Space Projects:
Project Astrophotography
Astrophotography is the ability to photograph any space objects accessible through a telescope. You will soon be able to wait through the website. Telescopes with remote access (Internet telescopes). Below are the Internet addresses of telescopes with remote access and briefly indicate the conditions for working with them.
MicroObservatory — a network of telescopes with open (free) remote access, created by scientists and educators from the Harvard-Smithsonian Center for Astrophysics in the USA. its purpose is to give young people the opportunity to study the wonders of the starry sky in school classrooms or in after-school education centers.
Bradford Robotic Telescope (Bradford Robotic Telescope) are telescopes with open remote access and other equipment (such as web cameras) installed on the summit of Teide on the island of Tenerife (Canary Islands, Spain).
Slooh — a network of remote telescopes for the general public (subject to registration for a fee) began operating in 2003. in the observatory of the Institute of Astrophysics in the Canary Islands.
iTelescope.Net — a network of telescopes connected via the Internet that allows registered members to acquire astronomical images of the night sky for the purposes of education, scientific research and astrophotography. The network is open – anyone can join it (astronomy amateurs, students and even professional astronomers).
Virtual Telescope Project — a network of automated telescopes with real-time (online) remote access via the Internet to the general public.
Order an orbital launch
Regarding the systems we build and launch ourselves, we currently place up to 10 kg of payload into orbit per launch.
For example, a 1U CubeSat (a cube measuring 10x10x10 cm and weighing up to 1.33–2.0 kg) has very limited space for a payload due to its tiny dimensions. Most of the internal volume is taken up by service systems: the onboard computer, batteries, communication systems, and power boards. Nevertheless, effective equipment can still be installed within such a small volume. Here are the components most frequently fitted into 1U satellites, categorized by type:
- Cameras and Optical Instruments (Earth Observation): Miniature visible-light cameras: Used for imaging Earth from low Earth orbit (typically with low to medium resolution—ranging from tens of meters to a few meters per pixel) or for monitoring the deployment of the satellite’s own antennas or solar panels. Multispectral and IR sensors: For monitoring vegetation (NDVI index), detecting forest fires, or measuring ocean surface temperatures.
- Scientific Instruments and Sensors: Magnetometers: For measuring Earth’s magnetic field (geomagnetic research). Radiation sensors (Geiger counters, scintillators): For studying cosmic radiation, solar wind, and the Van Allen radiation belts. Plasma analyzers and ionospheric probes: For studying the upper layers of the atmosphere (the ionosphere). 3. Telecommunications Equipment: ADS-B receivers: For real-time tracking of commercial aircraft over oceans and remote areas lacking ground-based radar coverage. AIS receivers: For monitoring the movement of maritime vessels worldwide. Communication nodes (IoT / LoRa): For collecting data from ground-based sensors (e.g., mountain weather stations or desert drilling rigs) and transmitting it to a central hub. Amateur radio equipment: Repeaters (transponders) for communication between amateur radio operators on Earth.
- Experimental Technologies (In-space testing): Micro-propulsion systems: Experimental ion, plasma, or chemical micro-thrusters (e.g., water-based) for orbit correction or de-orbiting the satellite at the end of its mission. New microchips and processors: Testing commercial off-the-shelf (COTS) electronics for resilience against space radiation and the vacuum of space. Biological experiments: Sealed microlaboratories (“lab-on-a-chip”) for studying the survival of bacteria, fungi, seeds, or yeast in microgravity and radiation environments.
- Educational and Media Projects: Digital beacons: Transmitters that broadcast greetings, songs, or telemetry into space for student projects.
Project: Space Drone S-D 5
These are unmanned reusable vehicles that take off like airplanes into space without a rocket, perform tasks in orbit, and land like airplanes.
Advantages of a space drone over a rocket
Free launch
The drone can be launched from almost anywhere on the planet — from the ground, a ship, or even another orbital platform. The rocket requires complex infrastructure and launchers.
Reusability
The space drone can be returned, serviced and used again. The rocket is a disposable system that disappears after launch.
Flexibility of tasks
The drone is capable of reconnaissance, delivery of cargo into orbit, climate monitoring, communication, mapping. The missile performs only the task of delivering the payload or impact.
Economy
Reuse reduces the cost of missions. Missiles remain expensive and resource-intensive.
Manageability
The drone can be remotely redirected, changed trajectory or even landed back. After launch, the rocket follows a pre-calculated trajectory without the possibility of flexible control.
When entering the atmosphere, the S-D 5 Drone object does not heat up. If the drone falls or descends at a speed below Mach 2–3 (up to 3000 km/h), little heat is released. Effective braking.
The disadvantage of the Rocket is that during entry into the atmosphere, the rocket (or the launch vehicle) heats up very much. The temperature on its surface can reach from 1000 °C to 2500 °C and more. Air compression: The main reason is not friction, but extremely high air compression in front of the nose of the device. The rocket moves at space speed (from 7 to 11 km/s). The air simply does not have time to expand and is compressed, which causes its temperature to rise rapidly.
Comparison
| Characteristic | Space drone | Rocket |
|---|---|---|
| Launching | Any point on the planet | Only launch complexes |
| Usage | Reusable | Disposable |
| Tasks | Intelligence, delivery, communication, monitoring | Delivery or strike |
| Cost | Decreases with repeated use | High |
| Management | Remote, flexible | Rigidly set trajectory |
The space drone
Space photo: Altitude 50 km. 01.12.2024.
Project: Manned space drone
A “manned space drone” is a technological pairing of autonomous drone capabilities with crewed, human spaceflight.
Project: Genetic Terraforming of Mars and Terraforming of Venus 2027
Genetic terraforming is a method of transforming inhospitable planets into habitable ones, which involves using synthetic biology and genetic engineering to create or adapt them. They are intended to transform the chemistry of the atmosphere, climate, and soil.
Cities on Mars and Venus after genetic terraforming:
Y-Track Space navigation
Objects in orbit : Full Catalog Download
Geosynchronous (GEO): Geosynchronous (GEO) Download
Medium Earth Orbit (MEO): Medium Earth Orbit (MEO) Download
Low Earth Orbit (LEO): Low Earth Orbit (LEO) Download
Highly Elliptical Orbit (HEO): Highly Elliptical Orbit (HEO) Download
Globalstar: Globalstar Download
Inmarsat: Inmarsat Download
Intelsat: Intelsat Download
Iridium: Iridium Download
Orbcomm: Orbcomm Download
Legislation
International law
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