Wingtra One GEN II

?Have we ever wanted a mapping drone that cuts survey time, keeps people safe, and gives survey-grade deliverables the same day?

Wingtra One GEN II — Overview

We present the Wingtra One GEN II as a high-performance VTOL mapping drone for survey teams. We designed this article to explain the drone’s capabilities, workflows, sensors, and real-world benefits in clear terms.

We summarize its mission: fast data capture, safe flights over populated areas, and simple workflows that lead to CAD-ready files. We focus on how the platform reduces field time and manual work so we deliver mapping results faster.

What the Wingtra One GEN II does for us

We fly large areas quickly while keeping data quality high for mapping and inspection tasks. We complete more jobs per day and reduce the need to return to site for rework.

We capture high-resolution images with fewer passes thanks to the full-frame 61 MP camera. We process data with a single workflow that moves us from field to final files without extra conversions.

Key specifications and quick facts

We list the most important technical facts so we can compare the drone to other options quickly. We included flight time, sensor details, coverage rates, and warranty information to make procurement decisions easier.

We keep the table short so we can return to details in following sections. We use these numbers to guide mission planning and purchasing decisions.

Performance and productivity gains

We explain how the Wingtra One GEN II saves time and increases throughput for survey teams. We focus on coverage per flight, data capture speed, and the difference from other platforms.

We achieve a large coverage rate with fixed-wing efficiency and VTOL flexibility. We fly 100 ha in about 10 minutes when configured for mapping, which speeds up projects and shortens field windows.

We compare relative performance to other methods. We see the platform as roughly 40% faster than the prior generation, about 10 times faster than typical multicopters, and about 30 times faster than terrestrial survey methods in terms of ground coverage per hour.

How the 61 MP sensor helps

We use the 61 MP full-frame sensor to capture more detail per image. We reduce overlap needs and lower the number of flights required to meet resolution targets.

We get finer features in orthomosaics and denser point clouds per capture. We then process fewer images, which can reduce processing time and storage needs while keeping final deliverables precise.

Adaptive speed and mission efficiency

We adjust speed automatically in the app to match our output needs for resolution and coverage. We set ground sampling distance (GSD), and the system changes cruise speed to maximize area coverage while keeping image quality consistent.

We therefore reduce the number of flights needed to cover a project site during short time windows. We also minimize repeated flights that waste battery and operator time.

Sensors and payloads

We describe the swappable sensors and how they expand the kinds of jobs we can take. We focus on common sensor types and the benefits they bring.

We switch sensors quickly in the field without tools or cables. We move from RGB to multispectral or LIDAR in seconds, which keeps us productive on multi-sensor projects.

Sensor options and typical uses

We list the main sensor families and the tasks they suit best. We keep the descriptions practical so we can pick the right payload for each job.

• RGB (high-resolution): Mapping, orthophoto production, 3D models, general inspection.
• Full-frame 61 MP: Large-area mapping with high detail; reduces image overlap needs.
• Multispectral: Vegetation health, crop analysis, NDVI mapping.
• LIDAR: Vegetation penetration, accurate ground models, high-density point clouds.
• Inspection-grade sensors: Close-up visual inspection for structures and sites.

We choose the sensor that matches our deliverable to avoid unnecessary processing and to reduce flight time.

Swapping sensors and batteries

We swap sensors and batteries without tools so we stay in the air. We change payloads and batteries in seconds, which improves operational tempo on multi-task days.

We keep spares ready and plan flights to use hot-swappable batteries when available. We thus avoid long gaps between missions and maximize daily flight time.

Flight time, range, and endurance

We explain practical mission limits and how they affect planning. We emphasize the benefit of long flight time for large-area surveys.

We get up to 59 minutes of flight time in ideal conditions, which gives us long single sorties and fewer takeoffs. We use that endurance to cover more area per flight compared to typical multicopters.

We also plan missions based on battery reserve and regulatory limits. We factor wind, payload weight, and required overlap into flight-time estimates to avoid surprises.

Wind tolerance and stable flight

We fly in winds up to roughly 27 mph and maintain data quality. We therefore operate in conditions that would ground many multicopters and cause rework.

We rely on the platform’s stability and autopilot to keep image geometry consistent. We then get accurate photos for photogrammetry even when wind is present.

Navigation, accuracy, and PPK

We explain how the Wingtra One GEN II achieves survey-grade positioning and reliable flight paths. We cover GNSS performance and the role of PPK modules.

We use GPS and GLONASS navigation as the baseline for flight control. We include a PPK module to produce survey-grade geolocation that reduces the number of ground control points required.

We then process the raw GNSS logs in post to apply precise corrections and deliver high-accuracy orthomosaics and point clouds. We can reduce fieldwork because PPK increases absolute accuracy of our datasets.

Return-to-home and backup battery design

We describe the redundancy that protects the aircraft and people on the ground. We show how backup systems reduce mission risk.

We employ a backup battery design that helps the drone return to home if one battery fails mid-flight. We therefore reduce the chance of crash or emergency landing and protect our data and people below.

Dual telemetry and LTE backup

We keep the drone connected during the mission with dual telemetry and cellular fallback. We thus keep situational awareness even if the primary radio link drops.

We rely on the onboard LTE to take over instantly when needed, which keeps us informed of drone position and status. We then operate with more confidence and with future BVLOS readiness in mind.

Safety systems: parachute, obstacle avoidance, and airspace awareness

We outline the safety features that let us work over roads and populated areas with greater confidence. We explain how each system reduces risk and helps meet legal or operational requirements.

We use an optional parachute add-on to increase safety when flying over people or infrastructure. We then reduce the legal and operational risk and present safer flights to clients or authorities.

Parachute functionality and benefits

We note the parachute deploys automatically or can be triggered manually. We see the parachute as a tool to protect people below and to help avoid waivers or delays.

We plan missions with the parachute option when we must fly over roads or urban areas to meet project needs. We then provide a clear safety case for clients and regulators.

Obstacle detection and avoidance

We rely on obstacle avoidance to detect static hazards in our flight path. We then adjust paths or alert the operator when objects like cranes or trees appear ahead.

We detect obstacles up to 100 meters ahead during cruise so we can avoid collisions that would cause data loss or damage. We therefore increase mission reliability and reduce the need for emergency responses.

Live airspace data and traffic awareness

We connect to live airspace data over cellular networks to know where other aircraft operate nearby. We therefore avoid aircraft conflicts and increase safety when working near controlled airspace.

We also use the system to plan flights and adapt in real time when other traffic appears. We then maintain situational awareness and reduce the chance of airspace incidents.

Workflow: plan, fly, and process in one flow

We focus on the single workflow concept that moves data from field capture to deliverable files quickly. We explain how the tools reduce manual steps and potential errors.

We plan missions on the integrated tablet app, follow a guided checklist, and launch the aircraft after a few taps. We then move the captured data into a processing pipeline that produces CAD-ready outputs without file juggling.

We use a closed-loop workflow that saves time and reduces errors due to file conversions or app switching. We therefore let anyone on the team collect survey-grade data with minimal training.

Set up and launch in five minutes

We unpack, power on, follow the interactive checklist, and launch in about five minutes. We do not calibrate sensors or the aircraft before each flight under normal conditions.

We thus reduce pre-flight overhead and maximize productive flying time. We repeat this quick setup to complete multiple missions in short windows.

From field capture to CAD-ready files

We move data from the aircraft to the processing software in one smooth flow. We then use automated steps to create orthomosaics, point clouds, and deliverables suitable for clients or CAD systems.

We avoid multiple manual conversions and app switching by using a single connected system that handles plan, flight, and processing. We therefore shorten turnaround time and reduce human error.

Ease of use and training

We describe how the platform helps teams of different skill levels collect reliable data. We focus on standardized procedures and guided tools.

We use checklist-driven workflows that guide operators step by step. We then reduce the need for advanced pilot skills while maintaining data quality.

We also document flight plans, sensor calibrations (if needed), and mission logs in an organized way. We therefore create clear records for quality control and compliance.

Who can operate the Wingtra One GEN II

We believe survey teams, engineering firms, and inspection crews can all use the platform. We recommend a short training session on mission planning and emergency procedures for new operators.

We find that operators with basic drone experience can become productive quickly by following the interactive checklist. We then scale data collection across teams while keeping standards consistent.

Typical use cases and industries

We list practical applications where the Wingtra One GEN II adds value. We focus on where speed, high resolution, and safety deliver measurable benefits.

• Land surveying and topographic mapping for infrastructure projects.
• Agriculture and crop analysis using multispectral sensors.
• Forestry and environmental monitoring with LIDAR or multispectral payloads.
• Construction progress monitoring and volumetric stockpile surveys.
• Inspection of linear assets, ports, and urban areas where single flights must cover large areas.

We plan missions to meet each client’s needs and select sensor options that match deliverable formats.

Example: construction site monitoring

We fly weekly mapping missions to track earthworks and progress. We produce high-resolution orthomosaics and digital elevation models that teams use for volumes and change detection.

We stream these deliverables directly into client workflows so they can act on the data quickly. We then reduce disputes and improve planning timeframes.

Example: agriculture and multispectral surveys

We fly short missions at dawn or late afternoon to capture consistent multispectral data. We process NDVI and other indices to quantify plant health and recommend treatments.

We deliver maps that agronomists use to guide irrigation and input application. We then reduce costs and improve yields through targeted actions.

Operational planning and best practices

We give practical tips for planning efficient missions and reliable results. We focus on real-world details that save time and reduce errors.

We check weather, wind, and airspace conditions before planning flights. We then set conservative margins for battery reserves and avoid last-minute changes that cause rework.

We place ground control points only when required by project accuracy needs and rely on the PPK module for most mapping tasks. We then reduce field work and speed up returns.

Pre-flight checklist essentials

We follow a guided checklist that covers battery state, payload mounting, telemetry links, and safety systems. We then confirm the parachute status and obstacle-detection sensors before launch.

We log mission parameters and keep backup batteries and payloads on hand to minimize downtime. We then keep operations running smoothly across multiple flights.

Data management in the field

We offload images and raw GNSS logs after each mission to ensure we have backups. We then verify file integrity before leaving the site.

We use an organized folder structure and standard naming to make downstream processing predictable. We then avoid mix-ups and speed up delivery.

Software and integration

We describe the planning, piloting, and processing tools that make the workflow work. We emphasize how software reduces manual tasks.

We use a single connected system to plan missions and process data. We then avoid switching between apps and reduce time spent on file conversions.

We keep the tablet and telemetry module updated with the latest firmware and software. We then ensure compatibility across sensors, flight control, and processing tools.

Included tablet and essential apps

We include a tablet (TabActive 3) to plan and monitor missions. We also include essential apps in the package so teams can operate out of the box.

We update software remotely when needed to gain new features and safety improvements. We then keep our fleet consistent across operators and sites.

Processing and deliverables

We produce orthomosaics, point clouds, digital surface models, and inspection imagery as standard deliverables. We export files in formats that integrate with CAD, GIS, and asset management systems.

We streamline steps to reduce manual processing and to deliver CAD-ready files on the same day the data was captured. We then meet client timelines and reduce project friction.

Regulatory and certification considerations

We summarize elements that help meet local or national rules for flying over people and urban areas. We focus on the safety features that support regulatory approvals.

We use the parachute and redundant systems to build a safety case for flights over roads and towns. We then reduce the likelihood of waivers and delays when applying for permissions.

We also track live airspace data to avoid other traffic and to follow no-fly zones. We therefore operate responsibly and respect regulatory constraints.

Certificate references and legal readiness

We document system safety features and operational procedures to present to authorities. We then use those materials to speed approvals and to demonstrate compliance.

We maintain mission logs and flight records to support audits or incident reviews. We then show regulators how we control risk and maintain safe operations.

Maintenance, support, and warranty

We outline maintenance routines and support options to keep the platform mission-ready. We include warranty terms and ways to extend coverage.

We perform routine inspections of airframe, control surfaces, sensors, and parachute components based on flight hours and manufacturer guidance. We then replace wear items proactively to avoid unplanned downtime.

We note the product comes with a 12-month limited warranty as standard. We also take advantage of extended service options to add a second-year warranty when we need longer coverage.

Extended services and after-sales support

We use the manufacturer’s extended services to add a second-year warranty and tiered support. We then get faster repairs and reduced risk for long-term operations.

We keep contact details and support agreements up to date so we can resolve issues quickly. We then minimize mission disruptions when technical problems arise.

What’s in the box

We list the standard contents so we know what to expect at delivery. We also note accessories that help us start missions right away.

• Wingtra One GEN II mapping drone
• Tablet TabActive 3
• Telemetry Module (2.4 GHz)
• 2× Flight Batteries
• Flight Battery Charger with Dock
• Battery Charger Cable
• T10 Torx Screwdriver
• USB-C / SD Adapter
• Hardcase
• PPK Module
• Operating System and Essential Apps
• Software Updates and Third-Tier Support (3 Years)
• Wingtra 1-Year Limited Warranty

We verify each item on arrival and confirm battery health before the first mission. We then store components in the hardcase to protect them when we travel.

Safety accessories and optional upgrades

We summarize optional add-ons that make flights safer or more flexible. We focus on items that support operations over people and in urban settings.

We choose the parachute add-on when our missions include flights over roads or populated areas. We then reduce operational risk and strengthen our safety case for authorities.

We also add spare batteries, additional sensors, and extended support plans for heavy operational schedules. We then keep the fleet ready for back-to-back jobs.

Practical cost-benefit considerations

We explain why the Wingtra One GEN II can reduce total project cost even if upfront price is higher than a small multicopter. We focus on time savings and deliverable quality.

We complete data capture faster, which reduces team labor and travel costs per project. We also minimize rework and repeat visits because we get the right data on the first flight more often.

We also factor in lower processing time thanks to fewer images with the large sensor. We then lower server costs and speed delivery to clients, which helps our bottom line.

Troubleshooting and common operational issues

We list common issues and simple checks to resolve them in the field. We give practical steps that maintain SVO sentence structure and direct guidance.

We check telemetry and battery status if the drone loses connection. We then switch to LTE fallback and land the aircraft safely if we cannot re-establish a reliable link.

We inspect the parachute system and sensors before each flight if the checklist flags a problem. We then replace or service components based on manufacturer guidance to avoid mission delays.

Summary and final recommendations

We summarize the main benefits and how to get the most from the Wingtra One GEN II. We give practical suggestions to teams evaluating the platform.

We recommend the platform to teams that need fast area coverage, survey-grade accuracy, and simple, guided workflows. We also recommend pairing the drone with the right sensors and extended support to match our operational tempo.

We advise planning missions with realistic battery margins and with safety systems enabled for flights over people and infrastructure. We then deliver reliable results and protect our teams and assets.

Next steps for teams

We prepare sample missions, test the PPK workflow, and run a few local flights to validate the deliverable chain. We then measure time savings vs. legacy workflows to quantify benefits.

We contact the manufacturer or reseller for training and extended warranty options if our use case demands high operational availability. We then put the Wingtra One GEN II to work for our projects with confidence.

Warranty and extended service information

We include warranty facts and where we can find extended coverage. We focus on clear actions to maintain protection.

We note that the product includes a 12-month limited warranty. We then consider the second-year warranty and extended-services options via the manufacturer link for longer coverage.

We use the extended service plans when we plan heavy fleet usage or when missions carry high risk of damage. We then reduce potential repair expenses and speed service turnaround.

Closing thoughts

We present the Wingtra One GEN II as a platform that merges speed, sensor flexibility, and safety. We keep our focus on turning fast field capture into accurate, ready-to-use deliverables.

We believe the combination of long endurance, high-resolution imaging, swappable sensors, and safety systems makes the platform a strong choice for survey and inspection teams. We then use standard workflows to scale operations and deliver high-quality results with fewer site visits.