mhurhangee/patent-ind-claim-en huggingface dataset:
A passing device , to be disposed in a container , said passing device being configured to lead a passage of contents contained inside the container , comprising: a passing operation part configured to guide movement of the content; a passing movement part rotatably disposed in the passing operation part and configured to move so that the content is passed; and a sensing part disposed in the passing operation part and configured to sense content discharged due to rotation of one end of the passing movement part , wherein the sensing part detects information on the sensed content, characterized in that the sensing part includes at least one light emitting part configured to emit light toward content discharged due to rotation of the passing movement part , at least one light receiving part configured to receive the light emitted from the light emitting part [EDIT 1] , and a sensing control part configured to sense the content discharged through the passing operation part by using the light emitted from the light emitting part and then received by the light receiving part , wherein the light emitting part and the light receiving part are respectively installed at both sides of the passing movement part , and wherein the sensing control part determines that the content has passed through the passing operation part when an amount of change in the quantity of light received by the light receiving part is equal to or larger than a predetermined amount of change. a passing operation part configured to guide movement of the content; a passing movement part rotatably disposed in the passing operation part and configured to move so that the content is passed; and a sensing part disposed in the passing operation part and configured to sense content discharged due to rotation of one end of the passing movement part , wherein the sensing part detects information on the sensed content, characterized in that the sensing part includes at least one light emitting part configured to emit light toward content discharged due to rotation of the passing movement part , at least one light receiving part configured to receive the light emitted from the light emitting part [EDIT 1] , and a sensing control part configured to sense the content discharged through the passing operation part by using the light emitted from the light emitting part and then received by the light receiving part , wherein the light emitting part and the light receiving part are respectively installed at both sides of the passing movement part , and wherein the sensing control part determines that the content has passed through the passing operation part when an amount of change in the quantity of light received by the light receiving part is equal to or larger than a predetermined amount of change.
A method of a User Equipment, in the following also referred to as UE, comprising: the UE receives a configuration which indicates a type of a minimum function block, wherein the type of a minimum function block means functionalities of each symbol within the minimum function block ; and the UE determines a slot structure for a slot according to a group common Physical Downlink Control Channel, in the following also referred to as PDCCH, associated with the slot and the configuration , the configuration is signaled by a Radio Resource Control, in the following also referred to as RRC, message, and the configuration indicates different types of different minimum function blocks. the UE receives a configuration which indicates a type of a minimum function block, wherein the type of a minimum function block means functionalities of each symbol within the minimum function block ; and the UE determines a slot structure for a slot according to a group common Physical Downlink Control Channel, in the following also referred to as PDCCH, associated with the slot and the configuration , the configuration is signaled by a Radio Resource Control, in the following also referred to as RRC, message, and the configuration indicates different types of different minimum function blocks.
Air input system , intended for a front face of a motor vehicle, including a grid of air input forming a front part of the system by which a flow of air from the outside enters perpendicular to the grid and a wall of at least a partial obstruction of the air flow extending downstream of at least one portion of the grid 2), the system having upper and lower portions in reference to the vertical-positioned obturation wall , the wall having a series of sloping portions of wall relative to the vertical of an angle of inclination sufficient for light rays from the front of the grid and reflecting on the wall to be redirected to an area located in front of and below the lower portion of the system , a system in which, on the one hand, the grid has parallel bars spaced from each other in the same interval (d), those bars extending perpendicular to the flow of air entering the system , and characterized on the other hand at the level of each bar taken in the direction of the air flow, the obturation wall has an elbow followed by a start end of a sloped portion of the wall having the sloping angle , the sloping portion extends by a end end to the next elbow .
An apparatus comprising: processing circuitry to perform data processing in one of a plurality of security domains including at least a secure domain and a less secure domain; memory access checking circuitry to check whether a memory access is allowed depending on security attribute data indicative of which of the plurality of security domains is associated with a target address of the memory access; and at least one stack pointer register (R13) to store a stack pointer indicative of a stack data structure in memory ; in which: in response to a given change of program flow from processing in the less secure domain to a target instruction having an instruction address associated with the secure domain: when the target instruction is an instruction other than a gateway instruction indicative of a valid entry point to the secure domain, the processing circuitry configured to trigger a fault; and when the target instruction is said gateway instruction, the processing circuitry is configured to trigger, in response to the gateway instruction, a stack pointer verifying action to verify whether it is safe to use a selected stack pointer stored in a selected stack pointer register. processing circuitry to perform data processing in one of a plurality of security domains including at least a secure domain and a less secure domain; memory access checking circuitry to check whether a memory access is allowed depending on security attribute data indicative of which of the plurality of security domains is associated with a target address of the memory access; and at least one stack pointer register (R13) to store a stack pointer indicative of a stack data structure in memory ; in which: in response to a given change of program flow from processing in the less secure domain to a target instruction having an instruction address associated with the secure domain: when the target instruction is an instruction other than a gateway instruction indicative of a valid entry point to the secure domain, the processing circuitry configured to trigger a fault; and when the target instruction is said gateway instruction, the processing circuitry is configured to trigger, in response to the gateway instruction, a stack pointer verifying action to verify whether it is safe to use a selected stack pointer stored in a selected stack pointer register. when the target instruction is an instruction other than a gateway instruction indicative of a valid entry point to the secure domain, the processing circuitry configured to trigger a fault; and when the target instruction is said gateway instruction, the processing circuitry is configured to trigger, in response to the gateway instruction, a stack pointer verifying action to verify whether it is safe to use a selected stack pointer stored in a selected stack pointer register.
A primer pair consisting of a first primer comprising SEQ ID NO: 1 and a second primer comprising SEQ ID NO: 2.
A device for locking and/or unlocking a door leaf of a motor vehicle, the device comprising a detection wall having an inner face and an opposite outer face , the outer face forming a contact detection area, and detection means arranged against the inner face for detecting a contact between a finger or a hand of a user and said outer face , wherein the detection means comprise a sensor having a layer made of a piezoelectric material with surface undulations in the form of ridges, said layer made of a piezoelectric material being configured to detect a predetermined contact on the outer face in order to control, depending on the predetermined detected contact, the locking or the unlocking of the door leaf, and wherein the detection area extends over a surface larger than that occupied by the layer made of a piezoelectric material on the inner face .
A chemical device , comprising: a chemically-sensitive field effect transistor including a floating gate structure comprising a plurality of floating gate conductors electrically coupled to one another; a conductive element overlying and in communication with a sensor plate , which is an uppermost floating gate conductor in the plurality of floating gate conductors, the conductive element wider and thinner than the sensor plate ; and a dielectric material defining an opening extending to an upper surface of the conductive element, the upper surface of the conductive element defining a bottom surface of a reaction region for the chemical device , wherein the material of the conductive element is different from the material of the uppermost floating gate conductor. a chemically-sensitive field effect transistor including a floating gate structure comprising a plurality of floating gate conductors electrically coupled to one another; a conductive element overlying and in communication with a sensor plate , which is an uppermost floating gate conductor in the plurality of floating gate conductors, the conductive element wider and thinner than the sensor plate ; and a dielectric material defining an opening extending to an upper surface of the conductive element, the upper surface of the conductive element defining a bottom surface of a reaction region for the chemical device , wherein the material of the conductive element is different from the material of the uppermost floating gate conductor.
A lignocellulosic material comprising phosphorylated lignocellulosic fibers, wherein said fibers have an ionic charge in water of about 4000 to about 7000 mmoles/kg, wherein said fibers have an average fiber length of 0.5 to 5 mm and wherein said material has a phosphorus content of 9 to 15 % (w/w)
A repertoire of peptide ligands which is displayed using a genetic display system, wherein each peptide ligand comprises a polypeptide variant linked to a molecular scaffold at n attachment points, wherein said polypeptide is cyclised and forms n separate loops subtended between said n attachment points on the molecular scaffold, wherein n separate loops = n attachment points and n is 2 or 3, and said molecular scaffold possesses n scaffold reactive groups and n-fold molecular symmetry.
A synthetic biocompatible polymer material comprising the reaction product of: (a) at least one polar non-ionic macromer component; and one or both of: (b) at least one anionic component; and (c) at least one hydrophobic component; wherein the molar ratio of (b) to (c), when (b) and (c) are present is between 20:1 and 1:100; wherein the maximum combined number of components (a),(b) and (c) in the polymer is 9; and wherein the molar ratio of (a) to (b) plus (c) combined is 1:>20; wherein the macromer is the reaction product of at least one isocyanate compound, at least one polyol terminated with hydroxyl or amine groups and at least one vinyl coupling agent; wherein the anionic component is selected from vinyl monomers with mono acid function; vinyl monomers with di-acids; or vinyl monomers with tri-acids; and wherein the hydrophobic component is an alkyl methacrylate, wherein the alkyl chain is linear or branched, saturated or unsaturated, and wherein the number of carbons is less than 12. (a) at least one polar non-ionic macromer component; and one or both of: (b) at least one anionic component; and (c) at least one hydrophobic component;
Table having a main tabletop , a substructure , a movable auxiliary tabletop with at least one limb for supporting the auxiliary tabletop, said limb comprising two guide pins , with a slotted guide which interacts with the guide pins by way of two guide grooves in order to support the auxiliary tabletop , wherein the slotted guide , for a starting position and end position , has locking apparatuses in which the limb of the auxiliary tabletop is fixed, characterized in that a Bowden cable which can be actuated by means of an operator control element and which acts on a snap-action fastener is guided along the limb , wherein the snap-action fastener , upon actuation of the Bowden cable , detaches from a locking position and the auxiliary tabletop becomes movable.
Vehicle tyre having side walls and having a tread and having at least one hatching area on an outer surface , in particular on one of the side walls and/or on the tread , wherein the hatching area has hatching elements arranged one next to the other, wherein the hatching elements each have a hatching rib with a ridge and with mutually opposite flanks , wherein the hatching elements moreover each have transverse elevations with a ridge and with mutually opposite flanks , wherein the transverse elevations are in this case arranged in a manner crossing the respective hatching rib whereby, in plan view, the ridges of the transverse elevations and the ridge of the respective hatching rib cross, wherein each of the transverse elevations crosses exactly one hatching rib , and wherein at least one first transverse elevation of the transverse elevations of each of the hatching elements overlies a contour of the hatching rib of the respective hatching element at least at the ridge of the hatching rib , characterized in that the hatching area has at least two adjacent hatching elements , the transverse elevations of which are oriented largely parallel to one another, and in that the transverse elevations of one adjacent hatching element are arranged offset relative to the transverse elevations of the other adjacent hatching element . wherein the hatching elements moreover each have transverse elevations with a ridge and with mutually opposite flanks , wherein the transverse elevations are in this case arranged in a manner crossing the respective hatching rib whereby, in plan view, the ridges of the transverse elevations and the ridge of the respective hatching rib cross, wherein each of the transverse elevations crosses exactly one hatching rib , and wherein at least one first transverse elevation of the transverse elevations of each of the hatching elements overlies a contour of the hatching rib of the respective hatching element at least at the ridge of the hatching rib , characterized in that the hatching area has at least two adjacent hatching elements , the transverse elevations of which are oriented largely parallel to one another, and in that the transverse elevations of one adjacent hatching element are arranged offset relative to the transverse elevations of the other adjacent hatching element .
A battery module , comprising: stacked battery cells ; and a pressure sensor configured to measure the pressure of the battery cells stacked in the interior of the battery module , characterized in that the pressure sensor comprises a plurality of pressure measuring units ; a connection unit for connecting the plurality of pressure measuring units to each other; and an output unit connected to the connection unit and configured to output pressure values measured through the pressure measuring units , and wherein the plurality of pressure measuring units are arranged on surfaces of the battery cells to measure the pressure of the battery cells , wherein the output unit is formed of one unit, and the pressure values measured through the pressure measuring units are summed up into one value and outputted. stacked battery cells ; and a pressure sensor configured to measure the pressure of the battery cells stacked in the interior of the battery module , characterized in that the pressure sensor comprises a plurality of pressure measuring units ; a connection unit for connecting the plurality of pressure measuring units to each other; and an output unit connected to the connection unit and configured to output pressure values measured through the pressure measuring units , and wherein the plurality of pressure measuring units are arranged on surfaces of the battery cells to measure the pressure of the battery cells , wherein the output unit is formed of one unit, and the pressure values measured through the pressure measuring units are summed up into one value and outputted.
A method for determining a position of a device in a network, the method comprising: decoding a symbol comprising subcarriers to determine identification information that identifies an active transmitter, the decoding comprising partitioning the subcarriers of the symbol, which comprises a positioning pilot channel, PPC, symbol having an active and an idle portion, wherein the active portion comprises the identification information of the active transmitter, and the idle portion comprises transmissions of transmitters which are not in an active state for providing power stability to maintain network performance; determining a channel estimate associated with the active transmitter; repeating the decoding and the determining for a plurality of symbols so that a plurality of active transmitters associated with a plurality of channel estimates, respectively, are determined; and calculating the position of the device based at least in part on the plurality of active transmitters and the plurality of channel estimates. decoding a symbol comprising subcarriers to determine identification information that identifies an active transmitter, the decoding comprising partitioning the subcarriers of the symbol, which comprises a positioning pilot channel, PPC, symbol having an active and an idle portion, wherein the active portion comprises the identification information of the active transmitter, and the idle portion comprises transmissions of transmitters which are not in an active state for providing power stability to maintain network performance; determining a channel estimate associated with the active transmitter; repeating the decoding and the determining for a plurality of symbols so that a plurality of active transmitters associated with a plurality of channel estimates, respectively, are determined; and calculating the position of the device based at least in part on the plurality of active transmitters and the plurality of channel estimates.
Method for operating a cryogenic refueling arrangement comprising a coupling device and a receiver socket , wherein the method comprises the following step: a) coupling (S1) the coupling device to the receiver socket such that the coupling device and the receiver socket are locked to one another in a first position (P1), characterized in that the method comprises the following steps: b) applying (S2) a negative pressure to the coupling device and/or the receiver socket , c) unlocking (S3) the coupling device and the receiver socket so that the negative pressure causes the coupling device to move, in a direction toward the receiver socket , from the first position (P1) into a second position (P2), which is different from the first position (P1), d) locking (S4) the coupling device and the receiver socket in the second position (P2), and e) starting (S5) a refueling process. a) coupling (S1) the coupling device to the receiver socket such that the coupling device and the receiver socket are locked to one another in a first position (P1), characterized in that the method comprises the following steps: b) applying (S2) a negative pressure to the coupling device and/or the receiver socket , c) unlocking (S3) the coupling device and the receiver socket so that the negative pressure causes the coupling device to move, in a direction toward the receiver socket , from the first position (P1) into a second position (P2), which is different from the first position (P1), d) locking (S4) the coupling device and the receiver socket in the second position (P2), and e) starting (S5) a refueling process. b) applying (S2) a negative pressure to the coupling device and/or the receiver socket , c) unlocking (S3) the coupling device and the receiver socket so that the negative pressure causes the coupling device to move, in a direction toward the receiver socket , from the first position (P1) into a second position (P2), which is different from the first position (P1), d) locking (S4) the coupling device and the receiver socket in the second position (P2), and e) starting (S5) a refueling process.
A system comprising at least a first, a second and a third element , and a motion module , said elements being three-dimensional and each element comprising: - a centre point in said element ; - at least one face coupled to said centre point and said face comprising: - a motion-guiding module , defining a trajectory over at least part of said face ; - a motion-restriction module , adapted for limiting displacing of said centre point with respect to said centre point of one of the other elements to at least one trajectory selected from the group consisting of said trajectory and said trajectory of said other element, when interacting with said motion module ; wherein said motion module is adapted to be coupled to a face of one of said elements , and adapted for said displacing said centre point of said one element with respect to said centre point of one of the other elements when interacting with the motion-guiding module of said one of the other elements , said motion-guiding module, said motion module and said motion-restriction module defining different module types, characterised in that said motion module is adapted for decoupling from said face of said one of said elements and when decoupled is adapted for moving between facing faces that are in a holding state with one another. - a centre point in said element ; - at least one face coupled to said centre point and said face comprising: - a motion-guiding module , defining a trajectory over at least part of said face ; - a motion-restriction module , adapted for limiting displacing of said centre point with respect to said centre point of one of the other elements to at least one trajectory selected from the group consisting of said trajectory and said trajectory of said other element, when interacting with said motion module ; - a motion-guiding module , defining a trajectory over at least part of said face ; - a motion-restriction module , adapted for limiting displacing of said centre point with respect to said centre point of one of the other elements to at least one trajectory selected from the group consisting of said trajectory and said trajectory of said other element, when interacting with said motion module ;