Examples/Data acquisition systems
Data acquisition · Case studies
Data acquisition and monitoring systems Sciotex has designed, programmed and built, from automotive CAN bus logging and remote facility monitoring to physiological measurement in research labs.
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Case studies
Each system was engineered around specific sensors, signals and data requirements. Filter by application, then open a case study for the architecture and measurements.

Reads an automotive computer over CAN bus, logs the data and uses it to set test conditions through DAQ outputs.

Commercial and in-house software for USB microvolume spectrophotometers and a fluorometer, with user methods and custom reports.

Runs time-dependent stimulation recipes and measures physiological responses from multiple subjects at once.
Flexible data acquisition software that runs simultaneous experiments on one PC, each controlling its own hardware setpoints.
Simultaneous monitoring and logging of data from five test stations distributed throughout a laboratory.
Collects physiological data from horses on a treadmill, together with treadmill speed and angle of incline.
Applies complex stimulus voltage waveforms to biological samples while logging and analyzing the tissue response.
Opens and closes car glove boxes automatically while monitoring component forces, with high-speed logging of unusual events.
Monitors and logs the operation of an injection molding machine and alerts operators to fault conditions.

Logs temperature, humidity, particulates and vibration at critical facilities and escalates alarms by text and voice.
Acquires, analyzes and archives 3D maps of the magnetic field around large cylindrical probes used in oil wells, with overlay comparison plots.
Tell us what you need to measure, how fast and how accurately.
Start the conversation →Many of our systems are built under NDA. Ask us about work in your industry.
What we measure
Good data starts at the sensor. These are the details that decide whether a data acquisition system can be trusted.
Sample rates, throughput and the architecture that keeps up with fast signals.
Read the article →What each sensor needs before it reaches the digitizer.
Read the article →Nyquist, filters and choosing a rate that captures the real signal.
Read the article →Cold-junction compensation, accuracy and wiring done right.
Read the article →Finding ground loops and isolating channels before they corrupt data.
Read the article →Ready-to-run, LabVIEW, Python or custom: how to choose.
Read the article →How a project runs
Whether it is one lab rig or a plant-wide monitoring system, every data acquisition project goes through the same four stages.
Channels, sensor types, sample rates and the accuracy budget are defined before hardware is chosen.
Sensors, signal conditioning, isolation and DAQ hardware are selected to meet that budget.
Acquisition, logging, live display, analysis and reports in LabVIEW, Python or C#.
Checked against reference signals, then deployed, documented and supported.
Go deeper
Start a project
Tell us what you need to measure, how fast and how accurately. An engineer will follow up to discuss feasibility and the right architecture.
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