## 1 Introduction  
The application of lasers in the medical field has undergone substantial expansion, becoming integral components within medical systems and surgical procedures. Laser technology finds diverse applications across various medical domains, encompassing cancer diagnosis [1], cancer therapy [2], dermatology [3], ophthalmology (e.g., Laser Assisted In Situ Keratomileus laser coagulation, and optical tomography) [4], and prostatectomy. Moreover, lasers play pivotal roles in cosmetic procedures such as unwanted hair removal and tattoo elimination [5]. Furthermore, lasers have demonstrated remarkable efficacy in the management of oral mucosal lesions, offering precise treatment with improved patient outcomes [6]. Ultra-short laser pulse durations, ranging from femtoseconds to a few picoseconds, offer significant advantages in high-quality and precise material processing. These durations primarily interact with electrons, minimizing heat conduction during the interaction with materials [7]. Consequently, material ablation occurs within a well-defined area with minimal mechanical and thermal damage to the target. In contrast, longer pulse durations, such as nanoseconds, lead to continuous heating of the target material, spreading laser pulse energy through heat conduction beyond the intended spot size. This can result in the boiling and evaporation of the irradiated material, creating an uncontrollable melt layer and potentially causing imprecise machining or marking [8; 9]. Regarding interactions with living tissues, pulsed lasers induce both photothermal and photomechanical phenomena, posing risks of damage to affected tissues and surrounding healthy tissues. These challenges underscore the ongoing need for research aimed at enhancing the effectiveness of lasers in medical treatments [7; 8]. Short-pulse lasers, a recent advancement in solid-state laser technology, operate at near-infrared wavelengths with pulse durations of less than 1 ps, offering promising avenues for improved medical applications [9]. The 532 nm and 800 nm lasers enjoy wide applications across diverse medical fields due to their specific optical properties and interactions with biological tissues [6]. In dermatology and skin treatments, the 532 nm laser finds common use in addressing vascular lesions such as port wine stains and facial telangiectasia due to its effective absorption by hemoglobin, resulting in vascular coagulation [10]. Conversely, the 800 nm laser is applied in hair removal and skin rejuvenation treatments, targeting melanin in hair follicles and pigmented lesions [11]. Notably, in ophthalmology, the 532 nm laser is preferred for photocogulation procedures in diabetic retinopathy and other retinal diseases due to its efficient absorption by hemoglobin [12], while the 800 nm laser is utilized in photodynamic therapy for conditions such as age-related macular degeneration [13]. Specifically, both the 532 nm and 800 nm lasers play instrumental roles in laser surgery [14; 15], with the former being effective for tissue ablation such as laser lithotripsy for urological conditions [16], while the latter is suitable for soft tissue surgeries, including cutting, vaporization, and coagulation, owing to its deeper tissue penetration and lower water absorption compared to shorter wavelengths [15]. Documented studies have compared continuous wave and pulsed lasers in hyperthermia treatment. [PERSON] et al. [17] conducted a study comparing the effects of continuous (Model 212, CVI, Albuquerque, NM, USA) Nd-YAG laser (1064 nm) and pulsed laser (Model 2000, JK Lasers, Rugby, UK), 100 microseconds of duration, 10-40 Hz frequency) with an average power of 1 W on laser-induced hyperthermia concluding no difference in tissue damage regardless of pulsing rate in low-energy excitations. [PERSON] et al. [18] reviewed the clinical and molecular effects of light irradiation across various wavelengths, including UV, blue, green, red, and IR, on dermal cells. [PERSON] et al.