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LRF0815C 8 km 1535 nm Eye-Safe OEM Laser Rangefinder Module

$2,000.00 USD
Izračun stroškov prevoza na blagajni
Product Model:LRF0815C

The LRF0815C is a Class 1 eye-safe 1535 nm OEM laser rangefinder module for 15 m to 8 km ranging under specified conditions. It provides ±2 m accuracy, ≤0.1 m resolution, up to three-target reporting at 0.5–10 Hz, and selectable TTL or RS-422 communication. The 12 V, ≤175 g open-frame design supports UAV gimbals, EO/IR payloads, surveying and monitoring systems.

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Contact Us

Yilin, Senior Engineer at ERDI TECH LTD

Senior Engineer, Yilin

Tel : +86 28 81076698

WhatsApp : +86 18000520222

ERDI Pre-Sales Notice & Customer Information

(Please Read Before Purchase or Inquiry) Thank you for your interest in ERDI TECH LTD. We are committed to providing customers worldwide with high-precision, high-reliability laser products and technical solutions. Before placing an order, please read the following information carefully to better understand our company, services, and purchasing policies.

  • About ERDI​

     ERDI is a professional manufacturer specializing in the research, development, and production of laser modules, laser measurement systems, and related optoelectronic components.
    We integrate design, R&D, production, and sales, with a focus on safety, innovation, and precision.

    Our products are widely used in:

    • Industrial measurement and alignment systems
    • Scientific research and educational applications
    • Optical instrumentation and laser testing
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    ERDI operates certified facilities and maintains rigorous quality control to ensure that every product meets international standards.

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    • Standard samplesare typically delivered within one week after order confirmation.
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    We provide:

    • Comprehensive technical consultation and project evaluation
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    • Lifetime after-sales supportand technical maintenance guidance

    Each laser product is delivered with a full set of user documentation, including Laser Module Usage Precautions and Safety Guidelines.

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    ERDI implements strict multi-stage quality control throughout production:

    • Incoming material inspection
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    Except for man-made damage, we will replace any defective unit within one year free of charge and provide lifetime maintenance support thereafter.

    For more details, please refer to our After-Sales Service & Warranty Policy.

  • Important Safety Reminder

    Before using any ERDI laser product:

    • Carefully read and follow the Laser Module Usage Precautions.
    • Always use appropriate laser protective eyewear.
    • Operate only in controlled environmentsunder trained personnel supervision.
      Failure to observe safety instructions may result in injury or equipment damage.
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  • Final Statement​

    ERDI upholds the values of safety, integrity, and precision. We sincerely welcome customers from all over the world to visit our facilities, discuss cooperation, and experience our advanced laser technologies firsthand. Your satisfaction and trust are our highest pursuit.

After-Sales Service & Warranty Policy

We strive to provide high-quality laser modules and excellent customer service. Please read the following terms carefully to understand your rights and our responsibilities.

  • Product Origin and Quality Assurance​

    • All ERDI products are manufactured directly by the factory, ensuring consistent quality and full traceability.
    • We provide a diverse rangeof laser modules and laser distance measurement modules to suit various industrial, educational, and research applications.
    • Every product is tested and inspectedbefore shipment to guarantee that it meets specification standards.
  • Return and Exchange Policy​

    • Customers may request a return or exchange within 30 daysof receiving the goods, provided that:
    • The product remains in original condition, unused, and without affecting secondary sales.
    • A valid reason for return or exchangeis provided.
    • Upon approval, we will replace or refund according to our service policy.
    • The buyer is responsible for shipping costsassociated with returns, exchanges, or repairs, based on international freight cost rules.
  • Warranty Coverage​

    • The main functional componentsof ERDI laser products are covered by a 2-year warranty from the date of purchase, excluding cosmetic appearance.
    • Within the first 12 months, if a verified manufacturing defect occurs, we will replace the item with a brand-new productfree of charge.
    • Replacement of cosmetic or housing components (e.g., enclosure, labeling, or exterior parts) may incur a reasonable cost feebased on material expenses.
    • Warranty does not cover:
    • Damage due to misuse, improper installation, or modification.
    • Operation outside the recommended power supply or temperature range.
    • Accidental or physical damage, including drops, fire, or liquid ingress.
  • Receiving Inspection​

    • Upon delivery, please inspect the parcel immediately in the presence of the courier.
    • If there is any quantity discrepancy, visible damage, or mismatch, do not signthe delivery receipt.
    • Once the package is signed for (by you, family, or colleagues), it is considered accepted as correct and complete.
  • Customer Support

    For technical assistance, warranty claims, or safety inquiries, please contact our official service team through the contact information listed on erdicn.com.
    Our support engineers will provide professional guidance on installation, alignment, safety, and maintenance procedures.

Laser Module Usage Precautions

(Important – Buyers Must Read Before Use)

Operating laser modules involves potential optical and thermal hazards. To ensure safe and proper use, please read the following precautions carefully before powering on your laser product.

  • General Safety Warnings​

    • Invisible Radiation Warning– Some laser modules emit infrared (IR) or ultraviolet (UV) radiation that is invisible to the human eye. Never assume the laser is malfunctioning simply because you cannot see the beam. Always confirm that the power is disconnected before inspecting the module.
    • Do Not Look Directly into the Laser Aperture– Even when wearing certified laser safety goggles, never stare directly into or near the beam exit of a working laser module.
    • Avoid Reflected Beams from High-Power Lasers– Reflection from Class IV lasers (output power > 500 mW) can cause severe and permanent eye damage. Always wear wavelength-specific safety goggles when operating or aligning high-power laser systems.
    • Keep Away from Flammable Materials– Do not place flammable or explosive items (such as paper, cloth, leather, or plastics) in the laser path. Black or dark-colored materials absorb laser energy more easily and may ignite. (Exception: controlled material-burning experiments with proper fire protection.)
    • Avoid Direct Human Exposure– Class IIIa or higher lasers (≥ 5 mW) can burn skin or eyes. Never point a laser beam at any part of a person’s body.
    • Restrict Access to Trained Personnel Only – Keep all laser devices out of reach of untrained individuals, children, and pets.
  • Optical Path and Reflection Safety​

    • Never Aim Toward Glass Surfaces– Ordinary glass reflects roughly 4 % of incident light, which can redirect dangerous laser radiation into your eyes. Avoid operating lasers in front of mirrors or reflective windows.
    • Working Plane Awareness– When setting up an experimental platform, note the laser emission height. Do not position your head or eyes near this level during operation. Lenses and mirrors may reflect or refract light unexpectedly. Always align optical components downward or horizontally—never angle a beam upward.
    • Remove Reflective Accessories– Watches, jewelry, and other shiny objects can reflect laser light unpredictably. Remove them before use.
    • Infrared Beam Detection– IR lasers (wavelength > 800 nm) are almost completely invisible. Use a beam-viewing card, IR detector, or up-conversion screen to visualize the beam path safely.
    • Visual Brightness Misjudgment– Some wavelengths (below 430 nm or above 700 nm) appear much dimmer than their actual power output. Do not rely on visual brightness to judge beam intensity.
    • Pulsed Laser Caution– Pulsed lasers can have extremely high peak power even at modest average power levels. Verify that all optical elements and samples in your experiment exceed the laser’s damage threshold before exposure.
    • Prohibited Uses– It is strictly forbidden to point laser beams at moving vehicles, aircraft, or any area where light could distract or endanger others.
    • End-of-Beam Safety Stop– Always place a black anodized or matte metal plate at the end of your optical path to absorb residual energy and prevent laser leakage into surrounding areas.

    Low-Power Modules – ERDI laser modules rated below 1 mW are considered eye-safe under normal operating conditions and can be used without hazard when handled properly.

  • Recommended Protective Measures​

    • Protective Eyewear– Always wear certified laser safety goggles designed for the specific wavelength and power level of your module.
    • Appropriate Clothing– Light-colored or white long-sleeved clothing reduces the risk of heat absorption or ignition if stray laser light contacts the fabric.
    • UV Laser Protection– For ultraviolet lasers, apply broad-spectrum sunscreen (SPF 30 or higher) to exposed skin areas to minimize UV radiation effects.
    • Environmental Safety– Operate lasers in a controlled laboratory or industrial environment with minimal reflective surfaces. Ensure that all personnel nearby are informed of ongoing laser use and have received proper training.

How it works

Pulsed Time-of-Flight Ranging

The LRF0815C emits a short 1535 nm optical pulse, collects reflected energy through its receiver aperture and measures the round-trip delay between transmission and the accepted echo.

For a direct time-of-flight system, target distance is derived from the propagation delay:

R = c x Δt / 2R is distance, c is the speed of light and Δt is the measured round-trip time.

In the actual instrument, the receiver must distinguish the return pulse from solar background, detector noise and unwanted reflections. Range performance therefore depends on the complete link budget: transmitted pulse energy, beam divergence, target area and reflectance, atmospheric loss, receiver aperture, optical-filter transmission, detector sensitivity and the decision threshold used by the timing electronics.

The LRF0815C can report up to three targets. This is useful when several valid echo peaks occur along one line of sight, such as foliage before terrain or a vehicle before a building. The host should define which echo is operationally relevant instead of assuming that the first reported distance is always the intended target.

How 1535 nm compares with common alternatives

Wavelength family Engineering strengths Integration considerations
1535/1550 nm Well suited to eye-safety-oriented long-range architectures; compatible with InGaAs-class receivers and narrowband filtering. Detector and optical-component cost can be higher than silicon-based 905 nm systems. Final product classification must be verified after the module, window and controls are integrated.
905 nm Broad silicon detector ecosystem, compact components and cost-effective high-volume sensing. Accessible-emission limits, detector dynamic range and solar-background rejection must be evaluated for the required range and final laser class.
1064 nm Common in high-energy ranging, designation and compatible electro-optical systems. Not an automatic substitute for a 1535 nm eye-safety-oriented module; detector choice, coatings, safety controls and mission architecture differ.

Wavelength alone does not determine fog performance or laser classification. Peer-reviewed fog measurements report only a small extinction-coefficient difference between 905 nm and 1550 nm at equal emitted power under the tested conditions; choose a wavelength from the complete safety, range, detector, atmosphere and cost trade space.

Core advantages

Designed Around OEM Integration Decisions

Each feature is tied to a system-level benefit that can be reviewed during platform design and validation.

Narrow-beam long-range architecture

A minimum 300 µJ pulse-energy specification and ≤0.3 mrad divergence help concentrate transmitted energy, while the 40 mm receiver lens supports long-range return collection.

Multi-echo scene handling

Reporting up to three targets gives the host more information in layered scenes. Selection logic can be matched to mapping, observation or tracking behavior.

Interface choice for different harnesses

TTL supports short internal connections in compact devices; differential RS-422 is better suited to longer cable runs and electrically noisy host platforms.

Controlled power budget

The stated ≤1.2 W standby, ≤2 W average and ≤3 W peak at 10 Hz figures help UAV and portable-system teams plan battery capacity, regulator headroom and thermal paths.

Wide operating-temperature specification

The -40 to +70 °C operating range supports outdoor and mobile platforms, subject to the host enclosure, thermal interface and project-specific qualification profile.

Open OEM mechanical format

The board-level construction gives integrators direct control of mounting, environmental sealing and the protective optical window, while making those design tasks part of final system responsibility.

Model-level data

Detailed LRF0815C Specifications

Values below are reorganized from the current ERDI model specification. Confirm the controlled datasheet revision, connector option and test profile with the quotation.

Basic Ranging Performance

Model LRF0815C
Specified measurement range 15 to 8,000 m
Long-range test condition ≥8,000 m to a 2.3 m x 2.3 m target, 30% reflectance, visibility ≥10 km
Minimum range ≤15 m
Ranging accuracy ±2 m
Reported range resolution ≤0.1 m
Ranging frequency 0.5 to 10 Hz
Multi-target reporting Up to 3 targets
Precision rate / false-alarm rate ≥98% / ≤1% under specified test conditions

Optical Parameters

Laser wavelength 1535 ± 5 nm
Laser-safety rating Class I stated in the LRF0815C module specification; the final integrated product requires its own safety assessment
Pulse energy ≥300 µJ
Beam divergence ≤0.3 mrad
Transmitter lens diameter Φ12 mm
Receiver lens diameter Φ40 mm

Electrical and Communication Interface

Supply voltage 12 V DC
Communication option RS-422; TTL optional
TTL connector Molex 51021-0500, 3.3 V RX/TX, CTRL, +12 V and GND
RS-422 connector J30J with RX+/RX-, TX+/TX- and power/ground contacts; mate and cable supplied per order configuration
Serial format 115200 bps, 8 data bits, 1 stop bit, no parity (8N1)
Standby power ≤1.2 W
Average power ≤2 W
Peak power ≤3 W at 10 Hz
Molex pin Signal Function
1 TTL RX 3.3 V serial input to the rangefinder
2 TTL TX 3.3 V serial output from the rangefinder
3 CTRL 3.3-5 V power on; 0 V power off
4 +12 V Positive supply input
5 GND Supply return

Harness caution: The legacy J30J table contains a label inconsistent with the stated 12 V supply. Use the controlled interface drawing supplied with the ordered connector option before applying power; do not build a harness from a marketing-page pin label alone.

Mechanical and Environmental

Dimensions (L x W x H) 65 x 46 x 86 mm
Weight ≤175 g
Operating temperature -40 to +70 °C
Storage temperature -55 to +75 °C
Impact resistance Specified to meet MIL-STD-810G testing; confirm method, severity and acceptance criteria for the order
Vibration resistance Specified to meet MIL-STD-810G testing; confirm method, severity and mounting condition for the order
LRF0815C 8 km 1535 nm OEM laser rangefinder module outline dimensions for mechanical integration
LRF0815C outline drawing. Request the controlled mechanical drawing before freezing the host enclosure or optical-window geometry.

Need an interface and fit review?

Send the host voltage, connector preference, cable length, available envelope, target definition and environmental profile. ERDI can confirm the correct revision before purchase.

Contact For Purchase

Application engineering

Where the LRF0815C Fits

The module is intended for integration, so optical, electrical, mechanical and software interfaces must be validated as one system.

UAV gimbals and EO/IR payloads

Use long-range distance data for geolocation, observation and sensor cueing. Review payload mass, regulator transient response, boresight stability and vibration before flight qualification.

Surveying and mobile mapping

Integrate measured range with attitude and position data. Calibrate the lever arm, timing latency and boresight between the rangefinder and navigation sensors.

Handheld and portable optics

Plan the battery, user controls, protective window and thermal path around the selected repetition rate. Reassess accessible emission for the finished enclosure.

Fixed monitoring and reconnaissance

RS-422 can support robust internal cabling in larger installations. Validate grounding, surge behavior, weather sealing, window contamination and expected target reflectance.

Protective-window integration

A host window becomes part of both the transmit and receive paths. Use coatings designed for the 1525-1545 nm band, control wedge and surface quality, and keep ghost reflections away from the receiver timing gate. The current integration guidance targets at least 99% window transmission and at least 97% complete-system transmission; confirm these values for the selected coating stack and incidence angle.

After enclosure assembly, repeat boresight, minimum-range, false-alarm and maximum-range checks. A clean bench result before the window is installed is not a substitute for finished-platform validation.

Technical FAQ

Questions System Integrators Ask

Does the 8 km specification apply to every target?

No. It is specified for a 2.3 m x 2.3 m target with 30% reflectance and visibility of at least 10 km. Smaller, darker, oblique or obscured targets and degraded weather can reduce achievable range.

Is the final product automatically Class I after integration?

No. The LRF0815C specification states Class I for the module, but IEC 60825-1 treats the accessible emission of the finished product as a system-level responsibility. The host window, control logic, service access and failure conditions must be included in the final safety assessment.

When should I choose TTL instead of RS-422?

TTL is typically appropriate for short internal connections with a shared ground and controlled noise. RS-422 is preferred for longer harnesses or platforms with stronger electromagnetic interference because it uses differential signaling. Confirm connector, pinout and cable configuration before release.

Why can the module report three targets?

A transmitted pulse may produce several accepted return peaks from objects at different distances. The module can report up to three targets so the host can select the echo appropriate to its operating logic. Field scenes should be tested to tune that selection.

What information should be included in a technical inquiry?

Provide the target size and reflectance, required minimum and maximum range, visibility or weather assumptions, update rate, connector and cable length, available volume and mass, supply limits, operating temperature, host window details and expected annual quantity.

Engineering references

  1. H. N. Burns, C. G. Christodoulou and G. D. Boreman, "System Design of a Pulsed Laser Rangefinder," Optical Engineering, 30(3), 1991.
  2. H. Ma et al., "The Short-Range, High-Accuracy Compact Pulsed Laser Ranging System," Sensors, 22(6), 2146, 2022.
  3. P. Duthon, M. Colomb and F. Bernardin, "Light Transmission in Fog: The Influence of Wavelength on the Extinction Coefficient," Applied Sciences, 9(14), 2843, 2019.
  4. IEC 60825-1, Safety of laser products - Part 1: Equipment classification and requirements.

References provide general engineering context. LRF0815C purchase specifications, interface documents and acceptance criteria are controlled by the ERDI document revision supplied with the order.

Technical resources

Download LRF0815C Product Data

Use the product brief for early-stage comparison. Request the controlled datasheet, interface protocol and mechanical file before design release or purchase.

LRF0815C Product Brief

Model specifications, integration notes, test-condition definitions and engineering references in PDF format.

Download Product Brief (PDF)

Controlled Integration Package

Request the current datasheet revision, serial protocol, connector drawing and mechanical file for your selected configuration.

Request Technical Files

Start the engineering review

Discuss Your LRF0815C Integration

Share your platform envelope, target definition, interface, environment and quantity. ERDI will help verify the configuration and documents required for evaluation.

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