mhurhangee/patent-ind-claim-en huggingface dataset:
Method for operating a computer system which has at least two processors operated in parallel, characterised in that - a first and a second processor of the computer system are identical and each have at least two processor cores, and - one processor core of the first processor and one processor core of the second processor each being operated securely, that is to say on the basis of a secure operating system (SOS) which achieves or exceeds a specified security level, and each executing at least one application program (APP1, APP2) securely, that is to say achieving the specified security level, - wherein said processor core in the first processor and said processor core in the second processor securely execute the same application program or the same application programs (APP1, APP2), - wherein the remaining processor cores of the first processor are either switched off or are likewise being operated securely, whether on the basis of said secure operating system (SOS) or of one or a plurality of other secure operating systems and under the secure execution of the same application programs and/or other application programs, - wherein at least one processor core in the second processor is being operated non-securely, that is to say on the basis of a non-secure operating system (OS) which does not achieve the specified security level and is executing at least one application program (APP3) non-securely, that is to say falling short of the specified security level. - a first and a second processor of the computer system are identical and each have at least two processor cores, and - one processor core of the first processor and one processor core of the second processor each being operated securely, that is to say on the basis of a secure operating system (SOS) which achieves or exceeds a specified security level, and each executing at least one application program (APP1, APP2) securely, that is to say achieving the specified security level, - wherein said processor core in the first processor and said processor core in the second processor securely execute the same application program or the same application programs (APP1, APP2), - wherein the remaining processor cores of the first processor are either switched off or are likewise being operated securely, whether on the basis of said secure operating system (SOS) or of one or a plurality of other secure operating systems and under the secure execution of the same application programs and/or other application programs, - wherein at least one processor core in the second processor is being operated non-securely, that is to say on the basis of a non-secure operating system (OS) which does not achieve the specified security level and is executing at least one application program (APP3) non-securely, that is to say falling short of the specified security level.
A variable voltage electronic pet training apparatus comprising: a trigger circuit producing a stimulus request; a controller in communication with said trigger circuit , said controller producing a correction pulse switch activation signal in response to receipt of said stimulus request, said controller producing power converter drive signal corresponding to a desired stimulus intensity; a power converter having an input in communication with said controller , said power converter producing an output voltage corresponding to said power converter drive signal at an output; a transformer having a primary and a secondary, said primary in communication with said power converter output; a correction pulse switch in communication with said controller , said correction pulse switch in communication with said primary, said correction pulse switch connecting said primary to a node having a voltage and producing a potential across said primary equal to a difference between said power converter output voltage and said node voltage ; and a pair of electrodes, each of said pair of electrodes being connected to said secondary, said pair of electrodes for transferring a correction stimulus to an animal, said correction stimulus having a voltage stepped from said potential across said primary, and an energy storage circuit in communication with said power converter and said transformer, characterized in that said voltage electronic pet training apparatus further comprises an energy recovery circuit in communication with said energy storage circuit and said controller. a trigger circuit producing a stimulus request; a controller in communication with said trigger circuit , said controller producing a correction pulse switch activation signal in response to receipt of said stimulus request, said controller producing power converter drive signal corresponding to a desired stimulus intensity; a power converter having an input in communication with said controller , said power converter producing an output voltage corresponding to said power converter drive signal at an output; a transformer having a primary and a secondary, said primary in communication with said power converter output; a correction pulse switch in communication with said controller , said correction pulse switch in communication with said primary, said correction pulse switch connecting said primary to a node having a voltage and producing a potential across said primary equal to a difference between said power converter output voltage and said node voltage ; and a pair of electrodes, each of said pair of electrodes being connected to said secondary, said pair of electrodes for transferring a correction stimulus to an animal, said correction stimulus having a voltage stepped from said potential across said primary, and an energy storage circuit in communication with said power converter and said transformer, characterized in that said voltage electronic pet training apparatus further comprises an energy recovery circuit in communication with said energy storage circuit and said controller.
A header tank for a heat exchanger for supplying a heat exchange fluid to a core unit in which a plurality of tubes are provided side by side, comprising: a chamber having an outlet part; an inlet part which is configured to introduce the heat exchange fluid into the chamber of the header tank ; and a plurality of ribs projecting into the chamber of the header tank , the ribs being arranged side by side in a central axis direction of the inlet part and configured to cause the heat exchange fluid to flow from the inlet part through the outlet part into the tubes , the ribs projecting more into the chamber of the header tank towards the central axis of the inlet part with increasing distance from the inlet part , characterized in that the ribs are curved and arranged in pairs on opposite inner walls of the header tank , the ribs extend from the inlet part to the outlet part in directions intersecting with a plane (A) including the central axis of the inlet part . a chamber having an outlet part; an inlet part which is configured to introduce the heat exchange fluid into the chamber of the header tank ; and a plurality of ribs projecting into the chamber of the header tank , the ribs being arranged side by side in a central axis direction of the inlet part and configured to cause the heat exchange fluid to flow from the inlet part through the outlet part into the tubes , the ribs projecting more into the chamber of the header tank towards the central axis of the inlet part with increasing distance from the inlet part , characterized in that the ribs are curved and arranged in pairs on opposite inner walls of the header tank , the ribs extend from the inlet part to the outlet part in directions intersecting with a plane (A) including the central axis of the inlet part .
Method for managing the communication on a local area network between a first equipment (Gateway, 1) and a second equipment (PC, 3), said equipments being capable of communicating on the local area network via a first communication link, called the main link (IP/ETH), and a second communication link, called the secondary link (LoWPAN), the energy consumption of which is lower than that of the first communication link, said equipment characterized in that it has the following steps on the gateway of the local area network: - establishment of the validity of a criterion relating to the data traffic on at least one link (IP/ETH, E11, LOWPAN); - depending on the validity of the criterion, management of the activation of at least one link (IP/ETH, LOWPAN) and of the deactivation of the other link; - management of the communication of the second equipment with a third equipment of the local area network, by using the activated link. - establishment of the validity of a criterion relating to the data traffic on at least one link (IP/ETH, E11, LOWPAN); - depending on the validity of the criterion, management of the activation of at least one link (IP/ETH, LOWPAN) and of the deactivation of the other link; - management of the communication of the second equipment with a third equipment of the local area network, by using the activated link.
A container , comprising: a sidewall having a substantially circular cross-section and a container height and including: a circular top ; a cylindrical upper portion having an upper height , a continuously concave curved intermediate portion extending downward from the upper portion ; and a cylindrical lower portion having a lower height and extending downward from the intermediate portion ; a bottom closing the cylindrical lower portion ; wherein the container is metallic, characterised in that the upper height and the lower height combined are in a range of from about 15% to about 35% of the container height , and in that the cylindrical upper portion defines the circular top . a sidewall having a substantially circular cross-section and a container height and including: a circular top ; a cylindrical upper portion having an upper height , a continuously concave curved intermediate portion extending downward from the upper portion ; and a cylindrical lower portion having a lower height and a circular top ; a cylindrical upper portion having an upper height , a continuously concave curved intermediate portion extending downward from the upper portion ; and a cylindrical lower portion having a lower height and extending downward from the intermediate portion ; a bottom closing the cylindrical lower portion ; wherein the container is metallic, characterised in that the upper height and the lower height combined are in a range of from about 15% to about 35% of the container height , and in that the cylindrical upper portion defines the circular top .
A method performed by a network node for communicating system information to one or more wireless devices , the method comprising: - transmitting a System Information Block Type1, SIB1, message that includes at least one other SIB than SIB1 as an extension, wherein said at least one other SIB includes at least one of SIB2 and SIB13, and characterized in that the method comprises: - transmitting the at least one other SIB in a subsequent separate System Information message if the one or more wireless devices include a wireless device that is not capable of reading the extension in the SIB1 message, wherein the at least one other SIB is transmitted within the subsequent System Information message as a legacy SIB. - transmitting a System Information Block Type1, SIB1, message that includes at least one other SIB than SIB1 as an extension, wherein said at least one other SIB includes at least one of SIB2 and SIB13, and - transmitting the at least one other SIB in a subsequent separate System Information message if the one or more wireless devices include a wireless device that is not capable of reading the extension in the SIB1 message,
A method for a user equipment, UE, to transmit acknowledgement information together with data information to a base station during a transmission time interval, TTI, the acknowledgement information initially having a first set of acknowledgement information bits, AIBs, the method comprising the steps of: determining a number of nominal resources for transmission of the first set of AIBs; comparing the number of nominal resources for the transmission of the first set of AIBs to a number of resources available to the UE for transmission of the acknowledgement information; transmitting the first set of AIBs if the number of nominal resources is less than or equal to the number of available resources; selecting a second set of AIBs from the first set of AIBs and performing one or more bundling operations over respective one or more distinct subsets of AIBs in the second set of AIBs to obtain a third set of AIBs if the number of nominal resources is greater than the number of available resources, wherein at least one of the one or more bundling operations generates a smaller number of AIBs than a number of AIBs in the respective distinct subset of AIBs; transmitting the third set of AIBs and a fourth set of AIBs, wherein the fourth set of AIBs is obtained from AIBs that belong in the first set but not in the second set. determining a number of nominal resources for transmission of the first set of AIBs; comparing the number of nominal resources for the transmission of the first set of AIBs to a number of resources available to the UE for transmission of the acknowledgement information; transmitting the first set of AIBs if the number of nominal resources is less than or equal to the number of available resources; selecting a second set of AIBs from the first set of AIBs and performing one or more bundling operations over respective one or more distinct subsets of AIBs in the second set of AIBs to obtain a third set of AIBs if the number of nominal resources is greater than the number of available resources, wherein at least one of the one or more bundling operations generates a smaller number of AIBs than a number of AIBs in the respective distinct subset of AIBs; transmitting the third set of AIBs and a fourth set of AIBs, wherein the fourth set of AIBs is obtained from AIBs that belong in the first set but not in the second set.
A method for inspecting a volume exposed to charged particles , comprising: measuring positions and directions of incident charged particles that enter the inspection volume and measuring positions and directions of outgoing charged particles exiting the inspection volume, or the absence of charged particles that have stopped in the inspection volume ; analyzing behaviors of the charged particles caused by interactions with materials within the inspection volume based on the measured positions and directions of the incident charged particles and outgoing charged particles to determine an angular deflection of each of the charged particles ; characterized by measuring energy loss of charged particles that enter and penetrate the inspection volume or are stopped inside the inspection volume without penetrating through the inspection volume ; based on the measured energy loss, determining a spatial distribution of the charged particles that enter and penetrate the inspection volume or are stopped inside the inspection volume without penetrating through the inspection volume ; and combining measurements of the energy loss of charged particles with the angular deflection of the charged particles to reconstruct a three-dimensional spatial distribution of one or more materials in the inspection volume . measuring positions and directions of incident charged particles that enter the inspection volume and measuring positions and directions of outgoing charged particles exiting the inspection volume, or the absence of charged particles that have stopped in the inspection volume ; analyzing behaviors of the charged particles caused by interactions with materials within the inspection volume based on the measured positions and directions of the incident charged particles and outgoing charged particles to determine an angular deflection of each of the charged particles ; characterized by measuring energy loss of charged particles that enter and penetrate the inspection volume or are stopped inside the inspection volume without penetrating through the inspection volume ; based on the measured energy loss, determining a spatial distribution of the charged particles that enter and penetrate the inspection volume or are stopped inside the inspection volume without penetrating through the inspection volume ; and combining measurements of the energy loss of charged particles with the angular deflection of the charged particles to reconstruct a three-dimensional spatial distribution of one or more materials in the inspection volume .
Method for manufacturing a bladder accumulator , which separates two media chambers from one another in an accumulator housing by means of a bladder body , characterised by at least the following manufacturing steps: - a plastic tube is extruded over the bladder body , - the plastic tube with the integral bladder body is moulded in a moulding tool corresponding to a pre-definable plastic liner , and - the plastic liner is wound from the outside with at least one plastic fibre to create the accumulator housing . - a plastic tube is extruded over the bladder body , - the plastic tube with the integral bladder body is moulded in a moulding tool corresponding to a pre-definable plastic liner , and - the plastic liner is wound from the outside with at least one plastic fibre to create the accumulator housing .
Method of determining an alignment error of an antenna , wherein the antenna is installed at a vehicle and in cooperation with a detection device, wherein the detection device is configured to determine a plurality of detections, wherein determining the plurality of detections comprises emitting a first portion of electromagnetic radiation through the antenna , receiving a second portion of electromagnetic radiation through the antenna , and evaluating the second portion of electromagnetic radiation in dependence of the first portion of electromagnetic radiation in order to localize areas of reflection of the first portion of electromagnetic radiation in the vicinity of the antenna , wherein the method comprises: determining a first detection and at least a second detection of the plurality of detections by using the detection device, and determining the alignment error by means of a joint evaluation of the first detection and the second detection , wherein the joint evaluation comprises evaluating a first algebraic expression (A', A") or a second algebraic expression (B', B"), wherein the first algebraic expression (A', A") is dependent from an angular velocity component ( ω yaw ) of the vehicle , and wherein the first algebraic expression (A', A") is not dependent from a linear velocity component v x host representing the velocity of the vehicle in a heading direction of the vehicle , wherein the second algebraic expression (B', B") is dependent from a linear velocity component representing the velocity of the vehicle in a heading direction of the vehicle , wherein the second algebraic expression (B', B") is not dependent from an angular velocity component ( ω yaw ) of the vehicle , characterized in that determining the alignment error comprises selecting one of the first algebraic expression (A', A") and the second algebraic expression (B', B") for the joint evaluation, wherein the selection depends on the velocity of the vehicle . determining a first detection and at least a second detection of the plurality of detections by using the detection device, and determining the alignment error by means of a joint evaluation of the first detection and the second detection ,
A photographic lens system (L) comprising a plurality of photographing lenses (L1-L6) arranged positioned from an object side (O) to an image side (I), the arrangement of the photographing lenses comprising: a first lens (L1) closest to the object side having a positive refractive power and a convex object-side surface (S2); a second lens (L2) having a positive refractive power; a third lens (L3) having a negative refractive power; a fourth lens (L4) having a convex image-side surface (S9); a fifth lens (L5) having an object-side surface (S10) and an image-side surface (S11) that are shaped concave in a region around an optical axis of the photographing lenses; and a sixth lens (L6) furthest from the object side (O) having an image-side surface (S13) that is concave in a region around the optical axis of the photographing lenses, wherein the first lens to sixth lens (L1-L6) are sequentially arranged in a direction from the object side (O) to the image side (I); wherein an aperture stop (ST) is disposed at a position between the object-side surface (S2) of the first lens (L1) and the third lens (L3); wherein the arrangement of photographing lenses satisfies the following formula: 0 < R 12 / R 10 < 1 wherein R10 denotes a radius of curvature of the image-side surface (S11) of the fifth lens (L5), and R12 denotes a radius of curvature of the image-side surface (S13) of the sixth lens (L6); and wherein the arrangement of photographing lenses satisfies the following formula: 0 < f 3 / f 5 < 1 wherein f3 denotes a focal length of the third lens (L3), and f5 denotes a focal length of the fifth lens (L5). a first lens (L1) closest to the object side having a positive refractive power and a convex object-side surface (S2); a second lens (L2) having a positive refractive power; a third lens (L3) having a negative refractive power; a fourth lens (L4) having a convex image-side surface (S9); a fifth lens (L5) having an object-side surface (S10) and an image-side surface (S11) that are shaped concave in a region around an optical axis of the photographing lenses; and a sixth lens (L6) furthest from the object side (O) having an image-side surface (S13) that is concave in a region around the optical axis of the photographing lenses, wherein the first lens to sixth lens (L1-L6) are sequentially arranged in a direction from the object side (O) to the image side (I); wherein an aperture stop (ST) is disposed at a position between the object-side surface (S2) of the first lens (L1) and the third lens (L3); wherein the arrangement of photographing lenses satisfies the following formula: 0 < R 12 / R 10 < 1 wherein R10 denotes a radius of curvature of the image-side surface (S11) of the fifth lens (L5), and R12 denotes a radius of curvature of the image-side surface (S13) of the sixth lens (L6); and wherein the arrangement of photographing lenses satisfies the following formula: 0 < f 3 / f 5 < 1 wherein f3 denotes a focal length of the third lens (L3), and f5 denotes a focal length of the fifth lens (L5).
A respiratory interface device comprising: a faceplate having a peripheral end , wherein the peripheral end includes a formable material which is an addable material, and wherein a portion of the peripheral end is a customized contoured end ; and a cushion structured to be coupled to the faceplate; wherein the faceplate includes a shaped member and a shaped member coupling device , wherein the shaped member coupling device is structured to couple the shaped member to the faceplate, wherein the shaped member coupling device includes a faceplate component and a shaped member component , the shaped member including a body including a proximal end and a distal end shaped to create the customized contoured end; the shaped member coupling device shaped member component disposed at the shaped member including a body proximal end; and the shaped member coupling device faceplate component disposed on the faceplate, characterized in that the distal end includes a coupling assembly adapted to couple the cushion to the faceplate such that the cushion conforms to the faceplate customized contoured end, wherein the cushion is directly coupled to customized contoured end. a faceplate having a peripheral end , wherein the peripheral end includes a formable material which is an addable material, and wherein a portion of the peripheral end is a customized contoured end ; and a cushion structured to be coupled to the faceplate; wherein the faceplate includes a shaped member and a shaped member coupling device , wherein the shaped member coupling device is structured to couple the shaped member to the faceplate,