Development of an infrared array sensor-integrated laser system for precision and efficacy in medical applications.

IF 2.1 4区 医学 Q3 ENGINEERING, BIOMEDICAL
Batuhan Dizman, Mustafa Kemal Ruhi
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引用次数: 0

Abstract

Photothermal treatments require precise temperature control to achieve therapeutic effects without harming surrounding tissues. However, existing systems rely on expensive components for accuracy. This study explores whether a temperature-controlled laser system can be developed using cost-effective components while maintaining precision. The system was designed and built from scratch and then tested on samples with different optical properties to identify and address its limitations. The final design ensures accuracy without requiring a computer for monitoring and control, making the technology more accessible. Our research group developed the hardware and software for a temperature-controlled laser system. The operating algorithm was then optimized using phantom and ex vivo tissue. The IR array sensor was used with its factory calibration, and its accuracy was compared to that of another commercial IR temperature measurement device. Finally, the results of the temperature-controlled ex vivo application were compared to those obtained using corresponding constant laser power values. The developed system could distinguish between agar and lamb liver and adjust the irradiation parameters accordingly. In the experiments where the samples were kept at 42.5 °C, the mean and standard deviation of the agar gel and lamb liver tissue temperatures were 42.10 ±0.37 °C and 42.92 ±0.39 °C, respectively. Subsequent experiments demonstrated that the developed system maintained the lamb liver tissue temperature at set values, with a standard deviation of less than ± 0.48 °C. In this study, a precise, customizable, and relatively inexpensive temperature-controlled laser system was developed and tested. The operation algorithm was developed based on preliminary studies, and the precision was maintained on samples with distinct optical properties. Future studies should focus on making the device more compact and testing the system in in vivo models. Clinical trial number Not applicable.

红外阵列传感器集成激光系统在医疗应用中的精度和效率的发展。
光热治疗需要精确的温度控制,以达到治疗效果而不伤害周围组织。然而,现有的系统依赖于昂贵的组件来保证精度。本研究探讨了温控激光系统是否可以在保持精度的前提下,使用具有成本效益的组件进行开发。该系统是从零开始设计和构建的,然后在具有不同光学特性的样品上进行测试,以识别和解决其局限性。最终的设计确保了准确性,而不需要计算机进行监测和控制,使该技术更容易使用。我们的研究小组开发了温度控制激光系统的硬件和软件。然后利用体模和离体组织对操作算法进行优化。采用红外阵列传感器进行了出厂标定,并与另一种商用红外测温装置的精度进行了比较。最后,将温度控制的离体应用结果与相应恒定激光功率值的结果进行了比较。该系统可区分琼脂和羊肝,并可相应调整辐照参数。在42.5℃条件下,琼脂凝胶和羊肝组织温度的平均值和标准差分别为42.10±0.37℃和42.92±0.39℃。随后的实验表明,该系统将羊肝组织温度维持在设定值,标准偏差小于±0.48°C。在本研究中,开发并测试了一种精确、可定制且相对便宜的温度控制激光系统。在初步研究的基础上开发了运算算法,在光学性质不同的样品上保持了精度。未来的研究应侧重于使设备更紧凑,并在体内模型中测试系统。临床试验编号不适用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Lasers in Medical Science
Lasers in Medical Science 医学-工程:生物医学
CiteScore
4.50
自引率
4.80%
发文量
192
审稿时长
3-8 weeks
期刊介绍: Lasers in Medical Science (LIMS) has established itself as the leading international journal in the rapidly expanding field of medical and dental applications of lasers and light. It provides a forum for the publication of papers on the technical, experimental, and clinical aspects of the use of medical lasers, including lasers in surgery, endoscopy, angioplasty, hyperthermia of tumors, and photodynamic therapy. In addition to medical laser applications, LIMS presents high-quality manuscripts on a wide range of dental topics, including aesthetic dentistry, endodontics, orthodontics, and prosthodontics. The journal publishes articles on the medical and dental applications of novel laser technologies, light delivery systems, sensors to monitor laser effects, basic laser-tissue interactions, and the modeling of laser-tissue interactions. Beyond laser applications, LIMS features articles relating to the use of non-laser light-tissue interactions.
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