Fiber for Intravascular Irradiation XGZS-04
Intravascular irradiation fibers are tools in interventional radiology, cardiology, and vascular surgery for treating/diagnosing vascular and cardiac diseases. They deliver light to specific vessel regions for treatment, such as opening blockages, or diagnosis, such as hemodynamic assessment. Blood contains cholesterol, triglycerides, and other lipids; excess of one or more is hyperlipidemia, often from excess intake, metabolic disorders, or secondary elevation due to diabetes or thyroid disease. The source describes “low-andu” lipoprotein cholesterol entering beneath the intima and forming atherosclerotic plaques, narrowing or occluding arteries. Lipids also coat red cells, reducing oxygen/nutrient carrying and causing hypoxia; increased viscosity and thrombi block vessels, causing ischemia, nutrient deprivation, and necrosis in “yiji” (source wording), brain, lungs, lower limbs, and other sites, leading to coronary disease or cerebral infarction. Low-intensity semiconductor-laser irradiation is described as converting light to biological internal energy, regulating the internal environment, lowering viscosity, improving red-cell deformability/nutrient carrying, improving microcirculation, activating enzymes, stimulating adrenal cortex and glucocorticoids, reducing intrahepatic “shicheng cholesterol lipoproteins” (source wording), accelerating triglyceride dissolution and lipoprotein breakdown to lower lipids. Low-intensity lasers produce biostimulation without direct irreversible target injury. The source states that they promote diseased tissue normalization and stronger vital activity without damage. Irradiation activates blood enzymes and red cells, increasing internal energy and enzyme activity, changing hemorheology and circulation/microcirculation, improving toxic symptoms, regulating immunity, and treating disease. Devices generally use disposable sterile fibers ending in fiber needles with 2-4mW output and approximately 74mm length.
Save to Favorites
Overview
Specifications
| Parameter | Value |
|---|---|
| Fiber core diameter | 365 μm |
| Cladding Diameter | 400 μm |
| Coating Diameter | 430 μm |
| Buffer diameter | 550 μm |
| Length | 2.5M/3M |
| Termination type | SMA905 |
| Numerical Aperture (NA) | 0.22 |
| Core Material | Pure silica material |
| Fiber cladding material | Fluorine-doped silica material |
| Coating Material | Acrylic resin |
| Buffer material | Teflon |
| Buffer color | Blue/green/black/white |
| Operating Temperature | -40℃~150ºC |
| Transmission wavelength | 190-1100nm/400-2500nm |
| Single-filament transmission efficiency | ≥90% |
| Characteristics | Compliant with biocompatibility requirements |
| Proof-test strength | 100kpsi |
| Fiber Type | Step-index type |
Datasheet
Please provide your email to download the datasheet.
Invalid email format. Please try again.
Supplier Information
Related Products
-
Conical Lensed Fiber Optical Fibers Comcore
Fiber Type: Conventional single-mode / multimode / polarization-maintaining fibers; customer-supplied specialty fibers Angle: 6°~100° Radius: 8±1μm or customer-specified dimensions
-
Multibevel Fiber Lens Optical Fibers Photonstream
Output far-field spot [Pointed cone]: Annular Top cone included angle [Pointed cone]: 60°~120° Top [Flat cone]: Arc-shaped
Lensed fibers have fiber end faces precision-machined into multiple angled surfaces or cones, with a flat or spherical surface at the core tip, to meet specific optical path, spot, and coupling requirements. Photonstream can manufacture lensed fibers with various specially shaped end faces and apply additional optical coatings according to customer requirements. These are customized optical products.
-
High-Temperature-Resistant Fiber / Polyimide Coating 200/220/250P22 Optical Fibers Photonstream
Polyimide-coated heat-resistant fiber serves high-temperature sensing. This polymer combines high-/low-temperature resistance,strong mechanics and excellent overall properties,improving coating temperature tolerance/life while retaining low-temperature flexibility without brittle cracking. Common in high-/low-temperature distributed sensing.
-
Beveled Fiber Lens Optical Fibers Raysung
Beveled fiber lenses mainly fall into two categories. One has bevel angles of 6°～10° to prevent surface-reflected light from causing interference or damage on its return path. The other has angles of 40°～50° or greater, changing the optical path or producing large-angle total reflection. It can also increase the fiber's light-receiving area to admit more light. Main applications include fiber lasers, fiber-optic communications, conventional optics, and fiber sensing.
-
Conical Fiber Lenses Optical Fibers Raysung
Lens Radius [Tolerance :±1um]: 4~16um Cone Angle (Full Angle) [Tolerance :±5°]: 60°~120° Fiber Type: Single-mode fiber/multimode fiber/polarization-maintaining fiber, other special fibers and customer-specified fibers
Conical fiber lenses increase NA/collection for coupling circular or near-circular LD,DFB,SLD and VCSEL beams. Precision conical tips also serve laser microsurgery/microillumination. Maturing silicon-photonics fiber/waveguide coupling uses them to improve efficiency.
Related Articles
The LZFL405‑80mW‑3 series from Shenzhen Leirte Optoelectronics Co., Ltd. is a coaxial‑packaged violet‑blue single‑mode fiber‑coupled laser diode. It delivers 80 mW continuous‑wave output at 405 nm. Light is coupled into 3 μm core‑diameter single‑mode fiber for clean beam quality and easy integration into diverse optical systems. It serves as a compact violet‑blue light source for medical instruments and industrial printing applications.
Macro channel water-cooled stacked laser diodes integrate dozens of laser bars into one vertical stacked module with large-diameter macro flow cooling channels.
CytoViva delivers comprehensive hyperspectral imaging solutions covering visible to near-infrared spectrum, compatible with brightfield, fluorescence and proprietary enhanced darkfield microscopy modes.
Electro-optic deflectors (EODs) are optical devices used to steer or deflect light beams by applying an electric field to a specialized optical crystal. Unlike mechanical beam steering systems that rely on moving mirrors, electro-optic deflectors enable high-speed, non-mechanical beam control with exceptional precision and responsiveness. They are widely used in laser scanning, optical communications, microscopy, laser printing, spectroscopy, and scientific research, where rapid and accurate laser beam positioning is essential.
Loading...
Name
Phone
Organization
Use Case
Database Platform