super computers

A supercomputer is a computer that is considered, or was considered at the time of its introduction, to be at the frontline in terms of processing capacity, particularly speed of calculation. The term "Super Computing" was first used by New York World newspaper in 1929 to refer to large custom-built tabulators IBM made for Columbia University.

Hardware:

Supercomputers using custom CPUs traditionally gained their speed over conventional computers through the use of innovative designs that allow them to perform many tasks in parallel, as well as complex detail engineering. They tend to be specialized for certain types of computation, usually numerical calculations, and perform poorly at more general computing tasks. Their memory hierarchy is very carefully designed to ensure the processor is kept fed with data and instructions at all times—in fact, much of the performance difference between slower computers and supercomputers is due to the memory hierarchy. Their I/O systems tend to be designed to support high bandwidth, with latency less of an issue, because supercomputers are not used for transaction processing.

As with all highly parallel systems, Amdahl's law applies, and supercomputer designs devote great effort to eliminating software serialization, and using hardware to accelerate the remaining bottlenecks.

Processing techniques:

Vector processing techniques were first developed for supercomputers and continue to be used in specialist high-performance applications. Vector processing techniques have trickled down to the mass market in DSP architectures and SIMD processing instructions for general-purpose computers.

Modern video game consoles in particular use SIMD extensively and this is the basis for some manufacturers' claim that their game machines are themselves supercomputers. Indeed, some graphics cards have the computing power of several TeraFLOPS. The applications to which this power can be applied was limited by the special-purpose nature of early video processing. As video processing has become more sophisticated, Graphics processing units (GPUs) have evolved to become more useful as general-purpose vector processors, and an entire computer science sub-discipline has arisen to exploit this capability: General-Purpose Computing on Graphics Processing Units (GPGPU.)


Programming

The parallel architectures of supercomputers often dictate the use of special programming techniques to exploit their speed. Special-purpose Fortran compilers can often generate faster code than C or C++ compilers, so Fortran remains the language of choice for scientific programming, and hence for most programs run on supercomputers. To exploit the parallelism of supercomputers, programming environments such as PVM and MPI for loosely connected clusters and OpenMP for tightly coordinated shared memory machines are being used.


As you can easily guess super computers are all about speed when it comes to numeric
computations.


p.s.
japan is currently building a super computer that will dwarf today's fastest super
computers when it comes to speed . the speed of that computer will be
about 10 petaflops.
by the way today's fastest (blu genes) has speed of about 480 teraflops
just imagine.........

Search engines

All of us use a search engine (Google yaar) without knowing actually how it works.
Here is some material you will find really useful.

Definition;
A search engine is an information retrieval system designed to help find information stored on a computer system. Search engines help to minimize the time required to find information and the amount of information which must be consulted, akin to other techniques for managing information overload.

The most public, visible form of a search engine is a Web search engine which searches for information on the World Wide Web.

Working:

Search engines provide an interface to a group of items that enables users to specify criteria about an item of interest and have the engine find the matching items. The criteria are referred to as a search query. In the case of text search engines, the search query is typically expressed as a set of words that identify the desired concept that one or more documents may contain.
There are several styles of search query syntax that vary in strictness. Where as some text search engines require users to enter two or three words separated by white space, other search engines may enable users to specify entire documents, pictures, sounds, and various forms of natural language. Some search engines apply improvements to search queries to increase the likelihood of providing a quality set of items through a process known as query expansion.


The list of items that meet the criteria specified by the query is typically sorted, or ranked, in some regard so as to place the most relevant items first. Ranking items by relevance (from highest to lowest) reduces the time required to find the desired information. Probabilistic search engines rank items based on measures of similarity and sometimes popularity or authority. Boolean search engines typically only return items which match exactly without regard to order.

To provide a set of matching items quickly, a search engine will typically collect metadata about the group of items under consideration beforehand through a process referred to as indexing. The index typically requires a smaller amount of computer storage, and provides a basis for the search engine to calculate item relevance. The search engine may store of copy of each item in a cache so that users can see the state of the item at the time it was indexed or for archive purposes or to make repetitive processes work more efficiently and quickly.

Notably, some search engines do not store an index. Crawler, or spider type search engines may collect and assess items at the time of the search query. Meta search engines simply reuse the index or results of one or more other search engines.

Instant Messaging

Instant messaging offers real-time communication and allows easy collaboration, which might be considered more akin to genuine conversation than email's "letter" format. In contrast to e-mail, the parties know whether the peer is available. Most systems allow the user to set an online status or away message so peers are notified when the user is available, busy, or away from the computer. On the other hand, people are not forced to reply immediately to incoming messages. For this reason, some people consider communication via instant messaging to be less intrusive than communication via phone. However, some systems allow the sending of messages to people not currently logged on (offline messages), thus removing much of the difference between IM and email.
Instant messaging allows instantaneous communication between a number of parties simultaneously, by transmitting information quickly and efficiently, featuring immediate receipt of acknowledgment or reply. In certain cases IM involves additional features, which make it even more popular, i.e. to see the other party, e.g. by using web-cams, or to talk directly for free over the internet.
It is possible to save a conversation for later reference. Instant messages are typically logged in a local message history which closes the gap to the persistent nature of e-mails and facilitates quick exchange of information like URLs or document snippets (which can be unwieldy when communicated via telephone).

operating systems

An operating system (OS) is the software that manages the sharing of the resources of a computer and provides programmers with an interface used to access those resources. An operating system processes system data and user input, and responds by allocating and managing tasks and internal system resources as a service to users and programs of the system. At the foundation of all system software, an operating system performs basic tasks such as controlling and allocating memory, prioritizing system requests, controlling input and output devices, facilitating networking and managing file systems. Most operating systems come with an application that provides a user interface for managing the operating system, such as a command line interpreter or graphical user interface. The operating system forms a platform for other system software and for application software.
The most commonly-used contemporary desktop and laptop (notebook) OS is Microsoft Windows. More powerful servers often employ Linux, FreeBSD, and other Unix-like systems. However, these operating systems, especially Mac OS X, are also used on personal computers

Services:

Process management:

Every program running on a computer, be it a service or an application, is a process. As long as a von Neumann architecture is used to build computers, only one process per CPU can be run at a time. Older microcomputer OSes such as MS-DOS did not attempt to bypass this limit, with the exception of interrupt processing, and only one process could be run under them (although DOS itself featured TSR as a very partial and not too easy to use solution).
Most operating systems enable concurrent execution of many processes and programs at once via multitasking, even with one CPU. The mechanism was used in mainframes since the early 1960s, but in the personal computers it became available in 1990s. Process management is an operating system's way of dealing with running those multiple processes. On the most fundamental of computers (those containing one processor with one core) multitasking is done by simply switching processes quickly. Depending on the operating system, as more processes run, either each time slice will become smaller or there will be a longer delay before each process is given a chance to run. Process management involves computing and distributing CPU time as well as other resources. Most operating systems allow a process to be assigned a priority which affects its allocation of CPU time. Interactive operating systems also employ some level of feedback in which the task with which the user is working receives higher priority. Interrupt driven processes will normally run at a very high priority. In many systems there is a background process, such as the System Idle Process in Windows, which will run when no other process is waiting for the CPU.

Memory management:

Current computer architectures arrange the computer's memory in a hierarchical manner, starting from the fastest registers, CPU cache, random access memory and disk storage. An operating system's memory manager coordinates the use of these various types of memory by tracking which one is available, which is to be allocated or deallocated and how to move data between them. This activity, usually referred to as virtual memory management, increases the amount of memory available for each process by making the disk storage seem like main memory. There is a speed penalty associated with using disks or other slower storage as memory – if running processes require significantly more RAM than is available, the system may start thrashing. This can happen either because one process requires a large amount of RAM or because two or more processes compete for a larger amount of memory than is available. This then leads to constant transfer of each process's data to slower storage.
Another important part of memory management is managing virtual addresses. If multiple processes are in memory at once, they must be prevented from interfering with each other's memory (unless there is an explicit request to utilise shared memory). This is achieved by having separate address spaces. Each process sees the whole virtual address space, typically from address 0 up to the maximum size of virtual memory, as uniquely assigned to it. The operating system maintains a page table that match virtual addresses to physical addresses. These memory allocations are tracked so that when a process terminates, all memory used by that process can be made available for other processes.
The operating system can also write inactive memory pages to secondary storage. This process is called "paging" or "swapping" – the terminology varies between operating systems.
It is also typical for operating systems to employ otherwise unused physical memory as a page cache; requests for data from a slower device can be retained in memory to improve performance. The operating system can also pre-load the in-memory cache with data that may be requested by the user in the near future; SuperFetch is an example of this.

other tasks will be covered in next articles.

CHS

Cylinder-head-sector, also known as CHS, was an early method for giving addresses to each physical block of data on a hard disk drive. In the case of floppy drives, for which the same exact diskette medium can be truly low-level formatted to different capacities, this is still true.
Though CHS values no longer have a direct physical relationship to the data stored on disks, pseudo CHS values (which can be translated by disk electronics or software) are still being used by many utility programs.

Definitions:

Heads

Data is written to and read from the surface of a platter by a device called a head. Naturally, a platter has 2 sides and thus 2 surfaces on which data could be manipulated; usually there are 2 heads per platter--one on each side, but not always. (Sometimes the term side is substituted for head, since platters might be separated from their head assemblies; as is definitely the case with the removable media of a floppy drive.)

Tracks

Are the thin concentric circular strips on a floppy medium or platter surface which actually contain the magnetic regions of data written to a disk drive.

Cylinders

A cylinder comprises all the tracks (on every usable platter surface) that can be accessed by the read/write heads while the actuator assembly remains stationary.

Sectors

Each usable side of a platter can also be thought of as a collection of slices called sectors. (See Blocks for an alternate definition of sector.)

Blocks

The intersection of a track and a sector is called a block. Thus, blocks are delineated by specifying a certain cylinder, head and sector. These blocks are the smallest geometrical breakdown of a disk, and represent the smallest amount of data which can be transferred to or from a disk (usually 512 bytes).
However, many PC engineers and technicians use the term sector (instead of block) as if it were also defined as the smallest geometrical breakdown of a disk.[1] The UNIX/Linux communities, however, continue to employ the term block. For example, the Linux fdisk utility normally displays partition table information using 1024-byte blocks while also using sector to help describe a disk's size with its phrase, 63 sectors/track.

CHS Addressing:

Hence, each block of data can be addressed by specifying a cylinder, head, and sector. The following formulas detail the CHS geometry and addressing scheme.
The number of blocks on one side of a platter is:

blocks_Per_Platter_Side = (cylinders_Per_Platter)*(Sectors_Per_Platter)The number of

blocks per platter is:

blocks_Per_Platter = (blocks_Per_Platter_Side)*(sides_Used_Per_Platter)

which is usually written in terms of the number of heads used:

blocks_Per_Platter = (blocks_Per_Platter_Side)*(Heads_Per_Platter)

This is usually expanded to:

blocks_Per_Platter = (cylinders_Per_Platter)*(Sectors_Per_Platter)*(Heads_Per_Platter)

and rearranged:

blocks_Per_Platter = (cylinders_Per_Platter)*(Heads_Per_Platter)*(Sectors_Per_Platter)

Since all the platters are the same size and hard drives usually have more than one platter, the total number of blocks on the drive can be written as:

total_Blocks = (Cylinders)*(Heads_Per_Platter)*(Sectors)*(Number_Of_Platters)

If the number of platters is combined with the number of heads per platter to form the single parameter Heads, the equation can be written in its final form as:

total_Blocks = (Cylinders)*(Heads)*(Sectors)

VOIP

Voice over Internet Protocol (VoIP) is a protocol optimized for the transmission of voice through the Internet or other packet switched networks. VoIP is often used abstractly to refer to the actual transmission of voice (rather than the protocol implementing it). VoIP is also known as IP Telephony, Internet telephony, Broadband telephony, Broadband Phone and Voice over Broadband. "VoIP" is pronounced voyp.
Companies providing VoIP service are commonly referred to as providers, and protocols which are used to carry voice signals over the IP network are commonly referred to as Voice over IP or VoIP protocols. They may be viewed as commercial realizations of the experimental Network Voice Protocol (1973) invented for the ARPANET providers. Some cost savings are due to utilizing a single network to carry voice and data, especially where users have existing underutilized network capacity that can carry VoIP at no additional cost. VoIP to VoIP phone calls are sometimes free, while VoIP to public switched telephone networks, PSTN, may have a cost that is borne by the VoIP user.
Voice over IP protocols carry telephony signals as digital audio, typically reduced in data rate using speech data compression techniques, encapsulated in a data packet stream over IP.
There are two types of PSTN to VoIP services: Direct Inward Dialing (DID) and access numbers. DID will connect the caller directly to the VoIP user while access numbers require the caller to input the extension number of the VoIP user.

Functionality:

VoIP can facilitate tasks and provide services that may be more difficult to implement or expensive using the more traditional PSTN. Examples include:
The ability to transmit more than one telephone call down the same broadband-connected telephone line. This can make VoIP a simple way to add an extra telephone line to a home or office. 3-way calling, call forwarding, automatic redial, and caller ID; features that traditional telecommunication companies (telcos) normally charge extra for. Secure calls using standardized protocols (such as Secure Real-time Transport Protocol.) Most of the difficulties of creating a secure phone over traditional phone lines, like digitizing and digital transmission are already in place with VoIP. It is only necessary to encrypt and authenticate the existing data stream. Location independence. Only an internet connection is needed to get a connection to a VoIP provider. For instance, call center agents using VoIP phones can work from anywhere with a sufficiently fast and stable Internet connection. Integration with other services available over the Internet, including video conversation, message or data file exchange in parallel with the conversation, audio conferencing, managing address books, and passing information about whether others (e.g. friends or colleagues) are available online to interested parties.

MBR(Master Boot Record)

A Master Boot Record (MBR), or partition sector, is the 512-byte boot sector that is the first sector ("Sector 0") of a partitioned data storage device such as a hard disk. (The boot sector of a non-partitioned device is a Volume Boot Record.) The MBR may be used for one or more of the following:Holding a disk's primary partition table. Bootstrapping operating systems, after the computer's BIOS passes execution to machine code instructions contained within the MBR. Uniquely identifying individual disk media, with a 32-bit disk signature; even though it may never be used by the machine the disk is running on.Due to the broad popularity of IBM PC-compatible computers, this type of MBR is widely used, to the extent of being supported by, and incorporated into, other computer types, including newer cross-platform standards for

Bootstrapping and Programming:

Where a data storage device has been partitioned with (what Microsoft terms) the MBR Partition Table scheme (i.e., the conventional IBM PC partitioning scheme), the master boot record contains the primary partition entries in its partition table. The partition table entries for other, secondary, partitions are stored in Extended Boot Records, BSD disklabels, and Logical Disk Manager metadata partitions that are described by those primary entries.
By convention, there are exactly four primary partition table entries in the MBR Partition Table scheme, although some DOS operating systems did extend this to five (PTS-DOS) or even eight (AST or NEC DOS) entries.
Where a data storage device has been partitioned with the GUID Partition Table scheme, the Master Boot Record will still contain a partition table, but its only purpose is to indicate the existence of the GUID Table and to prevent utility programs that only understand the MBR Partition Table scheme from creating any partitions in what they would see as only free space on the disk.

Backing up/restoring the MBR:

Note: If you decide to back up your MBR sector, be sure to save the file on an emergency diskette or other backup device, or just print out a text representation of its hexadecimal bytes as you would see them in a disk editor. Simply storing the file on the same disk drive it was copied from will do no good if the disk's partition table has been erased!

DR-DOSIn DR-DOS 6 (and possibly other versions), the FDISK program has an additional option to "Re-write Master Boot Record". When this is done the old MBR is stored in a file, OLDMBR.BIN. This file can be copied. If it is present on a disk, FDISK will instead prompt to "Restore Original Boot Record", and the file will be re-loaded as the disk's boot record.

MS-DOS and WindowsFor MS-DOS and Windows-based operating systems, a number of third-party utilities exist for backing-up the MBR and/or partition table data.

Unix-like systemsThe dd utility, which is available on most Unix-like systems, can be used to create backup images of the master boot record. Care should be taken when using the dd utility, as incorrect values for its parameters can cause data corruption. You must have the appropriate access to the target device in order to use these commands successfully.
To back up the MBR of a hard disk or other storage device, use the following command to create a file named mbr.bin containing the entire contents of the master boot record:

dd if=device of=mbr.bin bs=512 count=1

where device is the path of the device file corresponding to the entire contents of the storage device whose MBR is to be backed up.

For example,

the primary master IDE device (ATA bus 0, device 0) is typically represented by the device file /dev/hda under Linux.

To restore the MBR from a backup file to a storage device, use the following command, which replaces the first 512 bytes with the contents of the file named mbr.bin:

dd if=mbr.bin of=device bs=512 count=1

To back up or restore only the executable code area, assuming that the executable code uses at most 446 bytes, use the option bs=446 instead of bs=512 when executing the appropriate command. If a full 512-byte backup has already been made, a 446-byte partial restore can still be used, but the opposite is not true (dd cannot copy more bytes from a file than it contains). Using a partial restore can be useful if both the code area and the partition table have been changed and it is necessary to restore only the original code without losing the new partition table.

Minibike

A minibike, also known as a mini moto or pocketbike, is a miniaturized version of a motorcycle. Traditional minibikes usually use four stroke motors that power a chain to turn the rear wheel. These four stroke motors are similar to a lawnmower, but not identical. The main difference is the shaft direction. A minibike requires a horizontal shaft while a lawnmower uses a vertical shaft. Contrary to popular belief, old lawnmower engines cannot be used to make a minibike since the crankshaft is oriented in a vertical position instead of a horizontal position like a minibike would need. Some models may use two stroke motors although electric-powered models are also available. The 2-stroke motor produces a loud, whining buzz and a more polluting cloud of smoke as exhaust if not properly tuned. These features, along with the minibike's tiny size, mean that minibikes are almost never street-legal.

trojans and their ports

This is a good long list of trojans and the ports they use.
so now i have made your job simple just memorize all these and block
the ports in case these are active on your pc.
Simple huh???

TCP 1 Breach.2001, SocketsDeTroie.230, SocketsDeTroie.250
TCP 28 Amanda.200
TCP 31 MastersParadise.920
TCP 68 Subseven.100
TCP 142 NetTaxi.180
TCP 146 Infector.141, Intruder.100, Intruder.100
TCP 171 ATrojan.200
TCP 285 WCTrojan.100
TCP 286 WCTrojan.100
TCP 334 Backage.310
TCP 370 NeuroticKat.120, NeuroticKat.130
TCP 413 Coma.109
TCP 420 Breach.450
TCP 555 Id2001.100, PhaseZero.100, StealthSpy.100
TCP 623 Rtb666.160
TCP 660 Zaratustra.100
TCP 661 Noknok.800, Noknok.820
TCP 666 BackConstruction.210, BackConstruction.250, Bla.100, Bla.200, Bla.400, Bla.503, Cain.150, Dimbus.100, Noknok.820, Ripper.100, SatansBackdoor.100, SatansBackdoor.101, SatansBackdoor.102, Unicorn.100, Unicorn.101, Unicorn.110
TCP 667 SniperNet.210, Snipernet.220
TCP 668 Unicorn.101, Unicorn.110
TCP 680 Rtb666.160
TCP 777 Tiny.100, Undetected.230, Undetected.300, Undetected.310, Undetected.320, Undetected.330, Undetected.331, Undetected.332
TCP 785 NetworkTerrorist.100
TCP 800 NeuroticKitten.010
TCP 831 NeuroticKat.100, NeuroticKat.120, NeuroticKat.130
TCP 901 NetDevil.130, NetDevil.140
TCP 1000 DerSpaeher.200
TCP 1001 Silencer.100
TCP 1008 AutoSpy.100
TCP 1010 DerSpaeher.200
TCP 1015 Doly.150
TCP 1111 TPort.100
TCP 1130 Noknok.800, Noknok.820
TCP 1207 SoftWAR.100
TCP 1243 Subseven.100, SubSeven.110, SubSeven.180, SubSeven.190, Subseven.200
TCP 1245 VoodooDoll.006
TCP 1269 Matrix.130
TCP 1480 RemoteHack.130
TCP 1568 RemoteHack.100, RemoteHack.110
TCP 1600 DirectConnection.100
TCP 1601 DirectConnection.100
TCP 1602 DirectConnection.100
TCP 1634 NetCrack.100
TCP 1784 Snid.120, Snid.212
TCP 1999 TransmissionScout.100, TransmissionScout.110
TCP 2000 ATrojan.200, InsaneNetwork.400
TCP 2001 DIRT.220, TrojanCow.100
TCP 2003 TransmissionScout.100, TransmissionScout.110
TCP 2023 RipperPro.100
TCP 2040 InfernoUploader.100
TCP 2115 Bugs.100
TCP 2140 DeepThroat.100, DeepThroat.200, DeepThroat.310
TCP 2332 SilentSpy.202
TCP 2589 Dagger.140
TCP 2600 DigitalRootbeer.100
TCP 2989 Rat.200
TCP 3128 MastersParadise.970
TCP 3129 MastersParadise.920, MastersParadise.970
TCP 3150 DeepThroat.100, DeepThroat.200, DeepThroat.310, MiniBacklash.110
TCP 3215 BlackStar.100, Ghost.230
TCP 3333 Daodan.123
TCP 3410 OptixPro.100, OptixPro.110
TCP 3456 Force.155, TerrorTrojan.100
TCP 3505 AutoSpy.130, AutoSpy.140
TCP 3586 Snid.120, Snid.212
TCP 3700 PortalOfDoom.100
TCP 3723 Mantis.100
TCP 3800 Eclypse.100
TCP 3996 RemoteAnything.364
TCP 4000 SkyDance.220, SkyDance.229
TCP 4201 Wartrojan.160, Wartrojan.200
TCP 4225 SilentSpy.202
TCP 4321 Bobo.100
TCP 4444 AlexTrojan.200, Crackdown.100
TCP 4488 EventHorizon.100
TCP 4523 Celine.100
TCP 4545 InternalRevise.100, RemoteRevise.150
TCP 4567 FileNail.100
TCP 4666 Mneah.100
TCP 4950 ICQTrojan.100
TCP 5005 Aladino.060
TCP 5025 Keylogger.WMRemote.100
TCP 5031 NetMetro.104
TCP 5032 NetMetro.104
TCP 5033 NetMetro.104
TCP 5050 RoxRat.100
TCP 5151 OptixLite.020, OptixLite.030, OptixLite.040
TCP 5190 MBomber.100
TCP 5277 WinShell.400
TCP 5343 WCRat.100
TCP 5400 BackConstruction.120, BackConstruction.150, BladeRunner.080, DeepThroat.300
TCP 5401 BackConstruction.120, BackConstruction.150, BackConstruction.210, BackConstruction.250, BladeRunner.080, DeepThroat.300, Mneah.100
TCP 5402 BackConstruction.210, BackConstruction.250, BladeRunner.080, DeepThroat.300, Mneah.100
TCP 5534 TheFlu.100
TCP 5550 XTCP.200, XTCP.201
TCP 5555 Noxcape.100, Noxcape.200
TCP 5695 Assassin.100
TCP 5714 WinCrash.100
TCP 5741 WinCrash.100
TCP 5742 WinCrash.103
TCP 5802 Y3KRat.160
TCP 5810 Y3KRat.160
TCP 5838 Y3KRat.170
TCP 5858 Y3KRat.110, Y3KRat.120, Y3KRat.140
TCP 5880 Y3KRat.140
TCP 5881 Y3KRat.110, Y3KRat.120, Y3KRat.140
TCP 5882 Y3KRat.100, Y3KRat.110, Y3KRat.120, Y3KRat.140, Y3KRat.150
TCP 5883 Y3KRat.110, Y3KRat.140
TCP 5884 Y3KRat.140, Y3KRat.150
TCP 5885 Y3KRat.110, Y3KRat.120, Y3KRat.140
TCP 5886 Y3KRat.120, Y3KRat.140
TCP 5887 Y3KRat.110, Y3KRat.120, Y3KRat.140
TCP 5888 Y3KRat.100, Y3KRat.110, Y3KRat.120, Y3KRat.140, Y3KRat.150
TCP 5889 Y3KRat.100, Y3KRat.110, Y3KRat.120, Y3KRat.140, Y3KRat.150
TCP 5890 Y3KRat.140
TCP 6400 Thething.100, Thething.150
TCP 6556 AutoSpy.120, AutoSpy.122
TCP 6655 Aqua.020
TCP 6660 LameSpy.095
TCP 6666 LameRemote.100, ProjectMayhem.100
TCP 6669 Vampire.100
TCP 6670 DeepThroat.200, DeepThroat.210
TCP 6671 DeepThroat.310
TCP 6699 HostControl.101
TCP 6711 DeepThroat.300, Noknok.820, SubSeven.180, SubSeven.190
TCP 6712 Subseven.100
TCP 6713 Subseven.100
TCP 6767 NTRC.120
TCP 6776 SubSeven.180, SubSeven.190, Subseven.200
TCP 6789 Doly.200
TCP 6796 SubSeven.214
TCP 6912 ShitHeep.100
TCP 6939 Indoctrination.100
TCP 6953 Lithium.100
TCP 6969 2000Cracks.100, Bigorna.100, Danton.110, Danton.210, Danton.220, Danton.310, Danton.320, Danton.330, GateCrasher.110, NetController.108, Sparta.110, VagrNocker.120
TCP 6970 Danton.330
TCP 7001 Freak88.100
TCP 7119 Massaker.100
TCP 7200 Massaker.110
TCP 7300 Coced.221
TCP 7301 Coced.221
TCP 7306 NetSpy.200, NetSpy.200
TCP 7410 Phoenix.190, Phoenix.200
TCP 7511 Genue.100
TCP 7609 Snid.120, Snid.212
TCP 7614 Wollf.130
TCP 7648 BlackStar.100, Ghost.230
TCP 7788 Last.2000, Matrix.200
TCP 7826 MiniOblivion.010, Oblivion.010
TCP 7887 SmallFun.110
TCP 7891 Revenger.100
TCP 7979 VagrNocker.200
TCP 7997 VagrNocker.200
TCP 8000 XConsole.100
TCP 8011 Way.240
TCP 8012 Ptakks.215, Ptakks.217
TCP 8110 LoseLove.100
TCP 8111 LoseLove.100
TCP 8301 LoseLove.100
TCP 8302 LoseLove.100
TCP 8372 NetBoy.100
TCP 8720 Connection.130
TCP 8734 AutoSpy.110
TCP 8811 Force.155
TCP 8899 Last.2000
TCP 9000 Aristotles.100
TCP 9301 LoseLove.100
TCP 9400 InCommand.100, InCommand.110, InCommand.120, InCommand.130, InCommand.140, InCommand.150, InCommand.153, InCommand.160, InCommand.167, InCommand.170
TCP 9401 InCommand.100, InCommand.110, InCommand.170
TCP 9402 InCommand.100, InCommand.110
TCP 9561 CRatPro.110
TCP 9563 CRatPro.110
TCP 9580 TheefLE.100
TCP 9696 Danton.210, Ghost.230
TCP 9697 Danton.320, Danton.330, Ghost.230
TCP 9870 R3C.100
TCP 9872 PortalOfDoom.100
TCP 9873 PortalOfDoom.100
TCP 9874 PortalOfDoom.100
TCP 9875 PortalOfDoom.100
TCP 9876 Rux.100, SheepGoat.100
TCP 9877 SmallBigBrother.020
TCP 9878 SmallBigBrother.020, TransmissionScout.100, TransmissionScout.110, TransmissionScout.120
TCP 9879 SmallBigBrother.020
TCP 9999 ForcedEntry.100, Infra.100, Prayer.120, Prayer.130, TakeOver.200, TakeOver.300
TCP 10001 DTr.130, DTr.140
TCP 10013 Amanda.200
TCP 10067 PortalOfDoom.100
TCP 10100 Gift.240
TCP 10101 NewSilencer.100
TCP 10167 PortalOfDoom.100
TCP 10528 HostControl.100, HostControl.260
TCP 10607 Coma.109
TCP 10666 Ambush.100
TCP 11011 Amanda.200
TCP 11050 HostControl.101
TCP 11051 HostControl.100, HostControl.260
TCP 11223 AntiNuke.100, Progenic.100, Progenic.110
TCP 11225 Cyn.100, Cyn.103, Cyn.120
TCP 11306 Noknok.800, Noknok.820
TCP 11831 Katux.200, Latinus.140, Latinus.150, Pest.100, Pest.400
TCP 11991 PitfallSurprise.100
TCP 12043 Frenzy.2000
TCP 12345 Fade.100, Netbus.160, Netbus.170, VagrNocker.400
TCP 12346 Netbus.160, Netbus.170
TCP 12348 Bionet.210, Bionet.261, Bionet.280, Bionet.302, Bionet.305, Bionet.311, Bionet.313, Bionet.316, Bionet.317
TCP 12349 Bionet.084, Bionet.261, Bionet.280, Bionet.302, Bionet.305, Bionet.311, Bionet.313, Bionet.314, Bionet.316, Bionet.317, Bionet.401, Bionet.402
TCP 12389 KheSanh.210
TCP 12478 Bionet.210
TCP 12623 Buttman.090, Buttman.100
TCP 12624 Buttman.090, Buttman.100
TCP 12625 Buttman.100
TCP 12904 Akropolis.100, Rocks.100
TCP 13473 Chupacabra.100
TCP 13753 AFTP.010
TCP 14100 Eurosol.100
TCP 14194 CyberSpy.840
TCP 14286 HellDriver.100
TCP 14500 PCInvader.050, PCInvader.060, PCInvader.070
TCP 14501 PCInvader.060, PCInvader.070
TCP 14502 PCInvader.050, PCInvader.060, PCInvader.070
TCP 14503 PCInvader.050, PCInvader.060, PCInvader.070
TCP 14504 PCInvader.050, PCInvader.060
TCP 15092 HostControl.100, HostControl.260
TCP 15382 SubZero.100
TCP 15432 Cyn.210
TCP 15555 ICMIBC.100
TCP 16322 LastDoor.100
TCP 16484 MoSucker.110
TCP 16661 Dfch.010
TCP 16969 Progenic.100
TCP 16982 AcidShiver.100
TCP 17300 Kuang.200
TCP 17499 CrazzyNet.370, CrazzyNet.375, CrazzyNet.521
TCP 17500 CrazzyNet.370, CrazzyNet.375, CrazzyNet.521
TCP 17569 Infector.141, Infector.160, Infector.170, Infector.180, Infector.190, Infector.200, Intruder.100, Intruder.100
TCP 17593 AudioDoor.120
TCP 19191 BlueFire.035, BlueFire.041
TCP 19604 Metal.270
TCP 19605 Metal.270
TCP 19991 Dfch.010
TCP 20000 Millenium.100
TCP 20001 Millenium.100, PshychoFiles.180
TCP 20002 AcidKor.100, PshychoFiles.180
TCP 20005 MoSucker.200, MoSucker.210, MoSucker.220
TCP 21212 Schwindler.182
TCP 21554 Exploiter.100, Exploiter.110, Girlfriend.130, GirlFriend.135
TCP 21579 Breach.2001
TCP 21584 Breach.2001
TCP 21684 Intruse.134
TCP 22068 AcidShiver.110
TCP 22115 Cyn.120
TCP 22222 Prosiak.047, Ruler.141, Rux.300, Rux.400, Rux.500, Rux.600
TCP 22223 Rux.400, Rux.500, Rux.600
TCP 22456 Bla.200, Bla.503
TCP 22457 AcidShiver.120, Bla.200, Bla.503
TCP 22784 Intruzzo.110
TCP 22845 Breach.450
TCP 22847 Breach.450
TCP 23005 Infinaeon.110, NetTrash.100, Oxon.110, WinRat.100
TCP 23006 Infinaeon.110, NetTrash.100, Oxon.110, WinRat.100
TCP 23032 Amanda.200
TCP 23432 Asylum.010, Asylum.012, Asylum.013, Asylum.014, MiniAsylum.110
TCP 23456 EvilFTP.100, VagrNocker.400
TCP 23476 DonaldDick.153, DonaldDick.154, DonaldDick.155
TCP 23477 DonaldDick.153
TCP 24000 Infector.170
TCP 24307 Wildek.020
TCP 25386 MoonPie.220
TCP 25486 MoonPie.220
TCP 25555 FreddyK.100, FreddyK.200
TCP 25556 FreddyK.100
TCP 25685 MoonPie.010, MoonPie.012, MoonPie.130, MoonPie.220, MoonPie.240, MoonPie.400
TCP 25686 MoonPie.135, MoonPie.200, MoonPie.400
TCP 25982 MoonPie.135, MoonPie.200
TCP 26274 Delta.050
TCP 27160 MoonPie.135, MoonPie.200
TCP 27184 Alvgus.100, Alvgus.800
TCP 27374 Muerte.110, Subseven.210, SubSeven.213
TCP 28429 Hack'a'Tack.2000
TCP 28430 Hack'a'Tack.2000
TCP 28431 Hack'a'Tack.2000
TCP 28432 Hack'a'Tack.2000
TCP 28433 Hack'a'Tack.2000
TCP 28434 Hack'a'Tack.2000
TCP 28435 Hack'a'Tack.2000
TCP 28436 Hack'a'Tack.2000
TCP 29559 DuckToy.100, DuckToy.101, Katux.200, Latinus.140, Latinus.150, Pest.100, Pest.400
TCP 29891 Unexplained.100
TCP 30000 Infector.170
TCP 30001 Error32.100
TCP 30003 LamersDeath.100
TCP 30029 AOLTrojan.110
TCP 30100 NetSphere.127, NetSphere.130, NetSphere.131
TCP 30101 NetSphere.127, NetSphere.130, NetSphere.131
TCP 30102 NetSphere.127, NetSphere.130, NetSphere.131
TCP 30103 NetSphere.131
TCP 30947 Intruse.134
TCP 31320 LittleWitch.400, LittleWitch.420
TCP 31337 BackOrifice.120, Khaled.100, OPC.200
TCP 31415 Lithium.101
TCP 31416 Lithium.100, Lithium.101
TCP 31557 Xanadu.110
TCP 31631 CleptoManicos.100
TCP 31745 Buschtrommel.100, Buschtrommel.122
TCP 31785 Hack'a'Tack.100, Hack'a'Tack.112
TCP 31787 Hack'a'Tack.100, Hack'a'Tack.112
TCP 31789 Hack'a'Tack.100, Hack'a'Tack.112
TCP 31791 Hack'a'Tack.100, Hack'a'Tack.112
TCP 31887 BDDT.100
TCP 31889 BDDT.100
TCP 32100 ProjectNext.053
TCP 32418 AcidBattery.100
TCP 32791 Akropolis.100, Rocks.100
TCP 33291 RemoteHak.001
TCP 33333 Blackharaz.100, Prosiak.047, SubSeven.214
TCP 33577 SonOfPsychward.020
TCP 34324 TelnetServer.100
TCP 34763 Infector.180, Infector.190, Infector.200
TCP 35000 Infector.190, Infector.200
TCP 35600 Subsari.140
TCP 36794 BugBear.100
TCP 37237 Mantis.020
TCP 37651 YAT.210
TCP 37653 YAT.310
TCP 40308 Subsari.140
TCP 40412 TheSpy.100
TCP 40421 MastersParadise.970
TCP 40422 MastersParadise.970
TCP 40999 DiemsMutter.110, DiemsMutter.140
TCP 41626 Shah.100
TCP 44444 Prosiak.070
TCP 45673 Akropolis.100, Rocks.100
TCP 47262 Delta.050
TCP 48006 Fragglerock.200
TCP 49683 HolzPferd.210
TCP 50000 Infector.180
TCP 50130 Enterprise.100
TCP 50766 Fore.100
TCP 51234 Cyn.210
TCP 51966 Cafeini.080, Cafeini.110
TCP 54321 PCInvader.010
TCP 57341 NetRaider.100
TCP 57922 Bionet.084
TCP 58008 Tron.100
TCP 58009 Tron.100
TCP 59090 AcidReign.200
TCP 59211 DuckToy.100, DuckToy.101
TCP 59345 NewFuture.100
TCP 60000 DeepThroat.300, MiniBacklash.100, MiniBacklash.101, MiniBacklash.101
TCP 60411 Connection.100, Connection.130
TCP 60412 Connection.130
TCP 60552 RoxRat.100
TCP 63536 InsaneNetwork.500
TCP 63878 AphexFTP.100
TCP 63879 AphexFTP.100
TCP 64969 Lithium.100
TCP 65000 Socket.100
UDP 1 SocketsDeTroie.250
UDP 666 Bla.200, Bla.400, Bla.503, Noknok.820
UDP 1130 Noknok.800, Noknok.820
UDP 2140 DeepThroat.100, DeepThroat.200, DeepThroat.310
UDP 2989 Rat.200
UDP 3128 MastersParadise.970
UDP 3129 MastersParadise.920, MastersParadise.970
UDP 3150 DeepThroat.100, DeepThroat.200, DeepThroat.310, MiniBacklash.110
UDP 3333 Daodan.123
UDP 3800 Eclypse.100
UDP 3996 RemoteAnything.364
UDP 4000 RemoteAnything.364
UDP 5555 Daodan.123
UDP 5881 Y3KRat.110, Y3KRat.140
UDP 5882 Y3KRat.100, Y3KRat.110, Y3KRat.120, Y3KRat.140, Y3KRat.150
UDP 5883 Y3KRat.110, Y3KRat.140
UDP 5884 Y3KRat.140, Y3KRat.150
UDP 5885 Y3KRat.110, Y3KRat.120, Y3KRat.140
UDP 5886 Y3KRat.120, Y3KRat.140
UDP 5887 Y3KRat.110, Y3KRat.120, Y3KRat.140
UDP 5888 Y3KRat.100, Y3KRat.110, Y3KRat.120, Y3KRat.150
UDP 6953 Lithium.100
UDP 8012 Ptakks.217
UDP 10067 PortalOfDoom.100
UDP 10167 PortalOfDoom.100
UDP 10666 Ambush.100
UDP 11225 Cyn.100, Cyn.103, Cyn.120
UDP 11306 Noknok.800, Noknok.820
UDP 12389 KheSanh.210
UDP 12623 Buttman.090, Buttman.100
UDP 12625 Buttman.100
UDP 14100 Eurosol.100
UDP 23476 DonaldDick.155
UDP 26274 Delta.050
UDP 27184 Alvgus.100
UDP 28431 Hack'a'Tack.2000
UDP 28432 Hack'a'Tack.2000
UDP 28433 Hack'a'Tack.2000
UDP 28434 Hack'a'Tack.2000
UDP 28435 Hack'a'Tack.2000
UDP 28436 Hack'a'Tack.2000
UDP 29891 Unexplained.100
UDP 30103 NetSphere.131
UDP 31320 LittleWitch.400, LittleWitch.420
UDP 31337 BackOrifice.120, OPC.200
UDP 31416 Lithium.100, Lithium.101
UDP 31789 Hack'a'Tack.100, Hack'a'Tack.112
UDP 31791 Hack'a'Tack.100, Hack'a'Tack.112
UDP 33333 Blackharaz.100
UDP 47262 Delta.050
UDP 49683 HolzPferd.210
UDP 60000 MiniBacklash.100

Just goto start >run>cmd
and type "netstat -an" you will get a complete list of open ports and their connections.

p.s:
the list may be wrong somewhere. you see its a long one

SERIAL KEYS

Many times we need to get a "WORKING" serial key for some s/w.
But most of the times when we try search string like "serial key for....."
we get a lot of reviews about the product and other crap.
Now here is a simple way to solve this problem.

Get the serial number you need ! (For Certain Things)

* Go to Google.

* In the search field type: "Product name" 94FBR

* Where, "Product Name" is the name of the item you want to find the serial number for.

* And voila - there you go - the serial number you needed.

HOW DOES THIS WORK?

Elementary my dear friends!
94FBR is part of a Office 2000 Pro cd key that is widely distributed as it bypasses the activation requirements of Office 2K Pro. By searching for the product name and 94fbr, you guarantee two things. 1) The pages that are returned are pages dealing specifically with the product you're wanting a serial for. 2) Because 94FBR is part of a serial number, and only part of a serial number, you guarantee that any page being returned is a serial number list page.

See these example searches:

"power dvd 7" 94FBR
".... antivirus" 94FBR