mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting discovery-related signals from a transmission point to a user equipment, UE, , wherein the transmission point is adapted to transmit at least two distinct discovery-related signals, the method being performed in the transmission point and comprising the steps of: transmitting (S1-3) a first one of the at least two distinct discovery-related signals by applying a narrow beamforming comprising spatially sweeping (S 1-3-1) a coverage area of the transmission point ; and transmitting (SI-4) a second one of the at least two distinct discovery-related signals by applying a broad beamforming comprising covering (S1-4-1), during a transmission of a broad beam, the coverage area of the transmission point , wherein the steps of transmitting are performed simultaneously in the time domain wherein the distinction between the at least two distinct discovery-related signals resides in the first one of the at least two distinct discovery-related signals being assigned to a first subset of sequences and the second one of the at least two distinct discovery-related signals being assigned to a second subset of sequences, the first subset of sequences being different from the second subset of sequences. transmitting (S1-3) a first one of the at least two distinct discovery-related signals by applying a narrow beamforming comprising spatially sweeping (S 1-3-1) a coverage area of the transmission point ; and transmitting (SI-4) a second one of the at least two distinct discovery-related signals by applying a broad beamforming comprising covering (S1-4-1), during a transmission of a broad beam, the coverage area of the transmission point , wherein the steps of transmitting are performed simultaneously in the time domain wherein the distinction between the at least two distinct discovery-related signals resides in the first one of the at least two distinct discovery-related signals being assigned to a first subset of sequences and the second one of the at least two distinct discovery-related signals being assigned to a second subset of sequences, the first subset of sequences being different from the second subset of sequences. wherein the steps of transmitting are performed simultaneously in the time domain wherein the distinction between the at least two distinct discovery-related signals resides in the first one of the at least two distinct discovery-related signals being assigned to a first subset of sequences and the second one of the at least two distinct discovery-related signals being assigned to a second subset of sequences, the first subset of sequences being different from the second subset of sequences.
A filtering medium for reducing the content of contaminants in fluids, wherein said filtering medium comprises an acid-washed iron-based powder, wherein the acid-washed iron-based powder is a hydrogen-reduced iron powder formed by washing an iron-based powder in HCI, wherein the BET surface area of the acid-washed iron-based powder is 1.2-10 m 2 /g, preferably 1.4-8 m 2 /g, preferably, 1.6-5 m 2 /g, wherein the acid-washed iron-based powder has a Fe content of at least 90% by weight, preferably at least 93% by weight, preferably at least 97% by weight, wherein the acid-washed iron-based powder has a PSE value of less than -0.03 V, preferably less than -0.04 V, preferably less than -0.05 V, with a range of -0.03 V to -0.5 V in an equilibrium condition after 48 hours, wherein PSE is defined in Volts as Eh/pH, whereby E h (V)=(ORP + E ref ) / 1000, wherein ORP is the oxidation reduction potential (mV) and E ref is 220 mV; measured in a total volume of 50 ml of deoxygenated water and 1 gram of said iron-based powder and wherein the average particle size (D50) of the acid-washed iron-based powder is 20 to 10,000 μm, preferably 20 to 500 μm, preferably 40 to 350 μm. wherein the acid-washed iron-based powder is a hydrogen-reduced iron powder formed by washing an iron-based powder in HCI, wherein the BET surface area of the acid-washed iron-based powder is 1.2-10 m 2 /g, preferably 1.4-8 m 2 /g, preferably, 1.6-5 m 2 /g, wherein the acid-washed iron-based powder has a Fe content of at least 90% by weight, preferably at least 93% by weight, preferably at least 97% by weight, wherein the acid-washed iron-based powder has a PSE value of less than -0.03 V, preferably less than -0.04 V, preferably less than -0.05 V, with a range of -0.03 V to -0.5 V in an equilibrium condition after 48 hours, wherein PSE is defined in Volts as Eh/pH, whereby E h (V)=(ORP + E ref ) / 1000, wherein ORP is the oxidation reduction potential (mV) and E ref is 220 mV; measured in a total volume of 50 ml of deoxygenated water and 1 gram of said iron-based powder and wherein the average particle size (D50) of the acid-washed iron-based powder is 20 to 10,000 μm, preferably 20 to 500 μm, preferably 40 to 350 μm.
Cable assembly comprising a first cable having a first conductor , a second cable having a second conductor and an electrically conducting joining element ; - the joining element comprising a first threaded end section and a second threaded end section opposite of the first end section ; wherein the first threaded end section is connected to the first conductor ; wherein the second threaded end section is connected to the second conductor , said cable assembly being characterized in that the first threaded end section is connected to an opening provided in the first conductor ; and wherein the second threaded end section is connected to an opening provided in the second conductor . - the joining element comprising a first threaded end section and a second threaded end section opposite of the first end section ; wherein the first threaded end section is connected to the first conductor ; wherein the second threaded end section is connected to the second conductor , said cable assembly being characterized in that the first threaded end section is connected to an opening provided in the first conductor ; and wherein the second threaded end section is connected to an opening provided in the second conductor .
Lollipop production and wrapping apparatus with a forming unit and a down-stream processing unit and a transfer wheel in between the units which rotates around a first axis , characterized in that the transfer wheel comprises a multitude of grippers which releasably hold the stick of the lollipop and which move relative to the transfer wheel, around a second axis of rotation parallel to the first axis of rotation , wherein each gripper is attached to means which moves eccentrically around the second axis of rotation the eccentric motion of the gripper, around the second axis of rotation , adjusts the degree by which the gripper moves into a holding means of the stick of the lollipop forming unit and/or into a holding means of the stick of the down-stream processing unit and/or to adjust the distance between two grippers to the gapping of the holding means at the forming unit and/or of the holding means at the down-stream processing .
Method for controlling at least one sensor disposed in an air intake or gas exhaust pipe of an internal combustion engine, so as to command the activation of at least one heating device associated with a sensor, the method comprising the following steps, implemented for each sensor to be controlled when the engine is started: - receiving (S1) : - an ambient air temperature value (T_amb), - an engine coolant temperature value (T_engine), corresponding to the temperature of a coolant leaving the engine, - an ambient air hygrometry value (H_amb), - a number of top dead centres value (TDC_CTR), - determining (S2) a target number of top dead centres (TDC_CTR_target) to be achieved, - supplying (S5) the heating device of the sensor with electric current, when the number of top dead centres value received since the engine was started (TDC_CTR) is equal to the target number of top dead centres (TDC_CTR_target), and wherein, in order to determine the target number of top dead centres (TDC_CTR_target), a number of top dead centres (TDC_CTR_target) for which the temperature of the sensor is greater than or equal to the dew point is associated with each set (T_amb, T_engine, H_amb) of ambient air temperature value, engine coolant temperature value and ambient air hygrometry value. - receiving (S1) : - an ambient air temperature value (T_amb), - an engine coolant temperature value (T_engine), corresponding to the temperature of a coolant leaving the engine, - an ambient air hygrometry value (H_amb), - a number of top dead centres value (TDC_CTR), - an ambient air temperature value (T_amb), - an engine coolant temperature value (T_engine), corresponding to the temperature of a coolant leaving the engine, - an ambient air hygrometry value (H_amb), - a number of top dead centres value (TDC_CTR), - determining (S2) a target number of top dead centres (TDC_CTR_target) to be achieved, - supplying (S5) the heating device of the sensor with electric current, when the number of top dead centres value received since the engine was started (TDC_CTR) is equal to the target number of top dead centres (TDC_CTR_target),
A method of wireless communication at a first user equipment, UE, comprising: establishing one or more unicast links with a second UE; changing a connection state with the second UE from a sidelink disconnected state to a sidelink connected state based on an establishment of a first unicast link of the one or more unicast links; changing the connection state with the second UE from the sidelink connected state to the sidelink disconnected state when each of the one or more unicast links with the second UE is released or when a configured timer expires; and the method is characterised by , sending, to a serving base station, over a radio resource control, RRC, connection with the serving base station, an indication of the change in the connection state with the second UE from the sidelink connected state to the sidelink disconnected state. establishing one or more unicast links with a second UE; changing a connection state with the second UE from a sidelink disconnected state to a sidelink connected state based on an establishment of a first unicast link of the one or more unicast links; changing the connection state with the second UE from the sidelink connected state to the sidelink disconnected state when each of the one or more unicast links with the second UE is released or when a configured timer expires; and the method is characterised by , sending, to a serving base station, over a radio resource control, RRC, connection with the serving base station, an indication of the change in the connection state with the second UE from the sidelink connected state to the sidelink disconnected state.
A self-braking gear configured to be employed in a people conveyor , comprising: an input shaft ; an output shaft ; a braking mechanism , which is configured for braking the output shaft ; and a planetary gear which is connected between the input shaft and the output shaft , characterized in that the planetary gear is configured to lock when no torque is provided via the input shaft ; the planetary gear comprises a plurality of planets with at least one eccentric shaft having a conical surface being formed on at least one of the planets ; the self-braking gear further comprises a movable disk , which is movable parallel to an axis (A) of the input shaft , wherein a groove , which is configured for receiving the at least one eccentric shaft , is formed on a surface of the movable disk facing the planetary gear ; and the groove and the at least one eccentric shaft are configured to interact in order to move the movable disk away from the planetary gear when the planetary gear is locked activating the braking mechanism in order to brake the output shaft , when no torque is provided via the input shaft . an input shaft ; an output shaft ; a braking mechanism , which is configured for braking the output shaft ; and a planetary gear which is connected between the input shaft and the output shaft , characterized in that the planetary gear is configured to lock when no torque is provided via the input shaft ; the planetary gear comprises a plurality of planets with at least one eccentric shaft having a conical surface being formed on at least one of the planets ; the self-braking gear further comprises a movable disk , which is movable parallel to an axis (A) of the input shaft , wherein a groove , which is configured for receiving the at least one eccentric shaft , is formed on a surface of the movable disk facing the planetary gear ; and the groove and the at least one eccentric shaft are configured to interact in order to move the movable disk away from the planetary gear when the planetary gear is locked activating the braking mechanism in order to brake the output shaft , when no torque is provided via the input shaft .
Method of removing an aromatic amine in the form of aniline or aniline and N-methylaniline from an aqueous leucoindigo solution comprising said aromatic amine in order to obtain a purified leucoindigo solution, wherein said leucoindigo is in the form of an alkali metal salt, the method comprising steps (A) and (B): (A) adding water to the aqueous leucoindigo solution in order to obtain a diluted leucoindigo solution; and (B) subjecting the diluted aqueous leucoindigo solution obtained in step (A) to distillation such that water is distilled off in a weight which at least equals the weight of said aqueous leucoindigo solution used in step (A), wherein the concentration of the leucoindigo salt in the solution used in step (A) is in the range of from 5 to 65 % by weight, based on the total weight of the solution; and wherein the weight of water added in step (A) and the water distilled off in step (B) are selected such that after step (B) the concentration of the leucoindigo salt in the purified solution is in the range of from 40 to 65 % by weight, based on the total weight of the solution. (A) and (B): (A) adding water to the aqueous leucoindigo solution in order to obtain a diluted leucoindigo solution; and (B) subjecting the diluted aqueous leucoindigo solution obtained in step (A) to distillation such that water is distilled off in a weight which at least equals the weight of said aqueous leucoindigo solution used in step (A), wherein the concentration of the leucoindigo salt in the solution used in step (A) is in the range of from 5 to 65 % by weight, based on the total weight of the solution; and wherein the weight of water added in step (A) and the water distilled off in step (B) are selected such that after step (B) the concentration of the leucoindigo salt in the purified solution is in the range of from 40 to 65 % by weight, based on the total weight of the solution. (A) adding water to the aqueous leucoindigo solution in order to obtain a diluted leucoindigo solution; and (B) subjecting the diluted aqueous leucoindigo solution obtained in step (A) to distillation such that water is distilled off in a weight which at least equals the weight of said aqueous leucoindigo solution used in step (A),
A sealing apparatus for use in establishing a seal around a tubular , comprising: at least two radially deployable sealing arrangements engageable with an internal wall of a tubular so as to form respective sealed areas against the internal wall and anchor the sealing apparatus against an internal wall of a tubular , the at least two sealing arrangements being radially deployable relative to a tubular ; an integral perforation arrangement for providing a perforation through the wall of the tubular within the sealed area of each of the at least two radially deployable sealing arrangements; and an integral injection arrangement for injecting sealant through a perforation within the sealed area of each of the at least two radially deployable sealing arrangements . at least two radially deployable sealing arrangements engageable with an internal wall of a tubular so as to form respective sealed areas against the internal wall and anchor the sealing apparatus against an internal wall of a tubular , the at least two sealing arrangements being radially deployable relative to a tubular ; an integral perforation arrangement for providing a perforation through the wall of the tubular within the sealed area of each of the at least two radially deployable sealing arrangements; and an integral injection arrangement for injecting sealant through a perforation within the sealed area of each of the at least two radially deployable sealing arrangements .
A method , performed by a user equipment, UE, , for communicating with one or more wireless networks using multiple radio access technologies, RATs, comprising: communicating with a first access point using a first RAT over a first connection to access a first wireless network; communicating with a second access point using a second RAT over a second connection, wherein the second connection is configured to implement traffic aggregation with the first connection based at least in part on a configuration received by the UE from the first access point; managing the second connection based at least in part on the implementation of the traffic aggregation with the first connection; wherein the first RAT is a wireless wide area network, WWAN, RAT and the second RAT is a wireless local area network, WLAN, RAT; wherein managing the second connection comprises determining whether the second connection configured to implement the traffic aggregation is prioritized over one or more other connections of the second RAT; and wherein managing the second connection comprises refraining from reporting availability of other networks of the second RAT to a selection function of the second RAT based at least in part on determining that connections of the second RAT configured to use traffic aggregation are prioritized over other connections of the second RAT. communicating with a first access point using a first RAT over a first connection to access a first wireless network; communicating with a second access point using a second RAT over a second connection, wherein the second connection is configured to implement traffic aggregation with the first connection based at least in part on a configuration received by the UE from the first access point; managing the second connection based at least in part on the implementation of the traffic aggregation with the first connection; wherein the first RAT is a wireless wide area network, WWAN, RAT and the second RAT is a wireless local area network, WLAN, RAT; wherein managing the second connection comprises determining whether the second connection configured to implement the traffic aggregation is prioritized over one or more other connections of the second RAT; and wherein managing the second connection comprises refraining from reporting availability of other networks of the second RAT to a selection function of the second RAT based at least in part on determining that connections of the second RAT configured to use traffic aggregation are prioritized over other connections of the second RAT.
A tile-based digital mapping method, comprising: generating map tiles from digital map images; storing the map tiles; receiving, from a computing system, a request for map tiles; characterized by : identifying one or more uni-color map tiles that are locally available to the computing system; serving one or more of the map tiles, in response to the map request, and in response to a requested map tile being identified as being a uni-color map tile that is locally available to the computing system, returning information to the computing system indicating that the requested tile only contains its respective color, and therefore can be replaced by a respective uni-color tile by the computing system. generating map tiles from digital map images; storing the map tiles; receiving, from a computing system, a request for map tiles; characterized by : identifying one or more uni-color map tiles that are locally available to the computing system; serving one or more of the map tiles, in response to the map request, and in response to a requested map tile being identified as being a uni-color map tile that is locally available to the computing system, returning information to the computing system indicating that the requested tile only contains its respective color, and therefore can be replaced by a respective uni-color tile by the computing system. identifying one or more uni-color map tiles that are locally available to the computing system; serving one or more of the map tiles, in response to the map request, and in response to a requested map tile being identified as being a uni-color map tile that is locally available to the computing system, returning information to the computing system indicating that the requested tile only contains its respective color, and therefore can be replaced by a respective uni-color tile by the computing system.
A solid oxide cell assembly comprising: - a housing , wherein the housing comprises a bottom plate, a cover and side walls; - solid oxide cell stacks , wherein the solid oxide cell stacks are located on the bottom plate; characterised in that - at least one radiant heating element is arranged inside the housing and radiating heat onto the solid oxide cell stacks , and - the radiant heating element is designed as a heating tube or as a heating plate, and - the radiant heating element consists of a plurality of separately controllable segments with separate power connections for the respective radiant heating segments and that the solid oxide cell arrangement is designed as a high-temperature electrolytic cell arrangement (SOEC). - a housing , wherein the housing comprises a bottom plate, a cover and side walls; - solid oxide cell stacks , wherein the solid oxide cell stacks are located on the bottom plate; - at least one radiant heating element is arranged inside the housing and radiating heat onto the solid oxide cell stacks , and - the radiant heating element is designed as a heating tube or as a heating plate, and - the radiant heating element consists of a plurality of separately controllable segments with separate power connections for the respective radiant heating segments and that the solid oxide cell arrangement is designed as a high-temperature electrolytic cell arrangement (SOEC).
An agricultural working machine for the execution of an agricultural working process, wherein the agricultural working machine is configured as a combine harvester and comprises a plurality of working units (1-5) for processing collected harvested crop and having a driver assistance system for controlling the working units (1-5) in accordance with at least one working process strategy (A) which can be specified on the user side which is aimed at fulfilling competing quality criteria (Q), wherein the driver assistance system comprises a memory for storing data and a computing device for processing the data stored in the memory , wherein the driver assistance system has a graphical user interface via which at least a part of the working process strategy (A) can be specified on the user side, characterized in that the competing quality criteria (Q) are entered into the work process strategy (A) such that they are weighted with respect to each other in accordance with a weighting variable (G) and in that the weighting variable (G) is visualized via a virtual operating element (16-19) of the graphical user interface and can be specified on the user side, the competing quality criteria include the objective of adjusting or optimizing at least one harvest process parameter from the list of harvest process parameters comprising "threshing yield", "fragmented grain fraction", "separation losses", "cleaning losses", "threshing unit drive slippage", "fuel consumption", "throughput", "cleanliness", "straw quality", and the competing quality criteria (Q) are characterized in that the fulfilment of one quality criterion (Q) counteracts the fulfilment of the other quality criterion (Q), and vice versa.