PVT-GAMERS – “Improved Pressure-Volume-Temperature Gauging” Method for Electric Propulsion Systems

PVT

PVT-GAMERS – “Improved Pressure-Volume-Temperature Gauging” Method for Electric Propulsion Systems

PVT

In the new era of electric propulsion, where propellant tanks are larger and missions are longer, the accuracy of classic mass retrieval methods has become obsolete. The knowledge of the exact amount of remaining propellant is critical for optimising a spacecraft’s lifespan. A team from Luleå University of Technology has developed the “Improved Pressure-Volume-Temperature Gauging” Method. This method uses existing technology readiness levels (TRL 9) sensing technologies and it improves the physical modelling of the available propellant as well as the accuracy of the classic Pressure-Volume-Temperature (PVT) retrieval techniques. Thanks to smart use of the spacecraft’s telemetry, its implementation will help spacecraft propulsion systems providers, spacecraft operators, telecommunication companies, and space agencies to increase the lifespan of space missions.

Benefits:

  • More accurate gauging of spacecraft propellant mass
  • Technology scalable to any propellant tank size
  • Extension of the lifespan of space missions and their profitability
  • Low-cost implementation using the existing spacecraft telemetry systems
  • Propellant control system as a transferable technology to any one-phase pressurised vessel in any sector
Winner

Luleå University of Technology (LTU)
Luleå, Sweden
Prof Dr María-Paz
www.atmospheres.research.ltu.se
maria-paz.zorzano.mier@ltu.se

logos

FISHinSPACE – Zebrafish Larvae to Study Vertebrate Physiology in Space

FISHINSPACE

FISHinSPACE – Zebrafish Larvae to Study Vertebrate Physiology in Space

FISHINSPACE

The Zebrafish larvae are the ideal model to study vertebrate physiology in space and to transfer the results to humans. In the “FISHinSPACE” project, the GIGA – Université de Liège will send a platform for microscopic observation of such zebrafish larvae into space. The device for automatic observation of individual larvae is a cheap and highly efficient system model for studying an entire living organism in space conditions. The biggest benefits of this model are the optimisation of human life in an extreme environment, and the exploitation of the space environment to research common health issues.

Benefits:

  • Zebrafish larvae are highly suitable to study vertebrate physiology under space conditions
  • Exploiting the space environment as a proxy for researching common health issues, such as aging, osteoporosis, or blood circulatory problems
  • Space flight market will benefit as life in extreme environments becomes easier
  • Pharmaceutical industry will benefit from an adaptable platform to develop and test new medicines
winner

Université de Liège GIGA-Research
Liège, Belgium
Dr Marc Muller
www.giga.uliege.be
m.muller@uliege.be

logos

GIMOD – Graphene Interferometric Modulation Displays for VR/AR

gimod

GIMOD – Graphene Interferometric Modulation Displays for VR/AR

gimod

Future displays in astronaut helmets will need to integrate Virtual/Augmented Reality (VR/AR) capabilities for training and operation purposes. The screens of electronic devices with standard technologies consume the most power. Reflective-type displays (e.g. e-book readers) consume little power although current technologies cannot provide colourful images nor fast refresh rates to reproduce videos. Graphene Interferometric Modulation Displays (GIMOD) unite the advantages of the reflective-type technology (low power consumption) with those of standard technologies (video capability), in order to cater to the display requirements in future VR/AR visors. The SCALE project, implemented jointly with Gesellschaft für Angewandte Mikro- und Optoelektronik mbH (AMO) and Graphenea S.A., will commercialise the graphene technology to lead the new semiconductor industry of 2D materials.

Benefits:

  • Reflective-type display technology with high contrast in bright environments
  • Ultra-high resolution (>2500 ppi) with low power consumption
  • Ultimate refresh time (>1000 Hz)
  • Caters to the requirements of portable VR/AR visors
winner

AMO GmbH
Aachen, Germany
Dr Santiago Jose Cartamil Bueno
www.amo.de
santiago.cartamil@gmail.com

logos

SPUTNIC-Piezo

airbus finalist
2nd Place Airbus Challenge

SPUTNIC-Piezo: Spacewheel Unbalance TerminatioN with Intelligent Control of Piezoactuators

airbus finalist

Manufacturing tolerances and the related imbalances in reaction wheels lead to vibrations in satellite structures. These vibrations are detrimental to the performance of sensitive payloads such as telescopes and cameras, which can produce poor image quality as a result (see illustration). SPUTNIC technology combines piezoelectric actuators with conventional ball-bearings to support rotating wheels. Since the unbalanced wheel is allowed to spin on its main axis of inertia, SPUTN IC’s sophisticated control algorithm nearly eliminates all imbalance vibrations. This innovation not only reduces the stress on components to increase their useful life; it also enables sensitive payloads to reach their full potential.

Benefits:

  • Eliminates vibrations in reaction wheels
  • Enables sensitive payloads to achieve optimal performance
  • Simple, lightweight structure with low energy consumption
  • Failsafe design enables reaction wheels to remain functional even when system is inactive
finalist picture

TU Darmstadt – Institute lor Mechatronlc Systems in Mechanical Engineering (IMS)
Darmstadt, Germany
Stefan Heindel
www.ims.tu-darmstadt.de
info@ims.tu-darmstadt.de

IMS

Silent Running – Intrinsic Structural Vibration Reduction for Carrier Rockets Using Metamaterials

silent running

Silent Running – Intrinsic Structural Vibration Reduction for Carrier Rockets Using Metamaterials

silent running

When launching and flying a rocket, vibrations must be reduced to such an extent that they do not cause damage to the payload and structure. In the “Silent Running” project, MT Aerospace and Fraunhofer LBF are using carbon-fibre-reinforced plastics (CFRP) with metamaterials, in order to reduce the vibrations that affect on the payload and structure during acceleration. Metamaterials combine the benefits of active and passive vibration reduction and are used, in the automotive industry, amongst others. “Silent Running” specifically targets to minimise vibrations in the upper stages of future Ariane carrier rockets. The innovative vibration dampers should be integrated into the load-bearing structure of the carrier rockets, so that the heavy damping elements conventionally used are no longer required.

Benefits:

  • Efficient rocket stages and complex payloads with longer service lives by minimising vibrations in the stage structures
  • Efficient rocket stages and complex payloads with longer service lives by minimising vibrations in the stage structures
  • Transporting of satellites with effective payloads and thus improved payload/cost ratio per launch
  • Spin-off into the automotive, aerospace and shipping industries
Sara Perfetto

Fraunhofer LBF
Darmstadt, Germany
Sara Perfetto
www.lbf.fraunhofer.de
sara.perfetto@lbf.fraunhofer.de

logos

MESA

MESA

MESA: lmproving Europe's Access to Space

MESA

In the next decade, Europe will need a replacement for the International Space Station (ISS) – a new environment in which payloads can be tested in microgravity and the extreme conditions of space. Levity Space System has set its sights on providing public and private institutions with frequent, affordable access to space. MESA – Europe’s first modular and stackable satellite structure – is designed to facilitate microsatellite launches, in-orbit demonstrations, and the hosting of experiments. lt will be launched as a secondary payload between the upper stage and primary payload of the Arianespace launch vehicles VEGA-C+ and -E.

Benefits:

  • Flexible, modular structures for space transports
  • Sustainable R&D in space in the post-ISS era
  • Turnkey launch solutions and microsatellite deployment in constellations
  • MESA subsystems capable of transporting technologies and experiments directly from labs into space

Levity Space Systems
Aachen, Germany
Andres Lüdeke
www.levity.space
andres.luedeke@levity.space

Levity

MPBUS – Modular Power BUS for Space Vehicles

MPBUS - Modular Power BUS for Space Vehicles

MPBUS – Modular Power BUS for Space Vehicles

MPBUS - Modular Power BUS for Space Vehicles

MPBUS is a decentralised power distribution architecture for spacecrafts, capable to transmit data over the same two power wires, allowing both weight reduction and cost reduction, due to harness design, assembly and integration tasks simplification.

  • Two front ends, for power sources and for consuming energy devices
  • No Power Distribution Unit (PDU), each device has its own power/load management
  • Smart Battery Management: on-board computer can decide which of the distributed batteries is active
  • MPBUS branches can be jettisoned (launchers stages)
  • Up to 3 Mbps per data comms

 

JMP ingenieros Sl
Eduardo Remìrez
eduardo.remirez@jmpingenieros.es

OCULUS – Optical Coatings for Ultra Lightweight Robust Spacecraft Structures

OCULUS - Optical Coatings for Ultra Lightweight Robust Spacecraft Structures

OCULUS – Optical Coatings for Ultra Lightweight Robust Spacecraft Structures

OCULUS - Optical Coatings for Ultra Lightweight Robust Spacecraft Structures

Low weight as well as high durability and accuracy for mirrors of space telescopes? New material solutions have great potential to make it happen! The objective is to combine innovative production processes of carbon-fibre-reinforced plastic (CFRP) structures and reflective coatings. By this means, lightweight optical mirrors can be developed for aerospace applications (e.g. remote sensing and astronomy) that exhibit versatile advantages over conventional mirrors:

  • Thermal stability (no cooling necessary)
  • 80% to 90% weight reduction
  • Modularisation in production (large quantities using one tool)
  • Smart coatings enable multifunctional surfaces
  • Process transferable to mechanical engineering industry

Prof Enrico Stoll
e.stoll@tu-bs.de

INVENT GmbH
Stefan Linke
stefan.linke@invent-gmbh.de

Fraunhofer IST
Dr. Andreas Dietz
andreas.dietz@ist.fraunhofer.de

Airborne – Realising affordable satellite structures

Airborne - affordable structures

Airborne – Realising affordable satellite structures

Airborne - affordable structures

New Space requires drastic cost reduction in spacecraft manufacturing and unprecedented production volume.
Airborne will redefine the process for satellite panel manufacture to cut down to a fraction of today’s cost. Applying disruptive process technologies on highly automated production lines will assure stable quality at high throughput.

Airborne’s smart approach to automation has the following advantages:

  • Low capex
  • Flexible
  • Scalable
  • Transferable
Airborne Aerospace

AIRBORNE AEROSPACE
Sandor Woldendorp IMSc)
s.woldendorp@airbome.nl

Satellite development as cyber-physical systems

Satellite development as cyber-physical systems

Satellite development as cyber-physical systems

Satellite development as cyber-physical systems

Innovative development framework for small satellite industry, utilising advanced complexity handling techniques adapted for use in both cyber and physical domains. The advantages:

  • Providing higher reliability end products with lower costs
  • Cloud-based framework, integrating wide range of tools
  • Agile and model-based/-driven development approaches
  • Automated consistency checks, overall validation and verification support
  • Reuse and easy adaptation of system modules
ReaktorSpace

Reaktor Space Lab Oy

Tuomas Tikka
tuomas.tikka@reaktor.com

Nemania Jovanovic
nemanja.jovanovic@reaktor.com