mhurhangee/patent-ind-claim-en huggingface dataset:
A wireless communication method performed by a user equipment UE, comprising: transmitting transport block repetitions to an eNodeB eNB , wherein one hybrid automatic repeat request HARQ process comprises multiple repetition sets of the transport block if one repetition set of the transport block is not enough for the eNB to successfully decode the transport block, each of the multiple repetition sets comprises multiple repetitions of the transport block, each of the multiple repetition sets is followed by a feedback channel to indicate whether the transport block is successfully decoded by the eNB, and if the feedback channel indicates that the transport block is not successfully decoded by the eNB, the UE continues to transmit another repetition set of the transport block, characterized in that a granularity of the another repetition set, which indicates a number of repetitions of the transport block in the other repetition set, is different from a granularity of the one repetition set, which indicates a number of repetitions of the transport block in the one repetition set. transmitting transport block repetitions to an eNodeB eNB , wherein one hybrid automatic repeat request HARQ process comprises multiple repetition sets of the transport block if one repetition set of the transport block is not enough for the eNB to successfully decode the transport block, each of the multiple repetition sets comprises multiple repetitions of the transport block, each of the multiple repetition sets is followed by a feedback channel to indicate whether the transport block is successfully decoded by the eNB, and if the feedback channel indicates that the transport block is not successfully decoded by the eNB, the UE continues to transmit another repetition set of the transport block, characterized in that a granularity of the another repetition set, which indicates a number of repetitions of the transport block in the other repetition set, is different from a granularity of the one repetition set, which indicates a number of repetitions of the transport block in the one repetition set.
A communication coupling verification method executed by a computer , the communication coupling verification method comprising: identifying (S1) both setting information before a setting change of each of network devices arranged in a network and forwarding information before the setting change; identifying (S3, S4) both setting information after the setting change and the forwarding information after the setting change; generating (S6, S7) a first model before the setting change and a second model after the setting change by using the setting information before the setting change, the forwarding information before the setting change, the setting information after the setting change, and the forwarding information after the setting change; obtaining (S8) a difference between the generated first model and the generated second model, the obtaining of the difference including obtaining as the difference a first set of packets obtained by removing, from a set of packets extracted from the generated second model, duplicate packets overlapping between the first model and the second model; determining (S9), for each packet of the first set of packets obtained as the difference, influence of the setting change on the network by using a reached point of that packet, wherein the reached point of that packet is obtained by tracing that packet in the first model; and notifying (S10) an administrator of the network of the determination results. identifying (S1) both setting information before a setting change of each of network devices arranged in a network and forwarding information before the setting change; identifying (S3, S4) both setting information after the setting change and the forwarding information after the setting change; generating (S6, S7) a first model before the setting change and a second model after the setting change by using the setting information before the setting change, the forwarding information before the setting change, the setting information after the setting change, and the forwarding information after the setting change; obtaining (S8) a difference between the generated first model and the generated second model, the obtaining of the difference including obtaining as the difference a first set of packets obtained by removing, from a set of packets extracted from the generated second model, duplicate packets overlapping between the first model and the second model; determining (S9), for each packet of the first set of packets obtained as the difference, influence of the setting change on the network by using a reached point of that packet, wherein the reached point of that packet is obtained by tracing that packet in the first model; and notifying (S10) an administrator of the network of the determination results.
An apparatus composed of at least one pressure-rated apparatus shell and at least one modular framework system composed of two different types of framework element and arranged within the apparatus shell, wherein multiple transverse elements form at least one prism or one cylinder and multiple lateral elements project into the interior of the prism or cylinder, where the transverse elements and the lateral elements can be inserted into one another and/or can be connected with the aid of one or more connecting elements, where the material of the framework elements includes ceramic fiber composite materials.
A composition for use in treating skin damage, comprising: (a) one or more metasilicate selected from the group consisting of sodium or potassium metasilicate, sodium or potassium orthosilicate and mixtures thereof; (b) one or more carbonate selected from the group consisting of sodium carbonate, sodium sesquicarbonate, sodium bicarbonate and mixtures thereof; (c) one or more gluconate; (d) one or more sulfate including potassium aluminium sulfate, wherein the one or more sulfate is further selected from the group consisting of sodium sulfate, potassium sulfate, lithium sulfate, ammonium sulfate, magnesium sulfate, strontium sulfate, aluminium sulfate, and mixtures thereof; and (e) optionally one or more salt selected from the group consisting of sea salt and sodium chloride. (a) one or more metasilicate selected from the group consisting of sodium or potassium metasilicate, sodium or potassium orthosilicate and mixtures thereof; (b) one or more carbonate selected from the group consisting of sodium carbonate, sodium sesquicarbonate, sodium bicarbonate and mixtures thereof; (c) one or more gluconate; (d) one or more sulfate including potassium aluminium sulfate, wherein the one or more sulfate is further selected from the group consisting of sodium sulfate, potassium sulfate, lithium sulfate, ammonium sulfate, magnesium sulfate, strontium sulfate, aluminium sulfate, and mixtures thereof; and (e) optionally one or more salt selected from the group consisting of sea salt and sodium chloride.
A femoral stem for a hip joint prosthesis, comprising: a femoral base having a generally elongated shape with a proximal end and a distal end; a femoral neck having a generally tubular shape extending from the proximal end of the femoral base and having a concentric axis; a lateral port on a side of the femoral base generally opposite the femoral neck and in line with the concentric axis; and a lateral post having a first end removably secured within the lateral port and a second end extending a predetermined distance from the side of the femoral base , characterized in that the lateral port has a tapering diameter proximate to the femoral neck and that the first end has an insertion tip with a tapering body that matches the tapering diameter of the lateral port . a femoral base having a generally elongated shape with a proximal end and a distal end; a femoral neck having a generally tubular shape extending from the proximal end of the femoral base and having a concentric axis; a lateral port on a side of the femoral base generally opposite the femoral neck and in line with the concentric axis; and a lateral post having a first end removably secured within the lateral port and a second end extending a predetermined distance from the side of the femoral base , characterized in that the lateral port has a tapering diameter proximate to the femoral neck and that the first end has an insertion tip with a tapering body that matches the tapering diameter of the lateral port .
A method for multi-level assessment of content popularity to optimize caching, comprising: re-directing a first cache-miss request, associated with a first cache server, for a content identifier in a first semi-popular portion of a first meta-cache comprising a plurality of last-requested content identifiers, to a second cache server in response to determining that the content identifier is not present in the first semi-popular portion of the first meta-cache; and re-directing a second cache-miss request associated with the second cache server, for the content identifier in a second semi-popular portion of a second meta-cache, comprising a plurality of last-requested content identifiers, to an origin server hosting a content associated with the content identifier in response to determining that the content identifier is not present in the second semi-popular portion of the second meta-cache, the second cache-miss request having been issued consequent to the re-directing of the first cache-miss request, the method further comprising specifying a first threshold parameter, for partitioning the first meta-cache into a first popular portion and the first semi-popular portion, and a second threshold parameter for partitioning the second meta-cache into a second popular portion and the second semi-popular portion, wherein the first meta-cache is communicatively coupled to the first cache server and the second meta-cache is communicatively coupled to the second cache server. re-directing a first cache-miss request, associated with a first cache server, for a content identifier in a first semi-popular portion of a first meta-cache comprising a plurality of last-requested content identifiers, to a second cache server in response to determining that the content identifier is not present in the first semi-popular portion of the first meta-cache; and re-directing a second cache-miss request associated with the second cache server, for the content identifier in a second semi-popular portion of a second meta-cache, comprising a plurality of last-requested content identifiers, to an origin server hosting a content associated with the content identifier in response to determining that the content identifier is not present in the second semi-popular portion of the second meta-cache, the second cache-miss request having been issued consequent to the re-directing of the first cache-miss request, the method further comprising specifying a first threshold parameter, for partitioning the first meta-cache into a first popular portion and the first semi-popular portion, and a second threshold parameter for partitioning the second meta-cache into a second popular portion and the second semi-popular portion, wherein the first meta-cache is communicatively coupled to the first cache server and the second meta-cache is communicatively coupled to the second cache server.
A process for the production of reinforced plastics components, comprising the following steps: a) provision of at least one reinforcing material in at least one cavity of a molding device , b) provision of at least one starting material in a container , where the at least one starting material is both stored and transported in the container , c) insertion of the container into the molding device , d) introduction of the at least one starting material from the container directly into the cavity , where the at least one starting material passes through a mixing unit which is part of the container , where the at least one starting material penetrates at least to some extent through the at least one reinforcing material, e) hardening of the at least one starting material with the at least one reinforcing material to give a reinforced plastics component, and f) demolding of the reinforced plastics component. a) provision of at least one reinforcing material in at least one cavity of a molding device , b) provision of at least one starting material in a container , where the at least one starting material is both stored and transported in the container , c) insertion of the container into the molding device , d) introduction of the at least one starting material from the container directly into the cavity , where the at least one starting material passes through a mixing unit which is part of the container , where the at least one starting material penetrates at least to some extent through the at least one reinforcing material, e) hardening of the at least one starting material with the at least one reinforcing material to give a reinforced plastics component, and f) demolding of the reinforced plastics component.
A method comprising: receiving input audio and target audio having a target audio characteristic; using a first neural network deployed at a radio transmitter, trained to generate key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio, generating the key parameters based on one or more of the target audio and the input audio; encoding the input audio into encoded input audio at the radio transmitter; transmitting the key parameters and the encoded input audio from the radio transmitter; receiving the key parameters and the encoded input audio at a radio receiver; decoding the encoded input audio to recover the input audio at the radio receiver; and configuring a second neural network deployed at the radio receiver, trained to be configured by the key parameters, with the key parameters to cause the second neural network to perform a signal transformation of audio representative of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic; wherein generating the key parameters is performed at the radio transmitter; and configuring the second neural network is performed at the radio receiver. receiving input audio and target audio having a target audio characteristic; using a first neural network deployed at a radio transmitter, trained to generate key parameters that represent the target audio characteristic based on one or more of the target audio and the input audio, generating the key parameters based on one or more of the target audio and the input audio; encoding the input audio into encoded input audio at the radio transmitter; transmitting the key parameters and the encoded input audio from the radio transmitter; receiving the key parameters and the encoded input audio at a radio receiver; decoding the encoded input audio to recover the input audio at the radio receiver; and configuring a second neural network deployed at the radio receiver, trained to be configured by the key parameters, with the key parameters to cause the second neural network to perform a signal transformation of audio representative of the input audio, to produce output audio having an output audio characteristic corresponding to and that matches the target audio characteristic; wherein generating the key parameters is performed at the radio transmitter; and configuring the second neural network is performed at the radio receiver.
A control device for a ventricular assist device, VAD , with settable speed levels, the control device comprising an input configured to receive at least one measuring signal (LVP meas ) related to a physiological condition of the circulatory system of a patient (P) receiving heart assistance by the VAD , wherein the control device is configured to derive an actual value (EDLVP; FG) of at least one characteristic parameter of the heart (H) from one or more of the at least one measuring signal (LVP meas ) and to provide a refined actual value (EDLVP*; FG*) of the at least one characteristic parameter in which effects of physiologically caused fluctuations are eliminated or reduced; and an output configured to output an updated setting value (n VAD set ) for the speed level, wherein the control device is configured to produce the updated setting value (n VAD set ) based on the refined actual value (EDLVP*; FG*) and a predeterminable set-point value (EDLVP set ; FG set ).
A current conductor made of a tubular conductor located in insulation layers interconnected and concentrically located around a conductor, in sequence from the conductor center, characterized in that the outer surface of the conductor provides an internal semi-conductive layer of ethylene-vinyl acetate, the internal semi-conductive layer provides an insulation layer made of ethylene-propylene rubber, the insulation layer provides an outer semi-conductive layer of ethylene-vinyl acetate where a layer of epoxy resin is located, which is cured to elasticity and flexibility, the epoxy resin layer provides a grounding element made as a copper perforated shell, the epoxy resin layer on the outside provides a protective sheath enclosing this layer under pressure, whereas all layers of the current conductor and the grounding element are interconnected and compressed by the protective sheath by forces directed to the center of the current conductor.
An apparatus for crimping expandable prosthetic heart valves, the apparatus comprising jaws having a linear movement towards a centre, a stationary base including guidance slits facing the centre, and a rotating mechanical member rotating around the centre, characterised in that the member includes a spiral track, and that the apparatus further comprises three removable accessories consisting of: a handle lever stop member 108 removably attached to a valve crimping device within an aperture formed in a housing 2, the handle lever stop member 108 calibrated to stop movement of a handle 5 when the proper aperture size is reached for a particular crimping operation; a crimped valve gauge 112 removably mounted on the base 4 and providing a tube 116 having a tapered throughbore with a minimum diameter that is equal to the minimum aperture diameter as limited by the handle lever stop member 108; and a balloon gauge removably mounted on the base 4 having an inner diameter calibrated to the desired maximum size of the expanding balloon used to deliver the prosthetic valve. a handle lever stop member 108 removably attached to a valve crimping device within an aperture formed in a housing 2, the handle lever stop member 108 calibrated to stop movement of a handle 5 when the proper aperture size is reached for a particular crimping operation; a crimped valve gauge 112 removably mounted on the base 4 and providing a tube 116 having a tapered throughbore with a minimum diameter that is equal to the minimum aperture diameter as limited by the handle lever stop member 108; and a balloon gauge removably mounted on the base 4 having an inner diameter calibrated to the desired maximum size of the expanding balloon used to deliver the prosthetic valve.
A laminating fixture for laminating an item to be attached on a convex portion of a cover glass , the laminating fixture comprising: a bracket ; and a buffering pad provided on the bracket , wherein a side of the bracket facing the buffering pad forms a laminating surface , the laminating surface is capable of laminating the item to be attached via the buffering pad , so as to bend and deform the item to be attached and laminate the item to be attached on the convex portion of the cover glass , wherein the bracket further comprises a plurality of ribs , the ribs and the laminating surface cooperatively form an accommodating cavity, the buffering pad is partially received in the accommodating cavity. a bracket ; and a buffering pad provided on the bracket , wherein a side of the bracket facing the buffering pad forms a laminating surface , the laminating surface is capable of laminating the item to be attached via the buffering pad , so as to bend and deform the item to be attached and laminate the item to be attached on the convex portion of the cover glass , wherein the bracket further comprises a plurality of ribs , the ribs and the laminating surface cooperatively form an accommodating cavity, the buffering pad is partially received in the accommodating cavity.
A contaminant removal subsystem , having a first gas-liquid contactor-separator , a second gas-liquid contactor-separator , and a dehumidifier , wherein the first gas-liquid contactor separator is configured to receive dehumidified air having a gas contaminant and to discharge a used liquid absorbent having the gas contaminant and to return purified air to the dehumidifier as a sweep gas; wherein the second gas-liquid contactor-separator is configured to receive the used liquid absorbent having the gas contaminant from the first gas-liquid contactor-separator and to discharge a clean liquid absorbent to the first gas-liquid contactor-separator ; wherein the dehumidifier is configured to receive the air having the gas contaminant and to remove water vapor from the air into the sweep gas before discharging dehumidified air to the first gas-liquid contactor-separator ; wherein the first and the second gas-liquid contactor-separators comprise hollow fiber membrane bundles ; and wherein the subsystem comprises an ionic liquid as liquid absorbent that circulates through the first and second gas-liquid contactor-separators in a closed-loop fashion.
An agent or composition which increases the level of GDF11 polypeptide in a subject, thereby increasing neurogenesis in the subject, for use in treating or preventing a neurodegenerative disorder in a subject, wherein the agent or composition comprises a Growth and Differentiation Factor 11 (GDF11) polypeptide of SEQ ID NO: 3.
A process for obtaining a filter comprising a porous material that is functionalized with organic acids, which are obtained from recycled material and/or salts thereof, wherein said process comprises the following steps: - providing a pre-existing filter comprising a porous material, said porous material being cellulose; - providing an aqueous solution comprising a mixture of said organic acids and/or salts thereof, said aqueous solution having a total concentration of said organic acids comprised between 0.01 mol/L and 1.5 mol/L; - soaking said pre-existing filter in said aqueous solution until a filter comprising porous material, that is functionalized with the organic acids of said mixture, is obtained; - removing said filter comprising said functionalized porous material; and - drying said filter at room temperature, wherein in said step of providing an aqueous solution said aqueous solution is an aqueous mixture of citric acid and ascorbic acid. - providing a pre-existing filter comprising a porous material, said porous material being cellulose; - providing an aqueous solution comprising a mixture of said organic acids and/or salts thereof, said aqueous solution having a total concentration of said organic acids comprised between 0.01 mol/L and 1.5 mol/L; - soaking said pre-existing filter in said aqueous solution until a filter comprising porous material, that is functionalized with the organic acids of said mixture, is obtained; - removing said filter comprising said functionalized porous material; and - drying said filter at room temperature,
A particulate coating composition, and preferably a powder coating composition, comprising: (i) at least one polyester polymer; (ii) at least one hardener; (iii) at least 0.1 wt% of at least one metallic pigment, wherein said metallic pigment comprises metal in elemental form or as an alloy; and (iv) at least one polyorganosiloxane. (i) at least one polyester polymer; (ii) at least one hardener; (iii) at least 0.1 wt% of at least one metallic pigment, wherein said metallic pigment comprises metal in elemental form or as an alloy; and (iv) at least one polyorganosiloxane.