Hemostatic Forceps
Hemostatic Forceps - Related Videos
09:41
Calibrated Forceps Model of Spinal Cord Compression Injury
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Cited by 57 •
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Spinal cord injury models should be highly reproducible. We demonstrate that the calibrated forceps compression model of spinal cord injury is an easy to use surgical method for generating reproducible injuries to the murine spinal cord.
08:40
TAPE: A Biodegradable Hemostatic Glue Inspired by a Ubiquitous Compound in Plants for Surgical Application
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We describe the simplest protocol to prepare biodegradable medical glue that has an effective hemostatic ability. TAPE is a water-immiscible supramolecular aggregate prepared by mixing of tannic acid, a ubiquitous compound found in plants, and poly(ethylene) glycol, yielding a 2.5 times greater water-resistant adhesion compared with commercial fibrin glue.
04:23
Application of Hemostatic Devices in Laparoscopic Hepatectomy
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Cited by 1 •
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High-grade hemostatic devices are essential for laparoscopic hepatectomy. However, these devices are not generalized in basic medical organizations. Therefore, a suite of simple and easy hemostatic devices is shown in this article, which can make the laparoscopic hepatectomy easier to perform.
03:01
Improved Hysteroscopic Resection of Endometrial Polyps Using 6-Fr Micro-Scissors and Forceps
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The novel technique presented here employs a combination of 6-Fr micro-scissors and forceps for hysteroscopic treatment of endometrial polyps, demonstrating encouraging outcomes for infertile patients afflicted with this condition.
09:38
Femoral Arterial and Venous Catheterization for Blood Sampling, Drug Administration and Conscious Blood Pressure and Heart Rate Measurements
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Cited by 53 •
2012
Chronic catheterization of blood vessels in the rat is often required for administration of substances, obtain blood sample over a period of time or for direct conscious blood pressure measurements. Femoral arterial catheterization of the rat and corresponding measurements of blood pressure in the conscious animal will be demonstrated.
FAQs
The serrated jaws increase contact with the vessel or tissue as the instrument closes, allowing compression to be maintained at the grasped site. This mechanical pressure supports hemostasis while the ratchet holds the selected closure position. In practice, the jaw design helps maintain control without requiring continuous finger force, which can support steadier surgical manipulation.
The ratchet locks the finger rings after the jaws close, preserving pressure on the selected vessel or tissue. This allows the operator to maintain compression without continuously squeezing the handles. In delicate operations, that retained pressure can help control bleeding and keep the operative field more visible while the surgeon performs the next precise manipulation.
Tissue fragility determines how cautiously a grasping and compressive instrument should be applied. In procedures involving the brain, spinal cord, or peripheral nerves, the instrument must match the delicacy of the tissue and the specific surgical task. Appropriate selection supports hemostasis while helping avoid an unsuitable level or type of mechanical manipulation.
Effectiveness depends on matching the instrument to both the tissue and the intended task. Jaw serration, the amount of compression, and the ability of the ratchet to maintain that compression all influence handling. In neuroscience procedures, these choices matter because successful bleeding control must be balanced with precise manipulation around delicate neural structures.
The operator positions the jaws at the vessel or tissue requiring control, closes the finger rings to apply compression, and engages the ratchet to maintain the selected pressure. After hemostasis is supported, the instrument can remain engaged while the procedure continues. This workflow helps reduce the need for constant hand force and may improve visualization.
They may be used for hemostasis during operations involving the brain, spinal cord, and peripheral nerves. Their value extends beyond bleeding control because a clearer operative field can support more precise microsurgical manipulation. However, the instrument choice remains task dependent, since neural procedures involve tissues with different levels of fragility and handling requirements.