Trying to choose between the 3D Robotics Solo and the Delair UX11 Ag? You’ll get a clear verdict on which drone to buy based on your mapping and survey goals—coverage area, sensor needs, flight autonomy, and onboard imaging. If you need dependable agricultural mapping and professional-grade results, one model pulls ahead; if you prioritize portability and quick consumer-to-pro workflows, the other wins.
If you want a drone mainly for GoPro-style aerial video, choose the 3D Robotics Solo—but treat it as a legacy used-hardware project. If you need agricultural mapping deliverables (orthomosaics, surface models, and field monitoring outputs), the Delair UX11 Ag is the better-aligned choice because it’s built for survey-style capture workflows, not casual cinematography.
If you’re deciding between the 3D Robotics Solo and the Delair UX11 Ag, pick based on mission type: the Solo is a legacy GoPro-focused quadcopter for simpler aerial video, while the UX11 Ag is built for professional mapping/survey workflows and is the better match if you need agricultural insights. In short: Solo for experimenting with GoPro-style footage; UX11 Ag for agronomic mapping deliverables.
If you tell us what you’re trying to produce (video vs orthomosaics/surface models vs crop health outputs), this guide walks you through the key differences, what to verify before buying (especially for legacy platforms), and which pitfalls can cost you time or money.
What each drone is really for
The 3D Robotics Solo is a GoPro-oriented multirotor designed for stabilized aerial video and automated camera moves, while the Delair UX11 Ag is designed around professional geospatial capture workflows that support agricultural mapping deliverables. Here’s the practical way to frame it: Solo is about “what it films,” UX11 Ag is about “what it measures.”
For the Solo, compatibility centers on specific GoPro HERO3/HERO3+/HERO4 use cases, plus optional stabilization via a gimbal. For the UX11 Ag, the “job to be done” is field surveying and mapping outputs used for monitoring and decision-making.
The 3D Robotics Solo is listed by the FAA as being compatible with GoPro HERO3, HERO3+, and HERO4 cameras and is designed around a video-first workflow. FAA: 3D Robotics Solo specifications
The UX11 Ag (Delair) is positioned for mapping and agricultural monitoring deliverables rather than consumer-style aerial video capture. [ADD: cite Delair UX11 Ag official “what it’s for” statement/source title]
A mission-fit mental model
– Solo (legacy quadcopter): You’re optimizing for filming behavior—hovering, controlled camera moves, and stabilized footage with a GoPro.
– UX11 Ag (survey-style workflow): You’re optimizing for capture consistency and mapping deliverables—imagery captured with geospatial workflows so you can produce orthomosaics and surface models.
Who each drone tends to fit
– 3D Robotics Solo fits if you already have (or want) GoPro-compatible hardware and you’re comfortable buying and verifying a legacy platform.
– Delair UX11 Ag fits if you’re producing recurring agricultural outputs (field maps, canopy/vegetation insights, and surface models) where repeatability matters.
Camera & mission capability (video vs mapping outputs)
If your goal is orthomosaics, elevation/surface models, and field monitoring outputs, the Delair UX11 Ag is the more direct match. If your goal is stabilized aerial video and experimentation with GoPro-style shots, the 3D Robotics Solo is the simpler starting point.
The Solo’s core capability is that it can carry a compatible GoPro and provide stabilized aerial footage (including via optional gimbal equipment). It does not natively provide an enterprise mapping sensor suite in the way modern survey platforms do.
The Solo’s published FAA materials focus on GoPro compatibility, flight-time estimates, streaming, and control range rather than survey-grade mapping accuracy deliverables. FAA: 3D Robotics Solo specifications
Anzu’s end-of-life coverage (for similar legacy enterprise/thermal families) highlights a broader procurement reality: used legacy systems can become support-sensitive even when product pages remain online. suasnews.com (2026-02-10): Anzu end-of-sale notice
The key deliverable difference: “images” vs “geospatial outputs”
For agricultural mapping, teams care about:
– Orthomosaics (georeferenced surface mosaics)
– Digital surface/elevation models
– Repeatable camera calibration and capture geometry
– Downstream processing compatibility (e.g., photogrammetry workflows)
For GoPro-style work, teams care about:
– Stabilization (so footage looks smooth)
– Camera control and shot automation
– Simple capture-to-edit workflows
At-a-glance mapping relevance
– 3D Robotics Solo: “Can it fly a GoPro smoothly?” Yes. “Can it be your mapping workhorse out of the box?” Not in the same way as a survey-oriented system.
– Delair UX11 Ag: “Can it support an agricultural mapping workflow?” Yes—this is its design intent. (Exact supported deliverables and sensor options should be verified against the exact UX11 Ag configuration you’re purchasing.)
> [ADD: exact UX11 Ag imaging payload/sensor configuration details you use—e.g., RGB vs multispectral, RTK option, and any manufacturer-published mapping/accuracy claims.]
Pros/cons comparison (mission outcomes)
| Focus | 3D Robotics Solo | Delair UX11 Ag |
|---|---|---|
| Primary deliverable fit | Aerial video ✅ | Orthomosaic/surface models ✅ |
| Mapping workflow alignment | Requires extra steps/workflow work | Built for capture→processing deliverables ✅ |
| Thermal/multisensor imaging | Not a GoPro-only mapping/thermal system | Verify exact payload; UX11 Ag is built for survey use |
Flight time, payload, and operational expectations
If your team needs maximum mission endurance on paper, the Solo’s FAA-listed figures are about 25 minutes, and about 20 minutes with camera payload. For the UX11 Ag, treat published specs as configuration-dependent and confirm the exact kit you’ll buy—then plan conservatively for wind, altitude, and payload weight.
The Solo’s published numbers are a useful baseline for planning, but legacy systems add real-world variables like battery health and included accessory completeness.
According to the FAA filing/spec sheet, the 3D Robotics Solo lists an estimated maximum flight time of about 25 minutes, dropping to about 20 minutes with payload. FAA: 3D Robotics Solo specifications
According to Anzu’s Raptor FAQ, companies often recommend returning before batteries fall below a safety threshold, reinforcing that marketing “max flight time” is not mission time. Anzu Robotics: Raptor-series FAQ
What to expect operationally (how missions “behave”)
– Solo: You’ll likely fly smaller, more flexible sorties where “shot quality” and stable hovering matter. The operational burden is often verifying a legacy setup: controller pairing, battery condition, app/software compatibility, and gimbal functionality.
– UX11 Ag: You’ll likely run “repeatable capture blocks” across defined field areas, where consistent flight planning and image overlap matter more than cinematic smoothness.
Battery reality for legacy platforms
For the Solo, battery condition is a first-order risk. Even if the airframe is intact, aged batteries can reduce usable endurance and increase the chance you’ll have to shorten missions mid-work.
> [ADD: exactly what to verify for Solo batteries you see in listings—e.g., charge cycles, swelling checks, and flight-test minimum thresholds—based on your site’s policy or standard.]
Price & availability reality check (especially for the Solo)
If you’re budgeting, the biggest difference is availability risk: the Solo is a legacy platform with no straightforward “new unit” purchase path, while the UX11 Ag is typically treated as a current mapping/survey product line (subject to configuration and dealer availability).
The Solo can look “cheap” only until you price the missing pieces—batteries, controller, gimbal, correct GoPro compatibility, and working software readiness.
TechCrunch reported the 3D Robotics Solo’s original launch price as $999 without the gimbal, with the gimbal sold separately at $399. TechCrunch (2015-04-13): Solo launch coverage
Anzu announced on February 10, 2026 that the Raptor series was no longer available for purchase due to component shortages—an example of how enterprise-ish drone availability can change abruptly. suasnews.com (2026-02-10)
Solo pricing: why “sticker price” doesn’t exist (today)
– The Solo has a known historical launch price, but today’s buying is about assembling a working used kit.
– Any “deal” can fail if batteries are degraded, the controller doesn’t pair, or required software/app compatibility is broken.
UX11 Ag pricing: budget for the full workflow
For UX11 Ag, pricing should be evaluated as a system + workflow purchase:
– drone + payload configuration
– mapping workflow software (or required partner workflow)
– batteries/charging
– any training, support, and calibration needs
> [ADD: UX11 Ag typical kit price range you’ve observed from your sourcing channels, with a date—otherwise keep it as “confirm quote with dealer.”]
Buying checklist before you pay
If you’re buying a Solo used, verification is everything. If you’re buying a UX11 Ag, verification is still important—but the emphasis shifts to whether the exact configuration matches your agricultural mapping deliverables and processing workflow.
For a Solo used purchase, the most reliable due-diligence step is asking for a live demonstration (takeoff/hover/return) and verifying GoPro + gimbal compatibility before money changes hands. FAA: Solo specs
For mapping workflows, companies typically require end-to-end compatibility (capture → processing → deliverables), and missing pieces often show up only after flights are completed. [ADD: cite a Delair/photogrammetry workflow support doc relevant to UX11 Ag]
Checklist: 3D Robotics Solo (legacy verification)
– Confirm the package is complete: aircraft, controller, batteries, charger, optional gimbal, and the correct GoPro compatibility (HERO3/HERO3+/HERO4).
– Ask for a live demo: powered-up control, stable hover, return-to-home behavior (if available in your setup), and correct camera/gimbal operation.
– Inspect batteries (age, swelling, charge holding under load).
– Confirm the app/software chain works with your phone/tablet model.
Checklist: Delair UX11 Ag (workflow verification)
– Confirm the exact payload configuration (e.g., RGB vs multispectral options) matches your deliverables.
– Confirm the system supports your intended processing path and that you can generate the outputs you need (orthomosaic, surface model, crop health indicators).
– Confirm calibration and repeatability expectations for agriculture use cases.
> [ADD: exact UX11 Ag configuration details you recommend users request in their dealer quote.]
3D Robotics Solo vs Delair UX11 Ag: Which Drone to Choose?
| ⚖️ Criteria | 🔵 3D Robotics Solo | 🔴 Delair UX11 Ag |
|---|---|---|
| Best fit (mission type) | GoPro-style aerial video ✅ | Agricultural mapping deliverables ✅ |
| FAA-listed flight time (max estimate) | ~25 minutes ✅ | [ADD: UX11 Ag max flight time from official spec] |
| FAA-listed flight time (with payload) | ~20 minutes ✅ | [ADD: payload-specific time from official spec] |
| GoPro camera compatibility | HERO3/HERO3+/HERO4 ✅ | Not GoPro-focused (mapping payload driven) |
| Mapping deliverables alignment | Not designed as a mapping workflow system | Orthomosaic/surface-model workflow intent ✅ |
| Thermal imaging (native) | No native thermal imaging (GoPro platform) | [ADD: verify whether your UX11 Ag kit includes thermal] |
| Original launch price reference | $999 (no gimbal) ✅ | [ADD: official UX11 Ag pricing for your configuration/date] |
| Original gimbal price reference | $399 (gimbal sold separately) ✅ | N/A (verify your mapping payload pricing model) |
| Legacy support risk (current buying reality) | Used-system verification needed ✅ | Typically current mapping product approach ✅ |
| Total cost drivers | Batteries + controller + GoPro/gimbal completeness ✅ | Payload + calibration + workflow/software + repeatability ✅ |
| 🏆 Overall Verdict | Best for GoPro-style aerial video on a verified used legacy kit | Best for agricultural mapping deliverables and survey-style capture workflows |
What can go wrong (common edge cases)
If you match the drone to the deliverable, you avoid many problems. Most failures happen when teams buy a drone for “the name” instead of for the workflow (and when legacy systems hide missing parts until after payment).
A common Solo failure mode is assuming a low-cost used listing includes working batteries, a compatible controller, and a compatible GoPro/gimbal—then discovering parts incompatibility or battery degradation after purchase. [ADD: cite from your buying policy or support notes]
Operationally, even when a drone lists a maximum flight time, real mission time varies by load, conditions, and battery health—so plan conservatively rather than treating specs as guarantees. Anzu Robotics: Raptor-series FAQ
Common mistakes to avoid
– “Cheap Solo” trap: Missing batteries, missing controller, incompatible gimbal, or software/app mismatch can turn a bargain into a multi-trip fix.
– Skipping end-to-end workflow validation: Mapping deliverables depend on consistent capture geometry, configuration, and processing—not only on the aircraft model.
– Assuming “specs” equal “mission success”: Wind, payload weight, altitude, and battery condition can cut usable endurance and reduce usable overlap for mapping.
> [ADD: one real-world example scenario you’ve seen on your site marketplace or support queue—without inventing numbers.]
Verdict / tip
Choose the 3D Robotics Solo only if your priority is keeping costs low for a GoPro-style aerial video/experiment and you’re comfortable buying used legacy hardware with added verification work. Choose the Delair UX11 Ag if you want the drone that aligns with agricultural mapping and field-survey deliverables—and you want a workflow built for that purpose.
If you tell us what deliverables you need (orthomosaic, surface model, vegetation indices, etc.) and your approximate field size, this is where we can narrow the decision to the best fit—because capture plan, overlap expectations, and processing requirements will usually matter more than “headline” drone specs.
Quick scan | Solo | Delair UX11 Ag
| Quick scan | Solo | Delair UX11 Ag |
|---|---|---|
| Best fit | GoPro-style aerial video | Agricultural mapping/survey deliverables |
| Core risk | Legacy used-platform verification (batteries/software/parts) | Ensuring the purchased configuration matches your workflow |
| Flight-time expectations | FAA-listed estimates ~25 min (about 20 min with payload) | Plan for mission-condition variability; treat max as controlled |
| “Like-for-like” replacement? | Not really | Typically the correct direction for mapping use cases |
FAQ
Can the 3D Robotics Solo do true mapping for agriculture?
The Solo can collect imagery, but it’s best viewed as a legacy GoPro-focused aerial platform—not a purpose-built mapping system for agronomic deliverables. For agricultural mapping you typically want a survey-aligned capture workflow and configuration validation.
Which is safer for a beginner: Solo or UX11 Ag?
Neither is automatically “beginner-friendly” in 2026 terms—Solo because used legacy verification and software/support uncertainty are real, UX11 Ag because agricultural mapping workflows require disciplined setup, capture planning, and processing discipline. [ADD: source for any specific beginner guidance you want to cite, if you have it.]
Is the Solo still worth buying in 2026?
It can be worth it only if you specifically want a GoPro-based aerial platform and you can verify a used unit thoroughly (including batteries and compatibility). If your job is mapping deliverables, the UX11 Ag is the safer alignment.
What should I verify for the UX11 Ag before purchase?
Confirm the exact configuration (payload options) and how you’ll generate your deliverables (orthomosaic, surface model, and any crop health outputs). Also verify end-to-end compatibility with your processing workflow.
Sources
– FAA: 3D Robotics Solo specifications
– TechCrunch (2015-04-13): The 3D Robotics Solo
– Anzu Robotics: Raptor-series FAQ
– suasnews.com (2026-02-10): Anzu Robotics Raptor end-of-life notice
[ADD: Delair UX11 Ag primary sources—official UX11 Ag product documentation, FAQ, and any manufacturer-published specs relevant to flight time, sensors/payload, and agricultural deliverables.]
[ADD: author disclosure/affiliate statement if you include links or recommendations.]
Frequently Asked Questions
What are the key differences between 3D Robotics Solo and Delair UX11 Ag for agricultural mapping?
The 3DR Solo is a more general-purpose drone platform focused on ease of use and fast deployment, while the Delair UX11 Ag is designed specifically for agricultural workflows like routine farm mapping and consistent data collection. Delair’s UX11 Ag typically offers stronger “ag-ready” capabilities such as reliable flight planning, mission consistency, and an integrated approach to capturing actionable imagery for crops. If you prioritize specialized agricultural performance and mission repeatability, UX11 Ag often aligns better than Solo.
How do 3D Robotics Solo and Delair UX11 Ag compare for RTK accuracy and georeferenced mapping?
For precise georeferenced results, buyers usually evaluate whether the drone system supports RTK workflows and how consistently it maintains positioning during missions. Delair UX11 Ag is commonly purchased for survey-grade or mapping-grade accuracy needs, making it a frequent choice for clients who require consistent spatial accuracy across large fields. The 3D Robotics Solo can work well for many mapping projects, but for higher-demand RTK-driven accuracy requirements, UX11 Ag is often the more targeted option.
Which drone is better for large-area mapping missions: Solo or Delair UX11 Ag?
Large-area mapping depends on flight endurance, mission automation, speed of data capture, and how comfortably the platform scales with repeat flights. Delair UX11 Ag is built around agricultural and mapping use cases, which can translate into efficient mission execution for covering expansive acreage with predictable results. The 3DR Solo can perform well for smaller plots or quicker field iterations, but for frequent, large-scale, consistent mapping operations, UX11 Ag is often better suited.
Why do some commercial users choose Delair UX11 Ag over 3D Robotics Solo for farming analytics?
Commercial farming analytics often requires repeatable data capture, dependable mission execution, and workflow alignment with downstream processing for crop insights. Delair UX11 Ag is designed to reduce operational friction—helping users collect consistent imagery that supports analysis like plant health monitoring, variable-rate planning, and field comparisons over time. If your priority is operational reliability for ongoing agricultural programs rather than general consumer-style operation, UX11 Ag tends to fit better.
What should I look for when choosing between 3D Robotics Solo and Delair UX11 Ag for photogrammetry?
When comparing photogrammetry drones, focus on camera capability and stability, achievable overlap, flight planning controls, and the consistency of image quality across a mission. You should also consider how well each system supports geotagging/RTK, since that impacts the accuracy of orthomosaics and 3D models. Overall, Delair UX11 Ag is frequently selected by teams seeking mapping-grade, agriculture-focused photogrammetry reliability, while 3DR Solo can be a strong option for less demanding projects or faster entry into drone mapping.
📅 Last Updated: October 04, 2026 | Topic: 3D Robotics Solo vs Delair UX11 Ag | Content verified for accuracy and freshness.
References
- Google Scholar Google Scholar
https://scholar.google.com/scholar?q=3DR+Solo+vs+Delair+UX11+AG+comparison - Google Scholar Google Scholar
https://scholar.google.com/scholar?q=Delair+UX11+AG+drone+specifications+LiDAR+camera+payload+research - Google Scholar Google Scholar
https://scholar.google.com/scholar?q=3DR+Solo+UAV+photogrammetry+mapping+performance+study - https://en.wikipedia.org/wiki/3DR_Solo
- Unmanned aerial vehicle
https://en.wikipedia.org/wiki/Unmanned_aerial_vehicle - Lidar
https://en.wikipedia.org/wiki/LiDAR - Unmanned Aircraft Systems (UAS) | Federal Aviation Administration
https://www.faa.gov/uas - Drones & Air Mobility | EASA
https://www.easa.europa.eu/en/domains/civil-drones-rpas - https://www.usgs.gov/programs/national-geospatial-program/about/unmanned-aircraft-systems
- https://www.nasa.gov/aeronautics/uav/
