Modulight Spotlights: LASER-SHARP RESEARCH – November 2025
Modulight Spotlights: LASER-SHARP RESEARCH – November 2025 Read More »
Modulight Spotlights: LASER-SHARP RESEARCH – November 2025 Read More »
This month we are highlighting exciting findings by S. Takao et al. from Hisataka Kobayashi’s lab at the National Cancer Institute, NIH. Published in Cancer Letters, the study shows that near-infrared photoimmunotherapy can destroy cancer cells by targeting intercellular adhesion molecule-1.
Modulight Spotlights: LASER-SHARP RESEARCH – October 2025 Read More »
Photothermal therapy efficiency Human ovarian cancer cells were plated on Petri dishes and incubated with platinum nanoparticles of varying sizes between 30 and 70 nm. After 24-hour incubation, irradiation was performed using a Modulight ML6600 laser at 808 nm together with an illumination kit (MLAKIT) tailored for Petri dish illumination. A small area of the dish
Photothermal therapy with platinum nanoparticles Read More »
Published in: Cancer Immunology Research Authors: Rhonda C Kines, Cynthia D Thompson, Sean Spring, Zhenyu Li, Elisabet de los Pinos, Stephen Monks, John T Schiller Related application note: Vision-sparing targeted phototherapy for uveal melanoma
Study protocol Related Modulight products and Services ML7710 – Laser device suited for pre-clinical and clinical applications » Related Publications WST11 Vascular Targeted Photodynamic Therapy Effect Monitoring by Multispectral Optoacoustic Tomography (MSOT) in Mice Volker Neuschmelting, Kwanghee Kim, Jaber Malekzadeh-Najafabadi, Sylvia Jebiwott, Jaya Prakash, Avigdor Scherz, Jonathan A Coleman, Moritz F Kircher, Vasilis Ntziachristos Theranostics, 2018,
Vascular-targeted phototherapy study for prostate cancer Read More »
Sherri McFarland discussing how ML8500 is supporting her research Study protocol to determine wavelength, fluence, and irradiance activities of Os-4T: Key observations Illumination parameters significantly affected the phototoxicity of Os-4T. The green light (525 nm) was more effective than the red light (630 nm) at lower fluences, while the maximal potency was
Published in: Communications Biology Authors: Kensuke Kaneko, Takuya Osada, Michael A. Morse, William R. Gwin, Joshua D. Ginzel, Joshua C. Snyder, Xiao-Yi Yang, Cong-Xiao Liu, Márcio A. Diniz, Khaldon Bodoor, Philip F. Hughes, Timothy AJ. Haystead, H. Kim Lyerly