is technology competition organized by ESA BIC Prague in cooperation with other partners within the Czech Space Week which is focused on 4 main categories: Earth Observation; Navigation/GNSS; SpaceTech; Blockchain in Space.
teams come together to work on challenges with the goal to imagine and design innovative services and products that find every day uses for space technologies or data.
composed of 2-5 multidisciplinary participants will try to create a prototype with business potential that can be pitched in 7 minutes.
The European Astronaut Centre (EAC) is a centre of excellence for astronaut selection, training, medical support and surveillance, as well as supporting astronauts and their families in preparation for, and during, their spaceflights.
Prize by SpaceKnow
Lunch with SpaceKnow research team and a possibility of an internship + book about Deep Learning and goodies for winner of Earth Observation category
GNSS in real life – close look how aircrafts are managed in Czech airspace and how is onboard avionics used by pilots (excursion to the IATCC International Air Traffic Control Centre & to the Czech Aviation Training Centre) + unveiling the backstage of the international Prague Ruzyne Airport
Prize by GSA
Presentation at Open Days + goodies
Prize by S.A.B. Aerospace
The winner will get a chance to be present at the assembling of the upper part of Vega rocket, which will be in Brno in laboratories of S.A.B. Aerospace company build in the beginning of 2019. This Czech product will afterwards carry out over 100 satellites to the orbit. And you will be present to it! You will to touch it. And for one day you will become a part of the team that builds it.
Prize by Blockchain Republic and Space Systems Czech
20.000 CZK for winner of Blockchain in Space category
Networking and self-presentation in front of leaders of Czech start-up community and representatives of MNCs with a chance to launch successful cooperation, possibility to meet innovators and space technology enthusiasts.
Suggest a small tracker which can be use in almost every drone, which can use IoT for example to share the height and position in real-time with authority or for industry purposes.
The objective of this challenge is to develop an innovative solution, application, technology and/or service that fits or support the Smart City concept and utilises GNSS signals. Global Navigation Satellite Systems are the unique source for positioning, navigation and timing (PNT solutions). PNT, together with communication are essential parts of any solution for Smart City. The competitor shall deal with aspects as GNSS signal vulnerability, precision navigation in urban cannons, he/she shall combine communication, positioning, navigation and/or timing solutions in his/her design and shall address issues, topics & challenges within the Smart City Concept.
More information coming soon…
The objective of this challenge is to develop an innovative idea, solution, application, technology and or service that helps to improve indoor navigation. Global Navigation Satellite Systems are the unique source for positioning, navigation and timing (PNT solutions) but due to a very weak electro-magnetic signal that travel ~23 000km from a satellite and due to frequencies used its penetration inside objects is very limited. Moreover, for precise measurements and position computation a direct line of sight between the transmitting antenna of satellite and receiving antenna of receiver must be met. Any kind of signal reflection is undesirable. For precise positioning, navigation and timing inside objects (where an authentic GNSS signal is shielded) alternative technical solutions must be placed.
The competitor shall be creative in developing technological solution that complement standard GNSS based PNT for indoor navigation. New technical and or physical concepts shall be proposed, combination with any kind of signal of opportunities, combination and fusion with additional sources (e.g. inertial systems) etc. shall be utilised.
The objective of this challenge is to develop an innovative idea, solution, application, technology and or service that utilises GNSS RAW measurements on an Android based smartphones. In May 2016, Google announced the availability of GNSS RAW measurements from Android 7. For the first time, developers could access carrier and code measurements and decoded navigation messages from mass-market devices. There are several advantages of using GNSS RAW measurements on smartphones. Their use can lead to increased GNSS performance, as it opens the door to more advanced GNSS processing techniques that, until now, have been restricted to more professional GNSS receivers.
The competitor shall propose a solution that utilise GNSS RAW measurements feature and propose either a brand-new application that benefits from increased GNSS performance, incorporated advanced GNSS processing techniques in mass market devices, or improvements to already existing application that so far was not able to benefiting new RAW measurements advantages. It is suggested that competitors get acquainted with the GSA´s White Paper on using GNSS RAW measurements on Android devices – available here: (https://www.gsa.europa.eu/system/files/reports/gnss_raw_measurement_web_0.pdf)
The objective of this challenge is to develop an innovative idea, solution, application, technology and or service that helps to overcome GNSS vulnerability and improve resilience of GNSS based applications against intentional and/or unintentional radio-frequency interference (RFI) events. These events are generally known as jamming, spoofing and meaconing. Due to a very weak electro-magnetic signal that travel ~23 000km from a satellite (GNSS signal when reaches the Earth surface has minimum power on ground -155dBW), such signals may be easily compromitted, shielded, interferenced or somehow destructed. Nowadays, GNSS based PNT is used not only in transportation, but in telecommunication, energy distributions grid management, bank and stock exchange applications and many more different market economies. These all relies on high accuracy, precision and/or time synchronisation.
The competitor shall propose solution, techniques that either detect and identify RFI presence in space or eliminate negative effect of RFI on PNT solution on any layer of processing chain and/or propose solution for RFI detection and positioning of the RFI source in space.
Your innovative idea how to use GNSS.
In many cases it is difficult to derive Land Use from Land Cover directly. For instance, say we have land cover map of a region and want to derive land use map of urban areas. So we use land cover as a mask to get urban areas. In this particular case we mask Sentinel-2 image with the mask of urban areas. And after we develop suitable image classification of this urban areas that would allow us to tell where are industrial areas, where commercial areas, where residential areas, where recreational areas etc. The members of the team need to decide on the pilot area. Probably it is good to select a cloudless area, so that it is easy to find cloudfree image from Sentinel-2. As an output there should be described workflow and classification algorithm used.
The idea is to create an application that will help people to plan a trip to the seaside based on Copernicus (Copernicus Marine Environment Monitoring Service, Copernicus Atmosphere Monitoring Service, European Centre for Medium-Range Weather Forecasts) data and possibly other open datasets. The physical variables that would be nice to analyze are following: temperature of air and sea, UV index, water and air quality, air velocity and humidity. Except this factors there could be also others such as proximity and specific points of interest taken into account. As a result there should be created a prototype of the application.
Autonomous inter-city transport is one of five research pillars defined by the European Commission for the years to come. Whether it is inter-city or intra-city transport, mass or personal, the decision system must orientate itself within urban environment. One type of data entering the decision process is the data acquired by the vehicle. Another type of data might be data already existing – whether we think of data from the cadastre, RUIAN, OpenStreetMap, statistical data, transport data, crowd-sourcing data, satellite data, etc. The aim of this call is to make publicly available information relevant for the decision-making system in autonomous car systems.
Being able to detect various kind of ships from different data sources is still very important task. Goal of this challenge is to come up with a novel way how to detect ships across different types of satellite imagery.
In recent years there was a significant progress in image enhancement techniques in computer vision. Goal of this competition is to come up with some interesting solution in the field of super-resolution, automatic image generation, image augmentation or image in-painting applied to the satellite imagery.
Spaceknow currently provides variety of APIs for satellite imagery. Goal of this challenge would be to create an application that leverages SpaceKnow APIs. For example we can imagine applications such as satellite imagery availability world-wide heat-map.
Currently, there is huge amount of different types of satellite data as well as other types of geo-referenced data eg. Open Street Maps or social networks. Goal of this challenge is to build something cool combining different types of data.
The aim of the project is to create prototype of the application that would help a person to find a suitable beach for the relaxation on the seaside. Important criteria that could influence the user’s choice need to be defined. After that the team would create application mockup and subsequently the functional prototype.
It is encouraged to use the following datasets:
The task is to use Sentinel-2 imagery and OpenStreetMap dataset (extract of selected land use objects – stadiums, airports, ports etc. – to create training and validation samples. And then after – run convolutional neural network deep learning to create a model to identify those features on other images. After model is created validate it on other images. As a tool for creating model one could use: https://www.tensorflow.org/, Sentinel-2 imagery is available at Copernicus Open Access Hub: https://scihub.copernicus.eu/dhus/#/home and OpenStreetMap datasets are available at: https://www.geofabrik.de/data/download.html.
Bring into VR problem of close approach between space debris and satellites so that wide public is aware of changing the orbits of satellites and complications which this brings.
Slow down initial after-launch satellite rotation using only magneto torquers and, for example, B-dot algorithm. Build real cubesat model, create flight firmware, realize 1D demonstration.
Measure real radiation using cubesat sensor. Map measurements to earth surface with use of current VZLUSAT two line elements set. Chart data in 2D and / or 3D.
Create cubesat motion model with knowledge of motion equations and two line elements set. Visualize model results in 3D, simulate on-board sensors outputs: photodiodes and / or magnetometer. Compare with real orbital data
Show Earth as it was never shown before – become an artist. Process large images and show to the world downunder.
More information coming soon…
Invent the future of small satellites or new payloads for drones and demonstrate how it will bring value to customers.
Invent new possibilities how can be use swarm drones in industry and the way of their cooperation and type of their operations.
Create a proposal of a new drone test polygon in Czech Republic where will be testing new drones and their use for classic operations and mainly for new types of operations before deploying them into urban traffic, such as flying beyond visual line fo sight, delivery, cargo drones and urban drone transport.
Your innovative idea
Initially distributed ledger technologies rely on blockchain based on proof-of-work mechanism. It effectively solves the double spending problem but consumes too much power and cannot efficiently scale. Distributed ledger can be based on other consensus mechanisms. Find a new consensus mechanism, using the properties of assets in orbit or distributed in space that – at least for some applications – surpasses current consensus mechanism and create its prototype or simulator.
Space agencies, like the European Space Agency, generate a huge amount of know-how, IPR and related items. It is possible to store them in a database or several databases, but such an approach requires to solve all the issues the centralized database brings. Propose and implement a prototype of a distributed ledger powered system that enables efficient storage and access to a decentralized know-how database. It needs to provide features for access control, transparency of access, efficient search, an overview of granted licences, royalties resolution and additional features making it better than existing solutions.
Safety and security belong to the most important aspects of modern society. Propose a blockchain solution that prevents security risks or helps to mitigate consequences by using or collecting additional metadata from space infrastructure or in-situ measurements. Examples of the events prevented, or consequences mitigated can be:
However, the challenge is not limited to the enumerated examples. We are seeking solutions that will promote safety and lower risks for everyone across all aspects of current and future society.
For example, assessing storm damages, flood affected areas, progression & forecasting forest fire development, and analyzing potentially vulnerable areas rely on and benefit from accurate EO (Earth observation) data. Typically, most damage assessments are done by physically visiting the site of interest. Impact areas can be vast and consist of multiple locations. This is time consuming and relatively costly and most of all, customers have to wait, at worst, for months on settlements being issued.
Access to DB
Certification of time – and change from before and after
Collected weather data
Trust of image data at time/location of incident claim.
Your innovative idea how to use blockchain.
Create proof of concept or prototype of a service that uses satellite data for smart contracts and robe the extension of blockchain technologies into space and the use of satellite data for executing smart contracts. Projects, such as Blockstream satellite (sidechains), EtherSat or Bitcoin Satellite Nodes are already probing the future of blockchain in space and creating global decentralized data markets and automated connections used in the first space-crypto-currencies. These new services broadcast real-time blockchain data from satellites, but can satellites data serve smart contracts and applications beyond ideas, such as “sidechain”? What are other unexplored opportunities and challenges in human-satellite-blockchain interactions? How to connect individual or networked, low orbit (LEO), orbit (GEO, MEO, HEO) or high altitude satellites, nanosatellites, picosatellites, drones and unmanned aerial vehicle (UAV) with various blockchain platforms (Ethereum, Hyperlegder)? How to execute transactions and smart contracts with the help of similar data? Will satellites and drones work as notaries in the future? Can hand gestures, special body movements become rituals triggering smart contracts when observed from space? Can we use land art or garden design to execute smart contracts via video and image feeds, GPS data etc.? How can we use such ideas and scenarios in land management, agriculture, and other monitored landscapes? How can we utilize GPS, infrared, video, image and other signals and data in blockchain applications in the future?
Learn and explore data feeds and signals utilized by various satellites, drones, UAV and probe how they can be used on existing blockchain platforms.
Use design methods to identify creative and innovative ideas for utilization of satellites, drones, UAV in blockchain applications in a variety of contexts (use of data from satellites used in research, weather, communications, navigation, earth observation, military etc.).
Create a prototype or a proof of concept that connects specific blockchain platform with satellites, drones or UAV data, feeds, signals.
Define scenario and test your prototype to explore further UX or HCI issues in human-satellite-blockchain interactions.
Denisa is a philosopher and designer that experiments with various creative strategies of public engagement in emerging science and technology issues. She uses design methods (UX, critical design, design fiction, future scenarios, participatory design), ethnography and prototyping to research STS (Science, Technology and Society) issues. She spent the last decade as an Assistant Professor at the National University of Singapore, Senior Lecturer of Future Design in Prague College, and most recently as a Visiting Assistant Professor in Arizona State University, where she continues to cooperate as an affiliate member with the Centre for the Study of the Future. She is joining the BISITE group as a Marie Curie Senior Fellow to research Distributed Ledger Technologies (blockchain) and applications (smart contracts).
David is dreamer who loves to peer over horizon, visualize it in detail what the future might hold, and this detailed picture keeps pulling me forward, into tomorrow. In a third decade of working with and helping people to grow, be successful and happy. His focus is on the intersection between people and technology to create innovative solutions that generates new sustainable businesses.
Jacopo is a business consultant in the satellite navigation field. As a contractor for the European GNSS Agency (GSA) is involved since 2014 in the market adoption of Galileo in the mass market domain, including Location based services and IoT.
Filip is Marketing & PR Manager at Fujitsu. Started as a journalist in Týden magazine. As a foreign desk journalist, he told stories from worlds thousands miles away. He loves new technologies and in Fujitsu he has direct line to vast pool of innovative Japanese ideas.
Tomas is Senior Data Scientist at Spaceknow. Expertise in image processing and advanced imaging systems. Formerly Computer Vision Scientist at Swiss Federal Institute of Technology in Lausanne. PhD in Computer Science. Publications in top ranked scientific journals, co-inventor of an international patent.
13:30 Participants registration and small refreshment
14:00 Welcome speech by organizers and partners + presentation of challenges by mentors
15:00 Workshops to help you tackle the technology and challenges by Category guarantors
15:45 Building the teams and pitching your idea
16:30 Hacking time
Annotation of the workshop
There are many things that could possibly go wrong when launching a space rocket. It is the same with startups. The best way how to avoid them is to learn from past. We will show you a few steps that usually leads to a failure so you don’t have to try them yourself.
22:00 Excercise with Twiner
14:30 Pitch training
16:30 End of hacking and cofee break
17:00 Presentation for the jury
19:00 Award ceremony, Farewell cocktail
Each team will present its project to a jury during a 7-minute presentation which will take place at the end of the competition. The projects are assessed according to FIVE criteria:
Phone: +420 602 569 089 (Jana Šmotková)