mhurhangee/patent-ind-claim-en huggingface dataset:
A valve for controlling fluid flow, the valve comprising: a first plate comprising a plurality of first holes extending generally perpendicular through said first plate; a second plate comprising a plurality of second holes extending generally perpendicular through said second plate, the second holes being substantially offset from the first holes of said first plate; a spacer disposed between said first plate and said second plate to form a cavity therebetween in fluid communication with the first holes of said first plate and the second holes of said second plate; a flap disposed and moveable between said first plate and said second plate, said flap having holes substantially offset from the first holes of said first plate and substantially aligned with the second holes of said second plate; wherein said flap is operable to be motivated between said first and second plates in response to a change in direction of the differential pressure of the fluid across the valve; and characterised in that at least one of said first plate or said second plate has a coating arranged to control the distribution of one or more forces asserted on said flap when said flap impacts or is in contact with said first plate or second plate by controlling the areas of the flap over which said forces are asserted to inhibit wear of said flap at said areas. a first plate comprising a plurality of first holes extending generally perpendicular through said first plate; a second plate comprising a plurality of second holes extending generally perpendicular through said second plate, the second holes being substantially offset from the first holes of said first plate; a spacer disposed between said first plate and said second plate to form a cavity therebetween in fluid communication with the first holes of said first plate and the second holes of said second plate; a flap disposed and moveable between said first plate and said second plate, said flap having holes substantially offset from the first holes of said first plate and substantially aligned with the second holes of said second plate; wherein said flap is operable to be motivated between said first and second plates in response to a change in direction of the differential pressure of the fluid across the valve; and characterised in that at least one of said first plate or said second plate has a coating arranged to control the distribution of one or more forces asserted on said flap when said flap impacts or is in contact with said first plate or second plate by controlling the areas of the flap over which said forces are asserted to inhibit wear of said flap at said areas.
A container , intended for packaging a product, comprising: - a bottom ; - a lateral wall delimiting an interior volume (V), where the lateral wall extending upward from the bottom up to an annular end delimiting an opening (O) for access to the interior volume (V); where the container has a closed configuration and is characterized in that it further comprises two distinct protrusions in order to get the closed configuration, wherein the two protrusions are simultaneously: - projecting opposite the bottom , from the annular end of the lateral wall ; and - sealed to each other so as to form a sealing zone (Z; Z1, Z2) in order to hermetically close said opening (O); where the container has two gripping portions , distributed on the two protrusions , where each of the gripping portions is arranged outside of the sealing zone (Z; Z1, Z2). - a bottom ; - a lateral wall delimiting an interior volume (V), where the lateral wall extending upward from the bottom up to an annular end delimiting an opening (O) for access to the interior volume (V); where the container has a closed configuration and is characterized in that it further comprises two distinct protrusions in order to get the closed configuration, wherein the two protrusions are simultaneously: - projecting opposite the bottom , from the annular end of the lateral wall ; and - sealed to each other so as to form a sealing zone (Z; Z1, Z2) in order to hermetically close said opening (O); - projecting opposite the bottom , from the annular end of the lateral wall ; and - sealed to each other so as to form a sealing zone (Z; Z1, Z2) in order to hermetically close said opening (O); where the container has two gripping portions , distributed on the two protrusions , where each of the gripping portions is arranged outside of the sealing zone (Z; Z1, Z2).
A method for the functionally safe exchange of information between at least three safety controllers in accordance with a safety standard, designed for the functionally safe control of an electrical consumer in accordance with a safety standard, wherein a master (M1) is provided, and a plurality of security controllers are designed as a slave (S1...SN), and wherein data packets (DS1...DSN) are received from a plurality of slaves (S1...SN) by the master (M1), the master (M1) connects the data packets (DS1...DSN) to form a collective data packet (DM1), and sends the collective data packet (DM1) to all the slaves (S1...SN).
An isolated antibody or a binding fragment thereof that is capable of binding to influenza A virus hemagglutinin and neutralizing at least one group 1 subtype and at least 1 group 2 subtype of influenza A virus, wherein the antibody or binding fragment thereof comprises a HCDR1 of SEQ ID NO.: 113, HCDR2 of SEQ ID NO.: 114, HCDR3 of SEQ ID NO.: 115, LCDR1 of SEQ ID NO.: 118, LCDR2 of SEQ ID NO.: 119 and LCDR3 of SEQ ID NO.: 120.
A Crystalline Form of the Compound of Formula I, wherein its X-ray powder diffraction pattern has characteristic peaks at diffraction angles 2θ of 8.6°±0.2°, 16.5°±0.2° and 26.5°±0.2°, wherein the diffraction peak positions are calibrated by single crystal silicon which has a 2-theta (2θ) value of 28.443 degrees and wherein a Copper (Cu) target X-ray tube K-Alpha radiation was used as the source.
An apparatus for determining a transmission parameter for a terminal equipment side, the apparatus comprising: a first receiving unit configured to receive at least two transmission configuration indication, TCI, state related parameters or signaling configured or indicated by a network device; and a first determining unit configured to determine a transmission parameter of at least one transmission occasion of a transport block according to a related parameter or signaling containing a TCI state mapping pattern, and DCI signaling not containing a TCI field, in the at least two TCI state related parameters or signaling, wherein the first receiving unit is configured to receive the related parameter or signaling containing the TCI state mapping pattern, the related parameter or signaling containing the TCI state mapping pattern configuring a TCI state mapping pattern containing at most two TCI states, and receives DCI signaling not containing a TCI field, wherein the first determining unit is configured to determine that the TCI state of the at least one transmission occasion is a predefined TCI state, or to determine that the TCI state of the at least one transmission occasion is one of two predefined TCI states, or determines that configuration of the network device is an error condition, wherein the predefined TCI state is a TCI state predefined in a case where the terminal equipment receives the DCI signaling not containing a TCI field. a first receiving unit configured to receive at least two transmission configuration indication, TCI, state related parameters or signaling configured or indicated by a network device; and a first determining unit configured to determine a transmission parameter of at least one transmission occasion of a transport block according to a related parameter or signaling containing a TCI state mapping pattern, and DCI signaling not containing a TCI field, in the at least two TCI state related parameters or signaling, wherein the first receiving unit is configured to receive the related parameter or signaling containing the TCI state mapping pattern, the related parameter or signaling containing the TCI state mapping pattern configuring a TCI state mapping pattern containing at most two TCI states, and receives DCI signaling not containing a TCI field, wherein the first determining unit is configured to determine that the TCI state of the at least one transmission occasion is a predefined TCI state, or to determine that the TCI state of the at least one transmission occasion is one of two predefined TCI states, or determines that configuration of the network device is an error condition, wherein the predefined TCI state is a TCI state predefined in a case where the terminal equipment receives the DCI signaling not containing a TCI field.
Fixation clip for a respirator mask , in particular a nose fixation clip, the fixation clip comprising an elongated clip element having an U- or V-shaped arrangement with at least one flexible portion that allows an elastic deformation of the clip element for providing a pretention on the respirator mask , characterized in that at least one flexible portion of the clip element is designed as bistable hinge connection that provides an instable sticking point between two stable arrangements of the clip element , one stable arrangement being the U- or V-shaped arrangement and another stable arrangement being an at least essentially flat arrangement.
A radio resource scheduling method, characterized by , comprising: determining (S110), by a first-type terminal device, whether to send resource scheduling request information to at least one of a base station or a second-type terminal device, wherein the first-type terminal device communicates with the base station through a first-type interface, the first-type terminal device communicates with the second-type terminal device through a second-type interface, the second-type terminal device communicates with the base station through the first-type interface, and the second-type terminal device has a resource scheduling function; and according to a result of the determining (S110), determining (S120), by the first-type terminal device, link resources configured for communication with another first-type terminal device, wherein the result of the determining (S10) comprises: determining, by the first-type terminal device, to send the resource scheduling request information to one or both of the base station and the second-type terminal device; or determining, by the first-type terminal device, not to send the resource scheduling request information to the base station or the second-type terminal device. determining (S110), by a first-type terminal device, whether to send resource scheduling request information to at least one of a base station or a second-type terminal device, wherein the first-type terminal device communicates with the base station through a first-type interface, the first-type terminal device communicates with the second-type terminal device through a second-type interface, the second-type terminal device communicates with the base station through the first-type interface, and the second-type terminal device has a resource scheduling function; and according to a result of the determining (S110), determining (S120), by the first-type terminal device, link resources configured for communication with another first-type terminal device, wherein the result of the determining (S10) comprises: determining, by the first-type terminal device, to send the resource scheduling request information to one or both of the base station and the second-type terminal device; or determining, by the first-type terminal device, not to send the resource scheduling request information to the base station or the second-type terminal device. determining, by the first-type terminal device, to send the resource scheduling request information to one or both of the base station and the second-type terminal device; or determining, by the first-type terminal device, not to send the resource scheduling request information to the base station or the second-type terminal device.
A communication method, wherein the method comprises: receiving , by a first node , a first message from a second node , wherein the first message is used to instruct to set a third node to a low configuration mode or to set the third node to a high configuration mode; after receiving the first message, detecting, by the first node , if there is an established device-to-device, D2D, connection between the first node and the third node , and if there is no established D2D connection between the first node and the third node , establishing , by the first node , a D2D connection to the third node ; and sending , by the first node , a second message to the third node , wherein the second message is used to instruct to set the third node to the low configuration mode or to set the third node to the high configuration mode; wherein the second node is a serving station of the first node and the third node , in the low configuration mode, the third node does not receive information sent by the second node , and in the high configuration mode, the second node keeps or maintains D2D connection with the third node , so that the third node can directly receive, after the second node stops communication with the first node , information sent by the second node . receiving , by a first node , a first message from a second node , wherein the first message is used to instruct to set a third node to a low configuration mode or to set the third node to a high configuration mode; after receiving the first message, detecting, by the first node , if there is an established device-to-device, D2D, connection between the first node and the third node , and if there is no established D2D connection between the first node and the third node , establishing , by the first node , a D2D connection to the third node ; and sending , by the first node , a second message to the third node , wherein the second message is used to instruct to set the third node to the low configuration mode or to set the third node to the high configuration mode; wherein the second node is a serving station of the first node and the third node , in the low configuration mode, the third node does not receive information sent by the second node , and in the high configuration mode, the second node keeps or maintains D2D connection with the third node , so that the third node can directly receive, after the second node stops communication with the first node , information sent by the second node .
An intravascular system comprising an intravascular device and a connector , wherein the intravascular device comprises: a flexible elongate member comprising a proximal portion and a distal portion ; at least one electronic component secured to the distal portion of the flexible elongate member; wherein the proximal portion of the flexible elongate member comprises a first subsection located between a second subsection and a third subsection , wherein the first subsection is a section of a core wire extending through the second subsection, and said first subsection having a diameter smaller than a second diameter of the second subsection and the third subsection, wherein a first connection piece of the connector comprises a recess sized and shaped such that the first subsection is receivable by the recess of the first connection piece of the connector for coupling it to the proximal portion of the flexible elongate member, while the second and third subsections are not receivable by the recess, and wherein a second connection piece of the connector is translatable relative to the first connection piece between an open position of the connector allowing removal of the intravascular device from the connector and a closed position not allowing removal of the intravascular device from the connector. a flexible elongate member comprising a proximal portion and a distal portion ; at least one electronic component secured to the distal portion of the flexible elongate member; wherein the proximal portion of the flexible elongate member comprises a first subsection located between a second subsection and a third subsection , wherein the first subsection is a section of a core wire extending through the second subsection, and said first subsection having a diameter smaller than a second diameter of the second subsection and the third subsection, wherein a first connection piece of the connector comprises a recess sized and shaped such that the first subsection is receivable by the recess of the first connection piece of the connector for coupling it to the proximal portion of the flexible elongate member, while the second and third subsections are not receivable by the recess, and wherein a second connection piece of the connector is translatable relative to the first connection piece between an open position of the connector allowing removal of the intravascular device from the connector and a closed position not allowing removal of the intravascular device from the connector.
Covering assembly for a motor vehicle having a cover and a cover compartment lid for closing a cover compartment , wherein the cover has a tensioning hoop which is pretensioned in the direction of the cover compartment lid in the closed state of the cover , wherein a tensioning hoop seal is arranged on the cover in the region of the tensioning hoop in order to seal a gap between the cover and the cover compartment lid , and wherein a sealing surface is formed directly by the surface of the cover compartment lid , wherein the surface of the cover compartment lid is a plastic surface, characterized in that the plastic surface has a surface texture and wherein the surface texture in the region of the sealing surface has a smaller depth, or the region of the sealing surface is formed without surface texture.
A turbine rotor blade , comprising: an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges , the outer walls defining a radially extending chamber for receiving a coolant flow; a platform extending laterally outward relative to the airfoil body and terminating at at least one slash face ; a cooling circuit defined within the platform and in fluid communication with a source of the coolant flow; and at least one cooling passage defined in the platform and in fluid communication with the cooling circuit , the at least one cooling passage extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face of the platform ; characterized in that the at least one cooling passage has a helical shape. an airfoil body including a concave pressure side outer wall and a convex suction side outer wall that connect along leading and trailing edges , the outer walls defining a radially extending chamber for receiving a coolant flow; a platform extending laterally outward relative to the airfoil body and terminating at at least one slash face ; a cooling circuit defined within the platform and in fluid communication with a source of the coolant flow; and at least one cooling passage defined in the platform and in fluid communication with the cooling circuit , the at least one cooling passage extending in a non-linear configuration from the cooling circuit to exit through the at least one slash face of the platform ; characterized in that the at least one cooling passage has a helical shape.
A method for monitoring and detecting defects in a doubly-fed asynchronous machine including a stator and a rotor, said method being implemented by computer means, where said method comprises: a. receiving , as input and as a function of time, a current measurement (I(t)) and a voltage measurement (U(t)) of at least one phase of the stator, and a measurement of relative rotation speed (v(t)) between the stator and the rotor; b. deducing a stator power (P(t)) as a function of time from received current (I(t)) and voltage (U(t)) measurements; c. performing a harmonic analysis on the resulting stator power (P(t)), where said harmonic analysis includes applying a wavelet transform to the resulting stator power (P(t)), such that a harmonic representation (P(t,f)) of the stator power as a function of frequency results; d. comparing the resulting harmonic representation to a reference harmonic representation, where said reference harmonic representation is selected as a function of the rotation speed (v(t)) measurement, so as to detect possible defects in said machine as a function of possible differences identified by the comparison. a. receiving , as input and as a function of time, a current measurement (I(t)) and a voltage measurement (U(t)) of at least one phase of the stator, and a measurement of relative rotation speed (v(t)) between the stator and the rotor; b. deducing a stator power (P(t)) as a function of time from received current (I(t)) and voltage (U(t)) measurements; c. performing a harmonic analysis on the resulting stator power (P(t)), where said harmonic analysis includes applying a wavelet transform to the resulting stator power (P(t)), such that a harmonic representation (P(t,f)) of the stator power as a function of frequency results; d. comparing the resulting harmonic representation to a reference harmonic representation, where said reference harmonic representation is selected as a function of the rotation speed (v(t)) measurement, so as to detect possible defects in said machine as a function of possible differences identified by the comparison.
A turbine assembly for an internal combustion engine and comprising: a first turbine , which rotates around a first rotation axis and is configured to rotate due to the thrust exerted by exhaust gases emitted by the internal combustion engine ; a second turbine which is independent and separate from the first turbine , rotates around a second rotation axis and is configured to rotate due to the thrust exerted by exhaust gases emitted by the internal combustion engine ; an electric generator , which is operated by the first turbine and by the second turbine ; and a transmission device , which connects both turbines to the same electric generator ; the turbine assembly is characterized in that: the second rotation axis of the second turbine is parallel to and spaced from the first rotation axis of the first turbine ; and the transmission device is configured to give the two turbines the same rotation speed. a first turbine , which rotates around a first rotation axis and is configured to rotate due to the thrust exerted by exhaust gases emitted by the internal combustion engine ; a second turbine which is independent and separate from the first turbine , rotates around a second rotation axis and is configured to rotate due to the thrust exerted by exhaust gases emitted by the internal combustion engine ; an electric generator , which is operated by the first turbine and by the second turbine ; and a transmission device , which connects both turbines to the same electric generator ; the turbine assembly is characterized in that: the second rotation axis of the second turbine is parallel to and spaced from the first rotation axis of the first turbine ; and the transmission device is configured to give the two turbines the same rotation speed. the second rotation axis of the second turbine is parallel to and spaced from the first rotation axis of the first turbine ; and the transmission device is configured to give the two turbines the same rotation speed.