Abstract: The present invention relates to compositions and methods for adding bitter flavor to beer and other beverages. The present invention concerns the use of compositions comprising compounds that are present in hop extracts or in beer and result from natural processes that occur during processing or storage (aging) of hops or beer. The present invention further concerns the use of suitable amounts of a composition comprising humulinones for adding bitter flavor to beer and other beverages.

Abstract: The present invention relates to a process for producing a beer tittering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids and to the novel enzyme catalysts which may be employed in such a process.

Abstract: The present invention relates to compositions and methods for adding bitter flavor to beer and other beverages. The present invention concerns the use of compositions comprising compounds that are present in hop extracts or in beer and result from natural processes that occur during processing or storage (aging) of hops or beer. The present invention further concerns the use of suitable amounts of a composition comprising humulinones for adding bitter flavor to beer and other beverages.

Abstract: The present invention relates to a process for producing a beer bittering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids.

Abstract: The present invention provides engineered ketoreductase enzymes having improved properties as compared to a naturally occurring wild-type ketoreductase enzyme, as well as polynucleotides encoding the engineered ketoreductase enzymes, host cells capable of expressing the engineered ketoreductase enzymes, and methods of using the engineered ketoreductase enzymes to synthesize a chiral alcohol. The present invention further provides methods of using the engineered enzymes.

Abstract: The present invention relates to a process for producing a beer littering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids.

Abstract: The present invention relates to a process for producing a beer tittering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids and to the novel enzyme catalysts which may be employed in such a process.

Abstract: The present invention relates to a process for producing a beer littering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids.

Abstract: The present invention relates to a process for producing a beer bittering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids.

Abstract: The present invention relates to a process for producing a beer bite ring agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids.

Abstract: The present invention relates to a process for producing a beer bittering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids and to the novel enzyme catalysts which may be employed in such a process.

Abstract: The present invention relates to a process for producing a beer bittering agent via enzyme catalyzed bioconversion of hop-derived isoalpha acids to dihydro-(rho)-isoalpha acids.

Abstract: The present invention relates to compositions and methods for adding bitter flavor to beer and other beverages. The present invention concerns the use of compositions comprising compounds that are present in hop extracts or in beer and result from natural processes that occur during processing or storage (aging) of hops or beer. The present invention further concerns the use of suitable amounts of a composition comprising humulinones for adding bitter flavor to beer and other beverages.

Abstract: A method for executing an executable file. The method includes executing instructions in the executable file by a first process, receiving a write request from a second process to write to the executable file, generating an anonymous file from the executable file in response to the write request, executing the anonymous file by the first process, and accessing the executable file by the second process.

Abstract: A method for executing an executable file. The method includes executing instructions in the executable file by a first process, receiving a write request from a second process to write to the executable file, generating an anonymous file from the executable file in response to the write request, executing the anonymous file by the first process, and accessing the executable file by the second process.

Abstract: In general, in one aspect, the invention relates to a system that includes memory and a prediction subsystem. The memory includes a first memgroup and a second memgroup, wherein the first memgroup comprises a first physical page and a second physical page, wherein the first physical page is a first subtype, and wherein the second physical page is a second subtype. The prediction subsystem is configured to obtain a status value indicating an amount of freed physical pages on the memory, store the status value in a sample buffer comprising a plurality of previous status values, determine, using the status value and the plurality of previous status values, a deficiency subtype state for the first subtype based on an anticipated need for the first subtype on the memory, and instruct, based on the determination, an allocation subsystem to coalesce the second physical page to the first subtype.

Abstract: A system that includes a memory, a tilelet data structure entry, a first tile freelist, and an allocation subsystem. The memory includes a first tilelet on a first tile. The tilelet data structure entry includes a first tilelet preferred pagesize assigned to a first value. The first tile freelist for the first tile includes a first tile in-bounds page freelist, and a first tile out-of-bounds page freelist. The allocation subsystem is configured to detect that a first physical page is freed, store, in the first tile in-bounds page freelist, a first page data structure, detect that a second physical page is freed, store, in the first tile out-of-bounds page freelist, a second page data structure, and coalesce the memory using the second page and at least one of the physical pages associated with the plurality of out-of-bounds page data structures into a third physical page.

Abstract: A system including memory and a resource controller. The memory includes a first memgroup and a second memgroup, wherein the first memgroup comprises a first physical page mapped to a virtual page, and wherein the second memgroup comprises a second physical page. The resource controller is configured to receive a request to stop the first memgroup, instruct a memory power management subsystem to mark the first memgroup as stopped in response to receiving the request to stop the first memgroup, wherein no free pages are allocated from the first memgroup after the first memgroup is marked as stopped, remap the virtual page to the second physical page in response to the marking the first memgroup as stopped, and reduce power to the first memgroup in response to a determination that the first physical page is not mapped to the virtual page.

Abstract: A method for executing an executable file. The method includes executing instructions in the executable file by a first process, receiving a write request from a second process to write to the executable file, generating an anonymous file from the executable file in response to the write request, executing the anonymous file by the first process, and accessing the executable file by the second process.

Abstract: A system including memory and a resource controller. The memory includes a first memgroup and a second memgroup, wherein the first memgroup comprises a first physical page mapped to a virtual page, and wherein the second memgroup comprises a second physical page. The resource controller is configured to receive a request to stop the first memgroup, instruct a memory power management subsystem to mark the first memgroup as stopped in response to receiving the request to stop the first memgroup, wherein no free pages are allocated from the first memgroup after the first memgroup is marked as stopped, remap the virtual page to the second physical page in response to the marking the first memgroup as stopped, and reduce power to the first memgroup in response to a determination that the first physical page is not mapped to the virtual page.