Industrial & Infrastructure
Inspection & monitoring
Persistent routes for bridges, roads, rail, pipelines and industrial assets with automated dock–charge–redeploy cycles.
Prototype • Validation tests in progress • Pilot partners welcomed
Drone Charging Infrastructure for Persistent Autonomous Operations
SkyDock builds an energy + data layer for autonomous drone fleets: suspended docking nodes that enable reliable dock–charge–redeploy cycles across industrial, public-sector and security environments.
Suspended docking
No precise landing dependency — dock off the ground.
Outdoor-ready
Designed for year-round deployments on existing infrastructure.
Infrastructure layer
Add nodes to expand coverage, uptime and autonomy.
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Infrastructure-first autonomy — not just a charger
Conventional drone operations are limited by short endurance and frequent, human-dependent recharging. SkyDock elevates docking off the ground and turns each station into an energy + telemetry node that supports persistent operations and scales as you deploy more stations.
Passive-engagement capture
Suspended docking reduces reliance on perfect landing precision and stabilizes the drone for charging.
Rotationally-agnostic interface
Pogo-pin contact to concentric rings enables reliable power + signal contact even with rotation misalignment.
AI-ready operations layer
Station telemetry + optional sensing modules provide the data foundation for smarter autonomy over time.
Positioning: SkyDock is a drone charging infrastructure layer built for autonomy —
power, attachment and data at every docking cycle so fleets can improve reliability and uptime.
How it works
A suspended docking cycle designed for repeatability and scale: approach → capture → charge → release.
1
Approach
Drone approaches the station mounted on a wall/pole/mast or under a structure.
2
Capture
Conical connector enters the dock and passively engages for stable hanging attachment.
3
Charge + telemetry
Power is delivered via pogo-pin interface; the station can support health monitoring during docking.
4
Controlled release
Dock releases on command for autonomous redeploy, scheduling and fleet rotation workflows.
Use cases (dual-use, clearly separated)
SkyDock supports autonomous missions where reliability and minimal human intervention matter. We present civil/industrial cases first; security cases are listed separately.
Ports & Maritime
Port perimeter & logistics visibility
Energy nodes in corrosive environments support recurring flights for yard, berth and perimeter awareness.
Energy & Industry
Site operations & asset uptime
Autonomous patrol and data collection across large facilities without manual battery swaps.
Public-sector & Security
Persistent coverage & rapid response
Resilient autonomy infrastructure for recurring routes and standby readiness in demanding environments.
Want the defense-specific deployment scenarios? We share them in partner discussions to keep public messaging clean and compliant.
Coverage scales with infrastructure — SkyDock builds the energy layer
Instead of one “charging pad”, SkyDock is designed to be deployed as a network. Each station is an energy + telemetry node that expands operational radius and reduces downtime across the fleet.
Energy + data layer concept:
deploy stations on existing infrastructure (buildings, poles, masts) to create a scalable autonomy network.
More nodes → shorter recovery time → higher mission continuity.
Why “energy layer” matters
Persistent autonomy is not achieved by a single station — it’s achieved by infrastructure density. SkyDock is built to be mounted where it increases operational coverage and keeps drones out of public ground-level interference.
What you gain
• Higher sortie continuity
• Less operator load
• Faster redeploy cycles
• Network-level resilience (connectivity-dependent)
Specs & technical highlights
We publish enough detail for evaluation and partner alignment. Detailed interface drawings and integration packages are shared for pilot programs.
Supported suspended load
Up to 25 kg (prototype)
Designed for suspended docking with cargo potentially attached beneath the drone.
Power input
AC 100–250 V / DC 12–60 V
Flexible deployment options across existing power infrastructure.
Charging output
Up to 520 W • 2.8–52 V • 10 A max
Variable charging voltage supports multiple battery configurations (prototype figures).
Environment
IP56 • −20°C to +60°C
Built for outdoor operation; corrosive environments listed as allowed (prototype).
Interface
Pogo-pin to concentric rings
Rotationally-agnostic electrical contact for charging + signals.
Station body
255×201×237 mm • 3.45 kg
Material listed: ABS + 316L (prototype).
Available on request (pilot partners): connector geometry & drawings, integration kit details, interface pinout / comms options,
detailed mounting kits, and advanced connectivity modules.
Notes: Specifications are based on the current prototype datasheet and may change during validation.
Validation status
We are running validation tests and onboarding pilot partners for real-world deployments. The goal is measurable improvements in docking reliability, cycle time and operational uptime.
Prototype
Engineering prototype with ongoing validation tests and integration refinement.
Pilot-ready roadmap
Targeted pilots for industrial sites, ports/maritime and public-sector deployments.
AI-ready positioning
Telemetry-first approach: docking cycles generate data for future health monitoring and autonomy improvements.
Pilot partners welcomed. If you operate a fleet, let’s align on a pilot scope and KPIs.
Partners & ecosystem
We collaborate with innovation and robotics ecosystems. (Logos below are representative; replace or extend with your final set anytime.)
Selected exhibitions
DDAC 2023 • ERF 2023 • DALO Industry Days 2023 • RoboInsights 2023 • R-24 • DALO Industry Days 2024 • TechBBQ 2024 • Digital TechSummit 2024
FAQ
Fast answers for evaluators, pilots and integration partners.
What drones are supported?
SkyDock is designed to be retrofitted via a universal interface approach. For pilots, we validate compatibility and define approach constraints per platform.
How does charging work?
Charging is delivered through a pogo-pin interface to concentric rings (rotationally-agnostic). The current prototype supports AC or DC input and variable charging output (see Specs).
Is SkyDock only a charging station?
No — the product is positioned as an infrastructure layer: power + stable docking + telemetry during each cycle. This foundation supports future autonomy improvements (health monitoring, smarter recovery workflows, fleet scheduling).
Can it operate outdoors?
The prototype datasheet lists IP56 and an operating range of −20°C to +60°C. Corrosive environments are listed as allowed (prototype).
How do we start a pilot?
We align on KPIs (docking success rate, cycle time, uptime continuity), integration scope and deployment constraints. Use the “Request meeting” button to schedule a call.
Contact
For pilots, partnerships and integrations — reach out or schedule a meeting.
Luftvejen / SkyDock
Drone charging infrastructure and suspended autonomous docking for persistent operations.
Prefer a quick call? Use Request meeting and we’ll prepare relevant materials for your scenario.
