Space1 Industries, a division of United Space Technologies, is a bold new space venture, taking you safely into space with futuristic technology. The mission - to the moon, planets and new worlds!
Showing posts with label diy. Show all posts
Showing posts with label diy. Show all posts
Wednesday, February 19, 2020
Space1 Artificial Planet Power Generation
Space1 Artificial Planet Power Generation
Enter the new man-made planet created by SPACE1 to enable Earthlings to become a multiplanetary species and experience the power of the future
Spectacular SPACE1 2020 power generation hub and network provide all energy requirements for the city, its inhabitants, and global planetary operations. Power reserves are designed to function for the evolutionary life of the planet and are rechargeable. Power in 2020 has beaming, and can be projected from one location to another. Experiments will proceed in beaming power from the Earth to the artificial planet along with use of power storage units. Recharging power can come from the sun or other stored power sources.
Space1 DIY Planet City
![]() |
| The city has infrastructure attached to the planet's ulterior Duridium foundation |
After a planet is constructed, a futuristic planet city is next for the colonists
This is a SPACE1 2020 high technology city adapted to the requirements of resident high tech citizens that are now the first off-world multiplanetary species to exist for the first time in the course of human history. The DIY planet city includes power distribution, habitation, communications, and a means of mobility.
Monday, February 17, 2020
Space1 Planet XTREME
SPACE1 has developed Planet XTREME
The SPACE1 Planet XTREME is an experimental DIY man-made planet that lofts into space via the massive SPACE1 Super Rocket and lives out its evolution with space colonists inside the global planetary sphere according to the rules of infinitesimal geometrics and the compression of space time.
Labels:
artificial,
diy,
humanoido,
manmade,
multiplanetary,
planet,
space1,
xtreme
Sunday, February 16, 2020
Space1 DIY Planet
Artificial planet designed by Humanoido is lofted into space by the massive and currently the largest SPACE1 rocket - the Super Rocket. Above, as the planet would appear to human eyes if viewed in infrared light, details emerge from the planetary surface and surroundings.
Creating a New DIY Planet
Creating a new planet is not all that difficult, says Humanoido,
the Founder of SPACE1
All you need is some time (7 years) and to develop new technology (physically small shrunken astronauts and space time compression). Add to the list, a powerful rocket and customized fairing to thrust the planet up into space and the space communications means as needed. Sprinkle in the initial number of people for the colony and add resources. Remember to take time to develop the planet and track the new planetary space colony.The large semi-circular geometric shape detail is the massive global planet hatch where people and resources and entered into the inside of the planet and the massive plate is sealed. The blue area is colder while the red and yellow are warmer areas. Note the circumferential atmosphere and how the air external to the globe is warmer than sphere sections.
The spherical global planet is invented from SPACE1's Space Duriniam, a space durable hardened black rubberized compound that forms the planet. It's inflated with air and coated with a colored insulating surface to keep in moderate heat and warmth. The planet has free circular rotation and gravity.
Resources and colonists live on the inside situated along the Uterior real estate, shielded from harmful radiation, meteoric impacts, and other space anomalies. Communications can penetrate the Space Duriniam. The idea is for the artificial planet to survive close to the Earth where initially it can keep in touch with its parent planet.
Creating a New DIY Planet
Creating a new planet is not all that difficult, says Humanoido,
the Founder of SPACE1
All you need is some time (7 years) and to develop new technology (physically small shrunken astronauts and space time compression). Add to the list, a powerful rocket and customized fairing to thrust the planet up into space and the space communications means as needed. Sprinkle in the initial number of people for the colony and add resources. Remember to take time to develop the planet and track the new planetary space colony.The large semi-circular geometric shape detail is the massive global planet hatch where people and resources and entered into the inside of the planet and the massive plate is sealed. The blue area is colder while the red and yellow are warmer areas. Note the circumferential atmosphere and how the air external to the globe is warmer than sphere sections.
The spherical global planet is invented from SPACE1's Space Duriniam, a space durable hardened black rubberized compound that forms the planet. It's inflated with air and coated with a colored insulating surface to keep in moderate heat and warmth. The planet has free circular rotation and gravity.
Resources and colonists live on the inside situated along the Uterior real estate, shielded from harmful radiation, meteoric impacts, and other space anomalies. Communications can penetrate the Space Duriniam. The idea is for the artificial planet to survive close to the Earth where initially it can keep in touch with its parent planet.
Labels:
artificial planet,
diy,
humanoido,
planet,
space1
Tuesday, May 21, 2019
Space1 Rocket Ratio Multiplexor
SPACE1 Rocket Ratio Multi-
plexor
RRM
SPACE1 will order many parts this week to build a Rocket Ratio Multiplexor invention to blast deeper and farther into space than ever before. This is not your standard MUX.
The Rocket Ratio Multiplexor mounts on the new Electro-dynamic Safety Rocket with the Electromag engine to pump out the highest possible performance with the given EM particle design.
The RRM is configurable per specific space mission, with given moons and planets in the Solar System. Use of the RRM will open up the possibility of deep space missions that go very deep in the SOL system, and possibly beyond the entire Solar System. The Kuiper Belt of tens of thousands of asteroids rich with metals and materials could be within reach and ultimately become a very lucrative venture. This could happen in our life time if all goes according to schedule.
plexor
RRM
SPACE1 will order many parts this week to build a Rocket Ratio Multiplexor invention to blast deeper and farther into space than ever before. This is not your standard MUX.
The Rocket Ratio Multiplexor mounts on the new Electro-dynamic Safety Rocket with the Electromag engine to pump out the highest possible performance with the given EM particle design.
The RRM is configurable per specific space mission, with given moons and planets in the Solar System. Use of the RRM will open up the possibility of deep space missions that go very deep in the SOL system, and possibly beyond the entire Solar System. The Kuiper Belt of tens of thousands of asteroids rich with metals and materials could be within reach and ultimately become a very lucrative venture. This could happen in our life time if all goes according to schedule.
Thursday, May 16, 2019
Space1 Moon Camera
Designing & Constructing
a Professional Digital Moon Camera for a SPACE1 Lunar Landing
by Humanoido
Rocket: Electrodynamic Spacecraft
Drive: Electromag Engine
Mission: Moon Landing
Action: Develop a Super Moon Mission Camera
Overview: Humanoido is building a precision Moon camera to take down to the Moon’s surface. First Step: Purchasing digital camera design optics for the Moon Camera construction
Building a Moon Camera
Optics $18,289
Optics $18,289
The first head step, after the design, is the multiple Optics train purchase. This is a hand grenade size package for disassembly - Product style: Hyperion dual 1.25/2 barrel mode, Clickstop Mark IV Zoom ultra precision 7 lenses set element continuous lensing optics for attenuating 8, 12, 16, 20, 24 mm parfocal with M54, FOV 58-60 deg. w/12-15 mm eye relief w/Hyperion phantom group multi-coatings, w/internal zoom actuators, greaseless mech for operation under harsh space and lunar conditions, lens grouping actuator sealed, M43 threading, adaptable to afocal, adapter ring 2”x24 tpi threading. Direct attach removable front barrel. For developing AFOCAL interface to electronic CCD element array. $289 Ultra Optics Lenses, the optics set includes the above, but does not include the main portions of the spacecraft rocket window and optics. These parts add another $18,000.
Optical Reducing Array $1,200
As the rocket spacecraft approaches closer and closer to the lunar surface, the optical config needs to reduce the massive encompassing view. This is accomplished with the Optical Reducing Array activating within the optical train at the required time.
Precision Machined Adapter Set $5,500
The adapter set is precision machined from metal to interface to the camera and mounting and includes multiple elements.
CCD Charge Coupled Device Array $8,249
This is the image CCD sensing chip. The spectral sensitivity must match the lunar surface ambient. The chip is color capable.
Electronics Interface Board $5,999
This board connects the camera to the computer.
Cable sets & E-couplers $424
Cables connect the camera to the computer, monitors, etc.
Wavelength Moon Filter Optics Set $2,289.99
Special lunar wavelength filters are needed for different lunar specifics.
Camera Housing $1,800
The camera housing includes the CCD chip, the mounting front plate, the holder of the optics, gimbals etc.
High Speed Rocket Computer & LED Monitor $6,999
The computer must be very fast to keep up and the monitor must be ultra high resolution and all very light weight for a Moon trip.
Misc. Interfacing $8,000
Interfacing is multiple and makes the connection of all devices as needed.
Moon Camera Total $58,749.99
Wednesday, April 3, 2019
Space1 DIY Space Tourism
DIY SPACE TOURISM
SPACE1 continues development of a low cost DIY package for space travel. This will bring down the cost of space travel by leaps and bounds making it affordable by almost everyone.
As envisioned by Humanoido, the hobby space package would allow one to set up and conduct their own space missions on a repeat basis. The package might include a kit of rocket parts, space suit, space parts, and space computer. Stay tuned for developments and availability.
SPACE1 continues development of a low cost DIY package for space travel. This will bring down the cost of space travel by leaps and bounds making it affordable by almost everyone.
As envisioned by Humanoido, the hobby space package would allow one to set up and conduct their own space missions on a repeat basis. The package might include a kit of rocket parts, space suit, space parts, and space computer. Stay tuned for developments and availability.
Monday, November 12, 2018
Space1 DIY Fish Cam
How to Build a DIY Fish Cam
Introduction
The fish cam is made from a discarded discontinued 8-bit 640x480 logitech computer cam with an adjustable lens. Good images of fish are obtained by turning the lens to the shortest possible focal length which is about 3 inches. This images fish swimming about 3-inches into the tank. However, the field of view is much too limited and one must wait some time for a fish to swim into focus.
The color USB web camera is made for Microsoft Windows on a PC computer. The third party Mac software shows 640x480 photos using a 1,300,000 pixel CCD. It has a 2.6-foot cord built in. Macam software can be downloaded for free and will include live views, adjustments and photo capture.
Modification
The cam has a plastic case with a swing down lid that gets in the way of mounting to aquarium. As the cam was old, it was easy to snap off the lid thus creating greater clearance between the cam and the face of the glass aquarium for easy mounting using 3M duct tape. Fig. 2
Making the Cam Mount
The Cam fits into a discarded 2.5-inch diameter plastic water bottle trimmed 4-inches from the bottom and with a semicircular cutout for the lens. Slide the mount back and forth in front of the tank and adjust the cam lens focus for each distance.
Improving the Depth of View
To improve the depth of view to capture sharper images of fish beyond the 3-inch range, an aperture pin hole stop was placed over the lens. The aperture stop successfully improved focus across a larger depth of view however it also caused significant vignetting, thus limiting the FOV field of view to a small circle in the center of the frame.
Larger Field of View
To improve the cam significantly, create a much larger FOV, and maintain a large field depth focus, an extra lens was added to the existing cam lens. At a cost under US$10, the 37mm 0.45x 49UV Super Wide Angle Phone Lens was configured and clipped onto the front of the cam over the lens center. Readjust the cam lens for focus each time the cam is moved. The result is a dramatic improvement, showing more fish throughout most of the aquarium in focus.
Attaching the Modified Cam
There are two options. One, attach the modified cam with the extra lens direct to the glass front of the aquarium with duct tape. This will show the appearance of larger fish in the direction of where the cam is aimed. The second option is to mount the cam farther away from the front of the tank. This can give a TV-like view of the entire aquarium for watching all the fish at the same time. Again, the original cam lens will need to be refocused for the sharpest view.
Using the Fish Cam
While the Fish Cam can provide hours of entertainment and is loads of fun, it can also be psychological beneficial with its mood calming, and scientifically useful. The Fish Cam window can be placed anywhere on your work computer screen like a real time miniature aquarium. The cam can photo, video record and monitor a community of fish and analyze swarming patterns, behaviors, eating patterns, and identify fish by their analyzed markings. It can identify healthy or sick fish and study the condition of the plants and tank. It can be used to create a digital photo book and show growing fish and plants over time. Get to know your fish closeup. If the aquarium is a small nano tank, the Fish Cam electronic window lifts up the image of the tank and fish to a very convenient location. Watching the live window on a Mac with Macam is spectacular as the top half of the tank is a moving rippling reflection of the water and fish below.
Going Further
Ironically the best views are with the fish-eye lens. However, the wide angle fish eye lens may be reconfigured as a macro lens to take microscope-like images. This can be useful for examining fish and plants close-up though it may require special mounting.
Links
Macam Download
http://webcam-osx.sourceforge.net/
https://sourceforge.net/projects/webcam-osx/
Logitech Cam
http://www.novatechgadgets.com/loquwefornow.html
https://www.pocket-lint.com/laptops/reviews/logitech/67375-logitech-quickcam-notebooks-pro-webcam
http://www.zdtronic.com/WEBCAMS/LOGITECH-961240-0403-QUICKCAM-PRO-USB-WEBCAM-FOR-NOTEBOOKS.html
https://www.cnet.com/products/logitech-quickcam-for-notebooks-pro/specs/
![]() |
| Fish Cam with stock lens prefocused |
The fish cam is made from a discarded discontinued 8-bit 640x480 logitech computer cam with an adjustable lens. Good images of fish are obtained by turning the lens to the shortest possible focal length which is about 3 inches. This images fish swimming about 3-inches into the tank. However, the field of view is much too limited and one must wait some time for a fish to swim into focus.
The color USB web camera is made for Microsoft Windows on a PC computer. The third party Mac software shows 640x480 photos using a 1,300,000 pixel CCD. It has a 2.6-foot cord built in. Macam software can be downloaded for free and will include live views, adjustments and photo capture.
![]() |
| Original Logitech Cam |
The cam has a plastic case with a swing down lid that gets in the way of mounting to aquarium. As the cam was old, it was easy to snap off the lid thus creating greater clearance between the cam and the face of the glass aquarium for easy mounting using 3M duct tape. Fig. 2
Making the Cam Mount
The Cam fits into a discarded 2.5-inch diameter plastic water bottle trimmed 4-inches from the bottom and with a semicircular cutout for the lens. Slide the mount back and forth in front of the tank and adjust the cam lens focus for each distance.
![]() |
| Pinhole increased depth but with vignetting |
To improve the depth of view to capture sharper images of fish beyond the 3-inch range, an aperture pin hole stop was placed over the lens. The aperture stop successfully improved focus across a larger depth of view however it also caused significant vignetting, thus limiting the FOV field of view to a small circle in the center of the frame.
![]() |
| Added fish eye phone lens for a wide FOV |
To improve the cam significantly, create a much larger FOV, and maintain a large field depth focus, an extra lens was added to the existing cam lens. At a cost under US$10, the 37mm 0.45x 49UV Super Wide Angle Phone Lens was configured and clipped onto the front of the cam over the lens center. Readjust the cam lens for focus each time the cam is moved. The result is a dramatic improvement, showing more fish throughout most of the aquarium in focus.
![]() |
| TV-like view of entire aquarium is amazing |
There are two options. One, attach the modified cam with the extra lens direct to the glass front of the aquarium with duct tape. This will show the appearance of larger fish in the direction of where the cam is aimed. The second option is to mount the cam farther away from the front of the tank. This can give a TV-like view of the entire aquarium for watching all the fish at the same time. Again, the original cam lens will need to be refocused for the sharpest view.
![]() |
| Live window is spectacular to watch |
While the Fish Cam can provide hours of entertainment and is loads of fun, it can also be psychological beneficial with its mood calming, and scientifically useful. The Fish Cam window can be placed anywhere on your work computer screen like a real time miniature aquarium. The cam can photo, video record and monitor a community of fish and analyze swarming patterns, behaviors, eating patterns, and identify fish by their analyzed markings. It can identify healthy or sick fish and study the condition of the plants and tank. It can be used to create a digital photo book and show growing fish and plants over time. Get to know your fish closeup. If the aquarium is a small nano tank, the Fish Cam electronic window lifts up the image of the tank and fish to a very convenient location. Watching the live window on a Mac with Macam is spectacular as the top half of the tank is a moving rippling reflection of the water and fish below.
![]() |
| Fish Cam with extra fish-eye lens attached |
Ironically the best views are with the fish-eye lens. However, the wide angle fish eye lens may be reconfigured as a macro lens to take microscope-like images. This can be useful for examining fish and plants close-up though it may require special mounting.
Links
Macam Download
![]() |
| The Fish Cam has a simple recycled bottle mount with clip on fish eye mobile lens |
https://sourceforge.net/projects/webcam-osx/
Logitech Cam
http://www.novatechgadgets.com/loquwefornow.html
https://www.pocket-lint.com/laptops/reviews/logitech/67375-logitech-quickcam-notebooks-pro-webcam
http://www.zdtronic.com/WEBCAMS/LOGITECH-961240-0403-QUICKCAM-PRO-USB-WEBCAM-FOR-NOTEBOOKS.html
https://www.cnet.com/products/logitech-quickcam-for-notebooks-pro/specs/
Friday, February 19, 2016
Space1 Radio Rocket Sky Broadcast

DIY ROCKET SECTION
Send up your rocket with a DIY radio station and broadcast from the sky in real time! This special project uses the Big Brain FM radio transmitter build found at the link below.
The FM radio station can be used as a rocket locator beacon finder on deeper space traveling test projects. The web site has a 24 part radio construction series that covers all the important details of building and operating the radio station. To convert to rocket use, tips are recommended.

Remember, a smaller battery will run a shorter time and the radio station is reusable. Clone ten of these mini radio stations for your next ten rockets. Vary the frequency by adjusting the coil so two or more radio stations can transmit at the same time but on slightly different frequencies. Issue QSL cards to file statistics on range and reception.
* Use a strip PCB to fit the belly of the rocket
* Use the radio transmitter as a rocket beacon
* Enable a transmit a locator tone
* Use a smaller physical size battery
* Cut weight by using smaller components
* Cut a wire antenna to frequency resonance
* Digitally record programming for transmissions
* Replace the microphone with the oscillator
Space1 Index
http://space1usa.blogspot.tw/2015/12/space1-index_16.html
Thursday, January 21, 2016
Space1 Listening to Rockets
You can listen in to Space1 rockets by constructing your own DIY equipment. Space1 rockets vary their frequency on a regular basis based on particular missions, tests, and space rocket launches. Currently we are conducting rocket telemetry tests with new systems in the HF radio spectrum.
Interests
For example, future telemetry of interest may be in the form of camera motion pictures and images showing tests, the interior or exterior of rockets, the receding Earth during rocket launches, and the environments during reentry and recovery.
How To DIY
To find the right frequency, use of an auto scanning frequency receiver will lock onto the signal. A large directional gain rotation antenna will tune in the carrier band much better. Output can be your choice of PAL or NTSC to a video monitor to show real time events. We often use sound as a component of the transmission. You might hear the roar of a rocket engine during a test. As events unfold, a capture board can save the data. For a home brew system on a budget, you can build your own DIY antenna from a small recycled satellite TV Dish. http://www.wlan.org.uk/diy-ant.html You can get some ideas from this little itty bitty radio telesscope.
http://www.stargazing.net/david/radio/itty_bitty_radio_telescope.html
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