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Animal
Mouse

Climbing Test - Measures Vertical Activity in Rodents

Product Code:36103

Climbing behavior can be of interest for the most diverse applications.

The Ugo Basile automated system replicates its first manual application in the Pain field, for measuring Pain-Depressed behavior. It showed that, while mild analgesics block pain-depressed climbing, strong analgesics fail to alleviate depression of climbing (Santos et al. 2023, “Climbing behavior by mice as an endpoint for preclinical assessment of drug effects in the absence and presence of pain”, Frontiers).

An extended warranty can be added for most Ugo Basile products. You can find this information in the ordering information section of each product.
To learn more about the extended warranty, CLICK HERE

Background

The device, developed in collaboration with the laboratory of Prof. Sidney Negus from Virginia Commonwealth University, provides a measurement of the vertical movement of rodents, a parameter which has not been widely investigated so far, in spite of the fact that rodents are animals that live in a 3D space and hence the analysis of XY position only is a limitation in many current studies.

However, climbing behavior and vertical movements have been previously studied in non-automated experiments to investigate many fields, from muscle strength (Ueno et al. 2022), to antidepressants (Perona et al. 2008), stroke (Jin et al., 2017), Parkinson’s (Sundstrom et al., 1990), sex-differences (Borbelyova et al., 2019), locomotor activity and kinematics (Green et al., 2012), neuroleptics and dopamine agonists (Costall et al., 1982; Pinsky et al., 1988; Medvedev et al., 2013), XYZ activity (Wexler et al. 2018), opioid receptors (Michael-Titus et al., 1989), neuropathic and cancer pain (Falk et al., 2017).

The Ugo Basile Climbing System aims to provide a simple and automated tool to measure vertical climbing movements within a grid cylinder to inform all the scientists that are interested in this crucial parameter for their research.

Climbing Test System Components

A load cell underneath the aluminum base (diameter 12 cm) provides the automated start of the test once the animal leaves the base and starts climbing over the cylinder (height 25.5 cm) and its ceiling, thanks to the 5x5mm internal grid.

The output parameters, stored in the electronic unit and exportable in Excel, include the %climbing, the number and duration of climbing episodes, the climbing time, the maximum and average climbing height and the total activity while climbing.

Features

Benefits

Conductive sensors to track Z movements

Automated measurement of time climbing, distance travelled, time on ceiling, climbing episodes

Load cell floor

Automated start of the test

Electronic unit

Controlled by touch screen and with internal memory

USB and LAN data saving

Easy export into excel and data security

General

Commands

4,3 inches touch-screen (Resistive)

Read-out

4,3 inches touch-screen (Resistive), PC

Power Requirement

Universal input 100-240 VAC, 50-60Hz, 200W MAX

Sound Level

Negligible

Operating Temperature

18°C to 25°C

Endpoints and statistics:

Max height, Average height, Average distance covered, Total climbing time, Total time on roof, Latency on the single climbing event

 

Operation

Start/Stop By Start/Stop button on the climbing cage
Tare By Tare button on the climbing cage
Experiment duration Max 3600 seconds
Height sensors 7 rings + 1 on the roof (capacitive sensors)
Data Acquisition Via X-PAD software (included)
Data Portability By USB flash drive (included) or LAN connection
Data Output Results table in .csv

 

Physical

Sensing cylinder diameter External diameter 12 cm. Internal Diameter 11,5 cm
Grid cylinder diameter 11 cm

Sensing cylinder height

29 cm

Grid cylinder height 28 cm

Weight

5Kg

Shipping Weight

8Kg

Packing Dimensions

36x55x45cm

 

Warranty

Warranty 36103 is covered by a 12-months warranty + 12 months after product registration

Certain diseases and conditions affect rodents’ climbing abilities. For example, neurodegenerative disorders can impair their motor skills and climbing behavior. Researchers use these changes in climbing behavior to study and test potential treatments for such diseases.

In summary, climbing behavior in rats and mice is not just a simple activity but a multifaceted aspect of their biology with implications for their well-being, natural behavior, and various fields of research.

It provides valuable insights into their physiology, behavior, and responses to environmental and genetic factors, making it an essential component of biological and biomedical studies involving these rodents.

  • Ethological Perspective: climbing is a natural behavior in rats and mice in the wild. They use climbing to access food, escape from predators, explore their environment, and find shelter. Studying climbing behavior allows researchers to gain insights into their natural habitat and evolutionary adaptations.
  • Behavior and Physiology: climbing behavior reflects the rodents’ muscular and skeletal capabilities. It involves coordination, strength, and agility. Understanding their climbing abilities can provide insights into their neuromuscular systems, balance, and sensory perception.
  • Environmental Enrichment: in laboratory settings, providing opportunities for climbing is an important aspect of environmental enrichment. Rats and mice kept in captivity benefit from a stimulating environment that mimics their natural habitat. Climbing structures in cages promote physical and mental exercise, reducing stress and improving overall well-being.
  • Research Models: Rats and mice are commonly used as model organisms in biomedical research. Their climbing behavior can be relevant to various research areas, including neuroscience (study of motor skills and balance), behavior (exploring effects of drugs or genetic modifications), and psychology (studying spatial cognition and learning).
  • Disease Models: from stroke to depression, anxiety, skeletomuscular performance, Parkinson’s, pain, neuropathic pain and cancer pain.
36103 Mouse Climbing Test (What's in the box)

36103

Mouse climbing test system for vertical movement assessment, including electronic unit with USB for data export in Excel, climbing cylinder and ceiling (diameter 12cm, height, 29cm).

36103-001

Electronic unit for Mouse climbing test system

36103-002

Climbing test measuring cylinder with climbing cylinder and ceiling (diameter 12cm, height, 29cm) and divider.

Optional

36103-002 Climbing test additional measuring cylinder with climbing cylinder and ceiling (diameter 12cm, height, 25.5cm) and divider
Extra warranty (Standard 12 months + 12 months with product registration)

36103-UBC12

UB Care 12 Additional hardware warranty extension 12 months for SKU 36103

36103-UBC24

UB Care 24 Additional hardware warranty extension 24 months for SKU 36103

Back to: Pain and Inflammation

Research insights

Preclinical research in pain and inflammation

Pain affects an estimated 20% of adults worldwide, with millions of new chronic pain cases diagnosed every year. Yet, it remains insufficiently addressed as a major public health issue. Recognizing pain as a complex condition influenced by biological, social and environmental factors is essential to improve research, prevention, treatment and health policies.

Developing safer and more effective pain management strategies requires a deeper understanding of the biological mechanisms underlying pain and inflammation. In this context, preclinical research plays a fundamental role in identifying therapeutic targets, evaluating novel treatments and generating evidence to support translation into clinical practice.

Most used paradigms for pain and inflammation research

Pain and inflammation research uses a combination of evoked and spontaneous paradigms to assess nociception, hypersensitivity, inflammatory responses and pain-related impairment in rodents. Evoked thermal paradigms include plantar stimulation, tail flick, hot/cold plate testing, thermal place preference and thermal gradient assessment, which are used to investigate heat sensitivity, cold sensitivity, thermal hyperalgesia, allodinya and thermal preference or avoidance.

Mechanical paradigms include dynamic plantar stimulation, electronic or manual Von Frey testing, paw pressure testing and direct joint pressure application, supporting the assessment of mechanical allodynia, hyperalgesia and joint hypersensitivity. Spontaneous pain paradigms include weight-bearing asymmetry, postural imbalance, vertical activity and gait or locomotor changes, which are particularly relevant in arthritis, neuropathic pain, bone cancer pain, post-surgical pain and inflammatory models.

Inflammation can also be evaluated as a dedicated endpoint through paw volume and oedema measurement, allowing researchers to quantify experimentally induced swelling and pharmacological treatment effects.

Specific pain conditions like the ones involving the Trigeminal nerve are assessed by dedicated devices for thermal and mechanical stimulation of the animal vibrissae area, during the Orofacial Test.

Key behavioral readouts in pain assessment

Pain and inflammation studies rely on behavioural readouts that quantify nociceptive thresholds, hypersensitivity, inflammatory responses and spontaneous pain-related behaviour. Key measured parameters include paw withdrawal latency after thermal stimulation, tail flick latency, vocalization, jumping, mechanical withdrawal threshold, force threshold, paw volume, oedema, hind paw weight distribution, thermal preference or avoidance, time spent in specific temperature zones, postural asymmetry and pain-related changes in locomotion or vertical activity.

These readouts help researchers assess hyperalgesia, allodynia, inflammatory pain, joint pain, neuropathic pain, post-surgical pain and treatment effects across different rodent models. By combining evoked responses with spontaneous behavioural endpoints, preclinical pain research can capture both stimulus-induced sensitivity and more naturalistic pain-related impairment. Ugo Basile’s pain portfolio includes instruments for thermal, mechanical, inflammatory and spontaneous pain assessment, including Plantar Test, Dynamic Plantar Aesthesiometer, Hot/Cold Plate, Electronic Von Frey, Plethysmometer, Librae Incapacitance Tester and Climbing Test.

Ugo Basile instruments for pain and inflammation research

Since 1963, Ugo Basile has supported pain and inflammation research with instruments designed to measure nociceptive thresholds, hypersensitivity, inflammatory responses and spontaneous pain-related behaviour in rodents.

Ugo Basile offers a complete portfolio of instruments for preclinical pain and inflammation research, covering thermal, mechanical, inflammatory and spontaneous pain-related endpoints.

Ugo Basile devices for thermal stimulation

The Plantar Test is used for thermal hyperalgesia studies through radiant heat stimulation of the hind paw and automatic paw-withdrawal detection. It is the gold standard for Thermal Hyperalgesia tests in unrestrained animals. The Tail Flick measures nociceptive thresholds to infrared heat stimulation of the tail and is especially suited to rapid, reflex-based analgesic screening with possibility to run repeated tests thanks to the lack of learning being the tail flick a reflexive response. The Hot/Cold Plate supports hot and cold sensitivity studies, including constant temperature, ramping and complex temperature protocols, while the Thermal Place Preference and Thermal Gradient Ring allow researchers to evaluate thermal preference and avoidance in freely moving animals. Both systems involve a cognitive component and in fact repeated tests on the same animal are subject to hyper- or hypo- responses due to previous test experience.

Orofacial Stimulation measures hypersensitivity to thermal (hot and cold) and/or mechanical stimulation of the orofacial area in rats (mouse adaptor available) and is used for research into a wide range of pain conditions involving the trigeminal nerve with no need to cut vibrissae.

Ugo Basile devices for evoked mechanical stimulation

For mechanical sensitivity, the Dynamic Plantar Aesthesiometer provides automated force application and paw-withdrawal scoring for mechanical allodynia studies, while the Electronic Von Frey and Von Frey Filaments support mechanical threshold assessment across different force ranges. The PAM – Pressure Application Measurement system is designed for joint pain and arthritis models, enabling direct quantifiable stimulation of rodent joints. However the PAM can also be used with specific applicators for other parts of the body from the paws to the back and spinal chord, etc. Analgesy-Meter is typically used for inflammatory conditions to measure to measure mechanical sensitivity and pain threshold of pressure applied on mic or rat paw for basic or applied research or phenotyping.

Ugo Basile spontaneous pain apparatus

The Climbing Test adds a vertical activity endpoint for spontaneous pain, motor function and activity-related studies. Librae Incapacitance Tester assesses hind paw weight distribution as an objective measure of spontaneous pain. Plethysmometer measures paw volume and oedema.

Frequently Asked Questions

What instruments are used to measure pain in rodents?

Rodent pain can be assessed using different instruments depending on the type of pain response being studied. Thermal pain is commonly measured with plantar stimulation systems, tail flick meters, hot/cold plates, thermal place preference systems and thermal gradient paradigms. Mechanical sensitivity is assessed with dynamic plantar aesthesiometers, electronic Von Frey devices, manual Von Frey filaments, paw pressure systems and joint pressure tools. Spontaneous pain and inflammation can be evaluated through weight-bearing asymmetry, paw volume measurement, gait analysis and activity-based readouts.