         Serial.print(". ");
     }
     Serial.println();
+    #endif
     // the actual parameters for the temperature sensor depend on the board type and
     // on the actual batch. The printed value is only an approximation
-    Serial.print("Temperature sensor (approx.): ");
-    value = adc->analogRead(ADC_INTERNAL_SOURCE::TEMP_SENSOR); // read a new value, will return ADC_ERROR_VALUE if the comparison is false.
-    Serial.print(": ");
-    float volts = value*3.3/adc->getMaxValue(ADC_0);
-    Serial.print(25-(volts-0.72)/1.7*1000, 2); // slope is 1.6 for T3.0
-    Serial.println(" C.");
+    //Serial.print("Temperature sensor (approx.): ");
+    //value = adc->analogRead(ADC_INTERNAL_SOURCE::TEMP_SENSOR); // read a new value, will return ADC_ERROR_VALUE if the comparison is false.
+    //Serial.print(": ");
+    //float volts = value*3.3/adc->getMaxValue(ADC_0);
+    //Serial.print(25-(volts-0.72)/1.7*1000, 2); // slope is 1.6 for T3.0
+    //Serial.println(" C.");
 
 
     // Print errors, if any.



    ///// ADC0 ////
    // reference can be ADC_REFERENCE::REF_3V3, ADC_REFERENCE::REF_1V2 (not for Teensy LC) or ADC_REFERENCE::REF_EXT.
    //adc->setReference(ADC_REFERENCE::REF_1V2, ADC_0); // change all 3.3 to 1.2 if you change the reference to 1V2

    adc->setAveraging(16); // set number of averages
    adc->setResolution(16); // set bits of resolution

    // it can be any of the ADC_CONVERSION_SPEED enum: VERY_LOW_SPEED, LOW_SPEED, MED_SPEED, HIGH_SPEED_16BITS, HIGH_SPEED or VERY_HIGH_SPEED
    // see the documentation for more information
    // additionally the conversion speed can also be ADACK_2_4, ADACK_4_0, ADACK_5_2 and ADACK_6_2,
    // where the numbers are the frequency of the ADC clock in MHz and are independent on the bus speed.
    adc->setConversionSpeed(ADC_CONVERSION_SPEED::VERY_LOW_SPEED); // change the conversion speed
    // it can be any of the ADC_MED_SPEED enum: VERY_LOW_SPEED, LOW_SPEED, MED_SPEED, HIGH_SPEED or VERY_HIGH_SPEED
    adc->setSamplingSpeed(ADC_SAMPLING_SPEED::MED_SPEED); // change the sampling speed

    // always call the compare functions after changing the resolution!
    //adc->enableCompare(1.0/3.3*adc->getMaxValue(ADC_0), 0, ADC_0); // measurement will be ready if value < 1.0V
    //adc->enableCompareRange(1.0*adc->getMaxValue(ADC_0)/3.3, 2.0*adc->getMaxValue(ADC_0)/3.3, 0, 1, ADC_0); // ready if value lies out of [1.0,2.0] V

    // If you enable interrupts, notice that the isr will read the result, so that isComplete() will return false (most of the time)
    //adc->enableInterrupts(ADC_0);


    ////// ADC1 /////
    #if ADC_NUM_ADCS>1
    adc->setAveraging(16, ADC_1); // set number of averages
    adc->setResolution(16, ADC_1); // set bits of resolution
    adc->setConversionSpeed(ADC_CONVERSION_SPEED::MED_SPEED, ADC_1); // change the conversion speed
    adc->setSamplingSpeed(ADC_SAMPLING_SPEED::MED_SPEED, ADC_1); // change the sampling speed

    //adc->setReference(ADC_REFERENCE::REF_1V2, ADC_1);

    // always call the compare functions after changing the resolution!
    //adc->enableCompare(1.0/3.3*adc->getMaxValue(ADC_1), 0, ADC_1); // measurement will be ready if value < 1.0V
    //adc->enableCompareRange(1.0*adc->getMaxValue(ADC_1)/3.3, 2.0*adc->getMaxValue(ADC_1)/3.3, 0, 1, ADC_1); // ready if value lies out of [1.0,2.0] V


    // If you enable interrupts, note that the isr will read the result, so that isComplete() will return false (most of the time)
    //adc->enableInterrupts(ADC_1);

    #endif

    delay(500);

        }
    }
    Serial.println();
    #if ADC_DIFF_PAIRS > 0
    Serial.print("Differential pairs: ");
    for (int i=0;i<PINS_DIFF;i+=2) {
        value = adc->analogReadDifferential(adc_pins_diff[i], adc_pins_diff[i+1]); // read a new value, will return ADC_ERROR_VALUE if the comparison is false.
