3 Fastians: Technology

Big Hero 6 (2014) English HDCam

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||---Big Hero 6 (2014)---||</h2>
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[HDCam| English | 720p]</h2>
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Directed by : 
Don Hall, 
Chris Williams</h4>
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Released On : 07-Nov-2014</h4>
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Type :  Action | Animation | Family | Comedy</h4>
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Description:                      </h2>
                             From Walt Disney Animation Studios, the team behind "Frozen" and 
"Wreck-It Ralph," comes "Big Hero 6," an action-packed comedy-adventure 
about the special bond that develops between Baymax, a plus-sized 
inflatable robot, and prodigy Hiro Hamada. When a devastating event 
befalls the city of San Fransokyo and catapults Hiro into the midst of 
danger, he turns to Baymax and his close friends adrenaline junkie Go Go
 Tomago, neatnik Wasabi, chemistry whiz Honey Lemon and fanboy Fred. 
Determined to uncover the mystery, Hiro transforms his friends into a 
band of high-tech heroes called "Big Hero 6." 
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Screen Shots :</h2>
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Big Hero 6 (2014) English HDCam

||---Big Hero 6 (2014)---|| [HDCam| English | 720p] Directed by : Don Hall , ...

Digital Clock Working Circuit

[caption id="attachment_383" align="aligncenter" width="655"]<a href="http://www.beva.tk/wp-content/uploads/2014/12/Digital-Clock-1.jpg"><img alt="Made by Ali Zain Ul Yasoob" class="wp-image-383 size-full" height="685" src="http://www.beva.tk/wp-content/uploads/2014/12/Digital-Clock-1.jpg" width="655" /></a> Made by Ali Zain Ul Yasoob[/caption] All resistor with 7-Segment-Display are 330 or 220 ohms. There are different combinations available for resistors and Capacitors with 555 IC. Some of which are following for this general circuit diagram:(Pin 3 is output) <a href="http://www.beva.tk/wp-content/uploads/2014/12/555diagram.png"><img alt="555diagram" class="aligncenter wp-image-384 size-full" height="292" src="http://www.beva.tk/wp-content/uploads/2014/12/555diagram.png" width="426" /></a> <table class="output" cellspacing="0"> <thead> <tr> <td>C1</td> <td>R1</td> <td>R2</td> <td>Period</td> <td>Frequency</td> <td>Duty Cycle</td> </tr> </thead> <tbody> <tr class="a0"> <td>100 µF</td> <td>3.3 KΩ</td> <td>5.6 KΩ</td> <td>1.0049 sec.</td> <td>0.9952 Hz.</td> <td>61.4 %</td> </tr> <tr class="a1"> <td>100 µF</td> <td>5.1 KΩ</td> <td>4.7 KΩ</td> <td>1.0049 sec.</td> <td>0.9952 Hz.</td> <td>67.6 %</td> </tr> <tr class="a0"> <td>10 µF</td> <td>100 KΩ</td> <td>22 KΩ</td> <td>0.9979 sec.</td> <td>1.0021 Hz.</td> <td>84.7 %</td> </tr> <tr class="a1"> <td>10 µF</td> <td>8.2 KΩ</td> <td>68 KΩ</td> <td>0.9993 sec.</td> <td>1.0007 Hz.</td> <td>52.8 %</td> </tr> <tr class="a0"> <td>10 µF</td> <td>33 KΩ</td> <td>56 KΩ</td> <td>1.0049 sec.</td> <td>0.9952 Hz.</td> <td>61.4 %</td> </tr> <tr class="a1"> <td>10 µF</td> <td>51 KΩ</td> <td>47 KΩ</td> <td>1.0049 sec.</td> <td>0.9952 Hz.</td> <td>67.6 %</td> </tr> <tr class="a0"> <td>10 µF</td> <td>120 KΩ</td> <td>12 KΩ</td> <td>0.9979 sec.</td> <td>1.0021 Hz.</td> <td>91.7 %</td> </tr> <tr class="a1"> <td>4.7 µF</td> <td>10 KΩ</td> <td>150 KΩ</td> <td>1.0097 sec.</td> <td>0.9904 Hz.</td> <td>51.6 %</td> </tr> <tr class="a0"> <td>4.7 µF</td> <td>4.7 KΩ</td> <td>150 KΩ</td> <td>0.9924 sec.</td> <td>1.0076 Hz.</td> <td>50.8 %</td> </tr> <tr class="a1"> <td>4.7 µF</td> <td>5.1 KΩ</td> <td>150 KΩ</td> <td>0.9937 sec.</td> <td>1.0063 Hz.</td> <td>50.8 %</td> </tr> <tr class="a0"> <td>4.7 µF</td> <td>5.6 KΩ</td> <td>150 KΩ</td> <td>0.9954 sec.</td> <td>1.0047 Hz.</td> <td>50.9 %</td> </tr> <tr class="a1"> <td>4.7 µF</td> <td>6.8 KΩ</td> <td>150 KΩ</td> <td>0.9993 sec.</td> <td>1.0007 Hz.</td> <td>51.1 %</td> </tr> <tr class="a0"> <td>4.7 µF</td> <td>8.2 KΩ</td> <td>150 KΩ</td> <td>1.0038 sec.</td> <td>0.9962 Hz.</td> <td>51.3 %</td> </tr> <tr class="a1"> <td>4.7 µF</td> <td>68 KΩ</td> <td>120 KΩ</td> <td>1.0032 sec.</td> <td>0.9968 Hz.</td> <td>61 %</td> </tr> <tr class="a0"> <td>4.7 µF</td> <td>270 KΩ</td> <td>18 KΩ</td> <td>0.9967 sec.</td> <td>1.0033 Hz.</td> <td>94.1 %</td> </tr> <tr class="a1"> <td>2.2 µF</td> <td>1 KΩ</td> <td>330 KΩ</td> <td>1.0078 sec.</td> <td>0.9923 Hz.</td> <td>50.1 %</td> </tr> <tr class="a0"> <td>2.2 µF</td> <td>220 KΩ</td> <td>220 KΩ</td> <td>1.0062 sec.</td> <td>0.9938 Hz.</td> <td>66.7 %</td> </tr> <tr class="a1"> <td>2.2 µF</td> <td>120 KΩ</td> <td>270 KΩ</td> <td>1.0062 sec.</td> <td>0.9938 Hz.</td> <td>59.1 %</td> </tr> <tr class="a0"> <td>1 µF</td> <td>1 MΩ</td> <td>220 KΩ</td> <td>0.9979 sec.</td> <td>1.0021 Hz.</td> <td>84.7 %</td> </tr> </tbody> </table>

Digital Clock Working Circuit

[caption id="attachment_383" align="aligncenter" width="655"] Made by Ali Zain Ul Yasoob[/caption] All resist...

Proteus v8.1 Full Version Free download

Proteus 8 is a product integration software. Proteus 8 free download. Download Proteus 8 full version is now available on 3Fastians with crack activation for permanent use. Now let's discover the features. 
 
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  FEATURES </h1>
 
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- A new common parts database enables sharing of information between schematic and PCB so that changes to data are instantly reflected across the software. - A new application framework lets you view modules of Proteus as tabs in a single window or, via drag and drop, as separate windows for a side-by-side view - A new live netlist means changes to connectivity in the schematic can be instantly reflected in the PCB, the Bill of Materials and the Design Explorer. - The new integrated VSMStudio IDE binds your firmware project to your schematic design and Active Popups bring the schematic into your VSMStudio debug session.</h5>
 
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  INSTALL INSTRUCTIONS </h1>
 
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 1-  Install the program - double click on "Proteus 8 Professional Setup.exe" 2-  Do not launch the program. If launched then exit. 3-  Copy "BIN" To Installation Folder "C:\Program Files\Labcenter Electronics\Proteus 8 Professional" 4-  Copy "MODELS" To Programs data folder for XP: C:\Documents and Settings\All Users\Application Data\Labcenter Electronics\Proteus 8 Professional for Vista - 7 - 8: C:\ProgramData\Labcenter Electronics\Proteus 8 Professional</h5>
 
<h5>
 5-  Done.. Run Proteus 8.1 and enjoy the full release!</h5>
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<a href="http://acefile.net/0btvbx5vnso4" target="_blank">Click here to Download</a></h2>

Proteus v8.1 Full Version Free download

Proteus 8 is a product integration software. Proteus 8 free download. Download Proteus 8 full version is now available on 3Fastians with c...

Dual Rail Power Supply -30V -- 0V -- +30V

Here is the circuit diagram. To get the required output +-30V you have to set the values as follows: R1 and R3 = 220 ohm R2 and R4 = 5k ...

Molecules in a fluid not randomly arranged

FOM PhD researcher Matthijs Panman and his colleagues from the University of Amsterdam have demonstrated that molecules in liquid alcohol are not randomly oriented with respect to each other. The angle between the oxygen-hydrogen bonds of two neighbouring alcohol molecules is usually about 120 degrees. This discovery refutes the commonly held idea that molecules in a liquid are randomly arranged. The researchers published their work on 12 November 2014 in Physical Review Letters. <div> <div class="article-banner first-banner"> <div id="beacon_1fa03cc45d"><img alt="" height="0" src="http://phys.org/openx/www/delivery/lg.php?bannerid=1150&campaignid=163&zoneid=64&OACBLOCK=86400&OACCAP=1&loc=http%3A%2F%2Fphys.org%2Fnews%2F2014-11-molecules-fluid-randomly.html&cb=1fa03cc45d" width="0" /></div> </div> In school we learn that molecules in a liquid are randomly arranged. But is that completely correct? Based on computer simulations it has been thought for many years that the molecules in many liquids are locally ordered, especially if the molecules have a strong interaction with each other as is the case for water or alcohol. Panman has shown that this idea is correct: in alcohol there is local orientational order. This means that nearby molecules are ordered at a fairly well-defined angle with respect to each other, although there is no long-distance ordering like in a crystal. <a href="http://www.beva.tk/wp-content/uploads/2014/11/moleculesinl.png"><img alt="Molecules" class="aligncenter size-full wp-image-355" height="747" src="http://www.beva.tk/wp-content/uploads/2014/11/moleculesinl.png" width="850" /></a>   <div> Light and vibrations The FOM researchers, working at the Van 't Hoff Institute for Molecular Sciences in Amsterdam and in collaboration with the Amsterdam Center for Multiscale Modeling, devised an experiment to observe the local ordering. Each alcohol molecule contains a bond between its oxygen atom (O) and hydrogen atom (H). The researchers illuminated alcohol with infrared light pulses with a duration of about one trillionth (10-12) of a second. If the infrared light has the right frequency, some of the O-H bonds in the alcohol molecules will start to vibrate as a result of resonance. The bond becomes longer and shorter synchronously with the light wave. The light used is polarised, which means that the electric field of the light has a fixed direction. The light only causes the O-H bonds that are parallel to its electrical field to vibrate. Subsequently these vibrating bonds pass on the movement to O-H bonds in neighbouring molecules. This energy transfer process is possible because all the O-H bonds have the same resonance frequency. If two neighbouring O-H groups are not parallel to each other but at an angle, then after the transfer of the vibration, O-H bonds molecules that are not parallel to the electrical field of the infrared pulse will also vibrate. The strength of the effect (the loss in directionality) depends on the angle between the O-H bonds of the neighbouring molecules. <div> 120 degrees By calibrating the transfer of vibrations to predictions of this rate from their computer simulations of the liquids, the researchers could estimate the average angle between neighbouring molecules. They discovered that neighbouring O-H bonds in alcohol were at an angle of about 120 degrees with respect to each other. In other liquids that angle can be different: for example in the liquid N-methylacetamide the bonds between the nitrogen atom and the hydrogen atom of neighbouring molecules are roughly parallel with each other. The local order in both liquids is caused by interactions (hydrogen bonds) between the neighbouring molecules. The local order only exists for several trillionths (10-12) of a second, because the network of hydrogen bonds is highly dynamic: hydrogen bonds between molecules constantly break and form. The research provides a better understanding of liquids and the behaviour of their molecules. A good knowledge of liquids is vital to understand how chemical reactions take place, so that the efficiency of these reactions can be increased. Read more at: <a href="http://phys.org/news/2014-11-molecules-fluid-randomly.html#jCp">http://phys.org/news/2014-11-molecules-fluid-randomly.html#jCp</a></div> </div> </div>

Molecules in a fluid not randomly arranged

FOM PhD researcher Matthijs Panman and his colleagues from the University of Amsterdam have demonstrated that molecules in liquid alcohol ar...

The New Periodic Table Song

http://www.dailymotion.com/video/x28urfl_the-new-periodic-table-song-in-order_school Don't forget to comment.....:-)

FCC begins research into 24GHz for gigabit ultra-dense 5G mobile networks

[caption id="attachment_291" align="aligncenter" width="691"]<a href="http://www.beva.tk/wp-content/uploads/2014/10/Samsungs-5G-technology.jpg"><img alt="Samsungs-5G-technology" class="size-full wp-image-291" height="424" src="http://www.beva.tk/wp-content/uploads/2014/10/Samsungs-5G-technology.jpg" width="691" /></a> Samsungs-5G-technology[/caption] Last week, the FCC published a Notice of Inquiry (NOI) to investigate the possibility of using frequencies above 24GHz for cellular wireless systems — specifically, for next-gen mobile data standards such as 5G. Given how we’ve essentially run out of spectrum in the cellular sweet spot, and how Europe and Asia have already started on their own 5G inquiries, it’s high time for the FCC to dig into the possibility of super-fast cellular networks in the Super High and Extremely High Frequency bands that are as capable as standard wireline (DSL and cable) broadband. All mobile network systems currently operate on frequencies in the UHF (Ultra High Frequency) band, which comprises of 300MHz to 3GHz. The UHF band is considered the “sweet spot” of cellular today, with a decent mix of frequencies that travel far and wide (low-band spectrum) and frequencies that provide substantial capacity for data performance (high-band spectrum). As we’ve previously discussed, mobile network operators use a mix of low-band and high-band spectrum to provide optimal coverage and capacity to meet the needs of their subscribers. However, the amount of available spectrum that can be allocated for cellular wireless systems in the UHF band has dwindled away in recent years — which is why we’re now considering new blocks of spectrum that are very much outside the sweet spot. The FCC inquiry centers on the usage of frequencies in the upper portion of the SHF (Super High Frequency, 3GHz to 30GHz) band and the lower portion of the EHF (Extremely High Frequency, 30GHz to 300GHz) band for cellular systems. Specifically, the FCC is examining the possibility of licensing 24GHz to 90GHz for use of cellular mobile network services. SHF and EHF bands are very high capacity, but traditionally these high frequencies can only travel a very short range. EHF (also called millimeter wave, or mmWave) band frequencies are currently in use for high-bandwidth wireless systems that do not require much distance, like WiFi on 60GHz. The reason for this is simple: the higher the frequency, the harder it is for it to pass through obstacles. Conventionally speaking, EHF requires unobstructed line-of-sight connections (which is why 60GHz WiFi generally needs it to be useful). However, as part of the many efforts on 5G going on in the background across multiple countries, using SHF and EHF for 5G networks comes up quite a lot. In fact, Samsung Networks (the networking division of Samsung Electronics) demonstrated a 28GHz cellular system that offered 1.2Gbps (150MB/s) in a mobile environment (moving at 60 mph) last week. In a stationary environment, that same system pushed an eye-watering 7.5Gbps (940MB/s) wirelessly. The mobile environment could download an 8GB DVD in one minute, and the stationary environment could download it in nine seconds! In its eventual peak, LTE-Advanced will barely be able to reach 1Gbps in a stationary environment, with no chance of getting anywhere near that in a mobile one. <h3>Is 28GHz the future of ultra-fast 5G networks?</h3> The Samsung demonstration perfectly exemplifies the key reason for exploring the use of these frequencies for cellular: the immense bandwidth of these frequencies. For example, the 28GHz band is 1000MHz wide (as opposed to the 3GHz band, which is only 100MHz wide). That means that it is entirely possible for mobile network operators to end up with 100-300 MHz channels for a 28GHz cellular wireless network. That kind of channel size would enable wireless networks of being capable of replacing home wireline internet connections like DSL and cable and offer gigabit speeds. Critically, data caps (common on wireless broadband today) would not be necessary to ensure that users get a high quality of service. If it could be done reliably across great distances with cost-effective radios, that would make it perfect for capacity-oriented wireless! Fortunately, it appears that it may be possible to use smart antennas to achieve that goal. Keeping in mind that no advancement in technology can change physics, microcell networks using smart antennas to implement range-enhancing techniques like beamforming (which focuses the radio energy to create strong “beams” of signal) and radio steering (aiming the transmission and reception elements in antennas) to maximize coverage can be used to provide truly dense cellular networks. But a microcell network requires a high degree of automated coordination to ensure that none of the cells create interference with each other. This is where C-RAN (Cloud/Centralized Radio Access Network) comes in. In traditional networks (known as D-RAN, or Distributed RAN), the baseband (resource management and signal processing system) systems for the radio network are physically located at every radio transmission site. In a C-RAN system, these are moved to a separate location and pooled so that all cells are connected to a unified, elastic baseband pool. This allows an unprecedented degree of coordination of all resources (backhaul, signal processing, etc.) and prevents any waste of network resources. With this coordination and the elasticity of the pool, it is possible to install smaller, lighter, but more powerful radios anywhere (cell towers, lamp posts, buildings, trees) to build the dense network necessary for this to be possible. The pieces are now falling into place for the development of the next generation of cellular wireless systems. As 5G continues to be developed, regulators like the FCC have to keep track and ensure that they are part of the process too. The examination and the release of spectrum to enable this new kind of wireless service will be critical to enabling the future of wireless connectivity that is unquestionably better than what wireline will generally provide in any affordable manner to the public. Let’s just hope that networks like these will become a reality soon enough!

FCC begins research into 24GHz for gigabit ultra-dense 5G mobile networks

[caption id="attachment_291" align="aligncenter" width="691"] Samsungs-5G-technology[/caption] Last week, the...

3 Fastians

Big Hero 6 (2014) English HDCam

Digital Clock Working Circuit

Proteus v8.1 Full Version Free download

Dual Rail Power Supply -30V -- 0V -- +30V

Molecules in a fluid not randomly arranged

The New Periodic Table Song

FCC begins research into 24GHz for gigabit ultra-dense 5G mobile networks

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