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RIMPAC 2022 maritime exercise to use Vigilant’s FlightHorizon for UAS

A demonstration airspace management system is playing a role during the military exercise Rim of the Pacific (RIMPAC) 2022, taking place in Hawaii and Southern California.

FlightHorizon COMMANDER, provided by Vigilant Aerospace to the U.S. Air Force, is an airspace management and detect-and-avoid system based on two licensed NASA patents. The system can be used on the ground or onboard aircraft and is designed to help keep unmanned aircraft systems (UAS or drones) safe and collision free.

For the first time, U.S. Air Force MQ-9 UAS — also known as a Reaper — is taking part in a RIMPAC exercise. RIMPAC is the world’s largest international maritime exercise, involving more than 40 ships, 30 UAS and 150 aircraft from 27 partner nations.

RIMPAC 2022 is the 28th exercise in the series that began in 1971. The 2022 exercise takes place from late June to early August.

The FlightHorizon COMMANDER demonstration system (non-U.S. Air Force) tracks air traffic in Hawaii in 2022. (Photo: Vigilant Aerospace)

The FlightHorizon COMMANDER demonstration system (non-U.S. Air Force) tracks air traffic in Hawaii in 2022. (Photo: Vigilant Aerospace)

FlightHorizon COMMANDER includes a 3D moving map display for air traffic situational awareness, air navigation charts, weather data, special features for the tracking and safety of uncrewed aircraft systems (UAS) and automatic detect-and-avoid functions.

The airspace management system correlates and displays air traffic and other data from a wide variety of sources including ground-based and airborne sensors, civilian air traffic data, military data and proprietary data sources. The dual-use technology provides automatic traffic warnings and deconfliction as a built-in function.

The product is based on two licensed NASA patents and has been used in ongoing NASA supersonic projects, in FAA detect-and-avoid projects, and in civilian UAS projects around flight corridors and drone ports.

“RIMPAC 2022 marks the first appearance of the MQ-9A Reaper, a remotely piloted aircraft, and its presence brought in military teams from California, New Mexico and Nevada,” the Air Force stated. “With personnel from both the active-duty element, Reserves and Air National Guard, the collective group ensures that it is fully operational. All the while, everyone learns new techniques that it will take to improve their day-to-day operations upon returning home.”

“Vigilant Aerospace is thrilled to support this large-scale exercise,” said Kraettli L. Epperson, CEO of Vigilant Aerospace. “Support of this exercise is an especially useful demonstration of the multi-sensor and multi-data source capabilities of FlightHorizon and the ability to track hundreds of targets simultaneously.”

Vigilant Aerospace holds a U.S. Department of Defense IDIQ to support military adoption of the system for UAS and airspace safety.

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Tersus GNSS updates Nuwa survey app

Image: Tersus GNSS

Image: Tersus GNSS

Tersus GNSS has updated its surveying smartphone app, Nuwa. The latest version includes features such as vector map import and digital surface stakeout.

The Nuwa app runs on Android and is reliable, and easy to operate. It has rich and powerful functions that can help surveyors complete measurements more efficiently and accurately.

The app is designed to work with the David and Oscar GNSS receivers from Tersus GNSS, plus other receivers that support NMEA-0183.

New features in Nuwa version 2.3.3.2 include:

  • Vector map import and stake. The new version supports importing vector maps in DXF, LandXML, KML, and KMZ formats in the import module, optimizes the loading speed of vector maps for display in the Survey and Stakeout interface, and allows direct clicking to select points and lines on vector drawings for staking.
  • Digital surface stakeout. The new version supports importing DXF files containing 3dface entities and LandXML files containing surfaces, manually selecting points to form Delaunay TIN, and entering surface offsets for fill and cut value interpolation calculations in Surface Stakeout.
  • Update version description. Now, when receiving a version update, the highlights of the latest version are displayed directly in the application, including essential or market-focused features and fixes for issues.

Existing features of Nuwa include:

  • Ability to configure base, rover and static surveys
  • Graphical interface with background map (online/import)
  • CAD stakeout, road stakeout and earthwork
  • Data management (import/export multiple formats)
  • Support for Bluetooth and USB connections
  • Various built-in tools.

Download the latest version here.

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What will the data delivery system of the modernized 2022 NSRS look like?

My previous column highlighted that orthometric heights in NAPGD2022 will be defined through ellipsoid heights and a geoid model, such as GEOID2022. Therefore, changes in the geoid model will be very important to users estimating orthometric heights using GNSS. I briefly described the geophysical reasons for changes in the geoid that affect the orthometric height of a mark.

For the past four years, I have discussed in my columns the tasks associated with the new, modernized 2022 reference frames. It’s now the middle of 2022, so where are the new reference frames? Well, on June 9, Dru Smith, NSRS modernization manager for the National Geodetic Survey (NGS), provided an update on the status of the modernization in a webinar. The Powerpoint slides and video of the presentation can be downloaded from the NGS website under the following title: It’s 2022…Are You Done Yet? I will highlight some of the items from the webinar, but I encourage everyone to download the video and listen to the webinar.

First, Smith mentioned that NGS will be providing new types of coordinates. The NGS denotes this as a two-track approach to coordinates: Reference Epoch Coordinates (REC) and Survey Epoch Coordinates (SEC). See the box below.

New Types of Coordinates (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

New types of coordinates (Image: NGS June 6 webinar)

Reference Epochs Coordinates (REC) are defined in NGS Blueprint for the Modernized NSRS, Part 3 as coordinates computed by NGS in an adjustment project to estimate the coordinates at one of the official reference epochs that NGS will define in 2025. RECs are similar to coordinates computed by NGS in a nationwide adjustment project such as the National Adjustment of 2011 (see the box below).

NAD 83 (2011) Epoch 2010,00 Coordinates (Image: Dave Zilkoski)

NAD 83 (2011) epoch 2010.00 coordinates (Image: NGS)

NGS has not determined what data will be included in the first iteration of RECs. For the 2020.00 project, the current cutoff date for incorporating data is Dec. 31. Users can submit the data to NGS via OPUS projects and the OPUS-Share tool. To increase the submission of GNSS observations on marks, NGS has developed a beta OPUS-Projects 5.0 webtool that will allow real-time kinematic and real time network (RTK/RTN) observations to be submitted.

As previously mentioned, at this time, the NGS has not determined the cutoff for the earliest data to be included in the determination of the 2020.00 RECs. The agency will be conducting experiments to determine the appropriate cutoff date. These coordinates will require an intra-frame velocity model (IFVM) to generate the RECs at the specific reference epoch.

As of February 2021, based on NGS’ Blueprint for the Modernized NSRS, Part 3, version February 2021, the following is the agency’s policy with regard to RECs:

  • For a given mark and a given reference epoch, the REC will never be changed–except to correct a blunder.
  • This does not prevent NGS from adding new RECs
    • on points with new data that have not yet had an REC computed
    • for marks that do not have an REC in the most recently passed reference epoch, a new REC can be computed and added to the NSRS.
  • Per NGS’ Blueprint for the Modernized NSRS, Part 3, version February 2021, for simplicity, RECs may happen on the same schedule as SECs.

Survey epoch coordinates (SECs) are defined as coordinates computed by NGS at a specific survey epoch. Users will submit their data and its metadata to NGS, and NGS will then check, adjust and define the coordinates at one “survey epoch.” These coordinates will be “part of the NSRS,” Smith said. NGS is computing coordinates in this manner to provide the best estimate of the coordinates at any mark at a specific moment in time, which is very important in areas influenced by crustal movement.

So, how will NGS process and generate these SECs?

Survey epoch coordinates (SECs) are designed to provide time-dependent geodetic coordinates. Therefore, NGS has to choose some time span in which all observations will be processed together to yield a single SEC of a mark. NGS denotes this time span as a “geometric adjustment window.” NGS wants the adjustment window to be short enough so that movement of a mark did not occur between repeat observations (or was small enough to be ignored) and long enough for users to efficiently and effectively collect redundant observations for submission to NGS (see the box below).

Proposed SEC Geometric Adjustment Window

Proposed SEC geometric adjustment window. (Image: NGS)

As of February 2021, based on the NGS Blueprint for the Modernized NSRS, Part 3, the following is the policy with regard to SECs:

  • One or more GNSS occupation(s) over a single mark will be processed into one survey epoch coordinate when all occupations take place within one geometric adjustment window.
  • If a user submits two occupations on one mark, but they happen to fall in two consecutive geometric adjustment windows, NGS will use them to create two distinct survey epoch coordinates. Each SEC will be based on one occupation.

Future columns will provide more explanation about this concept of a geometric adjustment window and how NGS will process the data to generate survey epoch coordinates.

NGS is developing models and tools for users to submit data to NGS to compute coordinates — including OPUS coordinates, reference epoch coordinates and survey epoch coordinates. Figure 9 from Blueprint for the Modernized NSRS, Part 3, version February 2021, is a schematic that shows the flexibility NGS is building into an OPUS-type webtool. Basically, if users follow NGS guidelines and rules, and submit their data to NGS, then NGS will compute and publish REC and SEC coordinates (see the blue outline in the box below). If users only want to compute OPUS coordinates, then they can use NGS’s webtool without submitting the data to NGS (see the red outline in the box below).

Photo:

Building flexibility into OPUS (Image: NGS)

Dru Smith’s June 9 update on the status of the modernization provided a mockup of how users will be able to retrieve data using their web browsers — a prototype is being developed. The data will also be available in downloadable form such as an XML file for users to input the data and metadata into their programs or databases. I recently discussed some of this material at seminars I presented at the Florida Surveyors and Mapping Society’s 67th annual conference held in Palm Beach Gardens. The participants were very interested in the prototype, but really wanted to learn more about the format and process of the downloadable XML files. I’m sure future NGS webinars will address this topic. I emphasized to the group that they should watch the entire presentation and provide feedback to NGS. As mentioned above, Powerpoint slides and video can be downloaded from the NGS webinar website.

The boxes below highlight a few of the options NGS is considering. The box “Data Delivery – Prototype” is an example provided by Smith during his webinar. It should be noted that the images of the prototype are not included in the downable slides, but they are part of the video. The images presented in this column are screen captures from the video.

Data Delivery - Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Data delivery prototype. (Image: NGS)

The box below provides some of the basic information of a mark, such as its PID, name, stability, GNSS usable code, setting and the latest recovery information. Again, this is a prototype, so users should feel free to send feedback to NGS. NGS wants to generate a usable product, and is interested in user feedback.

Primary Information – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Primary information prototype. (Image: NGS)

As previously stated, NGS is implementing a two-track approach to coordinates: publishing REC and SEC. The box below provides the REC information of a mark when a user clicks the “Show” button. As shown in the diagram, the reference frame and epoch are provided, as well as the geometric coordinates (latitude, longitude, ellipsoid height) and geopotential coordinate information (NAPGD2022 orthometric height and geoid height).

Reference Epoch Coordinates – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Reference epoch coordinates prototype. (Image: NGS)

NGS provides an option for individuals who want the geometric coordinates in the X, Y, Z format (see the box below). Remember, this is only a mockup of a prototype, to give us an idea of the direction NGS is going with its data delivery system in the new, modernized 2022 NSRS.

REC Shown in X,Y,Z (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

REC Shown in X,Y,Z. (Image: NGS)

Similar to the REC, the prototype includes SEC. For a mark, the latter are different from the former because SEC are computed at the epoch of the survey observations (see the box below).

Survey Epoch Coordinates – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Survey epoch coordinates – prototype. (Image: NGS)

The box titled “SEC in CATRF – Prototype” is an example of a mark in the CATRF reference frame and the survey epoch of 2012.94. As indicated in the diagrams, users will be able to select the reference frame (ITRF, NATRF, CATRF, PATRF and MATRF) and the survey epoch.

SEC in CATRF – Prototype

 (Image from: NGS June 6th Webinar - It's 2022…are we done yet?)

Option to Select Survey Epoch

Photo:

Options to select reference frame (Images: NGS)

Another feature of the data delivery system is that it provides plots of a mark’s survey epoch coordinate values at different epochs. In the example shown in the box below, the plots provide values of a mark’s latitude, longitude and ellipsoid heights based on each survey epoch data. The user can select various reference frames of the mark to understand the change based on the reference frame.

Coordinates Plots in ITRF – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Coordinate plots in ITRF prototype. (Image: NGS)

The box below clearly shows a slope in the changes in coordinates based on survey epochs, especially in the longitude. This is the plate rotating in time. You can see the changes in latitude, longitude and ellipsoid height in the NATRF reference frame for the same mark. The latitude and longitude plots do not show a slope because the plate rotation is removed using a model to change from the ITRF reference frame to the NATRF reference frame. That said, the ellipsoid height plots look the same because the rotation model does not change the ellipsoid height.

Coordinate Plots in NATRF – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Coordinate plots in NATRF prototype. (Image: NGS)

The prototype also provides maps, photos and descriptive text of the mark.

Map and Photos – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Map and photos of a mark in the prototype. (Image: NGS)

Descriptive Text – Prototype (Image: NGS June 6th Webinar - It's 2022…are we done yet?)

Descriptive text prototype (Image: NGS)

Some of this data delivery output may seem familiar to users who have used the NGS beta routines (see the box below).

Beta Routines

NGS's Beta Routines (Images: NGS)

Beta routines (Image: NGS)

For example, the Passive Mark Page Webtool provides the coordinate information for a mark. My October 2020 column described the tool is detail. See below for an example of the passive mark tool.

Beta Passive Mark of KK1531 (Image: National Geodetic Survey)

Beta Passive Mark of KK1531 (Image: NGS)

The NGS Beta Map routine enables users to link to NGS datasheets, the passive mark tool and mark recovery, as well as connect to OPUS Shared Solutions and the NOAA CORS Network. See below for an example. It also provides a measuring tool, multiple basemaps and the ability to export data. My December 2021 column described the NGS Beta Map in detail.

Example of NGS Beta Map Routine for KK1531 (Image: National Geodetic Survey)

Example of NGS Beta Map Routine for KK1531 (Image: National Geodetic Survey)

Only three years remain before the release of the new, modernized NSRS. I encourage everyone to try all of the beta products, and download Dru Smith’s June 6 webinar for a better understanding of the agency’s current thoughts on how it will provide data to users in the new, modernized NSRS. As for all the NGS beta products, the agency would like users to try the tools and provide feedback on what they liked and what they didn’t like, as well as any additional information you need or would like to see. The NGS is trying to develop tools useful to everyone, but that won’t be possible unless they hear from users.

The following statement on NGS beta products explains how to provide feedback and why it is important:

“This is a beta product. NGS is interested in your feedback concerning its function and usability as well as how users would like to interact with NGS datasheet information in the future. Email us at ngs.feedback@noaa.gov.”

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Harxon launches dynamic website with antenna selection feature

Image: Harxon

Image: Harxon

Antenna manufacturer Harxon has launched a new company website, which features eye-catching animations and dynamic illustrations.

“We’ve optimized the website in both the layout and the content,” the company stated in a news release. “You’ll find more detailed product pages, seven major industry applications, and more information about Harxon Corporation.”

New additions include Antenna Customization and Antenna Selection pages, designed to help customers determine which products meet their project needs.

Harxon’s latest products include the survey GNSS antenna HX-CSX633A, the ruggedized HX-CVX606A and the X-Survey OEM antenna HX-CSX179A.

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L5-based oneNav outperforms Android smartwatch

OneNav’s pureL5 more accurate in urban testing without sensor augmentation

Image: OneNav

Image: OneNav

OneNav is sharing side-by-side test results comparing its pureL5 GNSS receiver customer evaluation system to a leading Android smartwatch.

OneNav is a Silicon Valley, California-based technology company designed to power high-performance positioning for location-dependent mobile services.

In a challenging urban environment, oneNav averaged six times better accuracy than the smartwatch. Both units used commercial-wearable antennas for testing. While the oneNav system used only GNSS measurements, the smartwatch GNSS results were augmented by inertial sensors.

At the 95th percentile, the pureL5 unit reported 8-meter accuracy compared to nearly 29-meter accuracy for the smartwatch; pureL5 accuracy includes artificial intelligence/machine learning algorithms that improve the system over time.

“The L5 signal is more accurate and reliable than L1, it has higher power and wider bandwidth, and it is less jammable,” said Steve Poizner, co-founder and CEO of oneNav. “We looked at where the market is heading, with the wearables and tracking device markets exploding and the demand for higher accuracy increasing, and we asked, ‘Why keep two bands/two RF chains/two antennas when you can get superior performance with just L5?’”

The oneNav team comprises top GNSS experts from Qualcomm, Apple, Intel, SnapTrack, SiRF, Trimble and eRide who have decades of GNSS and mobile industry experience. The team has expertise in GNSS system architecture, multipath mitigation, signal processing, ASIC design and AI/machine learning, and collectively has filed more than 300 career GNSS patents.

Investors include Google Ventures, Norwest Venture Partners and GSR Ventures.

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Seen & Heard: Drones donated to Ukraine

“Seen & Heard” is a monthly feature of GPS World magazine, traveling the world to capture interesting and unusual news stories involving the GNSS/PNT industry.


Photo: SeventyFour/iStock/Getty Images Plus/Getty Images

Photo: SeventyFour/iStock/Getty Images Plus/Getty Images

Drone Donation

Ukrainian TV host Serhiy Prytula crowdfunded $20 million to buy Bayraktar drones for the nation’s defense against Russia. Baykar, a Turkish defense manufacturer, turned down the money and opted instead to donate three military drones to the country. The Turkish-made Bayraktar TB2 drone has been a key instrument used by the Ukrainian military to repel Russian forces, with the ongoing war the first major conflict in which the Bayraktar drones have been deployed.


Photo: Nicola Lercari, assistant professor of World Heritage, UC Merced

Photo: Nicola Lercari, assistant professor of World Heritage, UC Merced

Arrested Decay

Scientists from the University of California (UC) Merced have mapped the fragile remains of Bodie, a Gold Rush ghost town. With harsh weather conditions, wildfires and earthquakes, only 10% of the original town is still intact. Researchers used a GeoSLAM handheld scanner to document more than 100 structures over four days. The scans preserve Bodie’s archaeological signature and enabled a 3D reconstruction of Bodie at its height in the 1870s.


Photo: Singapore skyline, NeoPhoto/iStock/Getty Images Plus/Getty Images

Photo: Singapore skyline, NeoPhoto/iStock/Getty Images Plus/Getty Images

Singapore Not Coasting

Sea-level changes are critical to the island nation of Singapore. To help map ground deformation, researchers from the Earth Observatory of Singapore will access GNSS data collected by the Singapore Satellite Positioning Reference Network (SiReNT), along with a decade of archived GNSS data. SiReNT, an initiative of the Singapore Land Authority, produces precise positioning data with up to 3-cm accuracy. With four new coastal GNSS reference stations installed, EOS is beginning to study more accurate ways to measure deformation and climate effects.


Photo: guvendemir/iStock/Getty Images Plus/Getty Images

Photo: guvendemir/iStock/Getty Images Plus/Getty Images

To Your Health

A new indoor positioning system is helping hospitals and other healthcare facilities. PenguinIN connects to a facility’s Wi-Fi infrastructure to help staff track and locate key items, a task any nurses say takes an hour of every shift. In emergency rooms, it can track how long patients have waited and how long a physician has spent with each patient. Facilities also can use it to track air quality including dust, temperature and possible water leaks. PenguinIN applies advanced machine learning to establish the location of indoor objects, people and smartphones with up to 1-meter accuracy.

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GMV wins European NAVGUARD contract for Galileo PRS

Galileo Second Generation Batch#1B satellites. (Image: ESA).

Galileo Second Generation Batch#1B satellites. (Image: ESA).

Technology multinational GMV has been awarded the NAVGUARD project by the European Commission.

NAVGUARD (Advanced Galileo PRS Resilience for EU Defence) will develop ground and space systems to detect illegal activities on GNSS frequencies and geolocate their sources. It also will build an information-management subsystem together with a user interface to provide a situational awareness picture.

The Galileo Public Regulated Service (PRS) is an encrypted navigation service for governmental authorized users and sensitive applications that require high continuity.

According to the EU Agency for the Space Programme (EUSPA), the PRS signal will ensure better continuity of service to authorized users when access to other navigation services may be degraded (resilience). In cases of malicious interference, PRS increases the likelihood of the continuous availability of the signal-in-space (robustness).

NAVGUARD is among various European Defence Fund (EDF) projects designed to sharpen the competitiveness of the European Union defense industry and strengthen the EU’s strategic autonomy. Besides navigation, the projects contracted to GMV will focus on developing missile defense system capabilities, systems for dismounted soldiers, avionics, command and control and cyber defense.

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2022 Public Interface Control forum set for Sept. 28

CGSIC logo

The 2022 Public Interface Control Working Group and Open Public Forum will take place virtually on Sept. 28, the U.S. Air Force has announced. It is hosted by Space Systems Command, Military Communications and Positioning, Navigation, Timing Directorate.

The following NAVSTAR GPS public documents will be discussed:

  • IS-GPS-200 (Navigation User Interfaces)
  • IS-GPS-705 (User Segment L5 Interfaces)
  • IS-GPS-800 (User Segment L1C Interface)
  • ICD-GPS-870 (Control Segment [OCX] to User Support Interface).

The virtual meeting can be accessed via the following dial-in numbers and links:

The Air Force requests that those who would like to attend register no later than Aug. 25.

Additional logistical details can be found in the Federal Register Notice.

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Komatsu offers Smart Construction Retrofit kits

Photo: Komatsu

Photo: Komatsu

Easily installed GNSS guidance kits offer access to design and payload data

Heavy equipment maker Komatsu is offering Smart Construction Retrofit kits to enable affordable fleet upgrades. With the kits installed,  conventional Komatsu excavators become “smart” with 3D guidance and payload monitoring.

Once a conventional excavator is retrofitted, operators no longer have to set up a laser or bench every time the machine moves. The kit’s GNSS receiver determines where a machine is on the job site and what the target grade is. The need for additional labor is reduced because the technology collects and delivers information directly to the operator, so fewer people have to be working on the ground or in an open trench.

Designed to improve grading performance and provide more time- and cost-management tools, Smart Construction Retrofit can bring 3D to most Komatsu excavators in a fleet. The entry-level solution can help bridge the technology gap. It gives operators the latest design data, measures payload volumes and load counts, and allows managers to monitor production from the office by integrating Smart Construction applications.

The payload meter helps prevent overloaded trucks by promoting proper loading weights for on- and off-road vehicles, to reduce the potential for equipment damage and other risks.

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Scanning solution from Trimble simplifies 3D deliverables

Photo: Trimble

Photo: Trimble

Trimble has introduced the Trimble X12 scanning system to the geospatial scanning portfolio. The X12 integrates intuitive Trimble software for precise data capture and in-field registration with 3D laser scanning and imaging hardware technology from Zoller+Fröhlich (Z+F), combining the expertise of two industry leaders into a single solution.

The Trimble X12 can be operated by using Trimble Perspective field software installed on a Trimble T10x tablet to enable registration and refinement of scans in the field, ensuring project accuracy and completion before leaving the jobsite. Users can also leverage Trimble’s customized onboard software menu to configure and operate the scanner.

Data is exported from the field and processed in the office with Trimble RealWorks software or third-party software. Final deliverables can be shared online with clients and stakeholders using Trimble Clarity, a browser-based data collaboration and visualization tool.

Transforming high-quality 3D data into decisions — such as using scans, models and imagery to determine the structural integrity of aging infrastructure — is streamlined with the Trimble X12 because the data can reside within the Trimble software ecosystem. This allows users to easily visualize, manage and evaluate the project throughout the entire workflow, even for beginners and new users to scanning technology.

With features including range (from 0.3 up to 365 meters) and scan speed of up to 2.187 million points per second, the Trimble X12 produces scan data and images with high quality and clarity, complementing the Trimble X7’s capabilities within the scanning product portfolio.

“The Trimble X12 puts the most advanced 3D scan and image capture within reach for a variety of skill levels,” said Jacek Pietruczanis, business area director for Scanning and Mobile Mapping, Trimble Geospatial. “The system enables advanced scanning professionals to improve their productivity with top-of-the-line performance and efficiency gains, while those new to scanning can easily unlock this advanced capability with the touch of a button.”