Dell Products Inc.

Compaq Computer Corporation, Inc.

Dell USA L P

Philip John Brisky

Eric Hoxworth

Roy Meaney

Joseph Tallieu

Russell L Gillenwater

Kenneth G Keels

Wade Andrew Butcher

Jonathan Foster Lewis

Weijia Zhang

Donald W Gerhart

Terry Wayne Liles

William A Moyes

Abhay Arjun Salunke

Robert G Nadon

Russel L Gillenwater

Mahesh Kalambi

Fritz A Kocher

Chi Nguyen

In accordance with embodiments of the present disclosure, a device for persistent cached image download may include a memory, an input/output interface, and a network interface. The memory may be configured to store therein an image database, the image database comprising a boot image for each of one or more information handling systems. The input/output interface may be communicatively coupled to the memory and configured to couple to a corresponding input/output port of an information handling system. The network interface may be configured to couple to an image server. In response to an information handling system coupled to the input/output interface determining that the updated version of the particular boot image exists at the image server, the memory may store the updated version in the memory as the particular boot image.

Systems and methods for persistent cached image download

In accordance with embodiments of the present disclosure a method of configuring an information handling system comprises configuring a base platform of an information handling system. The method further comprises installing a personality module on the base platform. The personality module is configured to store personality information associated with an information handling resource of the information handling system. The method additionally comprises executing the personality module and installing software associated with the information handling system after executing the personality module.

System and method for configuring an information handling system by implementing a customized configuration of a personality module

A method of manufacturing an information handling system having at least one hardware component, e.g. motherboard, bearing a unique identifier (component ID) in software-readable form. The method comprises generating a digital identifier (system trackcode) which defines the hardware and software configuration of the item, storing the system trackcode in association with the component ID in a manufacturing database such that the component ID can be used as a key to retrieve the associated system trackcode. During manufacture the component ID is read from the motherboard and used to retrieve the associated system trackcode from the database.

Method of manufacturing an information handling system

An information handling system includes a processor, a memory device coupled to the processor, and a dedicated system service repository (DSSR) coupled to the processor. The DSSR is configured to store a base image that includes a plurality of partitions and a first system configuration image, wherein the first system configuration image is stored in a first partition of the plurality of partitions, wherein the first system configuration image is configured to provide in-band and/or out-of-band managed access to the DSSR when executed; and by accessing the first system configuration image, the DSSR is populated with a second system configuration image, wherein the second system configuration image is stored in a second partition of the plurality of partitions.

System and method for populating a dedicated system service repository for an information handling system

A method of manufacturing an information handling system having at least one hardware component, e.g. motherboard, bearing a unique identifier (component ID) in software-readable form. The method includes generating a digital identifier (system trackcode) which defines the hardware and software configuration of the item and storing the system trackcode in association with the component ID in a manufacturing database such that the component ID can be used as a key to retrieve the associated system trackcode. During manufacture the component ID is read from the motherboard and used to retrieve the associated system trackcode from the database.

A method of manufacturing a build-to-order PC system unit having at least one hardware component, e.g. motherboard, bearing a unique identifier ('component ID') in software readable form. The method comprises generating a digital identifier ('system trackcode') which defines the hardware and software configuration of the item, storing the system trackcode in association with the component ID in a manufacturing database such that the component ID can be used as a key to retrieve the associated system trackcode. During manufacture the component ID is read from the motherboard and used to retrieve the associated system trackcode from the database.

Method of manufacturing an item of build-to-order equipment

A universal PXE client obtains configuration information for an information handling system, applies the configuration information to create a drive on the information handling system and loads a manufacture operating system in the drive. The manufacture operating system runs a manufacture application that configures the software of the information handling system. The universal PXE client is generated by a scripting engine of a network boot program that is downloaded to the information handling system with a NIC boot kernel activated on power-up. The state of manufacture is periodically saved to a network location that tracks manufacture progress and persists manufacture state information through system re-boots.

Information handling system manufacture method and system

A method and system for performing very high speed software downloads concurrent with system testing in an automated production environment and for test-sequencing in multi-tasking environments with consolidated automation and interactive operations are described. In one embodiment, during diagnostics and software download, a multi-tasking OS is booted on a target computer system, thereby enabling diagnostics to be run at the same time the software download is performed. A visual step-sequencing engine provides the ability to sequentially execute steps, as well as to execute steps in parallel and to combine parallel and sequential steps into loops. The sequencing engine provides a visual representation of the current run status of the target system in a Main window. The sequencing engine also integrates EMR debug tools into the same application so that EMR debug technicians can run failing steps directly from the application via an EMR Control window thereof and consolidates logs into a single location within the application viewable via a Logs window thereof.

System and method for sequencing and performing very high speed software downloads concurrent with system testing in an automated production environment

Method and system for performing very high speed software downloads concurrent with system testing in an automated production environment and for test-sequencing in multi-tasking environments with consolidated automation and interactive operations is described. In one embodiment, during diagnostics and software download, a multi-tasking OS is booted on a target computer system, thereby enabling diagnostics to be run at the same time the software download is performed. A visual step-sequencing engine provides the ability to sequentially execute steps, as well as to execute steps in parallel and to combine parallel and sequential steps into loops. The sequencing engine provides a visual representation of the current run status of the target system in a Main window. The sequencing engine also integrates EMR debug tools into the same application so that EMR debug technicians can run failing steps directly from the application via an EMR Control window thereof and consolidates logs into a single location within the application viewable via a Logs window thereof.

The real-time test controller maintains a failure database containing a history of past failures for devices under test and selectively sorts the history for the device to be tested. The diagnostic testing sequence is then rearranged with tests having higher failure rates being conducted first. If faults are detected, a message is provided to the operator and the failure database is either manually or automatically updated with the latest fault information. In this manner, a continuously updated history of faults is maintained and the most efficient testing sequence is followed, resulting in significant time and cost savings.

Growing community of inventors

Manchaca, TX, United States of America

Philip John Brisky