Abstract: A blocking component for construction framing assembly comprises a web, a first flange, a second flange, a first ear, a second ear, a third ear, and a fourth ear. The first flange has a first flange first edge attached to a web first edge with the first flange extending away from the web bottom surface. The second flange has a second flange first edge attached to a web second edge with the second flange extending away from the web bottom surface. The first ear extends from a first flange first end. The second ear extends from a first flange second end. The third ear extends from a second flange first end. The fourth ear extends from a second flange second end. The blocking component may extend between and be attached at the ears to a pair of studs used in construction framing assembly.

Abstract: A packaged bundle using a special designed packaging channel for dunnage is disclosed. The packaging channel dunnage has a channel with hemmed edges and swedged ends exhibiting a two-curved profile to provide a more secure bundle and improved safety during transport and handling.

Abstract: A packaged bundle using a special designed packaging channel for dunnage is disclosed. The packaging channel dunnage has a channel with hemmed edges and swedged ends exhibiting a two-curved profile to provide a more secure bundle and improved safety during transport and handling.

Abstract: Herein is described the use of a collection of 50 breast cancer cell lines to match responses to 77 conventional and experimental therapeutic agents with transcriptional, proteomic and genomic subtypes found in primary tumors. Almost all compounds produced strong differential responses across the cell lines produced responses that were associated with transcriptional and proteomic subtypes and produced responses that were associated with recurrent genome copy number abnormalities. These associations can now be incorporated into clinical trials that test subtype markers and clinical responses simultaneously.

Abstract: Herein is described the use of a collection of 50 breast cancer cell lines to match responses to 77 conventional and experimental therapeutic agents with transcriptional, proteomic and genomic subtypes found in primary tumors. Almost all compounds produced strong differential responses across the cell lines produced responses that were associated with transcriptional and proteomic subtypes and produced responses that were associated with recurrent genome copy number abnormalities. These associations can now be incorporated into clinical trials that test subtype markers and clinical responses simultaneously.

Abstract: Some embodiments provide a sensor element, a shield element capacitively coupled to the sensor element and to ground, a coupling circuit to receive an input signal, and to electrically couple the received input signal to the sensor element and to the shield element, an output circuit to generate an output signal, the output signal based on a capacitance between the sensor element and an object, and a classifier to determine a material based on the output signal, and to transmit a material signal to the output circuit based on the determined material, wherein the output circuit is adjustable based on the material signal.

Abstract: Some embodiments provide a sensor element, a shield element capacitively coupled to the sensor element and to ground, a coupling circuit to receive an input signal, and to electrically couple the received input signal to the sensor element and to the shield element, an output circuit to generate an output signal, the output signal based on a capacitance between the sensor element and an object, and a classifier to determine a material based on the output signal, and to transmit a material signal to the output circuit based on the determined material, wherein the output circuit is adjustable based on the material signal.

Abstract: A portal imaging device positioning apparatus includes a portal imaging device positioner (255) attachable to a support (256). The portal imaging device positioner (255) is adapted to vertically adjust an imaging panel (250) in a treatment or dosimetry mode to receive radiation through a body in the patient plane (8a), and adjust the panel in a physics mode to receive radiation at the patient plane (8a).

Abstract: Some embodiments provide a sensor element, a shield element capacitively coupled to the sensor element and to ground, a coupling circuit to receive an input signal, and to electrically couple the received input signal to the sensor element and to the shield element, an output circuit to generate an output signal, the output signal based on a capacitance between the sensor element and an object, and a classifier to determine a material based on the output signal, and to transmit a material signal to the output circuit based on the determined material, wherein the output circuit is adjustable based on the material signal.

Abstract: A portal imaging device positioning apparatus includes a portal imaging device positioner (255) attachable to a support (256). The portal imaging device positioner (255) is adapted to vertically adjust an imaging panel (250) in a treatment or dosimetry mode to receive radiation through a body in the patient plane (8a), and adjust the panel in a physics mode to receive radiation at the patient plane (8a).

Abstract: A portal imaging device positioning apparatus includes a portal imaging device positioner (255) attachable to a support (256). The portal imaging device positioner (255) is adapted to vertically adjust an imaging panel (250) in a treatment or dosimetry mode to receive radiation through a body in the patient plane (8a), and adjust the panel in a physics mode to receive radiation at the patient plane (8a).

Abstract: A portal imaging device positioning apparatus includes a portal imaging device positioner (255) attachable to a support (256). The portal imaging device positioner (255) is adapted to vertically adjust an imaging panel (250) in a treatment or dosimetry mode to receive radiation through a body in the patient plane (8a), and adjust the panel in a physics mode to receive radiation at the patient plane (8a).