ERDI LASERCart
Conceptual engineering visualization of a pulsed laser rangefinder optical path
SYSTEM ENGINEERING · OEM INTEGRATION

Laser Ranging Solutions Built From Requirements to Evidence

Select the wavelength, source, receiver, interface and verification plan around the real target, atmosphere, host optics, SWaP envelope and operating environment. Product data remains model-specific; project claims are released only with controlled supporting records.

68
published model records
4
technology platforms
1
system-level acceptance plan
CONCEPTUAL OPTICAL PATH · NOT A PRODUCT PHOTOGRAPH
PRODUCT TECHNOLOGY PLATFORMS

Choose the Architecture Before the Model

Wavelength is one decision in a complete ranging chain. Detector response, source energy, divergence, receiver aperture, signal processing, host optics and laser safety must be reviewed together.

LiDAR / rangefinding / atmospheric sensing
011.54 µm pulsed sources

ER10000

Transmitter building blocks for compact pulsed ranging and sensing architectures.

Current model data
ER10000 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.
Selection variables
Pulse energy · pulse width · repetition rate · divergence · drive · thermal path
Review ER10000
LRF0815C 1535 nm Laser Rangefinder | ER300 product view
021535 nm rangefinders

LRF0815C

OEM time-of-flight modules for compact observation, EO/IR and airborne payload integration.

Current model data
LRF0815C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.
Selection variables
Target condition · specified range · accuracy · multi-target logic · SWaP · interface
Review LRF0815C
LRF1200A1 source-reference product view 1
03905 nm ranging modules

LRF1200A1

Compact ranging engines for portable optics, industrial sensing and embedded instruments.

Current model data
LRF1200A1 is a 905 nm laser rangefinder module with a 5–1200 m building-target range, 1–3 Hz measurement rate, and 3.3 V TTL-level UART in a Ø23 × 40 mm cylindrical format.
Selection variables
Ambient light · update rate · receiver field of view · power · package · UART timing
Review LRF1200A1
Target Designator for Artillery Fire Support and EO/IR Platforms
041064 nm ranging systems

LR120K1

Higher-energy ranging and designation hardware for controlled system-level programs.

Current model data
LR120K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.
Selection variables
Energy · coding · pointing · receiver aperture · stabilization · safety · end use
Review LR120K1
TECHNICAL PRINCIPLE

A Range Result Is the Output of a Complete Signal Chain

In direct pulsed time-of-flight ranging, distance is derived from round-trip propagation delay. Field performance then depends on the optical link budget and the receiver's ability to accept a valid echo above noise and interference.

DIRECT TIME OF FLIGHTR = c × Δt / 2R is distance, c is the speed of light and Δt is measured round-trip time.
  1. TransmitPulse energy, width and beam formation
  2. PropagateDivergence, atmosphere and target geometry
  3. ReceiveAperture, optical filter and detector response
  4. ResolveSignal-to-noise, timing and echo discrimination
  5. ReportFirmware, interface timing and host interpretation

Engineering variables that change the result

TargetSize · reflectance · angle · obscuration

AtmosphereVisibility · fog · rain · dust · turbulence

TransmitterEnergy · wavelength · pulse width · divergence

ReceiverAperture · field of view · filter · detector

Host systemWindow · boresight · power · timing · thermal path

AcceptanceProbability · accuracy · false alarm · test geometry

R&D SYSTEM

Requirements Stay Traceable Through the Development Cycle

The workflow below is the engineering control path used to frame an OEM project. The exact activities and evidence package are defined by the model, customization scope and customer acceptance plan.

  1. 01

    Requirements capture

    Target, atmosphere, probability, range, accuracy, rate, SWaP, interface and environment.

  2. 02

    Link budget and trade study

    Source, divergence, receiver, noise, host window and margin are considered as one chain.

  3. 03

    Multidisciplinary design

    Optical, electronic, mechanical, firmware, power and thermal interfaces are reconciled.

  4. 04

    Prototype integration

    Mechanical datums, harness, command set, timing, boresight and host-software behavior are checked.

  5. 05

    Verification

    Performance is measured against controlled conditions, methods and pass/fail criteria.

  6. 06

    Configuration release

    Approved revisions, inspection points, acceptance evidence and change control support production.

MANUFACTURING CONTROL

From Optical Components to Final Acceptance

Not every model follows the same route. Optical fabrication, coating, source packaging, optomechanical assembly, alignment and environmental screening are controlled according to the released drawing, bill of materials and model-level test plan.

ERDI controlled optoelectronic assembly work area
Controlled assembly and work instructions
ERDI optical alignment and verification workstation
Optical alignment and model-level verification
  1. 01Incoming controlRevision, material, dimensions and supplier records
  2. 02Optical inspectionSurface, geometry and model-specific optical criteria
  3. 03Coating verificationBand, angle, witness data and applicable durability checks
  4. 04Source assemblyControlled handling, bonding, drive and thermal interface
  5. 05Module buildOptomechanics, electronics, connector and configuration
  6. 06AlignmentTransmit/receive axes, focus, boresight and fixture control
  7. 07CalibrationRange response, timing, interface and operating modes
  8. 08Final acceptanceInspection, function, documentation and release status
APPLICATION ENGINEERING

Map the Platform to the Operating Environment

These are application patterns, not substitute specifications. Final selection depends on verified model data and the customer's integration and acceptance requirements.

01

Airborne EO/IR payloads

Low SWaP, boresight stability, serial timing and vibration-aware mounting.

1535 nm compact rangefinder modulesExplore applicable products
02

Surveying and mapping

Range repeatability, target definition, atmospheric visibility and calibrated system geometry.

1535 nm and high-rate DToF platformsExplore applicable products
03

Industrial monitoring

High update rate, ambient-light behavior, interface latency and continuous duty-cycle review.

905 nm DToF distance sensorsExplore applicable products
04

Handheld observation

Compact packaging, battery power, optical-window transmission and final-product laser safety.

905 nm and compact 1535 nm modulesExplore applicable products
05

Land and maritime EO systems

Long-range link budget, thermal drift, salt or humidity exposure and platform stabilization.

Long-range 1535 nm and 1064 nm systemsExplore applicable products
06

Ranging and designation programs

Pointing, coding, timing, safety controls, regulatory scope and verified end use.

1064 nm system-level hardwareExplore applicable products
SOLUTION DEFINITION

Build the Selection Around Six Verified Inputs

A credible recommendation records assumptions before naming a product. This prevents a catalogue range from being treated as a guarantee outside its stated target and atmosphere.

01 · Target
Size, reflectance, angle, motion and obscuration
02 · Environment
Visibility, weather, sunlight, temperature and vibration
03 · Measurement
Range, probability, accuracy, resolution and update rate
04 · Host optics
Aperture, window, coating, field of view and boresight
05 · Integration
Envelope, mass, power, thermal path, connector and protocol
06 · Acceptance
Test geometry, method, sample size, limits and evidence
MODEL-LEVEL DATA

Complete Published Product Specification Index

The index below is generated from the current published product records. Each model links to its controlled detail page. Values must be read with the stated target, visibility, interface and revision conditions.

1.54 µm pulsed laser sourcesSource-level products for transmitter and LiDAR architecture work.12 models
ER100ER100 1535 nm Erbium-Glass Pulsed Laser SourceER100 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER200ER200 1535 nm Erbium-Glass Pulsed Laser SourceER200 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER300ER300 1535 nm Erbium-Glass Pulsed Laser SourceER300 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER400ER400 1535 nm Erbium-Glass Pulsed Laser SourceER400 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER500ER500 1535 nm Erbium-Glass Pulsed Laser SourceER500 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER800ER800 1535 nm Erbium-Glass Pulsed Laser SourceER800 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER900ER900 1535 nm Erbium-Glass Pulsed Laser SourceER900 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER2000ER2000 1535 nm Erbium-Glass Pulsed Laser SourceER2000 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER4000ER4000 1535 nm Erbium-Glass Pulsed Laser SourceER4000 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER8000ER8000 1535 nm Erbium-Glass Pulsed Laser SourceER8000 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.ER10000ER10000 1535 nm Erbium-Glass Pulsed Laser SourceER10000 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.MINI-100MINI-100 1535 nm Erbium-Glass Pulsed Laser SourceMINI-100 is a pulsed erbium-glass laser source in the 1535 nm family. Explore model specifications, operating conditions, optical principles, beam definitions and references.
1535 nm laser rangefinder modulesCompact and long-range OEM modules with model-specific test conditions.18 models
LRF0105CLRF0105C 1535 nm Laser Rangefinder | Technical DetailsLRF0105C is a 1535 nm pulsed distance-measurement module. Review its model-specific specifications, measurement conditions, technical principles and source documents. Internal component identities require confirmation.LRF0305CLRF0305C 1535 nm Laser Rangefinder | MINI-100LRF0305C 1535 nm pulsed laser rangefinder with MINI-100 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0306CLRF0306C 1535 nm Laser Rangefinder | MINI-100LRF0306C 1535 nm pulsed laser rangefinder with MINI-100 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0310CLRF0310C 1535 nm Laser Rangefinder | ER100LRF0310C 1535 nm pulsed laser rangefinder with ER100 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0405CLRF0405C 1535 nm Laser Rangefinder | ER200LRF0405C 1535 nm pulsed laser rangefinder with ER200 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0609CLRF0609C 1535 nm Laser Rangefinder | ER200LRF0609C 1535 nm pulsed laser rangefinder with ER200 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0610CLRF0610C 1535 nm Laser Rangefinder | ER200LRF0610C 1535 nm pulsed laser rangefinder with ER200 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0612CLRF0612C 1535 nm Laser Rangefinder | ER200LRF0612C 1535 nm pulsed laser rangefinder with ER200 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0815CLRF0815C 1535 nm Laser Rangefinder | ER300LRF0815C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0816CLRF0816C 1535 nm Laser Rangefinder | ER300LRF0816C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF0818CLRF0818C 1535 nm Laser Rangefinder | ER300LRF0818C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF1017CLRF1017C 1535 nm Laser Rangefinder | ER300LRF1017C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF1221CLRF1221C 1535 nm Laser Rangefinder | ER300LRF1221C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF1222CLRF1222C 1535 nm Laser Rangefinder | Technical DetailsLRF1222C is a 1535 nm pulsed distance-measurement module. Review its model-specific specifications, measurement conditions, technical principles and source documents. Internal component identities require confirmation.LRF1525CLRF1525C 1535 nm Laser Rangefinder | ER300LRF1525C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF1829CLRF1829C 1535 nm Laser Rangefinder | ER300LRF1829C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF1830CLRF1830C 1535 nm Laser Rangefinder | ER300LRF1830C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.LRF1831CLRF1831C 1535 nm Laser Rangefinder | ER300LRF1831C 1535 nm pulsed laser rangefinder with ER300 source and APD-A13B001 receiver reference. Review model specifications, test conditions and interfaces.
905 nm rangefinders and DToF sensorsCompact, portable and higher-rate distance-measurement platforms.23 models
LRF22VBLRF22VB 20m Single-Point DToF LiDAR Sensor for Drone Altitude Hold, Robot and AGV Obstacle AvoidanceLRF22VB is a compact 905 nm direct time-of-flight sensor specified for 0.05-20 m at 90% reflectivity and 0.05-10 m at 10% reflectivity. The V3.0 document specifies selectable output rates up to 200 Hz, UART/IIC communication and a 3.0-3.6 V DC supply.LRF50HLRF50H High-Speed 50 m LiDAR Distance Sensor for Overhead Cranes, Carriage Distance Control and Industrial SafetyLRF50H is a 905 nm direct time-of-flight ranging module specified for 0.05-50 m at 90% reflectivity and 0.05-15 m at 10% reflectivity. Its V3.0 document specifies 20 Hz-10 kHz operation with 1 kHz default, UART communication and a 9-36 V DC input.LRF50VBLRF50VB 50m Single-Point DToF LiDAR Sensor for Industrial Automation, AGV and Traffic Safety MonitoringLRF50VB is a compact 905 nm direct time-of-flight sensor specified for 0.05-50 m at 90% reflectivity and 0.05-20 m at 10% reflectivity. Its V3.0 document states 100 Hz output, UART/IIC communication and a 3.3-5 V DC supply.LRF100HLRF100H 100 m Industrial DToF LiDAR Distance Sensor for Wind Power, Landslide and Level MonitoringLRF100H is a 905 nm direct time-of-flight module specified for 0.05-100 m at 90% reflectivity and 0.05-30 m at 10% reflectivity. Its V2.0 document specifies 20 Hz-10 kHz operation with 1 kHz default, UART/IIC communication and a 9-36 V DC input.LRF200HLRF200H 200 m Industrial DToF LiDAR Distance Sensor for Port Cranes, Long Conveyors and Tunnel SafetyLRF200H is a 905 nm direct time-of-flight module specified for 0.05-200 m at 90% reflectivity and 0.05-70 m at 10% reflectivity. Its source document specifies 20 Hz-10 kHz operation with 1 kHz default, UART/IIC communication and a 9-36 V DC input.LRF300HLRF300H 300 m Industrial DToF LiDAR Distance Sensor for UAV Platforms, Tower Cranes and Traffic Early WarningLRF300H is a 905 nm direct time-of-flight module specified for 0.05-300 m at 90% reflectivity and 0.05-100 m at 10% reflectivity. Its V2.0 document specifies automatic 1 kHz/50 Hz selection according to reflected-signal intensity, UART/IIC communication and a 9-36 V DC input.LRF600HLRF600H 600 m Industrial DToF LiDAR Distance Sensor for Traffic Safety, Shuttle Vehicles and Overhead CranesLRF600H is a 905 nm direct time-of-flight module specified for 0.05-600 m at 90% reflectivity and 0.05-200 m at 10% reflectivity. Its V2.0 document specifies automatic 1 kHz/50 Hz selection according to reflected-signal intensity, UART/IIC communication and a 9-36 V DC input.LR1000E2LR1000E2 905 nm Laser Ranging ModuleLR1000E2 is a compact 905 nm laser ranging module with a 4–1000 m standard measurement range, an adaptive measurement update rate of 3–10 Hz, and UART-TTL communication for OEM integration.LR1000E4LR1000E4 905 nm Laser Ranging ModuleLR1000E4 is a compact 905 nm laser ranging module with a 4–1000 m standard measurement range, an adaptive measurement update rate of 3–10 Hz, and UART-TTL communication for OEM integration.SPD1200N3SPD1200N3 905 nm Single-Photon Laser Rangefinder with Laser IndicatorCompact 3–1000 m ranging module with single-photon reception, laser indication and a 3.3 V TTL serial interface for OEM integration.LR1200E2LR1200E2 905 nm Laser Ranging ModuleLR1200E2 is a compact 905 nm laser ranging module with a 4–1200 m standard measurement range, an adaptive measurement update rate of 2–10 Hz, and UART-TTL communication for OEM integration.LR1200E4LR1200E4 905 nm Laser Ranging ModuleLR1200E4 is a compact 905 nm laser ranging module with a 4–1200 m standard measurement range, an adaptive measurement update rate of 2–10 Hz, and UART-TTL communication for OEM integration.LRF1200A1LRF1200A1 905 nm Laser Rangefinder ModuleLRF1200A1 is a 905 nm laser rangefinder module with a 5–1200 m building-target range, 1–3 Hz measurement rate, and 3.3 V TTL-level UART in a Ø23 × 40 mm cylindrical format.SPD1200N0SPD1200N0 905 nm Laser Ranging ModuleSPD1200N0 is a compact 905 nm laser ranging module with a 0.2–1200 m source-table ranging distance. The source documents UART-TTL communication and a circular housing specific to this model.SPD1200N2SPD1200N2 905 nm Laser Ranging ModuleSPD1200N2 is a compact 905 nm laser ranging module with a 0.2–1200 m source-table ranging distance. The source documents UART-TTL communication and a model-specific square housing.SPD1200N4SPD1200N4 905 nm Laser Ranging ModuleSPD1200N4 is a compact 905 nm laser ranging module with a 0.2–1200 m source-table ranging distance. The source documents UART-TTL communication for model-specific integration review.SPD1200ZGSPD1200ZG 905 nm SPAD Laser Rangefinder Module with Six-Axis Inertial SensingCompact 0.1–1200 m pulsed time-of-flight ranging with SPAD-based single-photon reception, configurable inertial angle reporting, and relative 3D point-to-point measurement.LR1500E2LR1500E2 905 nm Laser Ranging ModuleLR1500E2 is a compact 905 nm laser ranging module with a 4–1500 m standard measurement range, an adaptive measurement update rate of 2–10 Hz, and UART-TTL communication for OEM integration.LR1500E4LR1500E4 905 nm Laser Ranging ModuleLR1500E4 is a compact 905 nm laser ranging module with a 4–1500 m standard measurement range, an adaptive measurement update rate of 2–10 Hz, and UART-TTL communication for OEM integration.LRF1500HLRF1500H 1500 m UAV LiDAR Distance Sensor for Pods, Traffic Safety and Security MonitoringLRF1500H is a 905 nm direct time-of-flight module specified for 0.05-1500 m at 90% reflectivity and 0.05-300 m at 10% reflectivity. Its V2.0 document specifies automatic 1 kHz/50 Hz selection according to reflected-signal intensity, UART/IIC communication and a 9-36 V DC input.LR2000E2LR2000E2 905 nm Laser Ranging ModuleLR2000E2 is a compact 905 nm laser ranging module with a 4–2000 m standard measurement range, an adaptive measurement update rate of 2–10 Hz, and UART-TTL communication for OEM integration.LR2000E4LR2000E4 905 nm Laser Ranging ModuleLR2000E4 is a compact 905 nm laser ranging module with a 4–2000 m standard measurement range, an adaptive measurement update rate of 2–10 Hz, and UART-TTL communication for OEM integration.LRF3000A1LRF3000A1 905 nm Laser Rangefinder ModuleLRF3000A1 is a 905 ± 10 nm laser rangefinder module rated for at least 3000 m on a 70%-reflectivity building target in clear weather with visibility ≥4 km, with normal and long-range measurement modes.
1064 nm ranging and designation hardwareSystem-level products requiring controlled safety and end-use review.9 models
LDR20K1LDR20K1 1064 nm Product DocumentationLDR20K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LDR25K1LDR25K1 1064 nm Product DocumentationLDR25K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LDR40K1LDR40K1 1064 nm Product DocumentationLDR40K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LDR40K3LDR40K3 1064 nm Product DocumentationLDR40K3 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LDR60K1LDR60K1 1064 nm Product DocumentationLDR60K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LDR80K1LDR80K1 1064 nm Product DocumentationLDR80K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LDR80K2LDR80K2 1064 nm Product DocumentationLDR80K2 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LR120K1LR120K1 1064 nm Product DocumentationLR120K1 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.LR160LR160 1064 nm Product DocumentationLR160 is a 1064 nm laser product. Review its model-specific source documents, specification notes, general terminology and laser-safety information. Unresolved source entries are explicitly identified.
Additional optoelectronic productsPublished products that require model-level application review.6 models
LRF10VBLRF10VB Single-Point 9 m DToF LiDAR Sensor for Camera Focusing, Security Monitoring and Smart DevicesLRF10VB is a compact 940 nm direct time-of-flight sensor specified for 0.05-9 m at 90% target reflectivity, 50 Hz output, UART communication and a 4.5-5.5 V DC supply.LR1000D23LR1000D23 Compact Laser Ranging Module (Ø23×47mm) with IEC Class 1 SafetyThe LR1000D23 laser ranging module is a professional long-range laser distance sensor designed to deliver reliable, high-accuracy measurement performance for industrial, outdoor, and commercial applications.LR1200D23LR1200D23 High Accuracy Laser Distance Sensor with IP67 Lens ProtectionLR1200D23 laser distance sensor delivers stable, high-accuracy measurement for industrial and outdoor systems, with IP67 lens protection for demanding environments. View specifications.SPD1200S2SPD1200S2 Laser Ranging Module with Compact Square Design for Easy IntegrationSPD1200S2 laser ranging module combines full-range distance detection, a compact square design and a resin aspherical lens for stable transmission and easy system integration. View specifications.SPD1200Z2SPD1200Z2 Laser Ranging Module 0.2m~1200m for Intelligent IntegrationSPD1200Z2 laser ranging module is a high-performance, ultra-light sensor designed for full-range distance detection. Equipped with an aspherical lens for stable light transmission...LR1500D23LR1500D23 Laser Ranging Module 4-1500m Long Range Distance SensorLR1500D23 laser ranging module is a high-performance long-range laser distance sensor, featuring an extended ranging range of 4m-1500m and ±1m standard accuracy.
STANDARDS AND EVIDENCE

Reference Frameworks, Not Blanket Certification Claims

Applicability depends on the model, final host product, target market and contract. A standard is cited only as a design, measurement or test reference unless current controlled evidence supports a specific conformity statement.

ReferenceEngineering scopeHow it is applied
IEC 60825-1Laser-product classification and accessible-emission safety requirements.Applied to the final laser product or removable laser unit as applicable; a component wavelength alone does not establish Class 1.ISO 11146-1:2021Measurement of laser-beam width, divergence and beam-propagation ratios.Useful when divergence and beam geometry are acceptance characteristics; beam type determines the applicable part.ISO 9211 seriesTerminology, specification and test framework for optical coatings.Coating requirements must identify wavelength band, angle, substrate, environment and acceptance method.ISO 9022 seriesEnvironmental test methods for optical and photonic instruments.The relevant temperature, humidity, salt-mist or combined method is selected from the service environment, not applied as a generic badge.IEC 60068-2-6 / -2-27Sinusoidal vibration and shock test methods for components and equipment.Severity, axes, mounting, operating state and pass/fail limits belong in the controlled test plan.MIL-STD-810Environmental engineering and laboratory-test tailoring for materiel programs.The standard is a tailoring framework, not a universal fixed test specification or blanket product certification.NIST TN 1297 / GUMEvaluation and reporting of measurement uncertainty.Supports traceable reporting of uncertainty contributors, coverage assumptions and acceptance evidence.21 CFR 1040.10 / 1040.11United States federal performance requirements for laser products.Applicability, labeling, reporting and instructions are reviewed for the finished product entering the US market.
TECHNICAL FAQ

Questions That Should Be Resolved Before Selection

01Why is nominal range not enough to select a module?

A range value is meaningful only with its target size and reflectance, visibility, receiver aperture, repetition rate and required detection probability. Dark, oblique, small or partially obscured targets can produce a materially weaker return.

02Does a 1535 nm component automatically make the host product Class 1?

No. Laser classification is based on accessible emission from the finished product under the applicable operating, maintenance, service and fault conditions. The host optics, enclosure and control logic can change the result.

03What information is needed before an OEM recommendation?

Provide the target and atmosphere, minimum and maximum range, accuracy and update rate, host aperture and window, available power, communication interface, mechanical envelope, temperature and vibration profile, and the intended acceptance method.

04How should environmental qualification be specified?

Start from the real transport and operating environment, then define severity, duration, axes, mounting, operating state and pass/fail criteria. A standard name without a tailored test profile is not a complete qualification requirement.

START AN ENGINEERING REVIEW

Turn the Application Into a Verifiable Product Shortlist

Share the target, atmosphere, required range, measurement rate, host optics, power, interface, mechanical envelope, environment and acceptance method. The technical sales team will organize the open questions before recommending a model.

sales@erdicn.com
Technical inquiryFields marked * are required.
  • Technical sales review
  • Private CRM record
  • No automated commitments
01Contact detailsWho should receive the reviewed response?
02Product and procurement profileDefine the review type, application and expected volume.
03Project notes and authorizationInclude the open questions that ERDI should review.

ERDI reviews product fit, technical conditions, quantity and commercial terms before issuing any response.