80x64 Thermopile Infrared Array
R2L3.9/0.8 HiC
HTPA80x64dR2L4.8/0.8 HiC
HTPA80x64dR2L10/0.7F7.7 HiC
HTPA80x64dR2L10.5/0.95F7.7 HiC
HTPA80x64dR2L21.5/0.9 HiC[Ge/Si]
HTPA80x64dR2L33/1.05 HiC
The HTPA80x64d is a small size, high performance, low cost thermopile infrared array for thermal imaging inside a TO-8 housing.
Due to the digital SPI interface, only six pins are needed for operation. It has a 16-bit ADC and built-in EEPROM stores all calibration data. The framerate can be set individually and depends on the sensor clock and ADC resolution.
For high 16-bit resolution, framerates of up to 20 Hz are possible, while lower ADC resolutions allow framerates of up to 30 Hz and more. Different available optical lenses, integrated with the array in TO-8 housing, provide fields of view (FOV) from 12x9 degree up to 120x90 degree.
80x64 thermopile pixels
True shutterless operation
12x9° to 120x90° FOV
High framerates of 9 Hz to 60 Hz
16-bit ADC resolution
High object temperature range
Power supply voltage (DC) 3.3+0.3/-0.0 V
The current consumption is 25 ± 5
Clock frequency (sensor) 5 ± 3 MHz
Ambient temperature range - 20 to 85 ° C
Object temperature range - 20 to>1000 ° C
Frame rate (full frame) 2 to 60 Hz
Frame rate (quarter frame) 8 to 240 Hz
Field of application: temperature measurement
Introduction to temperature sensor: Heiman infrared high-precision temperature sensor can measure the temperature of objects in the field of view through infrared imaging, and the accuracy of temperature measurement can be ± 0.2 ℃ through the algorithm.
80x64 Thermopile Infrared Array
R2L3.9/0.8 HiC
HTPA80x64dR2L4.8/0.8 HiC
HTPA80x64dR2L10/0.7F7.7 HiC
HTPA80x64dR2L10.5/0.95F7.7 HiC
HTPA80x64dR2L21.5/0.9 HiC[Ge/Si]
HTPA80x64dR2L33/1.05 HiC
The HTPA80x64d is a small size, high performance, low cost thermopile infrared array for thermal imaging inside a TO-8 housing.
Due to the digital SPI interface, only six pins are needed for operation. It has a 16-bit ADC and built-in EEPROM stores all calibration data. The framerate can be set individually and depends on the sensor clock and ADC resolution.
For high 16-bit resolution, framerates of up to 20 Hz are possible, while lower ADC resolutions allow framerates of up to 30 Hz and more. Different available optical lenses, integrated with the array in TO-8 housing, provide fields of view (FOV) from 12x9 degree up to 120x90 degree.
80x64 thermopile pixels
True shutterless operation
12x9° to 120x90° FOV
High framerates of 9 Hz to 60 Hz
16-bit ADC resolution
High object temperature range
Power supply voltage (DC) 3.3+0.3/-0.0 V
The current consumption is 25 ± 5
Clock frequency (sensor) 5 ± 3 MHz
Ambient temperature range - 20 to 85 ° C
Object temperature range - 20 to>1000 ° C
Frame rate (full frame) 2 to 60 Hz
Frame rate (quarter frame) 8 to 240 Hz
Field of application: temperature measurement
Introduction to temperature sensor: Heiman infrared high-precision temperature sensor can measure the temperature of objects in the field of view through infrared imaging, and the accuracy of temperature measurement can be ± 0.2 ℃ through the algorithm.
80x64 Thermopile Infrared Array
R2L3.9/0.8 HiC
HTPA80x64dR2L4.8/0.8 HiC
HTPA80x64dR2L10/0.7F7.7 HiC
HTPA80x64dR2L10.5/0.95F7.7 HiC
HTPA80x64dR2L21.5/0.9 HiC[Ge/Si]
HTPA80x64dR2L33/1.05 HiC
The HTPA80x64d is a small size, high performance, low cost thermopile infrared array for thermal imaging inside a TO-8 housing.
Due to the digital SPI interface, only six pins are needed for operation. It has a 16-bit ADC and built-in EEPROM stores all calibration data. The framerate can be set individually and depends on the sensor clock and ADC resolution.
For high 16-bit resolution, framerates of up to 20 Hz are possible, while lower ADC resolutions allow framerates of up to 30 Hz and more. Different available optical lenses, integrated with the array in TO-8 housing, provide fields of view (FOV) from 12x9 degree up to 120x90 degree.
80x64 thermopile pixels
True shutterless operation
12x9° to 120x90° FOV
High framerates of 9 Hz to 60 Hz
16-bit ADC resolution
High object temperature range
Power supply voltage (DC) 3.3+0.3/-0.0 V
The current consumption is 25 ± 5
Clock frequency (sensor) 5 ± 3 MHz
Ambient temperature range - 20 to 85 ° C
Object temperature range - 20 to>1000 ° C
Frame rate (full frame) 2 to 60 Hz
Frame rate (quarter frame) 8 to 240 Hz
Field of application: temperature measurement
Introduction to temperature sensor: Heiman infrared high-precision temperature sensor can measure the temperature of objects in the field of view through infrared imaging, and the accuracy of temperature measurement can be ± 0.2 ℃ through the algorithm.
80x64 Thermopile Infrared Array
R2L3.9/0.8 HiC
HTPA80x64dR2L4.8/0.8 HiC
HTPA80x64dR2L10/0.7F7.7 HiC
HTPA80x64dR2L10.5/0.95F7.7 HiC
HTPA80x64dR2L21.5/0.9 HiC[Ge/Si]
HTPA80x64dR2L33/1.05 HiC
The HTPA80x64d is a small size, high performance, low cost thermopile infrared array for thermal imaging inside a TO-8 housing.
Due to the digital SPI interface, only six pins are needed for operation. It has a 16-bit ADC and built-in EEPROM stores all calibration data. The framerate can be set individually and depends on the sensor clock and ADC resolution.
For high 16-bit resolution, framerates of up to 20 Hz are possible, while lower ADC resolutions allow framerates of up to 30 Hz and more. Different available optical lenses, integrated with the array in TO-8 housing, provide fields of view (FOV) from 12x9 degree up to 120x90 degree.
80x64 thermopile pixels
True shutterless operation
12x9° to 120x90° FOV
High framerates of 9 Hz to 60 Hz
16-bit ADC resolution
High object temperature range
Power supply voltage (DC) 3.3+0.3/-0.0 V
The current consumption is 25 ± 5
Clock frequency (sensor) 5 ± 3 MHz
Ambient temperature range - 20 to 85 ° C
Object temperature range - 20 to>1000 ° C
Frame rate (full frame) 2 to 60 Hz
Frame rate (quarter frame) 8 to 240 Hz
Field of application: temperature measurement
Introduction to temperature sensor: Heiman infrared high-precision temperature sensor can measure the temperature of objects in the field of view through infrared imaging, and the accuracy of temperature measurement can be ± 0.2 ℃ through the algorithm.