mhurhangee/ep-ind-claims huggingface dataset:
A method for producing microcarriers (19, 20) comprising the following steps: (a) providing a wafer having a sandwich structure comprising a bottom layer, a top layer and a insulating layer located between said bottom and top layers (7, 8), (b) etching away the top layer to delineate lateral walls of bodies of the microcarriers (19, 20), (c) depositing a first active layer at least on a top surface of the bodies, (d) applying a continuous polymer layer (16, 22) over the first active layer, before (e) etching away the bottom layer and the insulating layer, then (f) removing the polymer layer (16, 22) to release the microcarriers (19, 20). (a) providing a wafer having a sandwich structure comprising a bottom layer, a top layer and a insulating layer located between said bottom and top layers (7, 8), (b) etching away the top layer to delineate lateral walls of bodies of the microcarriers (19, 20), (c) depositing a first active layer at least on a top surface of the bodies, (d) applying a continuous polymer layer (16, 22) over the first active layer, before (e) etching away the bottom layer and the insulating layer, then (f) removing the polymer layer (16, 22) to release the microcarriers (19, 20).
A gap filling device, designed to be fitted on to a rail vehicle, that includes a movable ramp that is movable in a horizontal direction between a retracted position within a housing arranged under a floor of the rail vehicle, and a deployed position extending out of the said housing, the said ramp comprising an upper surface that is accessible in the deployed position, the ramp including lateral flanged edges extending over at least a portion of the length of the ramp, with each being movable between a first position, in which this lateral flanged edge extends vertically projecting outwards in relation to the upper surface of the ramp up to a first height, and a second position, in which the lateral flanged edge extends up to a second height that is lower than the first height, characterized in that each flanged edge is connected to the ramp by a pivot link defined about a pivot axis that is substantially parallel to the horizontal direction.
A service server transmitting content to respective end terminals, the service server comprising: a communication unit; and a control unit configured to: authenticate a mobile communication terminal and the respective end terminals, wherein the mobile communication terminal and the respective end terminals are connected to each other; transmit a content list to each end terminal via the mobile communication terminal; provide content information included in the content list to each end terminal via the mobile communication terminal, control the communication unit to receive a request for content selected by an end terminal based on the content information from the mobile communication terminal, determine an available data structure for the content wherein in response to the content being not available in the service server, the request for the content is forwarded to an application server, and obtain the content requested and transmit the content to the mobile communication terminal,wherein the content is transferred from the mobile communication terminal to the end terminal and the content is played out in the end terminal. a communication unit; and a control unit configured to: authenticate a mobile communication terminal and the respective end terminals, wherein the mobile communication terminal and the respective end terminals are connected to each other; transmit a content list to each end terminal via the mobile communication terminal; provide content information included in the content list to each end terminal via the mobile communication terminal, control the communication unit to receive a request for content selected by an end terminal based on the content information from the mobile communication terminal, determine an available data structure for the content wherein in response to the content being not available in the service server, the request for the content is forwarded to an application server, and obtain the content requested and transmit the content to the mobile communication terminal,wherein the content is transferred from the mobile communication terminal to the end terminal and the content is played out in the end terminal. authenticate a mobile communication terminal and the respective end terminals, wherein the mobile communication terminal and the respective end terminals are connected to each other; transmit a content list to each end terminal via the mobile communication terminal; provide content information included in the content list to each end terminal via the mobile communication terminal, control the communication unit to receive a request for content selected by an end terminal based on the content information from the mobile communication terminal, determine an available data structure for the content wherein in response to the content being not available in the service server, the request for the content is forwarded to an application server, and obtain the content requested and transmit the content to the mobile communication terminal,wherein the content is transferred from the mobile communication terminal to the end terminal and the content is played out in the end terminal.
A computer-implemented method for attestation of Control Flow Integrity of an application running on an end entity, the method comprising: generating an asymmetric key pair based on the executing code of said application and a device key unique to said end entity, said asymmetric key pair comprising a private key and a public key, generating a public key certificate by signing said public key with said device key, wherein said public key certificate attests to said private key being in possession of said end entity, generating attestation claims regarding CFI of said application, signing said attestation claims by said private key, and validating the signature of said attestation claims by a relying party using said public key certificate, wherein said relying party is not part of said end entity. generating an asymmetric key pair based on the executing code of said application and a device key unique to said end entity, said asymmetric key pair comprising a private key and a public key, generating a public key certificate by signing said public key with said device key, wherein said public key certificate attests to said private key being in possession of said end entity, generating attestation claims regarding CFI of said application, signing said attestation claims by said private key, and validating the signature of said attestation claims by a relying party using said public key certificate, wherein said relying party is not part of said end entity.
A device for measuring an environment, in particular a bottom of a body of water (2"), by time-of-flight measurement of laser pulses reflected therefrom, comprising: a laser transmitter for transmitting a sequence of laser pulses (S i) as a transmission laser beam, a pyramid-shaped, truncated pyramid-shaped or prism-shaped mirror wheel rotatable about an axis of rotation, which is arranged in the transmission laser beam and is configured, upon rotation about its axis of rotation, to direct the laser pulses (S i) onto scanning points (P j) of the environment which lie in a scanning line, and a laser receiver for receiving the laser pulses reflected at the scanning points (P j) via the mirror wheel, characterised by a deflection device arranged between the laser transmitter and the mirror wheel, which is configured to deflect the transmission laser beam onto the mirror wheel such that at least two consecutive laser pulses (S i, S i+1) of the sequence hit the same scanning point (P j). a laser transmitter for transmitting a sequence of laser pulses (S i) as a transmission laser beam, a pyramid-shaped, truncated pyramid-shaped or prism-shaped mirror wheel rotatable about an axis of rotation, which is arranged in the transmission laser beam and is configured, upon rotation about its axis of rotation, to direct the laser pulses (S i) onto scanning points (P j) of the environment which lie in a scanning line, and a laser receiver for receiving the laser pulses reflected at the scanning points (P j) via the mirror wheel, characterised by a deflection device arranged between the laser transmitter and the mirror wheel, which is configured to deflect the transmission laser beam onto the mirror wheel such that at least two consecutive laser pulses (S i, S i+1) of the sequence hit the same scanning point (P j).
A wireless transceiver apparatus configured to support wireless communications with associated transceiver nodes on at least one selected wireless communication channel on a wireless local area network, WLAN; and the wireless transceiver apparatus comprising: • a plurality of components coupled to one another to form transmit and receive paths for processing wireless communications on the at least one selected wireless communication channel; • local control circuits (204A-E) each of which controls a distinct portion of the wireless transceiver's wireless operations via connections to a related subset of the plurality of components; and • a Remote and Local, R/L, switch fabric configured to switchably connect each of the subsets of the plurality of components to at least one of, a related one of the local control circuits (204A-E) and a remote control source (150A-L) providing remote control of a related portion of the wireless transceiver's wireless operations, to enable a configurable mix of local and remote control sources among the distinct portions of the wireless transceiver's wireless operations; and wherein: • the wireless transceiver apparatus further comprises a mode selection circuit coupled to the R/L switch fabric to select one of an autonomous mode and a slave mode for setup of the R/L switch fabric, where the mix of local and remote sources are configured in the slave mode by the remote control source and in the autonomous mode by the wireless transceiver. • a plurality of components coupled to one another to form transmit and receive paths for processing wireless communications on the at least one selected wireless communication channel; • local control circuits (204A-E) each of which controls a distinct portion of the wireless transceiver's wireless operations via connections to a related subset of the plurality of components; and • a Remote and Local, R/L, switch fabric configured to switchably connect each of the subsets of the plurality of components to at least one of, a related one of the local control circuits (204A-E) and a remote control source (150A-L) providing remote control of a related portion of the wireless transceiver's wireless operations, to enable a configurable mix of local and remote control sources among the distinct portions of the wireless transceiver's wireless operations; and • the wireless transceiver apparatus further comprises a mode selection circuit coupled to the R/L switch fabric to select one of an autonomous mode and a slave mode for setup of the R/L switch fabric, where the mix of local and remote sources are configured in the slave mode by the remote control source and in the autonomous mode by the wireless transceiver.
A liquid discharge head, comprising: a pressure chamber connected to a nozzle from which a liquid is di scharged; an actuator configured to apply discharge pressure to the liquid in the pressure chamber; a first supply channel which is connected to the pressure chamber, and through which a first liquid is supplied to the pressure chamber; a second supply channel, different from the first supply channel, which is connected to the pressure chamber, and through which a second liquid different from the first liquid is supplied to the pressure chamber; characterised in that the liquid discharge head further comprises a first valve which is disposed in the first supply channel, and by which the first supply channel is opened and closed; and a second valve which is disposed in the second supply channel, and by which the second supply channel is opened and closed. a pressure chamber connected to a nozzle from which a liquid is di scharged; an actuator configured to apply discharge pressure to the liquid in the pressure chamber; a first supply channel which is connected to the pressure chamber, and through which a first liquid is supplied to the pressure chamber; a second supply channel, different from the first supply channel, which is connected to the pressure chamber, and through which a second liquid different from the first liquid is supplied to the pressure chamber; characterised in that the liquid discharge head further comprises a first valve which is disposed in the first supply channel, and by which the first supply channel is opened and closed; and a second valve which is disposed in the second supply channel, and by which the second supply channel is opened and closed.
Method for positioning a motor vehicle with respect to a primary element of a charging device disposed on the side of a traffic lane of the motor vehicle for non-contact charging of an electric storage device of the motor vehicle with which a secondary element of the charging device disposed on the motor vehicle corresponding to the primary element is moved relative to the primary element by moving the motor vehicle on the traffic lane relative to this in a predetermined charging position, wherein reaching the charging position by the secondary element by means of at least one sensor (36a-d) and at least one of at least two mutually different markings (38, 42, 44) having positioning element is determined in that the markers (38, 42, 44) are detected by means of the sensor (36a-d), characterised in that - as the markings steps and transversely to the direction of travel extending grooves are used, wherein the steps are raised away relative to the grooves of the traffic lane; - when a distance sensor (36a-d) is used as sensor (36a-d), wherein at least one is detected by the distance sensor in the vehicle transverse direction; - during a movement of the motor vehicle in the direction of travel via the primary element the steps and the grooves are detected by means of one of the ultrasonic sensors formed as distance sensors (36a-d) and counted in that differently from one another the respective distances of the one distance sensor (36a-d) are detected by means of the respective steps and grooves; - a transverse offset extending in the vehicle transverse direction between the primary element and the secondary element is determined in that the steps and the grooves are detected by means of a distance sensor (36a-d) and detecting the steps and grooves effected by the other distance sensor (36a-d) is dispensed with; and - reaching the charging position is determined in dependence on the number of run over steps and grooves and in dependence on the transverse offset; - as the markings steps and transversely to the direction of travel extending grooves are used, wherein the steps are raised away relative to the grooves of the traffic lane; - when a distance sensor (36a-d) is used as sensor (36a-d), wherein at least one is detected by the distance sensor in the vehicle transverse direction; - during a movement of the motor vehicle in the direction of travel via the primary element the steps and the grooves are detected by means of one of the ultrasonic sensors formed as distance sensors (36a-d) and counted in that differently from one another the respective distances of the one distance sensor (36a-d) are detected by means of the respective steps and grooves; - a transverse offset extending in the vehicle transverse direction between the primary element and the secondary element is determined in that the steps and the grooves are detected by means of a distance sensor (36a-d) and detecting the steps and grooves effected by the other distance sensor (36a-d) is dispensed with; and - reaching the charging position is determined in dependence on the number of run over steps and grooves and in dependence on the transverse offset;
A monoclonal antibody (mAb) which mAb has affinity for at least one DNABII protein that exceeds the affinity of said protein for components of a biofilm that includes said DNABII protein, which mAb includes an antigen binding fragment, an Fv antibody a bispecific antibody, and a complete antibody; wherein the variable region of said mAb comprises the variable region of the heavy chain of TRL1068 of SEQ ID NO:5 and further comprises the variable region of the light chain of TRL1068 of SEQ ID NO:6. wherein the variable region of said mAb comprises the variable region of the heavy chain of TRL1068 of SEQ ID NO:5 and further comprises the variable region of the light chain of TRL1068 of SEQ ID NO:6.
A method of transmitting a sidelink discovery signal by a user equipment, UE, in a wireless communication system, the method comprising: setting a transmit power for the sidelink discovery signal; and transmitting the sidelink discovery signal with the transmit power, wherein the transmit power is determined based on discMaxTxPower which is power information for the sidelink discovery signal transmission, wherein i) based on the UE being configured with a range class for transmitting the sidelink discovery signal and ii) based on the UE being located in a cell coverage, the discMaxTxPower informs a parameter used to calculate a maximum transmit power of the UE configured with the range class, wherein i) based on the UE transmitting a sidelink communication signal and ii) based on the UE being located in the cell coverage, P-Max, being power information for an uplink transmission, is used to calculate a maximum transmit power of the UE, wherein the sidelink discovery signal is a sidelink signal which is transmitted to discover other UE in proximity and the sidelink communication signal is a sidelink signal which is transmitted to a specific UE to directly communicate with the specific UE, and wherein the P-Max and the discMaxTxPower are received through different system information. setting a transmit power for the sidelink discovery signal; and transmitting the sidelink discovery signal with the transmit power, wherein the transmit power is determined based on discMaxTxPower which is power information for the sidelink discovery signal transmission, wherein i) based on the UE being configured with a range class for transmitting the sidelink discovery signal and ii) based on the UE being located in a cell coverage, the discMaxTxPower informs a parameter used to calculate a maximum transmit power of the UE configured with the range class, wherein i) based on the UE transmitting a sidelink communication signal and ii) based on the UE being located in the cell coverage, P-Max, being power information for an uplink transmission, is used to calculate a maximum transmit power of the UE, wherein the sidelink discovery signal is a sidelink signal which is transmitted to discover other UE in proximity and the sidelink communication signal is a sidelink signal which is transmitted to a specific UE to directly communicate with the specific UE, and wherein the P-Max and the discMaxTxPower are received through different system information.
A marker installed on ground, and which performs wireless communication with a wireless communication device mounted on a mobile body, comprising: an electronic circuit board, the whole surface of which is covered with resin material to seal the electronic circuit board; an antenna for wireless communication separated from the electronic circuit board, wherein the antenna is not covered with the resin material; and a casing which covers at least an upper side which is the mobile body side of the electronic circuit board; wherein a first material or a space is provided between an upper side portion of the casing and the electronic circuit board, and a lower side from the electronic circuit board is configured from a material with larger thermal conductivity than the first material or the space. an electronic circuit board, the whole surface of which is covered with resin material to seal the electronic circuit board; an antenna for wireless communication separated from the electronic circuit board, wherein the antenna is not covered with the resin material; and a casing which covers at least an upper side which is the mobile body side of the electronic circuit board; wherein a first material or a space is provided between an upper side portion of the casing and the electronic circuit board, and a lower side from the electronic circuit board is configured from a material with larger thermal conductivity than the first material or the space.
A temperature exposure detection system comprising: a plurality of nonvolatile memory cells; read circuitry for reading the plurality of nonvolatile memory cells; characterized in that the system further comprises determination circuity that is configured to determine a data retention error rate of the plurality of nonvolatile memory cells based on a read of the plurality of nonvolatile memory cells and is configured to determine temperature exposure of the system based on the determined data retention error rate of at least some of the plurality of nonvolatile memory cells. a plurality of nonvolatile memory cells; read circuitry for reading the plurality of nonvolatile memory cells; characterized in that the system further comprises determination circuity that is configured to determine a data retention error rate of the plurality of nonvolatile memory cells based on a read of the plurality of nonvolatile memory cells and is configured to determine temperature exposure of the system based on the determined data retention error rate of at least some of the plurality of nonvolatile memory cells.
An electric or hybrid motor vehicle consisting of a pair of wrists and a rear cradle designed to support an electric propulsion group, the rear cradle consists of a central area extending according to the transverse direction of the vehicle and extending at each end by two arms (9, 11), respectively a front arm and a rear arm, the rear cradle is attached to the longeronets by its front and rear arms (9, 11); the vehicle is characterized by the fact that each of the rear arms of the rear cradle is fastened on the ringpins by means of a two-part (19, 29) attachment device configured to separate under the action of a tensile force greater than a predetermined threshold; preferably, the said traction force is oriented vertically.