Railmetrics™ delivers an entirely new and more cost effective means to inspect railway track assets with the Laser Rail Inspection System (LRAIL).
Most track inspection sensors in the industry today are limited to a single function; they measure a specific parameter such as gauge, or perform a single task, such as imaging or tie grading, which can be an inefficient use of valuable railway resources and track windows.
The LRAIL delivers greater return of investment by performing a multi-functional inspection using 2D imaging and 3D scanning in a single pass with fully automated analysis using Artificial Intelligence.
The LRAIL captures an impressive 1 mm X and Y, and 0.1 mm Z, resolution scan of the rails, ties and ballast area at speeds up 60 km/h at 1mm intervals (suitable for high-rail mounting), 120 km/h at 2mm intervals, and 180 km/h at 3mm intervals (suitable for dedicated test cars and autonomous box cars).
The LRAIL’s Artificial Intelligence algorithms automatically measure and detect changes related to gauge, cross level, alignment, spikes, elastic fasteners, tie plates, joint gap, joint bar bolting, rail surface wear and tie condition, turnouts, road crossings and more .
The LRAIL leverages Pavemetrics prolific LCMS® technology; with nearly 400 units in usein more than 50 countries, the LCMS is hands-down the most widely adopted andtrusted sensor of its kind.
The LRAIL can be mounted on virtually any platform that is required to perform inspections. Ranging from hy-rail trucks or work equipment to in-revenue service box cars or locomotives.
By capturing both 2D images and 3D profiles all in the same pass, and including Artificial Intelligence-based data processing, the LRAIL can easily replace multiple legacy measurement systems. A savings of not only cost and complexity but in time spent performing routine inspections as well.
The LRAIL’s advanced Deep Neural Network automatically detects railway components, assesses their condition and detects changes between repeat runs.
The LRAIL outputs result data into standard output files such as CSV, XML, LAS (3D pointcloud) and SHP (GIS outputs), so that the user can leverage the viewing tools they currently have.
Independently Verified and Field-proven ResulThe inspection process is fully computer-driven and objective, with results being just as accurate, and much more repeatable, than manual inspections. The LRAIL's performance has also been field-tested and is currently used in an automated track change detection research program lead by the United States Federal Railroad Administration (FRA).
Inspection at speeds up to 180 km/h
Supports narrow, standard and wide gauge measurements
Simultaneous 3D point cloud and and 2D high-resolution Imaging
Daytime and night-time operation, immunity to shadows
Fully automated Artificial Intelligence-based railway inspection:
Change detection
Wooden tie grading (location, skew angle, crack length, crack depth, crack width, tie grade)
Concrete tie grading (location, skew angle, crack length, crack depth, crack width, tie grade)
Clip inspection (location, type, loose, missing, damaged, covered)
Crossing inspection (location, crossing point detection, wear profiles)
Switch inspection (location, toe detection, toe damage, foot detection)
Rail open surface damage (chips, cracks)
Joint detection and gap measurement
Joint bar bolt counting
Gauge width, cross-level between rails, alignment
Railhead top and side wear (also grooved rail wear)
Data are automatically location-referenced using mile-point and inertially corrected GPS (x, y and z)
Compact; sensors weigh only 13 kg each and can be mounted on a high-rail vehicle or a dedicated inspection car
Rugged components mounted in environmentally-sealed enclosures
Low-power consumption
Data compression algorithms to minimize storage requirements
28,000 Hz scanning frequency
60 km/h at 1mm intervals, 120 km/h at 2mm intervals and 180 km/h at 3mm intervals
1 mm transverse resolution
0.1 mm vertical resolution
0.25 mm vertical accuracy
Learn more about our LRAIL sensors.
LRAIL Comparison to Parameters Measured by Track Geometry Measuring Trolley (TMGTs) and Manually Operated Devices
Owing to the design of TGMTs and MODs, the EN 13848-1:2003+A1:2008 requirements have to be modified. Therefore, this annex lists in tabular form the minimum requirements for each track geometry parameter which can be measured by TGMTs and MODs. Requirements differing from EN 13848-1:2003+A1:2008 are highlighted in bold. The requirements of EN 13848-1:2003+A1:2008 are shown only for comparison purposes.
System Specifications
LRAIL Systems Specifications
TUV Certification
EC Declaration of conformity
FCC Form
FDA Form
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