mhurhangee/patent-ind-claim-en huggingface dataset:
Transceiver (202 1 ) of a wireless communication system, wherein the transceiver (202 1 ) is configured to operate in a sidelink in-coverage, out of coverage or partial coverage scenario, in which resources for a sidelink communication over a sidelink are pre-configured by the wireless communication system or allocated or scheduled autonomously by the transceiver, wherein the transceiver (202 1 ) is configured to receive, in the sidelink in-coverage, out of coverage or partial coverage scenario, sidelink signals from at least one other transceiver (202 2 ) of the wireless communication system using a discontinuous reception, DRX, mode of operation, wherein the transceiver (202 1 ) is configured to adjust at least one parameter of a sidelink discontinuous reception, DRX, cycle describing periods during which sidelink signals are received in the discontinuous reception, DRX, mode of operation in dependence on at least one other discontinuous reception, DRX, cycle used by the at least one other transceiver (202 2 ), wherein the transceiver (202 1 ) is configured to transmit a sidelink control signal to the at least one other transceiver (202 2 ), the sidelink control signal comprising an information describing the discontinuous reception, DRX, cycle used by the transceiver, wherein the transceiver (202 1 ) is a user equipment. wherein the transceiver (202 1 ) is configured to operate in a sidelink in-coverage, out of coverage or partial coverage scenario, in which resources for a sidelink communication over a sidelink are pre-configured by the wireless communication system or allocated or scheduled autonomously by the transceiver, wherein the transceiver (202 1 ) is configured to receive, in the sidelink in-coverage, out of coverage or partial coverage scenario, sidelink signals from at least one other transceiver (202 2 ) of the wireless communication system using a discontinuous reception, DRX, mode of operation, wherein the transceiver (202 1 ) is configured to adjust at least one parameter of a sidelink discontinuous reception, DRX, cycle describing periods during which sidelink signals are received in the discontinuous reception, DRX, mode of operation in dependence on at least one other discontinuous reception, DRX, cycle used by the at least one other transceiver (202 2 ), wherein the transceiver (202 1 ) is configured to transmit a sidelink control signal to the at least one other transceiver (202 2 ), the sidelink control signal comprising an information describing the discontinuous reception, DRX, cycle used by the transceiver, wherein the transceiver (202 1 ) is a user equipment.
A controller for a DC converter , wherein the DC converter comprises an input (E), an output (A) and a connection to ground (GND), and also at least two half-bridges each with two switching elements (TR1..TR4) connected in series between the input (E) and the connection to ground (GND), and one inductance (L1 , L2) per half-bridge connected with the point connecting the switching elements (TR1..TR4) and the output (A) of the DC converter, and wherein the controller is equipped for purposes of alternating activation of the switching elements (TR1..TR4), characterised in that the controller is equipped to measure the currents (IL1 , IL2) through each of the inductances (L1 , L2), and to control each of the half-bridges such that a) the switching element (TR2, TR4) positioned on the ground side into an off-state, if the current (IL1 , IL2) is flowing from the output (A) to the associated inductance (L1 , L2) and has achieved a first specifiable magnitude that is greater than zero, and b) the switching element (TR1 , TR3) positioned on the input side into an off-state, if the current (IL1 , IL2) is flowing from the associated inductance (L1 , L2), to the output (A) and has achieved a second specifiable magnitude (Ipk) that is greater than zero. a) the switching element (TR2, TR4) positioned on the ground side into an off-state, if the current (IL1 , IL2) is flowing from the output (A) to the associated inductance (L1 , L2) and has achieved a first specifiable magnitude that is greater than zero, and b) the switching element (TR1 , TR3) positioned on the input side into an off-state, if the current (IL1 , IL2) is flowing from the associated inductance (L1 , L2), to the output (A) and has achieved a second specifiable magnitude (Ipk) that is greater than zero.
A method for guiding scanning of an intraoral cavity of a patient, the method comprising: capturing one or more viewfinder images of one or more portions of the intraoral cavity of the patient, each of said one or more viewfinder images corresponding to a field of view of an intraoral scanner; scanning, using confocal optics, the one or more portions of the intraoral cavity with the intraoral scanner to generate one or more topography scans of the one or more portions of the intraoral cavity, the one or more topography scans corresponding to the one or more viewfinder images; capturing a viewfinder image of a portion of the intraoral cavity, the viewfinder image overlapping with the one or more viewfinder images; determining an area of overlap of the viewfinder image with the one or more viewfinder images; displaying one or more indicators of the area of overlap on one or more locations of a display in order to provide guidance for positioning the field of view of the intraoral scanner; wherein the one or more indicators comprise a warning indicator if the area of overlap is smaller than a predetermined amount. capturing one or more viewfinder images of one or more portions of the intraoral cavity of the patient, each of said one or more viewfinder images corresponding to a field of view of an intraoral scanner; scanning, using confocal optics, the one or more portions of the intraoral cavity with the intraoral scanner to generate one or more topography scans of the one or more portions of the intraoral cavity, the one or more topography scans corresponding to the one or more viewfinder images; capturing a viewfinder image of a portion of the intraoral cavity, the viewfinder image overlapping with the one or more viewfinder images; determining an area of overlap of the viewfinder image with the one or more viewfinder images; displaying one or more indicators of the area of overlap on one or more locations of a display in order to provide guidance for positioning the field of view of the intraoral scanner; wherein the one or more indicators comprise a warning indicator if the area of overlap is smaller than a predetermined amount.
A glass panel unit , comprising: a first substrate including a first glass plate ; a second substrate including a second glass plate and being located to face the first substrate ; a seal member having a frame shape, the seal member hermetically binding peripheral portions of the first substrate and the second substrate together to form an inside space hermetically closed in a reduced pressure state between the first substrate and the second substrate ; and a plurality of pillars being disposed in the inside space and being in contact with facing surfaces of the first substrate and the second substrate , the facing surfaces facing each other, wherein the facing surface of the first substrate including a rough surface , each of the plurality of pillars including a body made of a resin and a protection layer being on the body to be in contact with the rough surface , wherein the protection layer has a thickness greater than an arithmetic mean roughness of the rough surface . a first substrate including a first glass plate ; a second substrate including a second glass plate and being located to face the first substrate ; a seal member having a frame shape, the seal member hermetically binding peripheral portions of the first substrate and the second substrate together to form an inside space hermetically closed in a reduced pressure state between the first substrate and the second substrate ; and a plurality of pillars being disposed in the inside space and being in contact with facing surfaces of the first substrate and the second substrate , the facing surfaces facing each other, wherein the facing surface of the first substrate including a rough surface , each of the plurality of pillars including a body made of a resin and a protection layer being on the body to be in contact with the rough surface , wherein a body made of a resin and a protection layer being on the body to be in contact with the rough surface , wherein the protection layer has a thickness greater than an arithmetic mean roughness of the rough surface .
A process for hydrogenating a dinitrile comprising contacting the dinitrile with hydrogen over catalyst comprising at least 90 wt.% iron in the presence of promoter comprising at least one selected from alkali metal and alkaline earth metal promoters, wherein: a. the sum of the concentration of the promoters is from 0.3% to 0.7% of the total weight of catalyst; and b. the promoter is present depending on the choice of the cation promoter, such that at least one of the following apply: i. the promoter contains calcium and sodium, more calcium is present than sodium on a molar equivalent basis, and (a) the catalyst comprises at least 200 ppmw sodium and/or (b) the catalyst comprises at least 1000 ppmw calcium; ii. the promoter contains calcium and potassium, more calcium is present than potassium on a molar equivalent basis, and (a) the catalyst comprises at least 200 ppmw potasium and/or (b) the catalyst comprises at least 1000 ppmw calcium; and iii. the promoter contains calcium and magnesium, and the catalyst comprises at least 1000 ppmw calcium. a. the sum of the concentration of the promoters is from 0.3% to 0.7% of the total weight of catalyst; and b. the promoter is present depending on the choice of the cation promoter, such that at least one of the following apply: i. the promoter contains calcium and sodium, more calcium is present than sodium on a molar equivalent basis, and (a) the catalyst comprises at least 200 ppmw sodium and/or (b) the catalyst comprises at least 1000 ppmw calcium; ii. the promoter contains calcium and potassium, more calcium is present than potassium on a molar equivalent basis, and (a) the catalyst comprises at least 200 ppmw potasium and/or (b) the catalyst comprises at least 1000 ppmw calcium; and iii. the promoter contains calcium and magnesium, and the catalyst comprises at least 1000 ppmw calcium. i. the promoter contains calcium and sodium, more calcium is present than sodium on a molar equivalent basis, and (a) the catalyst comprises at least 200 ppmw sodium and/or (b) the catalyst comprises at least 1000 ppmw calcium; ii. the promoter contains calcium and potassium, more calcium is present than potassium on a molar equivalent basis, and (a) the catalyst comprises at least 200 ppmw potasium and/or (b) the catalyst comprises at least 1000 ppmw calcium; and iii. the promoter contains calcium and magnesium, and the catalyst comprises at least 1000 ppmw calcium.
An operation system comprising: a game controller ; and a connected device connected to the game controller, the connected device including a first battery (V2) for supplying electric power to the game controller, a first terminal electrically connected to the game controller, and a first resistor (R2) connected to the first terminal and connected to ground, the game controller including a control circuit , a second battery (V1) for supplying electric power to the control circuit, a second terminal electrically connected to the connected device, a second resistor (R1), a voltage detector detecting a voltage value based on a division of the resistances of the first and second resistors (R1, R2) when a current flows through the first and second resistors (R1, R2) toward ground when the first terminal and the second terminal are connected to each other, a discrimination unit discriminating a device connected to the game controller based on the voltage value detected by the voltage detector, and a switching unit (SW1, SW2) making switching from the second battery to the first battery for supply of electric power to the control circuit when the device discriminated by the discrimination unit is the connected device while electric power is supplied from the second battery to the control circuit. a game controller ; and a connected device connected to the game controller, the connected device including a first battery (V2) for supplying electric power to the game controller, a first terminal electrically connected to the game controller, and a first resistor (R2) connected to the first terminal and connected to ground, the game controller including a control circuit , a second battery (V1) for supplying electric power to the control circuit, a second terminal electrically connected to the connected device, a second resistor (R1), a voltage detector detecting a voltage value based on a division of the resistances of the first and second resistors (R1, R2) when a current flows through the first and second resistors (R1, R2) toward ground when the first terminal and the second terminal are connected to each other, a discrimination unit discriminating a device connected to the game controller based on the voltage value detected by the voltage detector, and a switching unit (SW1, SW2) making switching from the second battery to the first battery for supply of electric power to the control circuit when the device discriminated by the discrimination unit is the connected device while electric power is supplied from the second battery to the control circuit.
An apparatus configured to be employed in a User Equipment, UE, (502 1 ) comprising: one or more processors configured to: generate a Direct Communication Request for a connection to a peer UE (502 2 ), wherein the Direct Communication Request indicates security capabilities of the UE and a signaling security policy of the UE; receive a Direct Security Mode Reject message from the peer UE, when the peer UE rejects the Direct Communication Request based on a comparison of a security policy of the peer UE with the signaling security policy of the UE or with the security capabilities of the UE; process a Direct Security Mode Command from the peer UE, wherein the Direct Security Mode Command indicates the security capabilities of the UE, the signaling security policy of the UE and a set of chosen algorithms for data protection; determine whether to accept the connection, based at least on the signaling security policy of the UE; and in response to a determination to accept the connection, generate a Direct Security Mode Complete message for the peer UE based at least on the set of chosen algorithms. generate a Direct Communication Request for a connection to a peer UE (502 2 ), wherein the Direct Communication Request indicates security capabilities of the UE and a signaling security policy of the UE; receive a Direct Security Mode Reject message from the peer UE, when the peer UE rejects the Direct Communication Request based on a comparison of a security policy of the peer UE with the signaling security policy of the UE or with the security capabilities of the UE; process a Direct Security Mode Command from the peer UE, wherein the Direct Security Mode Command indicates the security capabilities of the UE, the signaling security policy of the UE and a set of chosen algorithms for data protection; determine whether to accept the connection, based at least on the signaling security policy of the UE; and in response to a determination to accept the connection, generate a Direct Security Mode Complete message for the peer UE based at least on the set of chosen algorithms.
Device for controlling a gap filler with which a door of a railway vehicle is to be equipped, said control device comprising: - detection means for detecting a platform , which means are capable of providing detection information, and - means for controlling the deployment of the gap filler between a retracted position and a deployed position according to said detection information, characterised in that the detection means comprise: - a wave transmitter which is to be arranged in the vicinity of the door and is capable of transmitting waves in at least two detection planes (A, B, C, D) of a detection zone which pass through the wave transmitter , - a wave receiver arranged to receive, in each detection plane (A, B, C, D), waves transmitted by the wave transmitter and reflected by contours of objects present in that detection plane (A, B, C, D), and - a processing unit capable of defining, for each detection plane (A, B, C, D), at least one acquired image corresponding to the contours that have reflected the waves received by the receiver , the detection information being a function of each acquired image . - detection means for detecting a platform , which means are capable of providing detection information, and - means for controlling the deployment of the gap filler between a retracted position and a deployed position according to said detection information, characterised in that the detection means comprise: - a wave transmitter which is to be arranged in the vicinity of the door and is capable of transmitting waves in at least two detection planes (A, B, C, D) of a detection zone which pass through the wave transmitter , - a wave receiver arranged to receive, in each detection plane (A, B, C, D), waves transmitted by the wave transmitter and reflected by contours of objects present in that detection plane (A, B, C, D), and - a processing unit capable of defining, for each detection plane (A, B, C, D), at least one acquired image corresponding to the contours that have reflected the waves received by the receiver , the detection information being a function of each acquired image .
A method comprising: Identifying measurement setups which correspond to each other in wafer metrology measurement values of at least one metric by applying a self-consistency test to the measurement values, to yield a plurality of clusters of setups, determining a most reliable cluster according to statistical characteristics of the clusters, and deriving a measurement result from at least one setup in the determined most reliable cluster. Identifying measurement setups which correspond to each other in wafer metrology measurement values of at least one metric by applying a self-consistency test to the measurement values, to yield a plurality of clusters of setups, determining a most reliable cluster according to statistical characteristics of the clusters, and deriving a measurement result from at least one setup in the determined most reliable cluster.
A method for use in a base station, the method comprising: predefining one or a plurality downlink control channel signaling window lengths; determining, for each window length, a start position of a window in which repetition of download control signal is allowed based on the determined control channel signaling window length; and causing transmission of repetition of download control signal in a window predefined by length and determined by respective start position; characterized by receiving a signaling of the window length from a user equipment, wherein the signaling is in different ways depending on whether the downlink control is a downlink grant or an uplink grant. predefining one or a plurality downlink control channel signaling window lengths; determining, for each window length, a start position of a window in which repetition of download control signal is allowed based on the determined control channel signaling window length; and causing transmission of repetition of download control signal in a window predefined by length and determined by respective start position; characterized by receiving a signaling of the window length from a user equipment, wherein the signaling is in different ways depending on whether the downlink control is a downlink grant or an uplink grant.
A method for recycling iron and aluminum from a nickel-cobalt-manganese solution, comprising the following steps: performing leaching and copper removal on a battery powder to obtain a copper-removed solution, and removing iron and aluminum by adjusting a pH value in stages to obtain a goethite slag and an iron-aluminum slag respectively, wherein the removing iron and aluminum by adjusting a pH value in stages comprises: adding a neutralizer, controlling the pH value to 2-4, and heating for a reaction, to obtain the goethite slag; and adding a neutralizer, adjusting the pH value to 4-5, and heating for a reaction, to obtain the iron-aluminum slag and an iron-removed solution; wherein the goethite slag is washed and dried to obtain a goethite product; mixing the iron-aluminum slag with an alkaline solution, and heating and stirring, to obtain an aluminum-containing solution and an alkaline residue; and heating and stirring the aluminum-containing solution, introducing carbon dioxide, and controlling the pH value to 9.5-11.5, ending the reaction when the pH value is stable, to obtain aluminum hydroxide and an aluminum-removed solution; wherein after the aluminum-containing solution and the alkaline residue are obtained, the method further comprises returning the alkaline residue to the acid leaching procedure; and the aluminum-removed solution is used as the neutralizer and returned to the system for removing iron and aluminum in stages, wherein, the aluminum-containing solution is a sodium metaaluminate solution. performing leaching and copper removal on a battery powder to obtain a copper-removed solution, and removing iron and aluminum by adjusting a pH value in stages to obtain a goethite slag and an iron-aluminum slag respectively, wherein the removing iron and aluminum by adjusting a pH value in stages comprises: adding a neutralizer, controlling the pH value to 2-4, and heating for a reaction, to obtain the goethite slag; and adding a neutralizer, adjusting the pH value to 4-5, and heating for a reaction, to obtain the iron-aluminum slag and an iron-removed solution; wherein the goethite slag is washed and dried to obtain a goethite product; mixing the iron-aluminum slag with an alkaline solution, and heating and stirring, to obtain an aluminum-containing solution and an alkaline residue; and heating and stirring the aluminum-containing solution, introducing carbon dioxide, and controlling the pH value to 9.5-11.5, ending the reaction when the pH value is stable, to obtain aluminum hydroxide and an aluminum-removed solution; wherein after the aluminum-containing solution and the alkaline residue are obtained, the method further comprises returning the alkaline residue to the acid leaching procedure; and the aluminum-removed solution is used as the neutralizer and returned to the system for removing iron and aluminum in stages,
A process for recovering anhydrous methanesulfonic acid, in a purified form, from a feed stream comprised of hydrocarbon, methanesulfonic acid and sulfur trioxide: separating the feed stream to produce a light stream comprised of hydrocarbons and a heavy stream comprised of methanesulfonic acid and sulfur trioxide; contacting the heavy stream with a reactive additive capable of reacting with sulfur trioxide under conditions effective to cause reaction of the reactive additive with the sulfur trioxide to produce a heavy reaction product having a boiling point higher than the boiling point of sulfur trioxide; and separating the heavy stream using a distillation column to produce a distillate stream consisting essentially of methanesulfonic acid and a bottoms stream comprising the heavy reaction product. separating the feed stream to produce a light stream comprised of hydrocarbons and a heavy stream comprised of methanesulfonic acid and sulfur trioxide; contacting the heavy stream with a reactive additive capable of reacting with sulfur trioxide under conditions effective to cause reaction of the reactive additive with the sulfur trioxide to produce a heavy reaction product having a boiling point higher than the boiling point of sulfur trioxide; and separating the heavy stream using a distillation column to produce a distillate stream consisting essentially of methanesulfonic acid and a bottoms stream comprising the heavy reaction product.