Abstract:
The invention uses an adhesion layer of an amorphous alloy of aluminum. A first aluminum titanium embodiment of the amorphous adhesion layer preferably contains approximately equal amounts of aluminum and titanium (+/−5 at. %). A second embodiment of the amorphous adhesion layer preferably contains approximately equal amounts of aluminum and titanium (+/−5 at. %) and up to 10 at. % Zr with 5 at. % Zr being preferred. A third embodiment is aluminum tantalum preferably including from 15 to 25 at. % tantalum with 20 at. % being preferred. The most preferred compositions are Al50Ti50, Al47.5Ti47.5Zr5 or Al80Ta20. The adhesion layer is deposited onto the substrate. The substrate can be glass or a metal such as NiP-plated AlMg. The preferred embodiment of media according to the invention is for perpendicular recording and includes a magnetically soft underlayer deposited above the adhesion layer.
Abstract translation:本发明使用铝非晶合金的粘合层。 无定形粘合层的第一铝钛实施例优选含有大约相等量的铝和钛(+/- 5原子%)。 无定形粘合层的第二个实施方案优选含有大约相等量的铝和钛(+/- 5原子%)和至多10原子。 %Zr,5 at。 %Zr是优选的。 第三实施例是铝钽,优选包括15至25at。 20%钽。 %是首选。 最优选的组合物是Al 50 Ti 50,Al 47.5 Ti 47.5 Zr 5或Al 80 T a 20。 粘附层沉积在基底上。 基底可以是玻璃或诸如NiP镀AlMg的金属。 根据本发明的介质的优选实施例是用于垂直记录,并且包括沉积在粘附层上方的磁软底层。
Abstract:
A system, method and computer program product for a user to verify that a network resource address is trusted. At least one entity registration is stored at a server. Each entity registration comprises an identity of an entity and entity addressing information associated with the identity of the entity. The existence of at least one entity whose identity is included in the at least one entity registration is confirmed. A query comprising a target addressing information is received from a client. If the target addressing information matches the entity addressing information, the identity of the entity associated with the entity addressing information is determined and a result comprising the identity of the entity associated with the entity addressing information matching the target addressing information is transmitted to the client. If no entity addressing information matches the target addressing information, an indication of such is transmitted to the client.
Abstract:
A surface agent includes two end portions and a middle portion disposed between the end portions. The end portions include an anchor group or a truncation group. The anchor group includes at least one surface active functional group. The midsection includes at least one perfluoroalkyl-branched perfluorinated ether unit.
Abstract:
A method of guided attachment of hardware accelerators to slots of a computing system includes dividing a first group of hardware accelerators into a plurality of priority classes, dividing a first group of slots of the computing system into a plurality of hierarchical tiers, and attaching each hardware accelerator of the first group of hardware accelerators to a slot matched to the hardware accelerators based on comparison of a priority class of the hardware accelerator and a hierarchical tier of the slot.
Abstract:
The invention uses an adhesion layer of an amorphous alloy of aluminum. A first aluminum titanium embodiment of the amorphous adhesion layer preferably contains approximately equal amounts of aluminum and titanium (+/−5 at. %). A second embodiment of the amorphous adhesion layer preferably contains approximately equal amounts of aluminum and titanium (+/−5 at. %) and up to 10 at. % Zr with 5 at. % Zr being preferred. A third embodiment is aluminum tantalum preferably including from 15 to 25 at. % tantalum with 20 at. % being preferred. The most preferred compositions are Al50Ti50, Al47.5Ti47.5Zr5 or Al80 Ta20. The adhesion layer is deposited onto the substrate. The substrate can be glass or a metal such as NiP-plated AlMg. The preferred embodiment of media according to the invention is for perpendicular recording and includes a magnetically soft underlayer deposited above the adhesion layer.
Abstract:
A method of guided attachment of hardware accelerators to slots of a computing system includes dividing a first group of hardware accelerators into a plurality of priority classes, dividing a first group of slots of the computing system into a plurality of hierarchical tiers, and attaching each hardware accelerator of the first group of hardware accelerators to a slot matched to the hardware accelerators based on comparison of a priority class of the hardware accelerator and a hierarchical tier of the slot.
Abstract:
The exemplary embodiment of the present invention provides a storage buffer management scheme for I/O store buffers. Specifically, the storage buffer management system as described within the exemplary embodiment of the present invention is configured to comprise storage buffers that have the capability to efficiently support 128 byte or 256 byte I/O data transmission lines. The presently implemented storage buffer management scheme enables for a limited number of store buffers to be associated with a fixed number of storage state machines (i.e., queue positions) and thereafter the allowing for the matched pairs to be allocated in order to achieve maximum store throughput for varying combinations of store sizes of 128 and 256 bytes.
Abstract:
The invention uses an adhesion layer of an amorphous alloy of aluminum. A first aluminum titanium embodiment of the amorphous adhesion layer preferably contains approximately equal amounts of aluminum and titanium (+/−5 at. %). A second embodiment of the amorphous adhesion layer preferably contains approximately equal amounts of aluminum and titanium (+/−5 at. %) and up to 10 at. % Zr with 5 at. % Zr being preferred. A third embodiment is aluminum tantalum preferably including from 15 to 25 at. % tantalum with 20 at. % being preferred. The most preferred compositions are Al50Ti50, Al47.5Ti47.5Zr5 or Al80 Ta20. The adhesion layer is deposited onto the substrate. The substrate can be glass or a metal such as NiP-plated AlMg. The preferred embodiment of media according to the invention is for perpendicular recording and includes a magnetically soft underlayer deposited above the adhesion layer.
Abstract:
The exemplary embodiment of the present invention provides a storage buffer management scheme for I/O store buffers. Specifically, the storage buffer management system as described within the exemplary embodiment of the present invention is configured to comprise storage buffers that have the capability to efficiently support 128 byte or 256 byte I/O data transmission lines. The presently implemented storage buffer management scheme enables for a limited number of store buffers to be associated with a fixed number of storage state machines (i.e., queue positions) and thereafter the allowing for the matched pairs to be allocated in order to achieve maximum store throughput for varying combinations of store sizes of 128 and 256 bytes.
Abstract:
The exemplary embodiment of the present invention provides a storage buffer management scheme for I/O store buffers. Specifically, the storage buffer management system as described within the exemplary embodiment of the present invention is configured to comprise storage buffers that have the capability to efficiently support 128 byte or 256 byte I/O data transmission lines. The presently implemented storage buffer management scheme enables for a limited number of store buffers to be associated with a fixed number of storage state machines (i.e., queue positions) and thereafter the allowing for the matched pairs to be allocated in order to achieve maximum store throughput for varying combinations of store sizes of 128 and 256 bytes.