BLACK WIDOW Independent Aerospace Research Program Ukraine Phase I Research Validation TRL 2–3 → 4 (target)
Aerospace research laboratory with the BW-C45 experimental prototype, FlyScout module, ALBATROSS atmospheric sensing pod, and OWL wing test article on a workbench, while engineers review CAD renders and telemetry on dual monitors.
  • Printing complete · 85 parts photo-verified
  • Dry assembly · in progress
  • Next · Ground testing · Phase I funding requested

We are building the BW-C45 research UAV — and seeking Phase I funding for flight testing.

Printing is complete: 85 structural components photo-verified. Phase I will finish the flight prototype, integrate avionics, and run the first ground and flight validation of seven research technologies — Mission OS, FlyScout, EPM, OWL, ALBATROSS, GNSS-denied navigation, and Digital Twin.

Research Platform

BW-C45 · Experimental Research Platform

The program validates seven integrated engineering hypotheses for a small fixed-wing UAV — Mission OS, FlyScout, EPM, OWL, ALBATROSS, GNSS-denied navigation, and Digital Twin.

BW-C45 modular fixed-wing research platform in exploded assembly view — light grey airframe sections, wing test article, and avionics interfaces on a dark engineering panel with subtle CAD overlays.

Purpose

Experimental testing of a portfolio of advanced aerospace technologies under real flight conditions.

Instrument

BW-C45 airframe · a flight-configurable test platform, not a commercial UAV. The aircraft exists to make the technologies measurable.

Outcome

Proven technologies applicable to both defense and civilian aerospace systems. The knowledge is the final product.

Phase I

Phase I Research Directions

Seven Phase I research directions tested through the BW-C45 platform. Each is an independent track with its own hypotheses and success criteria.

Research aircraft in flight with wind-field streamlines, optimal trajectory path, and energy-optimization overlays — portfolio visualization for wind-aware and autonomous flight research programs.
Mission planning workstation: three displays showing abstract flight-path geometry and telemetry curves, industrial keyboard, engineering notebook, prototype electronics board, and compact data-acquisition unit on a clean desk.

Program · 01

Mission OS

Mission planning & execution

Mission OS is a TRL 2–3 web-based platform for autonomous mission planning (Phase I target: TRL 4) — mission preparation, flight-test monitoring, and post-test data analysis. Phase I validates whether the system reduces data-processing time and error frequency compared with a manual workflow when supporting BW-C45 test operations. The expected outcome is a measured efficiency assessment, auditable logs, and engineering recommendations for the next research iteration.

Compact autonomous inspection robot with mecanum wheels, top-mounted LiDAR sensor, and multiple camera modules on the front, on a laboratory table beside interchangeable sensor modules, a prototype electronics board, and 3D-printed housings.

Program · 02

FlyScout

Autonomous reconnaissance & perception

FlyScout is a 300–400 g research platform combining aerial repositioning with close-range ground inspection — inspired by insect mobility. Civil dual-mode robotics only: infrastructure, agriculture, monitoring, educational SAR. Phase I tests dual-mode operation (air — fast repositioning and overview; ground — stable close inspection in confined spaces) via a bench transition protocol and controlled scenarios; Mission OS integration is planned for Q4 2026. Initial concept: no field transition validated yet.

Experimental hold/release interface for a research vehicle on the BW-C45 carrier platform: EPM bench module, instrumented retention node, and laboratory telemetry for hold/release cycles.

Program · 03

EPM

Electromagnetic module retention and release system

Deployment mechanism without continuous current (IEEE reference). Phase I — bench hold/release cycles under vibration profiles matching BW-C45 carrier flight; the operator retains release authority. Lab prototype → n≥50 tests with protocol. Expected outcome: measured separation reliability before field claims.

Aerodynamic wing study inside a modern wind tunnel: matte carbon-fiber airfoil section on a precision mount, with subtle streamlines and colored pressure gradients over the surface. Laser-based measurement equipment visible in the foreground.

Program · 04

OWL

Aerodynamic efficiency & low-signature flight

OWL tests passive aerodynamic wing inserts under controlled comparative trials. Phase I validates whether the inserts produce a measurable change in aerodynamic efficiency and/or acoustic signature relative to the baseline configuration. The expected outcome is a quantitative effect assessment that confirms or refutes the design hypothesis with measured data.

Experimental research aircraft in gentle cruise flight above cumulus cloud layers, with subtle translucent wind-current ribbons visualizing natural atmospheric flow. Soft morning light, clean blue sky.

Program · 05

ALBATROSS

Wind-aware energy optimization & endurance

ALBATROSS validates a wind-aware energy-optimisation algorithm for flight planning. Phase I tests whether the algorithm reduces energy consumption compared with a baseline flight mode under varying wind conditions. The expected outcome is measured energy-efficiency indicators and an engineering assessment of the planning method.

Foreground: BLACK WIDOW research aircraft in a bright research hangar. Background: several civilian aerospace applications — infrastructure inspection, environmental monitoring, agricultural survey, university research and engineering education environments — connected through a shared industrial design language.

Program · 06

GNSS-Denied Navigation

Flight without GPS · VIO/SLAM research

Research program validating visual-inertial navigation for degraded or absent GNSS signal conditions. Phase I establishes modelling, test protocols, and system architecture; Phase II adds a hardware bench and supervised flight tests under operator control. Expected outcome: measured navigation performance data and engineering recommendations for GNSS-denied operations.

Simulation and digital-twin workstation: dual monitors showing XFOIL aerodynamic analysis, JSBSim flight-dynamics output, and SITL telemetry overlay, with the BW-C45 CAD model rendered alongside validation plots.

Program · 07

Digital Twin

Simulation pipeline & pre-flight validation gate

Digital Twin is an XFOIL/JSBSim/SITL simulation pipeline used to cross-check CFD and flight-dynamics predictions against the as-built BW-C45 platform before flight testing begins. Phase I validates the M1 GO/NO-GO gate: if simulated and measured baseline data diverge beyond a documented threshold, downstream flight tests (OWL, ALBATROSS) are held until the discrepancy is resolved. The expected outcome is a validated simulation-to-flight correlation and a documented M1 report.

Evidence

Engineering Evidence

First BW-C45 prototype — canonical print scope complete. All 85 structural and interface components from the frozen V1 package are photo-verified. Dry structural assembly of the plastic airframe is underway; electronics integration and ground testing follow.

79 STL · 85 components · 100% print scope · August 2026

01 · Components

85 Printed Components

July–August 2026

85 3D-printed BW-C45 components (79 canonical STL positions) arranged for dry-assembly staging

85 · 79 STL · 100% canonical scope

02 · Assembly

Dry Structural Assembly

August 2026

Dry assembly layout — BW-C45 airframe components on staging surface
Dry assembly exploded layout — structural fit check before integration

Dry assembly in progress · plastic structure only

03 · Manufacturing

Manufacturing

July–August 2026

K1 Max — batch of structural airframe parts on build plate after print
FDM print in progress — structural wall section on build plate
K2 Pro — active print job inside enclosed build chamber

Creality K1 Max ×2 · print scope complete

04 · Drawings

Engineering Drawings

2026 Q1

Isometric CAD render — Fuselage Section 1 · BW-C45-DWG-002
Isometric CAD render — Left Wing Section 1 · BW-C45-DWG-003

Canonical STL · isometric baseline

Why Phase I

Why Phase I Funding

Digital design and component manufacturing were completed with internal team resources. Dry structural assembly is underway. A flight-ready prototype and the first experimental validation cycle require Phase I funding the team cannot self-finance at this stage.

  1. Complete

    Manufacturing · Print scope 100%

    85 components · photo-verified
  2. Now

    Dry structural assembly

    Plastic airframe · in progress
  3. Phase I target

    Flight-Ready Platform

    Funded by Phase I
  4. Phase I outcome

    First Test Cycle

    Reports · data · recommendations

What Phase I funds

  1. Platform completion — flight-configuration prototype materials and structural integration
  2. Flight instrumentation — avionics, propulsion, and measurement systems integration
  3. Validation methodology — ground and flight test protocols for seven research threads
  4. Test operations — controlled ground checks and first flight test campaigns
  5. Reports & data release — engineering reports, measured datasets, and validation summaries
Phase I budget $84,000 (Phase I) · $96,667 turnkey · Turnkey Budget · 45 UAH/USD

Research Program

Phase I Research Program

Seven research threads · Falsifiable hypotheses · Measured outcomes.

RC-01

Flight Testing

Research Question

Does the flight behaviour of the BW-C45 airframe match calculated performance parameters?

Expected Result

Measured flight characteristics with calculated data confirmed or corrected.

RC-02

Mission OS Evaluation

Research Question

Does Mission OS reduce data-processing time and error frequency compared with a manual workflow during flight-test operations?

Expected Result

Efficiency assessment, auditable logs, and recommendations for system refinement.

RC-03

EPM

Research Question

Does the EPM mechanism provide reliable retention and controlled subdrone separation under load?

Expected Result

Measured hold and release reliability data plus structural design recommendations.

RC-04

OWL Aerodynamic Study

Research Question

Do the wing inserts produce a measurable improvement in aerodynamic efficiency and/or noise reduction?

Expected Result

Quantitative effect assessment confirming or refuting the design hypothesis.

RC-05

ALBATROSS Endurance Study

Research Question

Does the algorithm reduce energy consumption compared with baseline flight mode under varying wind conditions?

Expected Result

Measured energy-efficiency indicators and an engineering assessment of the planning method.

RC-06

GNSS-Denied Navigation

Research Question

Can VIO/SLAM provide stable navigation performance under degraded or absent GNSS signal conditions?

Expected Result

Phase I — validated protocols and system architecture; Phase II — measured navigation performance from hardware bench and supervised flight tests, plus engineering recommendations for GNSS-denied operations.

RC-07

Digital Twin Validation Gate

Research Question

Does the simulated (XFOIL/JSBSim/SITL) baseline correlate with as-built platform data within an acceptable margin before flight testing proceeds?

Expected Result

Documented M1 GO/NO-GO report confirming or flagging divergence between simulated and measured baseline data, gating downstream flight campaigns.

Deliverables

Expected Deliverables

Engineering Reports

Documentation from flight-prototype integration: structural configuration, subsystem interfaces, and as-built engineering baseline for the BW-C45 test platform.

Test Reports

Validation reports for all seven research threads: Flight Test, EPM, OWL, ALBATROSS, Mission OS, GNSS-denied navigation, and Digital Twin — each with measured results and test methodology.

Recommendations

Engineering recommendations for the next BW-C45 iteration and Mission OS refinement, based on confirmed or refuted hypotheses from Phase I testing.

Measured Data

Flight logs, power telemetry, sensor recordings, and processed datasets from ground and flight test campaigns — released as structured research artefacts.

Documents

Documents

Public research documents are available for download. Internal engineering artefacts are never published.

Level 1 · Public

PDF · EN · 3 pages · vRC3 · 2026-07-29

Executive Brief RC3

Program overview for grant committees, partners, and investors. Phase I $84,000 · turnkey $96,667 (45 UAH/USD). Modules, staged funding, research positioning.

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Level 1 · Public

PDF · EN · 5 pages · vRC3 · 2026-07-29

Turnkey Budget RC3

Grant-ready turnkey budget in USD: Phase I $84,000 · turnkey $96,667 (45 UAH/USD). Work packages, deduplication, 10% reserve, Phase II GNSS/VIO, staged funding.

Download PDF

Level 1 · Public

PDF · EN · 2 pages · v1.0 · 2026-07-28

Research Summary

Summary of completed research milestones and platform state. Phase I $84,000 · turnkey $96,667 (45 UAH/USD). Seven Phase I research threads including GNSS-denied navigation and Digital Twin.

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Program Contact

Program Contact

General institutional contact for the BLACK WIDOW research program. Personnel data and facility information are shared only with authorized reviewers through secure channels.