Electrosurgery and Vessel Sealing in Veterinary Practice

By Dr. Zubair Khalid, DVM, MS, PhD · 2026-08-11

Key Takeaways

• Monopolar electrosurgery utilizes a current path from an active electrode through the patient to a return pad, generating heat via tissue resistance; its primary limitation is significant lateral thermal spread (up to 1 cm), posing risks to adjacent nerves, ureters, and intestinal serosa, necessitating careful placement of the return pad away from bony prominences or poor perfusion areas.
• Bipolar electrosurgery confines current flow between two forceps tips, eliminating the need for a return pad and significantly reducing lateral thermal spread (1-3 mm), making it ideal for precise dissection near critical structures like nerves and in ophthalmic or neurologic surgery, though it is less reliable for sealing vessels larger than 3 mm.
• Electrothermal bipolar vessel sealing systems combine bipolar energy with mechanical compression and impedance feedback, effectively sealing arteries up to 6 mm and veins up to 12 mm in diameter at supraphysiologic burst pressures with minimal collateral thermal damage (1-3 mm), making them suitable for lung lobectomy, splenectomy, and ovariectomy.
• The choice of electrosurgical modality hinges on vessel diameter, proximity of critical structures, and tissue mechanical demands; monopolar is versatile for diffuse bleeding and mass resection, bipolar excels in confined spaces, and vessel sealing systems are optimal for larger vessels and tubular structures.
• Effective electrosurgical technique emphasizes tissue compression before energy delivery (coaptive coagulation), using short activation bursts (2-3 seconds for monopolar), avoiding charring, and waiting for device-specific completion signals (audible tone or auto-shutoff) for vessel sealing systems to ensure seal integrity.
• Complications include thermal injury from lateral spread, mechanical seal failure (immediate or delayed hemorrhage), and unintended energy transfer (capacitive coupling, insulation failure); monitoring tissue color (desiccation vs. charring), impedance feedback, and smoke production are crucial for intraoperative assessment and troubleshooting.

Electrosurgery and vessel sealing devices are fundamental tools in modern veterinary surgery, providing rapid hemostasis and efficient dissection across soft tissue procedures. This article addresses the physical principles, tissue interactions, and practical application of monopolar electrosurgery, bipolar electrosurgery, and electrothermal bipolar vessel sealing systems in dogs, cats, horses, and production animals. It serves the practicing veterinarian who selects energy devices, adjusts generator settings, and must anticipate thermal injury risks in delicate surgical fields. The content also supports surgical residents preparing for board examinations and clinicians evaluating new instrumentation for their practice.

The clinical questions answered here include how to choose between monopolar and bipolar modalities for a given tissue, how vessel sealing systems achieve burst pressures that exceed systolic arterial pressure, and how application time and power settings govern lateral thermal spread. Safety considerations, including pad placement, fire risk, and pacemaker interference, receive dedicated attention. Laser and harmonic scalpel technologies are excluded from this discussion.

At a Glance

Physical Principles of Electrosurgery

Electrosurgery uses alternating current at radiofrequency, typically 300 kHz to 3 MHz, to generate heat within tissue. The tissue acts as a resistor, and the heat produced follows the relationship of power, current density, and application duration. Current density is highest at the small active electrode and dissipates as the current spreads through the body toward the return electrode. This concentration of energy at the active tip produces the desired thermal effect while the large surface area of the return pad prevents burn at the exit site.

Three distinct tissue effects occur as temperature rises. At 45 to 60 degrees C, cells dehydrate and proteins denature without structural destruction, producing coagulation. Between 60 and 90 degrees C, collagen shrinks and vessels constrict, which is the basis for coaptive sealing. Above 100 degrees C, intracellular water vaporizes and cells rupture, producing cutting and vaporization. The surgeon controls which effect predominates by selecting waveform, power, and application time.

The cut waveform is a continuous, low-voltage sine wave that produces rapid heating and cellular vaporization. The coagulation waveform is intermittent, high-voltage, and produces slower heating with more lateral spread. Blend waveforms combine both characteriztics for simultaneous cutting and hemostasis. Modern generators modulate output based on tissue impedance, reducing the risk of charring and sticking.

Monopolar Electrosurgery

Monopolar electrosurgery delivers current from a handpiece or pencil through the patient to a dispersive electrode, commonly called a return pad. The active electrode concentrates energy at the surgical site, and the return pad must have sufficient surface area and conductive gel to distribute current safely. In veterinary patients, pad placement on a clipped, dry area over a large muscle mass is standard. The pad must not be placed over bony prominences, scar tissue, or areas with poor perfusion.

Tissue effects depend on electrode size, power setting, and activation time. A fine needle electrode produces high current density and precise cutting with minimal collateral damage. A ball electrode spreads current over a larger area and is better suited for coagulation of diffuse bleeding. The spray coagulation mode creates sparking to the tissue surface, which produces superficial eschar but also generates high temperatures and significant lateral thermal damage. Comparative work in canine gut arteries demonstrated that monopolar electrocoagulation produced undesirable tissue erosion when sparking occurred, whereas bipolar systems did not erode tissue at any tested setting. This finding supports caution when using monopolar coagulation near thin-walled viscera or vascular structures.

Lateral thermal spread is the principal limitation of monopolar electrosurgery. Ex vivo porcine muscle studies recorded tip temperatures of 78.9 degrees C after 5 seconds at 40 W, and tissue 1 cm from the tip reached 59.2 degrees C after 10 seconds at the same power. These temperatures are sufficient to damage nerves, vessels, and bowel wall at distance from the intended target. In a canine model of nerve-sparing prostatectomy, monopolar energy applied near the cavernous nerves produced substantial decreases in erectile function compared with suture ligation alone. The veterinary corollary is that monopolar electrosurgery should be avoided within 1 cm of peripheral nerves, ureters, and intestinal serosa.

Bipolar Electrosurgery

Bipolar electrosurgery confines current to the tissue grasped between two forceps tips or jaw electrodes. No return pad is required, and current does not pass through the patient's body. This confinement reduces the risk of remote injury and decreases lateral thermal spread compared with monopolar systems. Bipolar forceps are standard in ophthalmic surgery, neurosurgery, and procedures near the testicular cord where precise hemostasis is required.

The surgeon must grasp tissue gently but completely, with the tips not touching each other directly. Activation should continue until the tissue visibly blanches and bubbles cease, indicating desiccation. Overactivation produces charring, tissue sticking, and weakened seals. Standard bipolar forceps are less reliable for sealing vessels larger than 3 mm in diameter. In a porcine comparison, standard bipolar forceps with two different designs were less reliable than a dedicated vessel sealing system, and in some cases vessel sealing could not be accurately assessed before vessel division. Bipolar electrosurgery is best reserved for small vessels, fine dissection, and situations where thermal spread must be minimized.

Vessel Sealing Systems

Electrothermal bipolar vessel sealing systems combine bipolar energy with active tissue feedback and mechanical compression. The LigaSure system, the most extensively studied device, delivers a high-current, low-voltage waveform while a microprocessor measures tissue impedance and automatically terminates energy delivery when the seal is complete. The jaws apply constant pressure during activation, which denatures collagen and elastin in the vessel wall and forms a translucent, plastic-like seal.

Experimental data support the clinical utility of these systems. In a porcine model, a 5 mm laparoscopic vessel sealing device sealed arteries up to 6 mm and veins up to 12 mm in diameter at supraphysiologic bursting pressures. Mean bursting pressure for arteries was 662 mm Hg and for veins was 233 mm Hg, both well above normal venous and arterial pressures. Collateral tissue damage extended only 1 to 3 mm from the application site. These values provide a benchmark for clinical decision-making: vessels within these diameter ranges can be sealed with confidence, while larger vessels require suture ligation or vascular staplers.

Vessel sealing systems also perform well on ductal structures. Ex vivo human cystic ducts sealed with an electrothermal bipolar device achieved mean bursting pressures of 621 mm Hg, comparable to surgical clips. In a survival porcine model, common bile ducts sealed with the device remained intact at necropsy on postoperative day six. These findings support the use of vessel sealing for ligation of cystic ducts, mesenteric pedicles, and other tubular structures, though the surgeon should recognize that ductal tissue is less elastic than vascular tissue and may require longer activation times.

The primary disadvantages of vessel sealing systems are cost per use and the requirement for dedicated generator platforms. The jaws must be kept clean and free of eschar, and activation against metal clips or staples will damage the instrument. Devices are available in multiple jaw lengths and shaft configurations for open and laparoscopic surgery.

Instrument Selection by Tissue Type and Vessel Diameter

The choice between monopolar electrosurgery, bipolar electrosurgery, and vessel sealing devices depends on three variables: the vessel diameter, the proximity of critical structures, and the mechanical demands of the tissue being divided. No single modality performs optimally across all tissue types, and the experienced surgeon selects the instrument that matches the specific task instead of defaulting to a single device.

Monopolar electrosurgery remains the most versatile tool for cutaneous incisions, diffuse parenchymal bleeding, and dissection through tissue planes. Its capacity to cut and coagulate simultaneously makes it efficient for opening body cavities and resecting masses where thermal spread to adjacent structures is not a primary concern. However, monopolar current follows the path of least resistance to the return electrode, and the zone of thermal injury extends beyond the visible tissue effect. Comparative work in porcine muscle demonstrated that monopolar diathermy produced the highest tip temperatures and the greatest lateral thermal spread of all devices tested, with tissue 1 cm from the tip reaching 59.2 degrees C after a 10-second application at 40 W. This obligates the surgeon to maintain a minimum working distance from nerves, bowel, and ureters.

Bipolar electrosurgery confines current to the tissue grasped between the forceps tips, which reduces unintended thermal injury. The same comparative study recorded bipolar tip temperatures of 41.9 degrees C after 5 seconds at maximum power, substantially lower than monopolar values. Bipolar forceps are the preferred instrument for fine hemostasis in confined spaces such as the nasal cavity, the ear canal, and around the urinary bladder. They are also the safest electrosurgical option when a pacemaker or other implanted electronic device is present. The principal limitation is that standard bipolar forceps seal vessels inconsistently. In a porcine model, standard bipolar forceps were less reliable than a dedicated vessel sealing system, and in some cases seal quality could not be assessed before vessel division.

Vessel sealing systems deliver a controlled combination of pressure and low-voltage, high-current energy, with an impedance feedback loop that terminates the cycle when the seal is complete. These devices seal arteries up to 6 mm and veins up to 12 mm in diameter at supraphysiologic bursting pressures, with collateral damage extending only 1 to 3 mm from the application site. The same study confirmed that the 5 mm laparoscopic vessel sealing instrument achieved these results, making it suitable for both open and minimally invasive procedures.

The decision framework shifts with patient size and species. In feline patients, the 6 mm arterial limit of vessel sealing devices covers nearly all peripheral vessels, and the reduced thermal spread is particularly valuable given the thin body wall and the proximity of viscera to the surgical field. In large breed dogs, the external iliac artery and the caudal vena cava may exceed device specifications, and the surgeon must either use suture ligation or apply the device proximal to the largest vessel segment. In equine and bovine surgery, where tissue planes are thicker and vessels are larger, vessel sealing devices are often reserved for laparoscopic procedures, and conventional ligation remains the standard for major vascular pedicles.

Technique and Application Protocol

Effective use of any electrosurgical device requires attention to three mechanical variables: tissue compression, energy delivery, and dwell time. Compression is the most frequently neglected. Experimental work on canine mesenteric arteries established that the most effective method for coagulating medium-sized arteries is to occlude the vessel by compression first, then apply heat to seal it, a technique termed coaptive coagulation. This principle applies across all electrosurgical modalities. The surgeon should grasp the vessel with the instrument jaws, apply firm pressure to appose the vessel walls, and only then activate the energy.

For vessel sealing devices, the manufacturer's activation algorithm should be followed without interruption. The device emits an audible tone when the seal cycle is complete, and the surgeon must wait for that signal before releasing the jaws. Premature release, or reopening the jaws before the tissue cools, disrupts the seal and causes bleeding. The seal should be inspected visually before transection. A translucent, amber-colored segment indicates a completed seal, while a charred or blackened segment suggests excessive energy delivery and a higher risk of seal failure.

Monopolar electrosurgery requires a different technique. The electrode should contact the tissue before activation, and the surgeon should use short bursts of 2 to 3 seconds instead of continuous activation. Desiccation, not charring, is the goal. Charring indicates that the tissue has reached temperatures above 100 degrees C, at which point water has boiled away and further energy delivery produces no additional hemostatic effect while increasing collateral damage. The cutting mode should be used for tissue division, and the coagulation mode for hemostasis, with the understanding that coagulation mode at high power settings produces sparking and tissue erosion. The canine arterial coagulation study specifically noted undesirable tissue and vessel erosion with electrical sparking from the monopolar electrode.

Monitoring Parameters and Intraoperative Assessment

The surgeon must monitor three parameters continuously during electrosurgical use: tissue color, tissue impedance feedback where available, and the presence of smoke or char.

Tissue color is the most accessible indicator. Normal desiccation produces a white or pale tan appearance. A yellow-brown color indicates overheating, and black char indicates that the tissue has been carbonized. Carbonized tissue conducts poorly, so further energy application at the same site is ineffective and increases collateral injury. The surgeon should move to a fresh tissue site or reduce the power setting instead of continuing to activate on charred tissue.

Vessel sealing devices provide audible and, in some models, visual feedback on seal completion. The impedance feedback loop terminates energy delivery automatically when the tissue between the jaws reaches the target impedance, which standardizes seal quality across vessels of varying diameter and wall thickness. The surgeon should trust this feedback and not override it by extending the activation time manually.

Smoke production is a useful indirect indicator. Minimal smoke accompanies normal tissue desiccation. Heavy smoke production indicates excessive energy delivery, usually from a power setting that is too high or an application time that is too long. Smoke should be evacuated continuously, both for visualization and because surgical smoke contains aerosolized cellular material.

Troubleshooting Common Electrosurgical Issues

When a sealed vessel bleeds after transection, the surgeon should not attempt to re-seal the same tissue remnant. The remnant is already desiccated and will not form a new seal. The correct approach is to grasp a fresh segment of vessel proximal to the failed seal, or to place a ligature or clip if the vessel is too short for reapplication.

Documentation and Record Keeping

The surgical record should include the electrosurgical modality used, the generator settings, and the specific vessels or structures sealed with each device. This documentation supports postoperative decision-making if a patient develops delayed hemorrhage or a bile leak, and it provides a basis for reviewing technique when complications occur. For vessel sealing devices, record the device type and jaw size, because these determine the maximum vessel diameter that can be sealed safely.

Photographic documentation is valuable for teaching and for medicolegal records, particularly when vessel sealing is used in proximity to critical structures such as the common bile duct or the ureter. The comparative study of biliary duct sealing reported bursting pressures for cystic ducts sealed with an electrothermal bipolar vessel sealer, but the clinical relevance of those pressures depends on the specific duct and the patient's postoperative course. The surgeon should note any deviation from the expected seal appearance and any intraoperative event, such as a seal failure or an episode of bleeding, in the operative report.

Documentation of electrosurgical safety checks, including return electrode placement and generator function verification, should follow the hospital's standard operating procedure. These checks are particularly important in patients with implanted electronic devices, where monopolar electrosurgery may cause interference or injury. The American College of Veterinary Surgeons provides specialist summaries of surgical conditions and expected outcomes that can guide preoperative discussion and postoperative monitoring, and the MSD Veterinary Manual offers species-specific guidance on surgical complications and their management.

Complications and Failure Modes

Electrosurgical complications fall into three categories: thermal injury beyond the target tissue, mechanical failure of the seal, and unintended energy transfer. Lateral thermal spread is the most common source of collateral damage. Monopolar instruments generate the highest tip temperatures and the greatest degree of thermal spread, with tissue 1 cm from the tip reaching 59.2 degrees C after 10 seconds at 40 W in an ex vivo porcine model. Bipolar and vessel sealing instruments produce substantially less spread, but no energy-based device is free of collateral effect.

Thermal injury to nerves deserves specific attention. In a canine model of nerve sparing prostatectomy, both monopolar and bipolar electrosurgery near the neurovascular bundle produced a substantial decrease in erectile response to nerve stimulation, whereas suture ligation alone preserved function. The clinical implication is direct: when dissection proceeds within a few millimetres of a named nerve, energy devices should be avoided or used at the lowest effective setting with brief application times.

Seal failure presents as either immediate bleeding after transection or delayed hemorrhage hours to days later. Immediate failure is usually recognized at the operative site and reflects inadequate vessel compression, insufficient energy delivery, or application to a vessel larger than the device rating. Delayed failure is more dangerous because the vessel may have appeared sealed at surgery. The discriminating finding at reoperation is a necrotic vessel stump with the seal zone sloughed, indicating that energy was applied for too long or at too high a setting, causing the vessel wall to cook instead of fuse.

Unintended energy transfer includes capacitive coupling in laparoscopic monopolar instruments, direct coupling to a metal cannula, and insulation failure. These produce burns outside the surgeon's field of view. Detection relies on vigilance: any unexplained patient movement, arrhythmia, or postoperative pain out of proportion to the procedure should prompt inspection of the entire instrument shaft and cannula system.

Common Errors and Corrective Action

Less experienced operators most often err in three ways. First, they activate the electrode before adequate tissue contact is established. This produces sparking, charring, and superficial coagulation with poor depth of effect. The corrective action is to compress the tissue with the instrument, then activate, then allow the seal to complete before releasing tension. Compression before heating is the mechanism that allows coaptive coagulation of medium sized arteries, and it is the single most important technical factor in reliable hemostasis.

Second, they use excessive power settings to compensate for poor technique. Higher settings increase thermal spread without proportionally improving seal quality. The correct response to a slow seal is to check tissue contact and instrument condition, not to increase power.

Third, they transect before the seal cycle completes. Vessel sealing systems signal completion with an audible tone or automatic shutoff. Cutting before that signal means dividing partially coagulated tissue. The corrective action is to wait for the device's completion signal and to verify the seal visually before cutting.

Tissue sticking is a related error. It occurs when the instrument is withdrawn before the tissue has cooled or when power is too high for the tissue type. The instrument should be opened gently and the tissue allowed to release spontaneously instead of pulled free, which can avulse the fragile seal.

Limitations of the Evidence and Areas of Expert Disagreement

The evidence base for electrosurgery in veterinary patients draws heavily on human and experimental models. Bursting pressure data for vessel sealing systems come from porcine studies, with arteries up to 6 mm and veins up to 12 mm sealed at supraphysiological pressures. These figures are frequently cited as upper limits for clinical use, but they were generated in healthy vessels under controlled conditions. Diseased, inflamed, or previously irradiated vessels may fail at lower pressures, and no veterinary study has established species-specific vessel diameter limits.

Expert opinion differs on several practical points. The safe margin between an energy device and a nerve is not defined by controlled data. Some surgeons accept 1 to 2 mm of clearance with bipolar instruments, others insist on no energy use within 5 mm of a major nerve. The canine prostatectomy data support caution but do not resolve the question. Similarly, the role of vessel sealing devices on ductal structures remains contested. One comparative study found that electrothermal bipolar vessel sealing produced bursting pressures comparable to clips on cystic ducts, but the authors cautioned that histologic thermal spread of 1 to 3 mm may be clinically significant in small ducts. Whether this matters in the common bile duct of a cat or the pancreatic duct of a dog is unknown.

Wound healing data add another layer of uncertainty. Ultrasonic instruments produced faster re-epithelialisation and greater tensile strength than electrosurgery in guinea pig oral mucosa, but the clinical significance of these differences in routine veterinary surgery is unclear. The ACVS and MSD Veterinary Manual provide general guidance on surgical technique and complication management, but neither offers device specific recommendations.

Referral, Consultation, and Reporting

Referral is warranted when hemorrhage cannot be controlled with the available instruments, when a vessel seal fails repeatedly at the same site, or when thermal injury to a nerve, ureter, or bowel is suspected. Specialist consultation is appropriate before elective surgery on a structure where energy devices carry known risk, such as the prostate, urethra, or biliary tree.

Laboratory involvement is indicated when coagulopathy is suspected as the cause of intraoperative bleeding. A platelet count, prothrombin time, and activated partial thromboplastin time should be obtained before reoperation. Regulatory reporting applies to device malfunction, including insulation failure, premature shutoff, or failure to deliver energy. In the United States, the AVMA practice resources direct veterinarians to report device failures to the manufacturer and to the appropriate federal agency. International practitioners should follow their national veterinary authority's adverse event reporting pathway, consistent with WOAH standards for veterinary product oversight.

Frequently Asked Questions

What should I do if a vessel sealing device is unavailable for a procedure that would benefit from one?

Use the highest quality alternative your setting permits. Bipolar forceps with a coaptive technique, applying firm compression before delivering energy, approach vessel sealer performance for vessels under 3 mm. Titanium clips remain reliable for arteries up to 6 mm and veins up to 12 mm, based on comparative porcine data from Landman and colleagues. Suture ligation is always acceptable. Reduce power settings, shorten activation time, and avoid tension on the pedicle during coagulation. If monopolar electrosurgery is the only option, grasp the vessel with forceps and deliver current through the instrument instead of directly to the vessel wall. Document the equipment limitation in the surgical record.

How do I choose between monopolar and bipolar electrosurgery for dissection near nerves?

Monopolar electrosurgery produces the highest tip temperatures and the greatest lateral thermal spread of the common energy modalities, with tissue 1 cm from the tip reaching nearly 60 degrees C after a 10 second application at 40 W in ex vivo porcine muscle, as reported by Sutton and colleagues. Bipolar instruments generate substantially less collateral heating. In a canine model of cavernous nerve preservation, both monopolar and bipolar energy near the neurovascular bundle reduced erectile function compared with suture ligation, per Ong and colleagues. For dissection within 5 mm of a nerve, use bipolar at the lowest effective setting, limit activation to under 3 seconds, and irrigate between applications. Consider sharp dissection and suture ligation when nerve function is critical.

Does electrosurgery impair wound healing compared with a scalpel?

Electrosurgical incisions heal more slowly than scalpel incisions in oral mucosa, with delayed re-epithelialization and lower early tensile strength in a guinea pig model reported by Sinha and Gallagher. The difference narrows over time, and by day 28 tensile strength approaches that of scalpel wounds. Bipolar electrosurgery causes less collateral damage than monopolar. For skin incisions where cosmetic outcome matters, use a scalpel for the epidermis and reserve electrosurgery for deeper dissection and hemostasis. When electrosurgical incision is necessary, use a fine needle electrode at the lowest power that cuts cleanly, move steadily to minimize dwell time, and avoid charring. Wound infection rates do not differ meaningfully when technique is careful.

What is the maximum vessel diameter I can safely seal with a bipolar vessel sealing device?

Published porcine data from Landman and colleagues demonstrate reliable sealing of arteries up to 6 mm and veins up to 12 mm at supraphysiologic bursting pressures. These figures apply to healthy vessels with normal wall compliance. Atherosclerotic, calcified, or chronically inflamed vessels seal less predictably. In feline patients, vessel walls are thinner and seal at lower energy requirements, reduce activation time accordingly. For arteries larger than 6 mm or veins larger than 12 mm, use vascular staples or suture ligation. Always test the seal by applying gentle traction distal to the device before transecting, and reinforce any seal that appears pale, charred, or incomplete.

How should I document electrosurgery use in the medical record?

Record the device type, model, and serial number if available. Note the power mode and setting for each major application, the tissue or vessel sealed, and the estimated vessel diameter. Document the total activation time for prolonged procedures. Describe any complications, including visible thermal spread, seal failure, or inadvertent contact with adjacent structures. Include the method used to verify hemostasis, such as visual inspection, traction testing, or observation over a defined period. If a device malfunction occurred, document the steps taken and whether the device was retained for manufacturer review. This record supports continuity of care and provides essential information if postoperative hemorrhage or thermal injury develops.

How do I explain electrosurgery risks to a client whose pet needs surgery?

Use plain language that acknowledges the technique without minimizing risk. Explain that electrosurgery uses heat to stop bleeding and that the surgical team selects the lowest effective energy setting to protect surrounding tissue. Mention that all energy devices cause some heating of adjacent tissue, and that the surgeon monitors for this continuously. If the procedure involves dissection near nerves, the bladder, or the bowel, state that extra precautions are taken. Reassure the client that the surgical team has contingency plans, including suture ligation, if a vessel does not seal adequately. Direct clients to resources such as the American College of Veterinary Surgeons for general information about surgical procedures and expected outcomes.

Related Clinical & Scientific Guides

• Perioperative Antibiotic Prophylaxis: Timing and Selection
• Surgical Approaches to the Femur and Stifle
• Fracture Healing Assessment: Radiographic and Clinical Evaluation

References and Further Reading

• Effectiveness of the ultrasonic coagulating shears, LigaSure vessel sealer, and surgical clip application in biliary surgery: a comparative analysis.. 2001.
• Evaluation of a vessel sealing system, bipolar electrosurgery, harmonic scalpel, titanium clips, endoscopic gastrointestinal anastomosis vascular staples and sutures for arterial and venous ligation in a porcine model.. 2003.
• Experimental comparison of endoscopic yttrium-aluminum-garnet laser, electrosurgery, and heater probe for canine gut arterial coagulation. Importance of compression and avoidance of erosion.. 1987.
• Comparison of lateral thermal spread using monopolar and bipolar diathermy, the Harmonic Scalpel and the Ligasure.. 2010.
• Nerve sparing radical prostatectomy: effects of hemostatic energy sources on the recovery of cavernous nerve function in a canine model.. 2004.
• Effects of steel scalpel, ultrasonic scalpel, CO2 laser, and monopolar and bipolar electrosurgery on wound healing in guinea pig oral mucosa.. 2003.
• American College of Veterinary Surgeons Animal Health Resources. American College of Veterinary Surgeons.
• MSD Veterinary Manual, Professional Edition. MSD Veterinary Manual.
• American Veterinary Medical Association Practice Resources. American Veterinary Medical Association.

Related Articles

• Surgical Hemostasis: Electrosurgery and Vessel Sealing
• Diagnostic Approach to Acute Abdomen in Dogs and Cats
• Elongated Soft Palate Surgery: Techniques and Postoperative Management
• Fracture Classification and Decision-Making in Small Animals
• Fracture Healing Assessment: Radiographic and Clinical Evaluation

This article is educational professional reference material for veterinary audiences. It is not a substitute for veterinary diagnosis, individual clinical judgment, current product labeling, or applicable regulatory requirements.