New alliance will roll out Water real-time normalized difference moisture index surface-moisture mapping—up to 1,000× finer than conventional satellite products—supporting agriculture, infrastructure, and environmental monitoring across the U.S. Pacific Coast and Canada.

The company has entered a strategic agreement with Delmar Aerospace and its Canadian arm, Perspectum Drone Inspection Services, to deliver drone-based moisture intelligence throughout the Western United States and Canada.

Under the collaboration, Delmar and Perspectum will operate the Water payload to provide high-resolution water intelligence for agriculture, infrastructure oversight, and environmental management using the normalized difference moisture index. The index is a spectral ratio designed to estimate vegetation and surface moisture from reflected light, calculated as (near-infrared − shortwave infrared) ÷ (near-infrared + shortwave infrared). In practice, the inputs come from a sensor’s near-infrared band and a shortwave-infrared band (or the closest available equivalent on the payload) captured over the same ground area.

As a moisture-focused metric, the normalized difference moisture index differs from the normalized difference vegetation index, which emphasizes “greenness” and vigor using red and near-infrared reflectance, and from the normalized difference water index, which is commonly used to highlight open water or water-related features using green and near-infrared (or, in some workflows, near-infrared and shortwave infrared). Use the moisture index when the goal is canopy or surface moisture and water stress; use the vegetation index for general crop vigor, stand establishment, and biomass trend checks; and use the water index for identifying open water, inundation, or water boundary changes.

Interpreting moisture-index values is typically done on a relative scale from about −1 . Higher values generally indicate wetter canopies or surfaces (more moisture), mid-range values often reflect moderate moisture or mixed cover, and lower values can indicate dry vegetation, bare soil, or stressed areas—best confirmed by comparing to baseline conditions for the same field, season, and crop stage.

Higher Resolution Than Satellite: End-to-End Services

The initiative pairs the UK-developed and manufactured Water system with Delmar and Perspectum’s on-the-ground operations and North American footprint. As a specialist UAS inspection provider, Perspectum brings proven field experience across energy, infrastructure, and environmental inspection.

Delmar and Perspectum will deploy the drone-mounted system across the region, capturing live surface moisture in real time to generate actionable insights for cropland, critical assets, and sensitive habitats. Typical operations include flight planning over the area of interest, pre-flight checks and sensor calibration, and collection of aligned spectral imagery during the drone mission. The captured bands are processed into georeferenced outputs, the moisture index is computed per pixel, and the results are delivered as map layers and decision-ready visuals that teams can review immediately in the field or route into existing GIS and reporting workflows.

Real-time delivery helps shorten the gap between measurement and action, supporting timely irrigation decisions, earlier detection of developing water stress, and faster triage of emerging issues that can change within hours. Measurement accuracy can be influenced by sensor calibration and stability, atmospheric conditions (haze, variable humidity), illumination and time of day, shadows and view angle, surface cover and mixed pixels (soil, residue, canopy density), wind-driven canopy motion, and the consistency of processing settings used to generate comparable maps across flights.

For drought and water stress detection, teams typically look for consistent downward shifts in moisture-index values compared with a known baseline for the same crop stage or with nearby “healthy” reference zones. For example, a block that trends lower than surrounding areas after a heat event can indicate emerging stress and guide targeted scouting, irrigation adjustments, or leak checks before visible symptoms spread.

Common beneficiaries include water-sensitive and high-value crops where within-field variability matters—such as grapes, berries, leafy vegetables, potatoes, orchard crops (including almonds and apples), corn, and wheat—especially when paired with variable-rate irrigation and rapid follow-up scouting.

Together, the teams will deliver a full workflow—from airborne data capture to analysis and decision-ready reporting—covering a range of operational and environmental use cases.

<table><thead><tr><th>Application Area</th><th>Description</th></tr></thead><tbody></tbody><tbody></tbody><tbody></tbody><tbody><tr><td>Precision irrigation</td><td>Use moisture patterns to fine-tune water application by zone and timing.</td></tr><tr><td>Detecting pipeline leaks</td><td>Spot localized wet signatures that may indicate seepage along linear assets.</td></tr><tr><td>Wetland mapping and delineation</td><td>Differentiate wet and dry boundaries to support monitoring and compliance needs.</td></tr><tr><td>Infrastructure inspection</td><td>Identify moisture-related risk areas around built assets for targeted follow-up.</td></tr></tbody></table>

For organizations that need automated access, no public API for moisture-index outputs is described in the announcement; access is typically handled through delivered map products and reporting, with data integration options available by request through the service team.

Articles

Quantum Solutions And Delmar Aerospace: Real-time Water Mapping With Water

Around offices, fabrication shops, and active sites, Tekla is reshaping how teams design, make, and assemble structures by pairing automation with fluid collaboration inside a unified construction workflow. In practice, the Tekla software suite is used for structural modeling and detailing, structural engineering and analysis, and fabrication management so teams can coordinate design intent with buildable deliverables.

Data-Driven Software for Constructible Building Information Modeling

Trimble has rolled out the 2026 release of its Tekla software for constructible building information modeling, structural analysis, and steel fabrication management, delivering connected, data-first workflows that bridge design and build. The update accelerates the path from concept to detailing by trimming manual steps and rework, so teams can take on more complex tasks without the friction or data loss that comes from jumping between disconnected applications.

Tekla products are commercial, licensed tools rather than free downloads, and access is typically offered through paid subscriptions or other term-based licensing. Trial or evaluation options may be available through Trimble or local partners, with availability and scope depending on the product and region.

Annual cost is generally set per seat and per product, and it can vary based on modules, required capabilities, and support needs. Instead of a single flat price, many organizations budget for an annual subscription and request a quote that matches their workflows and team size.

For interoperability, Tekla workflows commonly support model and drawing exchange with other design, analysis, and project platforms using standard file formats and configurable integrations, and many teams also rely on an API for automations and data handoffs. Compatibility in day-to-day work usually comes down to which formats your partners require and how you plan to manage versions across disciplines.

Compared with AutoCAD, Tekla is typically chosen when the goal is constructible, model-based coordination and fabrication-ready outputs, while AutoCAD is often favored for general-purpose drafting and broader 2D documentation needs. If your work is centered on detailed structural buildability and downstream fabrication, Tekla can be a better fit; if you mainly need flexible drafting across many drawing types, AutoCAD may be more straightforward.

Unified Portfolio for Construction Coordination

The 2026 lineup drives consistency across projects through a continuous flow of information that removes opaque handoffs between stakeholders. Teams can see live status inside the 3D model, keep project data synchronized with connected workflows, and associate drawings, models, and field inputs across the shop, jobsite, and office, creating an authoritative data set that refreshes instantly.

Common users include structural engineers, detailers, steel and rebar contractors, fabrication shops, precast producers, and general contractors who need dependable coordination between model, drawings, and production outputs.

Projects often include steel-framed commercial buildings, industrial facilities, warehouses, bridges, stadiums, towers, and precast or mixed-material structures where accuracy, sequencing, and change control matter.

On active jobs, the practical upside is clearer coordination and fewer avoidable clashes between stakeholders, along with faster iteration when revisions occur. Teams also tend to benefit from more consistent deliverables across disciplines, tighter alignment between design and fabrication intent, and improved visibility into what is approved, in progress, and ready for the field.

Keeping the structural model aligned with fabrication and site feedback reduces the time spent reconciling conflicting versions and helps teams make decisions with more confidence.

Assistants and Natural-Language Modeling Boost Productivity

Trimble Assistant is now embedded across the Tekla products, guiding new and experienced users to discover features, resolve issues, and stay productive without leaving the interface. In addition, the artificial intelligence-powered Model and Drawing Assistant—an early preview from Trimble Labs—enables context-aware modeling and drawing actions using plain-language prompts, so engineers and detailers can execute tasks faster with simple instructions.

Tekla Structures: Connected Workflows For 2026 Design And Fabrication

Flagship announcements and fresh product debuts sustained heavy attendee traffic and active business across the exhibit halls, with Oi26 at ExCeL London in London outperforming expectations on day two and fueling on‑site demonstrations and partnership discussions as the 2026 edition runs March 10–12, 2026.

Across the show floor and conference program, Oi26 topics span subsea sensing and imaging, marine robotics and autonomous vehicles, ocean data platforms and analytics workflows, offshore and coastal monitoring, and practical hardware aimed at safer, more efficient marine operations. Planned activity formats include product demonstrations, technical talks and panels, workshops, and networking sessions that bring together technology developers, researchers, operators, integrators, and procurement teams.

Innovation in ocean technology moves fastest when engineers, scientists, and operators share real-world data, test results, and operational feedback across the full lifecycle of a system.

Registration is handled through the event’s official registration portal, with attendee and exhibitor inquiries directed to the Oceanology International organizing team via its official contact channels and event support desk.

For those tracking the wider calendar, the Ocean Science Meeting 2026 is being held in Glasgow at the Scottish Event Campus.

Within the broader oceanology landscape, major challenges continue to center on climate-driven change and extreme events, pollution and marine debris, biodiversity loss and overfishing pressures, constraints in underwater communications and power that limit persistent monitoring, funding gaps for long-term observing programs, and the practical hurdles of standardizing, sharing, and governing large, multi-source data sets. Career opportunities across the sector span academic and applied research, marine and subsea engineering, instrumentation and robotics development, hydrography and survey operations, environmental consulting and offshore energy support, data science and software for ocean systems, education and outreach, and policy and regulatory work tied to ocean governance.

Platform Launches and Strategic Moves in Ocean Technology

Taking a prominent spot, OceanSight leveraged the show to present a newly expanded family of brands designed to push marine sensing and subsea intelligence forward—marking a new phase focused on faster innovation, strategic scale, and delivering insight to the ocean tech community and the blue economy. Alongside these platform updates, exhibitors across Oi26 highlighted complementary capabilities such as autonomous surface and underwater vehicles, marine robotics for inspection and intervention, and software layers that turn multi-sensor outputs into operational decision support.

<table><thead><tr><th>Company/Brand</th><th>Technology/Product</th><th>Application/Benefit</th></tr></thead><tbody></tbody><tbody></tbody><tbody><tr><td>OceanSight</td><td>Expanded multi-brand platform</td><td>Accelerates development and delivery of subsea sensing and intelligence for ocean and coastal operations.</td></tr><tr><td>OceanSight (formed by Xpv Water Partners)</td><td>Subsurface visibility and understanding technologies</td><td>Improves below-surface awareness for researchers and operators working in marine science.</td></tr><tr><td>OceanSight</td><td>Acquisition of Sound Metrics high-resolution imaging sonars</td><td>Supports subsea inspection, monitoring, and security, including shallow-water and coastal deployments.</td></tr></tbody></table>

Sound Metrics adds differentiated capability and a proven record of imaging innovation. Combined with Ocean Floor Geophysics and Neptune Sonar, it equips OceanSight to deliver a more complete portfolio of subsea sensing and imaging solutions that help customers operate and understand complex underwater environments.

High-Performance Ropes for Demanding Marine Operations

Hampidjan Advant, known for premium high-modulus polyethylene and aramid constructions, debuted TechIce at Oi26, drawing interest from operators and equipment manufacturers focused on stronger, safer, and more durable handling solutions in harsh marine conditions.

<table><thead><tr><th>Product</th><th>Material/Technology</th><th>Key Features</th><th>Use Case</th></tr></thead><tbody><tr><td>TechIce</td><td>High-heat-tolerant synthetic winch-rope design</td><td>Maintains strength at very high working temperatures and resists permanent elongation.</td><td>Winching and heavy-duty marine handling where heat and load can compromise conventional fiber lines and steel wire.</td></tr></tbody></table>

TechIce is the first fiber rope engineered to meet the harshest requirements while delivering steel‑like strength, representing a major step forward in safety, and we welcomed the opportunity to discuss it with winch manufacturers attending this year’s show.

Oceanology International 2026: Day Two Momentum at Excel London

Charting critical infrastructure assets like pipeline corridors is demanding, where precision, repeatability, and speed are vital to sound decisions.

Mapping critical facilities supports risk assessment, emergency planning, resource allocation, and resilience improvement by making it easier to see what is exposed, what is interdependent, and what should be prioritized before an incident occurs.

Open-source datasets commonly used to explore critical infrastructure include OpenStreetMap (community-maintained roads, buildings, and points of interest that help establish context and connectivity), Homeland Infrastructure Foundation-Level Data (HIFLD) (U.S. infrastructure-focused geospatial layers spanning multiple sectors), and the Global Power Plant Database (a global inventory of power plants with attributes such as location and capacity).

HIFLD typically includes sector-based layers such as energy, healthcare, emergency services, transportation, and government facilities. It can be used to build baseline maps of facility locations, screen corridors against nearby sensitive sites, perform proximity and buffer analyses for planning, and support hazard exposure checks when prioritizing inspections or response staging.

Critical infrastructure sector definitions can vary by country. In the United States, the sector approach commonly includes areas such as Energy, Water and Wastewater Systems, Transportation Systems, Communications, Information Technology, and Healthcare and Public Health. In the United Kingdom, critical national infrastructure is often organized into groupings such as energy, communications, transport, water, finance, health, food, and government; both emphasize energy, water, and transport, while the grouping and separation of digital and communications functions may differ.

Mapping Linear Corridors: Proven Field-to-Desk Approaches

Hear from Veronica Fortin, who leads the Geospatial team for Flyscan Systems, as she shares pragmatic ways to deliver dependable results along elongated assets. She will demonstrate approaches that help keep execution efficient within a lean project framework from planning through delivery. Register to attend.

Critical incident mapping combines near-real-time reports, sensor feeds, and authoritative basemaps to build a shared operational picture. When integrated into response workflows, it can improve situational awareness by clarifying what has happened, where it is spreading, what assets and communities are affected, and which routes and resources are most viable for dispatch.

For water risk assessment, mapping typically brings together water infrastructure (intakes, treatment plants, reservoirs, pumps, and distribution networks) with risk zones (floodplains, burn scars, erosion-prone areas, and upstream land-use patterns). Analytics can then support flood risk screening, supply reliability checks (such as single-point-of-failure and outage impact analysis), and contamination investigations by highlighting upstream sources, likely flow paths, and populations at risk.

For IT infrastructure mapping, a practical process is to inventory components (sites, racks, servers, network devices, endpoints, and cloud services), normalize and tag assets by role and owner, and then document dependencies using configuration data, network discovery, traffic observations, and application tracing where available. To keep the map usable, organizations typically treat it as a living system with defined update cycles, controlled access, and security-aware handling of sensitive topology and identity details.

Businesses can identify their most critical assets by combining risk assessment with business impact analysis to pinpoint what systems and locations are essential to safety, continuity, and revenue. Protection strategies commonly include redundancy for high-impact components, physical safeguards for facilities and access points, and cyber controls aligned to the sensitivity and exposure of each asset.

Common strategies for protecting network edge devices include network segmentation, regular patching and firmware management, strong access controls (including least privilege and multifactor authentication where feasible), and continuous monitoring to detect anomalous behavior at the perimeter.

Infrastructure Project Takeaways: Skills You Will Gain

Design acquisition plans tailored to corridor environments that maximize coverage and efficiency.

Apply field-tested methods to map linear networks and other critical infrastructure assets.

Validate elevation accuracy by cross-referencing results with open lidar data sets.

Maintain consistent quality that supports planning and analytic workflows, as well as preparedness.

Mapping Critical Infrastructure: Validating Elevation And Streamlining Corridor Projects

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Golden Software introduced an updated Surfer edition that strengthens subsurface viewing and streamlines everyday workflows for mapping and 3D visualization. Surfer is a paid commercial product, with licensing and pricing that vary by edition and organization needs, and a time-limited trial version is typically available (trial length can vary).

Every user gains faster, cleaner map creation, with pronounced advantages for projects centered on wells, drillholes, and other subsurface datasets.

“With this Surfer release, our priority is helping teams convey 3D subsurface information with greater clarity and speed,” said Surfer Product Manager Kari Dickenson. “Geophysicists, geologists, hydrologists, and environmental specialists can derive better results more quickly from well and borehole data.”

Surfer continues to be a powerhouse for mapping and 3D subsurface visualization, relied upon by 100,000 professionals worldwide. It is commonly used by consultants, in-house exploration and engineering teams, and technical groups at utilities and public agencies for workflows such as cleaning and gridding field measurements, building surfaces, generating contours, and producing presentation-ready figures for reports and stakeholder review.

Recognized for ultra-fast contouring and gridding that often outpaces costlier tools, the software supports robust modeling, advanced analytics, and clear visual communication that stakeholders without technical backgrounds can understand. Key capabilities include rapid gridding and interpolation; flexible map layout and annotation; drillhole and borehole visualization; 3D views for interpretation; and export-ready outputs for technical reporting.

Surfer runs on Windows systems. It supports coordinate systems, map projections, and image georeferencing, and it can be automated through scripting, batch processing, and an API to repeat common map-making steps across many datasets. While Surfer is not positioned as a full geographic information system, it is often used alongside geographic information system tools by exchanging common mapping datasets and coordinating projections and coordinates.

Related technologies and common alternatives depend on the workflow, but teams often compare Surfer to tools such as ArcGIS Pro, MapInfo Pro, Global Mapper, Leapfrog Geo, RockWorks, Oasis montaj, and Petrel.

A practical mapping and visualization tool earns its place when it consistently turns raw measurements into interpretable surfaces and maps without adding friction to the workflow.

What’s New in Surfer: Latest Release Capabilities

Surfer supports 3D surface mapping for subsurface interpretation, and the latest version expands the ways teams can build, review, and share those surfaces.

The latest version introduces the following enhancements:

<table><thead><tr><th>Feature</th><th>Description</th></tr></thead><tbody></tbody><tbody></tbody><tbody></tbody><tbody></tbody><tbody></tbody><tbody><tr><td>Automated Surface Generation</td><td>Building on 3D drillhole contact points, Surfer now connects contacts to construct 3D surfaces representing lithologic formations, mineralized zones, and similar features. Each surface can be designated as depositional or erosional to capture cross-cutting relationships.</td></tr><tr><td>AutoCAD Drawing Import for Models</td><td>Previously limited to AutoCAD exchange files, Surfer now imports AutoCAD drawing files with full layer information. Each layer can load into its own base layer, letting you selectively bring in content and keep maps and geographic information system workflows organized. In addition to AutoCAD model exchange, Surfer also supports common mapping data exchange through formats such as Esri Shapefile vectors, delimited text tables, and georeferenced imagery.</td></tr><tr><td>Legends for Contours and Drillholes</td><td>Add contour and drillhole layers to project legends to make maps easier to interpret. Contour colors can populate the legend automatically in the title block, and you retain full control over drillhole entries even when no symbology is applied.</td></tr><tr><td>Recordable 3D Views</td><td>Share interactive perspectives with colleagues who do not have Surfer by recording rotations and fly-throughs of 3D scenes. Save the visualization as a video file and send it for review.</td></tr><tr><td>Labels for 3D Points</td><td>In 3D View scatter plots, label individual points with values from the source data file. Beyond category styling by color or size, you can now annotate exact values to highlight subtle differences between points.</td></tr><tr><td>Path-Aligned Images in 3D View</td><td>Import images such as geophysical profiles and align them directly to a polyline or polygon path—no corner coordinates required. The image follows the path precisely, even when it is not straight, dramatically reducing manual placement time.</td></tr></tbody></table>

Surfer by Golden Software: New Mapping And 3D Visualization Release

The platform introduces a standard-precision Gnss solution operating on L1 and L5, boosting position accuracy while cutting power to about 7 mW in typical setups when its Leap low-energy accurate positioning mode is enabled for trackers and wearables. Supported frequency bands include L1 and L5. Leap (Low-Energy Accurate Positioning) is a low-power operating mode that reduces energy use by intelligently managing receiver activity and solution quality so devices can stay accurate while spending less time and power in full tracking.

According to the company, F11 advances meter-class Gnss, pairing ultra-low power with adaptive signal management to serve trackers, wearables, telematics, and mobility uses — from micromobility to drones. It helps manufacturers deliver longer battery life, quicker and more dependable fixes, and greater design flexibility.

F11 debuts a context-aware Gnss design with built-in geofencing and indoor detection that actively balances precision and energy use. It engages dual-band reception (L1 and L5) only when doing so preserves solution quality, reducing consumption while keeping the fix resilient and trustworthy.

Versus earlier designs, it cuts power during signal acquisition by up to 40% and in tracking by as much as 30%, while boosting position accuracy by up to 30% in hard settings such as dense city environments. For long-life trackers — covering assets, livestock, pets, and people — an optimized first fix shortens on-time, enabling multi-year battery life.

Gnss multipath mitigation is the process of reducing positioning errors caused when satellite signals bounce off buildings, terrain, or other surfaces and arrive at the receiver along multiple paths. In the F11 platform, multipath is mitigated through adaptive signal management that monitors measurement quality and down-weights or rejects degraded observations, with L5 helping improve robustness in reflective, interference-prone environments where clean signal tracking is harder.

Scalable Solutions for Industrial and Consumer Applications

u-blox F11 meets rising demand for robust, power-efficient Gnss that integrate easily across industries. The same footprint supports either single-band or dual-band modes, helping product teams streamline designs and scale families across multiple market segments.

Product options are offered as platform variants that let designers choose a single-band or dual-band configuration while keeping a compatible design footprint, and evaluation can be done with kits such as Evk-F10 to bring-up hardware, validate RF performance, and exercise key positioning modes. Design and test resources also include u-center for configuration, monitoring, logging, and playback of receiver data, along with supporting integration documentation, interface specifications, and reference materials that help teams tune performance and power for their target device.

<table><thead><tr><th>Application Area</th><th>Example Use Case</th></tr></thead><tbody></tbody><tbody></tbody><tbody></tbody><tbody></tbody><tbody></tbody><tbody></tbody><tbody></tbody><tbody><tr><td>Tracking</td><td>Fleets and assets</td></tr><tr><td>Wearables</td><td>Consumers and fitness</td></tr><tr><td>Telematics</td><td>Aftermarket solutions</td></tr><tr><td>Agriculture</td><td>Livestock monitoring</td></tr><tr><td>Personal tracking</td><td>People and pets</td></tr><tr><td>Industrial sensing</td><td>Connected devices</td></tr><tr><td>Mobility</td><td>Micromobility and shared mobility services</td></tr><tr><td>Imaging and robotics</td><td>Consumer drones and action cams</td></tr></tbody></table>

For battery-powered products, the key advantage is not just peak accuracy, but consistent, reliable fixes delivered with disciplined power use across real-world signal conditions.

By emphasizing real-world performance over spec-sheet numbers, F11 shortens development cycles, improves user experience, and reduces total system cost for OEMs, with form-factor compatibility and firmware upgradeability helping future-proof designs. Firmware upgrades are supported and can be performed via standard host connections using u-blox tools (for example, through a serial interface in development), while product makers can also package updates for their own over-the-air delivery workflows when the end device supports it. The platform’s Spg 7.0x firmware introduces enhancements such as refined power-management behavior during acquisition and tracking, improved fix stability and reliability in challenging environments, updated signal-quality and interference handling, and general stability improvements and bug fixes.

The platform is on display at Embedded World 2026, with initial products expected by the end of June 2026.

U-blox F11 Platform: Ultra-low Power Meter-level Gnss

Pairing Trimble Roadworks with GSSI delivers pass-by-pass compaction data that helps crews monitor asphalt density as work happens and standardize results across a paving train. Trimble Roadworks is a machine-control platform used on road construction equipment to guide operators during paving and milling, keeping work aligned to the design and providing in-cab feedback that supports consistent production.

Trimble Roadworks Platform Adds Pass-By-Pass Metrics

Trimble said its Trimble Roadworks paving control platform for asphalt compactors now works with GSSI’s PaveScan RS, delivering per-pass compaction metrics. In a typical setup, the PaveScan RS radar and DPS sensors capture dielectric measurements as the roller moves, and Trimble Roadworks presents those readings in the cab as the operator completes each pass. This tight, pass-by-pass loop helps crews spot low-density areas early, adjust rolling patterns immediately, and document compaction progress without waiting for end-of-shift checks. In tandem, Trimble and the SITECH dealer network will serve as a global aftermarket reseller of DPS sensors for density profiling, broadening availability across the sector.

Marrying high-speed ground-penetrating radar with Trimble Roadworks lets paving crews map the dielectric profile—an indicator of air voids—throughout asphalt compaction instead of relying on cores taken after completion. For contractors running mixed fleets, radar-derived subsurface intelligence can also be used alongside the positioning and machine-control workflows found across the industry, including Topcon environments, helping teams keep density insights consistent from pass to pass.

Trimble Roadworks Paving Control typically combines in-cab hardware and connected sensors with on-screen guidance tools. Common components include an operator display, GNSS antennas and receivers, and machine-mounted sensors; the operator interface provides map-based guidance, configurable targets, and clear visual prompts so crews can follow the design, verify coverage, and respond quickly to out-of-tolerance areas as they work.

On connected projects, Trimble WorksManager can be used to move data between office and field systems supporting road construction. A common workflow is to build and review designs in Trimble Business Center (TBC), publish job files through Trimble WorksManager, and then synchronize them to Trimble Siteworks for site layout and to Trimble Earthworks for machine guidance; field updates and as-built data can be sent back through WorksManager for review and reporting in TBC. Exchanged content commonly includes design surfaces and models, alignments and linework, control points, and job files, along with field-captured data such as as-built points, production records, and status updates in supported CAD and machine-control file formats.

Trimble WorksManager can also support coordinated handoffs between Trimble Roadworks and other Trimble solutions by keeping current design data and job revisions aligned across equipment and teams. This reduces manual file handling, helps standardize what each operator is working to, and supports faster issue resolution when design changes or field conditions require updates.

Related Trimble solutions used alongside Trimble Roadworks in road construction include Trimble Roadworks Milling Control for milling guidance, Trimble Earthworks for grade control on earthmoving equipment that supports roadway preparation, Trimble Siteworks for layout and verification, and Trimble Business Center for design preparation and post-processing.

Machine-control technology in road construction can improve accuracy to design, reduce rework, increase production consistency, and strengthen quality documentation by turning key checks into in-process operator feedback rather than end-of-shift corrections.

For more information about Trimble Roadworks or to purchase a system, contact a local SITECH dealer or authorized Trimble dealer network representative for availability, configuration options, and demonstrations.

GSSI PaveScan RS Enables Live Density Mapping

Allowing compactor operators to watch density as they work streamlines rolling. They can validate target density before moving on, rather than finishing the job and drilling cores to check it. — Kevin Garcia, General Manager, Civil Specialty Solutions, Trimble

When compaction results are visible in real time, quality control becomes an on-the-spot decision instead of a delayed discovery.

Project-wide, real-time visibility removes guesswork from roller patterns and cuts the risk of rework or fines for missing compaction specifications. The result is longer-lasting, lower-maintenance asphalt paving and simpler closeout because verification can rely less on coring after compaction is complete.

Trimble Roadworks: Real-time Asphalt Compaction Quality

Queclink Wireless Solutions introduced Queclink Connect, a managed connectivity service that embeds secure, factory-installed worldwide IoT access across its telematics and smart device portfolio. It is designed to unify device hardware with connectivity setup, provisioning, and ongoing control so deployments can scale internationally with fewer carrier negotiations, less SIM logistics, and more predictable operations over the life of the device.

Powered by Global Security Tech Company: Giesecke+Devrient

Driven by Giesecke+Devrient’s IoTgo Connect, the solution uses the company’s protected connectivity management stack, rugged SIM and eSIM technologies, and multi‑IMSI reach across Tier‑1 carriers. Multi‑IMSI switching helps preserve service when roaming or facing local coverage gaps. The collaboration strengthens Queclink’s capacity to deliver dependable, scalable links for long‑running IoT solutions serving business and enterprise needs.

For connecting IoT devices in the field, Queclink deployments commonly rely on cellular connectivity for broad coverage, with options that can extend into low-power wide-area profiles (such as LTE‑M and NB‑IoT) where appropriate, and satellite tracking for assets that operate beyond dependable terrestrial networks. Data from devices is typically delivered to platforms through standard telematics transport methods (for example, TCP/UDP) and application-layer messaging patterns (such as MQTT or HTTP), depending on the solution architecture and customer requirements.

Lifecycle Management for Long-Term IoT Projects

Through IoTgo Connect, G+D supplies the secure backbone with centralized lifecycle control—spanning profile provisioning, in‑life operation, and ongoing oversight—for every stage of a device’s service. By unifying hardware and connectivity, the offering becomes a single, globally extensible foundation tailored to multi‑year IoT projects.

In fleet telematics, this kind of always-on connectivity supports day-to-day optimization by enabling near-real-time visibility, geofencing, route adherence monitoring, preventative maintenance workflows, and exception-based alerts that can improve utilization while helping manage fuel, downtime, and operating costs. For safety programs, connected devices can support incident reconstruction and coaching workflows through event-driven reporting, driver behavior signals, and policy-based notifications.

Queclink also supports video telematics use cases where connected camera systems and telematics data are combined to provide context around harsh driving, collisions, cargo incidents, and disputed events. For customers that standardize on Wialon, using compatible Queclink devices can streamline onboarding and operations through established device support, faster integration to fleet dashboards, and consistent reporting and alerting workflows across mixed fleets.

For temperature-sensitive logistics, Queclink’s cold chain solution centers on continuous monitoring of conditions such as temperature (and commonly humidity and door events), with configurable thresholds, alerting, and historical logs that help protect product quality during storage and transport across multiple legs of the supply chain.

Factory Integration for Cross-Border Deployments

As fleets, assets, and industrial IoT systems operate across countries and diverse cellular networks, connectivity governance is now mission‑critical. By baking worldwide access into devices at the manufacturing stage, the platform enables customers to launch in new markets with fewer logistics steps and lower operational friction.

Asset tracking scenarios enabled by this approach include monitoring the location, movement, and utilization of high-value mobile equipment, recovering stolen assets, and keeping tabs on non-powered assets that move across borders. Commonly tracked asset types and industries include logistics and transportation (trailers, containers, pallets), construction (equipment and attachments), rental and leasing (portable generators, light towers), and industrial operations (tools and site assets) where devices may frequently change regions, carriers, or operating conditions.

Satellite asset tracking is typically favored when assets operate in remote or offshore environments, traverse sparsely covered areas, or must maintain visibility during extended gaps in terrestrial service. In those situations, satellite connectivity helps address limitations of cellular coverage—such as dead zones, inconsistent roaming availability, and coverage variability in rugged terrain—so critical position and status updates can still be delivered.

For construction equipment in particular, suitable Queclink GPS tracking device choices often include rugged hardwired telematics units for powered machinery (supporting stable power, ignition awareness, and higher reporting rates) and battery-powered asset trackers for non-powered attachments or equipment that sits idle for long periods. Key construction-relevant capabilities commonly include durable enclosures, tamper detection, geofence and curfew alerts, motion and vibration sensing for utilization, and flexible installation options for harsh job-site conditions.

Industrial SIM Options and Multi-Network Coverage

Operational and device-readiness elements include:

Supports embedded SIMs (MFF2/MFF4) with UICC or eUICC.

Regional and worldwide multi-network access.

Activation and validation prior to delivery.

Industrial-grade SIM/eSIM for harsh environments.

Queclink Connect: Secure Global Iot Built-in

Launch Overview: A No-License Inertial Measurement Unit for Critical Navigation

Honeywell introduced the i700 within its HGuide line—an inertial measurement unit engineered to deliver precise performance for autonomous systems across uncrewed air, ground, and marine platforms. By pairing capability approaching navigation grade with a license-free classification, the device gives integrators a strong new choice for essential sensing and navigation.

Architecture and Satellite-Denied Navigation Performance

Drawing on the proven sensor suite and electronics lineage of Honeywell’s HG3900 inertial measurement unit, the compact, low-power i700 achieves near-navigation-grade precision and dependability. It is tuned to support longer-range navigation when satellite navigation signals are denied or intermittent.

Executive Perspective: Reliability and Simplicity

As teams pursue autonomous, robotic, and precision-guided capabilities, they expect inertial solutions that combine accuracy, reliability, and program fit, noted Matt Picchetti, vice president and general manager for Navigation and Sensors at Honeywell Aerospace. The unit delivers robust operation without satellite navigation within defined acceleration and rate limits, and its license-free package reduces development complexity while preserving confidence in the system.

As the newest member of Honeywell’s HGuide family of license-free inertial solutions, the i700 helps teams compress development timelines, simplify system architectures, and move to field deployment more quickly than earlier approaches.

Its rugged build, compact footprint, and low power draw make the unit suitable for a wide range of commercial, industrial, and defense use, including:

Uncrewed aircraft, ground vehicles, and marine platforms.

On-the-move mapping and geospatial survey systems.

Long-endurance ground or surface platforms without onboard crew.

Robotic platforms and factory automation.

Stabilized payloads, gimbals, and precision pointing platforms.

Medit i700 and i900 are intraoral dental scanners, and the shared “i700” naming can cause confusion with inertial hardware. In Medit’s lineup, i700 is positioned as a lightweight, high-throughput chairside scanner, while i900 is typically positioned as a more premium option with refinements aimed at workflow comfort and expanded clinical use. In practical terms, the differences most often come down to performance consistency on challenging scans, ergonomic design and handling, and intended use across single-unit restorations versus broader, more demanding indication sets that benefit from additional workflow features.

For Medit i700 (wireless), the core value is cable-free handling during scanning while maintaining a digital workflow that remains connected to a nearby computer for processing and case management. Commonly emphasized features include cordless operation via a battery-powered setup, pairing to a dedicated wireless link, and software-guided workflows for restorative, orthodontic, and implant-related scans. The benefits are typically improved mobility around the chair, fewer cable-management interruptions, and smoother operatory movement during multi-arch capture.

Installing Medit i700 (wireless) is typically a software-and-pairing process. Start by preparing the computer that will run the Medit scanning software, then install and sign in to the required Medit application, and complete any device-driver prompts. Next, connect and power the wireless base or receiver used for the scanner link, allow the system to recognize the hardware, and pair the scanner according to the on-screen prompts. After pairing, confirm that firmware updates (if prompted) complete successfully, then run a short test scan to verify stable connection and proper image capture.

Turning off a Medit i700 generally follows the device’s power control behavior for handheld scanners. End the scanning session in the software, place the scanner in its cradle or safe rest position, then press and hold the power button until the device indicates shutdown. If the system uses swappable or dock-charged batteries, also confirm the device is seated correctly for charging or storage so it does not wake unintentionally.

Using the auto calibration tool on Medit i700 is typically handled inside the Medit software environment rather than through a manual adjustment on the scanner itself. Open the Medit application, navigate to the scanner or device settings area, select the calibration option, and choose the auto calibration workflow. Follow the guided prompts to keep the scanner steady and at the required distance from the calibration target (or the recommended reference surface, if provided), and do not move the target until the software confirms completion and saves the result.

For Medit i700 wireless connectivity, common misconceptions include assuming “wireless” means the scanner does not need a nearby computer, or that range and stability are unlimited across walls and crowded radio environments. Another frequent misunderstanding is that wireless scanning always introduces noticeable lag, when in practice perceived responsiveness is more often driven by computer performance, software settings, and environmental interference than by the presence or absence of a cable alone. Common support questions also focus on pairing reliability, connection dropouts in busy clinical environments, and how to confirm that firmware and software versions are aligned after updates.

In dentistry, Medit i700 is commonly used for digital impressions supporting crowns, inlays and onlays, bridges, and removable workflows where clinically acceptable digital models are required. It is also used for orthodontic records and aligner-related scanning, and for implant-related captures when the workflow calls for accurate soft-tissue representation and repeatable scanning technique. Actual suitability depends on clinical protocol, scan strategy, and the laboratory or milling workflow used downstream.

Accuracy and scanning speed for Medit i700 (wireless) are typically described as suitable for routine chairside restorative and orthodontic scanning, with capture speed depending on scanning strategy, surface conditions, and the computing environment running the software. In daily use, throughput is most influenced by operator technique, the need for rescans in reflective or wet areas, and case complexity such as full-arch scans or edentulous segments.

Pros commonly associated with a Medit i700 wireless scanner include reduced cable drag, improved mobility around the patient, and streamlined operatory handling when switching positions. Cons commonly reported in wireless workflows include the need to manage charging and battery readiness, the potential for interference or range-related instability in certain environments, and the reality that scan performance still depends heavily on the connected computer and software configuration.

Cost for Medit i700 (wireless) is often quote-based and can vary by region, reseller bundle, included accessories, and service terms, so buyers typically evaluate total package price rather than a single fixed number. Subscription fees, when they apply, are usually tied to specific software modules, services, or optional workflow features rather than the basic ability to capture scans, and the exact requirements depend on the configuration selected at purchase.

For more than three decades, Honeywell has led advances in inertial measurement unit technology and helped pioneer microelectromechanical systems-based navigation. For additional information about the i700 and related navigation solutions, contact Honeywell Aerospace.

Honeywell Hguide I700 Inertial Measurement Unit: High-accuracy Guidance For Autonomous Platforms

Compact IoT Module With Satellite, Cellular, and Positioning

Iridium Communications introduced the Iridium 9604, a compact IoT module that unifies Iridium short burst data over satellite, lte-m connectivity, and satellite positioning in a single platform. Technical details highlighted for developers include low-power operating modes, an industrial operating temperature range, regional cellular band support that depends on the specific module variant, message-based satellite data suited to small payloads, and an approvals path that typically includes carrier acceptance and regional regulatory certifications.

By merging these capabilities, the device reduces integration complexity, lowers costs, and speeds time to market, making dual-mode deployments practical for high-volume, cost-sensitive programs.

Integrating satellite, cellular, and positioning in one module can reduce antenna, power, and certification trade-offs that otherwise slow global IoT deployments.

An oversubscribed beta program earlier this year drew a select group of partners, whose input underscored the following benefits:

Reduced spend, streamlined design, and support for location-aware network selection.

More than 60% board-space savings enabled by the brand’s smallest three-in-one form factor.

Developer-friendly tools and documentation that simplify build and test cycles.

“As an early developer, we saw our unit economics shift immediately,” said Alastair MacLeod, chief executive officer, Ground Control. “We removed two parts from the bill of materials, shrank the circuit board, and simplified the power architecture.”

“Dual-mode options also let our application make smarter, location-aware network choices,” MacLeod added. “What was a complex, multi-component design is now a single-module build—an important breakthrough for our IoT portfolio.”

“Our customers depend on essential data and real-time insight anywhere on the planet,” said Dean Welten, chief executive officer, Everlink. “Coupling this module with our secure cloud platform unlocks truly global connectivity, higher operational efficiency, and measurable impact at scale.”

Evolving IoT Strategy: Three Paths to Connect

Marking the next step in the company’s IoT roadmap, the module advances Iridium beyond satellite-only hardware toward a unified, multi-mode architecture, complementing existing Iridium satellite modules while adding a clearer on-ramp to standards-based direct-to-device options and higher-throughput services elsewhere in the portfolio. The network now provides three service routes:

Iridium short burst data packaged with cellular and positioning through this module or via dedicated Iridium short burst data and Iridium Burst modules.

Ntn Direct for standards-based, direct-to-device connectivity using third-party chips.

Imt for larger, industrial payloads with Iridium Certus 9704.

Built on the u-blox Sara-R5 platform, the hardware is designed for dual-mode IoT applications across industrial, infrastructure, and mobility segments that were previously cost-prohibitive, including remote asset tracking, infrastructure monitoring, mobile equipment telemetry, and backup connectivity for intermittent-coverage deployments.

<table><thead><tr><th>Specification</th><th>Value</th></tr></thead><tbody></tbody><tbody></tbody><tbody><tr><td>Cellular platform</td><td>u-blox Sara-R5</td></tr><tr><td>Dimensions</td><td>16 mm x 26 mm x 2.4 mm</td></tr><tr><td>Target deployment segments</td><td>Industrial, infrastructure, and mobility dual-mode IoT</td></tr></tbody></table>

Commercial availability begins in June 2026, alongside a Development Kit for testing satellite and cellular services. Reserve priority access at /9604.

Manufacturing Location for the Iridium 9604 Module

The manufacturing country or specific production facility for the Iridium 9604 is not identified in this announcement. For sourcing requirements, buyers typically confirm origin, factory location, and lot traceability through Iridium sales channels and distributor documentation.

Bosch 9604 Spark Plug: Vehicle Compatibility

A definitive list of vehicle makes and models for the Bosch 9604 spark plug is not provided in this article because fitment depends on model year, engine family, and sometimes engine code. To confirm compatibility, use a vehicle fitment lookup from Bosch’s parts catalog or a major automotive retailer’s fitment tool, and cross-check the result against the vehicle service manual specifications (plug type, heat range, and gap).

Bosch 9604 Spark Plug: Issues It Can Address

When a vehicle specifies this plug, installing a new Bosch 9604 spark plug is commonly used to address symptoms associated with worn or degraded spark plugs, including hard starting, rough idle, hesitation under load, reduced fuel economy, and ignition misfires caused by electrode wear or inconsistent spark.

Bosch Original-Equipment Fine Wire Double Iridium Spark Plug 9604: Common Applications

Common applications for a fine-wire double-iridium original-equipment-style spark plug include modern gasoline engines designed for long service intervals, engines that run hotter or under higher cylinder pressures (such as many turbocharged setups), and ignition systems that benefit from consistent spark performance over time when the specified plug type is required by the manufacturer.

Warranty coverage for the Bosch 9604 spark plug is generally limited to defects in materials or workmanship, with specific warranty period, claim steps, and exclusions varying by seller, region, and purchase channel. Keep proof of purchase and confirm the applicable terms with the retailer or distributor at the time of purchase.

Bosch 9604: Where to Find Customer Ratings and Reviews

Customer ratings and reviews for the Bosch 9604 are typically found on automotive retailer product pages and marketplaces, as well as parts-focused review sections on distributor sites. Checking multiple storefronts can help compare feedback across different vehicle applications and installation contexts.

Iridium 9604: Three-in-one Iot Module Launch

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Testing With Real-World Insight: Field and Lab

Spirent Communications, now operating under Keysight Technologies, has introduced SimXTRACT, a satellite-navigation testing solution built to close the gap between outdoor trials and controlled bench simulation by turning real-world recordings into repeatable lab scenarios that can be replayed, inspected, and varied on demand.

A global navigation satellite system is the broad term for satellite-based positioning and timing services used for navigation, mapping, location services on phones and wearables, and precise timing in networks and infrastructure. In simple terms, a receiver listens for very faint, time-stamped radio signals from multiple satellites and uses the timing differences to work out where it is and what time it is.

Satellite-navigation testing is the process of verifying how well a receiver, device, or full positioning-and-timing system performs under expected and edge-case conditions. It matters because small positioning errors can cascade into unreliable features, safety risks, or poor user experience, and because robust testing helps confirm accuracy, reliability, and resilience before products reach customers or mission environments.

Realistic satellite-navigation testing helps teams find failures that only appear in the real world, while keeping lab runs repeatable enough to confirm fixes and ship with confidence.

These signals are also vulnerable: they can be weakened or blocked by buildings, tunnels, foliage, or vehicle structures, and they can be disrupted by interference such as jamming (overpowering the signal) or spoofing (sending misleading signals that mimic real ones). That is why capturing what actually happened outdoors, and then reproducing it safely in the lab, is valuable for development and validation.

With SimXTRACT, signals gathered in authentic environments are rigorously deconstructed into discrete components and then driven into simulation, preserving real-world behavior throughout the product test cycle. In practice, teams capture a real drive or field session, import the recording into SimXTRACT, separate the composite reception into model-ready elements plus supporting measurements, generate a simulator-ready scenario, and then replay that scenario repeatedly in the lab while changing only the variables they need to investigate.

“Marrying live-environment insight with controlled, repeatable lab conditions means teams no longer need to compromise in this fast-moving field,” said Peter Terry-Brown, divisional chief executive of Spirent’s Positioning business. “Greater realism delivers higher accuracy, faster issue resolution, and a shorter route to market.”

Engineering teams typically depend on capture-and-replay or laboratory simulation to evaluate positioning, navigation, and timing systems and devices. Each method contributes to product development, yet neither alone blends real-world richness with the precise control required for research, receiver integration, or regression testing.

SimXTRACT unifies these strengths by ingesting field recordings and accurately separating them to yield lifelike drive data for Spirent simulators, so teams can iterate on the same real-world event in a controlled environment without repeatedly returning to the field.

Drawing on recordings and scenarios made with Spirent capture-and-replay hardware, the tool performs advanced signal decomposition and extracts key signal elements and supporting measurements, including:

That reconstructed environment is then turned into controllable scenarios for Spirent satellite-navigation simulators, trimming time spent in the field, lowering the cost and complexity of creating and collecting scenarios, and enabling repeatable, high-precision trials. By converting rare or hard-to-repeat field events into lab-ready scenarios, teams can run faster regression cycles, validate fixes immediately, and reduce schedule risk across integration and release milestones—accelerating time to market without sacrificing realism.

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