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Project Stratosphere: Sustainable CubeSat Design & Simulation

Learn how students at Gower College Swansea designed a low-cost 1U CubeSat for ozone layer monitoring and atmospheric research in the UK stratosphere.

#cubesat#stem-project#environmental-monitoring#ozone-layer#aerospace-engineering#high-altitude-balloon#satellite-design
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EESW STEM CYMRU · GOWER COLLEGE SWANSEA
PROJECT
STRATOSPHERE
Design & Simulation of a Sustainable CubeSat for Ozone Layer and Atmospheric Monitoring
MISSION TYPE
Environmental Monitoring
ALTITUDE TARGET
10–20 km
FORMAT
1U CubeSat (10×10×10cm)
Lewis Whitefoot · Mahiba Hossain · Miles Li · Oleksandra Roshchupkina · Rayan Haque · Oliwier Lesiak
In association with University of South Wales · 2025–2026
Made byBobr AI
MISSION OVERVIEW
EXECUTIVE
SUMMARY
Gower College Swansea, in association with the University of South Wales, designed and simulated a 1U CubeSat payload targeting ozone layer and atmospheric greenhouse gas research above Wales.
MISSION
Environmental Monitoring — Ozone & UV Research
BUDGET
£88.30 of £200 limit — 56% savings achieved
ALTITUDE
10–20 km via High-Altitude Balloon (B2Space)
SENSOR SUITE
Ozone · UV · Pressure · Temp/Humidity · GPS
PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026
Made byBobr AI
MISSION TEAM · GOWER COLLEGE SWANSEA
THE TEAM
Six A-Level students | In association with University of South Wales
OR
Oleksandra Roshchupkina
TEAM LEADER
Physics, Maths, Further Maths
Coordinates tasks, manages communication and project scheduling.
MH
Mahiba Hossain
SENSORS & PAYLOAD ENG.
Chemistry, Physics, Maths
Researches sensor technology and atmospheric measurement principles.
RH
Rayan Haque
ELECTRONICS & CODING ENG.
Electronics, Maths, Physics
Designs circuits, writes Arduino code, tests systems.
LW
Lewis Whitefoot
STRUCTURE & DESIGN ENG.
Chemistry, Physics, Maths
CAD modelling, materials selection, structural design.
ML
Miles Li
SUSTAINABILITY & RISK MGR
Chemistry, Physics, CS
Risk assessment, sustainability compliance, environmental impact.
OL
Oliwier Lesiak
SYSTEMS & PAYLOAD ENG.
Physics, Electronics, Maths
Tinkercad simulations, electronic design, systems integration.
Contact Teacher: Victoria James · Company Engineer: Leshan Uggalla
PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026
Made byBobr AI
MISSION DEFINITION · SECTION 3
MISSION
DEFINITION
To design, simulate, and plan a low-cost high-altitude CubeSat payload for ozone layer and greenhouse gas research above Wales.
CORE OBJECTIVES
Design integrated environmental sensing payload within £200
Select ozone, UV, temperature and pressure sensors
Simulate electronics using Tinkercad software
Calculate power budget for −50°C operation
Design thermally insulated 1U CubeSat structure
Conduct risk assessment and feasibility study
FUNCTIONAL REQUIREMENTS
Ozone/UV/Temp/Pressure sensors · Data timestamps · Altitude reference
ENVIRONMENTAL REQUIREMENTS
−50°C tolerance · Low-pressure resilience · Full structural insulation
DATA & COMMUNICATION
SD card onboard storage · LoRa theoretical plan · UK CAA compliance
ALTITUDE: 10–20 km
FORMAT: 1U CubeSat
TEMP: −40°C to −50°C
BUDGET: £200 max
Made byBobr AI
SYSTEM DESIGN · SECTION 4
STRUCTURAL
DESIGN
10×10×10 cm 1U CubeSat format. Aluminium alloy (6061-T6) frame with 3D-printed internal chassis modelled in TinkerCAD.
COMPONENT
SPEC
COST
Seeeduino Lotus Cortex-M0+
ATSAMD21, 12 Grove ports
£7.97
LiPo Battery
3.7V, 2Ah, cold-rated
£22.10
Ozone Sensor (DFRobot)
0–10ppm, 10ppb res.
£43.08
GPS Module (Air530)
50,000m altitude mode
£11.77
Pressure Sensor (SPA06)
Barometric altitude calc.
£0.00
Temp/Humidity (AHT20)
−40°C industrial grade
£3.38
TOTAL
£88.30 / £200
INSULATION
EPP foam + Mylar blanket + Kapton tape
THERMAL ACTIVE
Chemical heat packs on battery & GPS
PROJECT STRATOSPHERE · 2025–2026
Made byBobr AI
ELECTRICAL ENGINEERING · SECTION 4.2
ELECTRONICS &
SENSOR SUITE
Grove-compatible plug-and-play sensor integration via Seeeduino Lotus Cortex-M0+
O₃
OZONE SENSOR
DFRobot Gravity IIC
Range: 0–10 ppm
Resolution: 10 ppb
Interface: I²C
Cost: £43.08
Electrochemical detection principle
PRIMARY MISSION SENSOR
GPS
GPS MODULE (Air530)
Grove — GPS Air530
Max Altitude: 50,000 m (no COCOM limit)
Interface: UART/Grove
Cost: £11.77
Real-time coordinate tracking
RECOVERY TRACKING
P
AIR PRESSURE SENSOR
Grove Barometer SPA06-003
Barometric altitude calculation
Uses Barometric Formula: P = P₀·e^(-kTmgh)
Interface: I²C/Grove
Cost: Included in kit
ALTITUDE REFERENCE
TEMP & HUMIDITY
Grove AHT20 — Industrial Grade
Operating range: −40°C to +85°C
Monitors internal heat pack efficiency
Interface: I²C/Grove
Cost: £3.38
THERMAL MONITORING
PROJECT STRATOSPHERE · 2025–2026
Made byBobr AI
ATMOSPHERIC PHYSICS · SECTION 4.4
ATMOSPHERIC
SCIENCE
Vertical ozone concentration profile over Wales. Barometric Formula correlates live pressure sensor readings with altitude in real-time.
OZONE LAYER PROFILE
Target altitude: 15–35 km
Expected O₃: 2–8 ppm
Sensor range: 0–10 ppm ✓
Peak concentration: ~25 km
STRATOSPHERIC CONDITIONS
Temperature: −40°C to −50°C
Pressure: ~1% of sea-level
Air density: ~1% of sea-level
Wind: High velocity — stability critical
BAROMETRIC FORMULA
P = P₀ · e−Mgh/RT
Arduino calculates altitude from live barometric pressure readings against known sea-level baseline at Gower College.
PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026
Made byBobr AI
THERMODYNAMICS & POWER · SECTION 4.1 & 4.2
THERMAL & POWER
MANAGEMENT
Dual-strategy thermal protection to maintain electronics above 0°C at −50°C external temperature.
THERMAL THREATS
LiPo Battery
Internal resistance spikes below 0°C — risk of mid-flight shutdown
Microcontroller
Potential freeze below −30°C operating threshold
GPS Module
Signal loss if temperature drops below −20°C
Condensation
Dew point risk on PCBs during ascent through clouds
PROTECTION STRATEGY
EPP FOAM INSULATION
Low thermal conductivity. Acts as conduction barrier between electronics and exterior.
MYLAR THERMAL BLANKET
Reflects infrared radiation back inward. Aerospace industry standard (NASA approved).
CHEMICAL HEAT PACKS
Exothermic reaction (4Fe + 3O₂ → 2Fe₂O₃ + heat). 5–8 hrs of active warmth for battery & GPS.
KAPTON TAPE
Stays adhesive −269°C to +400°C. Aerospace standard fastening.
SILICA GEL DESICCANTS
Absorbs moisture. Prevents PCB short circuits from condensation.
POWER BUDGET
LiPo 3.7V / 2Ah = 7.4 Wh total capacity
Component
Draw
Seeeduino Lotus
~150 mA
Ozone Sensor
~50 mA
GPS Module
~30 mA
Pressure Sensor
~5 mA
AHT20 Sensor
~5 mA
SD Card Write
~100 mA peak
TOTAL DRAW
~340 mA avg
ESTIMATED RUNTIME
~5.9 hours continuous
Exceeds target flight duration of 1.5–3 hours
PROJECT STRATOSPHERE · 2025–2026
Made byBobr AI
RISK ASSESSMENT · SECTION 4.7
RISK ASSESSMENT
Five identified key risks rated by Likelihood × Impact. All risks have mitigation strategies in place.
01 · HIGH-SPEED IMPACT
LIKELIHOOD: MEDIUM
IMPACT: HIGH
PROBLEM: Balloon burst causes uncontrolled payload descent at dangerous speed.
SOLUTION: Parachute deployment + EPP foam crumple zone to absorb impact energy.
ESTIMATED MITIGATION COST: £25–£45
02 · AVIATION COLLISION
LIKELIHOOD: LOW
IMPACT: CRITICAL
PROBLEM: Balloon entering controlled airspace risks collision with aircraft.
SOLUTION: NOTAM filed with CAA. Radar reflector attached. CAA CAP 673 compliant.
COST: £15 (reflector) + £0 NOTAM
03 · BATTERY COLD FAILURE
LIKELIHOOD: HIGH
IMPACT: HIGH
PROBLEM: LiPo batteries fail at −50°C, cutting power to all systems mid-flight.
SOLUTION: EPP foam + Mylar insulation + chemical hand warmers taped to battery.
COST: £5–£10
04 · ENVIRONMENTAL POLLUTION
LIKELIHOOD: LOW
IMPACT: MEDIUM
PROBLEM: GPS tracker failure leaves CubeSat as unrecovered environmental litter.
SOLUTION: Dual redundant tracking: LoRa radio + GSM/cellular backup systems.
COST: £70–£120
05 · PCB MOISTURE DAMAGE
LIKELIHOOD: MEDIUM
IMPACT: HIGH
PROBLEM: Cloud penetration and dew point condensation causing PCB short circuits.
SOLUTION: Conformal coating spray on all PCBs + silica gel desiccant packs inside.
COST: £10–£20
PROJECT STRATOSPHERE · 2025–2026
Made byBobr AI
BUDGET PLANNING · SECTION 5
BUDGET
BREAKDOWN
£88.30 SPENT
£200 LIMIT
£111.70 REMAINING — 56% BUDGET SAVED
COMPONENT
UNIT PRICE
STATUS
Ozone Sensor (DFRobot)
£43.08
CRITICAL
LiPo Battery (RS PRO)
£22.10
POWER
GPS Module (Air530)
£11.77
NAVIGATION
Seeeduino Lotus Board
£7.97
COMPUTE
AHT20 Temp/Humidity
£3.38
SENSOR
Barometer SPA06-003
£0.00
SENSOR
TOTAL
£88.30
ON BUDGET
*Excludes insulation materials (EPP, Mylar, Kapton, heat packs) est. £15–£30
FINAL ESTIMATE: ~£103–£120 all-in (well within £200)
CONCLUSION & EVALUATION · SECTION 7–9
CONCLUSIONS
PROJECT SUCCESS ✓
The 1U CubeSat design meets all functional, environmental, and budget requirements. Grove plug-and-play system eliminates high-altitude soldering failure risk.
SCIENTIFIC VALUE
Vertical ozone profile data (2–8 ppm at 15–35 km) will contribute to greenhouse gas impact research over Wales. High academic and environmental relevance.
FUTURE RECOMMENDATIONS
Integrate LoRa real-time telemetry module
Add CO₂/CH₄ gas sensors
High-definition camera for visual verification
Custom 3D-printed internal chassis for mass reduction
PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026 · EESW STEM CYMRU
Made byBobr AI
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Project Stratosphere: Sustainable CubeSat Design & Simulation

Learn how students at Gower College Swansea designed a low-cost 1U CubeSat for ozone layer monitoring and atmospheric research in the UK stratosphere.

EESW STEM CYMRU · GOWER COLLEGE SWANSEA

PROJECT

STRATOSPHERE

Design & Simulation of a Sustainable CubeSat for Ozone Layer and Atmospheric Monitoring

MISSION TYPE

Environmental Monitoring

ALTITUDE TARGET

10–20 km

FORMAT

1U CubeSat (10×10×10cm)

Lewis Whitefoot · Mahiba Hossain · Miles Li · Oleksandra Roshchupkina · Rayan Haque · Oliwier Lesiak

In association with University of South Wales · 2025–2026

MISSION OVERVIEW

EXECUTIVE

SUMMARY

Gower College Swansea, in association with the University of South Wales, designed and simulated a 1U CubeSat payload targeting ozone layer and atmospheric greenhouse gas research above Wales.

MISSION

Environmental Monitoring — Ozone & UV Research

BUDGET

£88.30 of £200 limit — 56% savings achieved

ALTITUDE

10–20 km via High-Altitude Balloon (B2Space)

SENSOR SUITE

Ozone · UV · Pressure · Temp/Humidity · GPS

PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026

MISSION TEAM · GOWER COLLEGE SWANSEA

THE TEAM

Six A-Level students | In association with University of South Wales

OR

Oleksandra Roshchupkina

TEAM LEADER

Physics, Maths, Further Maths

Coordinates tasks, manages communication and project scheduling.

MH

Mahiba Hossain

SENSORS & PAYLOAD ENG.

Chemistry, Physics, Maths

Researches sensor technology and atmospheric measurement principles.

RH

Rayan Haque

ELECTRONICS & CODING ENG.

Electronics, Maths, Physics

Designs circuits, writes Arduino code, tests systems.

LW

Lewis Whitefoot

STRUCTURE & DESIGN ENG.

Chemistry, Physics, Maths

CAD modelling, materials selection, structural design.

ML

Miles Li

SUSTAINABILITY & RISK MGR

Chemistry, Physics, CS

Risk assessment, sustainability compliance, environmental impact.

OL

Oliwier Lesiak

SYSTEMS & PAYLOAD ENG.

Physics, Electronics, Maths

Tinkercad simulations, electronic design, systems integration.

Contact Teacher: Victoria James · Company Engineer: Leshan Uggalla

PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026

MISSION DEFINITION · SECTION 3

MISSION

DEFINITION

To design, simulate, and plan a low-cost high-altitude CubeSat payload for ozone layer and greenhouse gas research above Wales.

CORE OBJECTIVES

Design integrated environmental sensing payload within £200

Select ozone, UV, temperature and pressure sensors

Simulate electronics using Tinkercad software

Calculate power budget for −50°C operation

Design thermally insulated 1U CubeSat structure

Conduct risk assessment and feasibility study

FUNCTIONAL REQUIREMENTS

Ozone/UV/Temp/Pressure sensors · Data timestamps · Altitude reference

ENVIRONMENTAL REQUIREMENTS

−50°C tolerance · Low-pressure resilience · Full structural insulation

DATA & COMMUNICATION

SD card onboard storage · LoRa theoretical plan · UK CAA compliance

ALTITUDE: 10–20 km

FORMAT: 1U CubeSat

TEMP: −40°C to −50°C

BUDGET: £200 max

SYSTEM DESIGN · SECTION 4

STRUCTURAL

DESIGN

10×10×10 cm 1U CubeSat format. Aluminium alloy (6061-T6) frame with 3D-printed internal chassis modelled in TinkerCAD.

COMPONENT

SPEC

COST

Seeeduino Lotus Cortex-M0+

ATSAMD21, 12 Grove ports

£7.97

LiPo Battery

3.7V, 2Ah, cold-rated

£22.10

Ozone Sensor (DFRobot)

0–10ppm, 10ppb res.

£43.08

GPS Module (Air530)

50,000m altitude mode

£11.77

Pressure Sensor (SPA06)

Barometric altitude calc.

£0.00

Temp/Humidity (AHT20)

−40°C industrial grade

£3.38

£88.30 / £200

EPP foam + Mylar blanket + Kapton tape

Chemical heat packs on battery & GPS

PROJECT STRATOSPHERE · 2025–2026

ELECTRICAL ENGINEERING · SECTION 4.2

ELECTRONICS &

SENSOR SUITE

Grove-compatible plug-and-play sensor integration via Seeeduino Lotus Cortex-M0+

O₃

OZONE SENSOR

DFRobot Gravity IIC

Range: 0–10 ppm

Resolution: 10 ppb

Interface: I²C

Cost: £43.08

Electrochemical detection principle

PRIMARY MISSION SENSOR

GPS

GPS MODULE (Air530)

Grove — GPS Air530

Max Altitude: 50,000 m (no COCOM limit)

Interface: UART/Grove

Cost: £11.77

Real-time coordinate tracking

RECOVERY TRACKING

P

AIR PRESSURE SENSOR

Grove Barometer SPA06-003

Barometric altitude calculation

Uses Barometric Formula: P = P₀·e^(-kTmgh)

Interface: I²C/Grove

Cost: Included in kit

ALTITUDE REFERENCE

TEMP & HUMIDITY

Grove AHT20 — Industrial Grade

Operating range: −40°C to +85°C

Monitors internal heat pack efficiency

Interface: I²C/Grove

Cost: £3.38

THERMAL MONITORING

PROJECT STRATOSPHERE · 2025–2026

ATMOSPHERIC PHYSICS · SECTION 4.4

ATMOSPHERIC

SCIENCE

Vertical ozone concentration profile over Wales. Barometric Formula correlates live pressure sensor readings with altitude in real-time.

OZONE LAYER PROFILE

Target altitude: 15–35 km

Expected O₃: 2–8 ppm

Sensor range: 0–10 ppm ✓

Peak concentration: ~25 km

STRATOSPHERIC CONDITIONS

Temperature: −40°C to −50°C

Pressure: ~1% of sea-level

Air density: ~1% of sea-level

Wind: High velocity — stability critical

BAROMETRIC FORMULA

Arduino calculates altitude from live barometric pressure readings against known sea-level baseline at Gower College.

PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026

THERMODYNAMICS & POWER · SECTION 4.1 & 4.2

Dual-strategy thermal protection to maintain electronics above 0°C at −50°C external temperature.

THERMAL THREATS

LiPo Battery

Internal resistance spikes below 0°C — risk of mid-flight shutdown

Microcontroller

Potential freeze below −30°C operating threshold

GPS Module

Signal loss if temperature drops below −20°C

Condensation

Dew point risk on PCBs during ascent through clouds

PROTECTION STRATEGY

EPP FOAM INSULATION

Low thermal conductivity. Acts as conduction barrier between electronics and exterior.

MYLAR THERMAL BLANKET

Reflects infrared radiation back inward. Aerospace industry standard (NASA approved).

CHEMICAL HEAT PACKS

Exothermic reaction (4Fe + 3O₂ → 2Fe₂O₃ + heat). 5–8 hrs of active warmth for battery & GPS.

KAPTON TAPE

Stays adhesive −269°C to +400°C. Aerospace standard fastening.

SILICA GEL DESICCANTS

Absorbs moisture. Prevents PCB short circuits from condensation.

POWER BUDGET

LiPo 3.7V / 2Ah = 7.4 Wh total capacity

ESTIMATED RUNTIME

~5.9 hours continuous

Exceeds target flight duration of 1.5–3 hours

PROJECT STRATOSPHERE · 2025–2026

RISK ASSESSMENT · SECTION 4.7

RISK ASSESSMENT

Five identified key risks rated by Likelihood × Impact. All risks have mitigation strategies in place.

01 · HIGH-SPEED IMPACT

LIKELIHOOD: MEDIUM

IMPACT: HIGH

Balloon burst causes uncontrolled payload descent at dangerous speed.

Parachute deployment + EPP foam crumple zone to absorb impact energy.

ESTIMATED MITIGATION COST: £25–£45

02 · AVIATION COLLISION

LIKELIHOOD: LOW

IMPACT: CRITICAL

Balloon entering controlled airspace risks collision with aircraft.

NOTAM filed with CAA. Radar reflector attached. CAA CAP 673 compliant.

COST: £15 (reflector) + £0 NOTAM

03 · BATTERY COLD FAILURE

LIKELIHOOD: HIGH

IMPACT: HIGH

LiPo batteries fail at −50°C, cutting power to all systems mid-flight.

EPP foam + Mylar insulation + chemical hand warmers taped to battery.

COST: £5–£10

04 · ENVIRONMENTAL POLLUTION

LIKELIHOOD: LOW

IMPACT: MEDIUM

GPS tracker failure leaves CubeSat as unrecovered environmental litter.

Dual redundant tracking: LoRa radio + GSM/cellular backup systems.

COST: £70–£120

05 · PCB MOISTURE DAMAGE

LIKELIHOOD: MEDIUM

IMPACT: HIGH

Cloud penetration and dew point condensation causing PCB short circuits.

Conformal coating spray on all PCBs + silica gel desiccant packs inside.

COST: £10–£20

PROJECT STRATOSPHERE · 2025–2026

BUDGET PLANNING · SECTION 5

BUDGET

BREAKDOWN

£88.30 SPENT

£200 LIMIT

£111.70 REMAINING — 56% BUDGET SAVED

COMPONENT

UNIT PRICE

STATUS

Ozone Sensor (DFRobot)

£43.08

CRITICAL

LiPo Battery (RS PRO)

£22.10

POWER

GPS Module (Air530)

£11.77

NAVIGATION

Seeeduino Lotus Board

£7.97

COMPUTE

AHT20 Temp/Humidity

£3.38

SENSOR

Barometer SPA06-003

£0.00

SENSOR

TOTAL

£88.30

ON BUDGET

*Excludes insulation materials (EPP, Mylar, Kapton, heat packs) est. £15–£30

FINAL ESTIMATE: ~£103–£120 all-in (well within £200)

CONCLUSION & EVALUATION · SECTION 7–9

CONCLUSIONS

PROJECT SUCCESS ✓

The 1U CubeSat design meets all functional, environmental, and budget requirements. Grove plug-and-play system eliminates high-altitude soldering failure risk.

SCIENTIFIC VALUE

Vertical ozone profile data (2–8 ppm at 15–35 km) will contribute to greenhouse gas impact research over Wales. High academic and environmental relevance.

FUTURE RECOMMENDATIONS

Integrate LoRa real-time telemetry module

Add CO₂/CH₄ gas sensors

High-definition camera for visual verification

Custom 3D-printed internal chassis for mass reduction

PROJECT STRATOSPHERE · GOWER COLLEGE SWANSEA · 2025–2026 · EESW STEM CYMRU

  • cubesat
  • stem-project
  • environmental-monitoring
  • ozone-layer
  • aerospace-engineering
  • high-altitude-balloon
  • satellite-design