Honeywell Technologies HSCDANN060PGSA3 Pressure SensorBoard 8 DIP

RS-stocknr.:: 226-9645
Fabrikantnummer:: HSCDANN060PGSA3
Fabrikant:: Honeywell

Honeywell Technologies HSCDANN060PGSA3 Pressure SensorBoard 8 DIP

Subtotaal (50 eenheden, in een doos van 50)*

€ 2.391,00

(excl. BTW)

€ 2.893,00

(incl. BTW)

GRATIS bezorging voor bestellingen vanaf € 90,00

Tijdelijk niet op voorraad

Verzending vanaf 28 december 2026

Heeft u meer nodig? Klik op 'Controleer leverdata' voor extra voorraad en levertijden.

Aantal stuks	Per stuk	Per Doos*
50 +	€ 47,82	€ 2.391,00

*prijsindicatie

RS-stocknr.:: 226-9645
Fabrikantnummer:: HSCDANN060PGSA3
Fabrikant:: Honeywell

Specificaties

Datasheets

Wetgeving en conformiteit

Productomschrijving

Zoek vergelijkbare producten door een of meer kenmerken te selecteren.

Alles selecteren	Attribuut	Waarde
	Merk	Honeywell
	Sensor Type	Piezoresistive Pressure Sensor
	Product Type	Pressure Sensor
	Maximum Overload Pressure	827kPa
	Mount Type	Board
	Package Type	DIP
	Pin Count	8
	Minimum Supply Voltage	3.3V
	Maximum Operating Pressure	413 kPa
	Maximum Supply Voltage	5V
	Port Type	Single Axial Barbed
	Accuracy	±0.25 %
	Maximum Operating Temperature	+85°C
	Height	13.75mm
	Length	10mm
	Standards/Approvals	ISO 9001
	Series	HSC
	Minimum Operating Pressure	0kPa
	Minimum Operating Temperature	-20°C
	Automotive Standard	ISO 9001

	Alles selecteren
	Merk Honeywell
	Sensor Type Piezoresistive Pressure Sensor
	Product Type Pressure Sensor
	Maximum Overload Pressure 827kPa
	Mount Type Board
	Package Type DIP
	Pin Count 8
	Minimum Supply Voltage 3.3V
	Maximum Operating Pressure 413 kPa
	Maximum Supply Voltage 5V
	Port Type Single Axial Barbed
	Accuracy ±0.25 %
	Maximum Operating Temperature +85°C
	Height 13.75mm
	Length 10mm
	Standards/Approvals ISO 9001
	Series HSC
	Minimum Operating Pressure 0kPa
	Minimum Operating Temperature -20°C
	Automotive Standard ISO 9001

Datasheet - HSCDANN060PGSA3

Honeywell HSC Series Pressure Sensor, ±0.25% Accuracy, +85°C Maximum Operating Temperature - HSCDANN060PGSA3

This pressure sensor is a piezoresistive board-mounted transducer designed to provide calibrated, temperature-compensated pressure measurement for non-corrosive gases and select liquids. It delivers ratiometric analogue or digital outputs and is optimised for PCB integration in industrial and automotive contexts, operating across a wide temperature range and offering very low power consumption.

Features and Benefits:

• ±0.25% accuracy reduces system calibration requirements
• Compensated output across 0°C to 50°C provides stable readings
• On-board ASIC updates analogue at ∼1kHz and digital at ∼2kHz
• Low power consumption under 10mW enables battery operation
• Available digital I2C or SPI output for direct microprocessor Interface
• Single axial barbed port option simplifies fluid connection

Applications

• Used for respiratory and ventilator pressure monitoring systems
• Suitable for HVAC flow and clogged-filter detection systems
• Ideal for gas flow instrumentation and chromatography equipment
• Can be used for on-board automotive pressure sensing tasks
• Used with flow calibrators and barometry instruments

What media can be measured with this device?

It is intended for non-corrosive, non-ionic gases, liquid-media options are available for pressure ranges above 40 mbar.

What supply voltages and outputs are supported?

The sensor operates from either 3.3 V or 5.0 V supplies and offers ratiometric analogue or 14-bit digital outputs compatible with I2C or SPI.

How does temperature affect performance during use?

The device is characterised for operation from -20°C to +85°C and is temperature compensated over 0°C to 50°C to limit thermal-induced errors.

What mechanical port and package options exist for PCB mounting?

Board-mounted packages include DIP and SMT forms with options such as single axial barbed ports and various port orientations.

How is long-term stability addressed?

Proprietary silicon-ceramic construction and on-board calibration deliver industry-leading stability with minimal part-to-part variation over time.