Conceptual white twin-engine ARES fixed-wing research UAV shown in a blueprint studio

STUDENT-LED AEROSPACE ENGINEERING PROJECT

ARES ReFlight

A modular fixed-wing UAV ecosystem for post-disaster reconnaissance, mapping, and engineering research.

Custom ground-control software. Modular air vehicle. Telemetry architecture. A planned automated antenna-tracking ground station.

01 / SOFTWARE

ARES-01 v1.3.0

INITIAL STABLE RELEASE
02 / INTEGRATED SYSTEM

ARES ReFlight v0.1.0

IN DEVELOPMENT
CONCEPTUAL AIR VEHICLE

NOT YET FLIGHT VALIDATED

01 · THE MISSION

Timely aerial information should not depend on expensive, inaccessible systems.

During disasters, access to current aerial information can be limited by cost, damaged infrastructure, and deployment complexity.

ARES explores how a low-cost, repairable, modular fixed-wing system could support rapid mapping and situational awareness—while remaining accessible for engineering research and education.

01Affordable by design02Repairable by principle03Evidence before claims

02 · SYSTEM ARCHITECTURE

One ecosystem. Four engineered layers.

ARES ReFlight is being developed as a connected stack. Select a module to inspect its purpose, function, and verified development state.

MISSION
ANALYSIS
MODULE / 02
COMPLETED

ARES-01 Software

The software foundation for telemetry, mission planning, simulation control, replay, and engineering analysis.

PRIMARY FUNCTIONS
MAVLink telemetrySITL integrationReplay and diagnostics
CURRENT STAGE
Initial stable desktop release — v1.3.0

03 · SOFTWARE FOUNDATION

ARES-01

A Windows-native research environment for designing, monitoring, controlling, replaying, analyzing, and documenting fixed-wing UAV simulation.

SOFTWARE VERSIONv1.3.0INITIAL STABLE RELEASE
ARES-01 / OPERATIONSWINDOWS NATIVE
ARES-01 operations dashboard running with simulated telemetry
SIMULATION DATAARES-01 / LIVE MOCK
CONNECTIONSITL ACTIVE
ALTITUDE120 m
GROUND SPEED22.4 m/s
FLIGHT MODEAUTO
LINKSTABLE

CAPABILITIES / VERIFIED SOFTWARE

01Live MAVLink Telemetry02ArduPilot SITL Integration03Flight Display04Artificial Horizon05Mission Mapping06CSV Logging07Replay Analysis08Diagnostics09Safety-Gated Simulation Controls10Portable Windows Release
SIMULATION SAFETY BOUNDARY

Commands are restricted to verified local ArduPlane SITL and require explicit operator enablement.

Hardware flight integration has not yet been validated.

04 · AIR VEHICLE

ARES Air Vehicle

IN DEVELOPMENT
Conceptual ARES fixed-wing air vehicle configuration, not flight validatedCONCEPTUAL CONFIGURATIONNOT YET FLIGHT VALIDATED

Modularity is the performance target.

The aircraft concept prioritizes repairability, replaceable sections, cost-conscious manufacturing, and clear separation between reclaimed non-critical structure and new safety-critical systems.

DESIGN TARGET / 01
Modular fuselage
DESIGN TARGET / 02
Swappable payload bay
DESIGN TARGET / 03
Low-cost repair model
DESIGN TARGET / 04
Mapping-oriented mission profile
CONCEPTUAL SYSTEM LAYERS
01AirframeREPAIRABLE STRUCTURE
02Structural ReinforcementCARBON-REINFORCED LOAD PATHS
03PropulsionTWIN-ELECTRIC CONCEPT
04AvionicsNEW SAFETY-CRITICAL SYSTEMS
05CommunicationsTELEMETRY + RC INDEPENDENCE
06Payload BayMAPPING-ORIENTED / SWAPPABLE

05 · GROUND SYSTEMS

Field-ready in principle. Hardware validation ahead.

The ground system is being developed around independent control safety, portable telemetry, and a future directional tracking link.

ARES-01
GROUND CONTROL
01 / LAPTOP + ARES-0102 / TELEMETRY MODEM03 / DIRECTIONAL ANTENNA04 / PORTABLE POWER

GROUND STATION

IN DEVELOPMENT

Laptop, telemetry modem, omni-directional backup antenna, directional antenna, portable power, and optional controller input.

SAFETY SEPARATION

Flight-critical RC control remains independent from the laptop-based ground station.

06 · ANTENNA TRACKER

Telemetry into line of sight.

PLANNED

PLANNED HARDWARE
SOFTWARE ARCHITECTURE IN DEVELOPMENT

01AIRCRAFT GPS
02MAVLINK
03ARES-01
04TRACKER CONTROL
05PAN / TILT

SIMULATED TRACKER DATATRACKER STATE · SIMULATION

TARGET BEARING
127.4°
TARGET ELEVATION
16.8°
POSITION ERROR
0.5°
GPS AGE
0.2 s

07 · MATERIAL PRINCIPLE

Reclaimed structure. New critical systems.

Sustainability here is a classification problem—not a marketing claim. Reuse is governed by consequence and validation.

A
FLIGHT CRITICAL

New or validated components only.

Flight controller · Power module · GPS · Receiver · Battery · ESC · Primary servos · Critical structural members

B
MISSION CRITICAL

Reused only after testing.

Camera · Tracker motors · Display hardware · Non-flight computing

C
NON-CRITICAL

Suitable for reclaimed materials.

Enclosures · Tripod · Covers · Brackets · Ground-station panels · Cable routing

08 · DEVELOPMENT PATH

Progress, without invented milestones.

Full roadmap
202601

Concept definition

COMPLETED
202602

ARES-01 software architecture

COMPLETED
202603

SITL and MAVLink integration

SIMULATED
202604

Telemetry, replay, and diagnostics

COMPLETED
202605

Initial stable Windows release

COMPLETED
NEXT06

Aircraft structure prototype

PLANNED
NEXT07

Avionics bench testing

PLANNED
NEXT08

Ground station hardware

PLANNED
NEXT09

Antenna tracker prototype

PLANNED

09 · FIELD NOTES

Development log

Architecture decisions, safety boundaries, experiments, and the path from simulation to hardware.

View all entries
JUL 2026COMPLETED
RELEASE / SOFTWARE

Initial ARES-01 Desktop Release

A stable Windows-native foundation for telemetry, simulation, replay, diagnostics, and technical reporting.

Read project note
JUL 2026COMPLETED
SAFETY / SIMULATION

Building a Safety-Gated Simulation Control Layer

Designing explicit local-SITL verification and operator gates before any simulation command can be issued.

Read project note
DATE TBDIN DEVELOPMENT
DESIGN / AIRFRAME

Designing the Modular Air Vehicle Architecture

Exploring repairable structures, replaceable sections, and payload integration without inventing unvalidated performance claims.

Read project note

10 · CONTINUE THE MISSION

Follow the development of ARES ReFlight.