Abstract: A method for tracking, locating and disabling an electronic device. A method includes checking if an application component operated correctly during last power-up of the device; and placing the device under control of power on self test to proceed with powering-up the device if the application component operated correctly during last device power-up.

Abstract: A system and method for securing and tracking an electronic device. A method includes but is not limited to accepting a selection of a service to erase a hard disk drive in the electronic device; recording that the electronic device has been reported stolen; and erasing the hard disk drive.

Abstract: A system and method for encoding and decoding data. A method includes selecting a subgroup of bits from one or more bytes of binary encrypted information, wherein the binary encrypted information is for tracking, locating, and disabling an electronic device; passing the subgroup of bits to an encoding function that performs binary mapping operations on the subgroup of bits to generate an encoded byte; and encoding the next one or more bytes of binary encrypted information if the end of the binary encrypted information has not been reached.

Abstract: A system and method for electronic device communication. A system includes a client device application including an encryption/decryption module, wherein the module directly transmits and receives data to and from the client device application; and a server device application including an encryption/decryption module coupled to the client device application through a communication medium, wherein the module directly transmits and receives data to and from the server device application.

Abstract: In a method for securing and disabling an electronic device, the electronic device automatically executes a basic input/output system (BIOS) component of a security and tracking service during boot up. The BIOS component automatically determines whether an application component of the security and tracking service has requested disabling of the electronic device. In response to a determination that the application component has requested disabling of the electronic device, the BIOS component automatically displays system information and unlock key. The BIOS component also automatically prompts a user of the electronic device to enter an activation password to re-enable the electronic device. Other embodiments are described and claimed.

Abstract: An electronic device has software for protecting the electronic device from unauthorized utilization. When executed, the software causes the electronic device to execute an application component, wherein the application component is configured to automatically ascertain whether the electronic device has been reported stolen, based on information received from a server system. The electronic device also automatically determines whether the application component is operating correctly, and if so, automatically provides a basic input/output system (BIOS) component of the electronic device with information indicating that the application component is operating correctly. During a subsequent boot process for the electronic device, the software automatically prevents the electronic device from completing the boot process if the BIOS component does not find the information from the application component indicating that the application component was operating correctly. Other embodiments are described and claimed.

Abstract: A system and method for securing and tracking an electronic device. The system includes hardware, software and firmware components that cooperate to allow tracking, disabling, and other interaction with the stolen electronic device. The system includes an application component, non-viewable component and Basic Input/Output Subsystem (BIOS) component that are present on the electronic device. The BIOS component maintains the secured environment of the application and non-viewable components. If only the application component was provided, a simple low level format of the hard disk drive would remove the application and bypass the security features. The system implements an “application and BIOS” based solution to electronic device security.

Abstract: A method for tracking, locating and disabling an electronic device. A method includes checking if an application component operated correctly during last power-up of the device; and placing the device under control of power on self test to proceed with powering-up the device if the application component operated correctly during last device power-up.

Abstract: An electronic device security and tracking system. A system includes one or more clients, wherein the clients are electronic devices; and a server computer system connected to each of the clients, wherein the server computer system is capable of tracking and locating each of the clients. In one aspect, the server computer system includes one or more web servers coupled to each of the clients, wherein the web servers include a website for the electronic device security and tracking system; one or more file transfer protocol servers coupled to each of the web servers; and one or more database servers connected to each of the web servers.

Abstract: A system and method for encoding and decoding data. A method includes selecting a subgroup of bits from one or more bytes of binary encrypted information, wherein the binary encrypted information is for tracking, locating, and disabling an electronic device; passing the subgroup of bits to an encoding function that performs binary mapping operations on the subgroup of bits to generate an encoded byte; and encoding the next one or more bytes of binary encrypted information if the end of the binary encrypted information has not been reached.

Abstract: A system and method for electronic device protection. A method includes activating the electronic device; transferring control to a Basic Input/Output System (BIOS) component after activation; transferring control to a non-viewable component from the BIOS component; verifying that an application component operated correctly during a previous device activation; and continuing with activation of the electronic device if the application component operated correctly during the previous device activation.

Abstract: A system and method for securing and tracking an electronic device. The system includes hardware, software and firmware components that cooperate to allow tracking, disabling, and other interaction with the stolen electronic device. The system includes an application component, non-viewable component and Basic Input/Output Subsystem (BIOS) component that are present on the electronic device. The BIOS component maintains the secured environment of the application and non-viewable components. If only the application component was provided, a simple low level format of the hard disk drive would remove the application and bypass the security features. The system implements an “application and BIOS” based solution to electronic device security.

Abstract: A system and method for electronic device communication. A system includes a client device application including an encryption/decryption module, wherein the module directly transmits and receives data to and from the client device application; and a server device application including an encryption/decryption module coupled to the client device application through a communication medium, wherein the module directly transmits and receives data to and from the server device application.

Abstract: A system and method for securing and tracking an electronic device. The system includes hardware, software and firmware components that cooperate to allow tracking, disabling, and other interaction with the stolen electronic device. The system includes an application component, non-viewable component and Basic Input/Output Subsystem (BIOS) component that are present on the electronic device. The BIOS component maintains the secured environment of the application and non-viewable components. If only the application component was provided, a simple low level format of the hard disk drive would remove the application and bypass the security features. The system implements an “application and BIOS” based solution to electronic device security.

Abstract: A system and method for securing and tracking an electronic device. The system includes hardware, software and firmware components that cooperate to allow tracking, disabling, and other interaction with the stolen electronic device. The system includes an application component, non-viewable component and Basic Input/Output Subsystem (BIOS) component that are present on the electronic device. The BIOS component maintains the secured environment of the application and non-viewable components. If only the application component was provided, a simple low level format of the hard disk drive would remove the application and bypass the security features. The system implements an “application and BIOS” based solution to electronic device security.

Abstract: A semiconductor device and process for making the same are disclosed which use reticulated conductors and a width-selective planarizing interlevel dielectric (ILD) deposition process to improve planarity of an interconnect layer. Reticulated conductor 52 is used in place of a solid conductor where the required solid conductor width would be greater than a process and design dependent critcal width (conductors smaller than the critical width may be planarized by an appropriate ILD deposition). The reticulated conductor is preferably formed of integrally-formed conductive segments with widths less than the critical width, such that an ILD 32 formed by a process such as a high density plasma oxide deposition (formed by decomposition of silane in an oxygen-argon atmosphere with a back-sputtering bias) or spin-coating planarizes the larger, reticulated conductor as it would a solid conductor of less than critical width. Using such a technique, subsequent ILD planarization steps by, e.g.

Abstract: A semiconductor device and process for making the same are disclosed which use reticulated conductors and a width-selective planarizing interlevel dielectric (ILD) deposition process to improve planarity of an interconnect layer. Reticulated conductor 52 is used in place of a solid conductor where the required solid conductor width would be greater than a process and design dependent critical width (conductors smaller than the critical width may be planarized by an appropriate ILD deposition). The reticulated conductor is preferably formed of integrally-formed conductive segments with widths less than the critical width, such that an ILD 32 formed by a process such as a high density plasma oxide deposition (formed by decomposition of silane in an oxygen-argon atmosphere with a back-sputtering bias) or spin-coating planarizes the larger, reticulated conductor as it would a solid conductor of less than critical width. Using such a technique, subsequent ILD planarization steps by, e.g.

Abstract: A semiconductor device and process for making the same are disclosed which use reticulated conductors and a width-selective planarizing interlevel dielectric (ILD) deposition process to improve planarity of an interconnect layer. Reticulated conductor 52 is used in place of a solid conductor where the required solid conductor width would be greater than a process and design dependent critical width (conductors smaller than the critical width may be planarized by an appropriate ILD deposition). The reticulated conductor is preferably formed of integrally-formed conductive segments with widths less than the critical width, such that an ILD 32 formed by a process such as a high density plasma oxide deposition (formed by decomposition of silane in an oxygen-argon atmosphere with a back-sputtering bias) or spin-coating planarizes the larger, reticulated conductor as it would a solid conductor of less than critical width. Using such a technique, subsequent ILD planarization steps by e.g.

Abstract: A method for removing particulate contaminants from a semiconductor wafer is disclosed. A wafer 10 is held in a wafer holder 12 at cleaning station 14. Cleaning station 14 has a rinse fluid supply system 18 which supplies, e.g. deionized water, to the wafer surface during particle removal. A cleaning pad 20 is mounted on a platen 22, substantially in the plane of wafer 10. Platen 22 is coupled to a drive mechanism 24, which may for example be an electric motor, and drive mechanism 24 is coupled to station 14 by an engagement mechanism 26 which provides vertical displacement to engage pad 20 and wafer 10 for particle removal, and also provides a controlled pad contact pressure during particle removal. In operation, rinse fluid from 18 is supplied to slowly rotating wafer 10, while pad 20 is rotated, preferably at 200 to 600 rpm, and contacted with wafer 10.

Abstract: A semiconductor device and process for making the same are disclosed which use reticulated conductors and a width-selective planarizing interlevel dielectric (ILD) deposition process to improve planarity of an interconnect layer. Reticulated conductor 52 is used in place of a solid conductor where the required solid conductor width would be greater than a process and design dependent critical width (conductors smaller than the critical width may be planarized by an appropriate ILD deposition). The reticulated conductor is preferably formed of integrally-formed conductive segments with widths less than the critical width, such that an ILD 32 formed by a process such as a high density plasma oxide deposition (formed by decomposition of silane in an oxygen-argon atmosphere with a back-sputtering bias) or spin-coating planarizes the larger, reticulated conductor as it would a solid conductor of less than critical width. Using such a technique, subsequent ILD planarization steps by, e.g.