Compositor v7 Hypervisor

STL1212 multithread computer allows access to 8 cores of STL1212 physical server at Compositor Software. This way it allow to hold up to 8 licenses for Compositor real-time cores such as AI-RT1024, N9000 and Compositor Max for Live.

Using the resource utilization method STL1212 consumes less CPU power and allows more resources for signal processors. STL1212 doesn’t consume resources for stochastic estimation and real-time layer events as it frees up these resources for Hypervisor v7 machines.

Working in cloud allows bundled STL1212 version to connect to STL1212 standalones run at Compositor Software. These full-scale virtual machines take huge amount of time to load and successfully work 24/7 at Compositor Software location.

STL1212 allows utilizing real-time cores of Hypervisor v7 feeders into the STL1212 cloud. Up to 48-cores run at Compositor Software location simultaneously. These resources are linked to your virtual machine and you can use them by enabling STL1212 in Hypervisor v7.

Very Low Frequency (VLF) radio navigation is available in Hypervisor v7 thanks to RTC4k radar. RTC4k VLF beacon acts as a switch for radio channels. Its durability and length of work are much longer than v3 and v5 feeders such as AI-RT1024, FF8, N9000 and TC25.

RTC4k is a lowest register feeder of Hypervisor v7. Its spectrum is suitable for Ultra Low Frequency (ULF) communications. Injecting RTC4k in a channel allows communicating 129 bundled server wavetables for very long distances.

Injecting RTC4k in a channel, you can hear the fixed output when ether is turned on. RTC4k sequences represent the pure physically modeled tones to feed the artificial network. This network is emulated using the delay network with comb and all-pass filters.

RTC4k spectrum of carriers spans from very silent tones to loud alarm sounds. They help to define the source of obstacles in radio navigation and serve as beacons during server monitoring. Loud alarm is also a subject to auxiliary channel tweaks such as changing the reproduced server in the injector pipeline.

Shutter system implemented in RTC8k v1.0.1 allows CPU latching during malicious attacks coming from the reproduced servers. If you inject RTC8k signal together with server wavetables you give very strong protection for your equipment.

RTC8k has bits headroom display, which shows the amount of bits remained to full channel saturation. Full channel saturation leads to the channel breakthrough and can result in Hypervisor v7 system shutdown. You can watch this display accompanied by the text statuses, which are logged and displayed in statistics window.

RTC8k shutter engine allows controlling an amount of injected signal over the event pipeline. You can view the injected signal as a difference between phases of left, right and sum channels on Compositor WS Extended display. No injection constitutes the co-phase work of all channels.

RTC8k uses CPU latching as a protection against malicious signal injections in the Hypervisor v7 channel. In an event of injection, the system hangs to stop a malware traffic to your system and responds with buffer overflow event to an attacking server to stop the breakthrough.

RT-z8 uses active amplitude modulation (AM) for ether aggregation to inject as many useful signal lines as current wavetable can store. Using RT-z8 you can inject AM into the auxiliary channel and modulate it, ignoring Compositor WS Extended modulation settings.

The 3D torus object allows to visualize the direction an aggregated signal is taken from. The direction changes with the multiplier, protecting the communication with internal modulation scheme change. Modulation becomes different each time the multiplier changes.

RT-z8 has a VLF coordinate locator as a pair of VLF network frequency and position display. This information helps to define the longitude of the signal and its direction. The longitude changes in the direction emanating from the torus center towards the parallel-meridian crossing.

Bus multiplier of z=8 has the strongest internal architecture among all z systems. Its channel spacing and deviation tuned in such a way that it covers all hearable bands of VLF spectrum. 20 Hz to 20 kHz spectrum is covered allowing for musical communications over the feeder carrier.

RT-z16 metric system is the one, which virtually mimics the physical properties of its application. RT-z16 is a ground loop and it suits as antenna source. Its properties allow receiving real-coordinates in spherical coordinates system.

RT-z16 ground loop suits to initiate the communication in a direction of a vector given. It works in higher bands of radio spectrum than RT-z8 and propagates on a lower distances. Its oversampled counterpart works in UHF radio band.

RT-z16 has the highest buffer length among sounding feeders and allows for 32768 operations/sec at the speed of 6.28 omega. It opens an access to low-level networks such as TCP/IP networks by a command interface signalized by code-language.

You can use RT-z16 to achieve the fastest tracking of VLF sources. It is three times faster than RTC8k VLF locator. Using it, you can track up to 361267200 network sources simultaneously in a given period. The time frame of Hypervisor v7 modules is plesiochronous digital hierarchy (E5) transport module.

RT-z32 switch can perform network switching when feeding the delay lines of Compositor WS Extended auxiliary channel. It produces harsh tones suitable for auxiliary channel tuning. Using it you can make non-linear injections into the Compositor WS Extended channel.

RT-z32 is a semi-sounding module and it can be used for predictive control. It estimates one working frequency and sits on the carrier for the whole time given. It helps to switch the network so fast, that it even outperforms fastest stochastic selectors of modern Ethernet switches.

When RT-z32 feeds the artificial network of Compositor WS Extended auxiliary channel it decimates the channel to a lower transmission rate. It performs faster AM ether aggregation than RT-z16 by a factor of two.

Non-linear signal of RT-z32 network switch module can be used as alarm when performed on high-powered acoustic systems. Alarms are switched stochastically and conduct the whole process of ether communications.