Abstract: A dispenser includes a housing having an interior volume configured for receipt of a removable liquid reservoir. A mounting body is disposed within the housing. The mounting body defines a passage extending along a vertical direction between an inlet and an outlet. The passage is configured for receipt of a spout of the removable liquid reservoir at the inlet of the passage. A latch is coupled to the mounting body at the passage. The latch is configured for selectively engaging the spout of the removable liquid reservoir within the passage in order to block removal of the spout of the removable liquid reservoir from the passage.

Abstract: A domestic cooking appliance includes: a main housing; a cooking compartment; a gas burner that provides heat to the cooking compartment; a cooling air passageway located between the cooking compartment and a rear wall of the main housing, the cooling air passageway being separated from the cooking compartment by a rear wall of the cooking compartment; and a gas flue. The gas flue has an exhaust gas inlet open to the cooking chamber, the exhaust inlet being located in a lower panel of the gas flue, a cooling air inlet open to the cooling air passageway, an outlet located above the exhaust gas inlet, above the cooling air inlet, and above an uppermost portion of the cooking compartment, and an upper deflector located above the outlet and angled relative to vertical at a non-zero first angle such that the upper deflector extends over at least a portion of the outlet.

Abstract: Electromagnetically-operated coupling device for selectively connecting and disconnecting a first rotating member and a second rotating member in a driveline of a vehicle is disclosed, wherein the first and the second rotating members are coaxial with each other and rotatable about a same axis of rotation. The coupling device comprises: an engagement sleeve provided with a control disk made of a ferromagnetic material, the engagement sleeve being axially slidable between an engaged position and a disengaged position; and a control system for controlling the sliding movement of the engagement sleeve between said engaged and disengaged positions. The control system comprises a pair of magnetic coils which are placed on opposite sides of the control disk, coaxially therewith, and are arranged to be selectively activated by an electric current to generate a magnetic force acting on the control disk to axially move the control disk, and therefore also the engagement sleeve, in either directions.

Abstract: The present invention discloses a method for managing priority-arbitrated access to a set of one or more computational engines of a physical computing device. The method includes providing a multiplexer module and a network bus in the physical computing device, wherein the multiplexer module is connected to the network bus. The method further includes receiving, by the multiplexer module, a first data processing request from a driver and inferring, by the multiplexer module, a first priority class from the first data processing request according to at least one property of the first data processing request. The method further includes manipulating, by the multiplexer module, a priority according to which the physical computing device handles data associated with the first data processing request in relation to data associated with other data processing requests, wherein the priority is determined by the first priority class.

Abstract: A key identifier that identifies a cryptographic key is transmitted to a cryptographic coprocessor. A first set of attributes is received from the cryptographic coprocessor. The first set of attributes and a second set of attributes are serialized into a first sequence of attributes. The first sequence of attributes are stored to an attribute frame. One or more attributes in the second set of attributes are associated with the cryptographic key and originate from a key attribute storage of the key management system. The second set of attributes is different from the first set of attributes. The first sequence of attributes is transmitted to the cryptographic coprocessor. A first message authentication code (MAC) calculated from the first sequence of attributes is received from the cryptographic coprocessor. The attribute frame is verified by comparing the first MAC, or a value derived from the first MAC, to a reference value.

Abstract: A key identifier that identifies a cryptographic key is transmitted to a cryptographic coprocessor. A first set of attributes is received from the cryptographic coprocessor. The first set of attributes and a second set of attributes are serialized into a first sequence of attributes. The first sequence of attributes are stored to an attribute frame. One or more attributes in the second set of attributes are associated with the cryptographic key and originate from a key attribute storage of the key management system. The second set of attributes is different from the first set of attributes. The first sequence of attributes is transmitted to the cryptographic coprocessor. A first message authentication code (MAC) calculated from the first sequence of attributes is received from the cryptographic coprocessor. The attribute frame is verified by comparing the first MAC, or a value derived from the first MAC, to a reference value.

Abstract: The present invention discloses a method for managing priority-arbitrated access to a set of one or more computational engines of a physical computing device. The method includes providing a multiplexer module and a network bus in the physical computing device, wherein the multiplexer module is connected to the network bus. The method further includes receiving, by the multiplexer module, a first data processing request from a driver and inferring, by the multiplexer module, a first priority class from the first data processing request according to at least one property of the first data processing request. The method further includes manipulating, by the multiplexer module, a priority according to which the physical computing device handles data associated with the first data processing request in relation to data associated with other data processing requests, wherein the priority is determined by the first priority class.

Abstract: A domestic cooking appliance includes: a main housing; a cooking compartment; a gas burner that provides heat to the cooking compartment; a cooling air passageway located between the cooking compartment and a rear wall of the main housing, the cooling air passageway being separated from the cooking compartment by a rear wall of the cooking compartment; and a gas flue. The gas flue has an exhaust gas inlet open to the cooking chamber, the exhaust inlet being located in a lower panel of the gas flue, a cooling air inlet open to the cooling air passageway, an outlet located above the exhaust gas inlet, above the cooling air inlet, and above an uppermost portion of the cooking compartment, and an upper deflector located above the outlet and angled relative to vertical at a non-zero first angle such that the upper deflector extends over at least a portion of the outlet.

Abstract: A method including: receiving, via a processor, established upper bounds for dynamic structures in a multi-tenant system; creating, via the processor, arrays comprising related memory-management unit (MMU) mappings to be placed together; and placing the dynamic structures within the arrays, the placing comprising for each array: skipping an element of the array based on determining that placing a dynamic structure in that element would cause the array to become overcommitted and result in a layout where accessing all elements would impose a translation look aside buffer (TLB) replacement action; and scanning for an array-start entry by placing the start of a first element at an address from which an entire array can be placed without TLB contention, and accessing, via the processors, all non-skipped elements without incurring TLB replacements.

Abstract: A method including: receiving, via a processor, established upper bounds for dynamic structures in a multi-tenant system; creating, via the processor, arrays comprising related memory-management unit (MMU) mappings to be placed together; and placing the dynamic structures within the arrays, the placing comprising for each array: skipping an element of the array based on determining that placing a dynamic structure in that element would cause the array to become overcommitted and result in a layout where accessing all elements would impose a translation look aside buffer (TLB) replacement action; and scanning for an array-start entry by placing the start of a first element at an address from which an entire array can be placed without TLB contention, and accessing, via the processors, all non-skipped elements without incurring TLB replacements.

Abstract: The present disclosure relates to a computer-implemented method for controlling operation of multiple computational engines of a physical computing device. The computer-implemented method includes providing a multiplexer module in the device, the multiplexer module including a first and second memory region. The multiplexer module may receive from a first driver at the multiplexer module a data processing request to be processed by a first set of one or more computational engines of the computational engines. Subsequent to receiving the data processing request, the multiplexer module may assign a request sub-region of the first region and a response sub-region of the second region to the first driver. Data indicative of the request sub-region and the response sub-region may be submitted to the first driver. Results of processing the request may be received at the response sub-region.

Abstract: Electromagnetically-operated coupling device for selectively connecting and disconnecting a first rotating member and a second rotating member in a driveline of a vehicle is disclosed, wherein the first and the second rotating members are coaxial with each other and rotatable about a same axis of rotation. The coupling device comprises: an engagement sleeve provided with a control disk made of a ferromagnetic material, the engagement sleeve being axially slidable between an engaged position and a disengaged position; and a control system for controlling the sliding movement of the engagement sleeve between said engaged and disengaged positions. The control system comprises a pair of magnetic coils which are placed on opposite sides of the control disk, coaxially therewith, and are arranged to be selectively activated by an electric current to generate a magnetic force acting on the control disk to axially move the control disk, and therefore also the engagement sleeve, in either directions.

Abstract: The present disclosure relates to a computer-implemented method for controlling operation of multiple computational engines of a physical computing device. The computer-implemented method includes providing a multiplexer module in the device, the multiplexer module including a first and second memory region. The multiplexer module may receive from a first driver at the multiplexer module a data processing request to be processed by a first set of one or more computational engines of the computational engines. Subsequent to receiving the data processing request, the multiplexer module may assign a request sub-region of the first region and a response sub-region of the second region to the first driver. Data indicative of the request sub-region and the response sub-region may be submitted to the first driver. Results of processing the request may be received at the response sub-region.

Abstract: Graph data of a DAG is received. The data describes a module to be started by way of nodes connected by edges, wherein some nodes are submodule nodes that correspond to submodules of said module. Submodule nodes are connected via edge(s) that reflect a data dependency between the corresponding submodules. Each of said submodules is a hardware module or a software submodule, capable of producing and/or consuming data that can be consumed and/or produced, by other submodule(s) of said module, based on the DAG. Asynchronous execution is started of two of said submodules, respectively corresponding to two submodule nodes located in independent branches of the DAG. A third submodule node(s) is determined that is a descendant of each of said two submodule nodes, according to an outcome of the execution of the corresponding two submodules. Execution is started of a third submodule that corresponds to the determined third submodule node.

Abstract: A fuel cell tube comprises a substrate having a tube interconnect region and a fuel cell region, a plurality of fuel cells disposed on the fuel cell region, and a plurality of primary interconnects formed from an electrically conducting primary interconnect material forming electrically conducting paths between adjacent fuel cells to thereby electrically connect the fuel cells in series. The primary interconnect material extends from the fuel cell region into the tube interconnect region forming an electrically conducting path between the tube interconnect region and the plurality of fuel cells.

Abstract: A computer-implemented method, a computer system, and a computer program product are provided for enforcing multi-level security (MLS) on a message transmitted over a network that may be insecure. The method includes the processor obtaining a request from a source to send a message to a target, where the request includes the message and a context indicating a requested security level for the message. The processor encrypts the message based on ascertaining the message received in the request is a plaintext. The processor authenticates the encrypted message based on ascertaining the encrypted message is a ciphertext, where the target is enabled to trace the authenticated ciphertext back to the source. The processor transmits the authenticated encrypted message to the target across the network.

Abstract: A computer-implemented method, a computer system, and a computer program product are provided for enforcing multi-level security (MLS) on a message transmitted over a network that may be insecure. The method includes the processor obtaining a request from a source to send a message to a target, where the request includes the message and a context indicating a requested security level for the message. The processor encrypts the message based on ascertaining the message received in the request is a plaintext. The processor authenticates the encrypted message based on ascertaining the encrypted message is a ciphertext, where the target is enabled to trace the authenticated ciphertext back to the source. The processor transmits the authenticated encrypted message to the target across the network.

Abstract: A home cooking appliance includes a housing having a cooktop surface on a top of the housing, a burner on the cooktop surface, a cooking grate disposed above the burner, a cooking compartment in the housing, an oven flue that exhausts air from the cooking compartment, and a flue gas air diverter configured to divert the air exiting from the oven flue under a portion of the cooking grate.

Abstract: Various embodiments of the present disclosure provide a fuel cell tube including one or more laterally segmented fuel cells each including multiple fuel cell portions that are electrically isolated from one another. When assembled into a fuel cell stack, tube interconnects electrically connect adjacent fuel cell tubes via their respective laterally segmented fuel cells. The use of laterally segmented fuel cells to effect the fuel cell tube-to-fuel cell tube electrical connection enables more accurate testing of the electrical connection between adjacent fuel cell tubes.

Abstract: Various embodiments of the present disclosure provide a fuel cell tube including one or more laterally segmented fuel cells each including multiple fuel cell portions that are electrically isolated from one another. When assembled into a fuel cell stack, secondary interconnects electrically connect adjacent fuel cell tubes via their respective laterally segmented fuel cells. The use of laterally segmented fuel cells to effect the fuel cell tube-to-fuel cell tube electrical connection enables more accurate testing of the electrical connection between adjacent fuel cell tubes.