Software serial and hardware serial with Linduino board (same as Arduino Uno atmega 328p)

I am working on linduino board, i am trying to use hardware serial and software serial together for using TFT touch panel and Bluetooth module. But i am not able to use them together.
I am able to do it for random numbers but i am not able to do it for displaying temperature values.
I am attaching my code file below. In the code i am calling the measure channel function from loop and the temperature is getting printed from the 3rd function.
Thanks,
Shivam9_therm_batch_edit.ino (13.7 KB)

    /*!



  LTC2984.ino:
  Generated Linduino code from the LTC2984 Demo Software.
  This code (plus the other code in this folder) is designed to be used by a Linduino,
  but can also be used to understand how to program the LTC2984.




  http://www.linear.com/product/LTC2984

  http://www.linear.com/product/LTC2984#demoboards

  $Revision: 1.3.3 $
  $Date: October 5, 2016 $
  Copyright (c) 2014, Linear Technology Corp.(LTC)
  All rights reserved.

  Redistribution and use in source and binary forms, with or without
  modification, are permitted provided that the following conditions are met:

  1. Redistributions of source code must retain the above copyright notice, this
   list of conditions and the following disclaimer.
  2. Redistributions in binary form must reproduce the above copyright notice,
   this list of conditions and the following disclaimer in the documentation
   and/or other materials provided with the distribution.

  THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS" AND
  ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED
  WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE
  DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR CONTRIBUTORS BE LIABLE FOR
  ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES
  (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES;
  LOSS OF USE, DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND
  ON ANY THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
  (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
  SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.

  The views and conclusions contained in the software and documentation are those
  of the authors and should not be interpreted as representing official policies,
  either expressed or implied, of Linear Technology Corp.

  The Linear Technology Linduino is not affiliated with the official Arduino team.
  However, the Linduino is only possible because of the Arduino team's commitment
  to the open-source community.  Please, visit http://www.arduino.cc and
  http://store.arduino.cc , and consider a purchase that will help fund their
  ongoing work.
*/





#include <Arduino.h>
#include <stdint.h>
#include <stdbool.h>
#include "SPI.h"
#include "Wire.h"
#include "Linduino.h"
#include "LT_SPI.h"
#include "UserInterface.h"
#include "LT_I2C.h"
#include "QuikEval_EEPROM.h"
#include "stdio.h"
#include "math.h"

#include "LTC2984_configuration_constants.h"
#include "LTC2984_support_functions.h"
#include "LTC2984_table_coeffs.h"
//#include <SoftwareSerial.h>
//SoftwareSerial mySerial(8, 9);
#define CHIP_SELECT QUIKEVAL_CS  // Chip select pin
//float Tf;
// Function prototypes
void configure_memory_table();
void configure_channels();
void configure_global_parameters();
// -------------- Configure the LTC2984 -------------------------------
void setup()
{
  char demo_name[] = "DC2399";   // Demo Board Name stored in QuikEval EEPROM
  quikeval_I2C_init();          // Configure the EEPROM I2C port for 100kHz
  quikeval_SPI_init();          // Configure the spi port for 4MHz SCK
  quikeval_SPI_connect();       // Connect SPI to main data port
  pinMode(CHIP_SELECT, OUTPUT); // Configure chip select pin on Linduino
  Serial.begin(9600);         // Initialize the serial port to the PC
  //  mySerial.begin(38400);
  configure_channels();
  configure_memory_table();
  configure_global_parameters();
}


void configure_channels()
{
  uint8_t channel_number;
  uint32_t channel_assignment_data;

  // ----- Channel 2: Assign Sense Resistor -----
  channel_assignment_data =
    SENSOR_TYPE__SENSE_RESISTOR |
    (uint32_t) 0x61A8000 << SENSE_RESISTOR_VALUE_LSB;		// sense resistor - value: 100000.
  assign_channel(CHIP_SELECT, 2, channel_assignment_data);
  // ----- Channel 4: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 4, channel_assignment_data);
  // ----- Channel 6: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 6, channel_assignment_data);
  // ----- Channel 8: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 8, channel_assignment_data);
  // ----- Channel 10: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 10, channel_assignment_data);
  // ----- Channel 12: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 12, channel_assignment_data);
  // ----- Channel 14: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 14, channel_assignment_data);
  // ----- Channel 16: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 16, channel_assignment_data);
  // ----- Channel 18: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 18, channel_assignment_data);
  // ----- Channel 20: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 20, channel_assignment_data);

}


void configure_memory_table()
{
  uint16_t start_address;
  uint16_t table_length;
  // int i;


  // -- Channel 4 Steinhart-Hart --
  uint32_t ch_4_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_4_steinhart_hart_coefficients, start_address);

  // -- Channel 6 Steinhart-Hart --
  uint32_t ch_6_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_6_steinhart_hart_coefficients, start_address);

  // -- Channel 8 Steinhart-Hart --
  uint32_t ch_8_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_8_steinhart_hart_coefficients, start_address);

  // -- Channel 10 Steinhart-Hart --
  uint32_t ch_10_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_10_steinhart_hart_coefficients, start_address);

  // -- Channel 12 Steinhart-Hart --
  uint32_t ch_12_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_12_steinhart_hart_coefficients, start_address);

  // -- Channel 14 Steinhart-Hart --
  uint32_t ch_14_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_14_steinhart_hart_coefficients, start_address);

  // -- Channel 16 Steinhart-Hart --
  uint32_t ch_16_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_16_steinhart_hart_coefficients, start_address);

  // -- Channel 18 Steinhart-Hart --
  uint32_t ch_18_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_18_steinhart_hart_coefficients, start_address);

  // -- Channel 20 Steinhart-Hart --
  uint32_t ch_20_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_20_steinhart_hart_coefficients, start_address);


}



void configure_global_parameters()
{
  // -- Set global parameters
  transfer_byte(CHIP_SELECT, WRITE_TO_RAM, 0xF0, TEMP_UNIT__C |
                REJECTION__50_60_HZ);
  // -- Set any extra delay between conversions (in this case, 0*100us)
  transfer_byte(CHIP_SELECT, WRITE_TO_RAM, 0xFF, 0);
}

// -------------- Run the LTC2984 -------------------------------------

void loop()
{
  measure_channel(CHIP_SELECT, 4, TEMPERATURE);      // Ch 4: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 6, TEMPERATURE);      // Ch 6: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 8, TEMPERATURE);      // Ch 8: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 10, TEMPERATURE);     // Ch 10: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 12, TEMPERATURE);     // Ch 12: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 14, TEMPERATURE);     // Ch 14: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 16, TEMPERATURE);     // Ch 16: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 18, TEMPERATURE);     // Ch 18: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 20, TEMPERATURE);     // Ch 20: Thermistor Custom Steinhart-Hart
  Serial.print("Hello");

}

Please paste the code inline for better viewing. Although i cant go through the entire code.
What i can say is Software serial needs continous processor attention and if you are doing something heavy in your loop it will mess up the polling and reading process. So dont use any hanging code in the loop which might prevent processor from servicing the software serial.
My guess is your Temperature read code is taking more processor execution time and not letting the software serial to be serviced.

Okay i am pasting my code inline. But to explain you my code structure i want to tell you that in my sketch there are 4 tabs (.ino tab , LTC 2984 configuration constants.h , LTC 2984 support functions.cpp , LTC 2984 support functions.h, LTC 2984 table coefficients.h).

#include <Arduino.h>
#include <stdint.h>
#include <stdbool.h>
#include "SPI.h"
#include "Wire.h"
#include "Linduino.h"
#include "LT_SPI.h"
#include "UserInterface.h"
#include "LT_I2C.h"
#include "QuikEval_EEPROM.h"
#include "stdio.h"
#include "math.h"

#include "LTC2984_configuration_constants.h"
#include "LTC2984_support_functions.h"
#include "LTC2984_table_coeffs.h"
//#include <SoftwareSerial.h>
//SoftwareSerial mySerial(8, 9);
#define CHIP_SELECT QUIKEVAL_CS  // Chip select pin
//float Tf;
// Function prototypes
void configure_memory_table();
void configure_channels();
void configure_global_parameters();
// -------------- Configure the LTC2984 -------------------------------
void setup()
{
  char demo_name[] = "DC2399";   // Demo Board Name stored in QuikEval EEPROM
  quikeval_I2C_init();          // Configure the EEPROM I2C port for 100kHz
  quikeval_SPI_init();          // Configure the spi port for 4MHz SCK
  quikeval_SPI_connect();       // Connect SPI to main data port
  pinMode(CHIP_SELECT, OUTPUT); // Configure chip select pin on Linduino
  Serial.begin(9600);         // Initialize the serial port to the PC
  //  mySerial.begin(38400);
  configure_channels();
  configure_memory_table();
  configure_global_parameters();
}


void configure_channels()
{
  uint8_t channel_number;
  uint32_t channel_assignment_data;

  // ----- Channel 2: Assign Sense Resistor -----
  channel_assignment_data =
    SENSOR_TYPE__SENSE_RESISTOR |
    (uint32_t) 0x61A8000 << SENSE_RESISTOR_VALUE_LSB;		// sense resistor - value: 100000.
  assign_channel(CHIP_SELECT, 2, channel_assignment_data);
  // ----- Channel 4: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 4, channel_assignment_data);
  // ----- Channel 6: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 6, channel_assignment_data);
  // ----- Channel 8: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 8, channel_assignment_data);
  // ----- Channel 10: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 10, channel_assignment_data);
  // ----- Channel 12: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 12, channel_assignment_data);
  // ----- Channel 14: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 14, channel_assignment_data);
  // ----- Channel 16: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 16, channel_assignment_data);
  // ----- Channel 18: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 18, channel_assignment_data);
  // ----- Channel 20: Assign Thermistor Custom Steinhart-Hart -----
  channel_assignment_data =
    SENSOR_TYPE__THERMISTOR_CUSTOM_STEINHART_HART |
    THERMISTOR_RSENSE_CHANNEL__2 |
    THERMISTOR_DIFFERENTIAL |
    THERMISTOR_EXCITATION_MODE__SHARING_ROTATION |
    THERMISTOR_EXCITATION_CURRENT__10UA |
    (uint32_t) 0x0 << THERMISTOR_CUSTOM_ADDRESS_LSB;		// thermistor - custom address: 0.
  assign_channel(CHIP_SELECT, 20, channel_assignment_data);

}


void configure_memory_table()
{
  uint16_t start_address;
  uint16_t table_length;
  // int i;


  // -- Channel 4 Steinhart-Hart --
  uint32_t ch_4_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_4_steinhart_hart_coefficients, start_address);

  // -- Channel 6 Steinhart-Hart --
  uint32_t ch_6_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_6_steinhart_hart_coefficients, start_address);

  // -- Channel 8 Steinhart-Hart --
  uint32_t ch_8_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_8_steinhart_hart_coefficients, start_address);

  // -- Channel 10 Steinhart-Hart --
  uint32_t ch_10_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_10_steinhart_hart_coefficients, start_address);

  // -- Channel 12 Steinhart-Hart --
  uint32_t ch_12_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_12_steinhart_hart_coefficients, start_address);

  // -- Channel 14 Steinhart-Hart --
  uint32_t ch_14_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_14_steinhart_hart_coefficients, start_address);

  // -- Channel 16 Steinhart-Hart --
  uint32_t ch_16_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_16_steinhart_hart_coefficients, start_address);

  // -- Channel 18 Steinhart-Hart --
  uint32_t ch_18_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_18_steinhart_hart_coefficients, start_address);

  // -- Channel 20 Steinhart-Hart --
  uint32_t ch_20_steinhart_hart_coefficients[] =
  {
    989872854,  // -- For coefficient 0.00195710873231
    941982125,  // -- For coefficient 3.94598355342e-05
    0,  // -- For coefficient 0.0
    891366754,  // -- For coefficient 6.00432144893e-07
    0,  // -- For coefficient 0.0
    0   // -- For coefficient 0.0
  };
  start_address = 592;	// Real address = 6*0 + 0x250 = 592
  write_custom_steinhart_hart(CHIP_SELECT, ch_20_steinhart_hart_coefficients, start_address);


}



void configure_global_parameters()
{
  // -- Set global parameters
  transfer_byte(CHIP_SELECT, WRITE_TO_RAM, 0xF0, TEMP_UNIT__C |
                REJECTION__50_60_HZ);
  // -- Set any extra delay between conversions (in this case, 0*100us)
  transfer_byte(CHIP_SELECT, WRITE_TO_RAM, 0xFF, 0);
}

// -------------- Run the LTC2984 -------------------------------------

void loop()
{
  measure_channel(CHIP_SELECT, 4, TEMPERATURE);      // Ch 4: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 6, TEMPERATURE);      // Ch 6: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 8, TEMPERATURE);      // Ch 8: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 10, TEMPERATURE);     // Ch 10: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 12, TEMPERATURE);     // Ch 12: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 14, TEMPERATURE);     // Ch 14: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 16, TEMPERATURE);     // Ch 16: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 18, TEMPERATURE);     // Ch 18: Thermistor Custom Steinhart-Hart
  measure_channel(CHIP_SELECT, 20, TEMPERATURE);     // Ch 20: Thermistor Custom Steinhart-Hart
}

LTC 2984 Support functions.cpp (.cpp file)

#include <Arduino.h>
#include <stdint.h>
#include "Linduino.h"
#include "LT_SPI.h"
#include <SPI.h>
#include "UserInterface.h"
#include "LT_I2C.h"
#include "QuikEval_EEPROM.h"
#include "LTC2984_configuration_constants.h"
#include "LTC2984_table_coeffs.h"
#include "LTC2984_support_functions.h"
#include <SoftwareSerial.h>
//! Prints the title block when program first starts.
//float Tf;
void print_title()
{
//  Serial.print(F("\n******************************************************************\n"));
//  Serial.print(F(" LTC2984 Demonstration Program                      \n"));
//  Serial.print(F("                                                                \n"));
//  Serial.print(F(" This program demonstrates how to read the multi-sensor         \n"));
//  Serial.print(F(" temperature measurement system.                                \n"));
//  Serial.print(F("                                                                \n"));
//  Serial.print(F(" Set the baud rate to 115200 and select the newline terminator. \n"));
//  Serial.print(F("******************************************************************\n"));
}

// ***********************
// Program the part
// ***********************
void assign_channel(uint8_t chip_select, uint8_t channel_number, uint32_t channel_assignment_data)
{
  uint16_t start_address = get_start_address(CH_ADDRESS_BASE, channel_number);
  transfer_four_bytes(chip_select, WRITE_TO_RAM, start_address, channel_assignment_data);
}


void write_custom_table(uint8_t chip_select, struct table_coeffs coefficients[64], uint16_t start_address, uint8_t table_length)
{
  int8_t i;
  uint32_t coeff;

  output_low(chip_select);

  SPI.transfer(WRITE_TO_RAM);
  SPI.transfer(highByte(start_address));
  SPI.transfer(lowByte(start_address));

  for (i=0; i< table_length; i++)
  {
    coeff = coefficients[i].measurement;
    SPI.transfer((uint8_t)(coeff >> 16));
    SPI.transfer((uint8_t)(coeff >> 8));
    SPI.transfer((uint8_t)coeff);

    coeff = coefficients[i].temperature;
    SPI.transfer((uint8_t)(coeff >> 16));
    SPI.transfer((uint8_t)(coeff >> 8));
    SPI.transfer((uint8_t)coeff);
  }
  output_high(chip_select);
}


void write_custom_steinhart_hart(uint8_t chip_select, uint32_t steinhart_hart_coeffs[6], uint16_t start_address)
{
  int8_t i;
  uint32_t coeff;

  output_low(chip_select);

  SPI.transfer(WRITE_TO_RAM);
  SPI.transfer(highByte(start_address));
  SPI.transfer(lowByte(start_address));

  for (i = 0; i < 6; i++)
  {
    coeff = steinhart_hart_coeffs[i];
    SPI.transfer((uint8_t)(coeff >> 24));
    SPI.transfer((uint8_t)(coeff >> 16));
    SPI.transfer((uint8_t)(coeff >> 8));
    SPI.transfer((uint8_t)coeff);
  }
  output_high(chip_select);
}


// ******************************
// EEPROM transfer
// ******************************
void eeprom_transfer(uint8_t chip_select, uint8_t eeprom_read_or_write)
// Read from or write to the EEPROM.
// To read from the EEPROM, pass READ_FROM_EEPROM into eeprom_read_or_write.
// To write to the EEPROM, pass WRITE_TO_EEPROM into eeprom_read_or_write.
{
  uint8_t eeprom_status;
//  Serial.println("** EEPROM transfer started ** ");

  // Set EEPROM key
  transfer_four_bytes(chip_select, WRITE_TO_RAM, EEPROM_START_ADDRESS, EEPROM_KEY);

  // Set EEPROM read/write
  transfer_byte(chip_select, WRITE_TO_RAM, COMMAND_STATUS_REGISTER, eeprom_read_or_write);

  // Wait for read/write to finish
  wait_for_process_to_finish(chip_select);

  // Check for success
  eeprom_status = transfer_byte(chip_select, READ_FROM_RAM, EEPROM_STATUS_REGISTER, 0);
  if (eeprom_status == 0)
  {
//    Serial.println("** EEPROM transfer succeeded ** ");
  }
  else
  {
    //Serial.print(F("** EEPROM transfer had a problem. Status byte ="));
    //Serial.println(eeprom_status);
  }
}



// *****************
// Measure channel
// *****************
void measure_channel(uint8_t chip_select, uint8_t channel_number, uint8_t channel_output)
{
    convert_channel(chip_select, channel_number);
    get_result(chip_select, channel_number, channel_output);
}


void convert_channel(uint8_t chip_select, uint8_t channel_number)
{
  // Start conversion
  transfer_byte(chip_select, WRITE_TO_RAM, COMMAND_STATUS_REGISTER, CONVERSION_CONTROL_BYTE | channel_number);

  wait_for_process_to_finish(chip_select);
}


void wait_for_process_to_finish(uint8_t chip_select)
{
  uint8_t process_finished = 0;
  uint8_t data;
  while (process_finished == 0)
  {
    data = transfer_byte(chip_select, READ_FROM_RAM, COMMAND_STATUS_REGISTER, 0);
    process_finished  = data & 0x40;
  }
}


// *********************************
// Get results
// *********************************
void get_result(uint8_t chip_select, uint8_t channel_number, uint8_t channel_output)
{
  uint32_t raw_data;
  uint8_t fault_data;
  uint16_t start_address = get_start_address(CONVERSION_RESULT_MEMORY_BASE, channel_number);
  uint32_t raw_conversion_result;

  raw_data = transfer_four_bytes(chip_select, READ_FROM_RAM, start_address, 0);

//  Serial.print(F("Channel ")); // Removed \n For channel number
//  Serial.print(channel_number); // removed ln 

  // 24 LSB's are conversion result
  raw_conversion_result = raw_data & 0xFFFFFF;
  print_conversion_result(raw_conversion_result, channel_output,channel_number);

  // If you're interested in the raw voltage or resistance, use the following
  if (channel_output != VOLTAGE)
  {
    read_voltage_or_resistance_results(chip_select, channel_number);
  }

  // 8 MSB's show the fault data
  fault_data = raw_data >> 24;
  print_fault_data(fault_data);
}


void print_conversion_result(uint32_t raw_conversion_result, uint8_t channel_output, uint8_t channel_number)
{
  int32_t signed_data = raw_conversion_result;
  float scaled_result;
  float Tf;
  SoftwareSerial mySerial(8, 9);
  mySerial.begin(9600);
  // Convert the 24 LSB's into a signed 32-bit integer
  if(signed_data & 0x800000)
    signed_data = signed_data | 0xFF000000;

  // Translate and print result
  if (channel_output == TEMPERATURE)
  {
    scaled_result = float(signed_data) / 1024;
    //mySerial.print(F("  Temperature = "));
    Tf = (scaled_result)*1.8 + 32 ;
    //return Tf;
    switch (channel_number)
    {
    case 4:
    mySerial.print("t0.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 6:
    mySerial.print("t1.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 8:
    mySerial.print("t2.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 10:
    mySerial.print("t3.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 12:
    mySerial.print("t4.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 14: 
    mySerial.print("t5.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 16: 
    mySerial.print("t6.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 18: 
    mySerial.print("t7.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
    case 20:
    mySerial.print("t8.txt=");
    mySerial.write(0x22);
    mySerial.print(Tf);
    mySerial.write(0x22);
    mySerial.write(0xff);
    mySerial.write(0xff);
    mySerial.write(0xff);
    Serial.print(Tf);
    Serial.print(",");
    delay(500);
    break;
  }
  }
  else if (channel_output == VOLTAGE)
  {
    scaled_result = float(signed_data) / 2097152;
//    mySerial.print(F("  Direct ADC reading in V = "));
//    mySerial.println(scaled_result);
   
  }
//  return Tf;
  
}


void read_voltage_or_resistance_results(uint8_t chip_select, uint8_t channel_number)
{
  int32_t raw_data;
  float voltage_or_resistance_result;
  uint16_t start_address = get_start_address(VOUT_CH_BASE, channel_number);

  raw_data = transfer_four_bytes(chip_select, READ_FROM_RAM, start_address, 0);
  voltage_or_resistance_result = (float)raw_data/1024;
//  Serial.print(F("  Voltage or resistance = "));
//  Serial.println(voltage_or_resistance_result);
}


// Translate the fault byte into usable fault data and print it out
void print_fault_data(uint8_t fault_byte)
{
  //
//  Serial.print(F("  FAULT DATA = "));
//  Serial.println(fault_byte, BIN);

  if (fault_byte & SENSOR_HARD_FAILURE)
    //Serial.println(F("  - SENSOR HARD FALURE"));
  if (fault_byte & ADC_HARD_FAILURE)
   // Serial.println(F("  - ADC_HARD_FAILURE"));
  if (fault_byte & CJ_HARD_FAILURE)
    //Serial.println(F("  - CJ_HARD_FAILURE"));
  if (fault_byte & CJ_SOFT_FAILURE)
    //Serial.println(F("  - CJ_SOFT_FAILURE"));
  if (fault_byte & SENSOR_ABOVE)
    //Serial.println(F("  - SENSOR_ABOVE"));
  if (fault_byte & SENSOR_BELOW)
    //Serial.println(F("  - SENSOR_BELOW"));
  if (fault_byte & ADC_RANGE_ERROR)
   // Serial.println(F("  - ADC_RANGE_ERROR"));
  if (!(fault_byte & VALID))
    //Serial.println(F("INVALID READING !!!!!!"));
  if (fault_byte == 0b11111111)
   ;
   //Serial.println(F("CONFIGURATION ERROR !!!!!!"));
}

// *********************
// SPI RAM data transfer
// *********************
// To write to the RAM, set ram_read_or_write = WRITE_TO_RAM.
// To read from the RAM, set ram_read_or_write = READ_FROM_RAM.
// input_data is the data to send into the RAM. If you are reading from the part, set input_data = 0.

uint32_t transfer_four_bytes(uint8_t chip_select, uint8_t ram_read_or_write, uint16_t start_address, uint32_t input_data)
{
  uint32_t output_data;
  uint8_t tx[7], rx[7];

  tx[6] = ram_read_or_write;
  tx[5] = highByte(start_address);
  tx[4] = lowByte(start_address);
  tx[3] = (uint8_t)(input_data >> 24);
  tx[2] = (uint8_t)(input_data >> 16);
  tx[1] = (uint8_t)(input_data >> 8);
  tx[0] = (uint8_t) input_data;

  spi_transfer_block(chip_select, tx, rx, 7);

  output_data = (uint32_t) rx[3] << 24 |
                (uint32_t) rx[2] << 16 |
                (uint32_t) rx[1] << 8  |
                (uint32_t) rx[0];

  return output_data;
}


uint8_t transfer_byte(uint8_t chip_select, uint8_t ram_read_or_write, uint16_t start_address, uint8_t input_data)
{
  uint8_t tx[4], rx[4];

  tx[3] = ram_read_or_write;
  tx[2] = (uint8_t)(start_address >> 8);
  tx[1] = (uint8_t)start_address;
  tx[0] = input_data;
  spi_transfer_block(chip_select, tx, rx, 4);
  return rx[0];
}


// ******************************
// Misc support functions
// ******************************
uint16_t get_start_address(uint16_t base_address, uint8_t channel_number)
{
  return base_address + 4 * (channel_number-1);
}


bool is_number_in_array(uint8_t number, uint8_t *array, uint8_t array_length)
// Find out if a number is an element in an array
{
  bool found = false;
  for (uint8_t i=0; i< array_length; i++)
  {
    if (number == array[i])
    {
      found = true;
    }
  }
  return found;
}

LTC_2984_Support functions.h

void print_title();
void assign_channel(uint8_t chip_select, uint8_t channel_number, uint32_t channel_assignment_data);
void write_custom_table(uint8_t chip_select, struct table_coeffs coefficients[64], uint16_t start_address, uint8_t table_length);
void write_custom_steinhart_hart(uint8_t chip_select, uint32_t steinhart_hart_coeffs[6], uint16_t start_address);

void measure_channel(uint8_t chip_select, uint8_t channel_number, uint8_t channel_output);
void convert_channel(uint8_t chip_select, uint8_t channel_number);
void wait_for_process_to_finish(uint8_t chip_select);

void get_result(uint8_t chip_select, uint8_t channel_number, uint8_t channel_output);
void print_conversion_result(uint32_t raw_conversion_result, uint8_t channel_output,uint8_t channel_number);
void read_voltage_or_resistance_results(uint8_t chip_select, uint8_t channel_number);
void print_fault_data(uint8_t fault_byte);


void eeprom_transfer(uint8_t chip_select, uint8_t read_or_write);


uint32_t transfer_four_bytes(uint8_t chip_select, uint8_t read_or_write, uint16_t start_address, uint32_t input_data);
uint8_t transfer_byte(uint8_t chip_select, uint8_t read_or_write, uint16_t start_address, uint8_t input_data);

uint16_t get_start_address(uint16_t base_address, uint8_t channel_number);
bool is_number_in_array(uint8_t number, uint8_t *array, uint8_t array_length);

In the code above measure channel is the calling function for printing temperature results.
I am not getting result of software and hardware serial simultaneously.
But individually i am getting result of each of them i.e software serial and hardware serial one by one.

As i said, your software is hanging somewhere, You should do event driven programming, but if your code needs delays you should switch to dual UART MCU.
Software UART wont work for complex code, it needs processor attention continously.

Thanks a lot Sir!!
I solved the issue.

That is good :slight_smile:
If possible, Share the solution to the community so that others can benefit too .

yes sure!!
I have done event driven programming as suggested by you.
Thanks,
Shivam

I have priortized software interrupt over hardware interrupt.
And before listening to software interrupt i am deliberately pulling software interrupt down.

Thats good :slight_smile:
Thanks for sharing.

No issues…it is just a contribution to the good work you are doing.

1 Like