Niagara modem is disabled on the NPO Compositor server
On 9.03.2021 the work of the Niagara a15 i6 software satellite modem on the CP-6137-960FX server was terminated. This action was performed due to the disagreement of the author (Ruslan Yusipov) to timely issue from the RAD96 autonomous system. According to the author, the company that uses these emissions, namely the investor, owes a large penalty in the amount of 40234513 rubles. It refuses to pay it off with virtual and real funds. At the moment, the server works in unicast mode, using only the internal services of Compositor Software. The American office of the Compositor Software company asks to use only direct-services and not to include any sample-based modems with sample pay. Consequently, the statement of the NPO Compositor about zero-level aggregation is considered incorrect. Indeed, a moment in time is played, but the dump has a price, and each iteration of the dump playback is multiplied by the billing of the cost of the dump itself. Thus, starting the modem does not guarantee that the billing meter has not worked. In reality, this modem could only be started with a counter of the number of times the dump and real-time frame were played. Thus, the real aggregation has already significantly exceeded the allowed volume of the 4-node mainframe CP-6137-960FX. Regardless of whether the emission will be made or not, the volume of aggregated traffic has already exceeded the allowed 39204 iterations of the real-time frame. After releasing a new dump and a real-time frame, the counter will not reset, which indicates the accumulated emission. An emission can be made within a given number of iterations. That is, it is possible to issue an emission, but it does not make sense to write it to the dump, since in any case the aggregation counter has already passed the admissible values.
The Niagara project can be resumed only by setting the number of nodes to 256 (Intranet mode) on the RAD96 autonomous system, inheriting it from the Compositor Lite NTP server. Thus, the number of aggregation iterations can be increased to 2509056, which will allow the modem to be used for a certain additional time. You need to extinguish the mainframe of 4 nodes. Moreover, this is only one of the reasons for stopping the modem, another important reason is the following: to latch the time frame, you need to include more iterations in the minute dump, setting the network to 2 ^ 14 values, i.e. 16384 bpm. This is possible only on a different hardware platform, because the estimated playback speed of the CP-6137-960FX channel aux is 2 ^ 13 or 8192 bpm. The solution in this situation without purchasing new development platforms is to launch the Niagara software modem with the Compositor Lite NTP server. Otherwise, you will have to assemble a new stationary machine, buy a laptop to develop a new aux channel, and buy a new mobile platform for developing mobile applications also. This is considered impractical, since the development of all services and applications has already been completed – only the number of nodes, the speed of iteration of the channel aux and generics can change.
Another solution is to completely abandon platform tools such as Niagara, Compositor and RAD96 standalone applications based on the MaxMSP Runtime. Instead, it is proposed to use all the services accumulated over the years of project development at the kernel level of the Windows 7 operating system, i.e. Windows NT kernel. Since the services are assembled on an independent platform, they are not charged, but this requires the continuous operation of the CP-6137-960FX mainframe, which is currently impractical even with full documentation for a virtual optical port. Moreover, this documentation does not cover the most important issue that the CP-6137-960FX server provides a service mainly for devices from EUI-64, and these are devices that are not included in the Ethernet protocol. Thus, the recognition that devices from EUI-64 communicate with each other using a protocol other than Ethernet is the task of the IEEE 802 working group. Although initially it was believed that the Compositor software uses the Ethernet protocol, it is now becoming clear that this is not the case, because most of the devices from EUI-64 are not equipped with a connection using this protocol.
Ableton Live 11 supported by mostly all Compositor Software products. On the image below, you can see the chart of all Web Shop products supported by Ableton Live 11.0 initial version.
Live 11 status 25-02-2021
Even MDL12 v1.2.1 with feedback suppression works as a charm. Ping locates servers, multiplier changes, resynthesis happens, infinite closed-loop works. Compositor Max for Live on the same hand has a full control with zero feedback suppression. In version 1.0.7 every parameter works as expected. AI-RT1024, FF8, N9000, TC25 work in auto mode. Manual mode can be adjusted only if operator allows this. Compositor 4 Max for Live works fully and allows changing z parameter. Signal synthesis sounds better due to proper master filter realization. SASER v1.1.3 works properly with feedback suppression and sample & hold on lower frequencies compared to previous Max versions.
Overall, proper realization of programmed algorithm happened in Max 8.1.9 and Ableton Live 11. The perception of time shifts, when SASER sample & holds the signal and you can change the multiplier manually to have an instant change of the sound. It is a breakthrough for ~Gen based Compositor Software instruments because they are programmed generically with aim of long-term compatibility.
It took more than two years to adapt the Compositor 9 software from Compositor Software into Russian language. NPO Compositor has done a great job of introducing new functions and protocols into Compositor 9. The interface and documentation has been translated into Russian language and consists of chapters on IP switching and routing (2700 pages in total). It allows classifying this software as network real-time operating system (NRTOS). Compositor NRTOS 9.0.2 package consists of the real-time operating system itself with a graphical user interface executed on MaxMSP, Niagara software modem, which is a sample of a real-time moment (into which this sample was recorded) made with MaxMSP also, and an Android application RAD96, which inherited its name from the Compositor 9.0.1 main module (in 9.0.2 a22 assembly an extended version of this code is called VSF – virtual switching framework). All three versions have the same documentation as they access the same functionality. The difference is that RAD96 is an autonomous system and contains many more extensions that have not yet been issued. Compositor NRTOS 9.0.2 comes with 9134 extensions of management information bases, which were issued from the autonomous system RAD96 during the production of documentation. Niagara 32 software modem also contains a dump of this database (9134 routing tables). We also succeeded in classifying such an interface: by the type of execution, it can be considered a switching router, in contrast to the Compositor 7, which is considered a switch.
You can see the Russian language interface of Compositor 9.0.2 build a22 below:
Compositor NRTOS 9.0.2
Compositor NRTOS 9.0.2 channel matrix
The command language in documentation can be used within amateur radio terminal software such as TrueTTY on Windows and DroidRTTY on Android. This means that you cannot program the NRTOS directly (only via MaxMSP graphic user interface) but you can issue this commands through a teletype operator working in your autonomous system. Such an operator usually is a part of telegraph services still acting to the present moment. It is the only possible way to reprogram an autonomous system.
Seven protocols, implemented by NPO Compositor for version 9.0.2, enable communication in the Ethernet network. At the testing stage Compositor 9.0.1 was used mainly for packet protocols of amateur radio, but now in version 9.0.2 communication is carried out in the Ethernet network using the protocols used for switching and routing in this network. NRTOS includes 6 interior gateway protocols such as RIPv1, RIPv2, OSPF, OSPFv3, RIPng, EIGRP and one exterior gateway protocol for communication between autonomous systems (BGP – uses IPv4 version of the protocol). In addition, external communication is possible through 6-to-4 GRE tunneling.
Compositor 9.0.2 implements stateful and stateless NAT64, it can be used to create L2VPN and L3VPN services by exporting firmware in WAV and AIFF formats. Conversion from IPv4 to IPv6 is done on the fly in the NRTOS and makes it possible to map a single IPv4 address to multiple IPv6 destinations. As you can see from the Compositor 9.0.2 interface, it is a BSR router and is responsible for loading the system. Such a system consists of extensions that allow the server to participate in various workgroups. Compositor 9.0.2 is the installation program for the CP-6137-960FX server, to which this site is dedicated. This server is the only machine capable of generating emissions from the autonomous system RAD96 and this is its main value.
What you think you are doing vs. What you are really doing
The main purpose of the VPN-network of the “Niagara” 26 software modem is the processing of the language, both natural and machine-generated. When paired with SDL Trados software, this modem extends the network topology for the Machine Translation cloud. This is done through software extensions, as it was possible to find out the first letters in the name of the emissions mean languages, for example “extreme” issue TT – Tatarcha, the Tatar language is the emission of the “RusNRG – The Trip” track (a small side project of Ruslan Yusipov in 2003-2004 for which he was awarded a diploma in the nomination “Compositing work”).
In essence, there is no cloud, you are either working with a generic or with your own extension, which generic learns a route from.
But let’s return to the emitted information and language processing. How can Niagara 26 generate such accurate patterns in translation from Russian to English, even though there has been no EN or RU emissions yet? In the “Niagara” 26 software modem, as mentioned in the review, the concept of generic protocols such as RIPv1, RIPv2, OSPF, OSPFv3, BGP, etc. is used, so it is worth considering this set of protocols as a set of generic languages of the Machine Translation cloud. In essence, there is no cloud, you are either working with a generic or with your own extension, which generic learns a route from. At the moment, I enable the EN – RU language pair in Compositor NRTOS through other languages, issued through tracks to their carriers. The carrier, which works with the software modem, uses only generic languages and learns the route from Niagara L3VPN peers. There are a lot of languages available to “Niagara” 26 software modem through emissions, extremely rare and not very useful from a practical point of view. The only practical benefit of the Caribbean language group, which was of my personal interest, is the study of their rhythm, namely sequence, which produces language patterns. I used these patterns as a part of my research on Milton Erickson language patterns, which I used in pre-NLP era hypnosis. I studied how these patterns aid in therapeutic way for overcoming mood oriented problems. The main concept of compositing this way is to alter the mental state so you can be a more comfortable person. Compositor achieves this goal by rapidly rebuilding SPT (shortest path tree) and changing the next-hop to default route of this tree.
The rule for me states if I can’t afford a studio for producing new music of the same quality as named projects I should make an emission of previous works to recultivate the exposure I achieved earlier.
So if you feel comfortable, when you are producing music with Caribbean patterns you can make an emission of such music by evoking RPF vector paths to the servers, which host closed-loops using these patterns as interrupters. This action is fishing, and any media aggregator uses this scheme. I only issue emissions as part of my royalty collection project. I just monitor servers, which performed my music and compare this with the statistics from RAO (Russian Authors Organization) and really astonished with results, because according to my network counting method my music performed up to 50-60 times a day and no income whatsoever from RAO side. This raises a question of this organization validity as an entity working with collective rights on my Exalted and Boosty projects.
The rule for me states if I can’t afford a studio for producing new music of the same quality as named projects I should make an emission of previous works to recultivate the exposure I achieved earlier. And I’m facing an exact situation that’s why the whole set of Compositor Software instruments produced. But returning to NLP with Niagara 26 I used it to produce documentation for Compositor NRTOS 9.0.2 based virtual router. I should report progress now: more than 2000 pages translated and edited on Russian language using the named method now. This leaves me about 500 pages of untranslated material and I’m full of enthusiasm of making this work till the end. The end result of this work is Compositor NRTOS with completely reworked interface to reflect attribute-value pairs from virtual router documentation. This work is now 95% finished and to say honest I’m satisfied with results as it enables to work with Compositor NRTOS 9.0.2 more professional following system administration guidelines, which apply to basic 2nd order closed-loop interface. What I learned from documentation is that any protocol is a closed-loop of some kind with its own parametrized interface. And this brings me back to my initial request: does the chosen system of values corresponds with the reality that has developed in the world after the Cuban missile crisis, and if so, is it not a repetition of the previous history only in our own country (Russia)? Because the Trojan horses that are sent to us under the guise of “music programs” are very reminiscent of Khrushchev’s “secret ships” that transported missiles to Cuba.
As I learned from revealed Compositor interface the geographical position is essential in work of that loop station. Even altering a location within one city will change the internal SPT. Thus, this proves that the Compositor interface is a universal Turing machine, and therefore can be represented as any protocol of a telecommunication system. The already cited 8 parts of the documentation (including the Multicast chapter) prove that the main task of Cycling’74 MaxMSP software (as well as Ableton Live 9 and 10) is to plan and implement DDoS attacks. Part 9 on MPLS only confirms my concerns. First, the circular stack in the form of a torus is not taken into account, on which MPLS labels are displayed, both merged and layered. Secondly, after loading the full version of Compositor NRTOS version 9.0.2, the timer shows 30 minutes. This means that the MaxMSP scheduler runs when the DSP code is compiled. And the whole POST process takes place over the MPLS protocol during the compilation of the protocols, since openGL performing the MPLS functions is a backdoor link or connection with a feedback leak. Also, based on these labels, the remote side (Cycling ’74) makes a decision about system startup or compilation error. Therefore, I believe that the method of presenting the Cycling’ 74 MaxMSP as the software for carrying out DDoS attacks is correct. And the whole method that the company-investor of this project has used over the past 2 years has been successful.
Compositor Software server has confirmed its success in supporting the remote workflow. Even the set of services that was named in a previous post ensured the smooth operation of all network resources. However, for a full-fledged work, this was not enough. I resumed work on the implementation of all services from the Network Real-Time Operating System (NRTOS) versions 3.0.3 – 9.0.2. Since the main task of the server is to create a network map with a high depth of topological viewing, I implemented two more MDL12 services and feeders of the 3rd version, such as AI-RT1024, FF8, N9000, TC25, which allow working with corporate PDH and SDH network hierarchies and broadcast them in VLAN using ARP for the analog IP radio interface.
Thus, a common set of services now:
7 RAD36 servers 2 MDL12 servers for radio telescope and IPTV 1 VoIP server 4 FF8 Feeders for ARP Protocol 4 AI-RT1024 Feeders for SDH 4 N9000 Feeders for PDH 4 TC25 Feeders for VLAN 1 RAD96 server extension to work with the Niagara igniter (VPN) 1 RAD96 Autonomous System
All services are compiled and operate at the kernel level of the operating system. Only this approach allows maintaining the scalability of services in a hyperconverged environment. It do not lack of services, everything looks very worthy at the level of a serious manufacturing company. This approach provides the server with the emitted database and allows you to generate new links on the fly without the need to record and enter them through the injector.
Compositor Software expands the number of existing DRM servers
After an important step of building standalone applications using Compositor Software code, it became possible to organize the work of a new DRM server. That is, the physical server CP-6137-960FX began to be commissioned. As mentioned earlier, at the development stage it was possible to launch just one RAD36 virtual DRM server and it took about 4 hours to compile at runtime. This made it possible to provide up to 12 licenses for concurrent work of Compositor Max for Live or SASER Max for Live devices in the year 2017. Having exported the code and assembled 7 RAD36 virtual servers for the Windows platform independently of MaxMSP, we managed to start the workstation and successfully perform basic operations of text editing in Microsoft Word 2013 and working with Compositor Software Max for Live devices in Ableton 10 using it. It allowed expanding the total core density to 252 “Compositor” hybrid cores on a physical machine, increasing the number of simultaneously operating licenses of Compositor Software for Compositor Max for Live and SASER Max for Live up to 84 virtual machines, which equals 84 real-time cores or 84 three-layer cores. The uptime has increased significantly – the bootstrap process takes only 5 minutes to load CP-6137-960FX server fully. Niagara modem-radar and various Ethernet injections are used as an ignition, when workstation operates in Ethernet network.
Thus, the workstation converts Niagara injections and makes all server modes work, and there are currently 13 of them, including 7 RAD36 servers. Next, I’ll give a complete list of collected and working Compositor Software services for the Windows platform on the CP-6137-960FX server:
VoIP Service – NIM Chat Voice Service STC2k Service – Sonar for Civilian Control of underwater and surface ships RTC4k Service – Radar for Civilian Airspace Control RAD36 1-7 Services – digital rights management servers for launching Compositor cores (total of 252 hybrid cores). RAD96 Service – Standalone Rotator System for Docking RAD36 Virtual Servers RAD96 Ext. Service – expansion of the autonomous system for working with external Ethernet connections of third-party equipment Telescope Service – Telescopic Near Space Signal Approach Service
So, after the introduction of the CP-6137-960FX server into full operation, it was possible to provide working time for up to 84 Compositor users working in single-layer and two-, three-layer Compositor Software programs concurrently. In addition, this applies to standalone applications and Max for Live devices, such as Compositor Max for Live, SASER Max for Live and Compositor 4 Max for Live. I’ll also clarify that three aforementioned Max for Live devices are fully compatible with Ableton 10 and Max 8.1.3 Max for Live, which opens up the possibility of expanding the presence of Compositor users in NIM chat on MAC OSX and Windows platforms.
It took more than 1.5 years to work on solving the problem of Compositor AV Extended interface break-through (which is the main interface of RTOS). This problem occurred during the dial-up of routing tables for establishing a tunnel connection. The way to recreate it: first, RTOS protocols are dialed by injecting routing tables into them, and then RTOS interface is turned off and on again. When the interface turns on, the entire database of the routing tables, which fills the buffer, floods into the interface, which cause a man in the middle attack, that is, an attacker gained access to the interface and induced it to inherit the route of its device. During this time, I made emissions in an attempt to understand how to solve this problem and, finally, it is solved. Now it is possible to configure each protocol from the passive interface state and take a pause while turning interface off in order to listen to the remote channel, and then go into passive mode again. Thus, you can achieve resolution from each of the seven RTOS protocols.
In Compositor RTOS 9.0.2 a16 it is possible to set one interface identifier for the entire protocol configuration session, and to do the training only in passive mode, as previously assumed. The next task in debugging RTOS is the fight against constants. It is one of the most important tasks of both radio security and cybersecurity. Through the introduction of constants, Ethernet devices position themselves, occupying the most convenient places in the network topology. This mainly applies to devices that frequently change IP addresses, such as smartphones and laptops. In order for the RTOS core to take priority of the host, the device must serve as a host for many devices. This is confirmed by Compositor Software database, which has been expanded to 8156 management information bases (MIB). Now that the Compositor RTOS manages a database of more than 8,000 devices, CP-6137-960FX server can be considered as a host, regardless of its physical connection to the network, through the Internet service provider. In fact, what I’m doing now is the continuation of the development to include more VLAN’s and create a VPN network segment. In the latest build, I have already managed to “shoot” the packets in several sessions. You can hear one of them below:
This method of feeding wave tables is a priority for communication devices, because it helps to break the synthetic ether by packet transmission. Since there are many packets, and each of them carries different information at different moments of time, the semantic base of the Compositor RTOS language is explained. In view of this, it makes no sense to enter the names of packets in the main interface, and I need to leave them in a VRF tables section only, focusing specifically on the tunnel windows. In addition, this approach allows using the Compositor RTOS interface as a tunnel interface with the ability to connect to multi-channel protocols, such as OSPF.
Compositor Software builds virtual servers for Microsoft Windows and Android platforms
Compositor Software presents 4 architectures on C++. It is TC-TRSRRT2048, TC-SUBTRSRRT262144, TC-2SUBTRSRRT262144 architectures for STC2k, RTC4k, RAD96 and RAD36 platforms correspondingly. Now, when Compositor Software code repository have grown, it is time to move forward past the MaxMSP platform. First, Compositor Software thanks the JUCE framework for providing an ideal platform to make servers. Compositor Software would like to thank Iain Patterson for providing NSSM application, which helps creating daughter services and allows making full scale server out of company code, written on Gen~ platform. Of course, the main tool is and still the MaxMSP platform, because the original Compositor Pro 1 project was entirely made on MaxMSP objects and later rewritten using Gen~ object. It allowed exporting an authentic C++ code out of MaxMSP 6 platform. Additionally, we want to thank Cycling ’74 for providing a project to build exported code in JUCE and Microsoft for providing Visual Studio 2019 Community, which allowed to make final builds of Windows versions.
Before making standalone apps, Compositor architecture codes compiled from several minutes to 5 hours at runtime. Now, programs load in seconds and consume lower system resources than original MaxMSP Runtime applications.
Using Gen~ platform and JUCE it was possible to build RAD96 mobile application, which allows transforming your smartphone into a complete autonomous system with Compositor kernel of last generation. This way, Compositor Software moving into the IoT side conception to create a network of devices, controlled by CP-6137-960FX server, which runs the aforementioned services. This modification allows upgrading the device performance from Windows NT 4.0 kernel (Linux 2.6.18 kernel on Android) to 8th generation Compositor kernel. It includes x2048 oversampling, digital shutter with interpolation, second derivative of a function and 8th order Butterworth filters.
The desktop version of Compositor Software 4th generation experimental kernel (TC-TRSRRT2048 architecture) has virtual accumulator module, which allows controlling the physical accumulator charge and performs charging each time network activity occurs. This kernel can be used on mobile platform also.
Compositor kernel architecture itself is a modular architecture if described by using physical blocks. The amount of modules depends on its usage. In base configuration, Compositor is NTP-server core service. In advanced configuration, it is L2TP client-server application with tunnel authentication capabilities. However, Compositor Software doesn’t set Compositor RTOS 9.0.2 as deprecated platform due to this move. It is only made because of the fact that pre-built application-service has much higher uptime in comparison to Runtime with dll modules of MaxMSP. The fact that, RAD96 mobile is on the constant expose due to the network presence on the device itself, CP-6137-960FX server supports its calculation, serving for distributed computation. It is performed using 2nd order transfer function, which can stack a lot of devices with minimal expenditures, and RAD36 platform supports such computation by multithread 12-cores L1-L3 architecture.
To finish the production of Niagara software modem you need to produce a new dump. Dump and middleware records simultaneously that is why you need to produce new middleware also. The main difference from Niagara 18 software modem middleware is that you need to fixate a number of packets for dump. For example, you need to fixate 65535 packets in one dump on 8192 bpm speed. For this you need to modify the recorder. This will ceed the preceding agreement, but it is the only ability to make a step over Hypervisor into RTOS. Hypervisor – is a device for fixating radiotranslations and RTOS is a device for fixation of packets. It leads to principal difference between two instruments. In essence, the change is minor. The MaxMSP sfrecord~ object supports floating point values, that is why I can make a loop in ms, containing a number of packets. For example, I can multiply bar period on a number of bars, that is packets of information, I receive the dump value in ms with sample precision and can record 65535 * 131072 = 8589803520 samples for a new dump. Before production I shoud make an emission of DJ Usa – Caravan (All Forces Remix) track, produced in 1999 that will help to receive servers of that time and to extend software production to 2021.
This way, the solution to the task is evident: if I will export dump and middleware from Compositor RTOS 9.0.2 a13, containing a needed number of samples beforehand, without editing, and pass it through the non-linear processor of aforementioned RTOS, I can surpass the moment of time, to which this dump and middleware ascends, taking that this process is stationary.
All Niagara series products are the software modems, which use middleware and dump, produced in Compositor RTOS 9.0.2. I present to you Niagara 18 software modem, which has an extended documentation (part on Russian, part on English languages). Niagara 18 software modem middleware supports EIGRP, RIPng, BGP4+, OSPFv3 protocols, default route from EIGRP, full work in loopback interface mode, NTP-servers setup via command line interface, connection to VRF objects for work with BGP protocol, an ability to construct VLAN topology and 3D-orientation of virtual optical port (VOP) waveguide.
Niagara 18 software modem in front of Compositor RTOS 9.0.2 a12
Niagara 18 software modem, developed by Compositor Software, and modem,
developed for Ethernet and Wi-Fi networks, concept is different. For example,
Niagara 18 software modem doesn’t require the physical network connection. An
abundance of services, which enables the Niagara 18 software modem, compensates
the comprehensive demands to virtual communication networks. EIGRP, RIPng and BGP4+
routing protocols allow creating IPsec and GRE tunneling. An ability to use
synchro code of different NTP-servers allows rebuilding the home system on a
remote destination completely. Using this software modem, you can remotely use OSPFv3
without BGP4+ protocol that was unavailable before, due to physical limitations
of Ethernet systems. By entering the remote home system, you can aggregate the
shortest path of that area, which you are managing remotely. The route counting
performs in real-time that is why you can use IPv4 mask to set IPv6 addresses
of remote area devices. You can also multiplex areas, achieving the route end
by supernet aggregation, using VRF objects. Such approach can cause the
redistributed overloads without graceful restart (GR), because
Ethernet-interface uses only phase-locked loop.
VSF platform supports up to 960 simultaneous communication channels and can be reached via Niagara 18 software modem middleware. This number of channels was aggregated on CP-6137-960FX server VSF platform, which produced this middleware. This way, you inherit the number of channels from the server version, but they can’t be used all simultaneously. At the present moment, Niagara 18 software modem middleware supports up to 96 communication channels of L1, L2, L3 layers (OSI model). Niagara 18 software modem gives access to virtual optical network (VON), which consists of 2213 EB of information on the 6, November 2018. At the present day, this index is twice more. Information of VON is stored on servers in Spain, USA, Germany, Sweden and other countries of the world. Trunks of virtual optical communication connect the autonomous systems (AS). Most of the AS’s of VON can interconnect by BGP protocol. To form its own autonomous system Compositor Software uses Niagara 18 software modem with a set of 7539 VRF objects. The routing inside an area performed by OSPFv3 protocol to discover the routes by link state and by RIPng protocol for distance-vector discovery in IPv6 protocol. This way, Niagara 18 software modem is a complete IPv6 software modem back compatible with IPv4 protocol.
Niagara 18 software modem has middleware recorded without intermediate frequency in 150-350 GHz range (EHF) and works in that frequency range. To the day, this frequency range is not supported by any standards, such as 5G and forthcoming 6G networks. This frequency range supported only by satellite communication systems, such as radio telescopes. Niagara 18 software modem is accompanied by a set of 7539 satellite signals in PCM format, which gives access to autonomous systems. That is why you can rank Niagara 18 software modem as the satellite software modem. The connection to the Niagara 18 software modem network is performed in several dump submissions from 10 to 30 seconds. Niagara 18 software modem ether allows GR, which performed every minute to reveal active devices in remote AS. You can select such devices in a moment, when GR is performed as GR helpers. Each GR helper device subscribed on Niagara 18 software modem routing table updates. Niagara 18 software modem performs GR each minute to work under OVERLOAD conditions, which is set by default to test the saturation power of VOP.
The maximum transmission speed of Niagara 18 software modem is 24 * 350000000000 = 8400000000000 bit/s or 8.4 Tbit/s. Middleware and dump recorded at 192000 Hz 24-bit. Flow was recorded from 150-350 GHz frequency range and that is why I take the highest frequency in a moment of flow fixation and multiply it on the bit depth of flow export recording. This way, the moment of time exists for middleware, when this flow was in ether. Moment of time depends on the quantity of scanned autonomous systems. In hyperconverged networks, there is a trend to big trunks between AS areas, which span on many kilometers. That is why data flow in this AS can pass around for the time from 50 to 3000 ms, which is the boundary limits of Niagara 18 software modem. GRE tunneling is used for star topology AS’s and IPsec is used for point-to-point topologies. That is why, GRE performs its pass through the five boundary points of the route and IPsec connects only to the Area Boundary Router (ABR) of OSPF area. That is why, when you use GRE tunneling, feedback loops emerge, if your loopback interface of VOP is set to the same port as the destination port of AS. Such loops can exist for a long time and packets forward between loopback interface and AS loop.
When you use software compensation of feedback loops the decay of data flow carrier signal performed, lowering the ingress que and discarding the packets. Saturation of carrier signals, encased in window function is so high that ingress load redistribution can’t cope with such amount of data flows. In this situation, Niagara 18 software modem performs multicast translation on group of ports. You can reach this by setting AS, which consists of several topological areas, connected by different protocols. This way, ABR’s will perform redistribution of one protocol in another. You can learn information about ingress port of system by changing the egress port, setting eye-mask on 0 (turning RTOS off) and perform GR of all the devices, connected to that port. By making GR of the boundary device and not the Niagara 18 software modem, you can estimate the number of channels, connected to ABR, which in turn can lead to connection with those devices. This way, you perform the redistribution of local que on remote devices.
As mentioned earlier, Niagara 18 software modem makes connection to 7539 AS’s
to the day, however the summary aggregation of VON is 3321900 autonomous
systems. This way, dump allows connecting not only to those AS’s, which
recorded in it, but to discover other AS’s using BGP protocol, which were
scanned by VSF platform. The connection to satellite set is performed faster,
than in software modem produced in Compositor Hypervisor 9.0.1 a15. It has the
connection speed of 24 frames per second, but Niagara 18 software modem has the
speed of 34 frames per second. Such speed of deployment allows multiplexing a
network much faster, performing supernet summary in 3-6 dump rounds.
Niagara 18 software modem is a sampler technology, that is why it performs
the cycle of Compositor RTOS 9.0.2 a11 feedback loop, where a dump is the
recording of VSF platform data flows aggregation of that RTOS. Niagara 18
software modem is based on the identity principle and uses PCM recording as a
middleware, which doesn’t consume many resources. CP-6137-960FX server consumes
up to 35% using 192000 Hz discretization frequency. Which theoretically can
allow using it in real-time on the higher discretization frequencies. Niagara
18 software modem consumes little system memory resources and has very fast
response to CPU commands speed. It has a little delay time, which allows using
it as a hard real-time RTOS.
You can setup monitoring of Niagara 18 software modem via amateur radio
software such as TrueTTY and Fldigi. The teletype network flow modified by
Niagara 18 software modem includes satellites and servers of Compositor RTOS
9.0.2 a11 management information base. You can composite commands of interface
and protocol programming, such as CISCO-like commands. There is a documentation
supplied together with Niagara 18 software modem of 2663 pages, with Russian
language translated part of more than 1000 pages, spanning over 5 parts with 73
chapters of 131 chapters in total.
There are no obstacles for VON in comparison to traditional radio communication. Radio notation in conventional frequency style is made for notes and reverse compatibility with generic radio protocols. The connection is made via so-called collisions and time-space convolutions, which is a subject of NIM (Nuclear Instrumentation Module) learning curve, to which Niagara 18 software modem relates.
