Tag: geographic information systems

  • Launchpad: Adjustable drones, mobile mapping camera

    Launchpad: Adjustable drones, mobile mapping camera

    A roundup of recent products in the GNSS and inertial positioning industry from the July 2022 issue of GPS World magazine.


    OEM

    RTK Receiver

    Hybrid high-precision GNSS

    Photo: PP Solutions
    Photo: PP Solutions

    The handheld RTAP2U is a hybrid high-precision, dual-frequency GNSS receiver. It can receive and process GPS, GLONASS, BeiDou, Galileo and QZSS signals. Its user-friendly web interface accesses and configures signal reception, skyplot, data collection, stop-and-go surveying, map display and more. With u-blox’s ZED F9P module, RTAP2U provides 2 cm or better accuracy within a few seconds. A firmware upgrade can provide precise point positioning (PPP) and real-time kinematic (RTK) capability.

    PP-Solution, ppsoln.com

    Marine Receiver

    L-band corrections aid bathymetry, dredging

    Photo: Septentrio
    Photo: Septentrio

    The AsteRx-U3 Marine GNSS receiver offers accurate positioning near shore and offshore via centimeter-level real-time kinematic (RTK) or the built-in Fugro precise point positioning (PPP) sub-decimeter subscription service, delivered either over NTRIP internet or L-band satellite. Corrections delivered over L-band allow dredging, bathymetry or marine construction projects even in areas where there is no internet service. The AsteRx-U3 Marine receiver, enclosed in an IP68-rated housing, offers a dedicated L-band demodulator with a separate L-band RF input, which allows for the use of dedicated antennas for excellent reception of L-band signals even at high latitudes.

    Septentrio, septentrio.com

    Navigation System

    For air, land and sea vehicles and equipment

    Photo: Honeywell
    Photo: Honeywell

    The HGuide o360 is a compact single-card, all-attitude GNSS/inertial navigation system (INS) that delivers accurate and robust position and attitude even in GNSS-challenged or denied environments to industrial and autonomous applications. The HGuide o360 contains a multi-frequency, multi-constellation, real-time kinematic (RTK) GNSS receiver with dual antennas, Honeywell’s i300 inertial measurement unit (IMU) technology, and a high-grade calibrated magnetometer. It is designed for platforms that require high-performance navigation data in an ultra-low size, weight and power (SWAP) package.

    Honeywell, honeywell.com

    Inertial Navigation System

    Offers optimal heading performance and resistance to vibration

    Photo: SBG Systems
    Photo: SBG Systems

    The Quanta Micro GNSS-aided inertial navigation system (INS) offers a high level of navigation performance despite its low size, weight, power and cost (SWAP-C). It brings direct georeferencing to UAV and land-based surveying. Quanta Micro leverages a survey-grade inertial measurement unit (IMU) for optimal heading performance in single-antenna applications, and high immunity to vibrating environments. An optional secondary antenna enables fast heading initialization in low dynamic applications.

    SBG Systems, sbg-systems.com

    Utility Time Server

    Solution for power plants and substations

    Photo: Microchip Technologies
    Photo: Microchip Technology

    The GridTime 3000 GNSS time server is a software-configurable solution for utilities, providing redundancy, security and resiliency to protect against surges, adverse weather and cyberattacks. It generates precise time and frequency signals to synchronize analog and digital communication systems. The resilient timing platform incorporates multiple timing inputs for protection in the event of a GNSS signal disruption caused by severe weather, environmental disturbances or signal jamming or spoofing.

    Microchip Technology, www.microchip.com


    UAV

    UAV Mapping Workflow

    For high-precision mapping missions

    Photo: Auterion
    Photo: Auterion

    The Auterion OS serves enterprises that need component and payload flexibility, alongside a centralized and streamlined software workflow. Features include availability of precise mapping data in real time, automated processing for fast decision-making, standardization across Auterion-powered vehicles, connectivity that enables automated end-to-end workflows with no need for manual data transfer, and integration with third-party data-processing software such as Esri Site Scan or Propeller.

    Auterion, auterion.com

    Lidar Scanner

    Designed to meet the need for highly accurate data

    Photo: YellowScan
    Photo: YellowScan

    The YellowScan Vx20 lidar is the most accurate, fully integrated system of YellowScan’s product range. It can fly up to 330 feet (100 meters) while maintaining high accuracy throughout the point cloud. The Vx20 series is designed for applications that require sharp, accurate descriptions. Its Applanix APX-20UAV GNSS/inertial sensor provides precision of 1 cm and accuracy of 2.5 cm. With battery, the lidar scanner weighs 6.25 pounds (2.84 kg). It can be integrated with either multirotor or helicopter drones.

    YellowScan, yellowscan-lidar.com

    Expandable-wing drone

    Stretches to seven feet and carries heavy loads

    Photo: WingXpand
    Photo: WingXpand

    The WingXpand seven-foot expandable-wing drone folds to fit in a backpack. Its U.S.-made patented design combines the small size of a quadcopter with the horsepower of an airplane. The drone expands in less than 2 minutes and weighs less than 10 pounds. It can carry high-resolution cameras and other modular payloads such as a real-time pattern analysis system. More than 10 WingXpand UAS can fit in a public safety vehicle, more than 30 in a pickup, and 250 on a standard airlift pallet. WingXpand maximizes capability, efficiency and safety for the military and public safety officials. It also can be used by farmers, surveyors and inspectors.

    WingXpand, wingxpand.com

    Drone Package

    Capable of centimeter-level positioning

    Photo: ComNav
    Photo: ComNav

    The E300 drone package includes the E300 real-time kinematic (RTK) drone, flight-control software and an optional camera. It is suitable for topographic survey, urban construction, forestry investigation, emergency rescue, 3D modeling, mining and surveying. The drone is embedded with a high-precision K8 GNSS module that supports GPS L1/L2/L5, BeiDou B1/B2/B3/B1C/B2a, GLONASS L1/L2, Galileo E1/E5-a/E5-b/AltBOC/E6 and QZSS L1/L2/L5. With its intelligent recognition algorithms, the E300 can capture high-resolution images consistently even in complex environments.

    ComNav Technology, comnav.com

    Adjustable Drone

    Switches from horizontal to vertical takeoff

    Photo: Tekever
    Photo: Tekever

    The AR3 unmanned aerial system (UAS) now has a “hot-swappable” vertical-takeoff-and-landing (VTOL) capability, able to switch from horizontal launch to vertical. It also now has integrated synthetic aperture radar (SAR). The AR3 is a shipborne UAS that supports multiple types of maritime and land-based missions up to 16 hours. With the upgrade, the AR3 becomes more operationally flexible. The newly added SAR provides the AR3 with a vastly greater operational range, and the ability to effectively detect, recognize and identify targets under any weather condition. Covering more than 20,000 square nautical miles per mission, the new AR3 is suitable for wide-area surveillance missions.

    Tekever, tekever.com


    SURVEYING

    Rugged Tablet

    Provides enhanced heading and positioning

    Photo: ComNav Technology
    Photo: ComNav Technology

    The P300 is a high-precision, in-cab Android tablet designed for precision agriculture, autonomous driving and machine control. Embedded with the K8 OEM module, the P300 tracks GPS, BeiDou, BeiDou-3, GLONASS, Galileo and QZSS signals to achieve centimeter-level accuracy. It provides enhanced heading and positioning performance for everyday field use. The P300 series is available as the P300 Plus (10.1-inch) and P300 Mini (8-inch).

    ComNav Technology, comnav.com

    Advanced GIS

    Deployment option provides greater security, lower cost

    Photo: Hexagon
    Photo: Hexagon

    Intergraph G/Technology, an advanced utility geographic information system (GIS), enables utility companies to plan, design and document networks. It acts as a definitive source of reliable, location-based information that can be shared with users and systems across an organization. Available on the Oracle Cloud Marketplace, G/Technology provides utility operators with a scalable, secure and highly available GIS solution with reduced start-up costs and needed infrastructure. Running G/Technology on Oracle Cloud Infrastructure eases initial system deployment, enhances performance and automates scalability, availability and cybersecurity protection, ensuring the system is always up to date with the latest features and enhancements.

    Hexagon, hexagon.com

    Mobile Mapping Camera

    Provides photogrammetry at highway speeds

    Photo:
    Photo: Mosaic

    The Mosaic X mobile mapping camera captures extremely accurate photos and 360° videos, while simultaneously creating photorealistic 3D photogrammetry models, without the use of lidar. It can achieve 1-cm accuracy on road surfaces. The built-in CPU and GPU allow users to operate the camera and capture data without the need for a computer within the vehicle. Meticulous mechanical engineering and design ensure reliable and dependable use in harsh conditions such as moisture, mechanical shock and extreme temperatures. It can create high-quality 3D models, 3D reconstructions, and dense point clouds without the use of lidar. It comes with an AUX port to connect with external GNSS devices or lidar.

    Mosaic, mosaic51.com

  • Locana and Bent Ear Solutions form strategic alliance

    Locana and Bent Ear Solutions form strategic alliance

    Combined geospatial solutions improve operations using location intelligence and mapping

    Locana logoLocana and Bent Ear Solutions  are collaborating to provide location-based solutions that help customers improve their performance and decision-making across the organization, including their operations center. Locana was formerly known as Critigen.

    The companies will work closely with clients and identify issues, challenges and mission priorities to modernize their geospatial capabilities and improve organizational effectiveness using location intelligence and mapping.

    “Leveraging the complementary skills and expertise each company provides, clients gain tremendous value with focused and optimized technology, services, training, and support,” said Mike Eggenberger, VP, North America Sales, Locana. “Locana and Bent Ear Solutions understand the power of location for gaining an accurate understanding of circumstances and acting with clarity and precision.”

    Bent Ear Solutions maintains deep domain expertise in operations, crisis management and business continuity. The organization has a track record of providing configured, situational awareness based on geographic information systems (GIS) combined with targeted workflows that support multiple requirements.

    Locana has an extensive history of successfully designing and delivering robust, large-scale geospatial projects. Integrating business systems with scalable GIS, Locana helps clients spatially enable their enterprise with location analytics and high-powered mapping.

    “Locana and Bent Ear Solutions are both dedicated to being a trusted partner for our clients,” said Chris McIntosh, CEO, Bent Ear Solutions. “We have a unique opportunity to combine our areas of excellence to address their complex challenges. We believe our collaborative approach will help them maximize the value and use of GIS across the enterprise.”

    Locana and BES combined will deliver tailored GIS solutions and integration that organizations need to overcome system silos and enable situational awareness. The partnership will supply strategic and tactical planning, workflow development, team-building processes, documentation, procedural support and systematic training and exercises.

    The result is long-term value in the form of access to sophisticated analysis and actionable intelligence, the companies said.

  • MetaGeo launches 3D mapping platform

    MetaGeo launches 3D mapping platform

    Screenshot: MetaGeo
    Screenshot: MetaGeo

    MetaGeo has launched a geographic information system (GIS) platform to enable organizations of all sizes to host, analyze, find and share 3D map datasets among any internet-capable devices.

    The platform processes location-based map or sensor data from the real world, combines it into a single 3D virtual environment, and streams it to any device or mapping platform.

    The affordable and easy-to-use platform can load data from multiple sources: satellites, drones, mobile devices, public and crowdsourced repositories, internet of things (IoT) sensor data, 3D models and topographic maps.

    The data is then processed by the MetaGeo platform into a 3D world and streamed to any internet-connected device, enabling live collaboration between the office and field via mobile or AR device. A plug-in software development kit (SDK) allows for third-party tools to scale and fit user needs.

    Applications include academia, architecture, engineering, construction, energy, natural resource management, environmental monitoring, utilities and public safety. Uses include planning and managing construction sites, organizing layouts of events, creating maps for public safety, and visualizing inspection imagery from drones and mobile devices.

  • Geospatial technologies in the suborbital domain

    Geospatial technologies in the suborbital domain

    View from a weather balloon at 100,000 feet. (Photo: NOAA)
    View from a weather balloon at 100,000 feet. (Photo: NOAA)

    We’re at 103,000 feet. As you look up the sky looks beautiful but hostile. …Can see for over 400 miles. The sky [above me] is absolutely black. …I can see the beautiful …deep, dark, indescribable blue [sky below], which no artist can ever duplicate. It’s fantastic.”

    — Capt. Joseph W Kittinger, USAF, Operation Excelsior III, August 16, 1960

    This month, our journey begins in the future. Imagine you are in Alamogordo, New Mexico, a town with a rich history in America’s space program. You are here for a proof-of-concept, real-world exercise. After two years spent training, you are on a team that will test the viability of a stratospheric airframe, or high-altitude platform station (HAPS).

    The exercise is a joint venture between several large corporations and U.S. government agencies. The HAPS began as a telecommunications support platform, but now includes many different industries. It will test backup systems for GPS and other sensing technologies.

    Remote sensing is an obvious use case, and sensors are onboard to collect hyperspectral and thermal images, synthetic aperture radar, lidar, magnetometry, weather and other types of data. Some equipment is mounted on top of the platform to point toward space to monitor satellites and orbital debris. Also aboard are are satellite relays and space-based communications systems. Additionally, a Hubble-like observatory will support NASA research.

    On the ground at the command center, other teams are working on the project. A mapping and survey team is in the field to ground truth the precision, accuracy and resolution of the HAPS data.

    Autonomous vehicle manufacturers are testing telemetry data from the HAPS for improved precision navigation. Teams of imagery analysts and geospatial analysts are assessing the quality and value of the products, including full-motion video live-streamed from the HAPS.

    Aerospace engineers are studying the performance of the airframe and monitoring its structural integrity. Meteorologists are providing upper air wind and weather forecasts. Several teams of engineers are managing various robotics systems onboard, and more scientists and engineers from multiple companies and agencies are testing their equipment.

    The solar-powered Helios in flight. (Photo: Aerovironment)
    The solar-powered Helios in flight. (Photo: NASA/Aerovironment)

    Your Mission as a Stratonaut

    Most tests and modifications are being handled remotely, but some require replacing the systems. This can only be accomplished by physically going to the sub-orbital station. Imagine this is your job.

    You are a remote sensing technician specially designated as a stratonaut. Your training familiarized you with the various systems onboard. You trained how to use your pressure suit — its dangers, risks and capabilities — and how to interface with the suit’s augmented reality system. You know how the HAPS operates, its schematics, and the interiors of the three connected dirigibles. You can navigate your way around the HAPS and access the various decks and compartments as well as the sensors, equipment, charging ports, fuel cells and motors. You can fly the drones, dock with the station, and enter its hangar bays. You can do maintenance on the autonomous robots and the remote-controlled robots onboard the station. You know the security and safety protocols. All this you know and more; and, if things go wrong, you know what to do.

    Vision of the Alpha, Bravo and Charlie HAPS stations. (Image: William Tewelow)
    Vision of the Alpha, Bravo and Charlie HAPS stations. (Image: William Tewelow)

    On this mission day, it’s early morning. Sunlight is beginning to pierce the sky above the Alamogordo base station. Two technicians are helping you into your pressure suit. Another technician at a desk has your helmet hooked up to the computer. The LED lights encircling the facemask blink slowly, indicating data is being uploaded. The augmented reality face shield glows a soft blue as the data flashes across it.

    Overnight at the command center, operators controlled descent of the HAPS from 100,000 feet. It takes 10 hours to reach 65,000 feet, the altitude for your rendezvous with the station. You will fly up to the HAPS in a cargo delivery drone and dock at the forward hangar bay of Station Bravo (the second dirigible). You’ll be installing an enhanced high-resolution hyperspectral sensor array in the station’s lower observation deck.

    While you are busy with the installation, the autonomous robot onboard will be in the hangar bay, swapping out the station’s spent fuel cells with fresh ones carried up by the cargo drone. Each weighs 250-pounds. After this task, the cargo drone will fly to Stations Alpha and Charlie and swap out their spent fuel cells.

    Once all three are completed, the cargo drone will return to Station Bravo and take you to the top of Station Charlie to install a satellite laser relay (SLR) communications system. A remote-controlled robot operated by the engineering team at base command will meet you and carry the SLR up to the tower. While you are installing the SLR, the cargo drone will dock and recharge for your return trip. The entire mission will take seven-hours and 45 minutes.

    Many functions currently done with satellites could be performed for tactical and operational commanders using near-space assets, much more cheaply and with much greater operational utility. By operationally grouping near-space with space, the functional expertise synergies would allow much more efficient delivery of space effects to the joint commander.

    — Lt. Col. Edward B. Tomme, Ph.D., USAF, Air Power Research Institute

    Two Types of Pseudolites

    High-altitude, long-endurance (HALE) airframes — also referred to as pseudo-satellites, pseudolites and stratolites — are of two types.

    Heavier than air. The heavier-than-air (HTA) type is a lightweight, fixed-wing aircraft with extremely long wingspans. It can stay aloft for a month or more.

    HTAs are limited to carrying small payloads. They typically rise to 100,000 feet during the day powered by their solar cells, and at night descend to 60,000 feet, repeating this cycle until the batteries need replacing. The HTA platform is good for short-term missions over a broad area of interest because it normally flies in large circular patterns.

    Lighter than air. The other type of pseudo-satellite is a lighter-than-air (LTA) airframe. The typical example is a dirigible, but these platforms can take on many shapes and sizes. LTAs can be enormous, with lifting capacities upward of 100,000 pounds. They operate as geostationary platforms loitering indefinitely over an area of interest and remain at the same altitude day and night. An LTA can last for 10 years or more.

    The best solution is a combination of the two. A large LTA can serve as a base station to support several small HTA platforms.

    Together, NASA and the Space Force seek to advance, protect and sustain activities in, from and to space. This is truly a new era of strategic collaboration that will benefit commercial, civil and national security in space.

    — John W. Raymond, General, Chief of Space Operations, United States Space Force

    A stratospheric based telecommunications platform proposed by the Elefante Group. (Image: FCC)
    A stratosphere-based telecommunications platform proposed by the Elefante Group. (Image: FCC)

    HAPS Alliance

    Furthering the development of the pseudo-satellite industry is a consortium of 49 companies and universities called the HAPS Alliance, which advocates for investment in this area.

    The stratosphere has become increasingly important for commercial interests and national security. HAPS can provide the best of what manned aircraft operating at lower altitudes can offer, combined with the benefits of satellites, minus much of the downside of each.

    Limits of aircraft. Aircraft operating at lower altitudes offer high resolutions and targeted collection. They can be easily retasked and rerouted, and equipment can be easily repaired or replaced. Aircraft are limited by constraints of time, fuel, weight, distance and weather.

    Limits of satellites. Satellites, on the other hand, provide broad area coverage and long-term, operational endurance, but they are 240 miles or more above the Earth traveling at 17,500 miles per hour, or they are 18,000 miles above the Earth to maintain a geostationary orbit. It is a trade-off between resolution and dwell time.

    Other drawbacks of satellites are their expense. Launching is costly and recovery is nearly impossible to make repairs. Doing so is impractical.

    HAPS do not have those limitations. They can provide long-term, persistent operations over an area of interest at very high resolutions. They also can carry a complete package of sensors and equipment with the additional benefit that most everything can be repaired or replaced with minimal cost.

    Locations of HAPS to cover the borders of the Continental United States. (Image: William Tewelow)
    Locations of HAPS to cover the borders of the Continental United States. (Image: William Tewelow)

    How HAPS Will Improve Geospatial Data

    These systems are going to improve geospatial information. HAPS will improve spectral resolutions by a factor of 10x or better. The improved location accuracy data will impact navigation, surveying, construction, emergency services, logistics, transportation, aviation, agriculture and most other industries.

    The HAPS will act in tandem with cellular networks on the ground to improve internet connectivity and telecommunications. They will improve national security while monitoring the effects of climate change, deforestation, urban sprawl, ozone, pollution and natural disasters such as floods, forest fires, tornadoes, hurricanes and more.

    Provided testing proves HAPS a success, the pseudosatellite era is going to greatly impact most everyone’s life. If you are lucky, you might actually become a stratonaut. If you are interested, now is the time to prepare.

    This point of observation commands an area nearly 50 miles in diameter. The city, with its girdle of encampments, presents a superb scene. I have pleasure in sending you this first dispatch ever telegraphed from an aerial station.

    — Thaddeus S. C. Lowe, First Chief Aeronaut, Union Army Balloon Corps, Civil War, 1861


    Headshot: William Tewelow
    William Tewelow

    William Tewelow is a Senior Aeronautical Information Specialist for the Federal Aviation Administration. He is a designated Geographic Information Systems Professionals (GISP). He served on special assignment to the U.S. Department of Transportation and led a national strategic geospatial initiative under the authority of the White House Open Data Partnership. He was among the first in the nation to earn a Geospatial Specialist Certification from the U.S. Department of Labor while working at NASA Stennis Space Center.

    He is a 2016 graduate of the FAA’s management fellowship Program for Emerging Leaders. He has degrees in Geographic Information Technology and Intelligence Studies and is earning a master’s degree in Organizational Leadership with a focus on Performance Management. He is a mentor with the FAA’s National Mentor Program.

    Tewelow retired from the U.S. Navy after serving 23 years as a Geospatial and Imagery Intelligence Specialist, a Naval Aviator, a Meteorologist, and a Tactical Oceanographer earning three achievement medals. He is married, enjoys traveling, connecting people, solving problems, and interested in new technology. His favorite quote is, “A man’s mind changed by a new idea can never go back to its original dimension.” ~ Oliver Wendell Holmes

     

  • Trimble DA2 GNSS receiver launched for Catalyst positioning

    Trimble DA2 GNSS receiver launched for Catalyst positioning

    The Trimble DA2 receiver boosts the performance of the Trimble Catalyst GNSS positioning service. (Photo: Trimble)
    The Trimble DA2 receiver boosts the performance of the Trimble Catalyst GNSS positioning service. (Photo: Trimble)

    Trimble has launched the Trimble DA2 GNSS receiver for the Trimble Catalyst positioning service. The DA2 — the second-generation receiver and antenna for the Catalyst service — now includes the Trimble ProPoint GNSS engine for enhanced performance.

    Unique to the latest Trimble GNSS solutions, ProPoint technology reduces convergence times and improves positioning accuracy when operating near trees and buildings.

    Trimble Catalyst is a subscription-based GNSS positioning service for location-enabled field applications. The service is available in accuracy-based packages from centimeter- to submeter-level for a wide range of mapping and mobile geographic information system (GIS) data-collection projects. Catalyst continues to support a broad range of GIS field applications, including Trimble TerraFlex software, for form-based GIS data collection.

    “Trimble Catalyst brings easy-to-use precise positioning to location-enabled workforces,” said Gareth Gibson, marketing director, Trimble Mapping & GIS. “The addition of ProPoint technology, together with the DA2’s support for iOS devices, means Catalyst can now deliver Trimble quality positioning to more geospatial professionals than ever before.”

    Trimble Catalyst subscriptions are available through Trimble’s Authorized Distribution Network. The Catalyst DA2 digital GNSS receiver, sold separately, is expected to be available in the fourth quarter. Trimble TerraFlex software subscriptions are available separately through Trimble Geospatial distribution partners.

  • Nearmap partners with GTG to help local governments

    Nearmap partners with GTG to help local governments

    Photo: sassy1902/E+/Getty Images
    Photo: sassy1902/E+/Getty Images

    Aerial imagery company Nearmap is partnering with Geographic Technologies Group (GTG), which helps local government agencies throughout the United States and Canada with geographic information systems (GIS).

    GTG offers local governments with GIS services including strategic planning, consulting, comprehensive data services, mapping services, software development, training and on-call support. GTG also provides ongoing GIS maintenance for villages, towns, cities, counties, multi-regional agencies, public works and public utilities, water districts, and Native American and Alaskan Tribes.

    “Our range of high-resolution aerial content — from vertical to oblique, 3D and AI [artificial intelligence] — integrates easily with GTG’s applications and acts as a valuable component to the strategic planning services offered by GTG,” said Karl Terrey, director, Global Alliances at Nearmap. “Our imagery is refreshed multiple times per year and, when combined with GTG’s technology, allows cities, towns, counties and state governments to make decisions based on conditions in their communities in near real time, at a fraction of the cost.”

    Nearmap’s 3D imagery provides local governments with the ability to quickly export custom areas for use in platforms such as Esri, Bentley Systems and Autodesk. Nearmap AI enables governments to instantly identify attributes about properties required for the appraisal process. Nearmap AI Packs enable users to determine the type of access made visible in MapBrowser for items such as impervious surfaces, vegetation and solar panels at citywide scale.

    Nearmap’s library of aerial imagery provides some of the most accurate imagery available with updates occurring up to three times a year throughout more than 430 markets in North America, including 700 urban and regional areas accounting for more than 70 percent of the United States population.

    “Our goal has always been to break through boundaries, solve problems, and introduce a new kind of decision support for our clients,” said James Kelt, vice president of corporate software at GTG. “We began using Nearmap’s aerial imagery a few years ago because we recognized it as a way to differentiate ourselves and push the envelope. Our clients love the imagery and the more we worked with Nearmap, the more it made sense to find a way to partner so we could provide this added value to all of our customers.”

  • The surveyor and the mapper — sharing the same stage

    The surveyor and the mapper — sharing the same stage

    The world of mathematics has always been a mysterious one. It is universally loved by those who enjoy STEM-related fields and occupations, while being generally loathed by those who prefer the arts and humanities (similar to the argument with cats versus dogs, but let us not go down that rabbit hole). It would be easy to believe that if each side sticks to their side of the road, there would be peace and harmony in the world.

    While I cannot speak for the art and humanities group, I can say with certainty that the STEM-related mathematics professions have been known to disagree with each other on various roles within the surveying and mapping world. While surveying has been around since the beginning of time, various forms of organized mapping systems began in earnest in the 1960s.

    When attempts were made to bring the two professions together, each side bristled at being mentioned in the same breath as the other one. The surveyors were the outdoor cowboys with theodolites and tapes, measuring properties and improvements with low precision and accuracy. The mappers, now beginning to be known by the acronym GIS (geographical information system) technicians, were the office computer nerds with punch cards and slide rules.

    Each side did not care much for the other — mostly because they did not understand each other’s role in creating the modern infrastructure database. This relationship would last for decades with no relief in sight.

    Early (and unresolvable) differences

    Each side brought a good argument to the table regarding why the other side was not as important to the authoritative role of map/plat making. For instance, here are the typical stances of each side in the 1970s, before the introduction of personal computers and electronic data collectors.

    • Surveyors worked on the ground and with actual monuments and improvements. They measured angles and distances to collect the pertinent data and drew by hand said information graphically on paper. Because of the accuracy and precision of the field measurements, adjustments were made to the calculations to resolve the unknown errors within the data collection.
    • GIS technicians used a combination of hand calculations, drafting and primitive computers to depict information obtained by existing maps and plats. Because the information being reviewed was not obtained through field methods, parcel lines were forced to fit, improvements to be shown with 90-degree corners, and ambiguities with most data issues to be dismissed.

    Each side stood their ground (in the field or the office) and maintained the distance and differences until more technological revolutions began to infiltrate their vision. At first blush, one could assume these advancements would bring the two factions together; one would be wrong.

    Would you like to play a game?

    Photo: RyanJLane/E+/Getty Images
    Photo: RyanJLane/E+/Getty Images

    The 1980s are known for many things, but for the surveying and mapping communities, it brought a new way of reviewing and storing spatial data. The introduction of the personal computer and vector-based software in the early part of the decade set the pace for rapid and revolutionary upgrades to each profession.

    It was now possible to see on a computer screen what had only been previously possible through manual computation and drafting. As the decade went on, computing speed and storage continued to increase along with the features of software packages.

    However, these advancements did little to bring the surveying and mapping professions together; in fact, the technology has been blamed for causing even more of a divide between the two.

    Again, each side has their reasons for maintaining their hold on being recognized as the authority on the creation of the cadaster layer.

    • Surveyors continued to insist because they worked on the ground and with actual monuments and improvements, the process of putting the data into a computerized format only solidified their position.
    • GIS technicians continued to insist that the refinement of their previous calculations of drafting and mapping into a computerized version further extended their expertise in the mapping world. Also, because many in GIS were specifically trained on computers in college, the work being produced by these members was superior to surveyors.

    Even with the improvements in technology from computers, the divide between the two grew. The relationship between surveying and mapping was at an all-time low, so there must be nowhere to go but up, right? Not so fast.

    GPS + spatial = data custody battle?

    Photo: Magellan
    Photo: Magellan

    Through the 1990s and beyond, the introduction and subsequent rapid implementation of GPS/GNSS gave new meaning to a previous but rarely used term: geospatial data. Only geodesists and higher-end scientists truly worked with geospatial data because of their professional environment and expertise, but now anyone with a GPS receiver became a geospatial data collector.

    Previously, surveyors would measure on a global scale (latitude/longitude and/or state plane coordinates), but this would typically consist of solar and lunar observations under ideal conditions. GIS technicians could only rely on data provided to fit within the location parameters of their projects, which has usually scaled from quadrangle maps.

    However, this new technology was being used with data collectors programmed for almost anyone to use with little to no geodesy experience. Turn it on, press a button and voila — a geospatial location in a variety of coordinate systems. No more sun shots, lengthy traverses from obscure NGS monuments, or scaling from the quad sheets.

    Finally, the surveying and mapping communities have common ground to work on! It would be easy to assume that walls came down and the two professions mended their fences. The short answer is no; they once again did not. Here is each side’s general take on geospatial abilities:

    • Surveyors (once again!) continued to insist that because they worked on the ground and with actual monuments and improvements (though now with improved positioning), the process of putting the data into a georeferenced format only solidified their position.
    • GIS technicians now contended that they, too, could collect the necessary field data using GPS and bypass the need for surveyors. Also, because many in the GIS field were specifically educated to work with spatial data, the information being produced by these members was superior to surveyors’ data.

    We now find ourselves flipping the calendar pages well into the 2020s, with little movement on resolving this relationship. But we can change that if we introduce a little friendlier dialogue.

    In this corner, the surveyor. In the opposite corner, the GIS technician

    When it comes to high accuracy/high-precision data collection for locating existing properties and improvements, there will be little argument that this role is strictly designated to the surveying profession. Technological improvements have made our work more precise and accurate; all while being collected in a georeferenced system. The relationship between the surveyor and geospatial data was previously discussed to demonstrate the importance of our work and determining existing conditions, (see GPS World July 2020 column). The surveyor’s ability to be able to collect an enormous amount of geospatial data for surveying purposes is not being questioned, but the line to where the work encroaches into GIS territory. Spoiler alert: Practically everything the surveyor collects can be considered GIS information as well.

    Let us look at the relationship from the GIS perspective. The input and oversight of the parcel layer must rely on the licensed land surveyor to provide, while the GIS community is charged to collect necessary information to include into their database. It would make sense to update existing infrastructure information using current technology or historical archives in which the position of the data can be verified. Either way, it is now going to be referenced by its geospatial position rather than a relationship to a parcel line.

    Also, the GIS technicians have the same or better capability to utilize data collectors with GNSS receivers for locating existing improvements for inclusion into their system. Most of these technicians have access to the same sources providing the GNSS equipment and coupled with their education and skills, they can collect the data as well as any survey crew. B

    ut does this data collection by a GIS technician fall under most state statutes for surveying without a license? Spoiler alert: The short answer is yes, it does if any data collection includes parcel monumentation and could depict a relationship to a parcel line.

    The whole is greater than the sum of its parts

    Before both parties of this discussion get their pitchforks and torches to have a “talk” with this author, let us take a step back and reassess where we are today with technology and looking toward a future together. The common element here is the data, but how each party uses the data does vary.

    The surveyor typically uses geospatial data for several applications; boundary determination, existing planimetric and topographical conditions, and physical depiction of proposed improvements. The surveyor’s data should be considered as a snapshot in time of the conditions of a particular site or project area.

    Because of emerging technology, it is not just manually collected survey points using conventional equipment; it can be point clouds and 3D photographs not possible 20 years ago. The surveyor can be considered a high-tech record keeper and can update information as sites change. All because the collected geospatial data is timestamped and memorialized in a digital database.

    GIS professionals, on the other hand, require similar information but for many different purposes. Attributes play a much bigger role in the geospatial data requirements than surveyors because the information found within tells them an important story.

    Photo: aydinmutlu/E+/Getty Images
    Photo: aydinmutlu/E+/Getty Images

    The biggest improvement because of the increasing accuracy of the data is infrastructure. As aging utilities require replacement, locating old facilities can be difficult based upon old mapping. Geospatial data collection provides more reliable locations once old facilities are found, existing conditions are reported, and crucial information about its lifespan is collected for future consideration.

    Newly installed utilities will have the luxury of significant attribute data applied to each structure to help with future monitoring and maintenance. These are some of the factor that apply to effective asset management and can be applicable to both public and private clients.

    While the surveyor and the mapper use geospatial data for similar yet different uses, the product is generally the same. But this discussion is not just about merging data into one big global database; we need to dig a little deeper on how to grow each side of our professions together.

    Growth is never by mere chance; it is the result of forces working together

    The surveying and mapping professions have been at a crossroad for some time and both sides continue to ignore each other. Both believe that geospatial data is theirs to control, and they both are right. However, each have a different stake in this geospatial data discussion and need to learn to respect each other’s role. Each side brings a different perspective how to grow and advance our world through effective and efficient surveying and mapping, but they must start talking to realize how much they can grow together.

    With a little more focus and education of each other’s roles on both sides, an overlap of responsibilities could mean faster approach to modernizing many aspects of our respective professions. For instance:

    • Cross training of surveyors in GIS software, data collection requirements, parcel modules, and layer nomenclature
      • Encourage surveyors to apply for GISCI Certified GIS Professional (GISP) testing
    • Cross training of GIS professionals and technicians with survey technician programs
      • Encourage GIS personnel to apply for NSPS Certified Survey Technician (CST) testing
    • Both surveyors and mappers cross training with data collection systems capable of collecting geospatial data containing specific positional information and attributes
      • Identifying limitations of various equipment and techniques (i.e. using the right “tool” for the job)
      • Understanding of positional tolerance (precision versus accuracy) and metadata
      • Comprehension of coordinate systems and zones, including low distortion projections (LDP)
      • Distinguishing between surveying and mapping data collection (i.e. boundary/right-of-way determination versus infrastructure collection for inventory)

    Light at the end of the tunnel

    Technology has introduced our world to many advances not thought possible for our entire existence. The Fourth Industrial Revolution (see GPS World July 2019 column) is now taking aim at industries like surveying and mapping through automation and artificial intelligence capability.

    Data is crucial to everything and our respective professions are in the center of the revolution. 2020 and our worldwide pandemic of COVID-19 has been (unfortunately) perfect example of how data affects our world in real time. The more critical and accurate data that is collected, the better we can make assessments of situations.

    Surveyors and mappers are doing the same thing with data; survey data helps design our world through establishing accurate conditions, while GIS data helps to evaluate our current conditions and plan for future situations. Both professions rely heavily on data, collected in similar methods, but for separate but similar uses. Each has their strengths to bring to the collective table and can increase the effectiveness of digital modeling going forward.

    Photo: PeopleImages/E+/Getty Images
    Photo: PeopleImages/E+/Getty Images

    Let’s make a plan

    The world is moving toward digital twins, augmented and virtual reality along with autonomous travel; it would be in our best interest that the data used to identify the surroundings for those advancements be correct and seamless from all sources. Let us begin by dropping all the delusions of grandeur for our respective professions and formulate a plan to move forward together. The clock is ticking, and time continues to march on.

    Technology continues, and soon Generation Z will be trying to do our work with their laptops and smartphones from the coffee shops without our help. Because they can. See, it is important, isn’t it?

  • GIS helps telecom industry meet new demands

    Image: nadla/E+/Getty Images
    Image: nadla/E+/Getty Images

    By Akshita Pacholi
    Allied Market Research

    With advantages provided by geographic information systems (GIS), the demand for GIS in the telecom industry has increased in recent years. According to a report published by Allied Market Research, the global telecom market is anticipated to garner $3.27 million by 2023.

    GIS has fortified the telecom industry by reducing costs and augmenting capital planning. GIS mapping can improve outage prediction, resource management and infrastructure determination.

    GIS also can help the emerging economies for independent energy, efficient infrastructure, and enhanced communication systems. GIS provides imagery, geocoding, modeling, routing and the required data for these applications.

    GIS is rising in popularity as it eases access to critical sources of business intelligence.

    Impacts in the telecom industry

    GIS mapping supports telecom companies with factors such as enhanced customer service with location data and imagery, efficient resource dispatch, and prompt sharing of location data. This enables telecom industries to track locations and have a better understanding of service layout.

    GIS mapping lets companies know the geospatial relationships of their facilities, resources and ground features, and provide faster and more effective customer service.

    GIS also helps identify faulty circuits. It can help model the solution online and offer best-case scenarios, resulting in improved operations and enhanced customer service.

    GIS mapping also helps the sales and service team understand their targets by tracking multiple layers of geospatial data and providing insight into the customer base.

    Information on network structure

    Almost every telecom company focuses on offering effective, functioning networks, along with network monitoring, testing of network elements, maintenance and customer services. The real-time network structure offered by GIS solutions enhances these monitoring and service activities.

    With GIS, networks get instant access to information such as customers’ history and rank, current network structure, signal quality in precise demography, and any need for maintenance or restoration of services. Moreover, GIS makes the services more reliable and fast.

    GIS solutions are also beneficial for determining market demand for future estimations. GIS offers a better understanding of the relationship between customers’ topographical presence and companies’ marketing operations. It helps companies identify networking issues and easily reach customers, along with offering information on other issues.

    With its precise geography, GIS helps telecom companies meet service demand and develop budgets for promotional activities and marketing campaigns.

    Enhancing telecom services

    With computers and mobile devices a necessity for most of us, many telecoms want to expand to provide services in rural areas — a major reason for their adoption of GIS.

    Another motivator is the surge in demand for augmented reality and virtual reality, part of the increase in the adoption of GIS for mobile and broadband services.

    Smart Cities. GIS provides a platform that works with Customer Relationship Management (CRM) systems, networks, databases, fault management system and wireless location. The demand for growth also depends on the rise in demand for satellite images by companies that provide maps and an increase in government spending to develop and build smart cities.

    Moreover, the rising use of technology, the internet, and other digital platforms in rural areas has sparked companies to expand their services.

    With companies focusing on broad network coverage, greater connectivity and emerging innovations such as 5G, the field of mobile telecommunications technology is anticipating opportunities to expand market growth.


    Akshita Pacholi has a master’s degree in English literature and is working as a content writer with Allied Market Research. 

  • NSGIC issues joint statement on value of GIS during COVID-19 pandemic

    NSGIC issues joint statement on value of GIS during COVID-19 pandemic

    Image: Kat72/iStock / Getty Images Plus/Getty Images
    Image: Kat72/iStock / Getty Images Plus/Getty Images

    The National States Geographic Information Council (NSGIC) has released a joint statement on the value of GIS during the COVID-19 pandemic, alongside its partners the MidAmerica GIS Consortium (MAGIC), Open Geospatial Consortium (OGC), Urban and Regional Information Systems Association (URISA), and American Association of Geographers (AAG).


    Joint Statement on the Value of GIS in the Pandemic

    The spread and effects of COVID-19 can be best understood considering space and time.

    As governments are responding to COVID-19, more leaders are recognizing the value of “knowing the where.” The importance of knowing where the outbreak is growing, where high risk populations are, where the hospital beds and important medical resources are, and where to deploy resources is essential. “Knowing the where” informs better decision-making.

    In an effort to better understand the where, governments are recognizing the value of geospatial information and technologies and are engaging geospatial professionals to help them better understand the where to help them in their decision-making and response.

    Geospatial professionals bring unique analytical and visualization skills to the table that help responders and decision-makers visualize where the pandemic is spreading more quickly and can make the important decisions regarding where response and resource needs need to be focused. The value of telling the story through a map coupled with a geospatial dashboard provides a view of the event not readily seen in a table such as a spreadsheet.

    Beyond visualizing existing data, we can connect data from a location perspective, which enhances the value of the data sources being integrated. Equally important in this event is data on COVID-19 cases and testing packaged and shared in a way useful to scientists.

    GIS (geographic information systems) is experiencing an unprecedented level of use. Historically, GIS was deployed following a disaster to help respond and recover. Today, GIS is used as a disaster is unfolding. The COVID-19 event is an outstanding example of how effective GIS is when robust data is available. Governments are realizing the value of investing in these systems and the people who run them.

    The information necessary to empower all partners already exists.

    Current nationwide models and response efforts may not benefit from the details of local geographic parameters. Local or statewide models and response efforts may not fully take advantage of the data from other areas of the country. Hospitals are surveyed by both federal and state agencies, and the results of those surveys are not readily available to the hospitals working together to care for patients. Nationwide geospatial data will empower a coalition of participants with a better understanding of the spread and impacts of COVID-19 and improve mitigation actions.

    The same data can be made available in different forms to empower people playing different roles in the response. Researchers — epidemiologists — will benefit from nationwide COVID-19 testing data and data describing factors impacting the spread. This data needs to be as disaggregated as permissible under HIPAA and in a form readily digestible in models.

    The case data could be aggregated to the same units of geography as a wealth of existing demographic data (Census tracts), which could explain and quantify local variances in the spread. Policy makers and those in emergency management can benefit from map and tabular dashboards, harnessing the power of the where by integrating data for analytics.

    The emergency response, public health and geospatial communities must come together to understand COVID-19 in the U.S. and mitigate its spread and overall impact.

    By geo-enabling public health and emergency response data, we can better:

    • understand the spread — with COVID case data, movements of people, and symptoms
    • understand the impact on individuals — with data including age, disease, obesity, and medical treatments
    • understand how to tailor outreach — by age, language, engagement with government, and lifestyle choices
    • understand the needs of the healthcare industry — by facility, day, bed capacity, type of care, ventilators, and PPE
    • understand the impact on the local economy — by county, day, unemployment, and bankruptcies
    • understand the societal impacts — by census tract, domestic violence, alcohol consumption, child abuse, animal abuse, elder abuse, mental health crises, 3-1-1 calls and firearm sales

    We are committed to beginning the national conversation about leveraging the best available data to better understand the spread and impacts of COVID-19.

    To receive more information and be part of the discussion, please share your email address with us.

    National States Geographic Information Council (NSGIC)

    MidAmerica GIS Consortium (MAGIC)

    Open Geospatial Consortium (OGC)

    Urban and Regional Information Systems Association (URISA)

    American Association of Geographers (AAG)


    Feature image: Kat72/iStock / Getty Images Plus/Getty Images

  • NSGIC issues joint statement on value of GIS for COVID-19 pandemic

    Image: Kat72/ iStock / Getty Images Plus/Getty Images
    Image: Kat72/iStock / Getty Images Plus/Getty Images

    The National States Geographic Information Council (NSGIC) has released a joint statement on the value of GIS in the pandemic, alongside its partners the MidAmerica GIS Consortium (MAGIC), Open Geospatial Consortium (OGC), Urban and Regional Information Systems Association (URISA), and American Association of Geographers (AAG).


    Joint Statement on the Value of GIS in the Pandemic

    The spread and effects of COVID-19 can be best understood considering space and time.

    As governments are responding to COVID-19, more leaders are recognizing the value of “knowing the where.” The importance of knowing where the outbreak is growing, where high risk populations are, where the hospital beds and important medical resources are, and where to deploy resources is essential. “Knowing the where” informs better decision-making.

    In an effort to better understand the where, governments are recognizing the value of geospatial information and technologies and are engaging geospatial professionals to help them better understand the where to help them in their decision-making and response.

    Geospatial professionals bring unique analytical and visualization skills to the table that help responders and decision-makers visualize where the pandemic is spreading more quickly and can make the important decisions regarding where response and resource needs need to be focused. The value of telling the story through a map coupled with a geospatial dashboard provides a view of the event not readily seen in a table such as a spreadsheet.

    Beyond visualizing existing data, we can connect data from a location perspective, which enhances the value of the data sources being integrated. Equally important in this event is data on COVID-19 cases and testing packaged and shared in a way useful to scientists.

    GIS (geographic information systems) is experiencing an unprecedented level of use. Historically, GIS was deployed following a disaster to help respond and recover. Today, GIS is used as a disaster is unfolding. The COVID-19 event is an outstanding example of how effective GIS is when robust data is available. Governments are realizing the value of investing in these systems and the people who run them.

    The information necessary to empower all partners already exists.

    Current nationwide models and response efforts may not benefit from the details of local geographic parameters. Local or statewide models and response efforts may not fully take advantage of the data from other areas of the country. Hospitals are surveyed by both federal and state agencies, and the results of those surveys are not readily available to the hospitals working together to care for patients. Nationwide geospatial data will empower a coalition of participants with a better understanding of the spread and impacts of COVID-19 and improve mitigation actions.

    The same data can be made available in different forms to empower people playing different roles in the response. Researchers — epidemiologists — will benefit from nationwide COVID-19 testing data and data describing factors impacting the spread. This data needs to be as disaggregated as permissible under HIPAA and in a form readily digestible in models.

    The case data could be aggregated to the same units of geography as a wealth of existing demographic data (Census tracts), which could explain and quantify local variances in the spread. Policy makers and those in emergency management can benefit from map and tabular dashboards, harnessing the power of the where by integrating data for analytics.

    The emergency response, public health and geospatial communities must come together to understand COVID-19 in the U.S. and mitigate its spread and overall impact.

    By geo-enabling public health and emergency response data, we can better:

    • understand the spread — with COVID case data, movements of people, and symptoms
    • understand the impact on individuals — with data including age, disease, obesity, and medical treatments
    • understand how to tailor outreach — by age, language, engagement with government, and lifestyle choices
    • understand the needs of the healthcare industry — by facility, day, bed capacity, type of care, ventilators, and PPE
    • understand the impact on the local economy — by county, day, unemployment, and bankruptcies
    • understand the societal impacts — by census tract, domestic violence, alcohol consumption, child abuse, animal abuse, elder abuse, mental health crises, 3-1-1 calls and firearm sales

    We are committed to beginning the national conversation about leveraging the best available data to better understand the spread and impacts of COVID-19.

    To receive more information and be part of the discussion, please share your email address with us.

    National States Geographic Information Council (NSGIC)

    MidAmerica GIS Consortium (MAGIC)

    Open Geospatial Consortium (OGC)

    Urban and Regional Information Systems Association (URISA)

    American Association of Geographers (AAG)

  • Esri offers instructor-led GIS classes online

    Logo: Esri

    Over the last few weeks, many organizations have transitioned their workforce to remote work environments. At the same time, the demand for geographic information systems (GIS) products and skilled GIS professionals is high.

    Esri announces that all of its instructor-led courses are available in its instructor-led online classroom, which is calls “an engaging learning environment that offers convenience and interactivity.”

    The company lists these features:

    • Instructors and course attendees use the phone, chat, and virtual whiteboards to talk and collaborate in real time.
    • Group breakout sessions and content reviews support peer-to-peer learning and knowledge retention.
    • Attendees access all Esri software needed to complete course exercises through virtual machines.

    “We understand that sustaining business operations and achieving your organization’s mission remains critical,” the Esri Training Team said in an email. “As always, we’re committed to helping you build the skills needed to apply ArcGIS best practices, fuel efficiencies and make the best decisions based on data.”

    Esri offers the Esri Training Pass to streamline access to its online instructor-led classes. Users can pre-purchase training days to simplify training registration and approval processes throughout the year.

  • Trimble TerraFlex now has offline data transfer

    Trimble TerraFlex now has offline data transfer

    TerraFlex users can now synchronize data directly to their on-premise Esri geographic information system without cloud services.

    Photo: Trimble
    Photo: Trimble

    The new software workflow — called offline data transfer — is possible through the integration of Trimble TerraFlex and the Trimble Positions Desktop add-in for Esri ArcGIS Desktop.

    TerraFlex is a field solution that enables mobile workers to easily collect, manage and edit their geospatial feature data.

    The new workflow provides an alternative to using Trimble cloud services for storing and transferring GIS feature data collected with the TerraFlex platform. In addition, TerraFlex field data collected via this workflow using a Trimble GNSS receiver can be post-processed directly inside the Trimble Positions Desktop add-in for improved positional accuracy.

    “With this new feature, TerraFlex fulfills the need of organizations such as government agencies and utility providers who cannot keep their data in the cloud because of regulatory constraints or business rules,” said Rachel Blair-Winker, business area manager for Trimble Mapping & GIS solutions.

    “By introducing the new workflow to our TerraFlex software platform, customers who prefer direct desktop methods of transferring data between field and office (such as USB) and need post-processing capabilities can now benefit using this new solution without having to change their current business practices,” Blair-Winker said.

    Trimble TerraFlex is available online or through Trimble’s Authorized Geospatial distribution channel. The mobile apps are available in Apple’s App Store and the Google Play store.

    The Trimble Positions Desktop add-in is available through the Trimble Geospatial distribution channel. The new workflow functionality will require the latest version of both applications.