3D Laser Scanning Services in New York

Our client required a high-detail 3D BIM model to accurately visualize, design, modify, and manage the update of a heat exchanger within a Wastewater Treatment facility, enabling efficient updates and modifications without the need for extensive on-site measurements or manual drafting.

GPRS was called to 3D laser scan the Southerly Wastewater Treatment Plant and render an LOD 300 BIM model of the three-level heat exchanger for ABC Piping Co. to update one of the systems.

GPRS 3D laser scanned the Southerly Wastewater Treatment Plant to develop a LOD 300 3D BIM model for ABC Piping Co. to update one of the heat exchangers at the facility.

Highlights THE BOTTOM LINE Our client required a high-detail 3D BIM model to accurately visualize, design, modify, and manage the update of a heat exchanger within a Wastewater Treatment facility, enabling efficient updates and modifications without the need for extensive on-site measurements or manual drafting. INDUSTRY Water Treatment Plant & Wastewater Treatment Plant SERVICE 3D Laser Scanning; Mapping & Modeling LOCATION Cleveland, Ohio PM Insight The Leica RTC360 can generate 3D point clouds in less than 2 minutes, delivering our clients quick data visualization for project planning. The Leica RTC360 scans in color, which is useful when you need a true representation of a site in color detail. Deliverables LOD 300 3D BIM Model Task GPRS was called to 3D laser scan the Southerly Wastewater Treatment Plant and render an LOD 300 BIM model of the three-level heat exchanger for ABC Piping Co. to update one of the systems. PROBLEM Our client desired to upgrade the heat exchanger to reduce maintenance, energy consumption, and overall operational expenses in the long term. To properly design, prefabricate, and install system updates, ABC Piping Co. required a detailed 3D BIM model of the current mechanical and piping system, including pipe sizes, materials, and routing. Solution GPRS partnered with ABC Piping Co. to 3D laser scan and model the heat exchanger at the Southerly Wastewater Treatment Plant for upgrades. GPRS utilized the Leica RTC360 laser scanner to capture as-built conditions from 3 different floors around the existing heat exchangers. 108 laser scans were taken with the RTC360 from different locations to capture the intricate details of this very dense mechanical facility. The 3D BIM model provideed a detailed and accurate representation of the existing heat exchangers within the facility, enabling engineers and designers to clearly understand the spatial relationships, constraints, and interdependencies between various components. Benefits 3D laser scanning captured precise layout, dimensions, and locations of the existing architectural, structural, MEP, FP, and HVAC system elements for this facility in a point cloud. The GPRS Mapping & Modeling team transformed point cloud data into an intelligent 3D BIM model to aid system engineering. A 3D BIM model saved in a shared environment allowed all disciplines to work together to identify and resolve clashes before the system integration begins, ensuring a smooth retrofit with minimal rework. ‍

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3D Laser Scanning

GPRS provided 3D laser scanning services for John Glenn International Airport in Columbus, Ohio. The client was upgrading the existing airport entrance. Renovations included the installation of a prefabricated ceiling panel system and new doors. The primary objective of the laser scan was to capture the ground, curbs, ceiling beams, and related structural features to design and prefabricate the upgrades.

GPRS provided 3D laser scanning services for John Glenn International Airport in Columbus, Ohio. The client was upgrading the existing airport entrance. Renovations included the installation of a prefabricated ceiling panel system and new doors. ‍

John Glenn International Airport – Columbus, Ohio Airport Entrance Upgrades Requires 3D Laser Scanning ‍ TASK: GPRS provided 3D laser scanning services for John Glenn International Airport in Columbus, Ohio. The client was upgrading the existing airport entrance. Renovations included the installation of a prefabricated ceiling panel system and new doors. The primary objective of the laser scan was to capture the ground, curbs, ceiling beams, and related structural features to design and prefabricate the upgrades. ‍ CHALLENGE: The client had a 60-day window to complete renovations, and no in-house engineers. The airport entrance did not match the architectural drawing; the ceiling structure was sloped where the drawings showed it level, and differing beam heights and widths between two levels of the airport created additional challenges. They needed accurate as builts to tie the upgrades to the existing structure and align with the camber of the structure. The client also had to deliver precise measurements to the ceiling panel system prefabricator and to provide the builders of the custom doors precise measurements on entryways. This would minimize any assumptions that could lead to field changes and schedule delays during construction. ‍ SOLUTION: The airport, which serves 7 million annual travelers, needed to remain in operation with little to no interruption of services. So, 3D laser scanning was completed at night during low passenger activity periods, so the airport could remain in operation. The GPRS Mapping & Modeling Team worked closely with the client to create maps and models to expedite components and minimize inaccuracies. 2D CAD drawings, and a 3D BIM model were delivered, which eliminated field adjustments and delays during renovations. The laser scan data also helped the client to plan how the new entrance would tie into the existing entrance, while taking into account all of the field variables.

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3D Laser Scanning

GPRS saved the GC untold labor hours and cost overruns by detecting clashes, finding deviations before they caused expensive rework, and discovering the buried slab.

Complete subsurface mapping and millimeter-accurate aboveground measurements for a top-down, 360° visualization of a hospital wing and parking area to support a hospital expansion.

The addition is designed to occupy an existing parking lot for hospital employees, patients, and visitors. GPRS performed utility locating, video pipe inspection, and 3D laser scanning to create a comprehensive map and 3D model of the medical center’s infrastructure, both above and below ground.

TASK: Complete subsurface mapping and millimeter-accurate aboveground measurements for a top-down, 360° visualization of a hospital wing and parking area to support a hospital expansion. PROJECT APPLICATION: Rudolph Libbe, a longtime GPRS client and partner, oversaw the construction on the expansion of a northwest Ohio medical center. The addition is designed to occupy an existing parking lot for hospital employees, patients, and visitors. GPRS performed utility locating, video pipe inspection, and 3D laser scanning to create a comprehensive map and 3D model of the medical center’s infrastructure, both above and below ground. PROBLEM SOLUTION BENEFITS n Rudolph Libbe received millimeteraccurate laser scan data and an integrated 3D BIM model to precisely design and plan the building addition during preconstruction. n Non-destructive utility-locate methods reduced the number of unknown utilities and obstructions for the design and construction teams. n GPRS’ as builts allowed Rudolph Libbe to plan the new foundation and identify areas where further investigation would be warranted to prevent design and utility clashes. n With comprehensive field services provided by GPRS, Rudolph Libbe saved time and money on change orders, and eliminated subsurface damage during the construction process. With parts of the medical center’s campus dating back to the mid- 1800s, inaccurate as built data and unknown subsurface obstructions could jeopardize construction planning. n It was imperative that the proposed locations of the structural foundation and planned utilities coordinated with the existing conditions. n Rudolph Libbe desired 3D as builts to plan and complete the building addition, such as structural and utility tie-in information. n Traditional exploration methods typically include “soft” excavation methods over the entire building footprint. This option is expensive, time consuming, and requires tremendous coordination. GPRS utilized ground penetrating radar (GPR) and electromagnetic (EM) locating to map the hospital’s utilities. n Video pipe inspection (VPI) recorded the precise location and condition of the facility’s sewer lines, detailed in a NASSCO-certified report. n 3D laser scanning documented as built site data and utility maps to create 2D CAD drawings and a 3D BIM model for virtual design and construction. n GPRS participated in coordination meetings with construction and design team members. NO ONE HAS GONE TO THIS EXTENT TO MAP A SITE ABOVE AND BELOW GROUND. IT WAS IMPERATIVE THAT RUDOLPH LIBBE HAD ACCURATE AS BUILT SITE DATA AND UTILITY MAPS WITH CRITICAL STRUCTURAL AND UTILITY TIE-IN INFORMATION.” JAIME ALTHAUSER | FIELD SUPPORT DIRECTOR, GPRS

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3D Laser Scanning