7. June 2008 by admin.

Have you heard of the Windows Vista DreamScene? If not, allow me to tell you a little about it!

The Vista DreamScene is a tool that allows people to use videos and other optimized animations as desktop wallpapers. It’s included with the Windows Vista Ultimate Extras package and it can be downloaded through the Windows Update service. The best part about DreamScene is the fact that it uses your video card for its display and not your processor. Therefore, your PC will still have enough resources available for performing other tasks. You can use any video for your wallpaper, as long as it’s saved in the .wmv or .mpeg format.

DreamScene is now available and if you use the Windows Vista Ultimate edition, you can begin customizing your desktop today! Simply follow the steps below to get DreamScene installed on your computer. Again, before you continue, make sure you have the Windows Vista Ultimate edition. The Vista DreamScene cannot be installed on any other version. Here we go!

1.) Click on Start, type “Windows Update” in the search box and then hit Enter.

2.) Once the Windows Update loads, click Check for Updates.

3.) Under the Ultimate Extras section, check the Windows DreamScene option and hit Install.

4.) After the Windows DreamScene is installed, you may need to reboot your computer.

5.) After you reboot, right click on your desktop and select Personalize.

6.) Next, click on Desktop Wallpaper.

7.) Hit the Browse button and select the video file you would like to use. Then hit OK.

When you’re finished, you will be able to enjoy one of your personal videos as your wallpaper. It doesn’t get any better than that! If you still have some questions, you can take a tour through DreamScene to learn more about it. Click here to do that and then just follow the instructions provided in the video. Once you’re more familiar with DreamScene, I know you’re just going to love it!

Posted in Tips and Tricks, Learn | No Comments »

1. June 2008 by admin.

Stop Error 0×0000007E After SP3 is installed

•  HKEY_LOCAL_MACHINE
• SYSTEM
• CurrentControlSet
• Services
• Intelppm

4) In the right hand column find the entry titled START and double-click on it5) Change the number to 4 and click Ok

Posted in Learn, Troubleshooting | No Comments »

20. May 2008 by admin.

By Jason Kohrs - 28.MAR.05

The first installment in this two-part series of Tech Tips provided an introduction to the basic capabilities and hardware involved in wireless networking. In the final installment of this two-part series, we will look at some of the basic setup and security considerations that should be addressed. The physical installation of a wireless network may be easier than a wired network, but the more difficult part is setting up the software and security to make sure everything stays up and running without incident. Although this Tech Tip is by no means an exhaustive resource on configuring a wireless network, it will provide information and pointers that can be applied to most typical installations. Many of these tips are general enough that they may provide some good advice for those utilizing wired networks as well. For the sake of this article, we will assume that the hardware has been successfully installed physically, and that the user is now prepared to set up and secure the system through software. Wireless devices, especially routers / access points, generally include a web-based configuration utility that allows the user to customize the hardware to meet their needs. The hardware will most likely work with minimal configuration, but to make it work so that the integrity of the network is protected may take a few more steps. In addition to the configuration interface provided with the wireless networking hardware, Microsoft has integrated a “Wireless Network Setup Wizard” with the release of Windows XP Service Pack 2 that will lead a user of any expertise through the installation of their network. In addition, the “Microsoft Broadband Network Utility” will help them monitor and maintain the network just as easily once it is set up.

Change Default Password

Routers, whether wired or wireless, require a password for configuring the various settings, and all of them ship with extremely simple default passwords. The first step taken in setting up the router should be to change the default password to something more difficult to guess. Longer passwords that use a combination of letters and numbers are preferable as they make hacking attempts that much more difficult.

Change Router IP Address

Most routers ship with a default IP (Internet Protocol) address, something like 192.168.1.1, which is utilized by the user for accessing the configuration utility interface, as well as by the network itself for negotiating the LAN and WAN connections. The configuration utility of most routers will include a page that will allow for the default IP address to be manually changed by the user. Although changing the default IP address doesn’t provide a great amount of security since it can easily be discovered anyway, it may deter intrusion by local users that may be casually scanning the network.

Configure Router or Access Point Use

In the first part of this series of Tech Tips, I mentioned that almost all routers intended for home use can also double as wireless access points, and this is generally accomplished by clicking a check box within the control panel software. If a wireless router is being added to a network with an existing router and broadband connection, the new device needs to be set to access point mode. Otherwise, there could be a conflict as the network may not know where to expect the internet connection, since it will now have two routers that both want to serve as the gateway. If the wireless router is replacing an existing router, or is the only one on the network, this should not be an issue as these devices generally ship configured to operate as a router by default.

Broadcasting the SSID

The SSID, or Service Set Identifier, is basically the name assigned to a particular wireless network. The user can choose just about any name they want, as long as it is less than 32 characters long, and they just need to be sure that all computers on the network are configured to use the same name. Two steps related to the SSID can be taken to help improve the security of the network: First, change the default SSID to a unique name that includes a combination of letters and numbers that doesn’t reveal anything personal about you or your network. Second, disable the broadcast of the SSID once all of your computers are successfully connected, even if your router / access point recommends broadcasting it. I have used a few wireless routers, and all of them have a check box in the control panel for enabling/disabling the broadcast of the SSID, and they have all recommended leaving broadcasting enabled. Broadcasting the SSID allows new computers to easily find your network, and then all they have to do is access it given the proper credentials. Broadcasting your SSID puts it out there for anyone within range to see, and it just allows would-be hackers to get one step closer to compromising your security. In a home environment, there are probably few computers that need to access the network, and if more are ever added, you can temporarily enable the broadcast to get them set up.

DHCP Server

The DHCP (Dynamic Host Configuration Protocol) Server is a feature of most routers that makes adding new computers extremely simple. Whenever a new computer connects to the network, the router will assign an IP address to it, instead of the user having to assign an IP address to each manually while sitting at that particular computer. This makes configuring a network very easy, but it also leaves the network vulnerable, as any new computer detected will be welcomed to the neighborhood and assigned an IP address automatically. Two different approaches can be taken to improve security, as related to the DHCP server: One method, and the best as far as security is concerned, is to disable the DHCP server. This will require that all computers that are authorized to connect to the network be configured manually, but it will prevent unauthorized computers from obtaining an IP address. The second method, which doesn’t provide bulletproof security, is better than doing nothing. In general, a DHCP server can support up to 250 computers, and by default leaves a range of addresses readily available for that many to connect. If disabling the DHCP server doesn’t seem convenient for a user, they can limit the DHCP server to only provide as many IP addresses as they know they need. If you know there will never be more than five computers connected, limit the range of available IP addresses to a total of five within the configuration utility.

Different Levels of Encryption

All wireless components support some sort of encryption, which simply scrambles the information being sent across the network so that it can not easily be read by anyone else connected to the network. There are different types and levels of encryption, and a brief overview is provided for them below: WEP, or Wireless Equivalency Protocol, was the first format of encryption available on wireless networks. WEP allows the network administrator to assign an encryption string to be shared by all computers authorized to access the wireless network. The encryption through WEP is either 64bit, 128bit, or 256bit, where the higher number represents greater encryption, and the strings can be generated by the administrator as a series of letters and numbers. WPA, or “Wi-Fi Protected Access,” is an improvement over WEP that starts off with a similar master encryption string and then mathematically derives encryption keys to keep the security dynamic. WPA continually changes the encryption keys used for each packet of data, and due to the extra processing required to support this protocol the overall throughput of the connection may suffer slightly. Despite the potential for decreased speed, WPA is considered to be far more robust than WEP, and should be implemented where possible. In some instances, WEP encryption has actually been defeated, making WPA all that more appealing. Although most components support both of these encryption formats, and users can select the type they wish to use from within the control software, not all do. All devices on the network must be set to operate at the same level of encryption, which may mean that some devices will force others to be less secure than they are capable of. For example, a wireless network setup around this router could support either WEP or WPA encryption. When two computers are added to this network using one of these network adaptors in one case, and one of these network adaptors in the other case, things change. Note that the second adaptor does not support WPA; therefore the whole network must now be configured to use WEP to accommodate it.

Router Position

As discussed in the first part of this Tech Tip, wireless devices can have a range of up to a few hundred feet in free space. When installed inside a home, this range may decrease greatly due to walls, floors and other obstructions, but the signal may still be strong enough to carry beyond the confines of the dwelling. A simple step that may help reduce the strength and reach of the network signal outside the house is to position the router / access point as close to the center of the house as possible. The potential for someone to detect the network from outside the home when positioned like this is now much less than if the router was placed near a window, for example.

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20. May 2008 by admin.

By Jason Kohrs -17.MAR.05

These days it isn’t uncommon for a home to have multiple personal computers, and as such, it just makes sense for them to be able to share files, as well as to share one Internet connection. Wired networking is an option, but it is one that may require the installation and management of a great deal of wiring in order to get even a modestly sized home set up. With wireless networking equipment becoming extremely affordable and easy to install, it may be worth considering by those looking to build a home network, as well as by those looking to expand on an existing wired network.The first installment in this two-part series of Tech Tips will provide an introduction to the basic capabilities and hardware involved in wireless networking. Once that foundation has been established, we’ll take a look at a few setup and security related considerations that should be addressed once the physical installation is complete.

Capabilities

The basic standard that covers wireless networking is the Institute for Electrical and Electronics Engineers’ (IEEE) 802.11, which is close kin to the wired Ethernet standard, 802.3. Many people will recognize 802.11 more readily when accompanied by one of three suffixes (a, b, or g), used to specify the exact protocol of wireless networking.The 802.11a protocol first hit the scene in 2001, and despite a small surge in recent popularity, it is definitely the least common of the three at this time. The signals are transmitted on a 5 GHz radio frequency, while “b” and “g” travel on 2.4 GHz. The higher frequency means that the signal can travel less distance in free space and has a harder time penetrating walls, thus making the practical application of an 802.11a network a bit limited. The maximum transfer rate, however, is roughly 54 Mbps, so it makes up for its limited range with respectable speed. As mentioned, 802.11b and 802.11g networks operate on a 2.4 GHz radio band, which gives a much greater range as compared to 802.11a. One downside to being on the 2.4 GHz band is that many devices share it, and interference is bound to be an issue. Cordless phones and Bluetooth devices are two of many items that operate at this frequency. The range of these two protocols is about 300 feet in free air, and the difference between the two comes down to speed. 802.11b came first, released back in 1999, and offers speeds up to 11 Mbps. 802.11g first appeared in 2002 and it is a backwards compatible improvement over 802.11b and offers speeds up to 54 Mbps. On top of these protocols, some manufacturers have improved upon the 802.11g standard and can provide speeds of up to 108 Mbps. This doesn’t involve a separate protocol, but just a bit of tweaking in areas like better data compression, more efficient data packet bursting, and by using two radio channels simultaneously. Typically, stock 802.11g equipment is not capable of these speeds, and those interested need to shop for matched components that specify 108 Mbps support. I say “matched components” as this is not a standard protocol and the various manufacturers may take different approaches to achieving these speeds. In order to ensure the best results when trying to achieve these elevated speeds, components from the same manufacturer should be used together. For instance, only Netgear brand network adaptors rated for 108 Mbps data transfer should be used with something like the Netgear WG624 wireless router. Considering your typical broadband Internet connection is going to offer data transfer rates of 10 Mbps or less, it can be seen that even 802.11b would be more than adequate if you just want to surf the web. Sharing files on your LAN (Local Area Network) is where the faster protocols will really make a difference, and comparing the prices of 802.11b and 802.11g components may show that there is little to no difference in selecting a “g” capable device over a comparable “b” capable device.

Hardware

Access Point – Wireless Access Point (WAP) is the central device that manages the transmission of wireless signals on a network. A base access point may be capable of handling up to 10 connections, and more robust APs may be able to manage up to 255 connections simultaneously. The D-Link DWL-1000AP+ is an example of a wireless access point capable of 802.11b transmissions.Router – In somewhat technical terms, a router is a network device that forwards data packets. It is generally the connection between at least two networks, such as two LANs, or a LAN and ISP’s (Internet Service Provider’s) network. For our purposes, and for the sake of simplicity, a wireless router is basically an access point with the added feature of having a port for sharing a broadband Internet connection. The D-Link AirPlus G is an 802.11g capable router that provides access for numerous wireless connections and four hard-wired connections to one WAN (Wide Area Network Internet) connection. A typical router for home use will generally cost less than an access point, and via settings within the firmware, can be used as just an access point anyway. Wired or wireless, all the computers using the router can share files over the network, as well as sharing a broadband internet connection. Communication between wireless computers (or a wireless computer and a wired computer) will max out at 54 Mbps, while communication between wired computers will take full advantage of the 100 Mbps provided via the 802.3 protocol. Network Adaptor – A network adaptor is required for every computer that you would like to be connected to the wireless network. Many laptops, such as this Sony Centrino 1.5 GHz now include a wireless adaptor built in, so no extra hardware is needed. For those with systems that don’t have wireless capabilities built in, adding them is fairly simple, and can be done using a variety of connections. Desktop computers can go wireless by adding a PCI slot network adaptor such as the 802.11g capable D-Link DWL-G510. Notebook users can easily add wireless connectivity by using a PCMCIA adaptor, such as this 802.11g capable device. And for truly convenient plug-n-play connectivity to wireless networks, USB adaptors such as this 802.11g capable dongle are available. Antenna/Extender – These items are not essential, but given the specifics of a wireless environment, they may be helpful. Devices such as the Hawking Hi-Gain Antenna or the Super Cantenna serve the purpose of increasing the wireless signal strength, and therefore extend the range of a given wireless network. Not only can a large area of open space be covered, but the signal quality may be improved in structures with walls and floors that obstruct the signal transmission.

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20. May 2008 by admin.

Add a name to the Blocked Senders List

Applies to: Microsoft Office Outlook 2003

1. On the Tools menu, click Options.
2. On the Preferences tab, under E-mail, click Junk E-mail.
3. Click the Blocked Senders tab.
4. Click Add.
5. In the Enter an e-mail address or Internet domain name to be added to the list box, enter the name or address you want added, and then click OK.
6. Repeat steps 4 and 5 for each name or address that you want to add.

Notes

• You can quickly add a name to the Blocked Senders List by right-clicking the junk e-mail message, and then, on the shortcut menu, pointing to Junk E-mail and clicking Add Sender to Blocked Senders List on the shortcut menu.
• If you have existing lists of names and addresses that you want to block, you can import the information into Microsoft Office Outlook 2003 by saving the list as a text (.txt) file with one entry per line, and then importing the list.
• If you are using a Microsoft Exchange Server e-mail account and working online, you must be using Microsoft Exchange Server 2003 or later. If you do not know what version of Exchange server your e-mail account is using, contact your Exchange administrator.
• To remove a name from the Blocked Senders List, in the Blocked Senders tab, click the name you want to remove from the list, and then click Remove.

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17. May 2008 by admin.

Posted in Learn | No Comments »

16. May 2008 by admin.

Tech Tip 01 - 5 Ways to back up your data
by Jason Kohrs - 04.NOV.04

The data on your hard drive is the most critical item inside your computer, and the only item which can not be replaced. It may be an unwanted hassle and expense to replace a defective memory module, monitor, or processor, but there is no replacing data once lost.

In addition to the possibility of a simple hard drive failure, the threat of internet borne worms and viruses has become an increasing risk to data loss or corruption. Although you may not be able to provide absolute protection to your hard drive, there are various ways that you can ensure that the data on your hard drive is protected. Five methods of backing up your data are summarized below.

1. USB Flash Drives
Although I am not recommending that flash drives be used for the actual data storage, they are a convenient means of transferring data from one computer to another. Important files can be quickly loaded onto a device such as the MINIDISK-512-DGRY-CS USB 2.0 Flash Drive, and transported to another computer for safe keeping. Installation and operation is extremely simple, and other than perhaps having to install a software driver, the use of a USB flash drive is a matter of having an available USB port on your computer. Just about every computer produced over the last several years has USB ports included, with more modern systems supporting the USB 2.0 standard. USB 2.0 allows for data transfer rates of up to 480 MB/s, which is a tremendous improvement over the original USB speed limit of 12 MB/s, and allows a user to fill their drives with data in a relatively short period of time.

Although the storage capacity of flash drives has increased greatly over the last year or so, users are still limited to common sizes of 512MB and 1GB. Mass storage is obviously not an option, but even 512MB may be enough to backup your “My Documents” folder, several albums of MP3s, or other important files to be stored elsewhere.

2. CD and DVD Writers/Re-Writers
The falling prices of CD and DVD writers/re-writers have made them a staple of just about every modern computer. These devices can typically be found installed in a computer case, but external devices supporting USB 2.0 or Firewire are available for greater flexibility and ease of installation.

A combination drive, such as theNU Technology DBW-521, will provide the user a high speed CD reader/writer, as well as a DVD reader, for under $40. The extremely low price of the drive (and the blank media) makes for an inexpensive means of creating data backups, and the re-writable media increases the convenience by allowing the same disc to be erased and reused many times. The main limitation of using a CD writer for data backups is that the discs are generally limited to a capacity of 700MB per disc. Not nearly enough for a full backup, but adequate for archiving key files.

The popularity of DVD writers/re-writers has surged thanks to dropping prices, and they are pushing the stand alone CD burner towards extinction. DVD media affords the user far more storage capacity than a CD, and DVD burners can generally burn CDs as wells as DVDs. The recent availability of double layer DVD burners, such as the Sony DW-D22A-DO-N, represents a large boost in the capacity of writable DVDs, taking the previous limit of 4.7GB per disc and nearly doubling it to 8.5GB.

With proper storage, CD/DVD media can provide long term storage that can not be jeopardized by hardware failure. The data on a CD or DVD can easily be read by just about any computer, making it a good choice for archiving files that aren’t excessively large.

3. External Hard Drives
As the name might imply, external hard drives are generally the same type of drive you might find inside your system, but housed in a smaller, external enclosure of its own. The enclosure will feature at least one data interface (such as Firewire, USB, or Ethernet), and the capacity is only limited by the size of hard drives presently available and the user’s budget.

The Ximeta NetDisk is an example of an external hard drive that provides a user the option of connecting an additional 80GB, 120GB, or 160GB of storage to their system by using either a USB 2.0 or Ethernet connection. Installation for such a device is rather simple, and may involve the installation of some basic software, as well as making the necessary connections between the computer and the external enclosure.

The capacity of external hard drives makes them ideal for backing up large volumes of data, and many of these devices simplify the process by including software (or hardware) features to automate the backup.

For example, some Seagate External drives feature a “one-button” backup option right on the case.In addition to being a convenient method of backing up large volumes of files locally, most external hard drives are compact enough to be portable. The inclusion of a common data transfer interface, such as USB, allows an external hard drive to be connected to just about any modern computer for data transfer, or for more than one computer to share the external hard drive as a back up.

4. Additional Hard Drives
By simply adding an additional hard drive to you system, you can protect yourself from data loss by copying it from your primary drive to your secondary drive. The installation of a second hard drive isn’t difficult, but does require a basic understanding of the inner working of a computer, which may scare off some users. We do offer a “how-to” section on our site for many tasks such as installing a hard drive into a computer system.

To take the installation of a second hard drive to another level of security and reliability, the hard drives may be installed in a RAID array. RAID stands for a Redundant Array of Independent (or Inexpensive) Disks, and can be configured in several manners. A thorough discussion of RAID and all of its variations would be an article all by itself, but what may be of interest to this discussion is what is known as RAID 1. A RAID 1 array requires two hard drives of equal size to be installed on a RAID controller, which will then mirror one drive to the other in real time. Many motherboards now come with RAID controllers onboard, but the addition of a PCI slot controller card, such as the Silicon Image Sil0680, is an inexpensive purchase that will add RAID to any system. With a RAID 1 array in place, if one hard drive should ever fail, the system won’t miss a best by continuing to run on the remaining good drive, and alert the user that one drive may need to be replaced.

5. Online Storage
Online services, such as Xdrive, allow users to upload their files to a server for safe keeping. Although it may be convenient to have the data available wherever an internet connection is available, there are a few limitations.

The services generally charge a monthly fee relative to the amount of storage space required. At Xdrive, for example, 5GB of storage costs $9.95 per month, which can quickly add up to more than one would spend on any of the other options discussed.

Security is supposed to be very tight on these services, but no matter how secure it may seem, it is still just a password keeping prying eyes from your potentially sensitive documents.

The speed of your internet connection will also weigh heavily on the convenience of your backup, and no matter what type of connection you have; it can’t compete with local data transfer rates.

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16. May 2008 by admin.

If you have noticed that the speed of your system is very slow with windows vista then today tip is very useful for you to increase the performance of windows vista. There is some default setting in vista which is used to manage the write caching on disk. By default windows enabled the write caching on disk but the advanced performance setting is disabled.

Follow the given steps to configure the advance performance setting in Windows Vista:

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16. May 2008 by admin.

With windows Vista you have noticed the slow internet speed. The web browsing and downloading speed is very slow as compare to previous versions of windows. You can open the same sites in windows XP and server 2003 with the normal speed.

Follow the given steps to increase the Vista browsing speed:

First go to Advance tab in Internet Explorer and turn off the TLS (Transport Layer Security) encryption option. Here to fix problem with some secure pages turn on the SSL 2.0 (Secure Sockets Layer) feature and click Ok button to close it.

Follow the major fix for this problem:

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15. May 2008 by admin.

Remote Desktop Protocol is based on, and is an extension of, the T-120 family of protocol standards. A multichannel capable protocol allows for separate virtual channels for carrying presentation data, serial device communication, licensing information, highly encrypted data (keyboard, mouse activity), and so on. As RDP is an extension of the core T.Share protocol, several other capabilities are retained as part of the RDP, such as the architectural features necessary to support multipoint (multiparty sessions). Multipoint data delivery allows data from an application to be delivered in “real-time” to multiple parties without having to send the same data to each session individually (for example, Virtual Whiteboards).

In this first release of Windows Terminal Server, however, we are concentrating on providing reliable and fast point-to-point (single- session) communications. Only one data channel will be used in the initial release of Terminal Server 4.0 However, the flexibility of RDP gives plenty of room for functionality in future products.

One reason that Microsoft decided to implement RDP for connectivity purposes within Windows NT Terminal Server is that it provides a very extensible base from which to build many more capabilities. This is because RDP provides 64,000 separate channels for data transmission. However, current transmission activities are only using a single channel (for keyboard, mouse, and presentation data).

Also, RDP is designed to support many different types of Network topologies (such as ISDN, POTS, and many LAN protocols such as IPX, NetBIOS, TCP/IP, and so on). The current version of RDP will only run over TCP/IP but, with customer feedback, other protocol support may be added in future versions.

The activity involved in sending and receiving data through the RDP stack is essentially the same as the seven-layer OSI model standards for common LAN networking today. Data from an application or service to be transmitted is passed down through the protocol stacks, sectioned, directed to a channel (through MCS), encrypted, wrapped, framed, packaged onto the network protocol, and finally addressed and sent over the wire to the client. The returned data works the same way only in reverse, with the packet being stripped of its address, then unwrapped, decrypted, and so on until the data is presented to the application for use. Key portions of the protocol stack modifications occur between the fourth and seventh layers, where the data is encrypted, wrapped and framed, directed to a channel and prioritized.

One of the key points for application developers is that, in using RDP, Microsoft has abstracted away the complexities of dealing with the protocol stack. This allows them to simply write clean, well-designed, well-behaved 32-bit applications, and then the RDP stack implemented by the Terminal Server and its client connections takes care of the rest.

For more information on how applications interact on the Terminal Server and what to be aware of when developing applications for a Windows Terminal Server infrastructure, look at the “Optimizing Applications for Windows NT Server 4.0, Terminal Server Edition” white paper available on the following Microsoft Web site:

http://www.microsoft.com/technet/prodtechnol/win2kts/maintain/optimize/tsappdev.mspx Four components worth discussing within the RDP stack instance are the Multipoint Communication Service (MCSMUX), the Generic Conference Control (GCC), Wdtshare.sys, and Tdtcp.sys. MCSmux and GCC are part of the International Telecommunication Union (ITU) T.120 family. The MCS is made up of two standards: T.122, which defines the multipoint services, and T.125, which specifies the data transmission protocol. MCSMux controls channel assignment (by multiplexing data onto predefined virtual channels within the protocol), priority levels, and segmentation of data being sent. It essentially abstracts the multiple RDP stacks into a single entity, from the perspective of the GCC. GCC is responsible for management of those multiple channels. The GCC allows the creation and deletion of session connections and controls resources provided by MCS. Each Terminal Server protocol (currently, only RDP and Citrix’s ICA are supported) will have a protocol stack instance loaded (a listener stack awaiting a connection request). The Terminal Server device driver coordinates and manages the RDP protocol activity and is made up of smaller components, an RDP driver (Wdtshare.sys) for UI transfer, compression, encryption, framing, and so on, and a transport driver (Tdtcp.sys) to package the protocol onto the underlying network protocol, TCP/IP.

RDP was developed to be entirely independent of its underlying transport stack, in this case TCP/IP. RDP, being completely independent of its transport stack, means that we can add other transport drivers for other network protocols as customers needs for them grow, with little or no significant changes to the foundational parts of the protocol. These are key elements to the performance and extendibility of RDP on the network.

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