Large Animal Stereotaxic Instruments
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$200
Code: RWD200
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Delivery timelines will be provided with your quote
Standard lead time varies by product availability (in-stock items usually 1–3 business days, custom/backordered items 7–21 business days).
90-day return policy
Eligible items may be returned within 90 days after delivery, subject to our Return Policy.
Notice
Final delivery schedules and pricing are subject to confirmation in your official quotation. Customs policies may also impact the total cost. Contact us for your best quote.
overview
Features & Benefits
High Precision Positioning
Available in both mechanical and digital versions. The non-digital model provides 100 μm accuracy, while the digital model achieves up to 10 μm positioning accuracy to meet advanced research requirements.
Two-Dimensional Precision Manipulator
Equipped with a smooth and stable X–Z axis manipulator for accurate coordinate adjustment and reliable targeting during procedures.
Flexible Configuration Options
Choose between digital and non-digital configurations based on experimental precision needs and budget considerations.
Adaptable for Different Animal Sizes
Two optional adaptors are available: Model 68081 for animals weighing 10–30 kg, and Model 68041 for animals below 10 kg.
Stable Structural Design
Engineered specifically for large animals to ensure secure fixation and consistent experimental stability throughout surgical and research procedures.
Applications
Neuroscience Research
Brain Localization and Targeting Procedures
Stereotaxic Surgery
Preclinical Studies
Electrophysiology and Microinjection Experiments
Specifications
| Parameter | Description |
|---|---|
| Positioning Accuracy (Digital) | 10 μm |
| Positioning Accuracy (Non-Digital) | 100 μm |
| Manipulator Axes | X, Z |
| Compatible Animals | Cats, Dogs, Monkeys, Pigs |
| Adaptor Model 68081 | Suitable for 10–30 kg animals |
| Adaptor Model 68041 | Suitable for animals below 10 kg |
| Configuration Options | Digital / Non-digital |
Order Information
Stereotaxic Host (Without Accessories)
| Model | Product Description | Remark |
|---|---|---|
| 68813 | Stereotaxic for Large Animals, SGL M. | Standard configuration, non-digital display model (accuracy 100 μm), including 68868N base, 68941 2-axis manipulator-left, without adaptor, ear bars and holder. |
| 68814 | Stereotaxic for Large Animals, Dual M. | Standard configuration, non-digital display model (accuracy 100 μm), including 68868N base, 68941 2-axis manipulator-left, 68942 2-axis manipulator-right, without adaptor, ear bars and holder. |
| 68815 | Stereotaxic for Large Animals, SGL M, Digital | Standard configuration, digital display model (accuracy 10 μm), including 68868N base, 68944 2-axis digital manipulator-left, without adaptor, ear bars and holder. |
| 68816 | Stereotaxic for Large Animals, Dual M, Digital | Standard configuration, digital display model (accuracy 10 μm), including 68868N base, 68944 2-axis digital manipulator-left, 68945 2-axis digital manipulator-right, without adaptor, ear bars and holder. |
Required Accessories (Optional)
| Model | Product Description | Remark |
|---|---|---|
| 68041 | Cat/Monkey Adaptor | Suitable for animals under 10 kg (cats, dogs, monkeys, etc.). Please confirm head width, distance from nose to eyes, mouth width and other details before purchasing. |
| 68081 | Dog/Monkey/Pig Adaptor | Suitable for 10–30 kg animals (cats, dogs, monkeys, etc.). Please confirm head width, distance from nose to eyes, mouth width and other details before purchasing. |
| 68303 | Cat/Monkey 18° Ear Bars | - |
| 68304 | Cat/Monkey 45° Ear Bars | - |
| 68201 | Standard Probe Holder – Corner (0.3–1.5 mm) | - |
| 68217 | Cannula Holder (3.5 mm) | Clamping part made of plastic |
| 68205 | Cannula Holder (3.5 mm) | Clamping part made of metal |
| 68214 | Ceramic Ferrule Holder (1.25 mm) | - |
| 68215 | Ceramic Ferrule Holder (2.5 mm) | - |
| 68206 | General Probe Holder (3–12 mm) | - |
| 68218 | Syringe Holder (barrel: 6–12 mm; needle: 0.3–1.5 mm) | - |
| 68605 | Microdrill Holder (14.5 mm) | Suitable for 78001 microdrill |
literature
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Zhu, M., Li, H., Gyanwali, B., He, G., Qi, C., Yang, X., … & Tang, A. (2017). Auditory brainstem responses after electrolytic lesions in bilateral subdivisions of the medial geniculate body of tree shrews. Neurological Sciences, 38(9), 1617-1628.
Lei, Z., Wang, D., Chen, N., Ma, K., Lu, W., Song, Z., … & Wang, J. H. (2017). Synapse innervation and associative memory cell are recruited for integrative storage of whisker and odor signals in the barrel cortex through miRNA-mediated processes. Frontiers in cellular neuroscience, 11, 316.
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Zhang, J., Liu, H., Du, X., Guo, Y., Chen, X., Wang, S., … & Zhang, W. (2017). Increasing of blood-brain tumor barrier permeability through transcellular and paracellular pathways by microbubble-enhanced diagnostic ultrasound in a C6 glioma model. Frontiers in neuroscience, 11, 86.
Li, G. F., Zhao, H. X., Zhou, H., Yan, F., Wang, J. Y., Xu, C. X., … & Zhang, H. L. (2016). Improved anatomical specificity of non-invasive neuro-stimulation by high frequency (5 MHz) ultrasound. Scientific reports, 6(1), 1-11.
Liu, M. G., Li, H. S., Li, W. G., Wu, Y. J., Deng, S. N., Huang, C., … & Xu, T. L. (2016). Acid-sensing ion channel 1a contributes to hippocampal LTP inducibility through multiple mechanisms. Scientific reports, 6, 23350.
Zhao, Baisong, et al. “Hyperbaric oxygen pretreatment improves cognition and reduces hippocampal damage via p38 mitogen-activated protein kinase in a rat model.” Yonsei medical journal 58.1 (2017): 131-138.
Zhao, Yunan, et al. “Decreased glycogen content might contribute to chronic stress-induced atrophy of hippocampal astrocyte volume and depression-like behavior in rats.” Scientific reports 7 (2017): 43192.
Espinosa, P., Silva, R. A., Sanguinetti, N. K., Venegas, F. C., Riquelme, R., González, L. F., … & Sotomayor-Zárate, R. (2016). Programming of dopaminergic neurons by neonatal sex hormone exposure: effects on dopamine content and tyrosine hydroxylase expression in adult male rats. Neural plasticity, 2016.
Li, Wei-Guang, et al. “ASIC1a regulates insular long-term depression and is required for the extinction of conditioned taste aversion.” Nature communications 7.1 (2016): 1-15.
Wang, G. Q., Cen, C., Li, C., Cao, S., Wang, N., Zhou, Z., … & Wang, J. (2015). Deactivation of excitatory neurons in the prelimbic cortex via Cdk5 promotes pain sensation and anxiety. Nature communications, 6(1), 1-16.
