mhurhangee/ep-ind-claims huggingface dataset:
Preparation vessel for a kitchen appliance, having at least one rotatable tool holder and a juicer insert which can be at least partially inserted into the preparation vessel, the juicer insert having at least one adapter element and at least one juicer tool, wherein the adapter element is designed to be coupled at least indirectly to the tool holder for transmitting a torque, wherein the juicer tool is connected to the adapter element so that a rotation of the adapter element causes a rotation of the juicer tool, characterized in that the juicer insert is designed in such a way that it can be completely inserted into the preparation vessel, and that the preparation vessel has at least one heating device with which foodstuffs that can be inserted into the preparation vessel can be heated.
A method for selecting a transmission resource based on D2D, Device-to-Device, V2X, Vehicle to Everything, or sidelink, applied to a first terminal, comprising: selecting a first transmission resource from at least one transmission resource according to an attribute configuration of the at least one transmission resource and at least one target attribute; wherein the at least one target attribute is determined based on an attribute requirement of at least part of at least one piece of the data to be transmitted; or, the at least one target attribute is determined based on the attribute requirement of the at least part of at least one logical channel containing the data to be transmitted; wherein, the at least one transmission resource is a resource pool; and performing data transmission based on the selected first transmission resource; wherein, the attribute configuration comprises a related configuration of Hybrid Automatic Repeat request, HARQ, characterized in that the related configuration of HARQ comprises at least one of following: an HARQ transmission with feedback is capable of being performed; or an HARQ transmission without feedback is capable of being performed. selecting a first transmission resource from at least one transmission resource according to an attribute configuration of the at least one transmission resource and at least one target attribute; wherein the at least one target attribute is determined based on an attribute requirement of at least part of at least one piece of the data to be transmitted; or, the at least one target attribute is determined based on the attribute requirement of the at least part of at least one logical channel containing the data to be transmitted; wherein, the at least one transmission resource is a resource pool; and performing data transmission based on the selected first transmission resource; wherein, the attribute configuration comprises a related configuration of Hybrid Automatic Repeat request, HARQ, characterized in that the related configuration of HARQ comprises at least one of following: an HARQ transmission with feedback is capable of being performed; or an HARQ transmission without feedback is capable of being performed. an HARQ transmission with feedback is capable of being performed; or an HARQ transmission without feedback is capable of being performed.
A method for a user equipment, UE, operating in a wireless communication system, the method comprising: setting a timer for downlink, DL, to a first value and a timer for uplink, UL, to a second value based on discontinuous reception, DRX, configuration information received from a base station, BS, wherein the timer for DL is used for determining DL data transmission inactivity, and the timer for UL is used for determining UL data transmission inactivity; receiving a scheduling control channel in an active time; based on that the scheduling control channel indicates a new transmission in downlink, starting or restarting the timer for DL without starting or restarting the timer for UL; and based on that the scheduling control channel indicates a new transmission in uplink, starting or restarting the timer for UL without starting or restarting the timer for DL, characterized in that in the active time, the UE is scheduled either in the uplink or in the downlink regardless of whether the active time is due to the timer for UL or the timer for DL, wherein the DRX configuration information includes a UL DRX configuration and a DL DRX configuration, wherein a DRX cycle for the DL is configured based on the DL DRX configuration and a DRX cycle for the UL is configured based on the UL DRX configuration, and wherein the DRX cycle for DL is longer than the DRX cycle for UL. setting a timer for downlink, DL, to a first value and a timer for uplink, UL, to a second value based on discontinuous reception, DRX, configuration information received from a base station, BS, wherein the timer for DL is used for determining DL data transmission inactivity, and the timer for UL is used for determining UL data transmission inactivity; receiving a scheduling control channel in an active time; based on that the scheduling control channel indicates a new transmission in downlink, starting or restarting the timer for DL without starting or restarting the timer for UL; and based on that the scheduling control channel indicates a new transmission in uplink, starting or restarting the timer for UL without starting or restarting the timer for DL, characterized in that in the active time, the UE is scheduled either in the uplink or in the downlink regardless of whether the active time is due to the timer for UL or the timer for DL, wherein the DRX configuration information includes a UL DRX configuration and a DL DRX configuration, wherein a DRX cycle for the DL is configured based on the DL DRX configuration and a DRX cycle for the UL is configured based on the UL DRX configuration, and wherein the DRX cycle for DL is longer than the DRX cycle for UL.
A system, comprising: at least one processor of a gateway; and memory storing instructions configured to instruct the at least one processor to: provide a first certificate to a client for an authentication by the client, wherein the client is configured to authenticate the first certificate prior to sending data to the gateway; receive a second certificate from the client; contact a certificate authority to authenticate the second certificate; in response to authentication of the first and second certificates, establish a connection to the client using a first key; after the connection is established, receive data, from the client, using a first transport protocol; decrypt, using the first key, the received data to provide first decrypted data; encrypt, using a second key, the first decrypted data to provide first encrypted data; encrypt, using a third key, the first encrypted data using a second transport protocol to provide second encrypted data; and send the second encrypted data to a cloud storage or server. at least one processor of a gateway; and memory storing instructions configured to instruct the at least one processor to: provide a first certificate to a client for an authentication by the client, wherein the client is configured to authenticate the first certificate prior to sending data to the gateway; receive a second certificate from the client; contact a certificate authority to authenticate the second certificate; in response to authentication of the first and second certificates, establish a connection to the client using a first key; after the connection is established, receive data, from the client, using a first transport protocol; decrypt, using the first key, the received data to provide first decrypted data; encrypt, using a second key, the first decrypted data to provide first encrypted data; encrypt, using a third key, the first encrypted data using a second transport protocol to provide second encrypted data; and send the second encrypted data to a cloud storage or server. provide a first certificate to a client for an authentication by the client, wherein the client is configured to authenticate the first certificate prior to sending data to the gateway; receive a second certificate from the client; contact a certificate authority to authenticate the second certificate; in response to authentication of the first and second certificates, establish a connection to the client using a first key; after the connection is established, receive data, from the client, using a first transport protocol; decrypt, using the first key, the received data to provide first decrypted data; encrypt, using a second key, the first decrypted data to provide first encrypted data; encrypt, using a third key, the first encrypted data using a second transport protocol to provide second encrypted data; and send the second encrypted data to a cloud storage or server.
A method for additive manufacturing of a work piece (4A, 4B,...), wherein the steps: - positioning of a starting material layer by moving a distribution means; - local bonding of said starting material layer to form a cross-section (4A, 4B,...) of the work piece to be manufactured; and - displacing a platform supporting the work piece to be manufactured against a layer building direction; are repeated multiple times, in order to manufacture the work piece, layer by layer, from the starting material; characterized in that, based on a detected oscillation (z(t)) as a change in position of the platform in the layer building direction, it is determined, if the motion of the distribution means is unperturbed or not, wherein the change in position is detected - optically, by means of an optical distance meter and/or - by electrical induction. - positioning of a starting material layer by moving a distribution means; - local bonding of said starting material layer to form a cross-section (4A, 4B,...) of the work piece to be manufactured; and - displacing a platform supporting the work piece to be manufactured against a layer building direction; - optically, by means of an optical distance meter and/or - by electrical induction.
An acoustic generator comprising: an exciter that receives an input of an electrical signal and is caused to vibrate; a rectangular vibrating portion on which the exciter is mounted and that is caused to vibrate by the vibration of the exciter; a resin layer that is provided to cover the exciter and a surface of the vibrating portion on which the exciter is mounted, and vibrates integrally with the vibrating portion and the exciter; characterized by a plurality of dampers that are mounted on a surface of the resin layer, and vibrate integrally with the vibrating portion, the exciter, and the resin layer, wherein the dampers are asymmetrically provided with respect to any axis of symmetry of a shape delineated by an outline of the vibrating portion, in a plan view of the vibrating portion from a side on which the exciter is mounted. an exciter that receives an input of an electrical signal and is caused to vibrate; a rectangular vibrating portion on which the exciter is mounted and that is caused to vibrate by the vibration of the exciter; a resin layer that is provided to cover the exciter and a surface of the vibrating portion on which the exciter is mounted, and vibrates integrally with the vibrating portion and the exciter; characterized by a plurality of dampers that are mounted on a surface of the resin layer, and vibrate integrally with the vibrating portion, the exciter, and the resin layer, wherein the dampers are asymmetrically provided with respect to any axis of symmetry of a shape delineated by an outline of the vibrating portion, in a plan view of the vibrating portion from a side on which the exciter is mounted.
A method for a Mobility Management Entity, MME, to control a connection of a User Equipment, UE, in a mobile communication system, the method comprising: predicting a length of an overload duration when an overload occurs; determining one of a plurality of reconnection types to be a reconnection type of the UE, based on the predicted length of an overload duration; and transmitting, to an evolved Node B, eNodeB, information associated with the determined reconnection type of the UE, wherein the plurality of reconnection types comprises a first wait time type in which the UE attempts reconnection to the MME after a first waiting time set in advance, a second wait time type in which the UE attempts reconnection to the MME after a second waiting time which is longer than the first waiting time, and an MME reselection type in which the UE attempts to connect to another MME that is different from the MME. predicting a length of an overload duration when an overload occurs; determining one of a plurality of reconnection types to be a reconnection type of the UE, based on the predicted length of an overload duration; and transmitting, to an evolved Node B, eNodeB, information associated with the determined reconnection type of the UE, wherein the plurality of reconnection types comprises a first wait time type in which the UE attempts reconnection to the MME after a first waiting time set in advance, a second wait time type in which the UE attempts reconnection to the MME after a second waiting time which is longer than the first waiting time, and an MME reselection type in which the UE attempts to connect to another MME that is different from the MME.
Damper to be fitted between a sound reproduction device or consumer electronics, in particular an audio play-back device, or a musical instrument and a floor space, comprising a damper insert made of an elastic material, the damper insert having a front region (21.2) and a rear region (21.1), a first elasticity of the front region (21.2) of the damper insert being lower than a second elasticity of the rear region (21.1) of the damping insert, characterized in that the damper comprises a housing to be fitted to the device or to the musical instrument, wherein the damper insert can be inserted suitably into the housing on the shell side in such a way that it makes contact with the housing on the shell side, when the housing is fitted, a front region (21.2) of the damping insert projects partly out of the housing in a direction which faces away from the device or musical instrument, and the region (21.1) of higher elasticity is enclosed completely by the housing.
A drive device of a drive rod fitting of a casement pivotable against a frame, with a drive gear, with a drive pinion of the drive gear for driving a longitudinally displaceably guided drive rod, with a housing of the drive gear to be arranged underneath a casement cover, with a drive recess in the drive pinion provided for rotationally fixed coupling with a handle and with a coupling device for coupling the drive gear with the drive rod, wherein the coupling device has a slider drivable by the drive gear, and with a fastening screw (21, 24) for connecting the housing with a component of the casement, wherein a screw head of the fastening screw (21, 24) is arranged on the housing, characterized in that the housing supports a seal of the casement and that the seal is fastened in recesses of the housing.
A tower for a wind turbine extending axially along a longitudinal axis of the wind turbine, wherein the tower comprises: a plurality of axially adjacent tower segments (7a, 7b, 7c, 7d), each tower segment (7a, 7b, 7c, 7d) extending axially between two axial ends, a respective flange being provided at one or both of said axial ends for connecting the respective tower segment (7a, 7b, 7c, 7d) to another tower segment (7a, 7b, 7c, 7d), a rail attached to an external surface of at least one tower segment (7a, 7b, 7c, 7d), the rail being provided at the flange, the rail providing a guide to which a service trolley is attachable in order to be movable along the rail. a plurality of axially adjacent tower segments (7a, 7b, 7c, 7d), each tower segment (7a, 7b, 7c, 7d) extending axially between two axial ends, a respective flange being provided at one or both of said axial ends for connecting the respective tower segment (7a, 7b, 7c, 7d) to another tower segment (7a, 7b, 7c, 7d), a rail attached to an external surface of at least one tower segment (7a, 7b, 7c, 7d), the rail being provided at the flange, the rail providing a guide to which a service trolley is attachable in order to be movable along the rail.
A single-cylinder pin-type telescopic boom track optimized control method, comprising the following steps: obtaining an initial state array A[a 1, a 2, a 3,... a j,..., a n] and a target state array B[b 1, b 2, b 3,..., b j,..., b n] of a telescopic boom; wherein, n is the number of sections of the telescopic boom, j is an integer that meets 1≤j≤n, and j represents any section of the telescopic boom; a j and b j are integers between 0~3, respectively, and represent that a section is locked via a bearing pin to one of the four pin holes in the previous section; obtaining the section n_code of the telescopic boom where a telescopic mechanism is; calculating with the following formula to obtain an intermediate parameter S x, and establishing the constrained conditions for stroke of a telescoping cylinder according to the intermediate parameter and physical relationship: S x = ∑ j x - 1 a m + Max a x b x, wherein, x=i, i-1,..., j+1; determining whether the constrained conditions are met, and adjusting the path vector for each transition from the initial state array to the target state array according to the determination result; and outputting a control signal to a pin mechanism and the telescoping cylinder according to the path vector, adjusting the coordinated action between the pin mechanism and the telescoping cylinder, so as to control the sequence of actions of the sections in the switching process from the initial state to the target state. obtaining an initial state array A[a 1, a 2, a 3,... a j,..., a n] and a target state array B[b 1, b 2, b 3,..., b j,..., b n] of a telescopic boom; wherein, n is the number of sections of the telescopic boom, j is an integer that meets 1≤j≤n, and j represents any section of the telescopic boom; a j and b j are integers between 0~3, respectively, and represent that a section is locked via a bearing pin to one of the four pin holes in the previous section; obtaining the section n_code of the telescopic boom where a telescopic mechanism is; calculating with the following formula to obtain an intermediate parameter S x, and establishing the constrained conditions for stroke of a telescoping cylinder according to the intermediate parameter and physical relationship: S x = ∑ j x - 1 a m + Max a x b x, wherein, x=i, i-1,..., j+1; determining whether the constrained conditions are met, and adjusting the path vector for each transition from the initial state array to the target state array according to the determination result; and outputting a control signal to a pin mechanism and the telescoping cylinder according to the path vector, adjusting the coordinated action between the pin mechanism and the telescoping cylinder, so as to control the sequence of actions of the sections in the switching process from the initial state to the target state.
A smoking substitute device comprising: a battery configured to energise the smoking substitute device over a plurality of operating cycles; a controller configured to: identify a puffing pattern characteristic during an operating cycle; detect the amount of energy stored in the battery; and determine the number of remaining operating cycles available to a user based on the puffing pattern characteristic and the amount of stored energy, wherein each operating cycle is associated with the consumption of an aerosol-forming article; characterised in that the controller is configured to control the length of time of each operating cycle, and the controller is further configured to compare the determined number of remaining operating cycles to a predetermined number of operating cycles and, in response, to alter the length of time of subsequent operating cycles. a battery configured to energise the smoking substitute device over a plurality of operating cycles; a controller configured to: identify a puffing pattern characteristic during an operating cycle; detect the amount of energy stored in the battery; and determine the number of remaining operating cycles available to a user based on the puffing pattern characteristic and the amount of stored energy, wherein each operating cycle is associated with the consumption of an aerosol-forming article; characterised in that the controller is configured to control the length of time of each operating cycle, and the controller is further configured to compare the determined number of remaining operating cycles to a predetermined number of operating cycles and, in response, to alter the length of time of subsequent operating cycles. identify a puffing pattern characteristic during an operating cycle; detect the amount of energy stored in the battery; and determine the number of remaining operating cycles available to a user based on the puffing pattern characteristic and the amount of stored energy, wherein each operating cycle is associated with the consumption of an aerosol-forming article; characterised in that the controller is configured to control the length of time of each operating cycle, and the controller is further configured to compare the determined number of remaining operating cycles to a predetermined number of operating cycles and, in response, to alter the length of time of subsequent operating cycles.
A guide system for guiding a pipeline from a laying vessel onto the bed of a body of water, the guide system comprising a float unit (8; 34); a trolley (12; 36), which is selectively connectable to a pipeline spanning a given path between the laying vessel and the bed of the body of water, and is designed to roll along the pipeline, parallel to the given path, to adjust the position of the float unit (8; 34) along the pipeline; and at least one motor (21; 30; 45) connected to the trolley (12; 36) to adjust the distance between the float unit (8; 34) and the laying vessel.
Filter device for filtering a medium, having a water-collecting area for collecting water separated out from the medium, and a water sensor for detecting the fill level (42; 58) of the water in the water-collecting area, in which a dividing surface is provided, with which the water-collecting area is subdivided, as viewed in the vertical direction, characterized in that the water sensor is arranged directly above the dividing surface, so that when the filter device is tilted or pivoted, a rise in the water level on an individual side of the water-collecting area, and therefore an erroneous indication of the water sensor, is avoided.