Abstract: A refrigerator assembly includes a cabinet having one or more compartments and a door configured to provide access to the one or more compartments. The refrigerator assembly further includes a mullion portion movably attached with respect the door and a hinge assembly attaching the mullion portion to the door such that the mullion portion is rotatably movable with respect to the door about a rotational axis between a first position and a second position. The refrigerator assembly further includes a leaf spring and a cam structure. The cam structure includes a first recess for receiving the leaf spring when the mullion portion is in the first position. The cam structure further includes a second recess for receiving the leaf spring when the mullion portion is in the second position.

Abstract: A hinge assembly is provided for pivotally mounting a door on a refrigerator cabinet. The refrigerator cabinet includes a top wall, a bottom wall, a pair of opposed side walls extending between the bottom and top wall, and a face that is normal to the top wall, bottom wall, and opposed side walls. The hinge assembly includes a hinge bracket, hinge pin, and door stop member. The hinge bracket is attachable to the cabinet and includes a threaded aperture having a first end and a second end. The hinge pin defines an axis about which the door can rotate and is threadably insertable into either end of the threaded aperture. The door stop member is configured to rotate about the axis and prohibit rotation of the door beyond a certain position.

Abstract: A soft freeze assembly is provided within a freezer compartment of a refrigerator assembly. The refrigerator assembly includes a fresh food compartment maintained at a first temperature arranged adjacent the freezer compartment maintained at a second temperature. The soft freeze assembly includes a support structure attached to a wall within the freezer compartment. The soft freeze assembly further includes a storage bin being supported by the support structure and movable with respect to the support structure. The storage bin is structured to allow air exterior from the freezer compartment to enter the storage bin and maintain the storage bin at a third temperature that is colder than the first temperature and warmer than the second temperature.

Abstract: Provided is a storage system and a refrigeration appliance including the storage system for storing food items in a temperature-controlled environment. The storage system includes a rail attached to a liner panel. The rail includes at least one mounting structure configured to pass through an aperture in the liner panel. A bin has an arm extending from a rear surface of the bin. The bin is placed in a storage position. The arm is placed between the rail and the liner panel when the bin is placed in the storage position. Another example of the storage system and refrigeration appliance includes a foot extending from a rear surface of the bin. Yet another example includes interaction between a bin tab and a plurality of bumps on the rail to prevent side to side motion.

Abstract: A soft freeze assembly is provided within a freezer compartment of a refrigerator assembly. The refrigerator assembly includes a fresh food compartment maintained at a first temperature arranged adjacent the freezer compartment maintained at a second temperature. The soft freeze assembly includes a support structure attached to a wall within the freezer compartment. The soft freeze assembly further includes a storage bin being supported by the support structure and movable with respect to the support structure. The storage bin is structured to allow air exterior from the freezer compartment to enter the storage bin and maintain the storage bin at a third temperature that is colder than the first temperature and warmer than the second temperature.

Abstract: A technique is presented for establishing a patient's BMD using a dual-energy X-ray imaging system. In the technique, the dual-energy X-ray imaging system utilizes a slit collimator to expose a series of portions of a region of interest within a patient with X-rays of two different energies. A flat-panel digital X-ray detector detects the X-rays passing through the patient's region of interest and produces data representative of the intensity of the X-rays reaching the detector. The image intensity data is corrected for scatter based on identifying the regions of the image intensity data that are produced from scatter only, and not primary X-rays. A first-order derivative of the image intensity data is used to identify these regions. A value for the intensity of the scatter at the boundary of the scatter-only region is established.

Abstract: A technique is presented for establishing a patient's BMD using a dual-energy X-ray imaging system. In the technique, the dual-energy X-ray imaging system utilizes a slit collimator to expose a series of portions of a region of interest within a patient with X-rays of two different energies. A flat-panel digital X-ray detector detects the X-rays passing through the patient's region of interest and produces data representative of the intensity of the X-rays reaching the detector. The image intensity data is corrected for scatter based on identifying the regions of the image intensity data that are produced from scatter only, and not primary X-rays. A first-order derivative of the image intensity data is used to identify these regions. A value for the intensity of the scatter at the boundary of the scatter-only region is established.