Tag: mapping

  • Launchpad: GNSS chipsets, GIS software

    Launchpad: GNSS chipsets, GIS software

    A roundup of recent products in the GNSS and inertial positioning industry from the January 2021 issue of GPS World magazine.


    OEM

    Receiver board

    Enhanced with corrections

    Photo: Septentrio
    Photo: Septentrio

    The AsteRx-m3 Sx OEM board dual-antenna receiver combines Septentrio’s latest core GNSS technology with the SECORX-S sub-decimeter correction service to enable plug-and-play positioning. High-accuracy positioning is available directly out of the box, GNSS corrections automatically streamed to the receiver. This significantly simplifies the set-up process and eliminates the need for corrections service subscription and maintenance. Corrections are delivered via internet or L-band satellites, ensuring sub-decimeter service even in remote locations where there is no easy internet access.

    Septentrio, septentrio.com

    GNSS antenna

    Smart antenna for 5G timing

    Photo: Tallysman
    Photo: Tallysman

    The new TW5382 smart GNSS antenna is designed for high-accuracy 5G timing. The TW5382 is a multi-band, multi-constellation 5G smart GNSS antenna/receiver that provides 5 ns (1-sigma, clear sky view) timing accuracy. It consists of two components: a Tallysman GNSS Accutenna technology antenna and a professional-grade GNSS timing receiver module. Accutenna supports the full bandwidth of the TW5382 receiver, strong multipath mitigation and deep filtering in a compact IP69K enclosure. These features enable the antenna to provide a strong, pure, in-band, right-hand circular polarized signal to the receiver. The TW5382’s professional-grade multi-constellation and multi-signal timing receiver tracks GPS/QZSS (L1/L2), GLONASS (G1/G2), Galileo (E1/E5b), and BeiDou (B1/B2) signals.

    Tallymatics, tallymatics.com

    IoT GNSS module

    For quick integration of precise positioning

    Photo: Swift Navigation
    Photo: Swift Navigation

    The new Precision GNSS Module (PGM) is designed to offer fast evaluation and a quick path to production for those requiring a precise positioning solution. It is available in a simple-to-use, industry-standard mPCIe (mini peripheral component interconnect express) format and is designed specifically for Swift’s Starling positioning engine running on a host application processor to deliver real-time precision navigation. The PGM utilizes STMicroelectronics’ TeseoV chipset in Quectel’s multi-constellation, dual-band LG69T-AP receiver to create an affordable, easy-to-use solution for customers building industrial, last-mile and internet of things (IoT) platforms. This solution operates with the highest accuracy when used with Swift’s Skylark positioning service.

    Swift Navigation, swiftnav.com

    Inertial navigation system

    Success in ultra-high-altitude flight simulation

    Photo: Systron Donner
    Photo: Systron Donner

    CAST Navigation tested Emcore’s SDN500 inertial navigation system (INS) in an ultra-high-altitude flight simulation and achieved success. The test required simulating performance at an altitude of more than 24,000 meters and velocities over 600 m/s. Only a few aircraft in the world have such capabilities, including the SR-71 Blackbird, but it is not practical to participate in a test flight on the SR-71. Simulating the SDN500 INS test flight to specific customer profiles on a CAST system is straightforward and cost-effective. Emcore relies on GNSS/INS simulators for hardware-in-the-loop testing to verify the expected performance of algorithms. Emcore sought to validate the velocity and altitude limits of a new GNSS receiver along with the algorithm performance in a tactical-grade SDN500 system.

    Emcore, emcore.com
    CAST Navigation, castnav.com

    5G chipset

    Ready for mass-market 5G phones

    Photo: MediaTek
    Photo: MediaTek

    The Dimensity 700 5G smartphone chipset is a system on chip (SoC) designed to bring advanced 5G capabilities and experiences to the mass market. MediaTek’s Dimensity family of 5G chips is designed to give device makers a suite of options for 5G smartphone models. The chips range from flagship and premium to mid-range and mass market devices to make 5G more accessible for consumers everywhere. GNSS signals received include GPS L1CA and L5, BeiDou B1I and B2, GLONASS L1OF, Galileo E1 and E5, QZSS L1C and L5, and NavIC.

    MediaTek, mediatek.com


    UAV

    Inspection software

    For transmission towers

    Photo: Cyberhawk
    Photo: Cyberhawk

    IHawk allows users to inspect sites remotely and then download and view the analysis anywhere in the world. It eliminates the need for engineers to climb towers for inspections or work in hazardous environments. The imagery and information gathered provides a detailed and highly accurate analysis of the condition of power transmission towers.

    Cyberhawk, thecyberhawk.com

    Heavy-lift UAV

    System designed for Turkish rescue and security

    Photo: UAVOS
    Photo: UAVOS

    The Alpin UAS is a long-range, heavy-lift unmanned helicopter capable of carrying up to 160 kg with a range of up to 840 km. The UAS includes a wideband satellite communication channel from its command-and-control station — a valuable feature, particularly for operations in remote areas. The Alpin unmanned helicopter is able to withstand severe weather conditions, carry multiple payloads, and transmit real-time information to defense forces and decision-makers in the field. Its system autopilot has features and advantages such as fully autonomous take-off and landing, remote ground-control network capability, auto-rotation landing capability and high efficiency flight control based on a total energy control system (TECS).

    UAVOS, uavos.com

    Metadata mapping

    Secure web application enhanced for dji drones

    Photo: Remote GeoSystems
    Photo: Remote GeoSystems

    LineVision Online now provides enhanced support for visualizing and mapping DJI drone video camera metadata and field-of-view projections. The secure web application is designed for immersive mapping, analysis, search, sharing and archive of geo-referenced videos, full-motion video, photos and other survey, inspection and surveillance datasets. With enhanced camera metadata mapping in LineVision Online, DJI drone videos can now display a dynamic, field-of-view outline representing where the gimbal camera was looking on the Earth as the video plays in the web-based map interface. Users can select any point along the UAV’s flight track on the map to immediately cue the video to play what was recorded at that location click point.

    Remote GeoSystems, remotegeo.com

    Agriculture drone

    Comprehensive spraying system

    Photo: DJI
    Photo: DJI

    The Agras T20 drone can conduct autonomous operations over a variety of terrains, such as broad-acre farmlands, terraces and orchards. As a comprehensive spraying system, the T20 allows users to easily set flight and operation parameters. With a built-in real-time kinematic (RTK) centimeter-level positioning system and RTK dongles, centimeter-level waypoint recording is enabled, strengthening operations and ensuring precision spraying.The T20 is equipped with eight nozzles and high-volume pumps that can spray at a rate of up to 6 liters per minute. A highly optimized wind field produces droplets of the correct size and consistency. The T20 is also equipped with a new four-channel electromagnetic flow meter, which monitors and controls four hoses individually, ensuring an efficient flow rate for each nozzle.

    DJI, dji.com


    SURVEYING AND MAPPING

    Virtual base station

    New feature in post-processing software

    Photo: SBG Systems
    Photo: SBG Systems

    A new virtual base station (VBS) feature is available in Qinertia, GNSS and inertial navigation system (INS) post-processing software. Trajectory and orientation are greatly improved by processing inertial data and raw GNSS observables in forward and backward directions. The VBS computes a virtual network around a project in which position accuracy is maximized, homogeneous and robust, such as a PPK short baseline. Once surveyors collect data, Qinertia chooses the most relevant reference stations, builds a virtual network and brings the project to centimeter-level accuracy with no convergence effects, even in urban areas.

    SBG Systems, sbg-systems.com

    3d data processing

    Designed to decipher unstructured data

    Photo: Enview
    Photo: Enview

    Enview Explore is a powerful web application that leverages artificial intelligence and cloud computing to automatically process 3D data at a high speed and scale. Enview performs a variety of geospatial operations, including object recognition, feature extraction, feature-based change detection, and 2D/3D measurement. Enview’s technology has been deployed on thousands of square miles worldwide to protect vital infrastructure and support mission-critical operations. Its unique method for classifying 3D data reduces time to action by focusing on finding meaningful insights.

    Enview, enview.com

    Pile installation

    Machine-guidance system ready for solar

    Photo: Carlson
    Photo: Carlson

    PDGrade — a machine guidance and positioning system that uses GNSS for pile driving applications — is now optimized for the solar industry with an increased capability in pile installation and navigation accuracy. It removes the need for surveying piles and reviewing as-built information by centralizing all relevant information and providing necessary details to operators and site supervisors.The system features both software and hardware applications to provide operators with detailed information such as pile navigation, pile location, positioning and height information, project progression tracking, and detailed accuracy. The PD machine is fitted with Carlson sensors and a ruggedized Windows-based MC10 tablet. The entire system is then calibrated within PDGrade.

    Carlson Software, carlsonsw.com

  • Golden Software releases updated 3D surface mapping package

    Image: Golden Software
    Image: Golden Software

    Golden Software has improved visualization and other functionality in the new version of its Surfer gridding, contouring and 3D surface mapping package. Surfer users now have a greater number of options for displaying their scientific data in the new version, the company said.

    Surfer enables users to model data sets, apply an array of advanced analytics tools and graphically communicate the results in ways anyone can understand, Golden Software added.

    “In the new Surfer release, we worked on making it easier for users to gain insights into their data sets by providing additional visualization tools,” said Kari Dickenson, Surfer product manager. “New display options also enable users to more easily communicate the information extracted from their data.”

    The updated Surfer

    In its latest version of Surfer, Golden Software has added the peaks and depressions layer type. This layer type automatically identifies and outlines closed high and low areas, or peaks and depressions, in a grid file. In addition, a statistics report is generated for the areas, including information such as length, width, depth, volume and orientation. The feature also allows high and low areas to be colorized, annotated and displayed on their own.

    The company also added four new capabilities to 3D Views: color scale bars can be added to explain the elevation, concentration or other data values depicted by colors; VRML file format exporting enables users to export their 3D Surfer model into another 3D software package or to a 3D printer; anti-aliasing makes axes and grid lines inside the 3D model appear smoother and more professional; and improved 3D PDF exporting has reduced the PDF file size and made the file exporting process faster.

    In addition, Golden Software added several existing capabilities to the automation function so that users can write scripts to automate certain workflows. Automated features now include base from data layer type, vector base map symbology, new scale bar options, new legend options and new grid data options. Finally, the new Surfer version allows users to identify objects in vector base maps, such as polygons, polylines or points, by automatically renaming them based on any attribute, as well as select multiple polygons and choose to calculate their statistics, areas or volumes either as a single combined polygon or as individual polygons.

    Surfer Beta

    Golden Software released a Beta version of Surfer simultaneously with the new version to give customers a chance to try out new features while they are still in development. The three features the company plans to release for the spring/summer 2021 release of Surfer include 3D base maps, contour volume/area calculation and more automated features.

    The 3D base maps feature allows .DXF, .SHP and other file formats to be imported with their 3D geometry (3D polylines, polygons and polymeshes) and displayed as three-dimensional features in the 3D View.

    A new shortcut also will enable users to calculate volumes and areas above, below or between contour lines with just a few clicks of the mouse, the company said. Finally, additional functions that have been added to automation include point sample, grid project, new classed post layer options and label options for the degrees-minutes-seconds label format.

    Golden Software, headquartered in Golden, Colorado, develops 2D and 3D scientific modeling packages.

  • Autonomous lawn mower hits the market this year

    Autonomous lawn mower hits the market this year

    Photo: Graze
    Photo: Graze

    A new start-up has introduced an autonomous lawn mower to bring intelligence, automation and sustainable solutions to commercial landscaping. The first autonomous lawn mower by Graze is set to hit the market this year.

    The electric lawn mower is designed to increase efficiency and maintenance speed for mid- to large-sized commercial lawns, enhance cutting blades to perfect trim precision, add new sensor capabilities to increase safety, and improve GPS-based mapping and computer vision while optimizing intelligent and applicable insights through advanced machine-learning capabilities.

    Analyst reports have found landscaping services in the U.S. generated $101.7 billion in revenue in 2020, while commercial landscaping services (maintenance and general services) have been projected to range between 40 and 60 percent of the overall landscaping service industry in the U.S. Yet, despite the major opportunity to capitalize on an approximate $53B market, commercial lawn mowing has remained an undisrupted industry. Small margins, labor limitations and increasing scrutiny on environmental impact has been met with a lack of impactful solutions.

    Graze’s initial prototype attracted investors from major operators as well as individuals on crowdfunding platform SeedInvest.

    “We are living in new era of artificial intelligence that stands to transform age-old industries,” said John Vlay, Graze Mowing CEO. “Robotics and automation open up a world of efficiency, and when you apply intelligence, traditional models can be completely reimagined. I’ve been in commercial landscaping for more than 35 years, and can confidently say we built a lawn mower that will bring a new level of quality and safety to the market, and we are doing it sustainably. We are excited to unveil the future of commercial lawn-mowing with our new Graze commercial mower.”

    The new model optimizes features and incorporates in-the-field feedback. It has a longer battery life. It can consistently learn and apply data via an intuitive user experience, improving lawn care and creating new optimization opportunities for fleet operators.

    Machine learning, coupled with computer vision and a robust system of sensors, allows the new Graze commercial mower to map job sites, plan and execute mowing paths, and avoid obstacles and dangerous inclines while continuously collecting and apply data to further improve aesthetic quality and efficiency.

    Powered completely by electric and solar panel technology, the new model allows operators to maximize revenue by deploying mowers during evening hours. Fuel costs are drastically cut, as are carbon emissions. Current fleet operators manage 500 to 1,000 mowers.

    Graze is backed by lead investor Wavemaker Partners, a global venture capital fund with $400 million in assets under management including Wavemaker Labs, a robotics and automation focused venture studio.

  • RedTail Lidar Systems demos mapping capability

    RedTail Lidar Systems partnered with an engineering firm to demonstrate the RTL-400 lidar system’s high-resolution, high-accuracy mapping capability.

    Cross-section of lidar point cloud (Image: RedTail Lidar Systems)
    Cross-section of lidar point cloud (Image: RedTail Lidar Systems)

    According to the company, its lidar imagery was used to generate as-built conditions of a steep ravine to aid in long-term monitoring of the slopes under which a natural gas pipeline was buried.

    A narrow road traversing the top of the ravine through which the pipeline was installed was of concern since the instability could be dangerous. Loss of vegetation along the buried pipeline’s path also makes the area especially susceptible to slides after heavy rainfall.

    Top view of lidar point cloud (Image: RedTail Lidar Systems)
    Top view of lidar point cloud (Image: RedTail Lidar Systems)

    The RTL-400’s high-resolution point cloud data of the 13-acre ravine area was captured in 10 minutes, RedTail Lidar Systems said. The as-built digital elevation model (DEM) created from the lidar point cloud can be compared to future DEMs to determine if any changes have occurred in the slope’s topology, which would serve to identify hazards and provide input for slip mitigation.

    RedTail Lidar Systems is a division of 4D Tech Solutions, a company focused on providing innovative technology-based solutions to address government and commercial customer needs.

  • 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?

  • Urban surveyors adopt MGISS mapping technology

    Urban surveyors adopt MGISS mapping technology

    Logo: MGISS

    Mobile GIS Services (MGISS) has equipped a team of urban surveyors with new satellite positioning systems to accurately map assets and features such as signage, lighting and landscape features. The technology supplied by MGISS included Leica smart antennas coupled with data management and mapping software.

    For this project, MGISS worked with Occam’s Razor Consulting Limited (ORCL), a specialist in data capture for landowners, to achieve centimeter accurate asset mapping for open spaces and park management. ORCL works for local authorities and housing associations and due to the blocking effects of tall buildings and trees, its existing equipment was not capable of achieving the required levels of accuracy, MGISS said.

    According to MGISS, ORCL had previously been using the Leica GG03 antennas with Leica rugged tablet computer computers. MGISS then recommended ORCL use the GG04 plus Leica smart antenna. ORCL is now operating its new smart antenna with a Leica controller running Zeno Field (an OEM version of ArcPad 10) software.

    According to MGISS, in addition to the ArcPad GIS functionality, Zeno Field provides GNSS raw data logging, easy handling of GNSS configurations, feature accuracy management and an automated workflow between the field and office. ORCL also uses Laser Technology TruPulse rangefinders and Leica Smartnet for its RTK service, all specified and supplied by MGISS. Working with MGISS ORCL will monitor its current workflows as the software develops to support LTI laser rangefinders and will continue to explore new applications, MGISS said.

    “We were interested in very high performance equipment capable of achieving centimeter accuracy in difficult urban canyon conditions and under dense tree canopies,” said David Brown, managing director of Occam’s Razor Consulting. “The new MGISS solution has slotted straight into our existing workflows without any issues at all and is a clear improvement on our previous system. The devices track the newer Galileo constellation, as well as the more established American and Russian satellites, reaching centimeter accuracy quickly and holding the signal well overcoming the challenges of tall buildings and trees.”

  • MGISS accredited for UK government procurement, utility sector

    MGISS accredited for UK government procurement, utility sector

    MGISS logo

    Mobile GIS Services (MGISS) has been awarded a place on the United Kingdom government’s procurement platform G-Cloud.

    Designed to ease the procurement of cloud services by the public sector, the G-Cloud 12 framework makes it easier for customers to find, review and contract MGISS’s advanced geospatial software services through an online digital marketplace. Managed by Crown Commercial Services, it is forecast that successful suppliers, such as MGISS, will receive up to £2 billion in business.

    In a parallel achievement, MGISS has also been accredited as a supplier of software, hardware and support services to the utility sector by the supplier assurance company Achilles.

    A specialist in mapping and geographic information technology, MGISS also is working alongside organizations such as United Utilities and Northumbrian Water Group and it is hoped that successful qualification under the Achilles UVDB pre-qualification system will help MGISS gain further traction within this sector.

    MGISS has also attained the Workplace Wellbeing Charter. Recognizing a commitment to improving the lives of its team members, MGISS received accreditation across a number of facets including leadership, health and safety, mental health and absence management.

    “Although recognizing completely different aspects of the business these awards are all significant milestones and accomplishments in their own right and the entire team should be proud of the hard work and commitment they have expended to achieve them,” said MGISS Managing Director and Founder Mike Darracott. “The G-Cloud and Achilles accreditation will put MGISS front and center for the leading players within the public and utility sectors and this will help us capitalise on our work to date with organizations such as Surrey County Council and Wales and West Utilities.

    “The Workplace Wellbeing Charter not only recognizes our existing commitment to the health and wellbeing of our team it also gives a benchmark to work from and a toolset to work with to continuously improve,” he continued, “and a happier and healthier workforce will, we hope, make the business even better and stronger.”

  • Case studies reveal survey tech advances

    Case studies reveal survey tech advances

    The creed “Neither snow nor rain nor heat” may apply to postal workers, but it also could apply to land surveyors.

    Today’s surveyors rely on GNSS as a critical tool to enable completion of their tasks, whether defining a property boundary or mapping mining drill sites.

    In the articles that follow, surveyors share their success stories using the latest GNSS receivers, software and correction services, all of which are constantly improving to make their tasks easier — despite the terrain or weather conditions.


    How one man triumphs

    Adam Plumley is a one-man surveying shop in North Carolina. He also wears another hat as a sales, support and product development consultant to Javad GNSS.

    “As a land surveyor, I use the equipment every day,” Plumley said. “Javad’s equipment has made it possible for me to operate solo.”

    Photo: Stephen Drake
    Photo: Stephen Drake

    In the project pictured above, Plumley surveyed a 50-acre farm parcel to separate out the six-acre improved northeast corner. “I located the creek, building and improvements on the property east of the road and ran the lines to the creek on the west side of the road.”

    The difficult locations on this 2016 survey were at the creeks. It took Plumley up to a half hour to locate the corners and creek points under the tree canopy.

    “It would have taken much longer than it did if I had traversed the boundary conventionally,” he said, “not to mention I would have been much more tired at the end of the day.”

    Instead, Plumley used a Javad GNSS Triumph LS and Triumph 2 base/rover system with corrections broadcast over the internet.

    “I set up the Triumph 2 base about one mile away in an open yard with great sky view. It took me one day to do the initial recon and locations, and another couple of hours to set the new corners the next day,” he said.

    Plumley has since upgraded his base receiver to another Triumph LS and added a J-Link 35-watt external radio to his toolbox.

    “One thing this and other challenging surveys have taught me is to be patient. To obtain accurate results that you can be confident in takes time.”

    About our cover

    Our cover photo this month was taken in June 2019 by surveyor Stephen Drake, near his home on the north coast of California. “These redwood forests and very rugged, remote coastal mountains can really test you,” he said. He was using his Javad Triumph-LS rover with the J-Field built-in surveying software, communicating to a Javad GNSS Triumph-2 base station attached to his house. A Verizon Jetpac mobile hotspot (in the black pack hanging below the Triumph-LS in the photo) picks up signals from his home router; the port-forwarded corrections are configured with Javad software.

    Stephen calls this his standard configuration, but finds it very flexible. When he is more than 20 miles from home base, he relies on a Triumph-2 and a radio modem placed near the site. He can also use the California Real Time Network (CRTN) with the Jetpac.

    He also relies on Javad’s Hybrid RTK, automated post-processing with Javad’s DPOS, automatically generated raw data and quality reports, and the many built-in indicators in J-Field that provide real-time feedback and “give me assurance on almost every measurement before I walk away from it,” he said.

    The efficiency that his equipment provides has made Stephen valuable even to firms that already have in-house surveyors, he said. “I honestly do not think I would be here without Javad. It has been a true potent business partner.”

    Read about another one of Stephen’s projects here.


    Check out more surveying case studies here.


    Feature image: AP Surveying PLLC

  • National Governors Association, Esri release updated COVID-19 map

    Photo: MyImages_Micha/iStock / Getty Images Plus/Getty Images
    Photo: MyImages_Micha/iStock / Getty Images Plus/Getty Images

    The National Governors Association has partnered with Esri to publish a comprehensive update to its interactive COVID-19 State and Territory Action Tracker.

    According to the association, the interactive mapping-based app shows how jurisdictions have taken actions to reopen certain business sectors by issuing statewide orders. It also shows how jurisdictions are undertaking regional-based approaches or implementing statewide orders with authorization for localities to place additional restrictions.

    The map also allows users to explore public health actions governors have taken during the pandemic, including statewide stay-at-home orders, limits on gatherings, state employee travel restrictions, quarantine orders for interstate travel and more.

    The map, which is updated on a daily basis, features data collected from states and territories. The data is based on an evaluation of state executive orders, directives, guidance, legal and non-legal documents, and news sources, the National Governors Association said.

  • Using location data in the fight against COVID-19

    Using location data in the fight against COVID-19

    San Francisco, captured by HERE’s 3D mapping technology. (Image: HERE)
    San Francisco, captured by HERE’s 3D mapping technology. (Image: HERE)

    In 1854, English physician John Snow mapped the London cholera epidemic to determine the exact location of a contaminated water pump on Broad Street, pioneering the use of location mapping and data to manage public health crises.

    Today, governments and public health officials are utilizing location data to help fight the COVID-19 global pandemic. Location data and maps are at the frontlines to aid emergency responders and healthcare providers, while GIS professionals, data scientists and many others rely on maps and location data to allocate supplies, manpower and assets where they are needed most.

    Data as a source of truth

    Location data has been one of the most valuable tools to guide crisis response. By referencing professionally managed, comprehensive geospatial databases, public health officials are able to precisely locate key medical and emergency resources, including hospitals, medical centers, medical and emergency services, pharmacies, and food and water distribution centers.

    For example, the HERE location platform continually validates the freshness and features of its map through thousands of data sources. This includes field-collected data, third-party data from government sources, and crowdsourced data from expert communities. Taken together, the process rapidly delivers clear, timely location information to end-users such as key medical stakeholders.

    It is critical that all levels of government — local, state and federal — have access to these types of valuable datasets during times of emergency. In response to the pandemic, we have seen incredible agility from facilities that have been converted to provide critical medical services.

    For example, the Javits Center in New York City has been used as a field hospital, a sports facility has been converted into a drive-through testing center, and schools are being used to distribute food. By tracking these updates, authorities have real-time awareness of these facilities and their availability to provide services.

    Use Case #1

    Social distancing efficacy

    At this stage of the pandemic, the Federal Emergency Management Agency has tapped into location data to track the efficacy of social distancing policies and the spread of the virus. It’s valuable to map the virus’s spread for many reasons, but a few key reasons include:

    • Predicting the movement of COVID-19. By mapping the spread, we can proactively align the medical supply chain behind these predictions.
    • Understanding the effectiveness of social distancing. Social distancing is one of the most powerful ways to stop the spread of the virus. By tracking the efficacy of these measures and regulations and ensuring that citizens are complying with shelter in place, we’re able to predict how we are able to slow or flatten the spread.
    • Predicting the economic impact. As we consider reopening America for business, it’s important to understand where the virus is most prevalent, and the timeline for recovery.

    Use Case #2

    The strained medical supply chain

    The coronavirus has caused strain across most industry supply chains, but most notably, the medical supply chain. Medical resources, including hospital beds, masks and life-saving ventilators have become scarce and unevenly distributed.

    In times of crisis, with thousands of lives at stake and the potential for further economic fallout, it’s critical that public health officials are equipped with authoritative, comprehensive datasets to guide decision-making. When organizations are equipped with this valuable data, they can harness the power of location data for good and follow in the footsteps of the location data pioneer John Snow.

  • Taking to the field during the coronavirus pandemic

    Taking to the field during the coronavirus pandemic

    City officials in Sarasota, Florida, kept their staff actively working during COVID-19 social distancing mandates by training and tasking them with mapping utility data in the field.

    The city’s plan to rebuild its GIS database had an estimated five-year timeline. GIS Coordinator William Rockwell suggested to city manager Tom Barwin that those unable to work from home be trained to collect the data. Rockwell worked with Sarasota IT Director Herminio Rodriguez to calculate the cost of acquiring enough GNSS receivers for the idle staff to use, and discovered a substantial cost savings.

    Hands-on training took place in the Sarasota City Hall parking lot, with trainees practicing social distancing. (Photo: Eos Positioning)
    Hands-on training took place in the Sarasota City Hall parking lot, with trainees practicing social distancing. (Photo: Eos Positioning)

    “By implementing this project, we not only keep city staff productive, but we’ll also be collecting data that would otherwise cost hundreds of thousands of dollars if we outsourced the work,” Rockwell said.

    Training from a Distance. Rockwell obtained affordable Arrow 100 GNSS receivers from an Eos Positioning distributor and hosted small-group training sessions in the city hall parking lot. Employees from a multitude of different departments were trained, such as a parking enforcement officer and a transportation planner.

    All employees were carefully kept six feet apart. From a maintained distance, Rockwell explained the basic concept of data collection using high-accuracy Arrow 100 receivers with ArcGIS Collector.

    The new team mapped 93% of street lights and road signs in one month. (Photo: Eos Positioning)
    The new team mapped 93% of street lights and road signs in one month. (Photo: Eos Positioning)

    The employees took turns collecting sample data so Rockwell could address any initial concerns. He also gave each of them a printed map series, created in ArcGIS Pro, that showed the city divided into 28 grids. This allowed the team members to easily mark off where they collected data each day.

    At the end of each day, the workers synced their data, collected by the Arrow 100s, to ArcGIS Online, which allowed Rockwell to monitor progress.

    To date, 14 field workers have collected 93% of the city’s 6,000 street lights and 16,000 road signs. Although the 30-day project pilot has finished, the city plans to collect the remaining lights and signs, as well as the city’s 35,000 trees, later this year. High-accuracy GIS data collection has received encouraging feedback from management.

    “I’m thrilled the city is supporting this initiative,” Rodriguez said. “To be able to take employees doing very, very different jobs and put them in the field — this wouldn’t have been possible in a normal environment. We are excited that everyone is chipping in.”

  • GeoCue releases 3D UAS systems with Applanix inside

    GeoCue releases 3D UAS systems with Applanix inside

    Photo: GeoCue
    Photo: GeoCue

    GeoCue Group has released the True View 615 and True View 620 UAS lidar 3D imaging systems. The True View systems are compact, survey-grade 3D imaging sensors designed for small unmanned aerial systems.

    True View 615 and 620 are equipped with Riegl’s miniVUX-2UAV laser scanner integrated with dual photogrammetric cameras. Position and orientation is provided by an Applanix APX-15 (True View 615) or extreme accuracy APX-20 (True View 620).

    All True View 3D imaging systems are bundled with Applanix POSPac, True View EVO post-processing software and True View Reckon data management solution.

    The Riegl laser scanner and dual photogrammetric cameras have been carefully configured to provide a fused lidar/imagery field of view of up to 120°. The system includes full post-processing software that generates a stunning ray-traced 3D colorized point cloud and geocoded images.

    An upgrade path will be available to promote a True View 615 to a True View 620 by adding the Applanix APX-20 external inertial measurement unit.

    The True View product line gives mappers and surveyors the ability to deliver high-quality analytic data with exact accuracies. These deliverables are generated using workflows and tools within GeoCue’s post-processing software, True View EVO. Examples of derived products include bare Earth models, profiles, cross sections, topographic contours, volumetric analysis and more.

    “Our Quanergy-based True View 410 has rapidly become the standard for general purpose drone 3D Imaging, where moderate vegetation penetration and accuracies of 5 cm RMSE are adequate,” said GeoCue’s President, Lewis Graham. “The True View 615/620 provides a solution for situations where deeper vegetation penetration, wire extraction and extreme accuracy are required. These are great new additions to the True View product line.”

    The True View 615/620 will be available for shipment late June.