Abstract: An integrated circuit may include a printed circuit board and multiple processor sockets on the printed circuit board. Each of the multiple processor sockets is operable to receive a microprocessor and a programmable device. When a microprocessor is placed in a processor socket, that microprocessor may communicate with memory dual in-line memory modules (DIMMs). When a programmable device is placed in a processor socket, that programmable device may first be configured using a configuration DIMM and may then communicate with memory DIMMs during normal operation. The configuration DIMM may include multiple options for configuring the programmable device and may also provide additional management functions specifically tailored to the programmable device.

Abstract: An integrated circuit may include a printed circuit board and multiple processor sockets on the printed circuit board. Each of the multiple processor sockets is operable to receive a microprocessor and a programmable device. When a microprocessor is placed in a processor socket, that microprocessor may communicate with memory dual in-line memory modules (DIMMs). When a programmable device is placed in a processor socket, that programmable device may first be configured using a configuration DIMM and may then communicate with memory DIMMs during normal operation. The configuration DIMM may include multiple options for configuring the programmable device and may also provide additional management functions specifically tailored to the programmable device.

Abstract: The present disclosure relates to a new scan technique for particle radiation therapy that may be used for cancer treatment. One embodiment relates to a method of mitigating interplay effect in particle radiation therapy in a moving target including a period of movement, where the particle radiation therapy defines a planned dose in each spot of each layer of the moving target. The method comprising dividing the planned dose in each spot into a number of spot repaintings; and generating a scan pattern for each layer by defining a beam-on time at each spot for each spot repainting, and calculating a wait time between consecutive beam-on times to distribute the spot repaintings for each spot of a respective layer are distributed over a duration of an integer number of periods of movement.

Abstract: An integrated circuit may include a printed circuit board and multiple processor sockets on the printed circuit board. Each of the multiple processor sockets is operable to receive a microprocessor and a programmable device. When a microprocessor is placed in a processor socket, that microprocessor may communicate with memory dual in-line memory modules (DIMMs). When a programmable device is placed in a processor socket, that programmable device may first be configured using a configuration DIMM and may then communicate with memory DIMMs during normal operation. The configuration DIMM may include multiple options for configuring the programmable device and may also provide additional management functions specifically tailored to the programmable device.

Abstract: A circuit system includes an integrated circuit package, first and second memory modules, and a base circuit board. The integrated circuit package houses a main integrated circuit die. The first memory module has a first circuit board and first memory integrated circuit dies coupled to the first circuit board. The second memory module has a second circuit board and second memory integrated circuit dies coupled to the second circuit board. The base circuit board is coupled to the integrated circuit package and to the first and second memory modules. The base circuit board includes conductors that couple the integrated circuit package to the first and second memory modules. The second memory module has a reverse orientation on the base circuit board relative to the first memory module such that the second memory integrated circuit dies face away from the first memory integrated circuit dies.

Abstract: An integrated circuit may include a printed circuit board and multiple processor sockets on the printed circuit board. Each of the multiple processor sockets is operable to receive a microprocessor and a programmable device. When a microprocessor is placed in a processor socket, that microprocessor may communicate with memory dual in-line memory modules (DIMMs). When a programmable device is placed in a processor socket, that programmable device may first be configured using a configuration DIMM and may then communicate with memory DIMMs during normal operation. The configuration DIMM may include multiple options for configuring the programmable device and may also provide additional management functions specifically tailored to the programmable device.

Abstract: The present disclosure relates to a new scan technique for particle radiation therapy that may be used for cancer treatment. One embodiment relates to a method of mitigating interplay effect in particle radiation therapy in a moving target including a period of movement, where the particle radiation therapy defines a planned dose in each spot of each layer of the moving target. The method comprising dividing the planned dose in each spot into a number of spot repaintings; and generating a scan pattern for each layer by defining a beam-on time at each spot for each spot repainting, and calculating a wait time between consecutive beam-on times to distribute the spot repaintings for each spot of a respective layer are distributed over a duration of an integer number of periods of movement.

Abstract: A method for delivering therapeutic light ion radiation to a target volume of a subject, wherein the target volume is located at a predetermined depth from the skin, includes irradiating a surface of the skin with an array of light ion minibeams comprising parallel, spatially distinct minibeams at the surface in an amount and spatially arranged and sized to maintain a tissue-sparing effect from the skin to a proximal side of the target volume, and to merge into a solid beam at a proximal side of the target volume. A gap between the parallel, spatially distinct minibeams at the surface and a species of light ions forming the minibeams are selected such that the array merges into a solid beam at a predetermined beam energy, and across all energies for Bragg-peak spreading, at a proximal side of the target volume.

Abstract: A method for delivering therapeutic light ion radiation to a target volume of a subject, wherein the target volume is located at a predetermined depth from the skin, includes irradiating a surface of the skin with an array of light ion minibeams comprising parallel, spatially distinct minibeams at the surface in an amount and spatially arranged and sized to maintain a tissue-sparing effect from the skin to a proximal side of the target volume, and to merge into a solid beam at a proximal side of the target volume. A gap between the parallel, spatially distinct minibeams at the surface and a species of light ions forming the minibeams are selected such that the array merges into a solid beam at a predetermined beam energy, and across all energies for Bragg-peak spreading, at a proximal side of the target volume.

Abstract: A storage system is provided with a support panel, having a plurality of sockets, and one or more support members, having mounting posts for engagement within the sockets. Nodules extend from the sides of the mounting posts that are received within recesses formed in the inner walls of the sockets to secure the mounting posts within the sockets. A modular design permits a plurality of support panels to be joined at their edges, to form a larger support panel, or to engage the edge of one panel with the face of another panel to provide a storage shelf. In one embodiment, a horizontal platform and vertical handle both provide surfaces for receiving support members while permitting the device to be mobile.

Abstract: In some embodiments, a system board may include embedded graphics capability on the system board. An expansion slot on the system board may be adapted to receive an add-in card. A first circuit on the system board may detect the presence of a graphics card in the expansion slot automatically after powering up the system board. A second circuit on the system board may determine information associated with the graphics card automatically after powering up the system board. A third circuit on the system board may be configured to utilize the information associated with the graphics card to enable or disable all or some of the embedded graphics capability automatically after powering up the system board. Other embodiments are disclosed and claimed.