mhurhangee/patent-ind-claim-en huggingface dataset:
A server device , comprising: a communicator comprising communication circuitry configured to perform communication with a user terminal device ; a plurality of encoders configured to perform encoding in parallel; and a processor configured to sequentially allocate frames generated in real time to the plurality of encoders, and to control the communicator so that a plurality of encoded frames output in parallel from the plurality of encoders are streamed individually to the user terminal device; wherein when a re-request signal for a certain frame is received from the user terminal device, the processor is configured to continue transmitting encoded frames output from the rest of the plurality of the encoders other than the certain encoder corresponding to the certain frame, irrespective of the re-request signal and before transmitting any other encoded frames output from the certain encoder, the processor is further configured to: when the certain frame is a frame encoded in a first encoding type, first re-transmit the certain frame, and when the certain frame is a frame encoded in a second encoding type, first re-transmit the previously transmitted frame which was the first frame encoded in the first encoding type that was output from the certain encoder following the output of the certain frame. a communicator comprising communication circuitry configured to perform communication with a user terminal device ; a plurality of encoders configured to perform encoding in parallel; and a processor configured to sequentially allocate frames generated in real time to the plurality of encoders, and to control the communicator so that a plurality of encoded frames output in parallel from the plurality of encoders are streamed individually to the user terminal device; wherein when a re-request signal for a certain frame is received from the user terminal device, the processor is configured to continue transmitting encoded frames output from the rest of the plurality of the encoders other than the certain encoder corresponding to the certain frame, irrespective of the re-request signal and before transmitting any other encoded frames output from the certain encoder, the processor is further configured to: when the certain frame is a frame encoded in a first encoding type, first re-transmit the certain frame, and when the certain frame is a frame encoded in a second encoding type, first re-transmit the previously transmitted frame which was the first frame encoded in the first encoding type that was output from the certain encoder following the output of the certain frame. when the certain frame is a frame encoded in a first encoding type, first re-transmit the certain frame, and when the certain frame is a frame encoded in a second encoding type, first re-transmit the previously transmitted frame which was the first frame encoded in the first encoding type that was output from the certain encoder following the output of the certain frame.
A work machinery comprising: a work implement as a work front; a detection device (25a-25d) configured to detect an obstacle around the work machinery ; and a controller configured to control an operation of at least the work implement , wherein: the controller has a driving assistance function being adapted to, when an obstacle detected by the detection device (25a-25d) is in a preset monitoring range (26a-26d), decelerate the work implement or alert an operator, or perform both, characterized in that the controller has a work assistance function being adapted to prevent the work implement from deviating from a preset work range , and the work assistance function is switchable between enabled and disabled, and when the work assistance function is switched to enabled, the controller is configured to, for an obstacle detected in the monitoring range (26a-26d) but outside of the work range , suppress the driving assistance function in comparison with when the work assistance function is switched to disabled. a work implement as a work front; a detection device (25a-25d) configured to detect an obstacle around the work machinery ; and a controller configured to control an operation of at least the work implement , wherein: the controller has a driving assistance function being adapted to, when an obstacle detected by the detection device (25a-25d) is in a preset monitoring range (26a-26d), decelerate the work implement or alert an operator, or perform both, characterized in that the controller has a work assistance function being adapted to prevent the work implement from deviating from a preset work range , and the work assistance function is switchable between enabled and disabled, and when the work assistance function is switched to enabled, the controller is configured to, for an obstacle detected in the monitoring range (26a-26d) but outside of the work range , suppress the driving assistance function in comparison with when the work assistance function is switched to disabled. the controller has a driving assistance function being adapted to, when an obstacle detected by the detection device (25a-25d) is in a preset monitoring range (26a-26d), decelerate the work implement or alert an operator, or perform both, characterized in that the controller has a work assistance function being adapted to prevent the work implement from deviating from a preset work range , and the work assistance function is switchable between enabled and disabled, and when the work assistance function is switched to enabled, the controller is configured to, for an obstacle detected in the monitoring range (26a-26d) but outside of the work range , suppress the driving assistance function in comparison with when the work assistance function is switched to disabled.
An isolated or purified immunoglobulin single variable domain antibody, comprising a complementarity determining region (CDR) 1 sequence of GGTVSPTA (SEQ ID NO:1); a CDR2 sequence of ITWSRGTT (SEQ ID NO:2); and a CDR3 sequence of AASTFLRILPEESAYTY (SEQ ID NO:3), wherein the antibody is specific for Insulin-Like Growth Factor 1 Receptor (IGF1R) and wherein the antibody transmigrates the blood-brain barrier.
Polyisoprene, characterized in that : a vinyl bond content of the polyisoprene is 30 mol % or higher; and a ratio of the weight-average absolute molecular weight determined by GPC-MALS with respect to the weight-average molecular weight in terms of polystyrene determined by GPC [(weight-average absolute molecular weight)/(weight-average molecular weight in terms of polystyrene)] is 0850 or less. a vinyl bond content of the polyisoprene is 30 mol % or higher; and a ratio of the weight-average absolute molecular weight determined by GPC-MALS with respect to the weight-average molecular weight in terms of polystyrene determined by GPC [(weight-average absolute molecular weight)/(weight-average molecular weight in terms of polystyrene)] is 0850 or less.
Angle grinder having at least one electromotive drive acting on an output shaft , in particular an electronically commutated motor , which is intended to directly drive a tool spindle , having at least one first housing that consists of at least one first housing half shell and comprises at least one first housing part , which accommodates the electromotive drive , and a second housing part , which serves as a handle , and having a rechargeable battery serving as energy source, characterized in that a ratio of the outside diameter d 1 of the electromotive drive to the outside diameter d 2 of the second housing part is between 0.6 and 1.1, but preferably between 0.7 and 0.8, wherein the height h of the first housing part along the first axis is between 70 mm and 100 mm, wherein the length 1 of the angle grinder along the second axis is between 150 mm and 200 mm, wherein the first housing part and the second housing part are embodied as separate component units, wherein a rotational speed n at the tool spindle is greater than 12 000 min -1 , but in particular less than or equal to 20 000 min -1 .
An inductively heatable consumable for aerosol generation, the consumable comprising flavour forming particles and a susceptor in the form of a plurality of susceptor particles, wherein each susceptor particle is a combination of a rigid aerosol forming substrate layer and a susceptor layer for obtaining a rigid susceptor particle, wherein the rigid aerosol forming substrate layer has a rigidity greater than the rigidity of the susceptor layer.
A method for maintaining configuration synchronization via an on-line reconfiguration (OLR) of system configuration parameters in a communication system having at least a first communication entity and a second communication entity (104 1 , 104 2 ,...,104 N ) that employ a baseline configuration of system configuration parameters that include bit loading table (BLT), the method comprising the procedures of: monitoring changes to at least one channel characteristic in at least one communication channel (106 1 , 106 2 ,..., 106 N ) that links said first communication entity and said second communication entity; determining by said first communication entity an active configuration that is constructed based on at least one modification relative to said baseline configuration without changing said baseline configuration itself, according to at least one change to said changes to said at least one channel characteristic, where from among said baseline configuration and said active configuration, said active configuration is configured for use in encoding transmission signals; transmitting an OLR request from said first communication entity to said second communication entity via said at least one communication channel; receiving said OLR request by said second communication entity; employing said active configuration by said first communication entity and by said second communication entity determining a need for a change to said baseline configuration; wherein when said change to said baseline configuration is determined, communicating between said first communication entity and said second communication entity, an updated baseline configuration, and employing said updated baseline configuration by said first communication entity and by said second communication entity. monitoring changes to at least one channel characteristic in at least one communication channel (106 1 , 106 2 ,..., 106 N ) that links said first communication entity and said second communication entity; determining by said first communication entity an active configuration that is constructed based on at least one modification relative to said baseline configuration without changing said baseline configuration itself, according to at least one change to said changes to said at least one channel characteristic, where from among said baseline configuration and said active configuration, said active configuration is configured for use in encoding transmission signals; transmitting an OLR request from said first communication entity to said second communication entity via said at least one communication channel; receiving said OLR request by said second communication entity; employing said active configuration by said first communication entity and by said second communication entity determining a need for a change to said baseline configuration; wherein when said change to said baseline configuration is determined, communicating between said first communication entity and said second communication entity, an updated baseline configuration, and employing said updated baseline configuration by said first communication entity and by said second communication entity.
A clinching machine comprising: (a) a piston cylinder ; (b) a piston moveable within the cylinder; (c) multiple jaws , at least one of which is moveable relative to the piston cylinder; (d) a workpiece clinching punch mounted to one of the jaws; (e) a workpiece clinching die mounted to another of the jaws; characterized in that the clinching machine comprises: (f) a cam moveable with the piston, between a retracted position and an advanced position, to cause opening and closing of the at least one moveable jaw, the cam being located between portions of the jaws when the cam is in at least one of its positions; and (g) a rocker arm rotatable about a pivot from a first rocking orientation to a second rocking orientation independent of movement of the cam, the first rocking orientation allowing the at least one moveable jaw to move to a fully open position, and the second rocking orientation allowing the at least one moveable jaw to move to an intermediate open position which is less than the fully open position. (a) a piston cylinder ; (b) a piston moveable within the cylinder; (c) multiple jaws , at least one of which is moveable relative to the piston cylinder; (d) a workpiece clinching punch mounted to one of the jaws; (e) a workpiece clinching die mounted to another of the jaws; (f) a cam moveable with the piston, between a retracted position and an advanced position, to cause opening and closing of the at least one moveable jaw, the cam being located between portions of the jaws when the cam is in at least one of its positions; and (g) a rocker arm rotatable about a pivot from a first rocking orientation to a second rocking orientation independent of movement of the cam, the first rocking orientation allowing the at least one moveable jaw to move to a fully open position, and the second rocking orientation allowing the at least one moveable jaw to move to an intermediate open position which is less than the fully open position.
A data processing apparatus configured to: encrypt storage target data to generate encrypted data, the data processing apparatus comprising: an index bit sequence generation unit configured to perform a predetermined calculation for a keyword to generate a bit sequence to be used as an index in searching for the encrypted data to be stored in a data storage apparatus as an index bit sequence, associating the index bit sequence with the encrypted data, wherein the data processing apparatus is configured to extract the keyword from the storage target data and generate an encrypted tag based on the keyword and a random number; an index bit sequence encryption unit configured to encrypt a plurality of bit values in the index bit sequence; and a transmission unit configured to transmit to the data storage apparatus, the encrypted index bit sequence, the encrypted tag and the encrypted data, the encrypted index bit sequence being the index bit sequence after the plurality of bit values is encrypted by the index bit sequence encryption unit, characterized in that the index bit sequence encryption unit is configured to encrypt the plurality of bit values in the index bit sequence using an index key of a common key scheme; and the data processing apparatus is configured to generate the encrypted tag by encrypting the extracted keyword using the random number and an encryption key. an index bit sequence generation unit configured to perform a predetermined calculation for a keyword to generate a bit sequence to be used as an index in searching for the encrypted data to be stored in a data storage apparatus as an index bit sequence, associating the index bit sequence with the encrypted data, wherein the data processing apparatus is configured to extract the keyword from the storage target data and generate an encrypted tag based on the keyword and a random number; an index bit sequence encryption unit configured to encrypt a plurality of bit values in the index bit sequence; and a transmission unit configured to transmit to the data storage apparatus, the encrypted index bit sequence, the encrypted tag and the encrypted data, the encrypted index bit sequence being the index bit sequence after the plurality of bit values is encrypted by the index bit sequence encryption unit, characterized in that the index bit sequence encryption unit is configured to encrypt the plurality of bit values in the index bit sequence using an index key of a common key scheme; and the data processing apparatus is configured to generate the encrypted tag by encrypting the extracted keyword using the random number and an encryption key.
Expanded polymer beads obtained from solid polymer beads, characterised by comprising cells having an average size less than 1 μm, and a relative density less than 0.25, wherein the relative density is the ratio between the density of the expanded polymer beads with respect to the density of the solid polymer beads; and a solid skin with a thickness less than 5 μm, wherein the average size, the relative density and the thickness of the solid skin are determined as defined in the description.
A method of controlling a robot configured to clean a hull of a vessel whilst travelling over said hull, the method performed by a processor and comprising: receiving (S402) input data; during cleaning being performed by the robot, detecting that said cleaning being performed by the robot is to be paused based on determining (S404), from the input data, that the robot is at risk of damage based on at least one of (i) location information defining a geographical location of the vessel, (ii) location information defining a location of the robot on the hull of the vessel and input information indicative that the vessel will start to move within a predetermined time period, and (iii) environmental data relating to an environment of the vessel; in response to said detecting that cleaning being performed by the robot is to be paused, outputting (S406) a pause cleaning signal indicating that said cleaning is to be paused; receiving (S408) further input data; whilst said cleaning is paused, detecting that cleaning performed by the robot is to be restarted based on determining (S410), from the further input data, that the robot is no longer at risk of damage; and in response to said detecting that cleaning being performed by the robot is to be restarted, outputting (S412) a restart cleaning signal indicating that said cleaning is to be restarted. receiving (S402) input data; during cleaning being performed by the robot, detecting that said cleaning being performed by the robot is to be paused based on determining (S404), from the input data, that the robot is at risk of damage based on at least one of (i) location information defining a geographical location of the vessel, (ii) location information defining a location of the robot on the hull of the vessel and input information indicative that the vessel will start to move within a predetermined time period, and (iii) environmental data relating to an environment of the vessel; in response to said detecting that cleaning being performed by the robot is to be paused, outputting (S406) a pause cleaning signal indicating that said cleaning is to be paused; receiving (S408) further input data; whilst said cleaning is paused, detecting that cleaning performed by the robot is to be restarted based on determining (S410), from the further input data, that the robot is no longer at risk of damage; and in response to said detecting that cleaning being performed by the robot is to be restarted, outputting (S412) a restart cleaning signal indicating that said cleaning is to be restarted.
Solar unit , comprising multiple photo voltaic modules for generating electric energy, a solar antenna for generating electric energy, said solar unit being characterized in that the solar antenna comprises a graphene layer , an insulation layer and a carrying means , wherein the insulation layer is arranged between the graphene layer and the carrying means , wherein electric energy generated by the photo voltaic modules and the solar antenna is feed into a common electric lead, the carrying means is a back sheet connecting cells of multiple photovoltaic modules , wherein at least one string is arranged on one side of the cells of each photovoltaic module , wherein the back sheet is arranged on the opposing side of each of said cells , wherein the photo voltaic modules are spaced apart from each other, wherein an intermediate space between said photovoltaic modules is present, wherein the solar antenna , in particular a plurality of solar antennas , is arranged in said intermediate space. a graphene layer , an insulation layer and a carrying means , wherein the insulation layer is arranged between the graphene layer and the carrying means ,
A method for setup of a group of lighting devices by an electronic device , the method comprising: transmitting (S102), to each of the lighting devices , unique control signals instructing On/Off operations of each of the lighting devices ; acquiring (S104) images of eac of the lighting devices , wherein the images include On/Off related information of said lighting devices ; extracting the On/Off related information from the images; and determining (S106) a group of one or more lighting devices among the lighting devices , wherein each lighting device in the group has received a corresponding control signal for instructing On/Off operations, by matching the On/Off related information extracted from the images with the control signal of each of said lighting devices; characterised in that the On/Off related information comprises at least one of an On/Off frequency of a lighting device, and an On/Off duty cycle of a lighting device, and wherein the On/Off related information is acquired by at least one of a camera sensor and an illumination sensor. transmitting (S102), to each of the lighting devices , unique control signals instructing On/Off operations of each of the lighting devices ; acquiring (S104) images of eac of the lighting devices , wherein the images include On/Off related information of said lighting devices ; extracting the On/Off related information from the images; and determining (S106) a group of one or more lighting devices among the lighting devices , wherein each lighting device in the group has received a corresponding control signal for instructing On/Off operations, by matching the On/Off related information extracted from the images with the control signal of each of said lighting devices; characterised in that the On/Off related information comprises at least one of an On/Off frequency of a lighting device, and an On/Off duty cycle of a lighting device, and wherein the On/Off related information is acquired by at least one of a camera sensor and an illumination sensor.
A lice comb 10 comprising: a housing 12 having a planar lower wall portion 14, an upper wall portion 16 and a side wall portion 18 extending between the upper and lower wall portions 14, 16; a comb unit 20 comprising a blade 22 having a plurality of teeth 24, the blade 22 being moveable from a retracted position, in which the blade 22 is parallel to the lower wall portion 14, and an extended position, in which the blade 22 extends at an angle away from the lower wall portion 14; and a fan unit within the housing 12 such that the fan unit operates to draw air inwardly through an opening 30 in the lower wall portion 14 adjacent the comb unit 20; wherein when the blade 22 is in the extended position, the housing 12 may be moved to draw the teeth 24 through hair such that lice captured by the teeth 24 are drawn in through the opening 30. a housing 12 having a planar lower wall portion 14, an upper wall portion 16 and a side wall portion 18 extending between the upper and lower wall portions 14, 16; a comb unit 20 comprising a blade 22 having a plurality of teeth 24, the blade 22 being moveable from a retracted position, in which the blade 22 is parallel to the lower wall portion 14, and an extended position, in which the blade 22 extends at an angle away from the lower wall portion 14; and a fan unit within the housing 12 such that the fan unit operates to draw air inwardly through an opening 30 in the lower wall portion 14 adjacent the comb unit 20; wherein when the blade 22 is in the extended position, the housing 12 may be moved to draw the teeth 24 through hair such that lice captured by the teeth 24 are drawn in through the opening 30.
In vitro use of a circRNA comprising the sequence SEQ ID NO: 1 as a biomarker for the diagnosis of multiple sclerosis (MS).