David R Patterson1, Sydney Drever1, Maryam Soltani1, Sam R Sharar2, Shelley Wiechman1, Walter J Meyer3, Hunter G Hoffman4. 1. Department of Rehabilitation Medicine, University of Washington, 1959 NE Pacific St, Seattle, WA 98195, United States. 2. University of Washington School of Medicine, Harborview Medical Center, 325 9th Ave., Seattle, WA 98104, United States; Department of Anesthesiology & Pain Medicine, School of Medicine, University of Washington, 325 9th Ave., Seattle, WA 98104, United States. 3. University of Texas Medical Branch at Galveston, 301 University Boulevard, Galveston, TX 77555, United States; Shriners Children's Texas, 815 Market St, Galveston, TX 77550, United States. 4. Department of Mechanical Engineering, College of Engineering, University of Washington, Box 352142, Seattle, WA 98195, United States; Department of Psychology, University of Washington, Box 352142, Seattle, WA, United States; Department of Computer Science, King Abdulaziz University, Jeddah, Saudi Arabia. Electronic address: hunthoff9@gmail.com.
Abstract
PURPOSE: Non-pharmacologic adjuncts to opioid analgesics for burn wound debridement enhance safety and cost effectiveness in care. The current study explored the feasibility of using a custom portable water-friendly immersive VR hardware during burn debridement in adults, and tested whether interactive VR would reduce pain more effectively than nature stimuli viewed in the same VR goggles. METHODS: Forty-eight patients with severe burn injuries (44 adults and 4 children) had their burn injuries debrided and dressed in a wet wound care environment on Study Day 1, and 13 also participated in Study Day 2. INTERVENTION: The study used a within-subject design to test two hypotheses (one hypothesis per study day) with the condition order randomized. On Study Day 1, each individual (n = 44 participants) spent 5 min of wound care in an interactive immersive VR environment designed for burn care, and 5 min looking at still nature photos and sounds of nature in the same VR goggles. On Study Day 2 (n = 12 adult participants and one adolescent from Day 1), each participant spent 5 min of burn wound care with no distraction and 5 min of wound care in VR, using a new water-friendly VR system. On both days, during a post-wound care assessment, participants rated and compared the pain they had experienced in each condition. OUTCOME MEASURES ON STUDY DAYS 1 AND 2: Worst pain during burn wound care was the primary dependent variable. Secondary measures were ratings of time spent thinking about pain during wound care, pain unpleasantness, and positive affect during wound care. RESULTS: On Study Day 1, no significant differences in worst pain ratings during wound care were found between the computer-generated world (Mean = 71.06, SD = 26.86) vs. Nature pictures conditions (Mean = 68.19, SD = 29.26; t < 1, NS). On secondary measures, positive affect (fun) was higher, and realism was lower during computer-generated VR. No significant differences in pain unpleasantness or "presence in VR" between the two conditions were found, however. VR VS. NO VR. (STUDY DAY 2): Participants reported significantly less worst pain when distracted with adjunctive computer generated VR than during standard wound care without distraction (Mean = 54.23, SD = 26.13 vs 63.85, SD = 31.50, t(11) = 1.91, p < .05, SD = 17.38). In addition, on Study Day 2, "time spent thinking about pain during wound care" was significantly less during the VR condition, and positive affect was significantly greater during VR, compared to the No VR condition. CONCLUSION: The current study is innovative in that it is the first to show the feasibility of using a custom portable water-friendly immersive VR hardware during burn debridement in adults. However, contrary to predictions, interactive VR did not reduce pain more effectively than nature stimuli viewed in the same VR goggles.
PURPOSE: Non-pharmacologic adjuncts to opioid analgesics for burn wound debridement enhance safety and cost effectiveness in care. The current study explored the feasibility of using a custom portable water-friendly immersive VR hardware during burn debridement in adults, and tested whether interactive VR would reduce pain more effectively than nature stimuli viewed in the same VR goggles. METHODS: Forty-eight patients with severe burn injuries (44 adults and 4 children) had their burn injuries debrided and dressed in a wet wound care environment on Study Day 1, and 13 also participated in Study Day 2. INTERVENTION: The study used a within-subject design to test two hypotheses (one hypothesis per study day) with the condition order randomized. On Study Day 1, each individual (n = 44 participants) spent 5 min of wound care in an interactive immersive VR environment designed for burn care, and 5 min looking at still nature photos and sounds of nature in the same VR goggles. On Study Day 2 (n = 12 adult participants and one adolescent from Day 1), each participant spent 5 min of burn wound care with no distraction and 5 min of wound care in VR, using a new water-friendly VR system. On both days, during a post-wound care assessment, participants rated and compared the pain they had experienced in each condition. OUTCOME MEASURES ON STUDY DAYS 1 AND 2: Worst pain during burn wound care was the primary dependent variable. Secondary measures were ratings of time spent thinking about pain during wound care, pain unpleasantness, and positive affect during wound care. RESULTS: On Study Day 1, no significant differences in worst pain ratings during wound care were found between the computer-generated world (Mean = 71.06, SD = 26.86) vs. Nature pictures conditions (Mean = 68.19, SD = 29.26; t < 1, NS). On secondary measures, positive affect (fun) was higher, and realism was lower during computer-generated VR. No significant differences in pain unpleasantness or "presence in VR" between the two conditions were found, however. VR VS. NO VR. (STUDY DAY 2): Participants reported significantly less worst pain when distracted with adjunctive computer generated VR than during standard wound care without distraction (Mean = 54.23, SD = 26.13 vs 63.85, SD = 31.50, t(11) = 1.91, p < .05, SD = 17.38). In addition, on Study Day 2, "time spent thinking about pain during wound care" was significantly less during the VR condition, and positive affect was significantly greater during VR, compared to the No VR condition. CONCLUSION: The current study is innovative in that it is the first to show the feasibility of using a custom portable water-friendly immersive VR hardware during burn debridement in adults. However, contrary to predictions, interactive VR did not reduce pain more effectively than nature stimuli viewed in the same VR goggles.
Authors: Hunter G Hoffman; Sam R Sharar; Barbara Coda; John J Everett; Marcia Ciol; Todd Richards; David R Patterson Journal: Pain Date: 2004-09 Impact factor: 6.961
Authors: Robert R Edwards; Gina Magyar-Russell; Brett Thombs; Michael T Smith; Radha K Holavanahalli; David R Patterson; Patricia Blakeney; Dennis C Lezotte; Jennifer A Haythornthwaite; James A Fauerbach Journal: Arch Phys Med Rehabil Date: 2007-12 Impact factor: 3.966
Authors: Guy H Montgomery; Dana H Bovbjerg; Julie B Schnur; Daniel David; Alisan Goldfarb; Christina R Weltz; Clyde Schechter; Joshua Graff-Zivin; Kristin Tatrow; Donald D Price; Jeffrey H Silverstein Journal: J Natl Cancer Inst Date: 2007-08-28 Impact factor: 13.506
Authors: Hunter G Hoffman; Robert A Rodriguez; Miriam Gonzalez; Mary Bernardy; Raquel Peña; Wanda Beck; David R Patterson; Walter J Meyer Journal: Front Hum Neurosci Date: 2019-08-08 Impact factor: 3.169