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Original Articles

Comprehensive method to predict and quantify scald burns from beverage spills

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Pages 900-910 | Received 27 Jun 2016, Accepted 07 Jul 2016, Published online: 12 Aug 2016

References

  • Merz KM, Pfau, M, Blumenstock G, . (2010). Cutaneous microcirculatory assessment of the burn wound is associated with the depth of injury and predicts healing time. Burns 36:477–82.
  • Singer AJ, Berutti L, Thode HC, et al. (2000). Standardized burn model using multiparametric histologic analysis of burn depth. Acad Emerg Med 7:1–6.
  • Durant CAT, Simpson AR, Williams G. (2008). Thermal injury – the first 24 h. Curr Anesth Crit Care 19:256–63.
  • Heimbach DM, Afromowitz MA, Engrav LH, et al. (1984). Burn depth estimation – man or machine. J Trauma 24:373–8.
  • Palla RL. (1981). A heat transfer analysis of scald injury. National Technology Information Service, US Department of Commerce.
  • Brown F, Diller KR. (2008). Calculating the optimum temperature for serving hot beverages. Burns 34:648–54.
  • Pipatsattayanutong S, Lee HS, Lau S. et al. (2001). Hedonic R-index measurement of temperature preferences for drinking black coffee. J Sensor Studies 16:517–36.
  • Borchgrevink CP, Susskind AM, Tarras JT. (1999). Consumer preferred hot beverage temperatures. Food Qual Preference 10:117–21.
  • Lee HS, O’Mahony M. (2002). At what temperature do consumers like to drink coffee?: mixing methods. J Food Sci 67:2774–7.
  • Jamnadas-Khoda B, See MS, Cubison CTC. et al. (2010). How would you like your tea, vicar? Burns 36:356–59.
  • Moritz AR, Henriques FC. (1947). Studies of thermal injury I. The conduction of heat to and through the skin and the temperature attained therein. Am J Pathol 23:531–49.
  • Moritz AR, Henriques FC. (1947). Studies of thermal injury II. The relative importance of time and surface temperature in the causation of cutaneous burns. Am J Pathol 23:695–720.
  • Moritz AR. (1947). Studies of thermal injury III. The pathology and pathogenesis of cutaneous burns, an experimental study. Am J Pathol 23:915–41.
  • Henriques FC. (1947). Study of thermal injury V. The predictability and significance of thermal induced rate processes leading to irreversible epidermal injury. Arch Pathol 43:489–502.
  • Abraham JP, Plourde BD, Vallez LJ, et al. (2015). Estimating the time and temperature relationship for causation of deep-partial thickness skin burns. Burns 41:1741–7.
  • Abraham JP, Plourde BD, Vallez LJ, et al. Skin burn. In: Shrivastava D, ed. Theory and application of heat transfer in cells and organs. Hoboken (NJ): Wiley (in press).
  • Johnson NN, Abraham JP, Helgeson ZI, et al. (2011). An archive of skin-layer thicknesses and properties and calculations of scald burns with comparisons to experimental observations. J Thermal Sci Eng Appl 3:paper no. 011003.
  • Abraham JP, Hennessey MP, Minkowycz WJ. (2011). A simple algebraic model to predict burn depth and injury. Int Comm Heat Mass Trans 38:1169–71.
  • Viglianti BL, Dewhirst MW, Gorman JM, et al. (2014). Rationalization of thermal injury quantification methods: application to skin burns. Burns 40:896–902.
  • Diller KR. (1998). Modeling thermal skin burns on a personal computer. J Burn Care Rehab 19:420–9.
  • Ng EYK, Tan HM, Ooi EH. (2009). Boundary element method with bioheat equation for skin burn injury. Burns 35:987–97.
  • Diller KR, Hayes LJ, Blake GK. (1991). Analysis of alternate models for simulating thermal burns. J Burn Care Rehab 12:177–89.
  • Ng EYK, Chua LT. (2002). Prediction of skin burn injury. Part 1: numerical modeling. J Eng Med 216:157–70.
  • Ng EYK, Chua LT. (2002). Prediction of skin burn injury. Part 2: parametric and sensitivity analysis. J Eng Med 216:171–83.
  • Ng EYK, Chua LT. (2002). Comparison of one- and two-dimensional programmes for predicting the state of skin burns. Burns 28:27–34.
  • Dai W, Wang H, Jordan PM, et al. (2008). A mathematical model for skin burn injury induced by radiation heating. Int J Heat Mass Trans 51:5497–510.
  • Lovik RD, Abraham JP, Sparrow EM. (2009). Potential tissue damage from transcutaneous recharge of neuromodulation implants. Int J Heat Mass Trans 52:3518–24.
  • Smith DK, Lovik RD, Sparrow EM, et al. (2010). Human tissue temperatures achieved during recharging of new-generation neuromodulation devices. Int J Heat Mass Trans 53:3292–9.
  • Ross DC, Diller KR. (1976). An experimental investigation of burn injury in living tissue. J Heat Trans 98:292–6.
  • Diller KR. (1992). Modeling of bioheat transfer processes at high and low temperature. In: Advances in heat transfer. Vol. 22. New York: Academic Press.
  • Abraham JP, Sparrow EM. (2007). A thermal ablation model including liquid-to-vapor phase change, necrosis-dependent perfusion, and moisture-dependent properties. Int J Heat Mass Trans 50:2537–44.
  • Weaver JA, Stoll AM. (2009). A mathematical model of skin exposed to thermal radiation. Aerospace Med 40:24–30.
  • Chato J. (1980). Heat transfer to blood vessels. J Biomech Eng 102:110–8.
  • Charny C. (1992). Mathematical models of bioheat transfer. In: Cho Y, Harnett J, Irvine T, eds. Advances in heat transfer bioengineering heat transfer. Vol. 22. Boston: Academic Press.
  • Gasperin M, Juricic D. (2009). The uncertainty in burn prediction as a result of variable skin parameters: an experimental evaluation of burn-protective outfits. Burns 35:970–82.
  • Stoll AM, Chianta MA. (1971). Heat transfer through fabrics as related to thermal injury. Trans NY Acad Sci 33:649–70.
  • Stoll AM, Greene LC. (1959). Relationship between pain and tissue damage due to thermal radiation. J Appl Physiol 14:373–82.
  • Torvi DA, Threlfall TG. (2007). Heat transfer model of flame resistant fabrics during cooling after exposure to fire. Fire Technol 42:27–48.
  • Vallez LJ, Plourde BD, Abraham JP. (2016). A new computational thermal model for the whole human body: applications to patient warming blankets. Num Heat Transfer 69:227–41.
  • Hall SK, Ooi EH, Payne SJ. (2015). Cell death, perfusion and electrical parameters are critical in models of hepatic radiofrequency ablation. Int J Hyperthermia 31:538–50.
  • Dewhirst MW, Sim DA. (1984). The utility of thermal dose as a predictor of tumor and normal tissue responses to combined radiation and hyperthermia. Cancer Res 44:4772s–80s.
  • Facciorusso A, Di Maso M, Muscatiello N. (2016). Microwave ablation versus radiofrequency ablation for the treatment of hepatocellular carcinoma: a systematic review and meta-analysis. Int J Hyperthermia 32:339–44.
  • Huang Q, Yang H, Lin QN, et al. (2016). Microwave ablation versus radiofrequency ablation for the treatment of hepatocellular carcinoma: a systematic review and meta-analysis: two issues should be noted. Int J Hyperthermia 32:45.
  • Zhai H, Liang P, Yu XL, et al. (2015). Microwave ablation in treating intrahepatic recurrence of hepatocellular carcinoma after liver transplantation: an analysis of 11 cases. Int J Hyperthermia 31:863–68.
  • Shetake NG, Kumar A, Gaikwad S, et al. (2015). Magnetic nanoparticle-mediated hyperthermia therapy induces tumour growth inhibition by apoptosis and Hsp90/AKT modulation. Int J Hyperthermia 31:909–19.
  • Zhang B, Moser MA, Zhang EM, et al. (2015). Numerical analysis of the relationship between the area of target tissue necrosis and the size of target tissue in liver tumours with pulsed radiofrequency ablation. Int J Hyperthermia 31:715–25.
  • Soni S, Tyagi H, Taylor RA, et al. (2015). The influence of tumour blood perfusion on variability on thermal damage during nanoparticle-assisted thermal therapy. Int J Hyperthermia 31:615–25.
  • Mouratidis PXE, Rivens I, Ter Haar G. (2015). A study of thermal dose-induced autophagy, apoptosis, and necroptosis in colon cancer cells. Int J Hyperthermia 31:476–88.
  • Maloney E, Hwang JH. (2015). Emerging HIFU applications in cancer therapy. Int J Hyperthermia 31:302–09.
  • Dewhirst MW, Viglianti BL, Lora-Michiels M, et al. (2003). Basic principles of thermal dosimetry and thermal thresholds for tissue damage from hyperthermia. Int J Hyperthermia 19:267–94.
  • Yarmolenko PS, Moon EJ, Landon C, et al. (2011). Thresholds for thermal damage to normal tissues: an update. Int J Hyperthermia 27:320–43.
  • van Rhoon GC, Samaras T, Yarmolenko PS, et al. (2013). CEM43 °C thermal dose thresholds: a potential guide for magnetic resonance radiofrequency exposure levels? Eur Radiol 23:2215–2227.
  • Dewhirst MW, Winget JM, Keshet-Edelstein L, et al. (1987). Clinical application of thermal isoeffect dose. Int J Hyperthermia 3:307–18.
  • Kumaran B, Watson T. (2015). Thermal build-up, decay, and retention responses to local therapeutic application of 448 kHz capacitive resistive monopolar radiofrequency: a prospective randomized crossover study in healthy adults. Int J Hyperthermia 31:883–95.
  • Ikuta K, Urakawa H, Kozawa E, et al. (2015). In vivo heat-stimulus-triggered osteogenesis. Int J Hyperthermia 31:58–66.
  • Dewey WC. (1994). Arrhenius relationships from the molecule and cell to the clinic. Int J Hyperthermia 10:457–83.
  • Quinn SD, Gedroyc WM. (2015). Thermal ablative treatment of uterine fibroids. Int J Hyperthermia 31:272–9.
  • Ryan TP, Turner PF, Hamilton B. (2010). Interstitial microwave transition from hyperthermia to ablation: historical perspectives and current trends in thermal therapy. Int J Hyperthermia 26:415–433.
  • Hong B, Du X, Zhao Y, et al. (2015). Characteristics of laproscopic microwave ablation with renal tissue: experimental in vivo study using a porcine model. Int J Hyperthermia 31:930–6.
  • Verhaart RF, Verduijn GM, Fortunati V, et al. (2015). Accurate 3D temperature dosimetry during hyperthermia therapy by combining invasive measurements and patient-specific simulations. Int J Hyperthermia 31:686–92.
  • Ghoshdastidar PS. (2004). Heat transfer. Oxford: Oxford University Press.
  • Pennes HH. (1948). Analysis of tissue and arterial blood temperatures in resting human forearm. J Appl Physiol 1:93–133.
  • Abraham JP, Plourde BD, Vallez LJ, et al. (2016). Correcting a prevalent misunderstanding of burns. Burns 42:715–16.
  • Bourdon RT, Nelson-Cheeseman BB, Abraham JP. (2016). Prediction, identification, and initial treatment guidelines for scald injuries. Austin J Emerg Crit Care Med 3:1043.
  • Ramanathan C, Ekpenyong L, Stevenson JH. (1994). Scald burns in children caused by hot drinks – the importance of the type of cup. Burns 20:111–14.
  • Mercer NSG. (1988). With or without? A cooling study. Burns 14:397–398.
  • Warner RW, Wilson Y, Chester DL. (2012). Cooling properties of everyday liquids. Burns 38:1186–91.

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