During laser irradiation, mechanically deformed cartilage undergoes a temperature dependent phase transformation resulting in accelerated stress relaxation. Clinically, laser-assisted cartilage reshaping may be used to recreate the underlying cartilaginous framework in structures such as ear, larynx, trachea, and nose. Therefore, research and identification of the biophysical transformations in cartilage accompanying laser heating are valuable to identify critical laser dosimetry and phase transformation of cartilage for many clinical applications. quasi-elastic light scattering was investigated using Ho : YAG laser $(lambda=2.12{mu}m;;;t_psim450{mu}s)$ and Nd:YAG Laser $(lambda=1.32{mu}m;;;t_psim700{mu}s)$ for heating sources and He : Ne $(lambda=632.8nm)$ laser, high-power diode pumped laser $(lambda=532nm)$, and Ti : $Al_2O_3$ femtosecond laser $(lambda=850nm)$ for light scattering sources. A spectrometer and infrared radiometric sensor were used to monitor the backscattered light spectrum and transient temperature changes from cartilage following laser irradiation. Analysis of the optical, thermal, and quasi-elastic light scattering properties may indicate internal dynamics of proteoglycan movement within the cartilage framework during laser irradiation.