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Tumescent Anesthesia (tumescent + anesthesia)

Distribution by Scientific Domains

Medical Sciences	100%

Selected Abstracts

Re: The Long Pulsed Er:YAG Laser and Intravenous Sedation Versus Dermabrasion (or Laser) Utilizing Tumescent Anesthesia for Colloid Milium

DERMATOLOGIC SURGERY, Issue 8 2002
FIACS, Lawrence M. Field MD
No abstract is available for this article. [source]

A Refined Surgical Treatment Modality for Bromhidrosis: Double W Incision Approach with Tumescent Technique

DERMATOLOGIC SURGERY, Issue 8 2009
HANG LI PHD
BACKGROUND Axillary bromhidrosis has a strong negative effect on one's social life. A high success rate and few complications are criteria for an ideal treatment method. OBJECTIVE To evaluate a new surgical treatment modality for bromhidrosis: Double W incision with full-exposure excision under tumescent anesthesia. MATERIALS & METHODS Twenty patients with bromhidrosis were treated. Patients were placed in a supine position with their treated arms abducted to 110°. After injection of 60 mL of tumescent solution into each axilla, two small W incisions were made at the superior and inferior axillary poles of the hair-bearing area. The whole hair-bearing skin was undermined at the level of the superficial fat to obtain adequate skin eversion. The flaps were everted to offer full exposure of the apocrine glands, and meticulous excision of each gland was performed. Finally, the incisions were re-approximated, and bulky compressive dressings were applied to the area for 72 hours. RESULTS Of the 40 axillae (20 patients), 32 (80.0%) showed excellent results, and eight (20.0%) had good results. Malodor was significantly decreased. There were no serious complications. CONCLUSION This technique can produce excellent results with a lower complication rate than most other surgical modalities and can be performed without costly equipment. [source]

Warm and Neutral Tumescent Anesthetic Solutions Are Essential Factors for a Less Painful Injection

DERMATOLOGIC SURGERY, Issue 9 2006
CHIH-HSUN YANG MD
BACKGROUND Tumescent local anesthesia is widely used in dermatologic surgery. Minimizing pain associated with injections is crucial to successful surgical procedures. OBJECTIVE This study investigates the pain associated with warm and room temperatures in neutralized or nonneutralized tumescent anesthetic solutions injection. METHODS Thirty-six patients with axilla osmidrosis who underwent local anesthesia for surgery were randomly assigned to three groups. Group A received warm neutral (40°C) and room-temperature neutral (22°C) tumescent injections to each axillary region. Group B received warm neutral (pH 7.35) and warm nonneutral (pH 4.78) tumescent injections on each side of axilla. Group C received warm nonneutral and room-temperature nonneutral tumescent injections on each side of axilla. Pain associated with infiltration of anesthesia was rated on a visual analog scale (VAS). RESULTS A statistically significant decrease (p < .001) in pain sensation was reported on the warm, neutral injection side (mean rating, 32.7 mm) compared with the room-temperature, neutral injection side (mean rating, 53.3 mm). Patient-reported pain intensity was significantly lower on the side that received warm, neutral tumescent anesthesia (mean rating, 26.8 mm) than on the side receiving warm, nonneutral tumescent anesthesia (mean rating, 44.9 mm; p < .001). The difference in VAS scores between warm neutral (mean rating, 23.9 mm) and room-temperature nonneutral (mean rating, 61.2 mm) was statistically significant (p < .001). CONCLUSION The warm, neutral tumescent anesthetic preparation effectively suppressed patient pain during dermatologic surgical procedures. [source]

Mathematical modeling of 980-nm and 1320-nm endovenous laser treatment

LASERS IN SURGERY AND MEDICINE, Issue 3 2007
Serge R. Mordon PhD
Abstract Background and Objectives Endovenous laser treatment (ELT) has been proposed as an alternative in the treatment of reflux of the great saphenous vein (GSV) and small saphenous vein (SSV). Numerous studies have since demonstrated that this technique is both safe and efficacious. ELT was presented initially using diode lasers of 810 nm, 940 nm, and 980 nm. Recently, a 1,320-nm Nd:YAG laser was introduced for ELT. This study aims to provide mathematical modeling of ELT in order to compare 980 nm and 1,320 nm laser-induced damage of saphenous veins. Study Design/Materials and Methods The model is based on calculations describing light distribution using the diffusion approximation of the transport theory, the temperature rise using the bioheat equation, and the laser-induced injury using the Arrhenius damage model. The geometry to simulate ELT was based on a 2D model consisting of a cylindrically symmetric blood vessel including a vessel wall and surrounded by an infinite homogenous tissue. The mathematical model was implemented using the Macsyma-Pdease2D software (Macsyma, Inc., Arlington, MA). Calculations were performed so as to determine the damage induced in the intima tunica, the externa tunica and inside the peri-venous tissue for 3 mm and 5 mm vessels (considered after tumescent anesthesia) and different linear endovenous energy densities (LEED) usually reported in the literature. Results Calculations were performed for two different vein diameters: 3 mm and 5 mm and with LEED typically reported in the literature. For 980 nm, LEED: 50 to 160 J/cm (CW mode, 2 mm/second pullback speed, power: 10 W to 32 W) and for 1,320 nm, LEED: 50 to 80 J/cm (pulsed mode, pulse duration 1.2 milliseconds, peak power: 135 W, repetition rate 30 Hz to 50 Hz). Discussion and Conclusion Numerical simulations are in agreement with LEED reported in clinical studies. Mathematical modeling shows clearly that 1,320 nm, with a better absorption by the vessel wall, requires less energy to achieve wall damage. In the 810,1,320-nm range, blood plays only a minor role. Consequently, the classification of these lasers into hemoglobin-specific laser wavelengths (810, 940, 980 nm) and water-specific laser wavelengths (1,320 nm) is inappropriate. In terms of closure rate, 980 nm and 1,320 nm can lead to similar results and, as reported by the literature, to similar side effects. This model should serve as a useful tool to simulate and better understand the mechanism of action of the ELT. Lasers Surg. Med. 39:256,265, 2007. © 2007 Wiley-Liss, Inc. [source]