Surgical Incision Method
Surgical Incision Method - Related Videos
07:22
Surgical Robot-Assisted Transanal Specimen Extraction Radical Sigmoidectomy Without an Auxiliary Abdominal Incision
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2025
Robot-assisted natural orifice specimen extraction surgery is a minimally invasive technique that combines robotic precision with natural orifice specimen extraction. A 67-year-old patient successfully underwent the procedure in 290 min, with minimal bleeding and no residual cancer. This approach minimized abdominal trauma, reduced complications, and enabled a quick recovery.
05:47
A Modified Surgical Model of Hind Limb Ischemia in ApoE-/- Mice using a Miniature Incision
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Cited by 3 •
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This article demonstrates an efficient surgical approach to establish acute ischemia in mice with a small incision. This approach can be applied by most research groups without any laboratory upgrades.
04:08
Metacarpal Small Incision for Carpal Tunnel Syndrome
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2024
Carpal tunnel decompression with transverse carpal ligament transection is a very successful treatment of carpal tunnel syndrome. The standard long-curved incision technique has become the best treatment for median nerve entrapment decompression. Here we introduce the metacarpal small incision carpal tunnel release (MSICTR) in the treatment of carpal tunnel syndrome (CTS).
04:10
Surgical Cisterna Magna Injection: A Method for Administering Tumor Cells Directly into Central Nervous System of Murine Model
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In this video, we describe the procedure to deliver human-derived tumor cells into the cisterna magna of a mouse’s brain. The orthotopic mouse model can be used to study metastatic spread of cancer to the cranial meninges.
08:01
Cutaneous Surgical Denervation: A Method for Testing the Requirement for Nerves in Mouse Models of Skin Disease
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Cited by 9 •
2016
This article includes detailed protocols for genetic labeling of mouse skin, surgical denervation, skin biopsy and visualizing labeled epithelia by whole-mount β-galactosidase staining. These methods can be used to test the requirement for nerves in mouse models of normal and pathological skin.
FAQs
Direction is selected in relation to tissue structure and the surgical objective. A suitable orientation can improve access while helping limit unnecessary injury to blood vessels, nerves, and functional tissue. Because tissue organization influences recovery, incision planning also affects how the wound responds during healing and how much repair is required afterward.
These structures can be damaged if the opening is placed, extended, or deepened without regard to local anatomy. Planning around them helps preserve tissue function and reduce unnecessary trauma. This anatomical consideration connects the immediate surgical approach with later biological outcomes, including inflammation, wound repair, and the formation of scar tissue.
Both scalpels and energy-based devices can be used to create a surgical opening, but the overview identifies them as distinct instrument options rather than interchangeable techniques. Instrument selection forms part of the overall method, which also includes location, length, depth, and direction. Together, these choices determine access and the extent of tissue disturbance.
Length and depth depend on the underlying anatomical site, the tissue structure, and the surgical goal. The opening must provide sufficient exposure without creating unnecessary damage beyond what access requires. These variables are therefore balanced rather than selected independently, because exposure, tissue trauma, and later closure and healing are closely related.
The process begins by identifying the anatomical site and the access required for the surgical goal. The operator then selects the incision’s location, length, depth, direction, and suitable cutting instrument, such as a scalpel or energy-based device. After access is obtained, the design should support closure and the subsequent healing response.
It is useful when researchers need to examine how living tissues respond to a controlled injury or surgical opening. Studies can focus on inflammation, wound repair, scar formation, and the influence of tissue organization on recovery. The method therefore provides a context for connecting surgical tissue disruption with broader biological healing processes.
Researchers can examine the sequence and quality of wound repair, the inflammatory response, scar formation, and recovery of organized tissue. They can also relate these outcomes to the incision’s design and the structures affected. Such observations help explain why tissue arrangement and the extent of surgical trauma influence recovery after injury.
A carefully planned opening provides the needed exposure while limiting unnecessary tissue damage. This balance leaves tissue in a condition that can be brought together during closure and can proceed through repair. In biological studies, the relationship between design, closure, inflammation, and scar formation helps reveal how tissue organization shapes recovery.