1064 Nm Laser
1064 Nm Laser - Related Videos
04:43
Using a 1064-nm Picosecond Neodymium-Doped Yttrium Aluminum Garnet Laser for Periorbital Hyperpigmentation
0 Views •
Cited by 1 •
2025
Here, we present a protocol to describe using a 1064-nm picosecond Neodymium-Doped Yttrium Aluminum Garnet (Nd:YAG) laser with a microlens array for treating periorbital hyperpigmentation.
12:29
Investigation of Protein Recruitment to DNA Lesions Using 405 Nm Laser Micro-irradiation
0 Views •
Cited by 16 •
2018
Studying DNA damage repair kinetics requires a system to induce lesions at defined sub-nuclear regions. We describe a method to create localized double-stranded breaks using a laser-scanning confocal microscope equipped with a 405 nm laser and provide automated procedures to quantify the dynamics of repair factors at these lesions.
05:28
Enucleation of the Prostate for the Treatment of Benign Prostatic Hyperplasia Using a 980 nm Diode Laser
0 Views •
Cited by 1 •
2020
Here, we present a protocol for modified 980 nm diode laser enucleation to treat large volume benign prostatic hyperplasia.
07:07
Endoscopy Guided Photoablation of Endometrial Cysts using a 980 nm Laser with a Contact Fiber in Mares
0 Views •
Cited by 3 •
2020
The aim of this report is to describe the photoablation of endometrial cysts in the mare using an endoscopic laser device, and to discuss the interest and limitations of this new approach to deal with low fertility issues.
03:47
Enhancement of Facial Rejuvenation Through a Combination of 1565 nm Non-Ablative Fractional Laser with 30% Supramolecular Salicylic Acid
0 Views •
Cited by 1 •
2024
The purpose of this project is to effectively reduce the occurrence of adverse reactions such as erythema and pigmentation after non-ablative fractional laser treatment by combining 1565 non-ablative fractional laser with 30% super molecular salicylic acid, providing patients with a safer new method of facial rejuvenation treatment.
FAQs
At 1064 nm, tissue determines how much light is absorbed and how much is scattered. Absorbed energy can become heat and produce a photothermal effect, whereas scattering influences how energy spreads through tissue. These wavelength-dependent interactions help determine treatment depth, target selectivity, and the extent of surrounding tissue exposure.
Power and pulse duration regulate how quickly and how intensely energy reaches the target. Adjusting these variables helps produce a controlled thermal response rather than unnecessary heating of nearby tissue. Their selection therefore supports treatment goals such as targeting tissue, producing coagulation, or limiting collateral damage during medical procedures.
Selective treatment occurs because tissue targets absorb and respond to the delivered wavelength differently from surrounding structures. In medical applications, this allows energy to be directed toward pigmented or vascular targets and converted into localized heat. Careful control of exposure helps preserve nearby tissue while producing the intended treatment effect.
Deeper penetration allows energy to reach tissue below the surface rather than remaining confined to superficial layers. This property can support treatment when the relevant target is not located at the outermost tissue boundary. The resulting depth of action still depends on tissue absorption, scattering, and controlled exposure conditions.
A procedure is planned around the target tissue and the desired effect, then adjusted using laser power, pulse duration, and exposure limits. These controls determine how much energy reaches the tissue and how long it acts. Proper adjustment helps tailor photothermal treatment or coagulation while reducing unwanted effects in adjacent areas.
Applications span dermatology, ophthalmology, surgery, and vascular procedures. Depending on the clinical target, systems may be used to address pigmented or vascular tissue, produce tissue coagulation, or support treatment beneath the surface. The shared principle is adapting energy delivery to the tissue response required for diagnosis or treatment.
Potential outcomes include selective treatment of pigmented or vascular targets, controlled photothermal effects, and tissue coagulation. The result depends on how absorbed energy is converted into heat and how exposure is managed. Matching power, pulse duration, and exposure limits to the target can help reduce collateral damage and improve control of the treatment response.