Precision grip strength measurement system for rodents featuring dual-sized stainless steel plates, 50 N force range, and 0.1g resolution with LED touchscreen display.
Director of Science · ConductScience
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Mouse grip strength was tested before and immediately following live animal return using a 50-N capacity grip strength meter (Conduct Science, Skokie, IL, USA). The person performing the grip strength testing was blinded to the experimental conditions during flight.
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The Grip Strength Test apparatus quantifies neuromuscular function by measuring the maximum tensile force required to induce grip release in rodents. This precision instrument features dual-sized stainless steel gripping plates (20×20 cm for mice, 25×25 cm for rats) coupled with a force sensor capable of detecting forces up to 50 N with 0.1g resolution. The system records both peak force generation and grip release time with 0.1-second precision, providing comprehensive assessment of forelimb and hindlimb strength parameters.
The apparatus incorporates an LED touchscreen display for real-time monitoring and data visualization. Measurements are recorded through integrated force transduction with measurement error ≤ 0.3g, enabling detection of subtle changes in neuromuscular performance. The detachable gripping plate design allows rapid switching between species-specific configurations, while optional custom grids accommodate specialized experimental protocols requiring modified grip surfaces.
The grip strength measurement principle relies on the natural grasping reflex of rodents when lifted by the tail. As the animal is gently pulled away from the gripping surface, it instinctively maintains grip until the applied tensile force exceeds its maximum voluntary muscle contraction capacity. The force sensor integrated beneath the gripping plate continuously monitors applied tension, recording the peak force value at the moment of grip release.
Force transduction occurs through a calibrated load cell system with digital signal processing, converting mechanical tension into electrical signals with 0.1g resolution across the 0-50 N measurement range. The LED touchscreen interface displays real-time force curves and automatically captures peak values and release timing. The stainless steel gripping surface provides consistent friction characteristics while the detachable plate design enables rapid cleaning and species-specific configuration changes.
Time resistance measurement tracks the duration from initial tension application to grip release, providing additional neuromuscular performance parameters. The combination of peak force and hold duration enables comprehensive assessment of both strength generation capacity and sustained muscle contraction endurance, distinguishing between different types of neuromuscular dysfunction.
| Add-on | Price | Details |
|---|---|---|
| Grip Strength Test | $2,900 | Gripping plate area: mouse 20x20 cm and rat 25x25cm stainless steel, detachable gripping plate Power supply voltage: AC 190V-230V 50HZ Power: 20W |
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These IDs come from NCBI Taxonomy. Use them in data records and methods sections.
NCBITaxon:10090 NCBITaxon:10116 | Feature | This Product | Typical Alternative | Advantage |
|---|---|---|---|
| Force Measurement Range | 0-50 N with 0.1g resolution | Entry-level models often provide 0-20 N range with 1g resolution | Extended range accommodates larger rats and aged animals while high resolution detects subtle therapeutic effects in pharmacological studies. |
| Gripping Plate Configuration | Dual-sized plates (20×20 cm mouse, 25×25 cm rat) with detachable design | Single fixed-size plates require separate instruments for different species | Species-optimized testing eliminates the need for multiple instruments and ensures appropriate grip surface area for accurate measurements. |
| Measurement Accuracy | ≤0.3g error across full measurement range | Basic models typically specify ±1-2g accuracy | Exceptional precision enables detection of small changes critical for dose-response studies and longitudinal disease progression monitoring. |
| Time Measurement Capability | Time resistance measurement in 0.1-second increments | Many systems provide only peak force without grip duration analysis | Dual-parameter assessment distinguishes between strength generation and sustained muscle contraction for comprehensive neuromuscular characterization. |
| Display Interface | LED touchscreen with real-time force curve visualization | Basic digital readouts or analog displays without curve monitoring | Visual feedback during testing enables immediate quality assessment and protocol optimization for more reliable data collection. |
| Construction Materials | Stainless steel gripping plates with detachable mounting | Fixed plastic or coated metal surfaces | Durable stainless steel ensures consistent friction characteristics and enables thorough sterilization between animals for contamination control. |
The apparatus combines extended force range capability with exceptional measurement precision and dual-parameter recording in a species-adaptable configuration. The LED touchscreen interface and stainless steel construction provide professional-grade functionality for demanding research applications requiring precise neuromuscular assessment.
Verify zero-point calibration before each testing session and perform monthly accuracy checks using certified reference weights across the measurement range.
Why: Force sensor drift over time can introduce systematic measurement errors that compromise data validity in longitudinal studies.
Clean gripping plates with 70% ethanol between animals and inspect force sensor alignment weekly for any mechanical displacement.
Why: Contamination affects grip surface friction while sensor misalignment introduces measurement artifacts that reduce data reliability.
Standardize animal handling technique with consistent tail grip position and vertical pull direction, allowing 2-3 seconds for proper gripping before initiating the test.
Why: Handling variability is a major source of measurement inconsistency that can mask true treatment effects or disease progression changes.
Record multiple measurements per animal (typically 3-5 trials) with 30-60 second rest intervals and use the peak value for analysis.
Why: Individual trial variation due to motivation and fatigue effects requires multiple measurements to obtain representative grip strength values.
If force readings appear inconsistent, check gripping plate attachment security and verify that animals are making full contact with the surface before testing.
Why: Loose plate mounting or incomplete grip contact creates measurement artifacts that appear as unusual force distribution patterns.
Ensure animals are properly acclimated to handling procedures and avoid excessive force application that could cause injury during grip release.
Why: Stressed or injured animals exhibit altered grip behavior that confounds neuromuscular assessment while compromising animal welfare standards.
Test animals at consistent times of day and maintain standardized environmental conditions including room temperature and lighting.
Why: Circadian rhythms and environmental factors significantly influence motor performance and grip strength measurements in rodents.
Document animal body weight, age, and sex alongside grip strength measurements to enable proper normalization and statistical analysis.
Why: Grip strength correlates with body size parameters, requiring normalization to detect treatment effects independent of physical development changes.
ConductScience provides a standard one-year manufacturer warranty covering defects in materials and workmanship, with comprehensive technical support for calibration, troubleshooting, and protocol optimization throughout the warranty period.
What is the minimum detectable change in grip strength that can be reliably measured?
The system resolution of 0.1g with measurement error ≤0.3g enables detection of grip strength changes as small as 0.5-1g, sufficient for identifying subtle therapeutic effects or early disease progression in longitudinal studies.
How should animals be positioned and handled during grip strength testing?
Animals are lifted by the tail base and allowed to grasp the appropriate gripping plate, then gently pulled in a consistent vertical direction until grip release occurs. Standardized handling technique and pull angle are critical for reproducible measurements.
What factors can influence grip strength measurement variability?
Key variables include animal age, sex, body weight, time of day, housing conditions, and prior handling experience. Environmental factors such as room temperature and gripping surface cleanliness also affect measurement consistency.
How frequently should the force sensor be calibrated?
Monthly calibration verification using certified reference weights is recommended for research applications, with full recalibration annually or following any mechanical impact to maintain measurement accuracy within specification.
Can the system accommodate species other than standard laboratory mice and rats?
Custom gripping plate configurations are available for other rodent species, though plate dimensions and force range should be verified against the 50 N maximum capacity for larger animals or specialized experimental requirements.
What data output formats are supported for integration with analysis software?
The LED touchscreen displays peak force and time resistance values in real-time. Consult the product datasheet for specific digital data export formats and software compatibility for automated data collection workflows.
How does grip strength correlate with other motor function assessments?
Grip strength typically correlates with rotarod performance, gait analysis parameters, and muscle histology findings, providing complementary information when used as part of comprehensive motor function test batteries.
What maintenance procedures are required for optimal performance?
Regular cleaning of gripping plates with appropriate disinfectants, periodic calibration verification, and inspection of force sensor alignment ensure consistent measurement performance and prevent cross-contamination between test sessions.
Each paper below used this product. Under each title is the paper’s own sentence naming the equipment it used.
Mouse grip strength was tested before and immediately following live animal return using a 50-N capacity grip strength meter (Conduct Science, Skokie, IL, USA). The person performing the grip strength testing was blinded to the experimental conditions during flight.
Grip strength measurements were performed using the Maze Engineers Grip Strength Instrument (Skokie, IL, USA) and accompanying software.
Using a 50 N digital grip force meter (Maze Engineers, Skokie, IL, USA), both front and hindlimb grip force were measured twice weekly.
...and NTg mice aged 10–12 weeks (n = 6) were tested using a rectangular grid attached to a console (Maze Engineers) that records grip force (Newton) over time, displayed via Grip TestUI (version 1.0.0.0)...
...grid by the mouse is recorded by the force sensor and analyzed with the Grip Strength software (Maze Engineers, Skokie, IL, USA).
For the grip strength test, motor function was assessed via the peak force (G) required for mice to release their grip from a grid bar as quantified by a digital grip strength meter (Maze Engineers).
...all four limbs to reduce variability and improve consistency. Grip strength was recorded via Maze Engineers Grip Strength Instrument (Skokie, IL, USA).
After the treatment period, mice were tested for grip strength (31) using a DST-110 Digital Force Gauge (Maze Engineers) according to standardized procedures (32) as a surrogate for overall muscle health/function (33–35).
Grip strength was tested in mice using the DST-110 Digital Force Gauge (Maze Engineers).
A grip-strength meter (Maze Engineers) was used to test the strength of the forelimb and forelimb–hindlimb grip of mice.
Mice were tested using the DST-110 Digital Force Gauge (Maze Engineers).
ConductVision is our video-tracking software. Record your sessions on video, and it reports the measures listed below.
This test needs the Advanced Rodent Module, an add-on to the ConductVision license.
A 5-year license is $3,990 in total.
The Advanced Rodent Module runs on this license. On its own, the license scores standard tests such as the open field, the elevated plus maze, the Y-maze and the Morris water maze. Results export as CSV files.
A 5-year module license is $3,990 in total, the same as the 5-year base license.
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Use this apparatus with
Capture peak force, pull duration, and accepted-versus-rejected trials so grip data are scored consistently across cohorts.
ConductVision Grip Strength ->Forelimb and all-limb pull technique, pull angle and speed control, accepted-trial rules, and body-weight normalization.
ConductMaze Grip Strength Protocol ->§ 1
The Grip Strength meter measures neuromuscular function by recording the peak force a rodent applies to a bar or grid before its grip releases. Meyer and colleagues described the routine fore- and hindlimb assessment that remains the basis of modern grip testing in toxicology, muscular dystrophy, aging, and cachexia models. 1
A trial works by letting the animal grasp the bar and then drawing it horizontally and steadily away until the grip breaks; the gauge holds the peak tension. Because the measurement is a maximum voluntary force, it is sensitive to motivation, pull technique, and body size as much as to true strength. 1
Pull speed, pull angle, the number of trials averaged, and body-weight normalization all change the recorded peak force. A defensible protocol fixes the pull technique, pre-defines which pulls are accepted, averages a set number of valid trials, and reports both absolute and body-weight-normalized force. 1
§ 2
Standardized horizontal-pull testing with accepted-trial rules, trial averaging, and body-weight normalization.
Critical methodological constraints
Core grip-strength endpoints for neuromuscular function and quality control.
Peak Grip Force
Primary strength endpoint
Body-Weight-Normalized Force
Size-corrected strength
Forelimb vs All-Limb Force
Limb-specific function
Accepted-Trial Rate
Quality-control flag
Trial-Averaged Force
Stable endpoint
+ Additional metrics: body weight, coefficient of variation across trials, pull duration, operator ID, gauge calibration value, and per-session notes.
A compact quality-control fraction of pulls that met the acceptance criteria.
Estimate the N per group needed to detect a literature-anchored strength effect at the endpoint you plan to report. Override the defaults with your own pilot numbers.
§ 3
Representative forelimb grip output averaged over five accepted pulls.
§ 4
Limitations of the paradigm, methodological caveats, and current directions.
Variables that can shift Grip Strength results apart from the effect under study.
Absolute force scales with body size. Without normalization, a strength difference can simply reflect a weight difference between groups.
Pull speed, angle, and tail support change peak force. A single trained operator and a fixed horizontal pull reduce this variance.
Struggling, freezing, or reluctance to grip lowers measured force without a true neuromuscular deficit.
A single maximum is noisy. Averaging a fixed number of accepted pulls gives a more reliable endpoint.
An uncalibrated or drifting sensor biases all readings. Calibrate against a known mass each session.
Grip strength is strongest when pull technique, accepted-trial rules, trial averaging, and body-weight normalization are fixed before testing. A single peak force is a screening signal; confirm neuromuscular deficits with normalized force, forelimb-versus-all-limb comparison, and an independent functional measure. 1
Report both. Absolute peak force is the raw measurement, but body-weight-normalized force is what allows fair comparison when groups differ in mass, which is common in disease and aging models.
Forelimb (bar) testing is the most common and reproducible. Adding an all-limb (grid) pull helps localize whether a deficit is general or limb-specific.
Pre-specify the number, commonly three to five accepted pulls, and average them. Averaging reduces the trial-to-trial noise inherent in a maximum-effort measurement.
Quarterly editorial review of emerging Grip Strength methodology. Q2 2026
Reporting body-weight-normalized force alongside absolute force is increasingly expected so strength is not confounded with mass.
Electronic peak-hold gauges with logging reduce reader bias and make accepted-trial tracking and time-course studies easier.
Because technique drives variance, single-operator testing and documented pull protocols improve reproducibility across labs.
Grip strength is paired with rotarod, balance beam, and gait analysis to separate strength from coordination and fine motor control.
§ 5
7 selected methods and validation studies of the Grip Strength, from any lab.
