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Module 3 of a modular microscale Space Base on Mars. This is the Rovers Bay (seen here empty).
find more pics in the Mars Base set.
Technicians in clean-room suits attach a crane to the Orion crew module for Exploration Mission-1 for its move to the thermal chamber in the Neil Armstrong Operations and Checkout Building high bay at NASA's Kennedy Space Center in Florida. Orion will be lifted out of a test stand and lowered onto another stand to for the move. The crew module will undergo a thermal cycle test to assess the workmanship of critical hardware and structural locations. The test also demonstrates crew module subsystem operations in a thermally stressing environment to confirm no damage or anomalous hardware conditions as a result of the test. The Orion spacecraft will launch atop NASA's Space Launch System rocket on its first uncrewed integrated flight. Photo credit: NASA/Frank Michaux
This shows the module tabs implementation on Yahoo!'s front page. The active tab control's text is a different color, and the active tab control is connected to the active pane. The module tabs implementation also maintains the design pattern's metaphor by making it look like the inactive tab controls are farther away from the screen than the active tab - resembling stacked folders.
From: www.yahoo.com/
here are commercial modules with minor voltages of 24V or 48V. The features of the Solar Panel are same as those of the cells, only scaled up in voltage and/or current based on the amount of Solar cells used and their connection.
They should ideally face the true south if you are in the northern hemisphere for best use, and true north if you in the southern hemisphere. The tilt should be near to your latitude.
The cost of Solar cells reduces with increase in efficiency. Now Solar Energy is already being used as either a primary power source or as a backup power source.
for more details visit:
or contact our office locations:
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Australia
Phone: +61-2-95605515
e-mail: sydney@ecosmart-intl.com
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Near Clock Tower, Deira,
Dubai, U.A.E.
Phone: +971 4 2669986
e-mail:dubai@ecosmart-intl.com
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Bengaluru, India 560071
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Embedded Electronics Starter Kit from GHI Electronics
FEZ Spider Starter Kit
www.ghielectronics.com/catalog/product/297
FEZ Spider Starter Kit is the first commercially available .NET Gadgeteer-compatible kit. it includes everything necessary for educators, hobbyists and even professionals. Embedded development is fast & easy (FEZ) thanks to .NET Micro Framework, .NET Gadgeteer and the numerous GHI value added features such as WiFi and USB Host.
The kit includes:
FEZ Spider Mainboard
Display T35 Module (3.5" with touchscreen)
USB Client DP Module (with USB cable)
Camera Module
2x Multicolor LED Module (DaisyLink)
2x Button Module
Ethernet J11D Module
SD Card Module
USB Host Module
Extender Module
Joystick Module
10cm IDC cables (included with modules).
Assorted IDC Cable Pack:
4x 5cm IDC cables
3x 20cm IDC cables
1x 50cm IDC cable
Reusable Plastic Storage Box
FEZ Spider Mainboard is a .NET Gadgeteer-compatible mainboard based on GHI Electronics' EMX module. This makes FEZ Spider Mainboard the most feature-full .NET Gadgeteer compatible device in the market. It contains all of .NET Micro Framework core features and adds many exclusive features, such as USB host, WiFi and RLP (loading native code). All these features combine to provide a rapid prototyping platform.
Key Features:
14 .NET Gadgeteer compatible sockets that include these types: X, Y, A, C, D, E, F, H, I, K, O, P, S, T, U, R, G, B and Z.
Configurable on-board LED
Configuration switches.
Based on GHI Electronics EMX module
72MHz 32-bit ARM7 processor
4.5 MB Flash
16 MB RAM
LCD controller
Full TCP/IP Stack with SSL, HTTP, TCP, UDP, DHCP
Ethernet, WiFi driver and PPP ( GPRS/ 3G modems) and DPWS
USB host
USB Device with specialized libraries to emulate devices like thumb-drive, virtual COM (CDC), mouse, keyboard
76 GPIO Pin
2 SPI (8/16bit)
I2C
4 UART
2 CAN Channels
7 10-bit Analog Inputs
10-bit Analog Output (capable of WAV audio playback)
4-bit SD/MMC Memory card interface
6 PWM
OneWire interface (available on any IO)
Built-in Real Time Clock (RTC) with the suitable crystal
Processor register access
OutputCompare for generating waveforms with high accuracy
RLP allowing users to load native code (C/Assembly) for real-time requirements
Extended double-precision math class
FAT File System
Cryptography (AES and XTEA)
Low power and hibernate support
In-field update (from SD, network or other)
Dimensions: W 2.25" x L 2.05" x H 0.5"
Power
Low power and hibernate modes
Active power consumption 160 mA
Idle power consumption 120 mA
Hibernate power consumption 40 mA
Enviromental:
Requires .NET Gadgeteer standard red power modules.
RoHS compliant /Lead-free compliant
Most EMX software features are GHI exclusive, see software documentation for details.
For more information about .NET Gadgeteer visit:
Photograph taken by Michael Kappel
This is another simple Module which I recently discovered. Modules from 5 to n can be assembled but the easiest to assemble is 8 Modules. I have not tried out anything more than 8 Modules but from what I see, 16 or more is definitely possible. CP later.
"The original Soyuz crewed spacecraft was designed by engineers working at the Korolyev Design Bureau, under the ultimate control of the Soviet Academy of Sciences. In the Soviet system, the term 'Design Bureau' denoted an academic/technical institute under the leadership of a senior scientist or engineer. There were several 'Design Bureaux' associated with the Soviet space program, each associated with different space projects, but responsible for both rocket and spacecraft development. The Soyuz spacecraft, first introduced in 1967, remains the basic design for Soviet/Russian crewed spacecraft. It was the last piloted vehicle designed with direct input from Sergei Korolyev, who was a leading figure in the Soviet space program. The modified Soyuz-T was introduced in 1979 and the Soyuz-TM, with further modifications was introduced in 1986.
The module is presented in the post-Soyuz-11 configuration, in which only two cosmonauts, wearing spacesuits, flew on each mission, the third seat being used to carry supplies. Originally, the Soyuz spacecraft carried three cosmonauts, who did not wear spacesuits as the craft was too small to accommodate three spacesuited people. However, after the loss of the Soyuz-11 crew in 1971, due to an atmosphere leak in the spacecraft, it was decided to re-introduce spacesuits for the crew, necessitating the reduction of the crew from three to two. Three person spaceflights did not resume until the introduction of the Soyuz-TM modification in 1986.
This replica was manufactured in the workshops of the Exhibition Centre of the then-Soviet Academy of Sciences. The original spacecraft was manufactured in the workshops of the Korolyev Design Bureau.
No information has ever been provided by the USSR/Russian Academy of Sciences as to the actual construction date of any of the replicas loaned to the museum. The proposed date is a best estimate, based on the evidence of prior display. The first generation Soyuz spacecraft were constructed between 1966 and 1981."
Read more: www.powerhousemuseum.com/collection/database/?irn=156935#...
Under Creative Commons License: Attribution Non-Commercial
This small hybrid module, located in the button of your power drill, does all the power control for the motor... and a good part of the price of your drill.
Constructing the module used for the modular dodecahedron.
Ricardo, I hope this helps you build it as fast as possible. :)
There are some hiccups, it could go smoother, but I hope you see the fast way to build the triangle base and the way to add 2-3 bars at a time and add the spheres later, all to save time.
Furthermore, this method of always building with a 'string' of bars and creating closed loops ensures that the final module is automatically the strongest possible because there are no strong polarities conflicting inside.
Sjøhus, (sea houses, litterally translated) are industrial buildings from the times when boats were the only efficient way of transport. These cladded, timber frame buildings were used for all kinds of purposes connected to trade and fisheries on the Norwegian coast. The typical protruding part of the gable (vindehus) is protecting the hoist mechanism.
I matched the LEGO green and painted the modules. This made a huge difference in appearance when they were all laid out. The painted edge blended in really well with the green baseplates.
... can easly be turned into a box and a lid
.. my design, as far as I know... but any reference will be welcome....
2 (1 for box, 1 for lid) square 15x15 cm. regular copy paper... I use 80gr. and 90gr. the second is suggested for the box
written instructions (more or less) in the kusudama cube writing.
Decoration made with paper left by cutting an A4 sheet in 2 squares... so you will just need 2 A4 paper for two duo color box.... and only 1 sheet for a single color box (obviously)... this box is very good for give aways in any occasion (espiacilly candies and confetti) and also as a toothfairy (or mouse depending on traditions) box..
I wish you a week full of colors!.... (north Italy in particular: wish you also a SUNNY week) :-))))
1. Basic kusudama cube module ..., 2. Basic kusudama cube module ..., 3. Basic kusudama cube module ..., 4. Basic kusudama cube module ..., 5. Basic kusudama cube module ..., 6. Basic kusudama cube module ...
Created with fd's Flickr Toys
Diagram for basic module here