delay in msec (range=0..5000) - The ECS will be started after this delay and when all sensors are in Release state. Detection Time Out delay in seconds (range=0..63) - Value 0: DTO processing not compiled in the code (to gain size IF not used). - Value 1: Default time out infinite. - Value between 2 and 63: Default time out between value n-1 and n. - Examples: - With a DTO equal to 2, the time out is between 1s and 2s. - With a DTO equal to 63, the time out is between 62s and 63s. @note The DTO can be changed in run-time by the application only IF the default value is between 1 and 63. Detection Exclusion System (0=No, 1=Yes) Timing tick frequency in Hz (range=125, 250, 500, 1000, 2000) - Result to a timing interrupt respectively every 8ms, 4ms, 2ms, 1ms, 0.5ms Delay for discharging Cx and Cs capacitors (range=0..65535) - The value corresponds to the Softdelay function parameter. - 500 gives around 63 µs delay whatever HCLK - 1000 gives around 125 µs delay whatever HCLK - 2000 gives around 250 µs delay whatever HCLK IOs default mode when no on-going acquisition (range=0..1) - 0: Output push-pull low - 1: Input floating @note To ensure a correct operation in noisy environment, this parameter should be configured to output push-pull low (excepted for Linear sensors). This parameter is set by TSC IP IOs default mode when no on-going acquisition (range=0..1) - 0: Output push-pull low(TSC_IODEF_OUT_PP_LOW) - 1: Input floating(TSC_IODEF_IN_FLOAT) @note To ensure a correct operation in noisy environment, this parameter should be configured to output push-pull low (excepted for Linear sensors). Shield with a channel (0=No, 1=Yes) Used only with STM32L1 Shield with a channel (0=No, 1=Yes) Charge/transfer Period (in µs) (= high pulse + low pulse) <brgt; - This is used to calculate the Timer reload value. @note For HW acquisition only Used only with STM32L1 Charge/transfer Period (in µs) (= high pulse + low pulse) <brgt; - This is used to calculate the Timer reload value. @note For HW acquisition only Timer frequency (in MHz) - This is used to calculate the Timer reload value. @note For HW acquisition only Used only with STM32L1 Timer frequency (in MHz) - This is used to calculate the Timer reload value. @note For HW acquisition only Delay for transfering charges from Cx to Cs capacitor and then discharge Cx (range=0..65535) - 0: no delay (it takes about 2.8µs for a CT cycle) - (1..65535): delay (in µs) = 0.75 * TSLPRM_DELAY_TRANSFER + 1 @note for SW acquisition only Used only with STM32L1 Delay for transfering charges from Cx to Cs capacitor and then discharge Cx (range=0..65535) - 0: no delay (it takes about 2.8µs for a CT cycle) - (1..65535): delay (in µs) = 0.75 * TSLPRM_DELAY_TRANSFER + 1 @note for SW acquisition only Use Spread Spectrum (0=No, 1=Yes) @note for SW acquisition only Used only with STM32L1 Use Spread Spectrum (0=No, 1=Yes) @note for SW acquisition only Spread min value (range=0..(TSLPRM_SPREAD_MAX-1)) @note for SW acquisition only Used only with STM32L1 Spread min value (range=0..(TSLPRM_SPREAD_MAX-1)) @note for SW acquisition only Spread max value (range=2..255) @note for SW acquisition only Used only with STM32L1 Spread max value (range=2..255) @note for SW acquisition only IT disabling for IO protection (range=0..1) - 0: IO not protected - 1: IO protected @note for SW acquisition only Used only with STM32L1 IT disabling for IO protection (range=0..1) - 0: IO not protected - 1: IO protected @note for SW acquisition only GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only Used only with STM32L1 GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only Used only with STM32L1 GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only Used only with STM32L1 GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only Used only with STM32L1 GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only Used only with STM32L1 GPIO to be used (range=0..1) - 0: Not used - 1: Used @note for SW acquisition only "N/A" TOUCHSENSING_ENABLE_Init S_TOUCHSENSING