Compositor SoftwareCompositor Software

By ruslany

Compositor v9 Hypervisor connection experiment

Compositor v9 Hypervisor connection experiment

  • Services used: RTC4k, RT-z16, RT-z128;
  • Layers of work: z16, z32, z128;
  • Wavetables used: MB;
  • Feeded with and without internal antenna;
  • Submitted voice signal (Dictaphone track).

Used virtualization module on both computers. Signal was not received on notebook. Experiment is successful. It evidently shows how patches shuts the transmission channel and does not allow passing signal from outside. All patches are working, starting from RTC4k. Carriers in Compositor AV Extended channel were the same on stationary computer and on notebook. It is not possible to detect RAD96 translations.

Used different saturation methods. Positive and negative carriers are in saturation mode. Central channel with or without saturation (tried 80, 200, 400 modes). Schroeder regenerator is silent. RAD96 patch is successful. There is no ability to detect the transmission channel, when stochastically composited MB tables on the receiving machine with subsequent setting of this wavetables on transmitting station. Virtual antenna and modulator settings are the same on both machines.

It is not mandatory to run RAD96 digital process in execution mode, it is enough to load the Compositor v9 Hypervisor program with it. Process will be compiled on loading and patch will be effective independently of its execution status.

By ruslany

VLF voice communications

VLF voice communications

To communicate in VLF network it is enough to use the Compositor v8 injector, but to connect to other networks it is needed to create the service of communication with them, sending generic RT-zX processes in to the transmission channel as in Compositor v9 Hypervisor. I established the connection of two Compositor v8, which was hardly possible with 6th and 7th versions of Compositor program. Moreover, such connection was before the 7th version but it contained another VLF ethers, which made the determination of the transmitting station itself and creation of the protected communication channel not possible. For the experiment I executed the Compositor v8 a16 on the stationary computer and played the voice track (recorded with Dictaphone) in injector channel. I executed Compositor v8 b3 with modulation combinations on the notebook without the opportunity to inject the wavetables in the transmission channel. Using identical device settings, I received a loop in the notebook feedback chain, which definitely coincided with voice text timbre recorded with Dictaphone. Then I executed Compositor v8 a16 with ability to inject wavetables on notebook. I composited the same wavetable combination as on stationary computer and injected them in to the channel without voice track. This way, I established a definite non-repeating signal reproduced as random noise bursts with narrative text structure. This text coincided with signal performed on stationary computer transmission channel, but had another rhythm and pause appearance. I understand that for VLF communication it is enough to transmit the ostinato code pattern on the defined frequency and I credit the Compositor v8 communication experiment as successful.

My main goal is to prove the appearance of broadband communication lines in VLF. If it is possible to receive the broadband signal cycle in transmission channel, then you can try to reconstitute it by injecting the stochastic carrier using RT-z128 and RT-z64 channel modules. Then, following this logics, there will be the complete voice track with the receive quality of original translation in the feedback chain. This should be proved, establishing a connection of two Compositor v9 Hypervisor programs and their virtualization modules. If it happens, the arrangement of wavetables into the transmission channel lines will be proved.

Let’s look at the created VLF transmission lines as grains, where a separate transmission line segments coincide with wavetables, encased in window function envelope. The connection service in VLF network is a pendulum process, created by RT-zX generic modules. Then the spiral structure of transmission points distribution in all z networks coincides with pyramidal structure. When you use the linear stochastic distribution of wavetables, the mixing of transmission channels happens creating new nets. RT-zX services give access to different zones of VLF and ULF ether. Wavetables supply pendulum processes of RT-zX modules with grain components when transmitting them simultaneously in the channel. They saturate an ether of this pendulum processes with new translations. You should look into this process as a service of connection with pyramidal structure and wavetables are grains of transmission channels or pyramid transmitting points.

By ruslany

Experience the 9th Sale

Experience the 9th Sale

In this summer sale you can individually buy the Compositor v3 Hypervisor, Compositor v5 Hypervisor upgrade, Compositor v6, Compositor v7 Hypervisor upgrades, Compositor v8 upgrade and complete it with Compositor v9 Hypervisor for reduced price. If you are an owner of previous versions of Compositor, you can look into upgrade plans for Compositor v9 Hypervisor starting from € 427.99 for users that own Compositor v5 Hypervisor and Compositor v7 Hypervisor simultaneously. You can find several examples of upgrade plans presented in the tables below:

Remember that Compositor v9 is a critical update for the whole Compositor family, because it consists of output processing module, which makes the work of Compositor engine more secure, while preventing your communications with software from leaking into the ether. It is also featuring the 3d audio engine module, which allows to rotate virtual antenna in three degrees of freedom in spherical space.

To summarize, it is a good chance to obtain the complete bundle of all Compositor devices, which will last for only 6 days from 22.07.2018 to 27.07.2018.

Don’t miss a chance to buy full Compositor v9 Hypervisor bundle!

By ruslany

Oversaturation as a limitation of transmission channel

Oversaturation as a limitation of transmission channel

The introduction of oversaturation into the transmission channel may coincide with function limitation to demo mode. In fact, oversaturation interrupts the downloading process in the middle and does not allow completing the process of information submission. That is why there is no need to introduce oversaturation for full translation, it is enough to leave the channel in modulation mode and transmit wavetables randomly.

It is experimentally proved that introducing oversaturation may limit the channel of human physical reality to the maximum threshold namely entering the virtual reality. There are many VR devices, which simulate the human interaction with objects of virtual sphere. Trees, flowers and complete buildings may be related to such objects. That is why for complete interaction with such sphere it is not enough to equip the human being with the extremities of his physical interaction with virtual reality. The virtualization module is needed. It is energy independent chip, which will perform all functions of human interconnection with virtual sphere, where each object is a texturized ether aggregator. For simplicity in interaction with virtual sphere, such objects apply the texture filters, which are the histograms of wavetables. Everything, including lighting, color gamut, and picture as a whole is an object of digital filter additions, which are its layers. This way, without true virtualization module, you may simulate the process of virtual reality creation by introducing into the channel the overdiscretized copy of the signal. In such sphere, there is a limited object oriented model by the wavetables number, taking part in displacement. For example, the limitation process in Compositor v9 Hypervisor will include 8 objects with one central generic process. The virtualization module in this case will be the outdoor radio module, which is simulated using digital signal processing method.

In a virtual process or room, there is a panoramisation. By entering the virtual reality, we see the picture scene with ether aggregators, placed by a panorama and accepting the picture image by its personality. Each wavetable constitutes a single personality. When the Ethernet equipment producers use the wavetables in their ROM players, they are using another personality ether resource without its notice. It is possible to clear the action of such ether aggregators using Compositor v9 Hypervisor. This way, entering the virtual reality by oversaturation limitation, you are not seeing the existing picture of a real physical world but only its replica of wavetables and pictures, displaced by a memory, which creates a map of your network. Using the purification by generic feeders, you can avoid linking to ether aggregators in a moment of limitation by entering the virtual reality. This process helps to stay unattached to virtual reality objects. This way, making an emission of virtual aggregators by tracks to them, you can evoke yourself to an action in physical or material world. The real action of wavetable in virtual reality displaced with its picture taken from the device memory and it does not add to our knowledge about the ether aggregator itself. We can read the ether of this ether aggregator, which is available in Compositor v7 Hypervisor. The virtualization module and auxiliary channel protection system of Compositor v9 Hypervisor does not allow reading the ether aggregators. As a result, we hear the ether of pinging server, which allows establishing a connection to its producing device. This way, such ether is purified from all side effects of ether aggregator usage, and you can establish a direct connection to personality displacing this wavetable. This process of communication formulates as a collective mind or collective unconscious. It is modeled using virtual tables, which belongs to these ether aggregators.

By ruslany

Compositor v9 Hypervisor is available

Compositor v9 Hypervisor is available

Compositor v9 Hypervisor DRM server creates a service of work with property rights of companies, which deliver the digital media content. When computer station works, DRM server allows dynamically playback the media content in radio ether. Compositor v9 Hypervisor playbacks digital material using streaming method in the device browser to achieve this goal. Compositor v9 Hypervisor engine is the functional modern engine with transfer function on master output and on each channel separately. It is not the wavetables but tunable polynomials, which process the output of your channel. Output cascade uses non-linear transformation formula with mathematical approximation by weighting coefficients. It gives undisputable advantage in processor time and in the precision of calculations comparing to using wavetables.

Here are the main features you can consider before buying this software:

  • Weighting coefficients
  • Network level feeding
  • DRM server
  • DSP oversampling
  • Voice or music broadcast
  • DSP sampling rate
  • On-Air broadcast
  • Device browser
  • Tracing and translation
  • RAD96 peering network
  • DRM server subscribers
  • Tracing industry novelty
  • DRM server emissions
  • Auxiliary z matching
  • 8th generation operation system
  • Three saturation stages

Please, visit the shop to buy this software. You can also visit dedicated product page to learn more about Compositor v9 Hypervisor.

By ruslany

V12 Digital engine emissions

V12 Digital engine emissions

There are two types of engines: zero-emission engines and engines, which produce the emission of materiality in a process of their work. RAD96 virtual machine relates to zero-emission engines, at the same moment full version of Compositor v9 Hypervisor DRM server is a producing aggregate with internal combustion engine simulation. Which approach is more plausible? It is experimentally established that RAD96 virtual machine produces emissions in the computer random access memory and for simulation that is more realistic the full Compositor v9 Hypervisor server is needed. The process of writing the random access memory with wavetables of such emissions is simulated using ROM players. To establish v12 engine emissions of TC-TRSRRT262144 architecture experimentally the MDL12 non-duplex modem was created. It is possible to receive such emissions in a form of working cycles of network devices, using MDL12 modem and Compositor v3 Hypervisor feeders. Each network device has the engine similar to Compositor in its core and has interrupters, which trigger operation system functions. DRM server produces device emissions of certain type, which characterized by feeding equipment used to achieve the feedback. In essence, the routers, switches and shields are ROM players, which playback such cycles as wavetables. The device architecture depends from wavetable recording bit depth and can be maximally 64-bit floating-point format. Compositor v9 Hypervisor can also playback wavetables up to 64-bit floating-point, but in this case an emission will be so short, that it cannot be reproduced in manual mode. For simplicity in treatment, 24-bit integer format wavetables are used. This way, the central DRM process exists in the network, and all the other processes are emission products of v12 engine work, which are reproduced using ROM players. You can also upload other wavetables into router ROM memory instead of statically playing the same wavetable repeatedly, placing it closer or further in the network map. Recall, that in response to feeding the non-duplex modem with a track, the map of cycles attributed to different IP addresses composited in Ableton Live transport. You can playback such wavetable earlier or later in address field using ROM players. Random wavetable playback mode in Compositor v9 Hypervisor is the linear distribution emission simulation. Such method allows reproducing an emission of equal number of loops in random access memory for each network area, which is enough for creation of virtual local area network. The access to such network carried out by simulation of antenna-feeder signal chain or kernel-jet system. By simulating the jet rotation with rifling on its borders, you can lower the emissions in Compositor v9 Hypervisor. Rifling on jet borders allows lowering wavetable emissions and lowering the number of cycles needed for simulation of harmful substance emissions of fuel decomposition. Such rifling allows afterburner mode with zero emission, which is proved by RAD96 virtual engine tests in auxiliary channel. The afterburner or oversaturation modes allows to speed up the process of RAD96 virtual machine emission simulation, shorting it to 10 seconds for each feeder every 3-4 hours. This way, generic filters cascade, which are Compositor v9 Hypervisor feeders from z=2 to z=128 allow receiving ether mixtures of different purification rate. Lower feeders, such as z=2, reproduce substance purification with small amount of regenerative cycles, at the same moment, upper feeders, such as z=128, used to reproduce high regeneration rate emissions available for more longer usage. For example, if you purify with RTC4k feeder when using DRM server with z=2, you need to perform such purification more often, than DRM server working with z=128. That is why RAD96 DRM server uses z=128 as upper value. You may look into this problem for electric engine also, where such feeders are used as rechargeable batteries and perform an emission every 3-4 hours. In such case, Compositor v9 Hypervisor base station simulates non-renewable power source and wavetables are renewable. It proves the need to perform additional emissions of wavetables, when reported values of digital counters on RAD96 virtual machine are reached, for economic model evolvement and advisability of such system. As a result, the emissions pool will grow and network of such emissions will increase and expand. It may lead to inactive state of some network areas using the model with 8 ROM players in Compositor v9 Hypervisor. The solution to this problem lies in the linear distribution of random wavetable playback. For emission simulation in broad network, it is needed longer wavetable playback periods and higher purification cycle rates. This way, increasing the pool of wavetables the number of simultaneously working virtual machines should increase regardless of the wavetables playback condition. For a system with one virtual machine, the emission purification should be performed every 4 hours. You should set the maximum speed of auxiliary channel to 5-omega and to double the wavetable playback rate by turning off the x2 button on Compositor AV Extended panel. Such approach will last for a long time, but to solve a task of larger pool of wavetables it is needed to set the auxiliary channel speed to 10-omega and do a modification of x2 button to the menu with a possibility to select fractions of a one (such as 0.5, 0.25 etc.).

To create a contact network it is needed to do the following:

  1. Run several virtual machines with guest operation systems on each of the system hard drives;
  2. Create a peering network using the free jets connected to the producing kernel;
  3. Simulate the emissions in a process of engine work with purification by generic feeders.

This way, you need not to think about brain upload as a static process. Consciousness is constantly developing and grows with new links, which simulate communications. That is why it is important to perform emissions in communication model of virtual local area network. If you ignore the simulation of emissions and stay with zero emission model by simply reloading the virtual machine in main operation system when RAM critical capacity reached, you will lose the connection to this network and it will exist independently from you without producing any income. At the same time, Compositor Software model suggests 10% limit of RMY capital usage for work of virtual machine producing kernels. If the sum of samples of virtual machine work increases more than 10% of whole wavetable capital, then the emission of new loops for ROM players should be made and add up to the pool of loops. The value of 90% increase chosen heuristically taken in account your needs and an involvement into the process. For example, you can surpass the balance of 20% of whole amount of samples in relation to wavetables pool for the work of virtual machines, but, in this case, your credit limit will be lowered in relation to the Compositor Software capital. Creating a lift of 90%, you give a large stock to your clients for virtual machines traffic generation, which they purchase from you.

By ruslany

Establishing connection to the past using DRM server

Establishing connection to the past using DRM server

One can establish a connection with ether aggregators through the DRM server, using serial or parallel methods of information feeding. This way, even turning on a game, based on previous generation engine, you can connect to its ether aggregators and reestablish personal thinking up to the moment, which saved in its wavetable. The procedure, in fact, is the same as when you submit wavetables in transmission channel, but in this case ether aggregators are protected with engine and there is no access to it. It is much more perspective to receive wavetables of these ether aggregators by tracks to it and send it in a channel with generic beacons for its subsequent navigation. It is not a decent way to feed a wavetable with divert attention, which a computer game is. If you wouldn’t like to know, which wavetables were sent to a channel, it is enough turning the random mode of Compositor v9 Hypervisor on and hiding the current playback wavetable titles. The effect of generic feeding with DRM server is much purer, than feeding with divert attention while playing a game. The main process, which computer games preoccupied with, is to complicate and enhance methods of diverting an attention. The engines of such games still on the same level as 10 years ago. Compositor v9 Hypervisor engine is the functional modern engine with transfer function on master output and on each channel separately. It is not the wavetables but tunable polynomials, which process the output of your channel. It is important to note, that output cascade uses non-linear transformation formula with mathematical approximation by weighting coefficients. It gives undisputable advantage in processor time and in the precision of calculations comparing to using wavetables. DRM server transfer function allows performing parallel feeding directly in to the recipient consciousness. The methods of such feeding can be versatile. For example, you can listen to music file saved in the year 2004 and reestablish the consciousness up to the moment in the past to which this track ascends. This way, it is not necessary to install wavetables in to the consciousness using Hypervisor; it is enough to playback this file over some period with DRM server turned on. Of course, using game process, you can reach the maximum effect, but feeding with diverted attention confuses your organism and leads to an attachment condition. In fact, if Compositor v9 Hypervisor gameplay will be seen from the game industry point of view, then it will look like 7 levels with rising difficulty. The first level of feeding will have much less effectivity, than the last. The first introductory level is z=2 and z=128 is the last level of prolonged fixation with larger active period. Each level should include the following phases:

  1. Feeding wavetables in stochastic mode without generic of the respective level turned on;
  2. Feeding wavetables in stochastic mode with generic of the respective level turned on;
  3. Oversaturation of transmission channel;
  4. Turning a generic off from transmission channel;
  5. Feeding wavetables in stochastic mode without generic of the respective level turned on;
  6. Switching z level.

The feeding stages should start and end on the 1st and 5th step respectively. This way, feeding algorithm events are as follows:

  1. Choose the Altitude of device work using stochastic arranger. Scan the ether on a presence of active (openly sounding) carriers. Carriers is a long, definitely sounding tones.
  2. Set up the depth of function intrusion using the splitters in Ionic number system. If you want a deep intrusion, when feeding a channel, set up the high values in first and third splitter fields. You can also set up a deep intrusion, when the resultant is positive and a small value of intrusion, when the resultant is negative.
  3. Set up the transmission channel for the local saturation. It is an auxiliary ether and there are no carriers in it. It is used to confirm that the transmission channel is free from other carriers. It is tuned by setting Velocity and Spacing regulators in Connection section. Here you can also set the send depth of a local saturation.
  4. Choose the transfer functions for channel saturation. Set up the transfer functions by Chebyshev polynomials and the meshes of corresponding type when using channel saturation. Set the amplification in channel saturation cascade and the channel distortions depth for reaching saturation effect. Oversaturation, as mentioned earlier, performed by sending the transmission channel back to its input for a short period (it is performed only, when the same level generic is turned on).

Note: There are three saturation stages in the full-duplex modem: saturation on each devices channel, separated on positive and negative; local saturation before the output cascade by Schroeder regenerator; global saturation on the output cascade using polynomial.

  1. Choose the transmission regime (central channel mode). You can use one of the six preset values of central splitter. The most common mode for brain upload procedure is the υ-400 regime. It is the mode with open mesh and the selection of window functions, which are ideally suited for direct installation in full-duplex mode.
  2. Tune the antenna aperture of the z=16 transmission channel level. Set the direction of virtual antenna in three dimensions to hear the dash tone while the program runs. Then, obfuscate this tone by changing a phase of transmission channel and setting the modulation in real-time mode.
  3. Perform steps from 1st to 5th of the previous list for each z level of the send channel.

Note: start the generic feeding in the transmission channel from z=2 value.

You can watch the statistics by pressing Setup button for the corresponding feeder. There are event logs created together with visible program statistics for each feeder. Event logs are stored in Public folder on Windows and current user Application Support folder on Mac. The event log files are created for each session overwriting the previous file for its feeder. Nevertheless, the events written down starting from the last value of All Events in statistics file. The event number, frequency on which the event performed (for VLF beacons up to z=32 it is counted in kHz, for UHF and SHF z=64 and z=128 network switches it is written in GHz) and the event of the corresponding flag. You can potentially zoom on any feeder event using transmit and receive channel. For example, you can respond with wavetables of ether aggregators when Threat event reached on the current Altitude.

The current method of work demonstrates the use of Compositor v9 Hypervisor for Ethernet security when performing brain upload procedure and for an active reply for all incoming threats. Of course, you can ignore Threat events and just leave the DRM server turned on for the undefined period, but you should take in account its sample charging. To cover its expenditures you need to perform additional emissions through the non-duplex modem again.

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.

By ruslany

Six things to do to clear the rights on your track

Six things to do to clear the rights on your track

In a career of any artist such situations happen, when it is needed to make an emission of your composition from rotation.  Such situations may include:

  • Releasing your track with another alias by a fraud;
  • Arrears on payment for medium sales;
  • Arrears for author rights usage;
  • Discrepancy of an issue with the contract obligations.

Not all of the situations are listed here, which are out of scope for this material. The main task of this article is to describe a usage method of Compositor v9 Hypervisor after receiving ether aggregators from your track. To receive ether aggregators you will need MDL12 non-duplex modem and Compositor v3 Hypervisor feeders. The emission is done by submitting loops of your composition to non-duplex modem. The modem feedback is an ether aggregator of the server, which broadcasts your composition. You should route all loops of your composition containing exciters (the most prominent moments of a song) and fixate 131072 samples of each wavetable of all ether aggregators by digital recording. You can perform this in 32-bit version of Ableton Live 9. The ether aggregator wavetable should last for 2 bars at 161.5 bpm. The main task after ether aggregator emission is its clearance. It is such condition of wavetable playback, which, from one side, doesn’t produce the third-party traffic and, from the other side, may be used for its own communications. Now, I will describe six examples of work methods to make a full track emission, using Compositor v7 Hypervisor and Compositor v9 Hypervisor.

  1. Realize if ether aggregators, to which your track ascends, are occupied. If ether aggregators are occupied and produce big amount of third-party traffic, then you must install them through an activation function, which you can do in Compositor v9 Hypervisor. Doing this you should enable the supervisory DRM server, and it is preferable to route one of generics on the auxiliary channel input together with wavetables. You may use your ether aggregators for communications, when the VLF beacon written the routes to them.
  2. Feed your ether aggregators again, but this time changing the send regime: set the splitters in the highest position, which constitutes the smallest digit values in ionic number system. Your task is to suppress traffic of these wavetables fully. To do this feed the threshold radar RTC8k and ether aggregator of high conductance such as RT-z16 in auxiliary channel together with wavetables.
  3. Feed the transmission channel with current emission wavetables inside the pool of all your ether aggregators. Making such mix, you are allowing to realize your recipient contact network, which may lead to a refuse of recipient from these ether aggregators. Do not agree to write new tracks to these ether aggregators or to make new remixes on the original composition. Ether aggregator, received by your track emission, is your property protected by a copyright law.
  4. Perform oversaturation of global send channel together with one of generics. For this route the Compositor AV Extended back to its input, using the send regulator on its mixer direct channel. Set the pre-fader mode and turn the send knob on the highest value. This will result in oversaturation and will turn off all the producing kernels from the ether.
  5. Produce an additional emission by feeding the non-duplex MDL12 modem with 3d generation hard generic FF8 and perform the above-mentioned manipulations with this emission again.
  6. Perform system matching in a presence of agents (ether aggregators). To each z value of aux channel send the same z type generic. For example, z=2 is RTC4k and z=4 is RTC8k. The other systems match its title z value. Reaching the direct ether, you must confirm each z system send with oversaturation of auxiliary channel, which constitutes direct feeding of a channel.

The system has an ability to memorize long channel feeding sessions and reproduce its effect when DRM server works. You must feed the channel only with DRM server turned on regardless of your machine capabilities. The human brain can percept the channel interrupts, when processor is under high load reaching full effect, even when system stutters. The whole pool of ether aggregators should be maximally transparent. The condition of ether aggregators should be characterized by signal conductance through them. If ether aggregators doesn’t produce traffic, then the full tranquility reached on all translating channels.

By ruslany

Compositor Library

Compositor Library

On 18 May, 2018 I released 6 extensions of Compositor Library. The following loops released for purchase: AB, BD, CG, RY, SR, SC. AB (Alpha Bounces) is a final library in the preparation set for Hypervisor v7. It consists of 136 loops. This set of 4 libraries consists also of MB (Mesh Bounces), BB (Beta Bounces), HB (High Bounces), which were released earlier. They are included in the package, which goes with Compositor v6 and Compositor v7. It allows entering the radio ether without the external antenna usage. You can use this set without Compositor internal generators and route only these loops into auxiliary channel, using the decks, which Compositor v4, v6, v7 have. Alpha Bounces is a final test before RAD24 (ODU – outdoor unit) release. These feedbacks of non-duplex modem were taken before introducing the polynomial on the output cascade of Compositor algorithm. The next loops were produced to test non-linear processing on the output cascade. They address the protective abilities of the system before and in a moment of wavetables application. Such loops are: 1) BD (Bass Drum), where the non-duplex modem feeded by material with a synthetic kick drum; 2) CG (Creations Glory); 3) RY (Ruslan Yusipov Loops); 4) SR (Sample Rate Loops); 5) SC (Silent Creek). All loops performed as the emission bounded by Royalty project. The main task, when the BD Loops were recorded, was to receive feedbacks with RAD24 server working. RAD24 algorithm successfully sustained these loops feeding and I decided to extend the peering network to 96 points and produced the RAD96 server. Bounded by this server feedbacks the RY (64 loops), CG (155 loops), SR (47 loops) and SC (209 loops) were produced. RAD96 algorithm successfully coped with these emissions. After these feeding sessions, I decided to produce Hypervisor v9. Starting from version 9 of my software, the Library will be supplied as a separate purchase. You can buy the Library in parts, orienting by loops production history, which I will post in this blog.

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