Facial Skin Deformation
Facial Skin Deformation - Related Videos
07:11
Treatment of Facial Deformities using 3D Planning and Printing of Patient-Specific Implants
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Cited by 9 •
2020
As technology develops and becomes more user-friendly, planning of operations and patient-specific surgical guides and fixation plates should be performed by the surgeon. We present a protocol for 3D planning of orthognathic skeletal movements and 3D planning and printing of patient-specific fixation plates and surgical guides.
06:56
Somatosensory Event-related Potentials from Orofacial Skin Stretch Stimulation
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Cited by 4 •
2015
This paper introduces a method for obtaining somatosensory event-related potentials following orofacial skin stretch stimulation. The current method can be used to evaluate the contribution of somatosensory afferents to both speech production and speech perception.
09:08
Facial Transplants in Xenopus laevis Embryos
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Cited by 10 •
2014
A technique for transplanting "Extreme Anterior Domain" facial tissue between Xenopus laevis embryos has been developed. Tissue can be moved from one gene expression background into another, allowing the study of local requirements for craniofacial development and for signaling interactions between facial regions.
03:34
Inducing a Facial Nerve Injury in a Rat Model
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2025
This video demonstrates a surgical protocol on a rat model, detailing steps from anesthesia preparation to facial nerve injury induction. This protocol is useful for studying nerve regeneration and surgical techniques in medical research.
07:39
Subcutaneous Trigeminal Nerve Stimulation to Relieve Neuropathic Facial Pain
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2025
Source: Jakobs, M., et al. Subcutaneous Trigeminal Nerve Field Stimulation for Refractory Facial Pain. J. Vis. Exp. (2017)This procedure demonstrates the implantation of subcutaneous electrodes for trigeminal nerve stimulation to treat neuropathic facial pain. The electrodes are tunneled subcutaneously from the affected facial region to an infraclavicular pocket, where they are connected to an internal pulse generator (IPG). The IPG delivers electrical stimulation, activating mechanoreceptor...
FAQs
The key sensory step occurs when changes in pressure, tension, or skin displacement stimulate facial mechanoreceptors. These receptors send sensory signals through the trigeminal system, allowing the nervous system to represent physical changes at the face. This sensory pathway provides the neural information needed to study how facial movement contributes to perception and sensorimotor control.
Facial motor pathways provide the active counterpart to sensory detection by coordinating expression-related movements that alter facial skin. Comparing motor-produced changes with the resulting sensory signals helps researchers examine feedback, rather than treating expression as a one-way output. This perspective is relevant to understanding how sensory feedback shapes facial behavior and coordinated motor control.
Interpretation depends on considering the possible source of the observed change: underlying muscle activity, an external force, or a change in facial posture. These causes can produce related physical effects, including movement, stretching, compression, or folding. Distinguishing them is important when connecting measured skin changes to neural control, sensory input, or environmental influence.
Researchers can measure these changes with imaging, motion tracking, or specialized sensors. Such methods capture physical changes in the face and allow investigators to relate deformation to expression-related movement, sensory processing, emotion, perception, or social communication. The selected measurement approach therefore helps connect observable facial dynamics with neural and behavioral questions.
Measurements provide a physical record of facial changes that can be compared with emotion, perception, and social communication. They also support studies of facial-expression recognition by linking visible deformation patterns with how expressions are interpreted. This connection helps researchers investigate how facial movement functions both as a communicative signal and as information processed by observers.
The topic offers a way to examine relationships among facial movement, sensory feedback, and motor control in neurological disorders. It also informs prosthetic or robotic interfaces by providing measurable facial movement signals and a framework for considering how artificial systems might interact with facial behavior. These applications extend the topic beyond expression description into sensorimotor research and technology development.