Laboratory & Research Pressure Sensors
Laboratory and research environments place unique demands on pressure instrumentation. Unlike production-line sensors that repeat the same measurement day after day, laboratory transmitters must adapt to constantly changing experimental setups, cover wide or unusual pressure ranges, deliver the highest possible accuracy, and interface cleanly with data acquisition systems that vary from one project to the next. Whether the application is a university fluid dynamics rig, a materials testing laboratory, a national standards calibration facility, a pharmaceutical R&D pilot plant, or an aerospace wind tunnel, the sensor must provide measurement data that researchers can trust and publish with confidence. Stork Solutions supplies a range of precision pressure transmitters, digital pressure sensors, high-pressure transmitters, OEM pressure sensors, and digital pressure gauges that meet the exacting requirements of laboratory and research applications. With outputs spanning millivolt, 4-20 mA, 0-10 V, RS485 Modbus RTU, IO-Link, I2C, and SDI-12, our sensors connect to virtually any data logger, PLC, or PC-based acquisition system. Stork Solutions supports researchers, laboratory managers, and instrument technicians with application guidance, product selection, calibration documentation, and ongoing technical assistance.
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Key Laboratory & Research Applications:
Precision Pressure Transmitters for Experimental Rigs and Calibration Laboratories
Research experiments and calibration procedures demand pressure sensors with the lowest possible measurement uncertainty. A sensor that is “good enough” for a production process may introduce unacceptable error into a research dataset or a calibration chain. The DMP 331i / DMP 333i Precision Pressure Transmitters are engineered for exactly these applications. Featuring 16-bit digital signal processing, advanced temperature compensation, and enhanced long-term stability, these transmitters deliver the measurement performance that calibration laboratories, metrology departments, and research institutions require. The DMP 331i covers low-to-medium pressure ranges, while the DMP 333i extends into higher pressures, together spanning the full range of laboratory requirements from vacuum through to several hundred bar. For researchers who need a high-accuracy local reference display alongside a transmitter output, the x|act ci Digital Precision Pressure Gauge combines a high-resolution digital display with precision measurement capability, making it ideal for use as a reference standard on test benches, calibration stations, and pilot plant control panels. The DCT 531 i Precision Pressure Transmitter with RS485 Modbus RTU adds digital bus communication for multi-point measurement setups where several sensors feed into a single data acquisition system, a configuration common in university research laboratories and multi-channel test rigs.
Fast-Response and Dynamic Pressure Measurement for Research Applications
Many research disciplines involve pressure phenomena that change on timescales measured in microseconds. Shock tube experiments, combustion research, cavitation studies, ballistic testing, and fluid-structure interaction investigations all generate pressure transients that standard industrial transmitters cannot capture. The DMP 320 Precision Pressure Transmitter with Fast Response Time is purpose-built for dynamic pressure measurement in research environments. With response times as low as 9.5 microseconds and measurement frequencies exceeding 65 kHz at higher pressure ranges, the DMP 320 captures high-speed pressure events with the fidelity that researchers need for accurate characterisation of transient phenomena. Its piezoresistive sensing element and compact stainless steel construction allow direct mounting on pressure vessels, flow channels, and test fixtures where proximity to the measurement point is essential for minimising pneumatic lag. For researchers working with high-pressure test rigs, material fatigue studies, or hydrostatic proof testing, the SHP 1000 High Pressure Transmitter provides measurement capability from 2000 bar to 5000 bar, supporting experimental work at pressures that exceed the range of most laboratory-grade instruments. The DMP 304 Industrial Pressure Transmitter for Ultra High Pressure complements this range for water jet research, supercritical fluid studies, and high-pressure chemistry experiments.
OEM and Embedded Sensors for Custom Laboratory Equipment and Test Fixtures
Research laboratories frequently build bespoke test rigs, flow loops, pressure vessels, and experimental apparatus that require sensors to be embedded directly into custom hardware. Off-the-shelf industrial transmitters with standard housings and cable glands are often too large, too heavy, or mechanically incompatible with one-off laboratory fixtures. Stork Solutions’ OEM pressure sensor range provides compact sensing elements designed for direct integration into custom laboratory equipment. The 17.600 G OEM Pressure Transmitter offers a heavy-duty stainless steel construction in a miniature form factor, suitable for embedding into test fixtures, flow cells, and pressure manifolds. For budget-conscious research groups equipping multi-channel test rigs, the 30.600 G OEM Pressure Transmitter provides a millivolt output sensor at a cost that allows multiple units to be deployed across an experimental setup without exceeding equipment budgets. Where digital output is preferred for direct interface with microcontroller-based data acquisition boards or single-board computers commonly used in university research, the DCT 532 Industrial Pressure Transmitter with I2C Interface provides a digitally calibrated, temperature-compensated pressure signal over a standard I2C bus, simplifying integration into Arduino, Raspberry Pi, and custom embedded data logging platforms.
Vacuum, Absolute, and Barometric Pressure Measurement for Controlled Environments
Many laboratory and research applications require pressure measurement referenced to an absolute vacuum rather than to local atmospheric conditions. Vacuum systems, environmental chambers, altitude simulation rigs, freeze-drying research, thin-film deposition systems, and gas handling manifolds all depend on absolute pressure measurement to produce results that are independent of barometric variation and reproducible across different laboratory locations. The DMP 331 Industrial Pressure Transmitter, available in absolute pressure configurations, provides stable, low-drift measurement for vacuum and low-pressure laboratory systems. For experiments where simultaneous pressure and temperature data are needed from a single measurement point, such as gas law verification, environmental chamber characterisation, or engine test cell ambient monitoring, the ATM/T Dual Output Pressure and Temperature Transmitter delivers both measurements from one compact device, reducing the number of penetrations into sealed chambers and simplifying experimental setups. The SBPT Barometric Pressure and Temperature Transmitter, with its 500 to 1200 mbar range and excellent thermal stability, provides the atmospheric reference signal that laboratories use to normalise experimental data, correct for barometric drift during long-duration tests, and maintain traceable environmental records in climate-controlled research facilities.
Equip Your Laboratory with Sensors That Match Your Research Standards
Research data is only as reliable as the instruments that produce it. Whether you are a university research group commissioning a new experimental rig, a national laboratory upgrading its calibration reference chain, a pharmaceutical R&D team instrumenting a pilot-scale process, or an engineering consultancy building a bespoke test facility, Stork Solutions can help you select the right pressure sensor for the application. Our UK-based technical team understands the documentation, traceability, and measurement uncertainty requirements that laboratory and research environments demand. Contact us today to discuss your application, request datasheets and calibration options, or arrange a technical consultation.