Research & Scientific Instruments

Interlab research instruments include systems for recording visual behaviour, physiological signals and haemodynamic responses. The portfolio covers eye tracking, BIOPAC and fNIRS for scientific studies, product development, ergonomics and user-behaviour research. Instrument selection should begin with the research question, stimulus, participant mobility, synchronisation and data workflow before individual models and accessories are compared.

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BiometricsMain UnitsResearch & Scientific Instruments

Eye TrackingMobile (Glasses)Research & Scientific Instruments

Eye TrackingResearch & Scientific InstrumentsStationary (Screen-based)

Eye TrackingStationary (Screen-based)

Eye TrackingResearch & Scientific InstrumentsStationary (Screen-based)

BiometricsDynamometry (Force & Pressure)EMG (Muscle Activity)Research & Scientific Instruments

BiometricsEMG (Muscle Activity)Research & Scientific Instruments

BiometricsKinematics (Motion & Goniometry)Research & Scientific Instruments

BiometricsSKT (Skin and Ambient Temperature)

BiometricsResearch & Scientific Instruments

BiometricsECG (Heart Activity)Research & Scientific Instruments

BiometricsGSR / EDA (Skin Conductance)Research & Scientific Instruments

EEGResearch & Scientific Instruments

Instruments for behavioural and psychophysiological research

Behavioural research observes participant actions, while psychophysiology adds physiological signals recorded in a defined context. Instruments may measure gaze, task performance and movement together with EDA/GSR, ECG, EMG, respiration or PPG, depending on the acquisition platform and sensors.

Stimulus presentation, recording and analysis should be treated as separate layers. An eye tracker does not replace physiological acquisition, and one physiological signal does not automatically identify an emotional state. A reliable setup requires a hypothesis, controlled protocol and planned synchronisation.

Interlab groups professional research instruments, software and accessories needed to assemble complete experimental setups.

Eye-tracking, biometrics, EEG and fNIRS systems

EEG is not a separate product line within this category. It may be recorded through an appropriately configured BIOPAC path or supplied by an external system and synchronised with the other modalities.

Eye-tracking systems

Screen-based and wearable instruments for gaze measurement. Selection depends on the stimulus, movement, accuracy, sampling rate and study environment.

Biometric measurement systems

BIOPAC platforms for physiological data acquisition with channels, amplifiers, sensors and software matched to the protocol.

fNIRS instruments

Non-invasive measurement of cortical blood-oxygenation changes using near-infrared light. Optode layout and mounting depend on the brain region and movement tolerance.

Multimodal studies require confirmed hardware and software compatibility, event markers and latency tests for the exact models.

Research solutions for science, business and industry

Universities and research centres use these instruments in cognitive, psychophysiological, neuroscience and ergonomics protocols. Business applications include usability, consumer behaviour, communication and product development. Industrial projects may assess interfaces, task load, safety and human–machine interaction.

The same instrument class can serve different fields, but the configuration is not universal. Screen-based eye tracking differs from mobile observation in real space. A wired multisignal BIOPAC laboratory differs from a wireless movement study. fNIRS requires its own optode layout and signal-quality process.

Comparison should therefore cover the full workflow: calibration, synchronisation, event marking, export and analysis, not only the device specification. Infrastructure projects are covered under fibre-optic sensors, while optics and optical-path equipment are grouped under photonics laboratory equipment.

How to select instruments for a behavioural research laboratory

Start by defining the participant, stimulus and response to be measured. Then specify the environment, channels, participant movement, session length, synchronisation and analysis workflow.

  • Research question: define the phenomenon and the measure that will answer it.
  • Environment: screen, physical object, real space, VR or a movement task.
  • Modalities: eye tracking, physiological signals, EEG, fNIRS or a combination.
  • Synchronisation: hardware markers, supported software integrations, time stamps and latency tests.
  • Analysis: export formats, licences, processing and storage.

Include a short protocol, participant count, session length, signal list and existing software in the enquiry. This supports a configuration comparison rather than an arbitrary equipment list.

Describe the protocol and modalities

Specify the stimuli, movement, signals, synchronisation and expected data format.

Ask about research instruments

Frequently asked questions - Research instruments

How does eye tracking differ from biometric measurement?

Eye tracking records gaze position relative to a screen or scene. Biometric systems record physiological and biomechanical signals such as ECG, EDA/GSR, EMG, respiration, force or movement, depending on configuration. The modalities can complement one another but are not interchangeable.

Can eye tracking, BIOPAC and fNIRS be synchronised?

Synchronisation is possible in many configurations, but the method depends on the specific devices, software and required timing accuracy. Define the marker source, interfaces, latency, sampling rates and export format before purchase, then validate the complete target setup.

Does fNIRS measure neuronal activity directly?

No. fNIRS uses near-infrared light to estimate changes in cortical oxy- and deoxyhaemoglobin concentrations. This is a haemodynamic response associated with neuronal activity, not a direct measurement of neuronal electrical signals.

Are BIOPAC systems medical diagnostic devices?

This category covers research and teaching instruments. Whether a particular model can be used in a clinical or diagnostic application depends on its intended use, the manufacturer's documentation and the regulatory requirements for the exact configuration. The signal name alone does not establish a diagnostic use.

What data can be exported from research instruments?

Availability depends on the instrument and software. Outputs may include raw data, events, processed metrics, visualisations and metadata in different formats. Before selecting a system, define the required variables, sampling rate, units, API access and target analysis environment.

What information is needed to select a system?

Provide the research question, task and stimulus type, environment, participant population, movement range, required modalities and channels, timing resolution, devices to be synchronised, and the planned data-analysis and storage workflow.

Which instruments are used in behavioural research?

Depending on the protocol, researchers use screen-based or wearable eye trackers, behavioural recording, physiological acquisition, EEG, fNIRS and software for stimulus presentation and synchronisation. The set should follow the research question.