Tell me about the issue and Ill help you find the solution you need. Microsoft Zero Configuration Tool Windows 7' title='Microsoft Zero Configuration Tool Windows 7' />Replace a Windows 7 SP1 client with Windows 1. Configuration Manager Windows 1. Applies to. Windows 1. In this topic, you will learn how to replacing a Windows 7 SP1 computer using Microsoft System Center 2. R2 Configuration Manager. This process is similar to refreshing a computer, but since you are replacing the machine, you have to run the backup job separately from the deployment of Windows 1. For the purposes of this topic, we will use three machines DC0. Sync programs make local backups a snap by copying only changed files. Dropbox and other cloud storage systems are great, but they arent as fast as a USB flash drive. PHP on Windows. PHP now runs better than ever on Windows. Utilize the power of IIS 7. Windows Web App Gallery. CM0. 1, and PC0. 00. DC0. 1 is a domain controller and CM0. Windows Server 2. R2 Standard. PC0. Windows 7 SP1 that will be replaced with a new machine running Windows 1. DC0. 1, CM0. 1, and PC0. Are you making plans to deploy Windows 7 in your enterprise in the next 6 18 months Are your plans being delayed or complicated by applications that. Microsoft Security Essentials Windows 7 Windows Defender Windows 8,Windows RT, Windows 8. Windows RT 8. 1, Windows 10 Realtime protection against spyware. O67cCPG11Ec/0.jpg' alt='Microsoft Zero Configuration Tool Windows 7' title='Microsoft Zero Configuration Tool Windows 7' />Contoso Corporation. For more details on the setup for this topic, please see Deploy Windows 1. Microsoft Deployment Toolkit. In this topic, you will create a backup only task sequence that you run on PC0. For more information, see Replace a Windows 7 computer with a Windows 1. Create a replace task sequence. On CM0. 1, using the Configuration Manager Console, in the Software Library workspace, expand Operating Systems, right click Task Sequences, and select Create MDT Task Sequence. On the Choose Template page, select the Client Replace Task Sequence template and click Next. On the General page, assign the following settings and click Next Task sequence name Replace Task Sequence. Task sequence comments USMT backup only. On the Boot Image page, browse and select the Zero Touch Win. PE x. 64 boot image package. Then click Next. On the MDT Package page, browse and select the OSD MDT package. Then click Next. On the USMT Package page, browse and select the OSD Microsoft Corporation User State Migration Tool for Windows 8 1. Then click Next. On the Settings Package page, browse and select the OSD Windows 1. Settings package. Then click Next. On the Summary page, review the details and then click Next. On the Confirmation page, click Finish. Review the Replace Task Sequence. Note. This task sequence has many fewer actions than the normal client task sequence. If it doesnt seem different, make sure you selected the Client Replace Task Sequence template when creating the task sequence. Figure 3. 4. The backup only task sequence named Replace Task Sequence. Associate the new machine with the old computer. This section walks you through the process of associating a blank machine, PC0. PC0. 00. 4, for the purpose of replacing PC0. PC0. 00. 6. PC0. 00. Make a note of the PC0. MAC Address. If PC0. MAC Address in the virtual machine settings. In our example, the PC0. MAC Address is 0. D 0. A 6. A 9. Using the Configuration Manager console, in the Asset and Compliance workspace, right click Devices, and then select Import Computer Information. On the Select Source page, select Import single computer and click Next. On the Single Computer page, use the following settings and then click Next Computer Name PC0. MAC Address lt the mac address from step 1 Source Computer PC0. Figure 3. 5. Creating the computer association between PC0. PC0. 00. 6. On the User Accounts page, select Capture and restore all user accounts and click Next. On the Data Preview page, click Next. On the Choose Target Collection page, select the Install Windows 1. Enterprise x. 64 collection and click Next. On the Summary page, click Next, and then click Close. Select the User State Migration node and review the computer association in the right pane. Right click the PC0. PC0. 00. 6 association and select View Recovery Information. Note that a recovery key has been assigned already, but a user state store location has not. Review the Install Windows 1. Enterprise x. 64 collection. Do not continue until you see the PC0. You might have to update and refresh the collection again. Create a device collection and add the PC0. On CM0. 1, using the Configuration Manager console, in the Asset and Compliance workspace, right click Device Collections, and then select Create Device Collection. Use the following settings. General. Name USMT Backup ReplaceLimited Collection All Systems. Membership rules Direct rule. Resource Class System Resource. Attribute Name Name. Value PC0. 00. 4Select Resources. Select PC0. 00. 4Review the USMT Backup Replace collection. Do not continue until you see the PC0. Create a new deployment. Using the Configuration Manager console, in the Software Library workspace, select Task Sequences, right click Replace Task Sequence, and then select Deploy. Use the following settings General. Collection USMT Backup ReplaceDeployment Settings. Purpose Available. Make available to the following Only Configuration Manager Clients. Scheduling. User Experience. Alerts. Distribution Points. Verify the backup. This section assumes that you have a machine named PC0. Configuration Manager 2. Start the PC0. 00. Control Panel, start the Configuration Manager applet. In the Actions tab, select the Machine Policy Retrieval Evaluation Cycle, select Run Now, and click OK. Using the Software Center, select the Replace Task Sequence deployment and click INSTALL. In the Software Center dialog box, click INSTALL OPERATING SYSTEM. Allow the Replace Task Sequence to complete. It should only take about five minutes. On CM0. 1, in the D Mig. Data folder, verify that a folder was created containing the USMT backup. Using the Configuration Manager console, in the Asset and Compliance workspace, select the User State Migration node, right click the PC0. PC0. 00. 6 association, and select View Recovery Information. Note that the object now also has a user state store location. Note. It may take a few minutes for the user state store location to be populated. Deploy the new computer. Start the PC0. 00. F1. 2 to Pre Boot Execution Environment PXE boot when prompted. Allow it to boot Windows Preinstallation Environment Windows PE, and then complete the deployment wizard using the following settings Password Pssw. Select a task sequence to execute on this computer Windows 1. Enterprise x. 64 Custom Image. The setup now starts and does the following Installs the Windows 1. Internet Download Manager (Idm) 5.14 Build 5. Installs the Configuration Manager client. Joins it to the domain. Installs the applications. Restores the PC0. When the process is complete, you will have a new Windows 1. Integrate Configuration Manager with MDTPrepare for Zero Touch Installation of Windows 1. Configuration Manager. Create a custom Windows PE boot image with Configuration Manager. Add a Windows 1. 0 operating system image using Configuration Manager. Create an application to deploy with Windows 1. Configuration Manager. Add drivers to a Windows 1. Windows PE using Configuration Manager. Create a task sequence with Configuration Manager and MDTDeploy Windows 1. PXE and Configuration Manager. Refresh a Windows 7 SP1 client with Windows 1. Configuration Manager. Zero configuration networking Wikipedia. Zero configuration networking zeroconf is a set of technologies that automatically creates a usable computer network based on the Internet Protocol Suite TCPIP when computers or network peripherals are interconnected. It does not require manual operator intervention or special configuration servers. Without zeroconf, a network administrator must set up network services, such as Dynamic Host Configuration Protocol DHCP and Domain Name System DNS, or configure each computers network settings manually. Zeroconf is built on three core technologies automatic assignment of numeric network addresses for networked devices, automatic distribution and resolution of computer hostnames, and automatic location of network services, such as printing devices. BackgroundeditComputer networks use numerical network addresses to identify communications endpoints in a network of participating devices. This is similar to the telephone network, which assigns a string of digits to identify each telephone. In modern networking protocols, information to be transmitted is divided into a series of network packets. Every packet contains the source and destination addresses for the transmission. Network routers examine these addresses to determine the best network path in forwarding the data packet at each step toward its destination. Similarly to telephones being labeled with their telephone number, it was a common practice in early networks to attach an address label to networked devices. The dynamic nature of modern networks, especially residential networks in which devices are powered up only when needed, requires ad hoc, dynamic address assignment mechanisms that do not require user involvement for initialization and management. These systems automatically give themselves common names chosen either by the equipment manufacturer, such as a brand and model number, or chosen by users for identifying their equipment. The names and addresses are then automatically entered into a directory service. The early history of computer networking built upon technologies of the telecommunications networks and thus, protocols tended to fall into two groups those intended to connect local devices into a local area network LAN, and those intended primarily for long distance communications. Wide area network WAN systems tended to have centralized setup, where an authority would assign addresses and names, often by a network administrator using manual means. LAN systems tended to provide more automation of these tasks, so that new equipment could be added to a LAN with a minimum of operator and administrator intervention. An early example of a zero configuration LAN system is Apple. Talk, a protocol introduced by Apple Inc. Macintosh computers in the 1. Macs, as well as other devices supporting the protocol like the Apple IIGS and a variety of printers and file servers, could be added to the network by plugging them in, all further configuration was automated. Network addresses were automatically selected by each device using a protocol known as AARP, while each machine built its own local directory service using a protocol known as NBP. NBP included not only a name, but the type of device and any additional user provided information like its physical location or device status. Users could look up any device on the network with the application Chooser, which filtered names based on the device type. On Internet Protocol networks, the Domain Name System was initially maintained manually by a network administrator. This led to the introduction of a number of new protocols providing automated services, such as the Dynamic Host Configuration Protocol DHCP. Address selectioneditInternet protocols assign objects in the network one or more unique IP addresses that identify them to other devices on the same network. These addresses operate in a fashion similar to telephone numbers, allowing devices to connect to each other by identifying the remote device by its address in the same way that a telephone call is connected by dialling in a telephone number. Unlike the phone system, an IP network does not necessarily include some sort of central authority that assigns these addresses as new devices are added. Mechanisms were introduced to handle this task, and both IPv. IPv. 6 now include systems for address autoconfiguration, which allows a device to determine a safe address to use through simple mechanisms. For link local addressing, IPv. RFC 3. 92. 7 while IPv. More commonly, in modern networks addresses are assigned by a DHCP server, often built into common networking hardware like computer hosts or routers. Most IPv. 4 hosts use link local addressing only as a last resort when a DHCP server is unavailable. An IPv. 4 host otherwise uses its DHCP assigned address for all communications, global or link local. One reason is that IPv. Another is that not every IPv. DNS, so discovering the autoconfigured link local address of another host on the network can be difficult. However, discovering the DHCP assigned address of another host also requires either distributed name resolution or a unicast DNS server with this information, and some networks feature DNS servers that are automatically updated with DHCP assigned host and address information. IPv. 6 hosts are required to support multiple addresses per interface moreover, every IPv. IPv. 6 hosts may additionally self configure additional addresses on receipt of router advertisement messages, thus eliminating the need for a DHCP server. Both IPv. IPv. 6 hosts may randomly generate the host specific part of an autoconfigured address. IPv. 6 hosts generally combine a prefix of up to 6. EUI 6. 4 derived from the factory assigned 4. IEEEMAC address. The MAC address has the advantage of being globally unique, a property inherited by the EUI 6. The IPV6 protocol stack includes duplicate address detection to avoid conflicts with other hosts. In IPv. 4, the method is called link local address autoconfiguration. However, Microsoft refers to this as Automatic Private IP Addressing APIPA3 or Internet Protocol Automatic Configuration IPAC supported since at least Windows 9. Name service discoveryeditInternet protocols use IP addresses for communications, but these are not really human readable IPv. To address this issue, the internet has long used the Domain Name System DNS, which allows human readable names to be associated with IP addresses, and includes code for looking up these names from a hierarchical database system. Users type in domain names, such as example. DNS software looks up in the DNS databases to retrieve an IP address, and then hands off that address to the networking software for further communications. Looking up a DNS address requires the IP address of the DNS server to be known. This has normally been accomplished by typing in the address of a known server into a field in one of the devices on the network. In early systems this was normally required on every device, but this has been pushed up one layer in the hierarchy to the DHCP servers or wide area network devices like cable modems that receive this information from their IP provider. This has reduced the user side administration load and provides a key element of zero configuration access. DNS was intended to provide uniform names to groups of devices within the same administration realm, such as example. Assigning an address to a local device, e.