The Neurosurgery Surgical 14″ Rochester Ochsner Hemostatic Forceps, Curved, 1×2 Teeth is a high-performance surgical instrument engineered for superior tissue control, effective vascular clamping, and dependable hemostasis during complex neurosurgical procedures. Featuring the renowned Rochester Ochsner design, this instrument combines long curved serrated jaws with 1×2 interlocking teeth, providing exceptional gripping strength for dense tissues, fascia, vascular pedicles, and larger blood vessels. Its extended 14-inch length offers outstanding access to deep operative sites while maintaining precise control and excellent visibility.

The Neurosurgery Surgical 14″ Rochester Ochsner Hemostatic Forceps, Curved, 1×2 Teeth is widely used in neurosurgery, cranial surgery, spinal surgery, cerebrovascular surgery, vascular surgery, trauma surgery, orthopedic surgery, thoracic surgery, plastic and reconstructive surgery, and general surgery. It is particularly effective for clamping larger blood vessels, securing dense tissue, maintaining tissue traction, controlling bleeding, and assisting with surgical dissection in procedures that require extended reach and reliable instrument performance.

Manufactured from premium surgical-grade stainless steel, these Rochester Ochsner Hemostatic Forceps are designed to meet the rigorous demands of modern operating rooms. The corrosion-resistant stainless steel construction provides exceptional durability, maintains precise jaw alignment, and ensures smooth mechanical performance through repeated clinical use and sterilization. A satin or matte finish minimizes glare under operating room lighting, allowing surgeons to maintain clear visualization during delicate neurosurgical procedures.

The instrument features curved serrated jaws with 1×2 interlocking teeth, offering a secure, non-slip grip on firm tissue and vascular structures. The curved jaw profile enhances access around critical anatomical structures and improves maneuverability within deep surgical fields. The finely serrated jaws distribute pressure evenly, while the interlocking teeth provide additional holding strength, minimizing tissue slippage and enhancing procedural accuracy without excessive compression.

A precision ratchet locking mechanism ensures smooth engagement and dependable clamping pressure throughout surgery. Once engaged, the ratchet securely locks the instrument in place, allowing consistent vessel occlusion or tissue stabilization without continuous hand pressure. This feature improves surgical efficiency, supports prolonged procedures, and helps reduce hand fatigue for the operating surgeon.

With an overall length of 14 inches (approximately 35.5 cm), these forceps are specifically designed for deep operative exposure where standard-length instruments may be insufficient. The extended shaft enables surgeons to reach deep anatomical structures while maintaining optimal control and tactile feedback. Ergonomic finger ring handles provide a comfortable, balanced grip that supports precise manipulation and controlled movements throughout the procedure.

The Neurosurgery Surgical 14″ Rochester Ochsner Hemostatic Forceps, Curved, 1×2 Teeth is fully reusable and compatible with standard hospital sterilization methods, including steam autoclaving. Its premium stainless steel construction maintains structural integrity, corrosion resistance, jaw alignment, and locking efficiency through repeated sterilization cycles, ensuring dependable long-term clinical performance.

Manufactured to the highest standards of surgical quality, this instrument combines precision engineering, durable materials, and ergonomic functionality to deliver reliable results in demanding surgical environments. Whether used for vascular clamping, tissue stabilization, deep surgical exposure, or hemostasis during neurosurgical procedures, the Neurosurgery Surgical 14″ Rochester Ochsner Hemostatic Forceps, Curved, 1×2 Teeth provides the precision, durability, and reliability trusted by surgical professionals worldwide.

Key Features

• Designed for neurosurgical and advanced surgical procedures
• Extended 14-inch length provides excellent access to deep operative fields
• Curved jaws improve maneuverability around delicate anatomical structures
• 1×2 interlocking teeth provide a firm, non-slip tissue grip
• Fine serrations ensure secure handling of dense tissue and vascular structures
• Ideal for vascular clamping, tissue traction, and reliable hemostasis
• Manufactured from premium surgical-grade stainless steel
• Precision ratchet locking mechanism maintains consistent clamping pressure
• Ergonomic finger ring handles provide comfort and precise control
• Satin finish minimizes glare under operating room lighting
• Corrosion-resistant construction for long-lasting durability
• Fully reusable and steam autoclave compatible

Product Specifications

FAQs

1. What is the Neurosurgery Surgical 14″ Rochester Ochsner Hemostatic Forceps, Curved, 1×2 Teeth used for?

It is used for clamping blood vessels, grasping dense tissue, maintaining tissue traction, achieving hemostasis, and assisting with deep surgical dissection during neurosurgical and other advanced surgical procedures.

2. What is the benefit of the 1×2 interlocking teeth?

The 1×2 interlocking teeth provide a secure, non-slip grip on fascia, vascular structures, and dense tissue, reducing slippage and improving surgical precision.

3. Why choose the 14-inch length?

The extended 14-inch length provides excellent reach into deep operative fields, allowing surgeons to access challenging anatomical structures while maintaining precise control.

4. What material is this instrument manufactured from?

The forceps are manufactured from premium surgical-grade stainless steel, providing excellent corrosion resistance, durability, and long-term clinical performance.

5. Can these Rochester Ochsner Hemostatic Forceps be sterilized and reused?

Yes. The instrument is fully reusable and compatible with standard steam autoclave sterilization, maintaining its precision, jaw alignment, locking performance, and structural integrity through repeated sterilization cycles.