mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile navigation system for guiding a moving vehicle toward a target zone , comprising: an electromagnetic wave reflector ; and a processor ; wherein a directive beamforming antenna carried by and moving with the vehicle , configured for emitting a first sensing beam in a first direction (A 1 ) at a first time point and emitting a second sensing beam in a second direction (A 2 ) different from the first direction (A 1 ) at a second time point later than the first time point toward the target zone , wherein a coverage area of the first sensing beam and a coverage area of the second sensing beam have a partially overlapping area; wherein the electromagnetic wave reflector is installed in the target zone and configured for transmitting back a first retro wave when receiving the first sensing beam and transmitting back a second retro wave when receiving the second sensing beam ; and wherein the processor is electrically coupled to the directive beamforming antenna , and when receiving the first retro wave and the second retro wave , determining a direction (A) where the vehicle will be guided to move according to information of the first retro wave and information of the second retro wave , wherein the direction (A) where the vehicle will be guided to move lies in the partially overlapping area between the first direction (A 1 ) and the second direction (A 2 ). an electromagnetic wave reflector ; and a processor ; wherein a directive beamforming antenna carried by and moving with the vehicle , configured for emitting a first sensing beam in a first direction (A 1 ) at a first time point and emitting a second sensing beam in a second direction (A 2 ) different from the first direction (A 1 ) at a second time point later than the first time point toward the target zone , wherein a coverage area of the first sensing beam and a coverage area of the second sensing beam have a partially overlapping area; wherein the electromagnetic wave reflector is installed in the target zone and configured for transmitting back a first retro wave when receiving the first sensing beam and transmitting back a second retro wave when receiving the second sensing beam ; and wherein the processor is electrically coupled to the directive beamforming antenna , and when receiving the first retro wave and the second retro wave , determining a direction (A) where the vehicle will be guided to move according to information of the first retro wave and information of the second retro wave , wherein the direction (A) where the vehicle will be guided to move lies in the partially overlapping area between the first direction (A 1 ) and the second direction (A 2 ).
Sandwich material for brazing comprising a core layer of a first aluminum alloy and a barrier layer of a second aluminum alloy wherein, the first alloy, constituting the core layer contains (in weight %): 0.8-2% Mn, ≤ 1.0% Mg, 0.3-1.5% Si, ≤ 0.3% Ti, ≤ 0.3% Cr, 0.06-0.3% Zr, ≤ 1.3% Cu, ≤ 0.5% Zn, ≤ 0.2% In, ≤ 0.1% Sn and ≤ 0.7% (Fe + Ni), the balance consisting of Al and ≤ 0.05% of each of the unavoidable impurities, the second alloy, constituting the barrier layer containing (in weight %): ≤ 0.2% Mn + Cr, ≤ 1.0% Mg, 0.04-0.9% Si, 0.1- ≤ 0.3% Ti, ≤ 0.2% Zr, ≤ 0.3% Cu, ≤ 0.5% Zn, ≤ 0.2% In, ≤ 0.1% Sn and ≤ 1.5% (Fe + Ni), the balance consisting of Al and ≤ 0.05% of each of the unavoidable impurities, wherein the barrier layer is the outermost layer of the sandwich material on the side of the sandwich material to be brazed to another component, wherein the barrier layer after heating to brazing temperature exhibits a recrystallized structure with a grain size which has a parallel rolling surface length which is at least 50 micrometre and the core layer after brazing exhibits a non-recrystallized or partially recrystallized structure.
A process for the manufacturing of a forming tool which comprises the following steps: a) Providing a base steel for the forming tool; b) Depositing by laser cladding a clad steel onto at least part of the surface of the base steel for the forming tool, obtaining a cladded piece with presence of retained austenite in the coating, wherein the clad steel presents a chemical composition suitable to promote austenite retention and the coating obtained by deposition by laser cladding presents between 2% and 18% in volume of retained austenite, c) Carrying out a finish machining operation of the piece obtained in previous step b), d) Applying a cryogenic treatment to the piece obtained in previous step c); wherein the cryogenic treatment is carried out at a temperature equal or lower than -150 °C. a) Providing a base steel for the forming tool; b) Depositing by laser cladding a clad steel onto at least part of the surface of the base steel for the forming tool, obtaining a cladded piece with presence of retained austenite in the coating, wherein the clad steel presents a chemical composition suitable to promote austenite retention and the coating obtained by deposition by laser cladding presents between 2% and 18% in volume of retained austenite, c) Carrying out a finish machining operation of the piece obtained in previous step b), d) Applying a cryogenic treatment to the piece obtained in previous step c);
An automatic door operator for an entrance system having at least one movable door member (D1), whereby the automatic door operator is arranged to operate the movable door member (D1), said automatic door operator comprising a drive unit for moving the movable door member (D1) between a closed position and an open position, a controller configured to control said drive unit , a receiving communication interface (X1) operatively connected to the controller , and a sensor (S1) operatively connected to said controller , said sensor being configured to monitor the operation of the movable door member (D1) and transfer sensor data to said controller , whereby the receiving communication interface (X1) is configured to receive a lock detection command from an external device (E1), and whereby the controller is configured to: receive the lock detection command and in response to said lock detection command cause the drive unit to attempt to move the movable door member (D1) towards a position (P) disposed between the closed position and open position during a predefined time period (TSET), determine a door member status indicating whether the movable door member (D1) is locked based on sensor data obtained from the sensor (S1) during the attempt to move the movable door member to the position (P), generate a door member status signal based on said door member status, and after the predefined time period (TSET) has passed, cause the drive unit to move the movable door member (D1) to the closed position. whereby the receiving communication interface (X1) is configured to receive a lock detection command from an external device (E1), and whereby the controller is configured to: receive the lock detection command and in response to said lock detection command cause the drive unit to attempt to move the movable door member (D1) towards a position (P) disposed between the closed position and open position during a predefined time period (TSET), determine a door member status indicating whether the movable door member (D1) is locked based on sensor data obtained from the sensor (S1) during the attempt to move the movable door member to the position (P), generate a door member status signal based on said door member status, and after the predefined time period (TSET) has passed, cause the drive unit to move the movable door member (D1) to the closed position. receive the lock detection command and in response to said lock detection command cause the drive unit to attempt to move the movable door member (D1) towards a position (P) disposed between the closed position and open position during a predefined time period (TSET), determine a door member status indicating whether the movable door member (D1) is locked based on sensor data obtained from the sensor (S1) during the attempt to move the movable door member to the position (P), generate a door member status signal based on said door member status, and after the predefined time period (TSET) has passed, cause the drive unit to move the movable door member (D1) to the closed position.
A method for controlling packet flow in a network, the method comprising: storing a plurality of packets in a buffer , the packets originating from a single application and each of the packets comprising one or more payloads; selecting by a flow controller a transmission scheme based on a payload rate for the payloads arriving at the buffer , wherein the transmission scheme includes data blocks comprising packets each having an associated payload, the data blocks having a variable packet transmission rate and a variable payload per packet ratio, and the product of the variable packet transmission rate and the variable payload per packet ratio remains constant, wherein the transmission scheme comprises: selecting an initial said variable packet transmission rate and corresponding initial said variable payload per packet ratio; and thereafter sequentially selecting further variable packet transmission rates and corresponding variable payload per packet ratios, wherein the sequentially selecting gradually increases and then decreases one or more of: the number of payloads stored in the buffer, and the number of payloads per packet, to transmit different data blocks at different periods; creating the data blocks according to the selected transmission scheme; and sending the data blocks to a network switch according to the transmission scheme. storing a plurality of packets in a buffer , the packets originating from a single application and each of the packets comprising one or more payloads; selecting by a flow controller a transmission scheme based on a payload rate for the payloads arriving at the buffer , wherein the transmission scheme includes data blocks comprising packets each having an associated payload, the data blocks having a variable packet transmission rate and a variable payload per packet ratio, and the product of the variable packet transmission rate and the variable payload per packet ratio remains constant, wherein the transmission scheme comprises: selecting an initial said variable packet transmission rate and corresponding initial said variable payload per packet ratio; and thereafter sequentially selecting further variable packet transmission rates and corresponding variable payload per packet ratios, wherein the sequentially selecting gradually increases and then decreases one or more of: the number of payloads stored in the buffer, and the number of payloads per packet, to transmit different data blocks at different periods; selecting an initial said variable packet transmission rate and corresponding initial said variable payload per packet ratio; and thereafter sequentially selecting further variable packet transmission rates and corresponding variable payload per packet ratios, wherein the sequentially selecting gradually increases and then decreases one or more of: the number of payloads stored in the buffer, and the number of payloads per packet, to transmit different data blocks at different periods; creating the data blocks according to the selected transmission scheme; and sending the data blocks to a network switch according to the transmission scheme.
A method for blocking a voltage wave of each switching device in a multilevel inverter circuit when the multilevel inverter circuit is shut down, comprising: after a shutdown command is issued, controlling the multilevel inverter circuit to switch between a free state and a specific turn-on state, wherein a duration of each free state is less than a first preset time period (S102), wherein the free state is a state in which all switching devices in the multilevel inverter circuit are turned off; characterised in that the specific turn-on state is a state in which voltage stress withstood by a switching device, on which clamping protection is not performed, in the multilevel inverter circuit is zero by controlling a specific combination of switching devices in the multilevel inverter circuit to be turned on; and the first preset time period is a time period in which the voltage stress withstood by the switching device, on which clamping protection is not performed, in the multilevel inverter circuit in a voltage dividing process under the free state reaches a withstand limit, wherein the clamping protection means that protection is performed by clamping. after a shutdown command is issued, controlling the multilevel inverter circuit to switch between a free state and a specific turn-on state, wherein a duration of each free state is less than a first preset time period (S102), wherein the free state is a state in which all switching devices in the multilevel inverter circuit are turned off; characterised in that the specific turn-on state is a state in which voltage stress withstood by a switching device, on which clamping protection is not performed, in the multilevel inverter circuit is zero by controlling a specific combination of switching devices in the multilevel inverter circuit to be turned on; and the first preset time period is a time period in which the voltage stress withstood by the switching device, on which clamping protection is not performed, in the multilevel inverter circuit in a voltage dividing process under the free state reaches a withstand limit, wherein the clamping protection means that protection is performed by clamping.
Device for a floor drain located in the floor of a room, in particular at a distance from a wall, comprising - an opening for the passage of water into the floor drain located below the device , - several surfaces , which are upper surfaces in the use position, which have different inclinations from one another and are inclined with respect to the horizontal when the device is installed, so that the water can flow over the inclined upper surfaces to the opening , wherein the device comprises a moulded part and a receptacle , wherein the moulded part is received at least in sections by the receptacle , wherein the upper surfaces , which are inclined with respect to the horizontal when the device is installed, are arranged or formed on the moulded part , wherein the moulded part and the receptacle respectively comprise an opening for the passage of water into the floor drain , which is located below the device when it is installed, wherein the receptacle is open at the top when the device is installed, wherein the moulded part and the receptacle are elongated in a longitudinal direction (X) and are significantly more extended in this longitudinal direction (X) than in the transverse direction (Y) perpendicular thereto, characterised in that the receptacle also has a floor and a frame projecting upwards from the floor and running around the floor , which frame surrounds the moulded part and is adapted to the contour of the moulded part, in particular on the end face, wherein the opening of the receptacle is recessed in the floor . - an opening for the passage of water into the floor drain located below the device , - several surfaces , which are upper surfaces in the use position, which have different inclinations from one another and are inclined with respect to the horizontal when the device is installed, so that the water can flow over the inclined upper surfaces to the opening ,
A mobile terminal , comprising: a communication unit that is paired with a display device and configured to perform a communication; an input unit configured to receive a search command from a user; a processor configured to: transmit a search function activation command to the display device through the communication unit, receive a packet signal from a remote control device that transmits a packet signal at a predetermined packet period according to the search function activation command of the display device, obtain a signal strength of the packet signal, receive packet pattern information from the display device, and determine a distance with the remote control device based on whether the packet is changed and the signal strength. a communication unit that is paired with a display device and configured to perform a communication; an input unit configured to receive a search command from a user; a processor configured to: transmit a search function activation command to the display device through the communication unit, receive a packet signal from a remote control device that transmits a packet signal at a predetermined packet period according to the search function activation command of the display device, obtain a signal strength of the packet signal, receive packet pattern information from the display device, and determine a distance with the remote control device based on whether the packet is changed and the signal strength. transmit a search function activation command to the display device through the communication unit, receive a packet signal from a remote control device that transmits a packet signal at a predetermined packet period according to the search function activation command of the display device, obtain a signal strength of the packet signal, receive packet pattern information from the display device, and determine a distance with the remote control device based on whether the packet is changed and the signal strength.
Method for the deposition of at least one functional layer suitable for a multilayer solar selective coating, said method comprising: a) providing a substrate; b) depositing conductive material on said substrate in a deposition chamber to obtain a substrate coated with at least one conductive layer; characterized in that the method further comprises: c) transferring the coated substrate obtained in b) to a transformation chamber ; d) transforming the coating of the substrate by introducing a reactive gas into the transformation chamber so that at least an outer conductive layer of the at least one conductive layer is partially or totally transformed into at least one dielectric layer; and e) optionally, transferring the substrate obtained in d) to the deposition chamber and repeating the method from step b) for a number of times. a) providing a substrate; b) depositing conductive material on said substrate in a deposition chamber to obtain a substrate coated with at least one conductive layer; c) transferring the coated substrate obtained in b) to a transformation chamber ; d) transforming the coating of the substrate by introducing a reactive gas into the transformation chamber so that at least an outer conductive layer of the at least one conductive layer is partially or totally transformed into at least one dielectric layer; and e) optionally, transferring the substrate obtained in d) to the deposition chamber and repeating the method from step b) for a number of times.
A drying device for drying coated elongate workpieces in a continuous process, comprising a transport device for in particular continuously transporting workpieces , a heat source for generating drying heat in a drying zone , an airflow generating means for extracting drying steam from the and/or supplying humidity to the drying zone via an airflow, and a control means for controlling the air quantity supplied to and/or discharged from the drying zone by the airflow generating means , wherein the drying zone is arranged in a drying chamber , wherein the transport device is arranged completely outside the drying chamber , wherein the drying chamber comprises a chamber wall , characterized in that the chamber wall comprising a slit-shaped opening extending in the transport direction such that the portion to be dried of the workpiece can project through the slit-shaped opening .
A litho laminating machine with an accelerator table , the table being moveable between an operating position and a raised maintenance position, the table being supported on a frame with a bearing defining a pivot axis (P), a lifting device being provided which comprises a spring element biasing the table towards the maintenance position, and an actuator for moving the table from the operating position towards the maintenance position, wherein the spring element is a gas spring and it engages at the table at a distance from the pivot axis (P) which is more than twice of the distance between the pivot axis (P) and a point of engagement of the actuator .
A compound represented by formula (E) wherein ring D containing X, Y, L, M, and Z is selected directionally from the following structures: R 8 is selected from hydrogen; C 1-4 alkyl; -CH 2 O-P(=O)(OR)(OR); and -C 1-4 alkylene-halogen; R 9 is selected from hydrogen; C 1-4 alkyl; and -C 1-4 alkylene-halogen; Hal is selected from F, Cl, Br, and I; R E1 is selected from hydroxy, C 1-6 alkoxy, and -NR E5 R E6 , wherein if R E1 is -NR E5 R E6 it is attached in para position compared to the carbon atom, which binds the phenyl ring to ring D; R E2 is selected from hydrogen, halogen, hydroxy, C 1-6 alkoxy, and -NR 15 R E6 ; or if R E1 and R E2 are attached to adjacent carbon atoms, R E1 and R E2 together can alternatively non-directionally form a structure -T-(CR E7 R E8 ) n -V-, wherein T is selected from CR E9 R E10 , NR* and O and V is selected from CR E9 R E10 , NR* and O, as well as corresponding structures in which a double bond is present; R E5 and R E6 are selected independently from hydrogen and C 1-6 alkyl; R E7 and R E8 are independently H or F; R E9 and R E10 are independently H or F; n is 1 to 3; R E3 is a C 1-6 alkyl group or a C 6-10 aryl group; m is 0 to 2; R E4 is a C 1-6 alkyl group; p is 0 or 1; R is a hydrogen atom or a cation; R* is a hydrogen atom; or an ether, ester, solvate or salt of the compound represented by formula (E); for the use in the treatment or prevention of melanoma. ring D containing X, Y, L, M, and Z is selected directionally from the following structures: R 8 is selected from hydrogen; C 1-4 alkyl; -CH 2 O-P(=O)(OR)(OR); and -C 1-4 alkylene-halogen; R 9 is selected from hydrogen; C 1-4 alkyl; and -C 1-4 alkylene-halogen; Hal is selected from F, Cl, Br, and I; R E1 is selected from hydroxy, C 1-6 alkoxy, and -NR E5 R E6 , wherein if R E1 is -NR E5 R E6 it is attached in para position compared to the carbon atom, which binds the phenyl ring to ring D; R E2 is selected from hydrogen, halogen, hydroxy, C 1-6 alkoxy, and -NR 15 R E6 ; or if R E1 and R E2 are attached to adjacent carbon atoms, R E1 and R E2 together can alternatively non-directionally form a structure -T-(CR E7 R E8 ) n -V-, wherein T is selected from CR E9 R E10 , NR* and O and V is selected from CR E9 R E10 , NR* and O, as well as corresponding structures in which a double bond is present; R E5 and R E6 are selected independently from hydrogen and C 1-6 alkyl; R E7 and R E8 are independently H or F; R E9 and R E10 are independently H or F; n is 1 to 3; R E3 is a C 1-6 alkyl group or a C 6-10 aryl group; m is 0 to 2; R E4 is a C 1-6 alkyl group; p is 0 or 1; R is a hydrogen atom or a cation; R* is a hydrogen atom; or an ether, ester, solvate or salt of the compound represented by formula (E); for the use in the treatment or prevention of melanoma.