3D Laser Scanning Services in Minnesota

GPRS’ detailed 2D CAD drawings and 3D BIM model allow for safe cutting, coring & drilling for building-wide MEP and HVAC installations.

GPRS located and marked the full post-tension cable system layout for 12 floors of a 49-floor building, with approximately 12,500 sq. ft. of concrete on each floor. After concrete scanning was completed with ground penetrating radar technology, GPRS 3D laser scanned each floor to produce 2D CAD drawings and a 3D BIM model for virtual design and construction. The architect received a permanent record of the post-tension cable layout to complete fit and finish design plans for the building.

Mapping the PT cable layout in concrete slabs facilitates design and minimizes the risk of injuries and delays.

GPRS’ detailed 2D CAD drawings and 3D BIM model allow for safe cutting, coring & drilling for building-wide MEP and HVAC installations. Construction Concrete Scanning, 3D Laser Scanning & 3D BIM Modeling Concrete scanning services will locate critical targets like post tension cables, rebar, conduits, voids, and more to help keep your project on time, on budget, and safe. 3D laser scanning captures concrete markings with 2-4mm accuracy for GPRS to transform into custom 2D CAD drawings and 3D BIM models. GPRS located and marked the full post-tension cable system layout for 12 floors of a 49-floor building, with approximately 12,500 sq. ft. of concrete on each floor. After concrete scanning was completed with ground penetrating radar technology, GPRS 3D laser scanned each floor to produce 2D CAD drawings and a 3D BIM model for virtual design and construction. The architect received a permanent record of the post-tension cable layout to complete fit and finish design plans for the building. Post-tension cable location, spacing, and depth are determined by an engineer, are specific to each project, and must be traced in short distances to reveal the slope. Each tendon pulls 24,000 to 33,000 lbs. of pressure. Damaging a cable when cutting, coring, or drilling into a slab can cause a tendon to burst with enough force to cause severe injury or death, and impact the structural integrity of the slab. Replacing a single post-tension cable costs $10,000 - $20,000. Experienced Project Managers used ground penetrating radar (GPR) technology to locate and mark the precise details of each concrete reinforcement, documenting the location, number of cables, and depth directly on the slab and ceiling. After the post-tension layout was complete, each floor was 3D laser scanned to capture the field markings. That data was used to create a virtual tour, 2D CAD drawings (PT site layout and floor contours,) and a complete 3D BIM model of the site. The captured point cloud data was aligned to survey control, then to the client’s design model, further ensuring the accuracy of the data. GPRS has a verified 99.8% accuracy rate for concrete scanning, backed by our Green Box Guarantee. Laser scanning is accurate within 2-4mm. An accurate layout of post-tension cables protects tendons from damage, prevents injury and mistakes, and protects the integrity of the building. 2D plan sheets and a 2D floor contour map documenting the actual floor elevation added even more accuracy to the depth of cover that is field marked. The 3D BIM model provided the architect data to plan fit and finish designs and coordinate with contractors and MEP trades before build-out.

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3D Laser Scanning

GPRS provided laser scanning services for the Arena Theatre in Houston, Texas. The client desired to replace the current seating and did not have accurate drawings. The primary objective was to capture the existing dimensions of the seating, ramps, stairs, floor and stage area. The client requested the raw scan data to design the new layout of the seats.

GPRS provided laser scanning services for the Arena Theatre in Houston, Texas, where the client desired to replace the current seating.

Meta Title: Laser Scanning to Design Seating in Arena Theatre Meta Description: GPRS provided laser scanning services for the Arena Theatre in Houston, Texas, where the client desired to replace the current seating. Header: Case Study: Laser Scanning to Design Seating in Arena Theatre Alt Tag: A 3D laser scanner sitting inside a theater. Caption: GPRS provided laser scanning services for the Arena Theatre in Houston, Texas. Alt Tag: Theater seating. Caption: The primary objective was to capture the existing dimensions of the seating, ramps, stairs, floor, and stage area. Alt Tag: A 3D laser scanner in a dark theater. Caption: Using the Leica HDS7000 Ultra-High-Speed Laser Scanner with Extended Range, the GPRS Project Manager captured the existing conditions and delivered point cloud data to the client. Alt Tag: Theater steps. Caption: GPRS provided the highest quality laser scan data in the shortest period of time. Location: Houston, Texas Task: GPRS provided laser scanning services for the Arena Theatre in Houston, Texas. The client desired to replace the current seating and did not have accurate drawings. The primary objective was to capture the existing dimensions of the seating, ramps, stairs, floor and stage area. The client requested the raw scan data to design the new layout of the seats. Challenge: The client has a remote laser scanner; however, due to inclement weather, could not make the flight to Houston. With a full concert schedule and a limited window of opportunity to laser scan, the client contacted GPRS to handle this project for them. Solutions: Since GPRS offers nationwide service, a Project Manager (PM) quickly mobilized to the site to perform laser scanning. Using the Leica HDS7000 Ultra-High-Speed Laser Scanner with Extended Range, the PM captured the existing conditions and delivered point cloud data to the client the next day. Deliverables: GPRS delivered raw scan data (.zfs files) to the client. No registration was required for this project. Added Value: GPRS worked quickly to provide laser scan data to the client, allowing them to begin designing the new seating for the Arena Theatre. The client trusted GPRS to provide the highest quality laser scan data in the shortest period of time. GPRS Intelligently Visualizes The Built World® to keep your projects on time, on budget, and safe. What can we help you visualize? Click below to schedule a service or request a quote today!

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3D Laser Scanning

Reality capture provides the precise spatial data needed to power wayfinding apps and enable real-time AR navigation to help users confidently navigate complex indoor and outdoor environments.

GPRS captured precise digital representations of six uniquely structured parking garages at a healthcare campus in Atlanta, enabling a software company to build a wayfinding app that improved navigation for patients and visitors.

Reality capture provides the precise spatial data needed to power wayfinding apps and enable real-time AR navigation to help users confidently navigate complex indoor and outdoor environments.

Highlights THE BOTTOM LINE Reality capture provides the precise spatial data needed to power wayfinding apps and enable real-time AR navigation to help users confidently navigate complex indoor and outdoor environments. INDUSTRY Healthcare SERVICE Reality Capture LOCATION Altanta, Georgia PM Insight Reality capture plays a significant role in enhancing wayfinding, particularly in complex indoor or large outdoor environments. It allows for the creation of accurate digital representations of real-world spaces that can then be used to develop intuitive and efficient navigation systems. Deliverables 3D BIM Model, 2D CAD Drawings, Virtual Tour PROJECT APPLICATION Reality Capture for Wayfinding Task GPRS captured accurate digital representations for six uniquely structured parking garages at Emory St. Joseph’s Hospital in Atlanta and integrated data into a wayfinding app to improve patient and visitor navigation across the healthcare campus. PROBLEM The hospital campus featured multiple parking structures with inconsistent layouts, some aboveground, some underground, and some interconnected across levels. Patients and visitors frequently experienced difficulty navigating from their vehicles to their medical offices, resulting in frustration, delays, and operational strain on staff. The total space 3D scanned was 1,681,500 SF and included the following parking garages within the scope of work. Green Parking Garage - 6 Levels - 510,000 SF Blue Parking Garage - 2 Levels - 160,500 SF Purple Parking Garage - 5 Levels - 222,500 SF Gold Parking Garage - 3 Levels - 271,000 SF North Employee Garage - 6 Levels - 285,000 SF South Employee Garage - 5 levels - 232,500 SF ‍ Solution Before beginning reality capture, the team conducted walkthroughs of each parking deck with the client to confirm the scope and develop scanning strategies tailored to the vast and complex layouts, ensuring no disruption to hospital operations. In under a week, a three-person GPRS team used the Matterport Pro 3 and Leica RTC360 laser scanners to capture every parking level, space, stairway, and hospital access point. Accurate reality capture data was used to create individual 3D BIM models for each parking garage and a unified campus model, which served as the foundation for generating 2D plans and immersive virtual tours. Deliverables were integrated into a mobile wayfinding app with AR capabilities and indoor positioning to guide users through the hospital campus with ease. ‍ Benefits Reality capture provides the precise spatial data needed to power wayfinding apps, saving parking locations and enabling real-time AR navigation that helps users confidently navigate complex indoor and outdoor environments. The 3D BIM model forms the foundation for accurate routing, orientation, and destination mapping. Reality capture supports augmented reality (AR) overlays by aligning digital cues, like directional arrows or points of interest, with physical features in real-world spaces. Accurate wayfinding reduced reliance on staff for directions, improving hospital operational efficiency. As-built CAD and BIM documentation captured spatial data of the complex parking structures and can be used to support future planning and maintenance.

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