mhurhangee/patent-ind-claim-en huggingface dataset:
A home subscriber server, 'HSS' , for a communication network, the HSS comprising: a receiver configured to receive, from a service capability exposure function, 'SCEF' , at least one parameter set for a communication pattern together with an associated validity time wherein the validity time indicates when the at least one parameter set for the communication pattern expires; and a controller configured: to store the at least one parameter set for the communication pattern; and when the validity time expires for at least one parameter set stored in the HSS for the communication pattern, to autonomously delete the associated at least one parameter set for the communication pattern. a receiver configured to receive, from a service capability exposure function, 'SCEF' , at least one parameter set for a communication pattern together with an associated validity time wherein the validity time indicates when the at least one parameter set for the communication pattern expires; and a controller configured: to store the at least one parameter set for the communication pattern; and when the validity time expires for at least one parameter set stored in the HSS for the communication pattern, to autonomously delete the associated at least one parameter set for the communication pattern. to store the at least one parameter set for the communication pattern; and when the validity time expires for at least one parameter set stored in the HSS for the communication pattern, to autonomously delete the associated at least one parameter set for the communication pattern.
A method for manufacturing a part made of composite material comprising the following steps: - forming a fibrous texture from refractory ceramic fibers, - placing the fibrous texture in a mold cavity of an injection tooling , - injecting into the fibrous texture a slurry (BC) including at least one powder of refractory ceramic particles or particles of a refractory ceramic precursor (CR) suspended in a liquid phase, - filtering the liquid phase of the slurry and retaining the powder of refractory ceramic particles or particles of a refractory ceramic precursor inside said texture so as to obtain a fibrous preform loaded with refractory ceramic particles or particles of a refractory ceramic precursor, - densifying the fibrous texture by treatment of the refractory ceramic particles present in the fibrous texture in order to form a refractory matrix in said texture, characterized in that , after the step of placing the fibrous texture in a mold cavity of an injection tooling and before the step of injecting the slurry (BC) under pressure, the method comprises a step of pre-saturating the fibrous texture with a carrier fluid (FP) consisting in injecting into said texture a carrier fluid. - forming a fibrous texture from refractory ceramic fibers, - placing the fibrous texture in a mold cavity of an injection tooling , - injecting into the fibrous texture a slurry (BC) including at least one powder of refractory ceramic particles or particles of a refractory ceramic precursor (CR) suspended in a liquid phase, - filtering the liquid phase of the slurry and retaining the powder of refractory ceramic particles or particles of a refractory ceramic precursor inside said texture so as to obtain a fibrous preform loaded with refractory ceramic particles or particles of a refractory ceramic precursor, - densifying the fibrous texture by treatment of the refractory ceramic particles present in the fibrous texture in order to form a refractory matrix in said texture,
A method , in a receiving transceiver, for use in a cellular communications system , the method comprising: - receiving traffic from a sending transceiver in data units, wherein each of which data unit is given an identifier, and which data units are at least partially divided into segments, - sending status information in data frames or data units about properly received, partially received, or non-received data units to the sending transceiver, wherein, in the case of one or more non-received or partially received data unit or units, the status information is sent as a message comprising a first extension indicator bit (E), data (NACK, SN) regarding a non-received or partially received data unit or frame, in the form of a certain sequence number, and a second extension indicator (F, RF) bit, indicating whether the data unit or units were non-received or partially received, and indicates, in the case of one or more partially received data units, which parts of those data units that were not received, wherein said first extension indicator (E) bit indicates the absence or presence of another set comprising said first (E) and second (F, RF) extension indicator bits and said data (NACK, SN) regarding a partially or non-received unit or frame in the form of the identifier (SN) of said data unit or frame. - receiving traffic from a sending transceiver in data units, wherein each of which data unit is given an identifier, and which data units are at least partially divided into segments, - sending status information in data frames or data units about properly received, partially received, or non-received data units to the sending transceiver, wherein, in the case of one or more non-received or partially received data unit or units, the status information is sent as a message comprising a first extension indicator bit (E), data (NACK, SN) regarding a non-received or partially received data unit or frame, in the form of a certain sequence number, and a second extension indicator (F, RF) bit, indicating whether the data unit or units were non-received or partially received,
A quench protection arrangement for a superconducting magnet, the arrangement comprising: a superconducting magnet comprising a plurality of magnet sections; a plurality of varistors, wherein each of the plurality of varistors is electrically connected in parallel across a respective one of the plurality of magnet sections; and a heater arrangement electrically connected to the plurality of varistors and configured to apply heat to each of the plurality of magnet sections in response to a change in a voltage across any one or more of the plurality of varistors. a superconducting magnet comprising a plurality of magnet sections; a plurality of varistors, wherein each of the plurality of varistors is electrically connected in parallel across a respective one of the plurality of magnet sections; and a heater arrangement electrically connected to the plurality of varistors and configured to apply heat to each of the plurality of magnet sections in response to a change in a voltage across any one or more of the plurality of varistors.
An uplink resource configuration method, performed by a network device, characterized by comprising: reserving an uplink resource for user equipment, UE, as a target resource of a target cell of a random access channel less, RACH-less, handover procedure; determining validity period information of the target resource; and sending the validity period information to the user equipment; wherein the validity period information includes synchronization signal and PBCH block, SSB index associated with the target resource, a cycle of the target resource and at least one of a start time of a valid window, an end time of the valid window, a length of the valid window or configuration information of timing advance. reserving an uplink resource for user equipment, UE, as a target resource of a target cell of a random access channel less, RACH-less, handover procedure; determining validity period information of the target resource; and sending the validity period information to the user equipment; wherein the validity period information includes synchronization signal and PBCH block, SSB index associated with the target resource, a cycle of the target resource and at least one of a start time of a valid window, an end time of the valid window, a length of the valid window or configuration information of timing advance.
A method of manufacturing a strap or an antenna formed on a substrate for accommodating an integrated circuit (IC), the method comprising the steps of: forming a conductive structure on the substrate ; the conductive structure comprising an area which is initially electrically short-circuited and is configured to be turned into four antenna contacts (4a-4d) or four strap contacts (18a-18d), the respective antenna contacts (4a-4d) or strap contacts (18a-18d) to be contacted with contacts of the integrated circuit (IC); forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) by mechanically separating the conductive structure in the area which is initially electrically short-circuited and forming a cross-shaped structure into said area of the conductive structure ; stretching the substrate by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a first direction in order to widen a first gap between the respective antenna contacts (4a-4d) or strap contacts ; the first gap being formed by the mechanically separating step; and stretching the substrate by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a second direction perpendicular to the first direction in order to widen a second gap between the respective antenna contacts or strap contacts ; the second gap being formed by the mechanically separating step. forming a conductive structure on the substrate ; the conductive structure comprising an area which is initially electrically short-circuited and is configured to be turned into four antenna contacts (4a-4d) or four strap contacts (18a-18d), the respective antenna contacts (4a-4d) or strap contacts (18a-18d) to be contacted with contacts of the integrated circuit (IC); forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) by mechanically separating the conductive structure in the area which is initially electrically short-circuited and forming a cross-shaped structure into said area of the conductive structure ; stretching the substrate by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a first direction in order to widen a first gap between the respective antenna contacts (4a-4d) or strap contacts ; the first gap being formed by the mechanically separating step; and stretching the substrate by means of stretching means after forming the respective antenna contacts (4a-4d) or strap contacts (18a-18d) in a second direction perpendicular to the first direction in order to widen a second gap between the respective antenna contacts or strap contacts ; the second gap being formed by the mechanically separating step.
An apparatus for managing fluid from a tissue site, comprising: a first layer having a first end and a second end, wherein the first layer comprises a first polymeric film having a first side and a second side; a second layer having a first end and a second end, wherein the second layer comprises a second polymeric film having a first side and a second side, and wherein the first side of the second layer is adapted to be coupled to the second side of the first layer to form a sealed space between the first layer and the second layer; a third layer comprising a polymeric foam, wherein the third layer is adapted to be positioned against the first side of the first layer between the first end and the second end of the first layer; a fourth layer comprising the polymeric foam, wherein the fourth layer is adapted to be positioned against the second side of the second layer between the first end and the second end of the second layer. a first layer having a first end and a second end, wherein the first layer comprises a first polymeric film having a first side and a second side; a second layer having a first end and a second end, wherein the second layer comprises a second polymeric film having a first side and a second side, and wherein the first side of the second layer is adapted to be coupled to the second side of the first layer to form a sealed space between the first layer and the second layer; a third layer comprising a polymeric foam, wherein the third layer is adapted to be positioned against the first side of the first layer between the first end and the second end of the first layer; a fourth layer comprising the polymeric foam, wherein the fourth layer is adapted to be positioned against the second side of the second layer between the first end and the second end of the second layer.
A method for measuring the toxicity of human cerebrospinal fluid (CSF), or for determining Alzheimer's disease, or for measuring the medicinal effect of an agent for preventing and/or treating Alzheimer's disease, the method comprising administering CSF collected from an Alzheimer disease patient, or CSF collected from an Alzheimer's disease patient that has been administered the agent, into the cerebral ventricle of a rodent selected from a mouse, rat or hamster, and evaluating the cognitive function of the rodent by using a behavioral pharmacological technique. administering CSF collected from an Alzheimer disease patient, or CSF collected from an Alzheimer's disease patient that has been administered the agent, into the cerebral ventricle of a rodent selected from a mouse, rat or hamster, and evaluating the cognitive function of the rodent by using a behavioral pharmacological technique.
A 3D augmented reality display, comprising: a microdisplay for providing a virtual 3D image for display to a user, which is configured to provide a set of elemental images each having information of a different perspective of a 3D scene, characterised in that it further comprises: variable focus display optics configured to receive optical radiation from the microdisplay and configured to create a 3D lightfield from the received radiation at a location that may be varied by the variable focus optics; and an eyepiece in optical communication with the display optics configured to receive the 3D lightfield from the display optics and deliver the received radiation to an exit pupil of the augmented reality display. a microdisplay for providing a virtual 3D image for display to a user, which is configured to provide a set of elemental images each having information of a different perspective of a 3D scene, characterised in that it further comprises: variable focus display optics configured to receive optical radiation from the microdisplay and configured to create a 3D lightfield from the received radiation at a location that may be varied by the variable focus optics; and an eyepiece in optical communication with the display optics configured to receive the 3D lightfield from the display optics and deliver the received radiation to an exit pupil of the augmented reality display.
A method for feeding back channel state information through a codeword, comprising: determining , by a terminal, a precoding type used for downlink signal transmission, wherein the precoding type is linear precoding or non-linear precoding, or receiving , by the terminal, codebook indication signaling which is transmitted by a base station and indicates whether a linear precoding codebook or a non-linear precoding codebook should be selected by the terminal; selecting , by the terminal, a codebook from a linear precoding codebook and a non-linear precoding codebook according to the precoding type, or selecting a codebook from a linear precoding codebook and a non-linear precoding codebook according to the codebook indication signaling; and selecting , by the terminal, a codeword that best matches channel state information from the codebook, and feeding back the codeword to the base station to enable the base station to acquire the codeword from the linear precoding codebook and the non-linear precoding codebook. determining , by a terminal, a precoding type used for downlink signal transmission, wherein the precoding type is linear precoding or non-linear precoding, or receiving , by the terminal, codebook indication signaling which is transmitted by a base station and indicates whether a linear precoding codebook or a non-linear precoding codebook should be selected by the terminal; selecting , by the terminal, a codebook from a linear precoding codebook and a non-linear precoding codebook according to the precoding type, or selecting a codebook from a linear precoding codebook and a non-linear precoding codebook according to the codebook indication signaling; and selecting , by the terminal, a codeword that best matches channel state information from the codebook, and feeding back the codeword to the base station to enable the base station to acquire the codeword from the linear precoding codebook and the non-linear precoding codebook.
Device for heating fuel, in particular diesel fuel, having: a tubular housing for guiding a fuel flow (K); a first heat exchange element which is arranged in the housing ; a second heat exchange element which is arranged in the housing ; an electrical heating element , in particular a PTC heating element, which is arranged in the housing between the first heat exchange element and the second heat exchange element , wherein the first heat exchange element , the electrical heating element and the second heat exchange element are electrically conductive and thermally connected, wherein the electrical current flows through the first heat exchange element , the electrical heating element and the second heat exchange element one after the other; a first flow directing element which is constructed to divide the fuel flow (K) upstream of the first heat exchange element and the second heat exchange element into a first part-flow (K1), which flows around the first heat exchange element , and a second part-flow (K2), which flows around the second heat exchange element , wherein the first flow directing element tapers counter to a flow direction of the fuel flow (K), characterized in that the first flow directing element , at an upstream-side end of the first flow directing element , is constructed in a pointed manner. a tubular housing for guiding a fuel flow (K); a first heat exchange element which is arranged in the housing ; a second heat exchange element which is arranged in the housing ; an electrical heating element , in particular a PTC heating element, which is arranged in the housing between the first heat exchange element and the second heat exchange element , wherein the first heat exchange element , the electrical heating element and the second heat exchange element are electrically conductive and thermally connected, wherein the electrical current flows through the first heat exchange element , the electrical heating element and the second heat exchange element one after the other; a first flow directing element which is constructed to divide the fuel flow (K) upstream of the first heat exchange element and the second heat exchange element into a first part-flow (K1), which flows around the first heat exchange element , and a second part-flow (K2), which flows around the second heat exchange element , wherein the first flow directing element tapers counter to a flow direction of the fuel flow (K),
Landing gear provided with a movable gear leg , said gear leg supporting at least one member for contact with the ground, said landing gear comprising a motor having a output member which is rotatable about a motor axis (A3), said landing gear having a movement transformation system , said movement transformation system having a movable first element engaging with a movable second element , the first element being mechanically connected to the output member , the second element being attached to the gear leg , said second element comprising a connecting rod hinged by a first hinge to the first element , said connecting rod being hinged by a second hinge to the gear leg , said landing gear including a computer in communication with said motor , said computer being designed to control said motor in order to control a position of the member for contact with the ground, characterised in that the said movement transformation system is designed to transform a rotational movement by the motor into a translational movement of the gear leg or into a translational and rotational movement of the gear leg or into a circular translational movement of the gear leg.
A method performed in a thermal management device for proactive managing the temperature of a battery connected to an electronic device , the method comprising: - obtaining (S1) a measurement of the current temperature (T a ) of the battery , - obtaining (S2) a value of a battery current (I) of the battery , - determining (S3) a value of the resistance (R) of the battery , - determining (S4) a predictive temperature increase (T dc ) of the battery at least based on the obtained value of the battery current (I) drawn from the battery and the determined value of the resistance (R), and - managing (S5) the temperature (T) of the battery at least based on the current temperature (T a ) of the battery and the predictive temperature increase (T dc ) of the battery by using the predictive temperature increase (T dc ) as a feedforward value when managing the temperature (T) of the battery , wherein the step of managing (S5) the temperature (T) of the battery comprise cooling (S51) the battery if the sum of the actual battery temperature (T a ) and the predictive temperature increase (T dc ) is higher than a first target temperature (T t1 ), wherein the step of managing (S5) the temperature (T) of the battery comprise cooling (S52) the battery to a second target temperature (T t2 ) if the sum of the actual battery temperature (T a ) and the predictive temperature increase (T dc ) is higher than the first target temperature (T t1 ), and wherein the step of managing (S5) the temperature (T) of the battery comprise heating (S53) the battery , if the sum of the actual battery temperature (T a ) and the predictive temperature increase (T dc ) is lower than a third target temperature (T t3 ). - obtaining (S1) a measurement of the current temperature (T a ) of the battery , - obtaining (S2) a value of a battery current (I) of the battery , - determining (S3) a value of the resistance (R) of the battery , - determining (S4) a predictive temperature increase (T dc ) of the battery at least based on the obtained value of the battery current (I) drawn from the battery and the determined value of the resistance (R), and - managing (S5) the temperature (T) of the battery at least based on the current temperature (T a ) of the battery and the predictive temperature increase (T dc ) of the battery by using the predictive temperature increase (T dc ) as a feedforward value when managing the temperature (T) of the battery ,