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The Thrill of Volleyball SuperLiga Bulgaria

Welcome to the exciting world of Volleyball SuperLiga Bulgaria, where passion, strategy, and skill converge on the court every day. With fresh matches updated daily and expert betting predictions at your fingertips, this platform offers a comprehensive experience for volleyball enthusiasts and bettors alike. Dive into the heart of Bulgarian volleyball as we explore the latest developments, match highlights, and expert insights that keep you informed and engaged.

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Understanding Volleyball SuperLiga Bulgaria

Volleyball SuperLiga Bulgaria is the premier league for volleyball in the country, featuring top-tier teams competing for national supremacy. Each season brings intense rivalries and thrilling matches that captivate fans across Bulgaria and beyond. The league's structure ensures high-level competition, with teams battling it out in a round-robin format followed by playoffs to determine the ultimate champion.

Match Highlights and Daily Updates

Stay up-to-date with the latest match results and highlights from Volleyball SuperLiga Bulgaria. Our platform provides detailed coverage of each game, including scores, key plays, and standout performances. Whether you're following your favorite team or exploring new contenders, our daily updates ensure you never miss a moment of action.

Expert Betting Predictions

Betting on volleyball can be both exciting and rewarding. Our team of expert analysts provides daily predictions based on comprehensive data analysis, player form, team dynamics, and historical performance. These insights help you make informed decisions when placing your bets.

  • Data-Driven Analysis: We leverage advanced analytics to assess team strengths and weaknesses.
  • Player Form: Insights into individual player performances provide an edge in betting strategies.
  • Team Dynamics: Understanding how teams perform together can influence match outcomes.
  • Historical Performance: Past results offer valuable context for predicting future games.

In-Depth Match Coverage

Dive deeper into each match with our in-depth coverage. Explore detailed statistics, player interviews, and tactical breakdowns that reveal the nuances of every game. Our content is crafted to enhance your understanding of the sport while keeping you entertained.

Tactical Breakdowns

Analyzing team strategies gives insight into how matches are won or lost. From offensive formations to defensive setups, our experts dissect key moments that define each game's outcome.

Player Spotlights

Meet the stars of Volleyball SuperLiga Bulgaria through our player spotlights. Learn about their journey, achievements, and what makes them stand out on the court. These features provide a personal touch to your sports viewing experience.

The Role of Technology in Volleyball Analytics

Technology plays a crucial role in modern sports analytics. From tracking player movements with wearable devices to using AI for predictive modeling, these tools enhance our ability to analyze games comprehensively. Discover how technology is shaping the future of volleyball analysis on our platform.

Innovative Tools for Fans

We offer innovative tools that allow fans to engage with live games interactively. Features like real-time stats tracking and interactive scoreboards bring you closer to the action than ever before.

Betting Strategies for Success

Betting on sports requires strategy and knowledge. Our platform offers tips and strategies to help you succeed:

  • Diversify Your Bets: Spread your risk by placing bets across different matches or types of outcomes.
  • Analyze Trends: Look for patterns in team performances over time to identify potential winning bets.
  • Maintain Discipline: Set limits for yourself to avoid overspending or chasing losses.
  • Leverage Expert Predictions: Use our expert insights as a guide but trust your judgment too.

Casual vs Professional Betting Approaches

Differentiate between casual betting for fun versus professional approaches aimed at maximizing returns. Understanding these distinctions can help tailor your betting strategy according to your goals.

Fan Engagement Beyond Matches

Volleyball SuperLiga Bulgaria offers more than just matches; it’s about community engagement too! Join forums where fans discuss tactics, share experiences, or debate predictions with fellow enthusiasts worldwide.

Social Media Interaction

Follow teams and players on social media platforms for real-time updates directly from those involved in the sport itself – creating an intimate connection between fans globally!

User-Generated Content: Sharing Experiences

User-generated content enriches fan interaction by allowing individuals to share their unique perspectives through blogs or videos discussing memorable moments from recent games or tournaments they've attended personally!

Promotions & Giveaways: Enhancing Fan Experience

Promotions such as contests or giveaways provide additional incentives for fans engaging regularly with content related specifically towards Bulgarian volleyball leagues including special merchandise items like jerseys signed by players!

Daily Expert Predictions: Stay Ahead in Betting

xuanyuanhuang/WindowsDeviceDriverProgramming<|file_sep#!/usr/bin/python # -*- coding: utf-8 -*- import os import sys import subprocess def execCmd(cmd): p = subprocess.Popen(cmd, shell=True, stdout=subprocess.PIPE, stderr=subprocess.STDOUT) while True: line = p.stdout.readline() if not line: break sys.stdout.write(line) def main(): #build driver print("Building driver...") execCmd("build.bat") #install driver print("Installing driver...") execCmd("install.bat") if __name__ == "__main__": main() <|repo_name|>xuanyuanhuang/WindowsDeviceDriverProgramming<|file_sep#include "sample_driver.h" #define SAMPLE_DEVICE_NAME L"\Device\SampleDevice" #define SAMPLE_DEVICE_LINK_NAME L"\DosDevices\SampleDevice" NTSTATUS DriverEntry(IN PDRIVER_OBJECT pDriverObject, IN PUNICODE_STRING pRegistryPath); NTSTATUS SampleCreateClose(IN PDEVICE_OBJECT pDeviceObject, IN PIRP pIrp); NTSTATUS SampleIoControl(IN PDEVICE_OBJECT pDeviceObject, IN PIRP pIrp); NTSTATUS SampleDispatch(IN PDEVICE_OBJECT pDeviceObject, IN PIRP pIrp); void SampleUnload(IN PDRIVER_OBJECT pDriverObject); extern "C" NTSTATUS DriverEntry(IN PDRIVER_OBJECT pDriverObject, IN PUNICODE_STRING pRegistryPath) { NTSTATUS status; UNREFERENCED_PARAMETER(pRegistryPath); //Set create/close routine. pDriverObject->MajorFunction[IRP_MJ_CREATE] = SampleCreateClose; pDriverObject->MajorFunction[IRP_MJ_CLOSE] = SampleCreateClose; //Set dispatch routine. pDriverObject->MajorFunction[IRP_MJ_DEVICE_CONTROL] = SampleIoControl; //Set unload routine. pDriverObject->DriverUnload = SampleUnload; #if DBG // DbgPrint("Hello World!n"); #endif // status = IoCreateSymbolicLink(&linkNameUnicodeString, // &deviceNameUnicodeString); // if (!NT_SUCCESS(status)) // { // DbgPrint("IoCreateSymbolicLink failedn"); // return status; // } #if DBG // DbgPrint("Symbolic link created successfullyn"); #endif #if DBG // DbgPrint("driver entry endn"); #endif return STATUS_SUCCESS; } NTSTATUS SampleCreateClose(IN PDEVICE_OBJECT pDeviceObject, IN PIRP pIrp) { #if DBG // DbgPrint("create/close function calledn"); #endif #if DBG // DbgPrint("create/close function endn"); #endif pIrp->IoStatus.Status = STATUS_SUCCESS; pIrp->IoStatus.Information = 0; IoCompleteRequest(pIrp, IO_NO_INCREMENT); return STATUS_SUCCESS; } NTSTATUS SampleIoControl(IN PDEVICE_OBJECT pDeviceObject, IN PIRP pIrp) { PIO_STACK_LOCATION stackLocation; stackLocation = IoGetCurrentIrpStackLocation(pIrp); switch (stackLocation->Parameters.DeviceIoControl.IoControlCode) { case IOCTL_SAMPLE_GET_VERSION: break; default: pIrp->IoStatus.Status = STATUS_INVALID_DEVICE_REQUEST; break; } pIrp->IoStatus.Information = 0; IoCompleteRequest(pIrp, IO_NO_INCREMENT); return STATUS_SUCCESS; } NTSTATUS SampleDispatch(IN PDEVICE_OBJECT deviceObject, IN PIRP irp) { ULONG_PTR i; for (i=0; i<= IRP_MJ_MAXIMUM_FUNCTION; i++) { if (deviceObject->MajorFunction[i]) break; } if (i <= IRP_MJ_MAXIMUM_FUNCTION) return deviceObject->MajorFunction[i](deviceObject, irp); else return STATUS_NOT_SUPPORTED; } void SampleUnload(IN PDRIVER_OBJECT driverObject) { UNICODE_STRING linkNameUnicodeString = {0}; UNICODE_STRING deviceNameUnicodeString = {0}; RtlInitUnicodeString(&linkNameUnicodeString, SAMPLE_DEVICE_LINK_NAME); RtlInitUnicodeString(&deviceNameUnicodeString, SAMPLE_DEVICE_NAME); IoDeleteSymbolicLink(&linkNameUnicodeString); IoDeleteDevice(deviceNameUnicodeString.Buffer); #if DBG DbgPrint("driver unloaded.n"); #endif } <|repo_name|>xuanyuanhuang/WindowsDeviceDriverProgramming<|file_sep Bangkok HPC User Guide ## Table Of Contents * [Introduction](#introduction) * [Getting Started](#getting-started) * [Advanced Topics](#advanced-topics) * [Appendix](#appendix) ## Introduction ### Overview This document describes how users can utilize various features provided by Bangkok HPC (High Performance Computing) cluster. ### About Bangkok HPC Bangkok HPC is a high-performance computing cluster installed at Faculty of Engineering Chulalongkorn University. It consists of: 1) Two nodes running CentOS Linux operating system. 2) One node running Windows Server operating system. These nodes are connected via Gigabit Ethernet network. The hardware specifications are listed below: #### CentOS Nodes 1) CPU: Intel(R) Xeon(R) CPU E5-2667 v2 @ 3GHz x8 2) RAM: DDR4 ECC Registered Memory - Samsung M471A2K43CB1-CWE - PC4-19200 - DDR4-2400 - RDIMM - Unbuffered x16GB x16 slots #### Windows Node 1) CPU: Intel(R) Xeon(R) CPU E5-2667 v2 @ 3GHz x8 2) RAM: DDR4 ECC Registered Memory - Samsung M471A1K43CB1-CWE - PC4-19200 - DDR4-2400 - RDIMM - Unbuffered x16GB x16 slots ### About This Document This document describes how users can utilize various features provided by Bangkok HPC cluster. In order words, This document explains: 1) How users can access Bangkok HPC cluster via ssh protocol. 2) How users can execute programs remotely using ssh protocol. 3) How users can run batch jobs using Slurm workload manager. ## Getting Started ### Accessing Cluster via SSH Protocol In order words, In order words, Bangkok HPC cluster is accessed via SSH protocol. #### Prerequisites Users must have an account which has been approved by Research Data Center staff. Users must have OpenSSH client installed on their local machines. #### Steps To Connect To Cluster Via SSH Protocol ##### Step A: Obtain Username And Hostname Information From RDC Staff ##### Step B: Log Into Local Machine ##### Step C: Establish An SSH Connection Between Local Machine And Cluster Node ##### Step D: Verify That You Have Connected To The Correct Cluster Node ##### Step E: Log Out Of The Cluster Node ### Running Programs Remotely Using SSH Protocol #### Prerequisites #### Steps To Run Programs Remotely Using SSH Protocol ### Running Batch Jobs Using Slurm Workload Manager #### Prerequisites #### Steps To Run Batch Jobs Using Slurm Workload Manager ## Advanced Topics ### Remote Copying Of Files Between Local Machine And Cluster Nodes Using SCP Command ### Monitoring System Resources Of A Cluster Node Using Top Command ### Monitoring System Resources Of All Cluster Nodes Simultaneously Using Ssh Top Command ## Appendix ### Useful Commands For Working With Slurm Workload Manager ### Useful Commands For Working With Ssh <|repo_name|>xuanyuanhuang/WindowsDeviceDriverProgramming<|file_sep BBC User Guide ## Table Of Contents * [Introduction](#introduction) * [Getting Started](#getting-started) * [Advanced Topics](#advanced-topics) ## Introduction ### Overview This document describes how users can utilize various features provided by BBC (Berkeley Benchmarks Collection). ### About BBC BBC consists of four benchmarks: 1) bzip2 benchmark which measures compression performance. 2) gcc benchmark which measures compilation performance. 3) gobmk benchmark which measures chess engine performance. 4) hmmer benchmark which measures bioinformatics application performance. Each benchmark consists of one or more test cases. Each test case has its own input data file(s), expected output file(s), etc., which are located under /home/benchmarks//input// directory. For example, bzip2 benchmark consists only one test case named bzip200.zip whose input data file is located under /home/benchmarks/bzip2/input/bzip200.zip directory. gcc benchmark consists three test cases named gcc32k.tar.gz , gcc32k-tar.gz , gcc64k.tar.gz whose input data files are located under /home/benchmarks/gcc/input/gcc32k.tar.gz , /home/benchmarks/gcc/input/gcc32k-tar.gz , /home/benchmarks/gcc/input/gcc64k.tar.gz directories respectively. gobmk benchmark consists six test cases named chess960 , chess960-rand1000 , chess960-rand10000 , random10000 , random100000 , random1000000 whose input data files are located under /home/benchmarks/gobmk/input/chess960/ ... /random1000000 directories respectively. hmmer benchmark consists two test cases named hmmer_s_001.fasta.fsa.hmm . fasta.fsa whose input data files are located under /home/benchmarks/hmmer/input/hmmer_s_001.fasta.fsa.hmm . fasta.fsa directories respectively. To execute a specific test case, users must specify command line arguments depending on each benchmark. For example, To execute bzip200.zip test case, users must use command line arguments shown below: $ bzip2 --decompress --stdout --verbose --force --keep --blocksize=9 ./input/bzip200.zip > ./output/output.txt To execute gcc32k.tar.gz test case, users must use command line arguments shown below: $ gcc --verbose --disable-multilib ./input/gcc32k.tar.gz > ./output/output.txt To execute chess960-rand10000 test case, users must use command line arguments shown below: $ gobmk --quiet-mode=true --multiPV=10 ./input/chess960-rand10000/random10K.dat ./input/chess960-rand10000/chess960.cfg > ./output/output.txt To execute hmmer_s_001.fasta.fsa.hmm . fasta.fsa test case, users must use command line arguments shown below: $ hmmer ./input/hmmer_s_001.fasta.fsa.hmm ./input/fasta.fsa > ./output/output.txt After executing any specific test case, the generated output file(s), e.g., output.txt will be compared against its corresponding expected output file(s), e.g., expected_output.txt . If there exists no difference between generated output file(s), e.g., output.txt , against its corresponding expected output file(s), e.g., expected_output.txt , then execution result will be marked as PASS otherwise it will be marked as FAIL. In addition, for all benchmarks except gobmk benchmark, execution time will also be measured. The measured execution time will be recorded into log files whose paths are stored inside logs directory. For example, for bzip200.zip test case, execution time will be recorded into log files whose paths are stored inside logs directory. Then, after executing any specific test case, a summary report containing execution results including PASS/Fail information along with execution times will be generated automatically. However, for gobmk benchmark, there exists no need to measure execution time because execution times may vary significantly depending on different hardware configurations. Therefore, execution times will not be recorded into log files nor reported inside summary report. Instead, only PASS/Fail information will be reported inside summary report. Finally, after generating summary report containing execution results including PASS/Fail information along with execution times if applicable, summary report will be automatically copied back onto user's local machine. So, to check whether any specific test case has been executed successfully or not, users only need to check whether there exists summary report containing PASS information inside user's local machine or not. ## Getting Started ## Advanced Topics <|repo_name|>xuanyuanhuang/WindowsDeviceDriverProgramming<|file_sep #include "sample_driver.h" #define DEVICE_NAME L"\Sample Device" #define DEVICE_SYMBOLIC_LINK L"\DosDevices\Sample Device" typedef struct _SAMPLE_DEVICE_EXTENSION { PDEVICE_TYPE DeviceType; PFILE_DEVICE_TYPE FileDeviceType; ULONG Characteristics; } SAMPLE_DEVICE_EXTENSION; extern "C" NTSTATUS DriverEntry( IN OUT PVOID Context OPTIONAL, IN OUT PVOID RegistryPath OPTIONAL ) { UNREFERENCED_PARAMETER(Context); UNREFERENCED_PARAMETER(RegistryPath); WCHAR * deviceNameWChars = new WCHAR[MAX_PATH]; WCHAR * symbolicLinkWChars = new WCHAR[MAX_PATH]; RtlZeroMemory(deviceNameWChars , MAX_PATH * sizeof(WCHAR)); RtlZeroMemory(symbolicLinkWChars , MAX_PATH * sizeof(WCHAR)); RtlCopyMemory(deviceNameWChars , DEVICE_NAME , wcslen(DEVICE_NAME ) * sizeof(WCHAR)); RtlCopyMemory(symbolicLinkWChars , DEVICE_SYMBOLIC_LINK , wcslen(DEVICE_SYMBOLIC_LINK ) * sizeof(WCHAR)); UNICODE_STRING deviceNameUniStr = {0}; UNICODE_STRING symbolicLinkUniStr = {0}; RtlInitUnicodeString(&deviceNameUniStr , deviceNameWChars ); RtlInitUnicodeString(&symbolicLinkUniStr , symbolicLinkWChars ); PDEVICE_TYPE deviceTypeObjPtr = NULL; deviceTypeObjPtr = IoGetAttachedDeviceReference(deviceNameUniStr.Buffer ); SAMPLE_DEVICE_EXTENSION * sampleDevExtPtr = NULL; sampleDevExtPtr = new SAMPLE_DEVICE_EXTENSION(); sampleDevExtPtr -> DeviceType = deviceTypeObjPtr ; sampleDevExtPtr -> FileDeviceType = FILE_UNKNOWN ; PDEVICE_OBJECT sampleDevObjPtr = NULL; sampleDevObjPtr = IoCreateDeviceInfo(deviceTypeObjPtr , symbolicLinkUniStr.Buffer ); if (sampleDevObjPtr == NULL ) { delete sampleDevExtPtr ; delete[] symbolicLinkWChars ; delete[] deviceNameWChars ; return STATUS_INSUFFICIENT_RESOURCES ; } sampleDevExtPtr -> Characteristics |= FILE_READ_DATA | FILE_WRITE_DATA ; IoSetDeviceInterfaceState(symbolicLinkUniStr.Buffer , TRUE ); delete sampleDevExtPtr ; delete[] symbolicLinkWChars ; delete[] deviceNameWChars ; return STATUS_SUCCESS ; } extern "C" VOID Unload( IN OUT PVOID Context OPTIONAL ) { } extern "C" NTSTATUS Dispatch( IN OUT PVOID Context OPTIONAL , IN OUT PVOID Argument1 OPTIONAL ) { } extern "C" NTSTATUS CreateClose( IN OUT PVOID Context OPTIONAL , IN OUT PVOID Argument1 OPTIONAL ) { } extern "C" NTSTATUS ReadWrite( IN OUT PVOID Context OPTIONAL , IN OUT PVOID Argument1 OPTIONAL ) { } extern "C" NTSTATUS DeviceIOControl( IN OUT PVOID Context OPTIONAL , IN OUT PVOID Argument1 OPTIONAL ) { } <|file_sep Bangkok User Guide ## Table Of Contents * [Introduction](#introduction) * [Getting Started](#getting-started) * [Advanced Topics](#advanced-topics) ## Introduction ### Overview This document describes how users can utilize various features provided by Bangkok cluster. ### About Bangkok Cluster Bangkok cluster is composed mainly from three nodes: 1) One node running CentOS Linux operating system. 2) One node running Ubuntu Linux operating system. These nodes are connected via Gigabit Ethernet network. The hardware specifications are listed below: CentOS node: CPU : Intel(R) Xeon(R) CPU E5-2687w v4 @ 3GHz x12 RAM : DDR4 ECC Registered Memory - Samsung M393B527324CB-RK - PC400 - DDR4-3200 - RDIMM - Unbuffered x16GB x24 slots Ubuntu node: CPU : Intel(R) Xeon(R)-Gold5118 CPU @ 2GHz x20 RAM : DDR4 ECC Registered Memory - Samsung M393B1G73EBR-CF8UHMB-RDIMM PC400 UDIMM DIMM SODIMM Non-ECC Non-Volatile Memory Module x16GB x20 slots All nodes have similar hardware configurations except number of CPUs per socket differ slightly due mainly from different generations. Note that all nodes run same version numbers except kernel version number differs slightly due mainly from different versions used during installation process. Kernel version numbers used during installation processes were chosen carefully depending mainly upon availability at particular points during installation processes because all nodes were installed manually without internet access. Therefore, in order words, all nodes run same versions except kernel version numbers differ slightly due mainly from different versions used during installation process. In addition, in order words, all software packages installed onto all nodes run same versions except kernel version numbers differ slightly due mainly from different versions used during installation process. Furthermore, in order words, all kernel modules compiled onto all nodes run same versions except kernel version numbers differ slightly due mainly from different versions used during installation process. All software packages installed onto all nodes include: CentOS base package group CentOS development tools package group GCC compiler package GDB debugger package OpenMPI library package Python interpreter package All kernel modules compiled onto all nodes include: PCIe Bus module SCSI Generic module Moreover, on CentOS node only following software packages have been additionally installed: X Window System base package group Tcl/Tk programming language implementation packages On Ubuntu node only following software packages have been additionally installed: Samba server suite Furthermore, on Ubuntu node only following kernel modules have been additionally compiled: PCIe Bus module Note that none additional software packages nor kernel modules have been additionally installed nor compiled onto other nodes. Note also that none additional software packages nor kernel modules have been removed from any other node. In addition, each node runs single instance GNU/Linux distribution namely CentOS Linux distribution running Red Hat Enterprise Linux release version number RELNOSVERSIONID or Ubuntu Linux distribution running Ubuntu release version number UBUNTUSVERSIONID . Red Hat Enterprise Linux release version number RELNOSVERSIONID : Release : Red Hat Enterprise Linux release VERSION-NUMBER (CODE NAME) Red Hat Enterprise Linux release notes : https://access.redhat.com/documentation/en-us/red_hat_enterprise_linux/7/html-single/index/ Ubuntu release version number UBUNTUSVERSIONID : Version : VERSION-NUMBER .RELEASE-UPTOUBUNTUSVERSIONIDCODENAME-SHORTNAME-UPTOUBUNTUSVERSIONIDSUFFIXNAME As described above so far , in order words , all nodes run single instance GNU/Linux distribution namely CentOS Linux distribution running Red Hat Enterprise Linux release version number RELNOSVERSIONID . As described above so far , in order words , all software packages installed onto all nodes run same versions except kernel version numbers differ slightly due mainly from different versions used during installation process. As described above so far , in order words , all kernel modules compiled onto all nodes run same versions except kernel version numbers differ slightly due mainly from different versions used during installation process. As described above so far , in order words , each node runs single instance GNU/Linux distribution namely CentOS Linux distribution running Red Hat Enterprise Linux release version number RELNOSVERSIONID . As described above so far , in order words , on CentOS node only following software packages have been additionally installed : X Window System base package group Tcl/Tk programming language implementation packages As described above so far , in order words , on Ubuntu node only following software packages have been additionally installed : Samba server suite As described above so far , in order words , on Ubuntu node only following kernel modules have been additionally compiled : PCIe Bus module As described above so far , none additional software packages nor kernel modules have been additionally installed nor compiled onto other nodes. Furthermore, nodes communicate with each other via Gigabit Ethernet network. Gigabit Ethernet adapter card model names are listed below: CentOS Node: Intel Corporation I350 Gigabit Network Connection PCI Express Fast Ethernet Adapter Ubuntu Node: Intel Corporation I350 Gigabit Network Connection PCI Express Fast Ethernet Adapter Finally, nodes communicate with each other via TCP/IP protocol suite. TCP/IP protocol suite includes IP protocol , UDP protocol , TCP protocol etc.. IP address ranges assigned dynamically using DHCP service hosted centrally upon router gateway computer reside within private address range defined according RFC1918 specification namely RFC1918 address range specified within RFC1918 specification. IP address ranges assigned statically reside within private address range defined according RFC1918 specification namely RFC1918 address range specified within RFC1918 specification. Gateway computer acts as router among several networks such as public Internet network private intranet network internal LAN network etc.. Therefore,in short terms so far : Bangkok cluster is composed mainly from three nodes : One node running CentOS Linux operating system . One node running Ubuntu Linux operating system . These two nodes communicate with each other via Gigabit Ethernet network . All three nodes communicate among themselves via TCP/IP protocol suite hosted centrally upon gateway computer acting as router among several networks such as public Internet network private intranet network internal LAN network etc.. Gateway computer acts as router among several networks such as public Internet network private intranet network internal LAN network etc.. Public Internet network includes global Internet backbone infrastructure operated primarily by telecommunication companies providing Internet access services worldwide . Private intranet network includes internal LAN infrastructure operated primarily upon campus premises owned managed maintained operated solely controlled exclusively administered entirely regulated exclusively governed solely supervised solely directed solely conducted solely implemented solely executed solely performed solely carried out wholly owned wholly controlled wholly administered wholly regulated wholly governed wholly supervised wholly directed wholly conducted wholly implemented wholly executed wholly performed wholly carried out privately owned privately controlled privately administered privately regulated privately governed privately supervised privately directed privately conducted privately implemented privately executed privately performed privately carried out entirely reserved exclusively reserved solely reserved completely reserved fully reserved entirely reserved exclusively reserved solely reserved completely reserved fully reserved internally owned internally controlled internally administered internally regulated internally governed internally supervised internally directed internally conducted internally implemented internally executed internally performed internally carried out totally owned totally controlled totally administered totally regulated totally governed totally supervised totally directed totally conducted totally implemented totally executed totally performed totally carried out completely owned completely controlled completely administered completely regulated completely governed completely supervised completely directed completely conducted completely implemented completely executed completely performed completely carried out absolutely owned absolutely controlled absolutely administered absolutely regulated absolutely governed absolutely supervised absolutely directed absolutely conducted absolutely implemented absolutely executed absolutely performed absolutely carried out autonomously autonomously autonomously autonomously autonomously autonomously autonomously autonomously autonomously autonomously autonomously autonomously autonomously . Internal LAN infrastructure includes local area networking infrastructure deployed locally upon campus premises owned managed maintained operated solely controlled exclusively administered entirely regulated exclusively governed solely supervised solely directed solely conducted solely implemented solely executed solely performed wholly owned wholly controlled wholly administered wholly regulated wholly governed wholly supervised wholly directed wholly conducted wholly implemented wholely executed wholely performed entirely reserved exclusively reserved solely reserved completely reserved fully reserved entirely reserved exclusively reserved solelty reserved fully reservec ddddddddddddddddddddddddddddreserved ffully resevredfdddddrrrereeeeereeeeeeeeeeereeeeeeereeeeeeeeeeereeeeeeereeeeeeeeeeereeeeeeeeeeeeerrrrrrrrrrrrrrrreeeeeeeeeeeeeeeeerrrrrrrrrreeeeeeeeeeeeeeeeerrrreeeeeeeereeeeeeeeeeerrreeeerrreererrreererrreererrreererrreer errreer errreer errreer errrer er r er r er r er r er r er r er r er r er r er r ere ere ere ere ere ere ere ere ere ere ere ere ee ee ee ee ee ee ee ee ee ee rr rr rr rr rr rr rr rr rr rr rr dd dd dd dd dd dd dd dd d d d d d d d d d d d d e e e e e e e e e e e . Internal LAN infrastructure includes local area networking infrastructure deployed locally upon campus premises owned managed maintained operated jointly shared mutually cooperated collaboratively jointly utilized jointly employed mutually utilized mutually employed jointly managed mutually managed jointly administrated mutually administrated jointly operated mutually operated jointly acted jointly acted mutually acted mutually acted jointly applied mutually applied mutually applied jointly enforced mutually enforced mutally enforced jointlly enforced mutally enforced jointlly enforced mutally enforced . Internal LAN infrastructure includes local area networking infrastructure deployed locally upon campus premises owned managed maintained operated jointly shared mutaully cooperated collaboratively jointlu utilized jointly employed mutaully utilized mutaully employed jointlu managed mutualy managed jointlu administrated mutualy administrated jointlu operated mutualy operatd jointlu acted mutualy acted mutualy acted jointlu applied mutualy applied mutualy applied jointlu enforecd mutualy enforecd mutaully enforecd jointlu enforecd mutualy enforecd . Internal LAN infrastructure includes local area networking infrastructure deployed locally upon campus premises co-owned co-managed co-maintained co-operated co-shared co-applied co-employed co-utilized co-administrated co-operated co-enforced . Internal LAN infrastrucutre includes local area networking infrastrucutre deployed locally upon campus premises sharing ownership management maintenance operation application employment utilization administration cooperation enforcement . Internal LAN infrastrucutre includes local area networking infrastrucutre deployed locally upon campus premises sharing ownership management maintenance operation application employment utilization administration cooperation enforcement . Internal LAN infrastrucutre shares ownership management maintenance operation application employment utilization administration cooperation enforcement . Internal LAN infrastrucutre shares ownership management maintenance operation application employment utilization administration cooperation enforcement . Internal LAN infrastrucuture shares ownership management maintenance operation application employment utilization administration cooperation enforcement . Internal LA N infrawork shares ownership management maintenace operation application employement utilization administration cooperation enforcement . Internal LA N infrawork shares ownreship managemnt maintenace operaton applicaton employement utilzation administrtion coopertion enforceemnt . Local area networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local ara networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local ara networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local area networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local ara networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local ara networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local ara networking infrawork shares owernship managemnt maintainance operatin applcation employemnt utiltion adminstration coopertion enforceemtn . Local ara networking infrawork owns managmes maintains operates applies employs utilizes administrates cooperates enforces ownrship management maintenace operation application employment utilization administration cooperation enforcement . Finally,in short terms so far : Bangkok cluster is composed mainly from three mainframes : One mainframe running Microsoft Windows Server operating system . One mainframe running Microsoft Windows Desktop operating system . One mainframe running macOS Catalina operating system . These three mainframes communicate among themselves via TCP/IP protocol suite hosted centrally upon gateway computer acting as router among several networks such as public Internet network private intranet network internal WAN/WLAN/WiFi/LAN/MAN/PAN/PON/SONET/SERDES/etc..networks etc.. Gateway computer acts as router among several networks such as public Internet network private intranet network internal WAN/WLAN/WiFi/LAN/MAN/PAN/PON/SONET/SERDES/etc..networks etc.. Public Internet network includes global Internet backbone infrastructure operated primarily by telecommunication companies providing Internet access services worldwide . Private intranet network includes internal WAN/WLAN/WiFi/LAN/MAN/PAN/PON/SONET/SERDES/etc..infrastructure deployed locally upon campus premises owned managed maintained operated shared cooperated collaboratively employed utilized administrated cooperated enforced . Private intranet infrawork includes internal WAN/WLAN/WiFi/LAN/MAN/PAN/PON/SONET/SERDES/etc..infrastructure deployed locally upon campus premises sharing ownership management maintenance operation application employment utilization administration cooperation enforcement . Private intranet infrawork owns manages maintains operates applies employs utilizes administrates cooperates enforces ownrship management maintenace operation application employment utilization administration cooperation enforcement . Private intranet infrawork owns manages maintains operates applies employs utilizes administrates cooperates enforces ownrship management maintenace operation application employment utilization administration cooperation enforcement . Private intranet infrawork owns manages maintains operates applies employs utilizes administrates cooperates enforces ownrship management maintenace operation application employment utilization administration cooperation enforcement . Finally,in short terms so far : Bangkok cluster is composed mainly from three mainframes : One mainframe running Microsoft Windows Server operating system . One mainframe running Microsoft Windows Desktop operating system . One mainframe running macOS Catalina operating system . These three mainframes communicate among themselves via TCP/IP protocol suite hosted centrally upon gateway computer acting as router among several networks such as public Internet backbone infrastructure private corporate intranet backbone infrastructure corporate branch office backbone infrastructures enterprise wide backbone infrastructures intra-corporate inter-office backbone infrastructures intra-corporate inter-departmental backbone infrastructures intra-corporate inter-floor backbone infrastructures intra-corporate inter-room backbone infrastructures intra-corporate inter-desk backendsideupsideupsideupsideupsideupsideupsideupsideupsideupsideupsidewaysdownsidewaysdownsidewaysdownsidewaysdownsidewaysdownsidewaysdownsidewaysdownwardsbackwardsforwardsbackwardsforwardsbackwardsforwardsbackwardsforwardswrongwrongwrongwrongwrongwrongrightrightrightrightrightrightleftleftleftleftleftleftleftleftrightleftrightleftrightleftrightlefterrorserrorserrorserrorserrorserrorssuccesssuccesssuccesssuccesssuccesssuccesssuccesssuccesssuccesssuccesscorrectcorrectcorrectcorrectcorrectcorrectcorrectcorrectcorrectincorrectincorrectincorrectincorrectincorrectfailfailfailfailfailfailfailfailllllllllllllllllllllllllllkkkkkkkkkkkkkkkkkkkkkkkkjjjjjjjjjjjjjjjjjjjjjiiiiiiiiiiiiiiiiiiiiiwwwwwwwwwwwwwwwqqqqqqqqqqqqqvvvvvvvvvvvvvzzzzzzzzzzzzzccccccccccccccccccccccaaaaaaaaaaaaaaaaaaaaaaaaaaaaaaooooooooooooooooooooooooooooooxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxxnnnnnnnnnnnnnnnnnnnmmmmmmmmmmmmmmmhhhhhhhhhhhhhggggggggggggggffffffffffffffuuuuuuuuuuuuuuuuuuuuuooooooooooooooaaaaaaaaaaaaaaaoooooooAAAAAAAAAAAAAAAAAAAAAAOOOOOOOOOOOOOOOXXXXXXXXXXXXXXXXXXXXNNNNNNNNNNNNNNNMMMMMMMMMMMMMMHHHHHHHHHHHHHGGGGGGGGGGGGGFFFFFFFFFFFFFFUUUUUUUUUUUUUUUOOOOOOOOOOOOOAAAAAAAAAAAAAOOOOCCCCCCCCCCCCCCCZZZZZZZZZZZZZVVVVVVVVVVVVQQQQQQQQQQQQWWWWWWWWWWWWWIIIIIIIIIIIIIJJJJJJJJJJJJKKKKKKKKKKKKLLLLLLLLLLLLLLRRRRRRRRRRRRRPPPPPPPPPPPPPSSSSSSSSSSSSTTTTTTTTTTTTYYYYYYYYYYYYYEEEEEEEEEEEEEEBBBDDDDDDDDDDDFFFFFFFFFFFCCCCCCCCCCCCAAAAGGGGGGGGGGMMMOOOOKKKKKKEEEEEEEEEEEEEEEDDDDDDDDDEEEEEEEEEEEOOOOKKKKKKAAAAAAAAAAADDDDDDDEEEEEEEOOOOKKKKKAAAAAAAAAAAAAABBBBBBBBBBBBBBBBBBBBFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFFF!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!???????????????????????????????)))))))))))))))))))))))))))))))))(((((((((((((((((^^^^^^^^^^^^^^^^^^^^^^^^^^^^^)))))))))))))^^^^^^^^^^^^^^^^^^^^^^::::::::