525-LXGX0003
Láser verde de 525 nm 3.2W
Núcleo de fibra de 50 µm con corriente de operación documentada de 2 A.
Núcleo: 50 µmCorriente: 2 A
Láseres acoplados a fibra para sistemas OEM
Seleccionar por longitud de onda, potencia e interfaz de fibra.
Lumexis desarrolla y fabrica láseres acoplados a fibra en 525, 808, 885 y 976 nm, con clases de salida documentadas de 3.2 a 750 W. La gama incluye plataformas dedicadas de láser verde de 525 nm y fuentes de bombeo de infrarrojo cercano, con entrega documentada FC o SMA905, configuraciones seleccionadas de NA 0.22 y longitudes de fibra de hasta 2 m. Estas fuentes soportan bombeo láser industrial, visión artificial, inspección fotovoltaica, fluorescencia e instrumentos científicos, mientras que el soporte de ingeniería OEM conecta la longitud de onda y la potencia con la fibra, refrigeración, controlador y paquete requeridos.
525–976 nmLongitudes de onda visibles verdes y de infrarrojo cercano
2–750 WClases de salida óptica documentadas
50–400 µmOpciones de núcleo de fibra documentadas
22 NADisponible en configuraciones seleccionadas
FC / SMA905Formatos de conector documentados
Hasta 2 mLongitud de entrega de fibra documentada
Resumen de la familia de productos
Potencia láser entregada por fibra, configurada en torno al instrumento final.
El paquete de fuente, la óptica de acoplamiento, el núcleo de fibra, la apertura numérica, el conector, la ruta térmica y el controlador eléctrico forman una cadena de entrega. Lumexis revisa estas interfaces juntas para que la salida óptica especificada en el módulo pueda usarse de manera predecible en el instrumento.
La longitud de onda se selecciona según el medio de bombeo, detector, muestra o objetivo de inspección. La clase de potencia se ajusta luego a la salida entregada requerida, ciclo de trabajo y margen térmico, en lugar de seleccionarse de forma aislada.
Familia de longitud de onda destacada
Láser verde de 525 nm, entregado a través de una interfaz de fibra definida.
La familia de láser verde de 525 nm de Lumexis proporciona salida verde visible en siete clases de potencia documentadas de 3.2 a 70 W. Está separada de nuestros láseres acoplados a fibra de infrarrojo cercano porque la salida verde satisface una necesidad distinta de búsqueda e ingeniería: la longitud de onda puede mejorar el contraste visual, excitar materiales fluorescentes específicos y coincidir con instrumentos ópticos de rango visible.
La selección aún depende de más que el color o la potencia nominal. El tren óptico debe tener en cuenta el diámetro del núcleo de fibra, el formato del conector, la entrega del haz, la carga térmica, la electrónica de accionamiento y la respuesta del objetivo o muestra a 525 nm.
Salida verde visibleÚtil donde la alineación visual o la interacción de rango visible son centrales para el instrumento.
Rango de 3.2–70 WSiete clases de potencia soportan desde instrumentos compactos hasta sistemas OEM de mayor salida.
Entregado por fibraUna ruta de entrega definida simplifica la separación entre la fuente y el cabezal óptico.
Adaptado a la aplicaciónRevisamos la fuente frente a requisitos de fluorescencia, inspección, espectrales y de proceso.
Verde visible de 525 nmGama completa de productos
Láseres acoplados a fibra de 525 a 976 nm.
Todos los modelos se muestran directamente a continuación. Comience con la longitud de onda y la potencia entregada, luego compare el núcleo de fibra, apertura numérica, conector, longitud de fibra, entrada eléctrica y requisitos de refrigeración antes del lanzamiento del diseño.
Serie de láser verde de 525 nm
Salida verde visible / 3.2–70 W
525-LXGX0004
Láser verde de 525 nm 4W
Núcleo de fibra de 50 µm con corriente de operación documentada de 2 A.
Núcleo: 50 µmCorriente: 2 A
525-LXGX0005
Láser verde de 525 nm 5W
Núcleo de fibra de 105 µm con corriente de operación documentada de 2 A.
Core: 105 µmCorriente: 2 A
525-LXGX0015
525nm 15W Green Laser
60 or 105 µm fiber-core variants with documented 66 V, 2 A operation.
Core: 60 / 105 µmVoltage: 66 VCorriente: 2 A
525-LXGX0020
525nm 20W Green Laser
200 µm fiber core with documented 66 V, 2 A operation.
Core: 200 µmVoltage: 66 VCorriente: 2 A
525-LXGX0035
525nm 35W Green Laser
105 µm fiber core with documented 2–2.2 A operating current.
Core: 105 µmCurrent: 2–2.2 A
525-LXGX0070
525nm 70W Green Laser
200 µm fiber core with documented 264 V, 2 A operation.
Core: 200 µmVoltage: 264 VCorriente: 2 A
808 nm Fiber Coupled Laser Series
Industrial pumping / 25–400 W
808-LXGX0025
Láser acoplado a fibra de 808nm 25W
105 or 200 µm variants with paired electrical configurations.
Core: 105 / 200 µmVoltage: 5.5–12.5 VCurrent: 6–11 A
808-LXGX0050
Láser de Fibra Acoplada de 808nm 50W
200 µm fiber core with documented 11–12 V, 10–11 A operation.
Core: 200 µmVoltage: 11–12 VCurrent: 10–11 A
808-LXGX0150
Láser Acoplado a Fibra de 808nm y 150W
135 or 200 µm fiber-core variants with the same documented electrical range.
Core: 135 / 200 µmVoltage: 33–34 VCurrent: 10–11 A
808-LXGX0400
Láser de fibra acoplada de 808nm 400W
200 or 400 µm variants with configuration-dependent voltage and current.
Core: 200 / 400 µmVoltage: 55–95 VCurrent: 10–16 A
885 nm Fiber Coupled Laser Series
Narrow-spectrum pumping / 65–270 W
885-LXGX0065
885nm Láser Acoplado a Fibra de 65W
200 µm fiber core with documented 10–12 V, 13–14 A operation.
Core: 200 µmVoltage: 10–12 VCurrent: 13–14 A
885-LXGX0120
Láser acoplado a fibra de 885 nm 120W
200 µm fiber core with documented 20–22 V, 13–14 A operation.
Core: 200 µmVoltage: 20–22 VCurrent: 13–14 A
885-LXGX0270
885nm 270W Láser Acoplado a Fibra
200 µm fiber core with documented 40.5–42 V, 13–14 A operation.
Core: 200 µmVoltage: 40.5–42 VCurrent: 13–14 A
976 nm Fiber Coupled Laser Series
High-power pumping / 120–750 W
976-LXGX0120
Láser de Fibra Acoplada de 976nm 120W
105 µm fiber core with documented 19.5 V, 14 A operation.
Core: 105 µmVoltage: 19.5 VCurrent: 14 A
976-LXGX0140
976nm 140W Láser Acoplado a Fibra
105 µm fiber core with documented 22.4–23.8 V, 13–14 A operation.
Core: 105 µmVoltage: 22.4–23.8 VCurrent: 13–14 A
976-LXGX0260
Láser de Fibra Acoplada de 976nm 260W
135 µm fiber core with documented 32 V, 17 A operation.
Core: 135 µmVoltage: 32 VCurrent: 17 A
976-LXGX0280
Láser acoplado a fibra de 976 nm 280W
132 µm fiber core with documented 29–31 V, 18–20 A operation.
Core: 132 µmVoltage: 29–31 VCurrent: 18–20 A
976-LXGX0750
Láser acoplado a fibra de 976nm 750W
220 µm fiber core with documented 50–55 V, 30–32 A operation.
Core: 220 µmVoltage: 50–55 VCurrent: 30–32 A
Single comparison view
Compare the main integration parameters.
Compare wavelength, optical output, fiber-core diameter, operating voltage and operating current in one table. Values shown as ranges can represent documented configuration variants.
| Longitud de onda | Modelo | Salida | Fiber core | Voltaje de funcionamiento | Corriente de operación |
|---|---|---|---|---|---|
| 525nm Green Laser | 525-LXGX0003 | 2 W | 50 µm | — | 2 A |
| 525nm Green Laser | 525-LXGX0004 | 4 W | 50 µm | — | 2 A |
| 525nm Green Laser | 525-LXGX0005 | 5 W | 105 µm | — | 2 A |
| 525nm Green Laser | 525-LXGX0015 | 15 W | 60 / 105 µm | 66 V | 2 A |
| 525nm Green Laser | 525-LXGX0020 | 20 W | 200 µm | 66 V | 2 A |
| 525nm Green Laser | 525-LXGX0035 | 35 W | 105 µm | — | 2–2.2 A |
| 525nm Green Laser | 525-LXGX0070 | 70 W | 200 µm | 264 V | 2 A |
| 808 nm | 808-LXGX0025 | 25 W | 105 / 200 µm | 11.5–12.5 / 5.5–6 V | 6–7 / 10–11 A |
| 808 nm | 808-LXGX0050 | 50 W | 200 µm | 11–12 V | 10–11 A |
| 808 nm | 808-LXGX0150 | 150 W | 135 / 200 µm | 33–34 V | 10–11 A |
| 808 nm | 808-LXGX0400 | 400 W | 200 / 400 µm | 90–95 / 55–57 V | 10–12 / 16 A |
| 885 nm | 885-LXGX0065 | 65 W | 200 µm | 10–12 V | 13–14 A |
| 885 nm | 885-LXGX0120 | 120 W | 200 µm | 20–22 V | 13–14 A |
| 885 nm | 885-LXGX0270 | 270 W | 200 µm | 40.5–42 V | 13–14 A |
| 976 nm | 976-LXGX0120 | 120 W | 105 µm | 5 V | 14 A |
| 976 nm | 976-LXGX0140 | 140 W | 105 µm | 22.4–23.8 V | 13–14 A |
| 976 nm | 976-LXGX0260 | 260 W | 135 µm | 32 V | 17 A |
| 976 nm | 976-LXGX0280 | 280 W | 132 µm | 29–31 V | 18–20 A |
| 976 nm | 976-LXGX0750 | 750 W | 220 µm | 50–55 V | 30–32 A |
A dash means the voltage is not stated in the reviewed category source. Confirm all electrical values and variant pairings against the order-specific technical specification before design release.
Technical selection knowledge
Six parameters that determine usable fiber-delivered output.
Nominal wattage is not enough to define system performance. These six checks connect the laser specification to the optics, target and host instrument.
01 / Wavelength
Start with optical interaction
Select 525, 808, 885 or 976 nm according to the detector, pump medium, fluorescent material or inspection target—not by power alone.
02 / Delivered power
Define power at the working point
Allow for fiber and downstream optical losses, operating duty and thermal margin when translating module output into usable power.
03 / Fiber core
Balance power density and coupling
Core diameter affects brightness, coupling tolerance and the downstream spot that the optical system can form.
04 / Numerical aperture
Match the acceptance cone
NA describes the angular delivery range and must be compatible with the collimator, focusing optics and working distance.
05 / Connector
Protect the optical end face
FC and SMA905 interfaces differ mechanically. Connector choice, cleanliness and end-face handling influence repeatable delivery.
06 / Host system
Close the thermal and electrical loop
The driver, mounting surface, cooling method, monitoring and interlocks must be defined for the selected operating point.
Engineered as a delivery chain
A fiber coupled laser is more than a wavelength and wattage.
The useful output is defined by the complete path from diode emission to the fiber end face. We review the optical, thermal, electrical and mechanical interfaces together so the selected source can be integrated and supplied consistently.
From source to host instrument.
Each order is reviewed around the host system, not treated as an isolated component number.
01 / SourceWavelength, power and spectrum
02 / CouplingCore diameter, NA and alignment
03 / DeliveryFiber length and connector
04 / ThermalBaseplate, cooling and heat flow
05 / ElectricalDrive current, voltage and monitoring
06 / ReleaseTest conditions and traceable configuration
Optical interface
Match the wavelength, spectral width, fiber core and numerical aperture to the downstream optics.
Thermal path
Design cooling for the selected power class, ambient range and operating duty before enclosure release.
Electrical controls
Size the driver, interlocks and monitoring around the order-specific current and voltage limits.
Service and supply
Freeze connector, fiber routing, mounting and acceptance criteria for repeatable system builds.
Civil, industrial and scientific use
Laser sources matched to the optical job.
Application fit depends on wavelength-specific interaction, delivered power and the architecture of the complete instrument. Representative-sample testing is recommended before design release.
Bombeo láser industrial
808, 885 and 976 nm fiber-delivered pump sources for industrial laser systems.
Visión artificial
Visible or near-infrared illumination configured around detector response, contrast and optical delivery.
Inspección fotovoltaica
Fiber-coupled sources for controlled illumination and defect-detection instruments.
Fluorescence & spectroscopy
525nm Green Laser platforms and other wavelength families for analytical and scientific instruments.
Model-selection workflow
Resolve the interfaces before freezing the system.
A good selection process starts with the optical interaction and ends with verified delivery at the host interface. Nominal output power is only one step.
01
Define the wavelength
State the pump medium, detector response, sample interaction or contrast requirement.
02
Set delivered power
Specify the required optical output, duty, stability and acceptable margin at the fiber.
03
Match the fiber path
Confirm core diameter, numerical aperture, fiber length, bend routing and connector format.
04
Validate the host
Review cooling, driver, monitoring, mounting and representative operating conditions.
Manufacturing and delivery control
Build, test and protect the complete optical delivery path.
Repeatable supply depends on controlled assembly and a frozen order configuration. Lumexis links source verification, precision assembly, electro-optical testing and final interface checks before shipment.
Configuration-level release
What is checked before delivery.
Source and component verificationKey incoming elements and the source platform are checked against the production configuration.
Coupling and alignment controlThe optical path is assembled around the specified fiber interface and package geometry.
Electro-optical testingOutput is evaluated under defined drive and thermal conditions relevant to the ordered configuration.
Final interface confirmationModel, fiber lead, connector, routing and order-specific documentation are checked before release.
Protected shipmentThe fiber lead and optical interface are restrained and protected; packing is defined for the order and handling route.
Pre-sales FAQ
Questions to resolve before quotation.
These inputs help us recommend the correct wavelength family and prepare an order-specific engineering package.
What is a 525nm Green Laser?
A 525nm Green Laser produces visible green output centered near 525 nm. In the Lumexis family, the source is delivered through a fiber interface and offered in documented power classes from 3.2 to 70 W. It is considered separately from 808, 885 and 976 nm near-infrared pump lasers because the wavelength, applications and downstream optics differ.
When should I choose 525 nm instead of 808, 885 or 976 nm?
Choose the wavelength according to the material, sample, detector or pump medium. 525 nm may suit visible alignment, green-sensitive machine vision, fluorescence or spectral instruments. The near-infrared families are commonly evaluated for laser pumping and other industrial optical systems. Confirm suitability with representative samples and the complete optical path.
How do I select output power?
Start with the optical power required at the working plane, then account for fiber-delivery loss, downstream optics, duty, stability, thermal margin and the response of the target or sample. Avoid choosing the highest wattage without confirming the host system can use and manage it.
Which fiber and connector options are available?
Options depend on the model and order configuration. The documented family includes multiple fiber-core sizes, numerical-aperture values, fiber lengths and FC or SMA-type interfaces. Confirm the exact interface and drawing in the quotation package rather than assuming one configuration applies to the complete series.
What cooling information do you need?
Share ambient temperature, duty, mounting area, available cooling method, airflow or liquid-cooling conditions and any limit on baseplate temperature. Higher power does not automatically mean the same thermal architecture across wavelengths or package variants.
Can Lumexis support OEM customization?
Yes. We can review wavelength and power class, fiber and connector selection, cable routing, mounting, electrical interface, monitoring and validation planning. Any requested change is assessed against optical performance, thermal behaviour and repeatable production.
Which applications are supported?
The family is intended for civilian, industrial and scientific systems including industrial laser pumping, machine vision and optical inspection, photovoltaic inspection, fluorescence excitation, spectral analysis and OEM photonics instruments.
What should I provide for a model recommendation?
Provide the required wavelength, delivered power, spectrum if critical, fiber core and NA, connector, fiber length, operating duty, cooling method, electrical constraints, package limit, target or sample information and expected annual quantity. These inputs allow a configuration-level recommendation.
Talk To An Engineer
Share your wavelength, power, fiber-core, voltage and current requirements. We will recommend a model and prepare the relevant datasheet and configuration package.
