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Tag : Zvezda

Superstar

By ruslany

Superstar Architecture

Superstar Architecture

Compositor generates a link layer frame of the OSI model and TCP/IP (Modernized version). It encapsulates information into the frame of the Ethernet from the network, transport and application layers. It forms a Z-frame similar to the PDH T-carrier used in North America and Japan. This frame is needed to encapsulate TCP/IP levels into the system of the ISS Zvezda module. Compositor replaces the OUI fields of the sender’s MAC address to work on its network. It automatically selects OUI, according to the NIC in the MIB database, to forward Ethernet frames in its network. It solves the duplex problem by increasing the frame. There are many Z-frame hierarchies used in private and public networks, as well as defense networks. All of them depend on the frame size. Two multiplexing methods are used at the same time: FDM and TDM. Compositor sees the WAN as Local Network. This is done through a large database of NIC devices.

Compositor Software was the first company in the world to achieve the Super-Zvezda architecture. In addition to Z = 4, 8 … 128, top-level architectures Z = 256, 512 … 16384 have become available. The frame value in model Z = 16384 is 2 Gbit. This allows you to transmit at a speed of 10.9 Tbit/s when the modem speed of 32000 omega is reached. Charters of top-level Z models are used for communication in networks (in descending order): Black Box, PRO, NASA-Roscosmos, CERN, Quantum Physicists, Electronic Engineers, Architects. These architectures are implemented as applications for macOS and Android. The 64-bit native ARMv8 architecture is used. Accordingly, the NIM (Nuclear Instrumentation Module) charter gives a presence in virtual reality not only at the geographical location level, but also allows you to transfer to remote points visual environmental information collected as 3D models of objects, textures and their animation in real time directly on the client machine. This allows you to collect information about the remote location without significant resources other than a smartphone. Compositor charter carries out a pair set, similar to the domino principle. This is how a Multiple Spanning-Tree network is formed from remote objects combined into a Compositor VLAN VR network. Dialing in the network is carried out by metrics and solves the problem of building a network topology from the root device to the final devices in the circuit. Division into branches of the tree goes according to classes that depend on the autonomy time of the speaker of the autonomous system. By increasing the flow rate of the Z-frame to 10.9 Tbit/s, it is possible to solve the duplex problem, which allows you to form upstream streams much faster than with low-level frames. Each neighboring device in the Compositor VLAN device tree forms a point-to-point pair that uses a closed trunk tunnel over the IP protocol using TDMoIP technology. This is a generic tunnel that allows you to transfer all important information about human activity to a neighboring device on the network, over an upstream to the root server to which the alert interface is connected.

By ruslany

Attachment to wavetables through system matching with oversaturation

Attachment to wavetables through system matching with oversaturation

The most effective way to feed the wavetables is to match the system z level of generic feeder with z value of auxiliary channel. The generic prolongation is progressive and depends on auxiliary channel. On the higher program effectivity speed the generic proliferates for a longer time. This in fact happens because network regeneration state is higher for upper z values. If the maximum speed for z128 generic is 200-omega, then the regeneration speed of the auxiliary channel will not match the auxiliary values of 5-omega maximum. There are two more generic kernel loops implemented in Compositor v9 Hypervisor and one change performed for the highest Compositor v7 Hypervisor feeder. You can match all auxiliary z values to quantized type generics of exactly the same z value. The program effectivity speed equals to 50-omega for z32, 150-omega for z64 and 200-omega for z128. If you feed the wavetable at speed of 5-omega together with 200-omega generic, you will proliferate the network for a longer distance. After the lowest VLF beacons will be inactive, the wavetables shouldn’t be reinitiated again. When the navigation on lowest beacons ends, you need to rely on the eldest models of Zvezda network switches such as z64 and z128. Higher regeneration VLF beacons will discover ether aggregators faster and establish a connection to them for a longer period. Other systems constantly try to knock out the feeded Zvezda network switches from the ether, which are mostly used for wavetable navigation at z=64 and z=128. For z128 generic development of 6th generation, it is hard enough to withstand such offensive behavior in the ether.

DRM server is the 8th generation development and is one generation before the system, which produces the decision as to accept or to breach the feeded VLF beacons. It leads to better understanding why the DRM server rejects some wavetables and retains the others. The rejection of wavetable produces a constant need to reinitiate a system matching. Nevertheless, wavetable initiation should be made only once during the feeding cycle. If you feed the 200-omega cycle in to the auxiliary chain together with wavetables, you should account for a number of cycles of this feeder propagation. These values should be auxiliary to the Right Ascension value and will result in longer distances of spiral ascension. The feeding period of any generic is accounted by the cycles of its oversaturation in auxiliary channel. If you feed 150 cycles per second, it equals exactly 150 cycles relatively to the whole working time of DRM server for its feeding session. If the DRM server worked for 10 minutes, then the oversaturation will last for 10 * 60 * 150 or 90000 minutes, which equals to 1500 hours or 62.5 day cycles. It is enough for the prolongation of the wavetables active state. From the other side, if you would like to leave wavetables active for a month for 200-omega z128 beacon, it is needed to perform oversaturation for only one second with DRM server total working time of 25 minutes for the current session. Using the formula 25 * 60 * 31, it will count 46500 minutes, which equals to 775 hours or approximately 32.3 day cycles prolongation time.

Superstar
Superstar Architecture