用于 能源基础设施状况评估 的振动与 3D 计量。
优先处理风力涡轮机动力学、变压器振动声学和大型资产检测。比较 Q 系列配置 并与应用工程师讨论测量方案。
提高能源基础设施的可靠性需要进行预防性监测和维护。这包括利用振动声学分析来降低变压器噪声、对风力涡轮机进行高分辨率振动分析，以及对水坝、发电厂等进行结构健康监测。
探索 Ommatidia 的 FMCW 激光雷达如何变革能源领域的监测，从认证和维护到预测性分析，确保电网的安全性得到提升并持续运行。
高效数据采集
Ommatidia 的解决方案专为室内外作业而设计。得益于其长量程，Q 系列激光雷达即使在难以进入的条件下也能轻松部署。同时，我们解决方案的轻量化和小巧尺寸也使其能够轻松运输至现场。
Atelier 软件
Ommatidia Atelier 8.0 是一套完整的解决方案，用于管理来自我们 3D 扫描仪的数据，并支持将现场连接源连接到不同的行业标准接口和管理软件。
优势
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全面的动态分析
Q 系统可捕获详细的振动和位移数据，支持运行模态分析 (OMA)，以识别固有频率、振型和结构阻尼。
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实时结构洞察
持续监测结构性能，实现对磨损、疲劳或损坏的早期检测，从而提高安全性和可靠性。
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精密测量能力
该系统利用激光多普勒测速技术和 1550 nm 波长的连续照明，能够以优于 0.1 mm 的精度检测微位移和速度变化。
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可扩展且多功能
从风力涡轮机到核反应堆，Q1 系统可适应各种能源领域的应用，支持动态和静态监测需求。
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赋能工业 4.0
通过 GPS 同步和云端集成，该系统促进了远程数据访问和高级分析，与现代数字基础设施保持一致。
在能源基础设施中的应用
风力涡轮机
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运行负载下动态行为的实时监测。
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用于评估振动模式和结构挠度的模态分析。
- 预防性维护见解，旨在延长涡轮机寿命并提高效率。
核设施
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对关键部件的振动和挠度进行非侵入式监测。
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持续的结构健康监测 (SHM)，以提高安全性并符合严格的标准。
水电站大坝和能源结构
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追踪不同环境和运行条件下的结构性能。
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早期故障检测，确保及时维护和安全保障。
了解我们的产品
Q1S 激光雷达
Q1S 激光雷达为振动、桥梁挠度、长期位移和应变就绪分析提供固定的非接触式结构监测。
Q1 激光雷达
使用一套现场就绪的 Q1 激光雷达系统，针对大型或难以触及的目标进行远程工业计量和成像振动测量。
Q2 激光雷达 (Laser RADAR) | 全场振动测量与 3D 计量
Q2 激光雷达集成了全场振动测量、3D 计量、多视角 3D 速度矢量重建和几何关联应变计算功能，适用于汽车 NVH 和复杂的工程目标。
Energy vibration monitoring
Built for: blade testing · turbine dynamics · transformer diagnostics
Focus the measurement on the assets that matter
Turbine response in operation
Track structural response through changing wind, rotor speed, pitch and operating conditions—with spatial evidence that supports the engineering decision.
Blade qualification and fatigue testing
Capture 3D deflection, curvature and local strain behaviour during static-load, resonance and fatigue campaigns—without loading the blade with a dense sensor installation.
Transformer vibroacoustics
Map vibration remotely on transformers and shunt reactors to support anomaly investigation, preventive maintenance and repeatable screening workflows.
Wind-turbine blade testing: in the lab and the field
Blade teams need one measurement approach that carries from static-load, resonance and fatigue rigs to field investigations on operating turbines. In the lab, capture 3D deflection vectors across the blade, resolve curvature change and map local strain for model correlation and qualification evidence.
In the field, relate structural response to rotor speed, pitch, wind and operating state. Stand-off acquisition keeps the instrument off the test article and gives the team repeatable coverage when access is limited.
Turn blade motion into structural insight
3D deflection vectors
Capture motion across the blade in three dimensions, not just a single tip or spanwise displacement.
Local curvature
Resolve changes in the blade shape along the span and around critical structural features under load.
Local strain maps
Use the measured spatial response to identify local strain behaviour for correlation, fatigue assessment and design validation.
Lab and field coverage
Apply the same non-contact approach to qualification testing, fatigue campaigns and in-service blade-response investigations.
Explore the technical evidence
Wind Turbine Tower monitoring
Read the application note on structural-vibration measurement in a real wind-turbine tower, under operational and non-operational conditions.
Transformer health monitoring
Review the Q2 Laser RADAR application note for non-contact, stand-off vibration mapping on transformers and shunt reactors.
Field-ready transformer diagnostics
See an Ommatidia deployment across operational testbeds, from buzzing transformers to high-frequency electric motors.
Choose the right Q-series configuration
Q1 Laser RADAR
Q2 Laser RADAR
Q1S Laser RADAR
Energy vibration monitoring: common questions
Ommatidia Laser RADAR is designed for non-contact, stand-off measurement. The appropriate configuration and setup depend on the access conditions, line of sight, required spatial coverage and dynamics of the asset.
It gives the team 3D deflection vectors across the blade, plus curvature and local strain insight where the structure needs closer attention. That spatial evidence strengthens modal work, model correlation, qualification and fatigue decisions.
Remote vibration mapping can support transformer and shunt-reactor anomaly investigation, preventive maintenance and repeatable screening without attaching a dense set of contact sensors to the asset.
Ommatidia Laser RADAR systems combine non-contact 3D geometry measurement with laser Doppler vibrometry capabilities. The exact workflow depends on the product and measurement mode selected for the application.
The selection depends on the campaign: distance, field access, spatial density, operating environment and whether the objective is a campaign measurement or a continuous installation. Discussing the application with our team is the fastest way to scope the right configuration.
Fatigue testing applies controlled cyclic loading to demonstrate blade reliability and service life. Ommatidia adds full-field evidence: 3D deflection vectors, curvature change, vibration response and local strain behaviour across the areas that matter.
Laser RADAR measures the blade from a stand-off position, so the test article stays free of a dense sensor installation. The result is spatial 3D displacement data that shows deflection and shape change across the blade, rather than at only a few instrumented points.
It connects the blade’s structural response with the operating context: rotor speed, pitch, wind and load state. Repeatable non-contact measurements help teams compare behaviour over time, investigate unusual response and focus follow-up work where the data shows a change.
Plan a more complete energy measurement campaign
Tell us the asset, access constraints and the response you need to understand. We will help you define the right non-contact workflow and Q-series configuration.
