mhurhangee/patent-ind-claim-en huggingface dataset:
A gas turbine engine for an aircraft comprising: an engine core comprising a turbine , a compressor , and a core shaft ; and an environmental control system mounted on the engine core comprising: a first air passage arranged to deliver air from outside the engine core to an aircraft cabin and/or for wing anti icing; a subsidiary compressor located in the first air passage and arranged to compress air in the first air passage, the subsidiary compressor being powered by the core shaft ; and a second air passage arranged to inject air from the compressor into the first air passage; and wherein the environmental control system further comprises a recirculation passage arranged to recirculate air in the first passage from downstream of the subsidiary compressor to upstream of the subsidiary compressor. an engine core comprising a turbine , a compressor , and a core shaft ; and an environmental control system mounted on the engine core comprising: a first air passage arranged to deliver air from outside the engine core to an aircraft cabin and/or for wing anti icing; a subsidiary compressor located in the first air passage and arranged to compress air in the first air passage, the subsidiary compressor being powered by the core shaft ; and a second air passage arranged to inject air from the compressor into the first air passage; and wherein the environmental control system further comprises a recirculation passage arranged to recirculate air in the first passage from downstream of the subsidiary compressor to upstream of the subsidiary compressor. a first air passage arranged to deliver air from outside the engine core to an aircraft cabin and/or for wing anti icing; a subsidiary compressor located in the first air passage and arranged to compress air in the first air passage, the subsidiary compressor being powered by the core shaft ; and a second air passage arranged to inject air from the compressor into the first air passage; and wherein the environmental control system further comprises a recirculation passage arranged to recirculate air in the first passage from downstream of the subsidiary compressor to upstream of the subsidiary compressor.
A first machine to machine equipment comprising a processor operable to execute a first process configured to establish a wireless connection between the first machine to machine equipment and a home operator, wherein the wireless connection is provided via a first wireless access point , wherein: the first process comprises a link state monitor configured to monitor connectivity of the first wireless access point , wherein the processor is further configured to initiate an alternative connection between the first machine to machine equipment and said home operator and to initiate a second process realizing a virtualized Femto cell being operable as an alternative wireless access point to a second machine to machine equipment , in case of monitoring a wireless connectivity disruption at said first wireless access point , wherein said link state monitor continues to monitor said connectivity of said first wireless access point after initiating said alternative connection to determine whether said connectivity of said first wireless access point satisfies at least one predefined condition, and wherein, when said connectivity of said first wireless access point satisfies the at least one predefined condition, said link state monitor is configured to: trigger a termination of said second process , and re-establish said wireless connection between the first machine to machine equipment and said home operator via said first wireless access point .
A floating docking device comprising a base , a floating portion , and a position-holding portion , wherein the floating portion is floatable relative to the base and is provided with at least one positioning member , and the positioning member is able to complete docking with an engagement member of a vehicle with a battery to be swapped by means of floating of the floating portion ; and wherein the position-holding portion is arranged to enable the floating portion to be fixed relative to the base , characterized in that the floating portion comprises a plurality of floating plates and a floating platform connected to the plurality of the floating plates , and the at least one positioning member is arranged on the floating platform , wherein the position-holding portion comprises at least one jacking mechanism corresponding to each of the floating plates , and the jacking mechanism is able to be jacked up to the floating plate , so that the floating plate is fixed relative to the base . wherein the floating portion is floatable relative to the base and is provided with at least one positioning member , and the positioning member is able to complete docking with an engagement member of a vehicle with a battery to be swapped by means of floating of the floating portion ; and wherein the position-holding portion is arranged to enable the floating portion to be fixed relative to the base , characterized in that the floating portion comprises a plurality of floating plates and a floating platform connected to the plurality of the floating plates , and the at least one positioning member is arranged on the floating platform , wherein the position-holding portion comprises at least one jacking mechanism corresponding to each of the floating plates , and the jacking mechanism is able to be jacked up to the floating plate , so that the floating plate is fixed relative to the base .
A wireless communication method, comprising: receiving, by a network node, a data transmission from a communication node; and transmitting to the communication node a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook in a downlink feedback information, DFI, in a downlink control information, DCI, wherein the HARQ-ACK codebook is based on the received data transmission, wherein the HARQ-ACK codebook corresponds to a number of pre-configured data transmission opportunities in a pre-configured time window, wherein the HARQ-ACK codebook includes a first set of bits corresponding to a cascading of a plurality of transport blocks, TBs, received in the data transmission in the pre-configured time window, and wherein the HARQ-ACK codebook includes a second set of bits corresponding to a cascading of a plurality of code block groups, CBGs, within each transport block. receiving, by a network node, a data transmission from a communication node; and transmitting to the communication node a hybrid automatic repeat request acknowledgement, HARQ-ACK, codebook in a downlink feedback information, DFI, in a downlink control information, DCI, wherein the HARQ-ACK codebook is based on the received data transmission, wherein the HARQ-ACK codebook corresponds to a number of pre-configured data transmission opportunities in a pre-configured time window, wherein the HARQ-ACK codebook includes a first set of bits corresponding to a cascading of a plurality of transport blocks, TBs, received in the data transmission in the pre-configured time window, and wherein the HARQ-ACK codebook includes a second set of bits corresponding to a cascading of a plurality of code block groups, CBGs, within each transport block. wherein the HARQ-ACK codebook is based on the received data transmission, wherein the HARQ-ACK codebook corresponds to a number of pre-configured data transmission opportunities in a pre-configured time window, wherein the HARQ-ACK codebook includes a first set of bits corresponding to a cascading of a plurality of transport blocks, TBs, received in the data transmission in the pre-configured time window, and wherein the HARQ-ACK codebook includes a second set of bits corresponding to a cascading of a plurality of code block groups, CBGs, within each transport block.
A method of capturing packets from one or more applications hosted on one or more containers connected to one or more network interfaces in a section of an industrial network , by a packet capture service wherein the packet capture service is connected to a packet capture client for transmitting the captured packets to the packet capture client , the method comprising: a. receiving a capture request for capturing packets associated with a connection of a second container from the one or more containers , wherein the connection is between the second container and a network destination for transmitting one or more packets; b. determining a network path associated with the connection of the second container , wherein the network path is indicative of the one or more network interfaces used by the packets of the connection from the second container to the network destination; c. determining the presence of the one or more network interfaces in one of a first capture session and the connection between the packet capture service and a packet capture client , wherein the first capture session is for capturing packets associated with a first container , wherein at least one network interface from the one or more network interfaces is present in one of a network path of the first capture session and the connection between the packet capture service and the packet capture client , and; and d. approving the capture request for creating a second capture session for capturing packets associated with the connection of the second container , characterized in that the method further comprises generating a filter related to the capture request for capturing packets associated with the connection of the second container prior to approving the capture request, wherein the filter comprises one or more filter expressions for filtering one or more of packets associated with the first capture session and packets originating from or transmitted to the packet capture service . a. receiving a capture request for capturing packets associated with a connection of a second container from the one or more containers , wherein the connection is between the second container and a network destination for transmitting one or more packets; b. determining a network path associated with the connection of the second container , wherein the network path is indicative of the one or more network interfaces used by the packets of the connection from the second container to the network destination; c. determining the presence of the one or more network interfaces in one of a first capture session and the connection between the packet capture service and a packet capture client , wherein the first capture session is for capturing packets associated with a first container , wherein at least one network interface from the one or more network interfaces is present in one of a network path of the first capture session and the connection between the packet capture service and the packet capture client , and; and d. approving the capture request for creating a second capture session for capturing packets associated with the connection of the second container ,
A method performed by a compiler , the method comprising: identifying a first set of neural network models that have been executed on a hardware accelerator of a computing device more than a threshold number of times in a preset amount of time in the past; identifying a sequence in which the first set of models are executed on the hardware accelerator; compiling each neural network model of the first set of neural network models for execution by the hardware accelerator; and outputting , for each neural network model of the first set of neural network models, the compiled model to the hardware accelerator for storage according to the sequence in one or more memories of the hardware accelerator, the storage, according to the sequence, of the compiled model for each neural network model of the first set of neural network models in the one or more memories preventing a need for reloading a compiled result recompilation of the sequence of the first set of neural network models into the one or more memories when the first set of neural network models are to be executed again on the hardware accelerator. identifying a first set of neural network models that have been executed on a hardware accelerator of a computing device more than a threshold number of times in a preset amount of time in the past; identifying a sequence in which the first set of models are executed on the hardware accelerator; compiling each neural network model of the first set of neural network models for execution by the hardware accelerator; and outputting , for each neural network model of the first set of neural network models, the compiled model to the hardware accelerator for storage according to the sequence in one or more memories of the hardware accelerator, the storage, according to the sequence, of the compiled model for each neural network model of the first set of neural network models in the one or more memories preventing a need for reloading a compiled result recompilation of the sequence of the first set of neural network models into the one or more memories when the first set of neural network models are to be executed again on the hardware accelerator.
A planning apparatus for determining an ablation probe parameter describing an operation of an ablation probe during an ablation procedure for ablating a part of a subject, the planning apparatus comprising: - a thermal energy determination providing unit configured to provide a first thermal energy function defining a relation between a first thermal energy distribution to be calculated and a spatial temperature distribution and to provide a temperature-based condition being indicative of a desired treatment outcome for the subject including an ablation of the part of the subject , - a thermal energy determination unit configured to determine the first thermal energy distribution by using the first thermal energy function such that the temperature-based condition is fulfilled, - an ablation probe parameter determination providing unit configured to provide a second thermal energy function providing a relation between a) a second thermal energy distribution to be calculated and to be caused by the ablation probe and b) the ablation probe parameter, - an ablation probe parameter determination unit configured to determine the ablation probe parameter by using the second thermal energy function such that a deviation between the first thermal energy distribution and the second thermal energy distribution fulfils a predefined deviation criterion. - a thermal energy determination providing unit configured to provide a first thermal energy function defining a relation between a first thermal energy distribution to be calculated and a spatial temperature distribution and to provide a temperature-based condition being indicative of a desired treatment outcome for the subject including an ablation of the part of the subject , - a thermal energy determination unit configured to determine the first thermal energy distribution by using the first thermal energy function such that the temperature-based condition is fulfilled, - an ablation probe parameter determination providing unit configured to provide a second thermal energy function providing a relation between a) a second thermal energy distribution to be calculated and to be caused by the ablation probe and b) the ablation probe parameter, - an ablation probe parameter determination unit configured to determine the ablation probe parameter by using the second thermal energy function such that a deviation between the first thermal energy distribution and the second thermal energy distribution fulfils a predefined deviation criterion.
Method for hydrophilic bonding of a first substrate (S1) to a second substrate (S2), comprising: - bringing the first substrate (S1) and the second substrate (S2) into contact so as to form a bonding interface (I) between a main surface of the first substrate and a main surface of the second substrate, - applying a heat treatment adapted to close said bonding interface, said method being characterized in that it comprises, before the bringing into contact step, depositing, on the main surface of the first and/or second substrate, a bonding layer of a non-metallic material permeable to dihydrogen and having, at the temperature of the heat treatment, an elastic limit lower than that of at least one of the materials of the first substrate (S1) and of the second substrate (S2) located at the bonding interface, the said layer having a thickness of between 1 and 6 nm, and in that the heat treatment is carried out at a temperature of less than or equal to 900°C, preferably less than or equal to 600°C. - bringing the first substrate (S1) and the second substrate (S2) into contact so as to form a bonding interface (I) between a main surface of the first substrate and a main surface of the second substrate, - applying a heat treatment adapted to close said bonding interface,
A method for detecting a leak of molten plastics material, the method comprising placing a tubular detecting element adjacent a site from which molten plastics material may leak, and urging a fluid through the tubular detecting element , characterised in that the tubular detecting element is of deformable transverse cross-section, and the method further comprises monitoring one of the pressure and flow of the fluid through the tubular detecting element at a location one of upstream and downstream of the tubular detecting element , and determining the presence of a leak of molten plastics material adjacent the tubular detecting element in response to the one of the monitored pressure and the monitored flow of the fluid through the tubular detecting element .
A cartilage regenerative material comprising: a porous body of a biocompatible polymer; and a biocompatible polymer film, wherein the porous body contains chondrocytes and cartilage matrix, and the cartilage matrix exists in a region of 10% or more of a region extending from the surface of the transplant face of the porous body to a depth of 150 μm along the thickness, and wherein the biocompatible polymer of the biocompatible polymer film has a degree of crosslinking of 4 to 8. a porous body of a biocompatible polymer; and a biocompatible polymer film, wherein the porous body contains chondrocytes and cartilage matrix, and the cartilage matrix exists in a region of 10% or more of a region extending from the surface of the transplant face of the porous body to a depth of 150 μm along the thickness, and wherein the biocompatible polymer of the biocompatible polymer film has a degree of crosslinking of 4 to 8.
A resin composition comprising a cyanate compound (A) and/or a maleimide compound (B), and an inorganic filler (C), wherein the inorganic filler (C) comprises a boron nitride particle aggregate comprising primary hexagonal boron nitride particles, wherein planes of the primary hexagonal boron nitride particles are stacked on top of each other to thereby form the boron nitride particle aggregate.
A control system for electric storage heating devices, having a central control unit and a multiplicity of electric storage heating devices , the electric storage heating devices in each case comprising at least one charge controller which can be controlled in an analogue manner or a manual charge controller, characterized in that interface devices additionally being assigned to the electric storage heating devices , the central control unit and the interface devices in each case have at least one digital connection , the digital connections are or can be connected to one another and the interface devices are or can be connected via at least one analogue connection in each case to the charge controllers which can be controlled in an analogue manner and/or via switching devices to manual charge controllers and are or can be connected thereby to the heating elements of the respective electric storage heating device .
An antenna device comprising: a reflector having a profile of a parabolic shape in a first cross-section cut parallel to a first direction and a profile of a hyperbolic shape in a second cross-section, the second cross-section being cut perpendicular to the first direction and crossing the first cross-section; and a radiating structure having at least one phased antenna array adapted to emit radio waves toward at least part of the reflector and to scan a beam, wherein edges of the profile of the parabolic shape of the first cross-section are formed to be directed toward the radiating structure, and wherein edges of the profile of the hyperbolic shape of the reflector are formed to be directed away from the radiating structure. a reflector having a profile of a parabolic shape in a first cross-section cut parallel to a first direction and a profile of a hyperbolic shape in a second cross-section, the second cross-section being cut perpendicular to the first direction and crossing the first cross-section; and a radiating structure having at least one phased antenna array adapted to emit radio waves toward at least part of the reflector and to scan a beam, wherein edges of the profile of the parabolic shape of the first cross-section are formed to be directed toward the radiating structure, and wherein edges of the profile of the hyperbolic shape of the reflector are formed to be directed away from the radiating structure.
A surgical device for felting an implant to soft tissue of a patient comprising at least one felting needle configured to move reciprocally, and a connection interface (128; 135) for connecting the at least one felting needle to an actuator and for transferring a reciprocal motion from the interface (128; 135) to the at least one felting needle , characterized in that the device comprises a needle protection mechanism (3; 20; 135; 242; 331; 451; 553), wherein the needle protection mechanism is configured to prevent the at least one felting needle from being damaged due to a contact with a rigid structure during the reciprocal motion, comprising a coupling (128; 235) adapted to transfer a reciprocal motion from the actuator to the at least one felting needle and wherein the needle protection mechanism is adapted to decouple the felting needle from the actuator when a threshold force or threshold moment is exceeded to prevent the felting needle from being damaged by decoupling the coupling.
An interleaving unit, comprising a pair of rolls set alongside one another and counter-rotating and provided with respective first and second folding tools (3, 4; 5, 6) set at a distance from one another along the circumferential development of the respective peripheral surfaces so as to operate in a common point of tangency (Z) on a succession of sheets fed between the two rolls, said tools (3, 4; 5, 6) being set on respective mobile cylinder sectors to enable positioning thereof at an adjustable distance apart along the circumferential development of a corresponding roll , said unit being characterized in that it comprises means (M1, M2, U) for independently adjusting the speed of rotation of one or more of said sectors according to their angular position in order to reduce or increase the peripheral speed of said sectors with respect to a speed of feed (Vm) of said sheets.