mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic parcel locker comprising: - an outside enclosure constituted of two side panels , of a bottom panel , of a top panel and of a back panel fastened together and defining a front aperture of said electronic parcel locker, and - an internal structure for supporting parcels deposited in said electronic parcel locker, characterized in that said internal structure is constituted of an array of bars with a same length regularly aligned essentially perpendicularly to said back panel and selectively movable between extended positions where front ends of said array of bars are aligned with said front aperture of said electronic parcel locker, and retractable positions where bars of said array of bars corresponding to shapes of parcels to be deposited in said electronic parcel locker are retractable towards said back panel for defining temporary compartments exactly adapted to said shapes of parcels. - an outside enclosure constituted of two side panels , of a bottom panel , of a top panel and of a back panel fastened together and defining a front aperture of said electronic parcel locker, and - an internal structure for supporting parcels deposited in said electronic parcel locker,
A method of transmitting a reference signal, the method being performed by network device, the method comprising: transmitting a reference signal to a user equipment, wherein, the reference signal is transmitted through a preset number of consecutive subframes, and the reference signal is used for the user equipment to perform synchronization tracking, characterized in that , transmitting the reference signal to the user equipment comprises: transmitting the reference signal to the user equipment during a transition process of the user equipment from an inactive state to an active state, wherein, transmitting the reference signal to the user equipment during the transition process of the user equipment from the inactive state to the active state comprises: transmitting the reference signal to the user equipment after transmitting a wake-up signal to the user equipment, wherein, each subframe of the preset number of consecutive subframes comprises one slot or multiple consecutive slots, and each slot of the one slot or the multiple consecutive slots comprises one or more symbols containing the reference signal. transmitting a reference signal to a user equipment, wherein, the reference signal is transmitted through a preset number of consecutive subframes, and the reference signal is used for the user equipment to perform synchronization tracking, characterized in that , transmitting the reference signal to the user equipment comprises: transmitting the reference signal to the user equipment during a transition process of the user equipment from an inactive state to an active state, wherein, transmitting the reference signal to the user equipment during the transition process of the user equipment from the inactive state to the active state comprises: transmitting the reference signal to the user equipment after transmitting a wake-up signal to the user equipment, wherein, each subframe of the preset number of consecutive subframes comprises one slot or multiple consecutive slots, and each slot of the one slot or the multiple consecutive slots comprises one or more symbols containing the reference signal.
A key sharing device connected to a plurality of external devices through one or more paths, the plurality of external devices including a first device and a second device, the first device being directly connected to the key sharing device through a first path, the key sharing device comprising: a key storage unit configured to store cryptographic keys to be shared with the external devices; a determining unit configured to determine a second path for reaching the first device via the second device when a number of the cryptographic keys to be shared with the first device out of the cryptographic keys stored in the key storage unit is reduced to a predetermined threshold or smaller; a first generating unit configured to generate an initial key that is a new cryptographic key to be shared with the first device, the initial key being used for initiating a cryptographic key sharing function; an encrypting unit configured to encrypt the initial key by using the cryptographic key shared with the second device; and a first transmitting unit configured to transmit the encrypted initial key to the second device by addressing to the first device as a destination through the second a key storage unit configured to store cryptographic keys to be shared with the external devices; a determining unit configured to determine a second path for reaching the first device via the second device when a number of the cryptographic keys to be shared with the first device out of the cryptographic keys stored in the key storage unit is reduced to a predetermined threshold or smaller; a first generating unit configured to generate an initial key that is a new cryptographic key to be shared with the first device, the initial key being used for initiating a cryptographic key sharing function; an encrypting unit configured to encrypt the initial key by using the cryptographic key shared with the second device; and a first transmitting unit configured to transmit the encrypted initial key to the second device by addressing to the first device as a destination through the second
A Method for configuring the communication between at least one actuator and a remote control , to allow control of the at least one actuator from the remote control , the at least one actuator being configured to communicate with the remote control , the communication between the at least one actuator and the remote control being established according to a first protocol (P1) or according to a second protocol (P2), the communication according to the second protocol (P2) being implemented via a connection to a router connected to the sector, the method being characterized by the fact that it is implemented by a mobile terminal , the mobile terminal being configured to communicate according to the first protocol (P1) with the at least one actuator , and with the remote control , the mobile terminal being configured to communicate with the router according to the first protocol (P1) or according to a third protocol (P3), and in that the method comprises the following steps: - identification of an identifier of the at least one actuator , - identification of an identifier of the remote control , - analysis to detect a presence or an absence of the router , - if the absence of the router is detected by the mobile terminal during the analysis step , transmission to the remote control of the identifier of the least one actuator and/or transmission to the actuator of the identifier of the remote control , then transmission to the remote control and to the actuator of a request for activation of the first protocol (P1), - if the presence of the router is detected by the mobile terminal during the analysis step , transmission to the router of the identifier of the at least one actuator and of the identifier of the remote control . - identification of an identifier of the at least one actuator , - identification of an identifier of the remote control , - analysis to detect a presence or an absence of the router , - if the absence of the router is detected by the mobile terminal during the analysis step , transmission to the remote control of the identifier of the least one actuator and/or transmission to the actuator of the identifier of the remote control , then transmission to the remote control and to the actuator of a request for activation of the first protocol (P1), - if the presence of the router is detected by the mobile terminal during the analysis step , transmission to the router of the identifier of the at least one actuator and of the identifier of the remote control .
Nanocomposite paints with micro slime layer control properties in the form of fouling release coatings, which are two-part epoxy coatings where the first part is the epoxy resin (component A) and the second part is the curing agent (hardener) which contains aromatic- and/or alkyl- functionalized polyamines (component B) Where the hardener is modified with - hydrophobic nanoparticles based on hyperbranched dendritic polymers with symmetric or asymmetric architecture or - inorganic nanoparticles decorated with hydrophobic moieties, characterized in that the hydrophobic polymeric nanoparticles used to modify component B, comprise functionalized dendritic polymers with symmetrical or asymmetrical architecture, derived from commercially available dendritic polymers, such as: • Hyperbranched polyethylenimine with molecular weight 400-750.000 Da, • Diaminobutane propyleneimine dendrimers (DAB) with molecular weight 200-7.000 Da, • Poly(amido amine) (PAMAM) dendrimers with molecular weight 200-150.000 Da, • Hyperbranched dendritic polyglycerols with molecular weight 200-100.000 Da • Hyperbranched dendritic polyesters with molecular weight 200-200.000 Da • other dendritic polymers exhibiting similar characteristics, which are functionalized with hydrophobic groups such as alkyl chains with 8 to 22 carbon atoms or fluoroalkyl chains with 11 to 45 fluoro atoms or other hydrophobic groups, at 40-100% molecular coverage. wherein such nanocomposite paints are used as fouling release coating applied to objects submerged in water such as the vessel hulls, sea platforms, bridge, underwater structures (e.g. propeller, aquaculture chambers) etc - hydrophobic nanoparticles based on hyperbranched dendritic polymers with symmetric or asymmetric architecture or - inorganic nanoparticles decorated with hydrophobic moieties, characterized in that the hydrophobic polymeric nanoparticles used to modify component B, comprise functionalized dendritic polymers with symmetrical or asymmetrical architecture, derived from commercially available dendritic polymers, such as: • Hyperbranched polyethylenimine with molecular weight 400-750.000 Da, • Diaminobutane propyleneimine dendrimers (DAB) with molecular weight 200-7.000 Da, • Poly(amido amine) (PAMAM) dendrimers with molecular weight 200-150.000 Da, • Hyperbranched dendritic polyglycerols with molecular weight 200-100.000 Da • Hyperbranched dendritic polyesters with molecular weight 200-200.000 Da • other dendritic polymers exhibiting similar characteristics, • Hyperbranched polyethylenimine with molecular weight 400-750.000 Da, • Diaminobutane propyleneimine dendrimers (DAB) with molecular weight 200-7.000 Da, • Poly(amido amine) (PAMAM) dendrimers with molecular weight 200-150.000 Da, • Hyperbranched dendritic polyglycerols with molecular weight 200-100.000 Da • Hyperbranched dendritic polyesters with molecular weight 200-200.000 Da • other dendritic polymers exhibiting similar characteristics,
A method for preparation of an LKMNO cathode material with general formula Li 1-x K x Mn 2-y Ni y O 4 , where 0.01 ≤ x ≤ 0.15 and 0.01 ≤ y ≤ 0.2, having a high energy density, characterised in that stoichiometric weighed amounts of lithium, potassium, manganese and nickel precursors are dissolved in a minimal amount of water, ensuring a total dissolution of the substrates, and simultaneously, a protective atmosphere of an inert gas is used, and then, an ammonia solution having a concentration of 15-28% is introduced to the solution, until a pH value in the range of 8.5-11 is obtained, and next, after 30-60 min, the formed sol is subjected to polycondensation, aging and drying processes, until a xerogel is obtained, which is calcinated subsequently in the temperature range of 200-900°C.
A pyrolysis retort structure constructed, at least in part, of a sheet of a high thermal conductivity metal explosively welded, at a first side of the sheet of a high thermal conductivity metal, to a framework of a high temperature strength metal, the first side of the sheet of a high thermal conductivity metal being exposed through regions of the framework of high temperature strength metal, wherein said retort is a rotatable retort .
A cursor display method, comprising: displaying a first cursor on a display interface ; moving the first cursor toward a first control on the display interface in response to a received first user operation; after detecting that a center of the first cursor moves to an edge of the first control , performing a dynamic effect of cursor jumping into the first control by canceling the displaying of the first cursor and displaying a second cursor (801 1502, 1704) in the first control , wherein shape and size of the first cursor are the same as shape and size of the second cursor (801 1502, 1704); gradually enlarging and deforming the second cursor (801 1502, 1704) in the first control to obtain a third cursor (801 1502, 1704), wherein a size of the third cursor (801 1502, 1704) is less than a size of the first control ; and moving the third cursor (801 1502, 1704) in the first control in response to a received third user operation. displaying a first cursor on a display interface ; moving the first cursor toward a first control on the display interface in response to a received first user operation; after detecting that a center of the first cursor moves to an edge of the first control , performing a dynamic effect of cursor jumping into the first control by canceling the displaying of the first cursor and displaying a second cursor (801 1502, 1704) in the first control , wherein shape and size of the first cursor are the same as shape and size of the second cursor (801 1502, 1704); gradually enlarging and deforming the second cursor (801 1502, 1704) in the first control to obtain a third cursor (801 1502, 1704), wherein a size of the third cursor (801 1502, 1704) is less than a size of the first control ; and moving the third cursor (801 1502, 1704) in the first control in response to a received third user operation.
A fluorocarbon management system comprising: a group of nodes , wherein each node is a computer device; and a blockchain network connecting the group of nodes , wherein in response to occurrence of a predetermined fluorocarbon-related event, an origin node related to the fluorocarbon-related event generates a transaction related to the fluorocarbon-related event, the transaction including a hash value of transaction information about the fluorocarbon-related event performed and data, in the data the hash value is encoded by a private key of the origin node , and sends the generated transaction to the blockchain network, a node that received the transaction validates the received transaction by decoding the data by a public key of the origin node held in the node , comparing the decoded data with the hash value contained in the transaction and approving the transaction when the decoded data matches the hash value, and the group of nodes add a block composed from the approved transaction to a blockchain. a group of nodes , wherein each node is a computer device; and a blockchain network connecting the group of nodes , wherein in response to occurrence of a predetermined fluorocarbon-related event, an origin node related to the fluorocarbon-related event generates a transaction related to the fluorocarbon-related event, the transaction including a hash value of transaction information about the fluorocarbon-related event performed and data, in the data the hash value is encoded by a private key of the origin node , and sends the generated transaction to the blockchain network, generates a transaction related to the fluorocarbon-related event, the transaction including a hash value of transaction information about the fluorocarbon-related event performed and data, in the data the hash value is encoded by a private key of the origin node , and a hash value of transaction information about the fluorocarbon-related event performed and data, in the data the hash value is encoded by a private key of the origin node , and sends the generated transaction to the blockchain network, a node that received the transaction validates the received transaction by decoding the data by a public key of the origin node held in the node , comparing the decoded data with the hash value contained in the transaction and approving the transaction when the decoded data matches the hash value, and decoding the data by a public key of the origin node held in the node , comparing the decoded data with the hash value contained in the transaction and approving the transaction when the decoded data matches the hash value, and the group of nodes add a block composed from the approved transaction to a blockchain.
A trigger-type liquid dispenser comprising an operating lever held swingably by a main body portion in which a pump is disposed and comprising a spring member that imparts restoring force to the operating lever , the trigger-type liquid dispenser being configured to draw, pressurize, and force-feed a content liquid contained in a container to dispense the content liquid through a nozzle , by actuating the pump in response to the operating lever being pulled repeatedly, characterized in that the main body portion includes a bearing or a shaft portion , the spring member includes at least one arm including one end having a shaft or a bearing portion held swingably by the bearing (lOg) or the shaft portion included in the main body portion , another end abutting against the operating lever , and a curved portion connecting the one end and the other end, and in response to the operating lever being pulled, the curved portion undergoes elastic deformation and swings about the shaft portion of the main body portion or the spring member , and the main body portion includes a longitudinal tube , a horizontal tube which extends toward the front and that is connected to the longitudinal tube , and a cylindrical fitting wall which extends toward the front from the longitudinal tube and holds a cylinder member below the horizontal tube , the bearing or the shaft portion is disposed between the horizontal tube and the fitting wall of the body.
A method of processing gameplay inputs during and after network disruptions, the method comprising: at a server system having one or more processors and memory storing one or more programs for execution by the one or more processors: determining, during a disruption in a network connection between the server system and a first client device , a simulated gameplay input for the first client device ; updating a first game (GS1) state based on the simulated gameplay input, resulting in a placeholder game state (GS2); receiving, upon resumption of the network connection, a recovered gameplay input made by a user of the first client device during the disruption; updating the first game state (GS1) based on the recovered gameplay input, resulting in an intended game state (GS2a); comparing the placeholder game state (GS2) to the intended game state (GS2a); updating the placeholder game state (GS2) based on the comparison of the placeholder game state (GS2) to the intended game state (GS2a), resulting in a subsequent game state (GS3); and transmitting a frame depicting the subsequent game state (GS3) to an output device associated with the first client device . determining, during a disruption in a network connection between the server system and a first client device , a simulated gameplay input for the first client device ; updating a first game (GS1) state based on the simulated gameplay input, resulting in a placeholder game state (GS2); receiving, upon resumption of the network connection, a recovered gameplay input made by a user of the first client device during the disruption; updating the first game state (GS1) based on the recovered gameplay input, resulting in an intended game state (GS2a); comparing the placeholder game state (GS2) to the intended game state (GS2a); updating the placeholder game state (GS2) based on the comparison of the placeholder game state (GS2) to the intended game state (GS2a), resulting in a subsequent game state (GS3); and transmitting a frame depicting the subsequent game state (GS3) to an output device associated with the first client device .
An information processing apparatus , comprising a weight calculator configured to calculate a weight for each of a plurality of sensors on a basis of characteristics of the sensor; a weight combiner configured to combine respective observation values of the plurality of sensors using a sum of products of the observation values of the plurality of sensors and the weights, each weight being calculated for a corresponding one of the plurality of sensors on a basis of the observation value of the corresponding one of the plurality of sensors and characteristics of the corresponding one of the plurality of sensors, and output a value obtained by the combining as a combining observation value, wherein the weight calculator further includes an Allan variance calculator configured to calculate an Allan variance of the observation value of each of the plurality of sensors as the characteristics of the sensor, and a weight determination section configured to calculate and determine the weight for the sensor on a basis of the Allan variance calculated by the Allan variance calculator . a weight calculator configured to calculate a weight for each of a plurality of sensors on a basis of characteristics of the sensor; a weight combiner configured to combine respective observation values of the plurality of sensors using a sum of products of the observation values of the plurality of sensors and the weights, each weight being calculated for a corresponding one of the plurality of sensors on a basis of the observation value of the corresponding one of the plurality of sensors and characteristics of the corresponding one of the plurality of sensors, and output a value obtained by the combining as a combining observation value, wherein combine respective observation values of the plurality of sensors using a sum of products of the observation values of the plurality of sensors and the weights, each weight being calculated for a corresponding one of the plurality of sensors on a basis of the observation value of the corresponding one of the plurality of sensors and characteristics of the corresponding one of the plurality of sensors, and output a value obtained by the combining as a combining observation value, wherein the weight calculator further includes an Allan variance calculator configured to calculate an Allan variance of the observation value of each of the plurality of sensors as the characteristics of the sensor, and a weight determination section configured to calculate and determine the weight for the sensor on a basis of the Allan variance calculated by the Allan variance calculator . an Allan variance calculator configured to calculate an Allan variance of the observation value of each of the plurality of sensors as the characteristics of the sensor, and a weight determination section configured to calculate and determine the weight for the sensor on a basis of the Allan variance calculated by the Allan variance calculator .