Abstract: A winch includes a motor, a gear reduction unit, a tie structure, an external power cable, and a rotatable drum. The motor includes a motor housing with a motor case and a first drum support attached to the motor case. The gear reduction unit is drivingly attached to the motor and has a gear housing including a gear case and a second drum support. The tie structure connects said first and second drum supports. The external power cable having a first end and a second end. The first end of the external power cable is configured to be coupled to an external power source. The second end of the external power cable is coupled to a bus bar. The rotatable drum is drivingly connected to the motor and supported by the first and second drum supports.

Abstract: A winch includes a motor, a gear reduction unit, a tie structure, an external power cable, and a rotatable drum. The motor includes a motor housing with a motor case and a first drum support attached to the motor case. The gear reduction unit is drivingly attached to the motor and has a gear housing including a gear case and a second drum support. The tie structure connects said first and second drum supports. The external power cable having a first end and a second end. The first end of the external power cable is configured to be coupled to an external power source. The second end of the external power cable is coupled to a bus bar. The rotatable drum is drivingly connected to the motor and supported by the first and second drum supports.

Abstract: A winch includes a motor, a gear reduction unit, a tie structure, an external power cable, and a rotatable drum. The motor includes a motor housing with a motor case and a first drum support attached to the motor case. The gear reduction unit is drivingly attached to the motor and has a gear housing including a gear case and a second drum support. The tie structure connects said first and second drum supports. The external power cable having a first end and a second end. The first end of the external power cable is configured to be coupled to an external power source. The second end of the external power cable is coupled to a bus bar. The rotatable drum is drivingly connected to the motor and supported by the first and second drum supports.

Abstract: Provided is a hose including a first connector assembly including a regulator assembly, a second connector assembly, and a hose assembly coupled to the first and second connector assemblies. The hose assembly includes an inner hose member having first and second ends, an outer hose member having first and second ends, a first hose connector assembly coupled to the first ends of the inner hose member and outer hose member and the first connector assembly, and a second hose connector assembly coupled to the second ends of the inner hose member and outer hose member and the second connector assembly.

Abstract: A paint booth filter assembly has a housing defining an interior having a securable lid, a shop vacuum exhaust attachment point, and a device exhaust. The device exhaust is secured within the lid. Secured within the interior of the housing is a plurality of removable air filters, having different levels of filtration.

Abstract: Novel tools and techniques are provided for implementing medical simulation, and, in particular, for implementing medical simulation to simulate a medical instrument entering and maneuvering in a body of a person. A medical simulation system comprising a medical instrument detection unit, a medical instrument tracker unit, a braking unit may be provided. The medical simulation detection unit may determine when a medical instrument is interacting with the system. The tracking unit may track the movement and position of the medical instrument. The braking unit may be used to engage the medical instrument and simulate haptic effects. A medical simulation containment system for the medical simulation system may also be provided.

Abstract: A paint booth filter assembly has a housing defining an interior having a securable lid, a shop vacuum exhaust attachment point, and a device exhaust. The device exhaust is secured within the lid. Secured within the interior of the housing is a plurality of removable air filters, having different levels of filtration.

Abstract: A portable enclosure provides a means to protect a user while performing hazardous processes upon a work piece such as grinding, sanding, drilling, painting, chemical washing, and the like. The enclosure provides a portable box-like structure having transparent plastic panels, an open-bottom portion, and a pair of glove ports. The enclosure is intended to be placed over the work piece which is positioned upon a floor surface, thereby allowing performance of hazardous processing without having to move or lift the work piece.

Abstract: Novel tools and techniques are provided for implementing medical simulation, and, in particular, for implementing medical simulation to simulate a medical instrument entering and maneuvering in a body of a person. A medical simulation system comprising a medical instrument detection unit, a medical instrument tracker unit, a braking unit may be provided. The medical simulation detection unit may determine when a medical instrument is interacting with the system. The tracking unit may track the movement and position of the medical instrument. The braking unit may be used to engage the medical instrument and simulate haptic effects. A medical simulation containment system for the medical simulation system may also be provided.

Abstract: A system and method in which when a user logs into a client computer with his user name, the client computer determines the existence of a server and the server automatically adds the user name to the list of users maintained by the server, is disclosed. With the user name automatically populated in the server user list, the administrator may easily select and configure access for the user.

Abstract: A semiconductor device test assembly includes a heat sink having a surface configured to support a device under test, an inner bellow, an outer bellow at least partially surrounding the inner bellow, and a fluid channel within the inner bellow for providing a fluid to the heat sink. The semiconductor device test assembly can further include an air adjustment unit for adjusting an air pressure in the outer bellow, so as to adjust a contact force between the heat sink and the device under test.

Abstract: A method for soaking a device in an automated testing system, includes setting a temperature control device to a first temperature, exposing the device to the temperature control device, and driving the temperature control device to a second temperature. The temperature transition rate from the first temperature to the second temperature is derived from a first natural decay rate. The first natural decay rate is based on a first-order thermal response of the device when the device is suspended in free air. The second temperature of the temperature control device is relative to a set point temperature so that when the device is socketed for testing, the temperature of the device settles at the set point temperature.

Abstract: A method for soaking a device in an automated testing system, includes setting a temperature control device to a first temperature, exposing the device to the temperature control device, and driving the temperature control device to a second temperature. The temperature transition rate from the first temperature to the second temperature is derived from a first natural decay rate. The first natural decay rate is based on a first-order thermal response of the device when the device is suspended in free air. The second temperature of the temperature control device is relative to a set point temperature so that when the device is socketed for testing, the temperature of the device settles at the set point temperature.

Abstract: A semiconductor device test assembly includes a heat sink having a surface configured to support a device under test, an inner bellow, an outer bellow at least partially surrounding the inner bellow, and a fluid channel within the inner bellow for providing a fluid to the heat sink. The semiconductor device test assembly can further include an air adjustment unit for adjusting an air pressure in the outer bellow, so as to adjust a contact force between the heat sink and the device under test.

Abstract: A system and method for executing a participating application from media coupled to a computing device. The participating application may be executed automatically or manually. When the application is executed, a task disk control file is read from the removable media. The task disk control file contains all of the configuration information necessary to run the participating application from the coupled media. The participating application is then launched for use by a user. After the user is finished using the participating application, all data files are saved, temporary files deleted and configuration information removed prior to the termination of the application to return the computing device to an original state.

Abstract: A system and method for automatically executing a participating application upon insertion of a removable media into a computing device. When the computing device detects that the removable media containing has been inserted, a task disk control file is read from the removable media. The task disk control file contains all of the configuration information necessary to run the participating application from the removable media The participating application is then launched for use by a user. After the user is finished using the participating application, the removable disk is automatically ejected. In addition to monitoring for insertion of the removable media, events such as a completion of the self-contained application and a request to eject the media are monitored. When a completion event is encountered, all data files are saved, temporary files deleted and configuration information removed prior to the removable disk ejection.

Abstract: A system and method for automatically executing a participating application upon insertion of a removable media into a computing device. When the computing device detects that the removable media containing has been inserted, a task disk control file is read from the removable media. The task disk control file contains all of the configuration information necessary to run the participating application from the removable media. The participating application is then launched for use by a user. After the user is finished using the participating application, the removable disk is automatically ejected. In addition to monitoring for insertion of the removable media, events such as a completion of the self-contained application and a request to eject the media are monitored. When a completion event is encountered, all data files are saved, temporary files deleted and configuration information removed prior to the removable disk ejection.

Abstract: Methods and systems are provided for reducing the overhead associated with media commands issued to computing devices. A request is received from an application to access a device, and a single media present command is issued to a device driver to determine if media is present in the device. The request is passed to the device driver only if media is present in the device. Moreover, a method of intercepting commands issued to a device driver, is provided wherein a call is received from an application which is intended for a device driver, the call is buffered until media is present in a device whereupon the call is released to the device driver for processing.

Abstract: A reinforced shrink wrap has been developed for use in all types of environments and products or applications. The shrink wrap is tear resistant and can be prepared to withstand exposure from the sun and corrosive elements. The shrink wrap includes a layer of a shrink film and a layer of polyolefin film. In addition, a reinforcing filamentous grid in an extrusion tie layer is disposed in between the shrink film and a polyolefin film.

Abstract: A reinforced shrink wrap has been developed for use in all types of environments and products or applications. The shrink wrap is tear resistant and can be prepared to withstand exposure from the sun and corrosive elements. The shrink wrap includes a layer of a shrink film and a layer of polyolefin film. In addition, a reinforcing filamentous grid in an extrusion tie layer is disposed in between the shrink film and a polyolefin film.