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The hexagon cross module use the common angle of 60 degrees.
The assembly of the modules is similar to the assembly of the square cross modules, here only with six modules.
An example is my Hexagon Cross Quilt.
This is the 3rd module (of 6 currently built) that is part of my JunkTown MOC. This is a bit of a Junk Yard
The European Service Module-2 for NASA’s Orion spacecraft arriving at Kennedy Space Center, USA. This is the last stopover on Earth before the made-in-Europe powerhouse takes the first astronauts around the Moon on the Artemis II mission.
An Antonov aircraft sent the module across the Atlantic in a custom-built container from Bremen, Germany. Upon arrival at NASA's Kennedy Space Center in Florida, the second European Service Module (ESM-2) will be connected to the crew module. Together they form the Orion spacecraft.
The service module is a critical element for Orion – it provides propulsion, power and thermal control and will supply astronauts with water and oxygen.
Extensive testing awaits before integration with the launcher. Artemis II will be the first crewed mission to the Moon since the Apollo 17 mission in 1972.
Credits: ESA–M.Cowan
Module 5373 from a Casio MTD-1080 watch. I couldn't find any pics of this module online so I took one of mine apart to share.
The "Y Module" was created in 1988 and published in "Modular Origami" a self-publication. The module, folded from square papers is based on the 60 degree geometry. When assembled, a "Y" band is form on the triangular faces of the model and a small pinwheel motif on all the corners.
3 of the 5 Platonic Solids can be assembled from this module. They are the Tetrahedron, the Octahedron and the Icosahedron. All of these polyhedra have triangular faces.
12 Modules, folded from 15cm square Kami are used to assemble the Octahedron.
The Apollo Lunar Module (LM) was a two-stage vehicle designed by Grumman to ferry two astronauts from lunar orbit to the lunar surface and back. The upper ascent stage consisted of a pressurized crew compartment, equipment areas, and an ascent rocket engine. The lower descent stage had the landing gear and contained the descent rocket engine and lunar surface experiments.
LM 2 was built for a second unmanned Earth-orbit test flight. Because the test flight of LM 1, named Apollo 5, was so successful, a second mission was deemed unnecessary. LM-2 was used for ground testing prior to the first successful Moon-landing mission. In 1970 the ascent stage of LM-2 spent several months on display at the "Expo '70" in Osaka, Japan. When it returned to the United States, it was reunited with its descent stage, modified to appear like the Apollo 11 Lunar Module "Eagle," and transferred to the Smithsonian for display. (Source: Smithsonian National Air and Space Museum).
As per the placecard, a module of cotton contains about 12-15 bales of cotton and a bale of cotton weighs about 500 lbs. That's a lot of cotton! This thing was as hard as a rock
2 inks Screenprint (brown and gold)
Printed on "Le Modulor" by Corbusier.
Le Corbusier described it as a "range of harmonious measurements to suit the human scale, universally applicable to architecture and to mechanical things."
Available in my shop
Second Lunar Module built. Was not designed to make the trip to the Moon or support astronauts but for an unmanned Earth orbital test.
A Lunar Module from the Apollo program (designed and built by Grumman)
National Air & Space Museum (Washington DC)
Photo by www.kensaviation.com
Scanned from 35mm slide (1980)
Part of a (slow) process of digitalizing my old photos
The "Y Module" was created in 1988 and published in "Modular Origami" a self-publication. The module, folded from square papers is based on the 60 degree geometry. When assembled, a "Y" band is form on the triangular faces of the model and a small pinwheel motif on all the corners.
3 of the 5 Platonic Solids can be assembled from this module. They are the Tetrahedron, the Octahedron and the Icosahedron. All of these polyhedra have triangular faces.
30 Modules, folded from 15cm square Kami are used to assemble the Icosahedron.
The Zeplina Power Module was created to power the worlds largest zeppelin, this piece was destined for stardom as an epic event in history. However, its extreme weight and the fact it was mounted at the front of the zeppelin meant that the nose couldn't get of the ground, even with the excessive amount of power it produced. The zeppelin cruised along, bum in the air, nose to the ground like a dog sniffing out the trail of dragged sausages. The zeppelin company refused to pay for the item, so I turned it into a lamp and this (almost) piece of history is for sale!
The "Y Module" was created in 1988 and published in "Modular Origami" a self-publication. The module, folded from square papers is based on the 60 degree geometry. When assembled, a "Y" band is form on the triangular faces of the model and a small pinwheel motif on all the corners.
3 of the 5 Platonic Solids can be assembled from this module. They are the Tetrahedron, the Octahedron and the Icosahedron. All of these polyhedra have triangular faces.
30 Modules, folded from 15cm square Kami are used to assemble the Icosahedron.
Bottom view of the 6.4vdc lithium battery module, showing the coroplast separator in the middle of the two flexpacks, and the outside protection sheets of coroplast.
This allows for natural convection cooling of the modules as cool air will enter the bottom of the module, and warmer air will exit the top of the module. If ever needed, forced air can also be introduced to the module from the bottom.
Prius 2nd Generation Battery Module. Popped its top going up a hill. This was one of 38 modules in a rebuild Generation 1 battery pack. Replaced it but I suspect I have other modules in failure mode. Bummer, but you get what you get when buying off Epray (Ebay).
Stackable modules for my Soropolis project.
Two boys having a coffee - raven appartment - vampire - bird tower - temple - gold dome - ghost cave - monster cave - mosque - lady and pooch having a coffee - volcano
Think you could land this on the moon? This is a mockup of the lunar module that landed on the moon between 1969–1972. it carried two people. 6 landings on the moon were made.
These are the diagrams for the decagon cross module.
Nothing really new. As I have explained at the octagon cross module:
If you want to double the corners of the polygon, then you have to bisect to important angle for the inside reverse fold (step 2).
So start here with the Pentagon Cross module.
The steps 7 to 11 are just for hidding some paper. You can do it also in other ways to get some variations. The width of the flap shouldn't be wider than the width of the pocket.
The assembly of the modules is similar to the assembly of the square cross modules, here only with ten modules.
The angle at step 5 has not exact 72 degrees, but the approximation with 71.98 degrees is close to it.
Now, can you see the way to the icosagon ??
Here I open a hole for the metal support that helps me to reach parts of the layout that would have been otherwise inaccessible.
These ladies from Angus College of Further Education were producing a module on Leisure and Recreation in March, 1990. They were trying out sports which were different from their college courses. In the picture were, from left - Janet Patterson, Debbie Phillips, Gail Ferguson, Manda Glassey, Elaine Lawton, Cathy Hull, Mary Wyness, Alison Clinton, teacher; and, centre, Jo Long. (Photograph - Stan Mackie)
The MRF24J40MB is Microchip’s second 2.4 GHz Radio Frequency (RF), surface-mountable transceiver module. This new module adds +20 decibels per milliwatt (dBm) of transmit power via an integrated Power Amplifier (PA) and -102 dBm of receive sensitivity via the integrated Low Noise Amplifier (LNA) to the proven IEEE 802.15.4 compliant transceiver, PCB antenna and discrete matching circuitry. More transmit power allows designers to expand the range of their IEEE 802.15.4-based ZigBee or proprietary-protocol wireless networks.