mhurhangee/patent-ind-claim-en huggingface dataset:
Method for charging a rechargeable battery having terminals, to which a terminal voltage is applied, wherein the method comprises the following steps: a. charging the rechargeable battery by means of a predetermined current or a predetermined electrical power until the terminal voltage has reached a predetermined first value; b. determining (210-220) a time-dependent drop in the terminal voltage of the rechargeable battery when the charging current changes; c. determining a second value of the terminal voltage based on the voltage loss, wherein the second value is greater than the first value; and d. charging the rechargeable battery by means of a predetermined current or a predetermined electrical power until the terminal voltage of the rechargeable battery has reached the second value; characterized in that the time-dependent drop in the terminal voltage is determined (210-220) over a time which is dependent on a temperature of the rechargeable battery and/or the second value is determined depending on a temperature of the rechargeable battery . a. charging the rechargeable battery by means of a predetermined current or a predetermined electrical power until the terminal voltage has reached a predetermined first value; b. determining (210-220) a time-dependent drop in the terminal voltage of the rechargeable battery when the charging current changes; c. determining a second value of the terminal voltage based on the voltage loss, wherein the second value is greater than the first value; and d. charging the rechargeable battery by means of a predetermined current or a predetermined electrical power until the terminal voltage of the rechargeable battery has reached the second value; characterized in that
An oral pharmaceutical composition comprising a protein having a molecular weight of up to 100,000 Daltons, a first protease inhibitor, and a second protease inhibitor, wherein each of said first protease inhibitor and said second protease inhibitor inhibits trypsin and wherein said protein is characterized by at least one of the following: a. it is an enzyme. b. it is selected from the group consisting of a glucagon, an interferon gamma, an interferon alpha, a growth hormone, an erythropoietin, and granulocyte colony stimulating factor (G-CSF); c. it is selected from the group consisting of a receptor ligand, transport protein, and a storage protein. a. it is an enzyme. b. it is selected from the group consisting of a glucagon, an interferon gamma, an interferon alpha, a growth hormone, an erythropoietin, and granulocyte colony stimulating factor (G-CSF); c. it is selected from the group consisting of a receptor ligand, transport protein, and a storage protein.
A balancer for tools, comprising a rotating winding and unwinding drum for a cable , configured with a free end for supporting a tool, and a spring , wound around the main axis (A) of rotation of said drum and integral with a terminal portion with said drum , in order to generate an elastic reaction, as a consequence of the unwinding of said cable and of the consequent rotation of said drum , adapted to facilitate the rewinding of said cable , said balancer comprising an element for braking said drum , which is adapted to generate a resisting moment which acts even indirectly on said drum to contrast the rewinding stroke of said cable , characterized in that said element is an electric motor , which is connected even indirectly, with its rotor , to said drum , said resisting moment being constituted by the mechanical moment generated by said motor , and in that the balancer further comprises a respective electronic unit being associated with said element and being provided with a module for the control and adjustment of the intensity of said resisting moment generated by said element .
A method for generating a classification of variable length source data for detecting malware, the method comprising: receiving source data having a first variable length; extracting information related to features within the source data to generate a sequence of extracted information having a second variable length, the second variable length based on the first variable length; processing the sequence of extracted information with an encoder neural network to generate an embedding of the source data, the encoder neural network including an input, an output, a recurrent neural network layer, and a first set of parameters, wherein the embedding of the source data represents a mapping of the source data to a feature space of a different dimensionality; wherein the encoder neural network is configured by training the encoder neural network with a decoder neural network, the decoder neural network including an input for receiving the embedding of the source data and a second set of parameters, the decoder neural network generating an output that approximates at least one of (a) the sequence of extracted information, (b) a category associated with the source data, or (c) the source data; and processing at least the embedding of the source data with a classifier to generate a classification of the source data. receiving source data having a first variable length; extracting information related to features within the source data to generate a sequence of extracted information having a second variable length, the second variable length based on the first variable length; processing the sequence of extracted information with an encoder neural network to generate an embedding of the source data, the encoder neural network including an input, an output, a recurrent neural network layer, and a first set of parameters, wherein the embedding of the source data represents a mapping of the source data to a feature space of a different dimensionality; wherein the encoder neural network is configured by training the encoder neural network with a decoder neural network, the decoder neural network including an input for receiving the embedding of the source data and a second set of parameters, the decoder neural network generating an output that approximates at least one of (a) the sequence of extracted information, (b) a category associated with the source data, or (c) the source data; and processing at least the embedding of the source data with a classifier to generate a classification of the source data.
An agent for use in treating inflammation, wherein said agent activates CD47, wherein said agent is a modified TSP1 protein or a fragment thereof, wherein the amino acid residues VT in position 242-243 of SEQ ID NO: 8 and/or the amino acid residues QV in position 288-289 of SEQ ID NO: 8 are deleted, or wherein the amino acid residue V in position 242 and/or the amino acid residue V in position 289 of SEQ ID NO: 8 is/are substituted; wherein said agent is an activating peptide selected from 4N1K, PKHB1 and PKT16; or wherein said agent is a multimeric peptide or polypeptide comprising at least two peptide monomers linked through a linker, wherein said at least two peptide monomers activate CD47 and are selected from the group consisting of 4N1K, PKHB1 and PKT16, and wherein said inflammation is retinal inflammation. wherein said agent is an activating peptide selected from 4N1K, PKHB1 and PKT16; or wherein said agent is a multimeric peptide or polypeptide comprising at least two peptide monomers linked through a linker, wherein said at least two peptide monomers activate CD47 and are selected from the group consisting of 4N1K, PKHB1 and PKT16, and wherein said inflammation is retinal inflammation.
A device for feeding blanks to a machine for further processing in particular to a packing machine, comprising: - feed means for feeding a stack (P) of blanks disposed in succession in a superposed configuration; - at least one stop element disposed at a first end (P1) of the stack (P) of blanks and configured to retain the stack (P) of blanks ; wherein the feed means are configured to feed the stack (P) of blanks in such a way that the stack (P) of blanks is subjected to a pushing action (F) in the direction of the at least one stop element , in particular by gravity and/or by means of a pushing member applied to a second end of the stack, opposite to the first end; wherein the feed means further comprise at least one aligning element operating on an outfeed end stretch (P2) of the stack (P) of blanks , characterized in that the aligning element is configured to come into local contact with the blanks of the outfeed end stretch (P2) in such a way as to locally deform the blanks of the outfeed end stretch (P2) so as to bring forward the rearmost zones of the blanks or to hold back the frontmost portions of the blanks , thus causing the blanks to gradually adopt a shape as planar as possible in a plane perpendicular to the feed direction of the stack (P) and in such a way as to ensure that each blank of the outfeed end stretch (P2) is progressively aligned with a positioning plane, specifically by localized acceleration or deceleration performed by the aligning element . - feed means for feeding a stack (P) of blanks disposed in succession in a superposed configuration; - at least one stop element disposed at a first end (P1) of the stack (P) of blanks and configured to retain the stack (P) of blanks ; wherein the feed means are configured to feed the stack (P) of blanks in such a way that the stack (P) of blanks is subjected to a pushing action (F) in the direction of the at least one stop element , in particular by gravity and/or by means of a pushing member applied to a second end of the stack, opposite to the first end; wherein the feed means further comprise at least one aligning element operating on an outfeed end stretch (P2) of the stack (P) of blanks , characterized in that the aligning element is configured to come into local contact with the blanks of the outfeed end stretch (P2) in such a way as to locally deform the blanks of the outfeed end stretch (P2) so as to bring forward the rearmost zones of the blanks or to hold back the frontmost portions of the blanks , thus causing the blanks to gradually adopt a shape as planar as possible in a plane perpendicular to the feed direction of the stack (P) and in such a way as to ensure that each blank of the outfeed end stretch (P2) is progressively aligned with a positioning plane, specifically by localized acceleration or deceleration performed by the aligning element .
A heat-not-burn tobacco matrix for preventing cut tobacco from falling, characterized in that , the tobacco matrix is formed by disorderly mixing expanded tobacco, formula leaf group cut tobacco and/or a tobacco sheet and rolling, and a density of the tobacco matrix is 0.25 g/cm 3 to 0.70 g/cm 3 , characterized in that a mass of the expanded tobacco is 5% to 40% of a total mass of the tobacco matrix, a filling value of the expanded tobacco is 4.5 cm 3 /g to 7.5 cm 3 /g, and a whole cut rate of the expanded cut tobacco is 70% to 90%.
A method of charging a user for parking a vehicle in a chargeable parking facility , the method comprising: receiving signals from at least one signal source at a receiver disposed relative to the vehicle; using the received signals to identify an approximate path of travel of the vehicle; determining if the vehicle's approximate path of travel crosses a geofence associated with at least one boundary region of the chargeable parking facility; expanding the geofence biased orthogonally to a direction of the approximate path of travel by a dynamic degree based on local building height and density; if the vehicle's approximate path of travel has also crossed the expanded geofence, determining, with a degree of certainty, whether a park point approximating a location where the vehicle has come to rest lies inside the chargeable parking facility; if the park point is determined to lie inside the chargeable parking facility, associating the park point with a charge; and assessing the charge to the user. receiving signals from at least one signal source at a receiver disposed relative to the vehicle; using the received signals to identify an approximate path of travel of the vehicle; determining if the vehicle's approximate path of travel crosses a geofence associated with at least one boundary region of the chargeable parking facility; expanding the geofence biased orthogonally to a direction of the approximate path of travel by a dynamic degree based on local building height and density; if the vehicle's approximate path of travel has also crossed the expanded geofence, determining, with a degree of certainty, whether a park point approximating a location where the vehicle has come to rest lies inside the chargeable parking facility; if the park point is determined to lie inside the chargeable parking facility, associating the park point with a charge; and assessing the charge to the user.
A system comprising a master network node serving a first cell on a first component carrier and a slave network node serving a smaller second cell on a second component carrier, wherein both the master network node and the slave network node are Long Term Evolution, LTE, nodes or High Speed Data Packet Access, HSPA, nodes; and wherein the master network node comprises: a network interface configured to receive and/or send data for a user equipment from and/or to a network, a processor configured to control a split of the data for the first cell and the smaller second cell, and a transceiver unit configured to perform a downlink and/or uplink transmission with the user equipment via the first cell, wherein the processor is configured to send and/or receive the data to and/or from the slave network node to perform a downlink and/or uplink transmission with the user equipment via the smaller second cell. a network interface configured to receive and/or send data for a user equipment from and/or to a network, a processor configured to control a split of the data for the first cell and the smaller second cell, and a transceiver unit configured to perform a downlink and/or uplink transmission with the user equipment via the first cell, wherein the processor is configured to send and/or receive the data to and/or from the slave network node to perform a downlink and/or uplink transmission with the user equipment via the smaller second cell.
A videoconference camera selection method, comprising: obtaining a plurality of audio inputs for a videoconference, each of the audio inputs associated with one of a plurality of camera views; processing each of the audio inputs into first audio energy for a first frequency range and into second audio energy for a second frequency range, the first frequency range being higher than the second frequency range; determining which of the audio inputs has a greatest ratio of the first audio energy relative to the second audio energy ; selecting the camera view associated with the audio input having the greatest ratio; and outputting video of the selected camera view for the videoconference. obtaining a plurality of audio inputs for a videoconference, each of the audio inputs associated with one of a plurality of camera views; processing each of the audio inputs into first audio energy for a first frequency range and into second audio energy for a second frequency range, the first frequency range being higher than the second frequency range; determining which of the audio inputs has a greatest ratio of the first audio energy relative to the second audio energy ; selecting the camera view associated with the audio input having the greatest ratio; and outputting video of the selected camera view for the videoconference.
A sampling device comprising: a lower portion comprising a sample container and a dead space passage adjacent to the sample container; a cap moveably attached with the lower portion and comprising a cutting edge configured for cutting a leaf, such that when the cap is attached to the lower portion with a leaf there between, a leaf sample is deposited into the sample container of the lower portion, the cap also comprising a dead space opening configured to receive a first pipette, wherein the cap is moveably attached to the lower portion by a lateral post extending out of the lower portion, wherein the dead space opening is open to the dead space passage, wherein the dead space passage extends through the lateral post , and wherein the cap includes a shaft configured to cooperate with the lateral post and wherein the cap includes a vent in fluid communication with the sample container such that the leaf sample is dried during transport of the sampling device , the vent being configured to receive a second pipette. a lower portion comprising a sample container and a dead space passage adjacent to the sample container; a cap moveably attached with the lower portion and comprising a cutting edge configured for cutting a leaf, such that when the cap is attached to the lower portion with a leaf there between, a leaf sample is deposited into the sample container of the lower portion, the cap also comprising a dead space opening configured to receive a first pipette, wherein the cap is moveably attached to the lower portion by a lateral post extending out of the lower portion, wherein the dead space opening is open to the dead space passage, wherein the dead space passage extends through the lateral post , and wherein the cap includes a shaft configured to cooperate with the lateral post and wherein the cap includes a vent in fluid communication with the sample container such that the leaf sample is dried during transport of the sampling device , the vent being configured to receive a second pipette.
A screening apparatus for a window , in particular a roof window, said window having a frame encasing a pane and composed by a top member , two side members and a bottom member and defining a first direction (w) parallel to a longitudinal direction of the top and bottom members corresponding to a width direction of the frame, a second direction (h) parallel to a longitudinal direction of the side members corresponding to a height direction of the frame, and a third direction (d) perpendicular to the first and second directions corresponding to a depth direction of the frame, said apparatus comprising: - a set of two mounting brackets , - a screening device including an elongated top casing provided with a set of two end pieces and adapted to extend in parallel with said first direction (w) in a mounted condition, each end piece having a body portion and a top wall extending perpendicular to the body portion , wherein the screening device during mounting is configured to be connected with said set of two mounting brackets , wherein each bracket is configured to be arranged on one of the side members of the frame , by moving the screening device with its set of end pieces substantially in the third direction (d) from a point distant from the pane to a point proximate to the pane , and each of the two end pieces further comprises a resilient arm with a first end and a second end , at least one of the first and second ends being connected to the top wall in such a manner that during installation of the screening apparatus, the resilient arm is configured to pass along a top ledge of one of the two mounting brackets so that the resilient arm is capable of flexing in a direction (Y) parallel to a first surface of the top wall , characterized in that the resilient arm is further configured to be pressed against one of the side frame members so that said resilient arm is capable of flexing in a direction (X) towards the first surface of the top wall being parallel with the body portion . - a set of two mounting brackets , - a screening device including an elongated top casing provided with a set of two end pieces and adapted to extend in parallel with said first direction (w) in a mounted condition, each end piece having a body portion and a top wall extending perpendicular to the body portion ,
Vehicle , comprising - a number of sensors arranged inside the vehicle , - the sensors being adapted for interaction (IN) with one or more persons that are located inside or in the surroundings of the vehicle , - the sensors triggering one or more unexpected functions (FU) executed by the vehicle upon an interaction (IN) between the sensors and the person , wherein the interaction (IN) is unknown or unexpected to the person at least when the function (FU) is triggered for the first time by the person , characterized in that the unexpected functions (FU) are triggered only when the vehicle stands still or when the velocity of the vehicle is below a certain value and in case the vehicle control unit considers the traffic situation as uncritical. - a number of sensors arranged inside the vehicle , - the sensors being adapted for interaction (IN) with one or more persons that are located inside or in the surroundings of the vehicle , - the sensors triggering one or more unexpected functions (FU) executed by the vehicle upon an interaction (IN) between the sensors and the person , wherein the interaction (IN) is unknown or unexpected to the person at least when the function (FU) is triggered for the first time by the person ,
Method for separating and recovering low density polyethylene and aluminium from a polylaminated material, comprising the following step: - Removing a paper layer from said polylaminated material; - Putting said polylaminated material into contact with a liquid extraction medium comprising a solvent that is able to reversibly pass from a polar and hydrophilic form to an apolar and hydrophobic form, wherein said solvent is N,N-dimethylcyclohexylamine, said solvent being initially in said apolar and hydrophobic form and being able to solubilize said low density polyethylene in said liquid extraction medium, so as to separate said low density polyethylene and said aluminium one from the other; - Modifying the polarity of said solvent to cause said solvent to pass from said apolar and hydrophobic form to said polar and hydrophilic form, so as to separate said low density polyethylene from said liquid extraction medium and enable said low density polyethylene to be removed from said liquid extraction medium, wherein said modifying the polarity of said solvent comprises adding H 2 O and bubbling CO 2 into said liquid extraction medium. - Removing a paper layer from said polylaminated material; - Putting said polylaminated material into contact with a liquid extraction medium comprising a solvent that is able to reversibly pass from a polar and hydrophilic form to an apolar and hydrophobic form, wherein said solvent is N,N-dimethylcyclohexylamine, said solvent being initially in said apolar and hydrophobic form and being able to solubilize said low density polyethylene in said liquid extraction medium, so as to separate said low density polyethylene and said aluminium one from the other; - Modifying the polarity of said solvent to cause said solvent to pass from said apolar and hydrophobic form to said polar and hydrophilic form, so as to separate said low density polyethylene from said liquid extraction medium and enable said low density polyethylene to be removed from said liquid extraction medium, wherein said modifying the polarity of said solvent comprises adding H 2 O and bubbling CO 2 into said liquid extraction medium.