mhurhangee/patent-ind-claim-en huggingface dataset:
A torso load distribution assembly comprising: one or more plate portions including a body having a front surface , a rear surface and a side surface that joins the front surface to the rear surface , wherein the body includes a plurality of body portions (16a-16d, 216a-216c, 316a-316d, 416a-416d, 516a-516d, 716a-716d) that are spaced apart from a substantially central body portion ; a plate engaging member including a body having central body portion , a first body portion connected to the central body portion and a second body portion connected to the central body portion , wherein each of the first body portion and the second body portion are attached to the plurality of body portions (16a-16d, 216a-216c, 316a-316d, 416a-416d, 516a-516d, 716a-716d) of the one or more plate portions , wherein the body of the plate engaging member is configured to be slightly smaller dimensionally (D 14V , D 14H ; D 214V , D 214H ; D 314V , D 314H ; D 414V , D 414H ; D 514V , D 514H ) than dimensions (D 12V , D 12H ; D 212V , D 212H ; D 312V , D 312H ; D 412V , D 412H ; D 512V , D 512H ; D 712V , D 712H ) formed by the side surface of the body of the one or more plate portions ; characterised in that the body of the one or more plate portions is formed by a flexible material that permits the body to be manipulated from an at-rest, substantially flat orientation to a flexed or bowed orientation when the plurality of body portions (16a-16d, 216a-216c, 316a-316d, 416a-416d, 516a-516d, 716a-716d) of the one or more plate portions are attached to the plate engaging member . one or more plate portions including a body having a front surface , a rear surface and a side surface that joins the front surface to the rear surface , wherein the body includes a plurality of body portions (16a-16d, 216a-216c, 316a-316d, 416a-416d, 516a-516d, 716a-716d) that are spaced apart from a substantially central body portion ; a plate engaging member including a body having central body portion , a first body portion connected to the central body portion and a second body portion connected to the central body portion , wherein each of the first body portion and the second body portion are attached to the plurality of body portions (16a-16d, 216a-216c, 316a-316d, 416a-416d, 516a-516d, 716a-716d) of the one or more plate portions , wherein the body of the plate engaging member is configured to be slightly smaller dimensionally (D 14V , D 14H ; D 214V , D 214H ; D 314V , D 314H ; D 414V , D 414H ; D 514V , D 514H ) than dimensions (D 12V , D 12H ; D 212V , D 212H ; D 312V , D 312H ; D 412V , D 412H ; D 512V , D 512H ; D 712V , D 712H ) formed by the side surface of the body of the one or more plate portions ; characterised in that the body of the one or more plate portions is formed by a flexible material that permits the body to be manipulated from an at-rest, substantially flat orientation to a flexed or bowed orientation when the plurality of body portions (16a-16d, 216a-216c, 316a-316d, 416a-416d, 516a-516d, 716a-716d) of the one or more plate portions are attached to the plate engaging member .
A device for machining a workpiece (W) using a collimated laser beam (L), comprising a laser generating device and comprising a beam-forming and deflecting optical system arranged between a collimating lens and a focusing lens , comprising at least two optical elements , which are arranged one behind the other in the direction (z) of the collimated laser beam (L) and which are formed by wedges with a respective wedge angle (α i ), wherein at least one optical element is connected to a drive for the rotation of the optical element about the optical axis (c), whereby an optical wedge can be rotated relative to the at least one other optical wedge , characterized in that the optical wedges , which are arranged one behind the other, in each case cover only a part of the laser beam (L).
A catheter assembly comprising: a flexible catheter; a needle having a sharp distal tip, the needle disposed in the flexible catheter and moving from a first position that exposes the needle to a second position; an outer member that is configured to engage and disengage a catheter hub ; an inner member movably disposed in the outer member ; and a needle shield for shielding at least a distal end of the needle when the needle is in the second position and the needle passing through the needle shield in the first position, characterized in that a distal surface of the needle shield is secured between the catheter hub and the outer member when the needle is in the first position. a flexible catheter; a needle having a sharp distal tip, the needle disposed in the flexible catheter and moving from a first position that exposes the needle to a second position; an outer member that is configured to engage and disengage a catheter hub ; an inner member movably disposed in the outer member ; and a needle shield for shielding at least a distal end of the needle when the needle is in the second position and the needle passing through the needle shield in the first position, characterized in that a distal surface of the needle shield is secured between the catheter hub and the outer member when the needle is in the first position.
A dry blend suitable for forming an analogue cheese free of casein selected from the following formulations:
Beverage-making machine, comprising a conveying device for conveying a fluid (F), and a flow measuring system for detecting one or more parameters characteristic of a flow of the fluid (F) and one or more parameters characteristic of a condition of the fluid (F), wherein the conveying device can be regulated using the detected parameter(s), wherein the flow measuring system comprises a) an ultrasonic flow meter, by which at least one parameter characteristic of the flow of the fluid (F) can be detected; and/or b) a magnetic-inductive flow meter, by which at least one parameter characteristic of the flow of the fluid (F) can be detected, characterized in that a parameter which indicates whether gas bubbles or air bubbles are contained in the fluid (F) can be detected by the flow measuring system as one or more parameters characteristic of a condition of the fluid (F). a) an ultrasonic flow meter, by which at least one parameter characteristic of the flow of the fluid (F) can be detected; and/or b) a magnetic-inductive flow meter, by which at least one parameter characteristic of the flow of the fluid (F) can be detected,
A polypeptide comprising the three following vinculin binding sites (VBS): VBS1: IYKAAKDVTTSLSKVLKNI (SEQ ID NO: 2) or a variant thereof wherein the variant of SEQ ID NO: 2 is a polypeptide having a sequence identity of at least 90% with SEQ ID NO: 2; VBS2: IYEKAKEVSSALSKVLSKI (SEQ ID NO: 3) or a variant thereof wherein the variant of SEQ ID NO: 3 is a polypeptide having a sequence identity of at least 90% with SEQ ID NO: 3; VBS3: IFEASKKVTNSLSNLISLI (SEQ ID NO: 4) or a variant thereof wherein the variant of SEQ ID NO: 4 is a polypeptide having a sequence identity of at least 90% with SEQ ID NO: 4; wherein said polypeptide consists of 140 to 160 amino acids, and wherein the interaction of said polypeptide with vinculin induces the supra-activation of vinculin. VBS1: IYKAAKDVTTSLSKVLKNI (SEQ ID NO: 2) or a variant thereof wherein the variant of SEQ ID NO: 2 is a polypeptide having a sequence identity of at least 90% with SEQ ID NO: 2; VBS2: IYEKAKEVSSALSKVLSKI (SEQ ID NO: 3) or a variant thereof wherein the variant of SEQ ID NO: 3 is a polypeptide having a sequence identity of at least 90% with SEQ ID NO: 3; VBS3: IFEASKKVTNSLSNLISLI (SEQ ID NO: 4) or a variant thereof wherein the variant of SEQ ID NO: 4 is a polypeptide having a sequence identity of at least 90% with SEQ ID NO: 4;
A heat exchanger comprising: • a housing ; • a heat exchanger core adapted to be received in said housing and comprising heat exchange tubes that are adapted to receive hot gas, coolant is received in said housing and around said heat exchange tubes ; • a diverging tank disposed at a side of said housing and diverging towards said housing , said diverging tank adapted to connect a coolant inlet with said housing to enable fluid communication between said coolant inlet and an interior of said housing ; and • at least a portion of at least one baffle disposed inside said diverging tank and adapted to divide an interior of said diverging tank into at least two volumes, wherein at least one volume is in fluid communication with said interior of said housing and said at least one baffle is adapted to direct coolant flow to a gas inlet area inside said housing ; characterized in that said at least one baffle is integrally formed with said housing and wherein said at least one baffle as well as the at least one inlet is formed by deforming a cut out portion of said housing that is integrally connected to said housing . • a housing ; • a heat exchanger core adapted to be received in said housing and comprising heat exchange tubes that are adapted to receive hot gas, coolant is received in said housing and around said heat exchange tubes ; • a diverging tank disposed at a side of said housing and diverging towards said housing , said diverging tank adapted to connect a coolant inlet with said housing to enable fluid communication between said coolant inlet and an interior of said housing ; and • at least a portion of at least one baffle disposed inside said diverging tank and adapted to divide an interior of said diverging tank into at least two volumes, wherein at least one volume is in fluid communication with said interior of said housing and said at least one baffle is adapted to direct coolant flow to a gas inlet area inside said housing ;
A bait dispenser for dispensing bait during angling, which bait dispenser comprises: (i) a body portion for containing the bait ; (ii) a nose portion for closing the body portion ; (iii) hinge means by which the nose portion opens and closes about the body portion ; (iv) fastener means for releasably fastening the nose portion to the body portion ; and (v) attachment means which is for attaching the bait dispenser to a fishing line, and the bait dispenser being such that: (vi) the body portion is a tubular body portion having a longitudinally extending through bore ; (vii) the nose portion is arranged to close a front end of the body portion ; (viii) the fastener means is an electrically-operated fastener means which operates to allow the nose portion to open about the body portion ; (ix) the fastener means comprises two electrodes arranged inside the nose portion and extending into respective apertures of the nose portion ; and (x) the nose portion is arranged to open about the body portion consequent upon the electrodes being contacted by water into which the bait dispenser is cast and the water completing an electrical circuit between the electrodes . (i) a body portion for containing the bait ; (ii) a nose portion for closing the body portion ; (iii) hinge means by which the nose portion opens and closes about the body portion ; (iv) fastener means for releasably fastening the nose portion to the body portion ; and (v) attachment means which is for attaching the bait dispenser to a fishing line, (vi) the body portion is a tubular body portion having a longitudinally extending through bore ; (vii) the nose portion is arranged to close a front end of the body portion ; (viii) the fastener means is an electrically-operated fastener means which operates to allow the nose portion to open about the body portion ; (ix) the fastener means comprises two electrodes arranged inside the nose portion and extending into respective apertures of the nose portion ; and (x) the nose portion is arranged to open about the body portion consequent upon the electrodes being contacted by water into which the bait dispenser is cast and the water completing an electrical circuit between the electrodes .
An emulsifier-free sunscreen composition comprising: an suspension of oil phase droplets in a gellified water phase, the oil phase droplets comprising a UV filter system present from at least about 20% by weight of the composition and comprising one or more oil soluble UV sun filters, and an amino acid gelling agent, and the gellified water phase comprising water and at least one thickener, wherein the oil phase components can be blended at a temperature that is below 100 degrees C.
A method of managing vehicle engine/transmission systems to assist in thermal management of an engine exhaust aftertreatment system , the method comprising: receiving data indicative of at least one current vehicle operating condition, said operating condition data including data signifying at least one of transmission out power and speed, current gear number, transmission gearing set, current engine temperature, current engine speed, current engine torque, and fueling; receiving data from engine fueling maps based on warm-up conditions; receiving a target temperature (T target ) related to DOC light-off; determining a first expected exhaust temperature based on a transmission down shift and higher engine speed in view of said operating condition data and said fueling maps; determining a second expected exhaust temperature based on a transmission down shift and higher engine speed coupled with fuel dosing; determining a third expected exhaust temperature based on additional fuel dosing and a non-shifted transmission; comparing said first, second and third expected exhaust temperatures against said target temperature (T target ); and providing a transmission gear shift recommendation in view of the compared expected exhaust temperatures based on an optimization of overall fuel economy. receiving data indicative of at least one current vehicle operating condition, said operating condition data including data signifying at least one of transmission out power and speed, current gear number, transmission gearing set, current engine temperature, current engine speed, current engine torque, and fueling; receiving data from engine fueling maps based on warm-up conditions; receiving a target temperature (T target ) related to DOC light-off; determining a first expected exhaust temperature based on a transmission down shift and higher engine speed in view of said operating condition data and said fueling maps; determining a second expected exhaust temperature based on a transmission down shift and higher engine speed coupled with fuel dosing; determining a third expected exhaust temperature based on additional fuel dosing and a non-shifted transmission; comparing said first, second and third expected exhaust temperatures against said target temperature (T target ); and providing a transmission gear shift recommendation in view of the compared expected exhaust temperatures based on an optimization of overall fuel economy.
A system , comprising: a first sensor configured to sense brain signal data from a user , the brain signal data comprising nerve signals transmitted via a brain of the user and corresponding to a first set of words spoken by the user ; a second sensor configured to sense audio data from the user corresponding to the first set of words; one or more processors communicatively coupled to the first sensor and the second sensor , the one or more processors configured to: generate text data based on the audio data using a machine learning algorithm; and re-train the machine learning algorithm based on the brain signal data and the text data to generate a re-trained machine learning algorithm, wherein the re-trained machine learning algorithm is configured to generate second text data associated with a second set of words based on second brain signal data. a first sensor configured to sense brain signal data from a user , the brain signal data comprising nerve signals transmitted via a brain of the user and corresponding to a first set of words spoken by the user ; a second sensor configured to sense audio data from the user corresponding to the first set of words; one or more processors communicatively coupled to the first sensor and the second sensor , the one or more processors configured to: generate text data based on the audio data using a machine learning algorithm; and re-train the machine learning algorithm based on the brain signal data and the text data to generate a re-trained machine learning algorithm, wherein the re-trained machine learning algorithm is configured to generate second text data associated with a second set of words based on second brain signal data. generate text data based on the audio data using a machine learning algorithm; and re-train the machine learning algorithm based on the brain signal data and the text data to generate a re-trained machine learning algorithm, wherein the re-trained machine learning algorithm is configured to generate second text data associated with a second set of words based on second brain signal data.
A method for wirelessly transmitting charging power to a wireless power receiver by a wireless power transmitter, the method comprising: periodically applying a first detection power (S801) with a first cycle to a resonator of the wireless power transmitter, characterized in that the first detection power has a power level for detecting a load change; periodically applying a second detection power (S807) with a second cycle to the resonator, wherein the second cycle is greater than the first cycle, wherein the second detection power has a power level for driving the wireless power receiver; detecting the load change while applying the first detection power, wherein the load change is caused by placement of the wireless power receiver within a charging area of the wireless power transmitter (S809); stopping the applying of the first detection power and continuously applying a driving power for driving the wireless power receiver to the resonator (S811); and receiving, through a communication unit of the wireless power transmitter, a search signal being transmitted from the wireless power receiver based on the driving power (S621). periodically applying a first detection power (S801) with a first cycle to a resonator of the wireless power transmitter, characterized in that the first detection power has a power level for detecting a load change; periodically applying a second detection power (S807) with a second cycle to the resonator, wherein the second cycle is greater than the first cycle, wherein the second detection power has a power level for driving the wireless power receiver; detecting the load change while applying the first detection power, wherein the load change is caused by placement of the wireless power receiver within a charging area of the wireless power transmitter (S809); stopping the applying of the first detection power and continuously applying a driving power for driving the wireless power receiver to the resonator (S811); and receiving, through a communication unit of the wireless power transmitter, a search signal being transmitted from the wireless power receiver based on the driving power (S621). detecting the load change while applying the first detection power, wherein the load change is caused by placement of the wireless power receiver within a charging area of the wireless power transmitter (S809); stopping the applying of the first detection power and continuously applying a driving power for driving the wireless power receiver to the resonator (S811); and receiving, through a communication unit of the wireless power transmitter, a search signal being transmitted from the wireless power receiver based on the driving power (S621).
A method of forming a root portion of a wind turbine rotor blade , the method comprising: aligning a plurality of alignment pins coupled to an alignment plate with a first set of a plurality of insert cavities defined by a prefabricated panel , the prefabricated panel partially defining the root portion , wherein each alignment pin is positioned within one of a first set of a plurality of installation apertures defined by the alignment plate ; coupling the prefabricated panel and the alignment plate such that each alignment pin is positioned within one insert cavity of the first set of the plurality of insert cavities ; placing a first adhesive in each insert cavity of a second set of the plurality of insert cavities ; placing a first set of inserts into the second set of the plurality of insert cavities ; coupling the first set of inserts and the alignment plate ; and curing the first adhesive . aligning a plurality of alignment pins coupled to an alignment plate with a first set of a plurality of insert cavities defined by a prefabricated panel , the prefabricated panel partially defining the root portion , wherein each alignment pin is positioned within one of a first set of a plurality of installation apertures defined by the alignment plate ; coupling the prefabricated panel and the alignment plate such that each alignment pin is positioned within one insert cavity of the first set of the plurality of insert cavities ; placing a first adhesive in each insert cavity of a second set of the plurality of insert cavities ; placing a first set of inserts into the second set of the plurality of insert cavities ; coupling the first set of inserts and the alignment plate ; and curing the first adhesive .
A method, comprising: establishing a primary connection in a primary cell belonging to a primary base station with a first user equipment identity, referred to as UE-ID, wherein the primary cell comprises a downlink component carrier, CC, and an uplink CC; establishing a second connection in a secondary cell, SCell, belonging to a second base station with a second UE-ID, wherein the secondary cell comprises a downlink CC, wherein the second UE-ID is assigned together with timing information by the second base station via Medium Access Control, MAC, signaling during SCell Random Access Channel, RACH, procedure; aggregating component carriers of the primary cell and the secondary cell for the primary connection and the secondary connection based on the first UE-ID and the second UE-ID; and performing mobility management functions through the primary connection. establishing a primary connection in a primary cell belonging to a primary base station with a first user equipment identity, referred to as UE-ID, wherein the primary cell comprises a downlink component carrier, CC, and an uplink CC; establishing a second connection in a secondary cell, SCell, belonging to a second base station with a second UE-ID, wherein the secondary cell comprises a downlink CC, wherein the second UE-ID is assigned together with timing information by the second base station via Medium Access Control, MAC, signaling during SCell Random Access Channel, RACH, procedure; aggregating component carriers of the primary cell and the secondary cell for the primary connection and the secondary connection based on the first UE-ID and the second UE-ID; and performing mobility management functions through the primary connection.
A synchronous belt (10; 20; 30; 40; 50; 60; 70) comprising: a tensile member layer having a tensile member embedded in an elastomeric body ; a toothed surface comprising a plurality of regularly spaced, transverse teeth protruding from the body and lands there between; and a jacket covering the toothed surface; wherein the teeth comprise a plurality of fabric insert layers (22, 23; 26, 27, 28; 36, 37, 38; 42; 52; 62; 72) that increase the stiffness of the tooth, the insert layers separated from each other by layers of an elastomer composition and said fabric insert layers are embedded in tooth rubber. a tensile member layer having a tensile member embedded in an elastomeric body ; a toothed surface comprising a plurality of regularly spaced, transverse teeth protruding from the body and lands there between; and a jacket covering the toothed surface; wherein the teeth comprise a plurality of fabric insert layers (22, 23; 26, 27, 28; 36, 37, 38; 42; 52; 62; 72) that increase the stiffness of the tooth, the insert layers separated from each other by layers of an elastomer composition and said fabric insert layers are embedded in tooth rubber.