METRO EXPRESS LIGHT RAIL TRANSIT LRT SYSTEM IN MAURITIUS

High-precision optoelectronic fusion for rail transit applications

High-precision optoelectronic fusion for rail transit applications

This paper proposes a real-time fusion algorithm of Ultra-Wideband (UWB) and Inertial Measurement Unit (IMU) information based on the Error-State Kalman Filter (ESKF) algorithm, aiming to achieve high-precision train positioning throughout the entire railway, particularly in tunnel. Moreover, accurate localization paves the way for a variety of advanced key applications such as Automated Train Operation (ATO), making it a prereq npoint posi-tioning at all times. Three core improvements were integrated: 1) AVCStem module with variable convolution kernels to dynamically adapt to defects of different shapes and scales; 2) ADSPPF module using multi-scale pooling and multi-branch attention mechanisms to preserve fine-grained features across scales; 3) MSF.

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Fiber Optic Rail Transit

Fiber Optic Rail Transit

Rail transit fiber infrastructure demonstrates strong growth in 2025, driven by digital transformation and urban expansion. Operators deploy fiber broadband and advanced fiber optics to address vibration resistance and signaling reliability. A single pair of fiber cores, the technology enabling the running of 1000BASE (i. , 10 Gbit/s data rate) operations today, could comfortably scale up to 40GBASE or even 100GBASE operations in the future without requiring any change of cabling. Fiber optic cables will be laid along the railway lines and new antenna sites will be installed for future railway radio systems for the real-time transmission of large volumes of data.

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Fiber optic testing does not require a red light source

Fiber optic testing does not require a red light source

The three standard methods for testing fiber optic cabling are a visible light source, power meter and light source, and optical time domain reflectometer (OTDR). Using a visible light source tests the continuity of fiber optic cabling. It helps minimize downtime, reduce maintenance costs, and support system upgrades or reconfigurations.

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How to use a multi-wavelength light source for remote monitoring

How to use a multi-wavelength light source for remote monitoring

Using multiple LEDs and PDs in a multiplexed configuration achieves multiwavelength measurements and monitoring. There is a growing interest in photoplethysmography (PPG) for the continuous monitoring of cardio-respiratory signals by portable instrumentation aimed at the early diagnosis of cardiovascular diseases. In this context, it is conceivable that PPG sensors working at different wavelengths. Mightex WFC-series multi-wavelength fiber-coupled light sources are enabled by the latest LED technologies, and Mightex's proprietary beam combining and coupling optics. Up to eight (8) LEDs are coherently combined into a single multi-mode fiber with the highest efficiency practically possible. Combined with Ayar Labs TeraPHY™ optical I/O chiplet, the solution provides 5x-10x higher bandwidth, 10x lower latency, and is 4x-8x more.

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