Abstract: A refrigerator is provided including a refrigerator compartment having a bin door. A storage bin is positioned within the refrigerator compartment. A lift mechanism is positioned within the refrigerator compartment. The lift mechanism includes a bin support structure configured to support the storage bin. The lift mechanism further includes at least one pivot arm pivotally attached to the bin door, and a drive unit attached to the bin door. The drive unit applies a vertical force to the at least one pivot arm, and rotation of the at least one pivot arm vertically moves the bin support structure and storage bin.

Abstract: Provided is a basket for storing food items in a temperature-controlled environment and a refrigeration appliance including such a basket. The basket includes a substantially-horizontal platform coupled to two or more upwardly-extending walls to form an open container for receiving the food items to be stored in the temperature-controlled environment. A partition is provided for dividing the basket into two or more storage regions. A guide is coupled to at least one of the platform and the walls, and extends substantially parallel to an upper perimeter of at least one of the walls to define a range of adjustment of the partition. A fastener securely couples the partition to the guide to be adjusted to two or more different locations where the partition is to divide the basket.

Abstract: A refrigerator is provided including a refrigerator compartment having a bin door. A storage bin is positioned within the refrigerator compartment. A lift mechanism is positioned within the refrigerator compartment. The lift mechanism includes a bin support structure configured to support the storage bin. The lift mechanism further includes at least one pivot arm pivotally attached to the bin door, and a drive unit attached to the bin door. The drive unit applies a vertical force to the at least one pivot arm, and rotation of the at least one pivot arm vertically moves the bin support structure and storage bin.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A method of assembling a cabinet and an apparatus assembled according to the method are provided. The cabinet includes a shell with internal walls, a first compartment liner and a second compartment liner configured to be housed within the shell. The first compartment liner includes a first liner face and defines a first compartment. The second compartment liner includes a second liner face and defines a second compartment. The method includes the steps of positioning a pair of elongate supports between the first compartment liner and the second compartment liner such that the first liner face and the second liner face are adjacent one another and spaced apart.

Abstract: A drawer assembly is provided for an enclosure which includes a first interior surface and a second interior surface which are opposite one another. The drawer assembly includes a drawer, a first rack, a second rack, a first linear motion element and a second linear motion element. The drawer is configured to be insertable in the enclosure. The first rack and the second rack are mounted respectively near the first interior surface and the second interior surface. The first linear motion element and the second linear motion element are mounted respectively near the first interior surface and the second interior surface. Each of the linear motion elements is configured to enable movement of the drawer in and out of the enclosure. Each of the linear motion elements includes a pinion configured to rotate along a corresponding rack as the drawer is moved in and out of the enclosure.

Abstract: Provided is a basket for storing food items in a temperature-controlled environment and a refrigeration appliance including such a basket. The basket includes a substantially-horizontal platform coupled to two or more upwardly-extending walls to form an open container for receiving the food items to be stored in the temperature-controlled environment. A partition is provided for dividing the basket into two or more storage regions. A guide is coupled to at least one of the platform and the walls, and extends substantially parallel to an upper perimeter of at least one of the walls to define a range of adjustment of the partition. A fastener securely couples the partition to the guide to be adjusted to two or more different locations where the partition is to divide the basket.

Abstract: A drawer assembly is provided for an enclosure which includes a first interior surface and a second interior surface which are opposite one another. The drawer assembly includes a drawer, a first rack, a second rack, a first linear motion element and a second linear motion element. The drawer is configured to be insertable in the enclosure. The first rack and the second rack are mounted respectively near the first interior surface and the second interior surface. The first linear motion element and the second linear motion element are mounted respectively near the first interior surface and the second interior surface. Each of the linear motion elements is configured to enable movement of the drawer in and out of the enclosure. Each of the linear motion elements includes a pinion configured to rotate along a corresponding rack as the drawer is moved in and out of the enclosure.

Abstract: A pull-out drawer assembly for a refrigerator bottom freezer. The assembly includes upper and lower baskets slidably mounted one above the other. The bottom basket has a drawer face mounted to its front edge. The upper basket has a magnet which cooperates with an engagement device that is mounted on the lower basket and is attractable to the magnet so that, when the drawer is pulled out of the freezer compartment, both drawers travel as a unit. The upper drawer can then be pushed back to disengage the engagement device from the magnet and provide access to the lower basket.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A method of assembling a cabinet and an apparatus assembled according to the method are provided. The cabinet includes a shell with internal walls, a first compartment liner and a second compartment liner configured to be housed within the shell. The first compartment liner includes a first liner face and defines a first compartment. The second compartment liner includes a second liner face and defines a second compartment. The method includes the steps of positioning a pair of elongate supports between the first compartment liner and the second compartment liner such that the first liner face and the second liner face are adjacent one another and spaced apart.

Abstract: A method of probing an electrical device using a membrane probing system having an improved contact. A membrane probe forms a contact having a ridge with a pair of inclined surfaces defining an acute angle such that, when pressed into an electrical pad of a device to be tested, the ridge penetrates into the electrical pad, shearing away any oxide on the surface of the pad. The device may then be tested.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A pull-out drawer assembly for a refrigerator bottom freezer. The assembly includes upper and lower baskets slidably mounted one above the other. The bottom basket has a drawer face mounted to its front edge. The upper basket has a magnet which cooperates with an engagement device that is mounted on the lower basket and is attractable to the magnet so that, when the drawer is pulled out of the freezer compartment, both drawers travel as a unit. The upper drawer can then be pushed back to disengage the engagement device from the magnet and provide access to the lower basket.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.

Abstract: A substrate, preferably constructed of a ductile material and a tool having the desired shape of the resulting device for contacting contact pads on a test device is brought into contact with the substrate. The tool is preferably constructed of a material that is harder than the substrate so that a depression can be readily made therein. A dielectric (insulative) layer, that is preferably patterned, is supported by the substrate. A conductive material is located within the depressions and then preferably lapped to remove excess from the top surface of the dielectric layer and to provide a flat overall surface. A trace is patterned on the dielectric layer and the conductive material. A polyimide layer is then preferably patterned over the entire surface. The substrate is then removed by any suitable process.