mhurhangee/patent-ind-claim-en huggingface dataset:
A hub-bearing assembly for rotatably mounting a wheel to a vehicle, the assembly having an axis of rotation (x) and comprising a radially outer, stationary bearing ring ; a radially inner bearing ring , which is rotatable about the axis of rotation and provides a flange extending in a radially outer direction for mounting a wheel; a plurality of rolling elements interposed between the outer and inner rings; a sealing device , mounted to the outer ring and having a plurality of elastomeric sealing lips extending towards the inner ring ; characterized in that , in combination: i)- the flange forms in one piece thereof an annular relief projecting in an axially inner direction and providing a radially inner, cylindrical or frustoconical surface , facing the axis of rotation (x), ii)- at least one of the elastomeric sealing lips of the sealing device is a non-contacting axial lip which extends axially towards the flange and provides a free end portion which performs a labyrinth seal, without contact, with the radially inner surface of the annular relief , iii)- the annular relief provides an end surface , substantially transversal to the axis of rotation (x), the end surface being directed in an axially internal direction and forming a sharp edge of about 90° with the cylindrical or frustoconical surface , iv)- the free end portion of the non-contacting axial lip provides an axially extending cylindrical or truncated cone surface coaxially within the radially inner, cylindrical or frustoconical surface of the relief , so as to form with the latter an axially elongate gap having an annular shape in a transversal cross-section, so as to perform a labyrinth seal, v)- the annular relief protrudes in an axially inner direction beyond the cylindrical or frustoconical surface of the non-contacting axial lip . i)- the flange forms in one piece thereof an annular relief projecting in an axially inner direction and providing a radially inner, cylindrical or frustoconical surface , facing the axis of rotation (x), ii)- at least one of the elastomeric sealing lips of the sealing device is a non-contacting axial lip which extends axially towards the flange and provides a free end portion which performs a labyrinth seal, without contact, with the radially inner surface of the annular relief , iii)- the annular relief provides an end surface , substantially transversal to the axis of rotation (x), the end surface being directed in an axially internal direction and forming a sharp edge of about 90° with the cylindrical or frustoconical surface , iv)- the free end portion of the non-contacting axial lip provides an axially extending cylindrical or truncated cone surface coaxially within the radially inner, cylindrical or frustoconical surface of the relief , so as to form with the latter an axially elongate gap having an annular shape in a transversal cross-section, so as to perform a labyrinth seal, v)- the annular relief protrudes in an axially inner direction beyond the cylindrical or frustoconical surface of the non-contacting axial lip .
Use of the simultaneous binding of a bivalent, bispecific antibody to its first and second antigen in a surface plasmon resonance or ELISA method, whereby the first antigen is immobilized as capture reagent on a solid surface, and whereby the bivalent, bispecific antibody has a k D value for the interaction with the first antigen that is smaller than the k D value for the interaction with the second antigen, for reducing the interference of functional multimeric forms of the bivalent, bispecific antibody in the surface plasmon resonance or ELISA method.
Switching arrangement for connecting two DC voltage grids comprising - a DC voltage line , which connects a first DC voltage grid to a second DC voltage grid , - a first unidirectional switching element (SE1) in a first pole of the DC voltage line , - a second unidirectional switching element (SE2) in the first pole of the DC voltage line , which second unidirectional switching element is arranged at a distance from the first switching element (SE1) and the switching direction of which is directed counter to a switching direction of the first switching element (SE1), - a third unidirectional switching element (SE3) in a second pole of the DC voltage line , - a fourth unidirectional switching element (SE4) in the second pole of the DC voltage line , which fourth unidirectional switching element is arranged at a distance from the third switching element (SE3) and the switching direction of which is directed counter to a switching direction of the third switching element (SE3), wherein the switching elements (SE1-4) each have a dielectric strength which lies below a rated voltage (Un) of the DC voltage line . - a DC voltage line , which connects a first DC voltage grid to a second DC voltage grid , - a first unidirectional switching element (SE1) in a first pole of the DC voltage line , - a second unidirectional switching element (SE2) in the first pole of the DC voltage line , which second unidirectional switching element is arranged at a distance from the first switching element (SE1) and the switching direction of which is directed counter to a switching direction of the first switching element (SE1), - a third unidirectional switching element (SE3) in a second pole of the DC voltage line , - a fourth unidirectional switching element (SE4) in the second pole of the DC voltage line , which fourth unidirectional switching element is arranged at a distance from the third switching element (SE3) and the switching direction of which is directed counter to a switching direction of the third switching element (SE3), wherein the switching elements (SE1-4) each have a dielectric strength which lies below a rated voltage (Un) of the DC voltage line .
A method of detecting a leak in an air trailer brake circuit of a trailer , comprising: providing a controller , a base valve , a first sensor , a second sensor , a leak detect valve having a solenoid , a pneumatic fluid supply , a first brake output, and a second brake output; supplying a first pressure to an inlet of the base valve, where the first pressure is a hydraulic pressure; outputting a second pressure from an outlet of the base valve, where the second pressure is a pneumatic pressure; detecting the first pressure with the first sensor and the second pressure with the second sensor ; communicating the detected first pressure and the second pressure to the controller ; comparing a difference between first pressure and the second pressure to a threshold; and detecting a leak in the air trailer brake circuit if the difference exceeds the threshold. providing a controller , a base valve , a first sensor , a second sensor , a leak detect valve having a solenoid , a pneumatic fluid supply , a first brake output, and a second brake output; supplying a first pressure to an inlet of the base valve, where the first pressure is a hydraulic pressure; outputting a second pressure from an outlet of the base valve, where the second pressure is a pneumatic pressure; detecting the first pressure with the first sensor and the second pressure with the second sensor ; communicating the detected first pressure and the second pressure to the controller ; comparing a difference between first pressure and the second pressure to a threshold; and detecting a leak in the air trailer brake circuit if the difference exceeds the threshold.
A computer implemented method to identify a malicious database request comprising: receiving , from a software application , a database query for retrieving data from a database; classifying the received query based on query instructions contained in the query to identify a class of query for the query, the class of query having associated attributes defining expected characteristics of queries of the class when executed by the database; monitoring characteristics of the received query executed to retrieve data from the database; and responsive to a determination that the monitored characteristics deviate from the expected characteristics, identifying the query as malicious, wherein the class of query has associated a class query including the query instructions of the received query and the expected characteristics are defined based on the execution of the class query and classifying applications, such as said software application , based on queries received from the applications so as to identify applications having a similar profile to provide identification of malicious applications. receiving , from a software application , a database query for retrieving data from a database; classifying the received query based on query instructions contained in the query to identify a class of query for the query, the class of query having associated attributes defining expected characteristics of queries of the class when executed by the database; monitoring characteristics of the received query executed to retrieve data from the database; and responsive to a determination that the monitored characteristics deviate from the expected characteristics, identifying the query as malicious, wherein the class of query has associated a class query including the query instructions of the received query and the expected characteristics are defined based on the execution of the class query and classifying applications, such as said software application , based on queries received from the applications so as to identify applications having a similar profile to provide identification of malicious applications.
A method of treating a liquid comprising the steps of: i. generating a thin flow of the liquid in a supercritical flow, and having a velocity greater than 0.8 m/s; and ii. irradiating the thin flow using at least one radiation source external to the thin flow; wherein the thin flow is directed along a channel , wherein the channel is enclosed by a bottom face and two side faces, with either a top face left open, or a top face that is not in contact with the thin flow of the liquid. i. generating a thin flow of the liquid in a supercritical flow, and having a velocity greater than 0.8 m/s; and ii. irradiating the thin flow using at least one radiation source external to the thin flow;
An integrated circuit which, in operation, controls a process of a terminal apparatus supporting Time Division Duplex enhancement for UL-DL Interference Management and Traffic Adaptation, TDD eIMTA, the process comprising: receiving a System Information Block Type 1, SIB1, indication of a first UL-DL configuration receiving an instruction to change to a second UL-DL configuration, wherein each UL-DL configuration defines timings for uplink, UL, subframes and timings for downlink, DL, subframes or timings for special subframes; receiving a signal carried in at least one PHICH, Physical Hybrid ARQ Indicator Channel, resource assigned to a DL subframe; and demultiplexing the received signal of the at least one PHICH resource to extract an ACK/NACK signal, wherein the ACK/NACK signal is a response for uplink data; and retransmitting uplink data based on the extracted ACK/NACK response signal identifying the at least one PHICH resource based on a total number of PHICH groups defined in the DL subframe, in which the signal is received, and an indication of a PHICH resource region, wherein the total number of PHICH groups is based on the first UL-DL configuration, and not on the second UL-DL configuration, at the timings where both, the first and the second UL-DL configuration, define DL, downlink, subframes or special subframes. receiving a System Information Block Type 1, SIB1, indication of a first UL-DL configuration receiving an instruction to change to a second UL-DL configuration, wherein each UL-DL configuration defines timings for uplink, UL, subframes and timings for downlink, DL, subframes or timings for special subframes; receiving a signal carried in at least one PHICH, Physical Hybrid ARQ Indicator Channel, resource assigned to a DL subframe; and demultiplexing the received signal of the at least one PHICH resource to extract an ACK/NACK signal, wherein the ACK/NACK signal is a response for uplink data; and retransmitting uplink data based on the extracted ACK/NACK response signal identifying the at least one PHICH resource based on a total number of PHICH groups defined in the DL subframe, in which the signal is received, and an indication of a PHICH resource region, wherein the total number of PHICH groups is based on the first UL-DL configuration, and not on the second UL-DL configuration, at the timings where both, the first and the second UL-DL configuration, define DL, downlink, subframes or special subframes.
A method comprising the steps of: (i) attaching a microparticle to a solid support, thereby forming an immobilized microparticle, wherein said immobilized microparticle is further covalently attached to: (a) a ligand domain through a first linker; and (b) an encoding tag through a second linker; wherein said ligand domain is a peptide, a protein, a macrocyclic peptide, a peptidomimetic, a polyamide, or a macrolactam; wherein said encoding tag is a nucleic acid sequence identifying said ligand domain; wherein said second linker is cleavable and said first linker is not cleavable under a condition that said second linker is cleavable; wherein said first linker comprises -C(O)NH- or -NHC(O)-, and said second linker comprises -C(O)O- or -OC(O)-; and (ii) performing a decoding procedure on the encoding tag, thereby identifying the composition of the ligand domain and its location on said solid support; and (iii) cleaving said second linker of said microparticle, thereby forming a cleaved microparticle. (i) attaching a microparticle to a solid support, thereby forming an immobilized microparticle, wherein said immobilized microparticle is further covalently attached to: (a) a ligand domain through a first linker; and (b) an encoding tag through a second linker; wherein said ligand domain is a peptide, a protein, a macrocyclic peptide, a peptidomimetic, a polyamide, or a macrolactam; wherein said encoding tag is a nucleic acid sequence identifying said ligand domain; wherein said second linker is cleavable and said first linker is not cleavable under a condition that said second linker is cleavable; wherein said first linker comprises -C(O)NH- or -NHC(O)-, and said second linker comprises -C(O)O- or -OC(O)-; and (a) a ligand domain through a first linker; and (b) an encoding tag through a second linker; wherein said ligand domain is a peptide, a protein, a macrocyclic peptide, a peptidomimetic, a polyamide, or a macrolactam; wherein said encoding tag is a nucleic acid sequence identifying said ligand domain; wherein said second linker is cleavable and said first linker is not cleavable under a condition that said second linker is cleavable; wherein said first linker comprises -C(O)NH- or -NHC(O)-, and said second linker comprises -C(O)O- or -OC(O)-; and wherein said ligand domain is a peptide, a protein, a macrocyclic peptide, a peptidomimetic, a polyamide, or a macrolactam; wherein said encoding tag is a nucleic acid sequence identifying said ligand domain; wherein said second linker is cleavable and said first linker is not cleavable under a condition that said second linker is cleavable; wherein said first linker comprises -C(O)NH- or -NHC(O)-, and said second linker comprises -C(O)O- or -OC(O)-; and (ii) performing a decoding procedure on the encoding tag, thereby identifying the composition of the ligand domain and its location on said solid support; and (iii) cleaving said second linker of said microparticle, thereby forming a cleaved microparticle.
A method for manufacturing a belt assembly for an absorbent article , the method comprising: advancing belt assembly around a portion of a first guide roller , wherein the belt assembly comprises a first surface and a second surface ; advancing the belt assembly around a portion of a second guide roller , wherein an unsupported portion of the belt assembly is suspended between the first guide roller and the second guide roller ; imparting a first line of weakness into the first surface of the belt assembly using a first laser beam, wherein the first laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller ; characterized by the steps of: imparting a second line of weakness into the second surface of the belt assembly using a second laser beam, wherein the second laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller ; wherein the first line of weakness is coincident with the second line of weakness. advancing belt assembly around a portion of a first guide roller , wherein the belt assembly comprises a first surface and a second surface ; advancing the belt assembly around a portion of a second guide roller , wherein an unsupported portion of the belt assembly is suspended between the first guide roller and the second guide roller ; imparting a first line of weakness into the first surface of the belt assembly using a first laser beam, wherein the first laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller ; characterized by the steps of: imparting a second line of weakness into the second surface of the belt assembly using a second laser beam, wherein the second laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller ; wherein the first line of weakness is coincident with the second line of weakness. imparting a second line of weakness into the second surface of the belt assembly using a second laser beam, wherein the second laser beam acts on the unsupported portion of the belt assembly between the first guide roller and the second guide roller ; wherein the first line of weakness is coincident with the second line of weakness.
A controller for controlling a heating, ventilating, and air-conditioning, HVAC, system arranged to condition an environment according to HVAC setpoints, comprising: at least one processor ; and memory having instructions stored thereon that, when executed by the at least one processor , cause the controller to: accept target thermal states at predetermined locations in the conditioned environment, current thermal states at the predetermined locations in the conditioned environment, and current HVAC setpoints ; determine, using a neural network trained to establish an invertible relationship between thermal states at the predetermined locations and HVAC setpoints causing the thermal states, target HVAC setpoints such that a difference in an operation of the HVAC system according to the target HVAC setpoints with respect to the operation of the HVAC system according to the current HVAC setpoints changes the thermal states in the predetermined locations in the conditioned environment from the current thermal state to the target thermal state ; and produce and submit control commands to components of the HVAC system to operate according to the target HVAC setpoints ; characterized in that the neural network has autoencoding architecture having an encoder and a decoder connected with a latent layer corresponding to the HVAC setpoints, such that the encoder forms a thermal setpoint model that connects the thermal states to the HVAC setpoints while the decoder forms a thermal sensor model that connects the HVAC setpoints with the thermal states . accept target thermal states at predetermined locations in the conditioned environment, current thermal states at the predetermined locations in the conditioned environment, and current HVAC setpoints ; determine, using a neural network trained to establish an invertible relationship between thermal states at the predetermined locations and HVAC setpoints causing the thermal states, target HVAC setpoints such that a difference in an operation of the HVAC system according to the target HVAC setpoints with respect to the operation of the HVAC system according to the current HVAC setpoints changes the thermal states in the predetermined locations in the conditioned environment from the current thermal state to the target thermal state ; and produce and submit control commands to components of the HVAC system to operate according to the target HVAC setpoints ; characterized in that the neural network has autoencoding architecture having an encoder and a decoder connected with a latent layer corresponding to the HVAC setpoints, such that the encoder forms a thermal setpoint model that connects the thermal states to the HVAC setpoints while the decoder forms a thermal sensor model that connects the HVAC setpoints with the thermal states .
Rolling bearing comprising an outer ring and an inner ring , wherein rolling elements are arranged between the outer ring and the inner ring, and wherein the rolling elements are spaced apart by a cage being arranged between the outer ring and the inner ring, wherein the cage is made of polymer containing reinforcing fibers, and the outer ring and/or the inner ring are steel rings with fine carbide precipitation, characterized in that the cage is made of a polymer matrix having a hardness of about 35 HB and the reinforcing fibers having a hardness of about 1000 HB.
A planet carrier for an epicyclic speed reduction gear , the planet carrier comprising a torque transmission member having a longitudinal axis A and an annular cage extending around the axis A and connected to a longitudinal end of the member , said cage comprising two flanks extending radially with respect to the axis A and connected by bridges , seats extending axially between the flanks and being intended for supporting planet gears mounted rotatably around the seats , wherein said bridges comprise bars which cross one another in the shape of X and of which the ends located on the side of said member are connected to said member by a ring which extends around said axis A characterized in that this ring has an outer diameter (D3) equal to a maximum outer diameter (D4) of said bridges , wherein this ring comprises a continuous annular channel opening radially inwards with respect to said axis A.
A liquid immersion member in which a liquid immersion space (LS) is formed on an object (P) movable below an optical member so that a light path (K) of exposure light (EL) emitted from an emission surface of the optical member is filled with liquid, comprising: a first member which is disposed in at least a portion of the periphery of the optical member; and a second member which is movable below the first member to interpose a gap therebetween and which includes a recovery port that recovers at least a portion of the liquid in the liquid immersion space, wherein the second member is movable to decrease a relative velocity between the second member and the object, and the liquid immersion member is adapted to suppress the infiltration of liquid into the gap. a first member which is disposed in at least a portion of the periphery of the optical member; and a second member which is movable below the first member to interpose a gap therebetween and which includes a recovery port that recovers at least a portion of the liquid in the liquid immersion space, wherein the second member is movable to decrease a relative velocity between the second member and the object, and the liquid immersion member is adapted to suppress the infiltration of liquid into the gap.