d

pi/web/main.js

@@ -106,28 +106,28 @@ function onload(){ //Bind events
 	})
 
 	// Information for simple usage
-	tippy('#boxAdress', {delay: 3000, content: "The i2c adress used for communication with the board. This is automatically obtained.",})
-	tippy('#outOfLock', {delay: 3000, content: "The box is out of lock when the output of the board is maximum, and thus fluctuations cannot be stabilized anymore.",})
-	tippy('#piFreq', {delay: 3000, content: "Frequency at which the Pi polls the board for new waveforms, typically no more than 10Hz as this can disturb the board.",})
-	tippy('#boardFreq', {delay: 3000, content: "Frequency at which the board is currently measuring waveforms (untested).",})
-	tippy('#remoteTrigg', {delay: 3000, content: "If true, the board will continously trigger, ignoring the trigger input. For normal operation set to false.",})
-	tippy('#enabGnd', {delay: 3000, content: "If true (recommended), the board stabilizes signal-gnd, otherwise it stabilizes signal",})
-	tippy('#Vlearn', {delay: 3000, content: "The output voltage (0-4095) when the box is in learn mode. This can be used to select an appropiate input power. Small values will unnecessarily suppress the signal and large values (>3500, see response function) may result in out_of_lock due to the limited range.",})
-	tippy('#start', {delay: 3000, content: "Point # where the signal starts being measured. Sampling frequency ~1MHz.",})
-	tippy('#stop', {delay: 3000, content: "Point # where the signal stop being measured. Sampling frequency ~1MHz.",})
-	tippy('#startGnd', {delay: 3000, content: "Point # where the ground starts being measured. Sampling frequency ~1MHz.",})
-	tippy('#stopGnd', {delay: 3000, content: "Point # where the ground stops being measured. Sampling frequency ~1MHz.",})
-	tippy('#N', {delay: 3000, content: "Number of waveforms (typ. 1) to sample in each stabilization cycle.",})
-	tippy('#wfLen', {delay: 3000, content: "Number of points to sample (1-255)",})
-	tippy('#stepMax', {delay: 3000, content: "Maximum step allowed in one stabilization cycle (typ. 200) . Small values may lead to slow response to sharp fluctuations.",})
-	tippy('#Gain', {delay: 3000, content: "At every step Vout += (Vmeasured-Vset)*Gain",})
-	tippy('#calibrateGain', {delay: 3000, content: "Automatically select a loop gain based on the response function of the system.",})
-	tippy('#autoSetPga', {delay: 3000, content: "When True, the board changes the input gain and offset so that the signal is in an appropiate range (not clipped and going >2000). Set to False to select it manually.",})
-	tippy('#inputGain', {delay: 3000, content: "Allowed values: [1, 2, 4, 8, 16, 32, 64, 128]",})
-	tippy('#offset', {delay: 3000, content: "Input offset (0-4096). 2000 corresponds to no offset.",})
-	tippy('#coarseFineRatio', {delay: 3000, content: "Ratio of the precision in the fine and broad outputs. Typ. 20 from circuit design.",})
-	tippy('#calibrateCoarseFineRatio', {delay: 3000, content: "Calibrate the ratio by measuring the response functions of the broad and fine outputs.",})
-	tippy('#measureResponseFunction', {delay: 3000, content: "Measure the photodiode signal as a funtion of the output voltage.",})
+	tippy('#boxAdress', {delay: [1000, 0], content: "The i2c adress used for communication with the board. This is automatically obtained.",})
+	tippy('#outOfLock', {delay: [1000, 0], content: "The box is out of lock when the output of the board is maximum, and thus fluctuations cannot be stabilized anymore.",})
+	tippy('#piFreq', {delay: [1000, 0], content: "Frequency at which the Pi polls the board for new waveforms, typically no more than 10Hz as this can disturb the board.",})
+	tippy('#boardFreq', {delay: [1000, 0], content: "Frequency at which the board is currently measuring waveforms (untested).",})
+	tippy('#remoteTrigg', {delay: [1000, 0], content: "If true, the board will continously trigger, ignoring the trigger input. For normal operation set to false.",})
+	tippy('#enabGnd', {delay: [1000, 0], content: "If true (recommended), the board stabilizes signal-gnd, otherwise it stabilizes signal",})
+	tippy('#Vlearn', {delay: [1000, 0], content: "The output voltage (0-4095) when the box is in learn mode. This can be used to select an appropiate input power. Small values will unnecessarily suppress the signal and large values (>3500, see response function) may result in out_of_lock due to the limited range.",})
+	tippy('#start', {delay: [1000, 0], content: "Point # where the signal starts being measured. Sampling frequency ~1MHz.",})
+	tippy('#stop', {delay: [1000, 0], content: "Point # where the signal stop being measured. Sampling frequency ~1MHz.",})
+	tippy('#startGnd', {delay: [1000, 0], content: "Point # where the ground starts being measured. Sampling frequency ~1MHz.",})
+	tippy('#stopGnd', {delay: [1000, 0], content: "Point # where the ground stops being measured. Sampling frequency ~1MHz.",})
+	tippy('#N', {delay: [1000, 0], content: "Number of waveforms (typ. 1) to sample in each stabilization cycle.",})
+	tippy('#wfLen', {delay: [1000, 0], content: "Number of points to sample (1-255)",})
+	tippy('#stepMax', {delay: [1000, 0], content: "Maximum step allowed in one stabilization cycle (typ. 200) . Small values may lead to slow response to sharp fluctuations.",})
+	tippy('#Gain', {delay: [1000, 0], content: "At every step Vout += (Vmeasured-Vset)*Gain",})
+	tippy('#calibrateGain', {delay: [1000, 0], content: "Automatically select a loop gain based on the response function of the system.",})
+	tippy('#autoSetPga', {delay: [1000, 0], content: "When True, the board changes the input gain and offset so that the signal is in an appropiate range (not clipped and going >2000). Set to False to select it manually.",})
+	tippy('#inputGain', {delay: [1000, 0], content: "Allowed values: [1, 2, 4, 8, 16, 32, 64, 128]",})
+	tippy('#offset', {delay: [1000, 0], content: "Input offset (0-4096). 2000 corresponds to no offset.",})
+	tippy('#coarseFineRatio', {delay: [1000, 0], content: "Ratio of the precision in the fine and broad outputs. Typ. 20 from circuit design.",})
+	tippy('#calibrateCoarseFineRatio', {delay: [1000, 0], content: "Calibrate the ratio by measuring the response functions of the broad and fine outputs.",})
+	tippy('#measureResponseFunction', {delay: [1000, 0], content: "Measure the photodiode signal as a funtion of the output voltage.",})
 
 	setTimeout(loop, 100)
 
@@ -379,6 +379,6 @@ function message(txt){
 	  gravity: 'bottom',
 	  position: 'left',
 	  close: true,
-	  backgroundColor: "white",
+	  backgroundColor: "grey",
 	  duration: 3000,}).showToast()
 }