Abstract: Methods and systems for automated testing of extremely-high frequency devices are disclosed. A device under test (DUT) is set in a simultaneous transmit and receive mode. The DUT receives a lower frequency radio frequency (RF) signal from a test unit and up-converts the lower frequency RF signal to a higher frequency RF signal. The DUT transmits the higher frequency RF signal using a first antenna, and receives the higher frequency RF signal using a second antenna. The DUT down-converts the received higher frequency RF signal to a received test RF signal and provides the received test RF signal to the test unit for comparing measurements derived from the received test signal to a design specification for the DUT.

Abstract: Methods and systems for automated testing of extremely-high frequency devices are disclosed. A device under test (DUT) is set in a simultaneous transmit and receive mode. The DUT receives a lower frequency radio frequency (RF) signal from a test unit and up-converts the lower frequency RF signal to a higher frequency RF signal. The DUT transmits the higher frequency RF signal using a first antenna, and receives the higher frequency RF signal using a second antenna. The DUT down-converts the received higher frequency RF signal to a received test RF signal and provides the received test RF signal to the test unit for comparing measurements derived from the received test signal to a design specification for the DUT.

Abstract: Methods and systems for automated testing of extremely-high frequency devices are disclosed. A device under test (DUT) is set in a simultaneous transmit and receive mode. The DUT receives a lower frequency radio frequency (RF) signal from a test unit and up-converts the lower frequency RF signal to a higher frequency RF signal. The DUT transmits the higher frequency RF signal using a first antenna, and receives the higher frequency RF signal using a second antenna. The DUT down-converts the received higher frequency RF signal to a received test RF signal and provides the received test RF signal to the test unit for comparing measurements derived from the received test signal to a design specification for the DUT.

Abstract: Some embodiments provide a method for extracting and adapting system configuration. The method extracts a first configuration from a first node of a first hosting system. The first node includes several resources for hosting the first configuration. The method analyzes the first configuration in order to determine attributes of the first configuration. The determined attributes are relevant to hosting the first configuration on a second node of a second hosting system having several nodes. The method generates a second configuration based on the determined attributes. The method hosts the second configuration at the second node of the second hosting system.

Abstract: Some embodiments provide a method for extracting and adapting system configuration. The method extracts a first configuration from a first node of a first hosting system. The first node includes several resources for hosting the first configuration. The method analyzes the first configuration in order to determine attributes of the first configuration. The determined attributes are relevant to hosting the first configuration on a second node of a second hosting system having several nodes. The method generates a second configuration based on the determined attributes. The method hosts the second configuration at the second node of the second hosting system.

Abstract: Some embodiments provide a method for extracting and adapting system configuration. The method extracts a first configuration from a first node of a first hosting system. The first node includes several resources for hosting the first configuration. The method analyzes the first configuration in order to determine attributes of the first configuration. The determined attributes are relevant to hosting the first configuration on a second node of a second hosting system having several nodes. The method generates a second configuration based on the determined attributes. The method hosts the second configuration at the second node of the second hosting system.

Abstract: A dependable, simple, safe electrically actuated step system for a larger vehicle, such as a van or truck, which is compact and lightweight, includes a step base, a step member movably secured to the step base between a retracted position and a deployed position, and swing arm assemblies which movably secure the step member to the step base. A plunger actuator moves between a retracted position and an extended position to retract and extend the step, responsive to door position or a manual switch.

Abstract: Some embodiments provide a method for extracting and adapting system configuration. The method extracts a first configuration from a first node of a first hosting system. The first node includes several resources for hosting the first configuration. The method analyzes the first configuration in order to determine attributes of the first configuration. The determined attributes may be relevant to hosting the first configuration on a second node of a second hosting system having several nodes. The method generates a second configuration based on the determined attributes. The method then hosts the second configuration at the second node of the second hosting system.

Abstract: An auxiliary pullout step for a vehicle having a yieldingly resilient mechanism for urging the step into the extended step position thereof and resisting movement of the step into a retracted position thereof and an indexing mechanism for selectively restraining the step in the retracted position thereof and selectively releasing the step from the restrained position thereof to allow the yieldingly resilient mechanism to move the step into the extended step position.

Abstract: An auxiliary pullout step for a vehicle having a yieldingly resilient mechanism for urging the step into the extended step position thereof and resisting movement of the step into a retracted position thereof and an indexing mechanism for selectively restraining the step in the retracted position thereof and selectively releasing the step from the restrained position thereof to allow the yieldingly resilient mechanism to move the step into the extended step position.

Abstract: An auxiliary pullout step for a vehicle having a yieldingly resilient mechanism for urging the step into the extended step position thereof and resisting movement of the step into a retracted position thereof and an indexing mechanism for selectively restraining the step in the retracted position thereof and selectively releasing the step from the restrained position thereof to allow the yieldingly resilient mechanism to move the step into the extended step position/

Abstract: A method and apparatus for personally controlled sharing of medical image and other health data are disclosed. According to one aspect, the subject matter described herein includes a method for patient mediated access to patient health information maintained by different healthcare facilities and other health record repositories. The methods includes, using a central key server and a plurality of data servers local to healthcare facilities and other health record repositories. At the central key server, a patient controlled registry of access keys that control access to patient health information maintained by different healthcare facilities is provided. The central key server receives, from a data server of a first healthcare facility, a request for an access key that controls access to health information for a patient maintained by a second healthcare facility.

Abstract: A support device for use in supporting a person on the side a vehicle extends from the side of a vehicle below the main body thereof and has a support member, which is clamped at one end to the vehicle frame. A step unit is attached to the other end of the support member. A panel for supporting the person is attached to the step unit. The support member has a pair of opposing rods at the end attached to the vehicle frame, these rods running along the opposite sides of the vehicle frame. The rods are clamped to the frame by bolts. The support member has a pair of arms which run at right angles to each other and a third arm running angularly between the pair of arms to form a triangular configuration. One of said pair of arms forms one of the rods running along the side of the vehicle frame. The step unit is attached to the end of the other one of the pair of arms. This attachment is made to permit pivotal movement of ninety degrees of the step relative to the other one of the pair of arms.

Abstract: A method for shaping a surface of a workpiece, comprises positioning at least one of a workpiece and an inductively-coupled plasma (ICP) torch including three concentrically arranged tubes. A plasma gas is introduced to an outer tube of the ICP torch and energy is transferred from a radio frequency (RF) power source to the plasma gas to generate an excitation zone at least partially downstream of the ICP torch. A reactive reactive precursor is introduced to the excitation zone, and an auxiliary gas is introduced to the intermediate tube to control a position of the excitation zone relative to the ICP torch so that a controlled distribution of reactive species is formed. The surface is shaped by removing material from the surface of the workpiece with at least a portion of the reactive species and adding material to the surface of the workpiece with at least a portion of the reactive species.

Abstract: A flame torch can be used to clean the surface of a contact-sensitive object, such as a glass optic, extremely thin workpiece, or semiconductor wafer by providing a reactive precursor gas to the feed gases of the torch. Reactive atom plasma processing can be used to clean the surface of a contaminant that chemically combines with the atomic radicals of the precursor without affecting the surface. The torch can also be used to modify the surface after cleaning, without transferring the object or engaging in any intermediate processing, by supplying a second reactive precursor that reacts with the surface itself. The flame torch can be used to shape, polish, etch, planarize, deposit, chemically modify and/or redistribute material on the surface of the object. This description is not intended to be a complete description of, or limit the scope of, the invention. Other features, aspects, and objects of the invention can be obtained from a review of the specification, the figures, and the claims.

Abstract: A method for reducing heat applied to a workpiece by a plasma discharge of a reactive plasma torch comprises determining a footprint of the plasma discharge on a surface of the workpiece based on a distance of the reactive atom plasma torch from the surface, determining a maximum heat absorbable by the workpiece, and determining an adjusted footprint of the reactive atom plasma torch on the surface based on the maximum heat absorbable by the workpiece. An aperture of an aperture device is selected based on the adjusted footprint of the reactive atom plasma torch. The aperture device is then positioned so that a portion of the plasma is one or both of deflected and absorbed by the aperture device, thereby reducing the heat absorbed by the workpiece.

Abstract: A tool for modifying a surface of a workpiece comprises a heat source having a modifiable footprint for heating a selectable portion of the surface, a reactive atom plasma torch, and a reactive precursor receivable within a plasma of the reactive atom plasma torch. The reactive cursor is received by the plasma to form a reactive species that chemically combines with a portion of the surface heated by the footprint of the heat source to produce a gas and leave the surface.

Abstract: Systems and methods that protect transport stream content are disclosed. The system may include a first module and a second module, the first module having a common interface. The second module is coupled to the first module via the common interface. In one embodiment, the first module is a set top box, and the second module is a conditional access card. In one example, the first module demodulates an incoming transport stream, copy protection encrypts the demodulated transport stream and passes the copy protection encrypted transport stream to the second module via the common interface. The second module copy protection decrypts the transport stream received from the first module, conditional access decrypts at least some of packets of the transport stream that were conditional access encrypted, copy protection encrypts the transport stream and passes the copy protection encrypted transport stream to the first module via the common interface.

Abstract: A system for processing wireless data packets allows for processing packets allows consolidation of security processing. Security processing is performed in accordance with multiple security policies. This processing is done in a single front end processing block. Different security processes can be performed in parallel. Processing overhead is reduced by eliminating the need to redundantly check packet characteristics to assess the different security requirements imposed by security policies. Further, the present invention also substantially reduces the CPU cycles required to transport data back and forth from memory to a cryptographic coprocessor.

Abstract: A method for processing wireless data packets allows for processing packets allows consolidation of security processing. Security processing is performed in accordance with multiple security policies. This processing is done in a single front end processing block. Different security processes can be performed in parallel. Processing overhead is reduced by eliminating the need to redundantly check packet characteristics to assess the different security requirements imposed by security policies. Further, the present invention also substantially reduces the CPU cycles required to transport data back and forth from memory to a cryptographic coprocessor.