mhurhangee/patent-ind-claim-en huggingface dataset:
A reservoir configured for use in a thermal system of a vehicle, the reservoir comprising: a first section; and a second section that is joined to the first section at a reservoir interface thereby forming a reservoir that is configured to allow at least one of storage or flow of a liquid medium, wherein the first section includes multiple integrated channels that provide multiple pathways for the flow of the liquid medium, the multiple integrated channels formed in a body of the first section of the reservoir; wherein the first section further comprises: multiple component interfaces configured to allow attachment of multiple components to the reservoir, wherein the integrated channels provide the pathways for the flow of the liquid medium to or from the component interfaces to allow the components to operate cooperatively with the reservoir and the thermal system; and a hose interface configured to allow coupling of a hose to the reservoir to transport the liquid medium to or to receive the liquid medium from another component that is located remotely from the reservoir and coupled to the reservoir by the hose. a first section; and a second section that is joined to the first section at a reservoir interface thereby forming a reservoir that is configured to allow at least one of storage or flow of a liquid medium, wherein the first section includes multiple integrated channels that provide multiple pathways for the flow of the liquid medium, the multiple integrated channels formed in a body of the first section of the reservoir; wherein the first section further comprises: multiple component interfaces configured to allow attachment of multiple components to the reservoir, wherein the integrated channels provide the pathways for the flow of the liquid medium to or from the component interfaces to allow the components to operate cooperatively with the reservoir and the thermal system; and a hose interface configured to allow coupling of a hose to the reservoir to transport the liquid medium to or to receive the liquid medium from another component that is located remotely from the reservoir and coupled to the reservoir by the hose. multiple component interfaces configured to allow attachment of multiple components to the reservoir, wherein the integrated channels provide the pathways for the flow of the liquid medium to or from the component interfaces to allow the components to operate cooperatively with the reservoir and the thermal system; and a hose interface configured to allow coupling of a hose to the reservoir to transport the liquid medium to or to receive the liquid medium from another component that is located remotely from the reservoir and coupled to the reservoir by the hose.
A device, comprising: a first portion and a second portion; a pair of self-regulating hinge assemblies (106 , 106 ) rotatably securing hinge ends of the first and second portions around a first hinge axis (116 ) associated with the first portion and a second hinge axis (116 ) associated with the second portion so that an extent of rotation around the first hinge axis (116 ) corresponds to an extent of rotation around the second hinge axis (116 ); a first display (126 ) positioned on the first portion and wrapped around the hinge end between the pair of hinge assemblies; and, a second display (126 ) positioned on the second portion and wrapped around the hinge end between the pair of self-regulating hinge assemblies; wherein the first portion includes opposing first and second major surfaces , the second portion includes opposing first and second major surfaces , and the displays are positioned on the first surfaces , respectively and wrap around the hinge ends between the self-regulating hinge assemblies (106 , 106 ) onto the second surfaces , respectively. a first portion and a second portion; a pair of self-regulating hinge assemblies (106 , 106 ) rotatably securing hinge ends of the first and second portions around a first hinge axis (116 ) associated with the first portion and a second hinge axis (116 ) associated with the second portion so that an extent of rotation around the first hinge axis (116 ) corresponds to an extent of rotation around the second hinge axis (116 ); a first display (126 ) positioned on the first portion and wrapped around the hinge end between the pair of hinge assemblies; and, a second display (126 ) positioned on the second portion and wrapped around the hinge end between the pair of self-regulating hinge assemblies; wherein the first portion includes opposing first and second major surfaces , the second portion includes opposing first and second major surfaces , and the displays are positioned on the first surfaces , respectively and wrap around the hinge ends between the self-regulating hinge assemblies (106 , 106 ) onto the second surfaces , respectively.
A phenolic resin composition for friction materials comprising: a high-ortho novolac phenolic resin; a novolac resorcinol resin; and hexamethylenetetramine. a high-ortho novolac phenolic resin; a novolac resorcinol resin; and hexamethylenetetramine.
A video decoding method, comprising: determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block and a size of the current block, for thereby producing a filtered intra prediction value, wherein the intra prediction mode of the current block is determined based on a Most Probable Mode (MPM), wherein when the intra prediction mode of the current block is a DC mode, the determining whether to apply a second filter to the intra prediction value of the current block is such that a 3-tap filter is applied only to an upper-leftmost pixel of the current block among the prediction pixels of the current block and a 2-tap filter is applied only to remaining uppermost pixels and leftmost pixels except the upper-leftmost pixel among the prediction pixels of the current block. determining whether to apply a first filter to a reference pixel value of a current block based on an intra prediction mode of the current block and a size of the current block; when it is determined to apply the first filter to the reference pixel value of the current block, deriving an intra prediction value of the current block using the filtered reference pixel value and the intra prediction mode of the current block; and determining whether to apply a second filter to the intra prediction value of the current block based on an intra prediction mode of the current block and a size of the current block, for thereby producing a filtered intra prediction value, wherein the intra prediction mode of the current block is determined based on a Most Probable Mode (MPM), wherein when the intra prediction mode of the current block is a DC mode, the determining whether to apply a second filter to the intra prediction value of the current block is such that a 3-tap filter is applied only to an upper-leftmost pixel of the current block among the prediction pixels of the current block and a 2-tap filter is applied only to remaining uppermost pixels and leftmost pixels except the upper-leftmost pixel among the prediction pixels of the current block.
An acoustic matching layer comprising: a base material having a plate shape, and including a joining surface and a vibration surface which are opposite surfaces of the base material having a predetermined thickness, the joining surface being joined to an ultrasonic wave generation source , and the vibration surface being configured to emit a sound wave to gas; and portions partially provided in the vibration surface, the portions being depressed or penetrating toward the joining surface , characterized in that a film-shaped material is pasted to the depressed portions and is in contact with the gas. a base material having a plate shape, and including a joining surface and a vibration surface which are opposite surfaces of the base material having a predetermined thickness, the joining surface being joined to an ultrasonic wave generation source , and the vibration surface being configured to emit a sound wave to gas; and portions partially provided in the vibration surface, the portions being depressed or penetrating toward the joining surface , characterized in that a film-shaped material is pasted to the depressed portions and is in contact with the gas.
A method for transmitting channel information by a receiver in a communication system using beam forming, the method comprising: receiving reference signals transmitted through transmission beams of a transmitter by a first radio frequency chain using reception beams of the receiver during a first period; determining a reception beam among the reception beams of the receiver based on receive strengths of the reference signals received by the first radio frequency chain; receiving reference signals transmitted through the transmission beams by a second radio frequency chain using the determined reception beam during a second period; determining a transmission beam among the transmission beams based on receive strengths of the reference signals received by the second radio frequency chain; and obtaining channel information based on a reference signal corresponding to the determined transmission beam and the determined reception beam, and transmitting feedback information generated based on the obtained channel information to the transmitter. receiving reference signals transmitted through transmission beams of a transmitter by a first radio frequency chain using reception beams of the receiver during a first period; determining a reception beam among the reception beams of the receiver based on receive strengths of the reference signals received by the first radio frequency chain; receiving reference signals transmitted through the transmission beams by a second radio frequency chain using the determined reception beam during a second period; determining a transmission beam among the transmission beams based on receive strengths of the reference signals received by the second radio frequency chain; and obtaining channel information based on a reference signal corresponding to the determined transmission beam and the determined reception beam, and transmitting feedback information generated based on the obtained channel information to the transmitter.
A haptics device comprising: an input circuit configured to receive audio input , wherein the audio input comprises stereo audio stream; a phase determination circuit configured to determine a phase of the audio input ; a peak amplitude determination circuit configured to determine a peak amplitude of the audio input ; at least dual actuators ; and a haptics controller configured to control the at least dual actuators based on the determined phase of the audio input and based on the determined peak amplitude of the audio input ; wherein the haptics controller is further configured to position a channel of haptics control signals in time based on the determined phase of the audio input and based on the determined peak amplitude of the audio input ; wherein the haptics controller is further configured to position the channel of haptics control signals in phase based on the determined phase of the audio input and based on the determined peak amplitude of the audio input ; and wherein the haptics controller is further configured to position the channel of haptics control signals within a relation to the audio input , the relation being based on the determined phase of the audio input and based on the determined peak amplitude of the audio input . an input circuit configured to receive audio input , wherein the audio input comprises stereo audio stream; a phase determination circuit configured to determine a phase of the audio input ; a peak amplitude determination circuit configured to determine a peak amplitude of the audio input ; at least dual actuators ; and a haptics controller configured to control the at least dual actuators based on the determined phase of the audio input and based on the determined peak amplitude of the audio input ; wherein the haptics controller is further configured to position a channel of haptics control signals in time based on the determined phase of the audio input and based on the determined peak amplitude of the audio input ; wherein the haptics controller is further configured to position the channel of haptics control signals in phase based on the determined phase of the audio input and based on the determined peak amplitude of the audio input ; and wherein the haptics controller is further configured to position the channel of haptics control signals within a relation to the audio input , the relation being based on the determined phase of the audio input and based on the determined peak amplitude of the audio input .
A method of facilitating network slicing operation in a wireless communication network, comprising: receiving, at a network slice selection function in a communication network and from a serving access and mobility function in the communication network, a network slice instance request of a configured slice specific network slice selection assistance information, S-NSSAI, that is presently configured for a user device, a subscribed S-NSSAI for which the user device has subscribed, and an identity of a registration area that the user device is associated with; determining, by the network slice selection function, an allowed set of S-NSSAI and a set of core network slice instances that is available at the registration area to serve the user device corresponding to the allowed set of S-NSSAI; and transmitting, by the network slice selection function and in response to the network slice instance request, the set of core network slice instances that is mapped to the allowed set of S-NSSAI. receiving, at a network slice selection function in a communication network and from a serving access and mobility function in the communication network, a network slice instance request of a configured slice specific network slice selection assistance information, S-NSSAI, that is presently configured for a user device, a subscribed S-NSSAI for which the user device has subscribed, and an identity of a registration area that the user device is associated with; determining, by the network slice selection function, an allowed set of S-NSSAI and a set of core network slice instances that is available at the registration area to serve the user device corresponding to the allowed set of S-NSSAI; and transmitting, by the network slice selection function and in response to the network slice instance request, the set of core network slice instances that is mapped to the allowed set of S-NSSAI.
Communication system comprising: a data source configured to generate a first serial data stream , the first serial data stream comprising data to be transmitted via the communication system , a first data converter coupled to the data source and configured to receive the first serial data stream and to convert the first serial data stream into an outgoing packet-based data stream , a packet-based network , wherein the first data converter is coupled to the packet-based network and is configured to output the outgoing packet-based data stream into the packet-based network , at least two second data converters coupled to the packet-based network and configured to receive the outgoing packet-based data stream and to convert the outgoing packet-based data stream into a second serial data stream , a plurality of radios , wherein the at least two second data converters are coupled between the packet-based network and at least two different ones of the plurality of radios , wherein the second data converters are configured to provide the second serial data stream to the respective radios and wherein the radios are configured to output the second serial data stream as radio signal , and characterized by a monitor configured to monitor the state of the plurality of radios and to indicate if the monitored radios are in an operational state. a data source configured to generate a first serial data stream , the first serial data stream comprising data to be transmitted via the communication system , a first data converter coupled to the data source and configured to receive the first serial data stream and to convert the first serial data stream into an outgoing packet-based data stream , a packet-based network , wherein the first data converter is coupled to the packet-based network and is configured to output the outgoing packet-based data stream into the packet-based network , at least two second data converters coupled to the packet-based network and configured to receive the outgoing packet-based data stream and to convert the outgoing packet-based data stream into a second serial data stream , a plurality of radios , wherein the at least two second data converters are coupled between the packet-based network and at least two different ones of the plurality of radios , wherein the second data converters are configured to provide the second serial data stream to the respective radios and wherein the radios are configured to output the second serial data stream as radio signal , and characterized by a monitor configured to monitor the state of the plurality of radios and to indicate if the monitored radios are in an operational state.
A stator of an electric motor comprising: a yoke ; a plurality of teeth arranged in a circumferential direction of an inner circumference of the yoke ; a winding wire wound on each tooth of the plurality of teeth ; an insulation member disposed between each of the teeth and the winding wire , the insulation member being formed of elastic resin; and a tooth concave-convex portion formed on circumferential surfaces (A), that are slot side surfaces, and axial surfaces (B) of the teeth , that are perpendicular to an axial direction of the yoke , and wherein the tooth concave-convex portion on the circumferential surfaces (A) and the axial surfaces (B) form a plurality of convex strips at intervals in a direction of diameter of the stator, characterized in that an insulation member concave-convex portion is formed on an inner surface of the insulation member , the insulation member concave-convex portion being configured to be fitted to the tooth concave-convex portion , the insulation member is split into two split insulation members, wherein one of the split insulation members is opposed to the other one of the split insulation members, and both of the split insulation members opposed to each other surround the circumferential surfaces (A) and the axial surfaces (B) of each of the teeth . a yoke ; a plurality of teeth arranged in a circumferential direction of an inner circumference of the yoke ; a winding wire wound on each tooth of the plurality of teeth ; an insulation member disposed between each of the teeth and the winding wire , the insulation member being formed of elastic resin; and a tooth concave-convex portion formed on circumferential surfaces (A), that are slot side surfaces, and axial surfaces (B) of the teeth , that are perpendicular to an axial direction of the yoke , and wherein the tooth concave-convex portion on the circumferential surfaces (A) and the axial surfaces (B) form a plurality of convex strips at intervals in a direction of diameter of the stator, characterized in that an insulation member concave-convex portion is formed on an inner surface of the insulation member , the insulation member concave-convex portion being configured to be fitted to the tooth concave-convex portion , the insulation member is split into two split insulation members, wherein one of the split insulation members is opposed to the other one of the split insulation members, and both of the split insulation members opposed to each other surround the circumferential surfaces (A) and the axial surfaces (B) of each of the teeth .
A polypeptide comprising an O-linked glycosylation sequence, wherein the O-linked glycosylation sequence comprises a sequence selected from SEQ ID NOs: 2-14, and wherein the O-linked glycosylation sequence is covalently bound to an O-glycan.
A sensibility feedback control device comprising: a target appliance to be operated by an operator; a sensibility meter that detects biometric information x(t) relating to the operator corresponding to an output u(t) from the target appliance, and determines a comfort level y(t) of the operator based on the biometric information x(t); a first control unit that determines a second target value w(t) relating to the output u(t) based on a difference between a first target value r(t) relating to the comfort level y(t) and the comfort level y(t); a second control unit that determines a control input v c (t) to the target appliance based on a difference between the second target value w(t) and the output u(t); a weight setting unit that performs weighting corresponding to an operation level of the operator, for an operation input v h (t) to the target appliance by the operator, and for the control input v c (t); and an adder that adds the operation input v h (t) and the control input v c (t), each of which has been weighted by the weight setting unit, and inputs an obtained value to the target appliance. a target appliance to be operated by an operator; a sensibility meter that detects biometric information x(t) relating to the operator corresponding to an output u(t) from the target appliance, and determines a comfort level y(t) of the operator based on the biometric information x(t); a first control unit that determines a second target value w(t) relating to the output u(t) based on a difference between a first target value r(t) relating to the comfort level y(t) and the comfort level y(t); a second control unit that determines a control input v c (t) to the target appliance based on a difference between the second target value w(t) and the output u(t); a weight setting unit that performs weighting corresponding to an operation level of the operator, for an operation input v h (t) to the target appliance by the operator, and for the control input v c (t); and an adder that adds the operation input v h (t) and the control input v c (t), each of which has been weighted by the weight setting unit, and inputs an obtained value to the target appliance.