mhurhangee/ep-ind-claims huggingface dataset:
An aerosol delivery device comprising: an air inlet; a flavouring reservoir arranged to provide release of flavouring material to air passing therethrough; and an aerosol chamber arranged to provide an aerosol in air passing therethrough; an aerosol forming member arranged to generate an aerosol in air passing through the aerosol chamber, the aerosol forming member comprising a heating element arranged to generate a condensation aerosol, and the flavouring reservoir in conductive thermal communication with the heating element to heat flavouring material in the flavouring reservoir; a liquid reservoir in fluid communication with the heating element and arranged to deliver liquid to the heating element, the heating element arranged to generate an aerosol by evaporation of liquid therefrom; and an aerosol outlet; the air inlet, flavouring reservoir, aerosol chamber and aerosol outlet are arranged in fluid communication in that order. an air inlet; a flavouring reservoir arranged to provide release of flavouring material to air passing therethrough; and an aerosol chamber arranged to provide an aerosol in air passing therethrough; an aerosol forming member arranged to generate an aerosol in air passing through the aerosol chamber, the aerosol forming member comprising a heating element arranged to generate a condensation aerosol, and the flavouring reservoir in conductive thermal communication with the heating element to heat flavouring material in the flavouring reservoir; a liquid reservoir in fluid communication with the heating element and arranged to deliver liquid to the heating element, the heating element arranged to generate an aerosol by evaporation of liquid therefrom; and an aerosol outlet; the air inlet, flavouring reservoir, aerosol chamber and aerosol outlet are arranged in fluid communication in that order.
An isolated monoclonal antibody that binds to human OX40R, comprising: (a) a heavy chain CDR1 comprising an amino acid sequence of SEQ ID NO: 1; a heavy chain CDR2 comprising an amino acid sequence of SEQ ID NO: 2; and a heavy chain CDR3 comprising an amino acid sequence of SEQ ID NO: 3; or (b) a heavy chain CDR1 comprising an amino acid sequence of SEQ ID NO: 13; a heavy chain CDR2 comprising an amino acid sequence of SEQ ID NO: 14; and a heavy chain CDR3 comprising an amino acid sequence of SEQ ID NO: 15, wherein said isolated monoclonal antibody comprises 1, 2, 3 or 4 conservative amino acid substitutions in one or more heavy chain CDR sequences; and wherein said isolated monoclonal antibody: (a) binds to human OX40R with a K D of 5 x 10 -9 M or less; and (b) has agonist activity on human OX40R. (a) a heavy chain CDR1 comprising an amino acid sequence of SEQ ID NO: 1; a heavy chain CDR2 comprising an amino acid sequence of SEQ ID NO: 2; and a heavy chain CDR3 comprising an amino acid sequence of SEQ ID NO: 3; or (b) a heavy chain CDR1 comprising an amino acid sequence of SEQ ID NO: 13; a heavy chain CDR2 comprising an amino acid sequence of SEQ ID NO: 14; and a heavy chain CDR3 comprising an amino acid sequence of SEQ ID NO: 15, (a) binds to human OX40R with a K D of 5 x 10 -9 M or less; and (b) has agonist activity on human OX40R.
A method of removing a wellbore isolation device comprising: increasing the temperature surrounding the wellbore isolation device, wherein the step of increasing the temperature comprises at least one of injecting a fluid into a bottomhole portion of a wellbore, and a cessation of an injection of a fluid into a bottomhole portion of a wellbore, and wherein the wellbore isolation device comprises: a first composition, wherein the first composition comprises: (i) a first substance; and (ii) a second substance, wherein the first composition has a solid-liquid phase transformation temperature less than the solid-liquid phase transformation temperatures of at least the first substance or the second substance at a specific pressure; and allowing at least a portion of the first composition to undergo a phase transformation from a solid to a liquid. increasing the temperature surrounding the wellbore isolation device, wherein the step of increasing the temperature comprises at least one of injecting a fluid into a bottomhole portion of a wellbore, and a cessation of an injection of a fluid into a bottomhole portion of a wellbore, and wherein the wellbore isolation device comprises: a first composition, wherein the first composition comprises: (i) a first substance; and (ii) a second substance, wherein the first composition has a solid-liquid phase transformation temperature less than the solid-liquid phase transformation temperatures of at least the first substance or the second substance at a specific pressure; and allowing at least a portion of the first composition to undergo a phase transformation from a solid to a liquid. a first composition, wherein the first composition comprises: (i) a first substance; and (ii) a second substance, (i) a first substance; and (ii) a second substance,
An electric fan comprising: a stator; a fan rotor rotatably mounted relative to the stator, the fan rotor comprising: an annular body defining a flow passage therethrough; a ring gear extending around the flow passage; and a plurality of fan blades disposed in the flow passage and mounted for common rotation with the annular body about a fan rotation axis; and an electric motor mounted to the stator and drivingly engaged with the ring gear to cause rotation of the fan rotor relative to the stator, the electric motor having a motor rotation axis that differs from the fan rotation axis; characterised in that: the electric motor is one of a plurality of electric motors drivingly engaged with the ring gear; the plurality of electric motors define a plurality of motor pairs circumferentially distributed about the fan rotation axis; each motor pair is drivingly engaged with the ring gear via a respective pinion gear; and each motor pair is disposed radially outwardly from the annular body of the fan rotor. a stator; a fan rotor rotatably mounted relative to the stator, the fan rotor comprising: an annular body defining a flow passage therethrough; a ring gear extending around the flow passage; and a plurality of fan blades disposed in the flow passage and mounted for common rotation with the annular body about a fan rotation axis; and an annular body defining a flow passage therethrough; a ring gear extending around the flow passage; and a plurality of fan blades disposed in the flow passage and mounted for common rotation with the annular body about a fan rotation axis; and the electric motor is one of a plurality of electric motors drivingly engaged with the ring gear; the plurality of electric motors define a plurality of motor pairs circumferentially distributed about the fan rotation axis; each motor pair is drivingly engaged with the ring gear via a respective pinion gear; and each motor pair is disposed radially outwardly from the annular body of the fan rotor.
A method for alerting persons in the vicinity of an unmanned aerial vehicle about failure thereof, the method being performed in a network node of a communications system comprising a wireless access network, in turn comprising a number of network access nodes implementing a wireless access technology, the method comprising: - receiving a failure report from an unmanned aerial vehicle, - obtaining an estimated crash point for the unmanned aerial vehicle, and - sending from a selected radio access node of the communications system, based on the obtained estimated crash point, warning signals to communication devices residing within a defined area. - receiving a failure report from an unmanned aerial vehicle, - obtaining an estimated crash point for the unmanned aerial vehicle, and - sending from a selected radio access node of the communications system, based on the obtained estimated crash point, warning signals to communication devices residing within a defined area.
A data processing apparatus, comprising: receiving circuitry to receive graphics data for at least a portion of a virtual environment, the graphics data including a plurality of virtual objects; a machine learning model trained to output data indicative of an object classification for one or more of the virtual objects in dependence upon the graphics data; assignment circuitry to assign one or more of the virtual objects to one or more virtual object groups in dependence upon the object classification for one or more of the virtual objects, wherein the virtual objects assigned to a same virtual object group have a same object classification; and control circuitry to share first interaction data associated with a first virtual object assigned to a virtual object group with a second virtual object assigned to the virtual object group to thereby permit use of the first interaction data for the second virtual object in response to a user interaction with the second virtual object in the virtual environment, wherein the first interaction data is associated specifically with the first virtual object. receiving circuitry to receive graphics data for at least a portion of a virtual environment, the graphics data including a plurality of virtual objects; a machine learning model trained to output data indicative of an object classification for one or more of the virtual objects in dependence upon the graphics data; assignment circuitry to assign one or more of the virtual objects to one or more virtual object groups in dependence upon the object classification for one or more of the virtual objects, wherein the virtual objects assigned to a same virtual object group have a same object classification; and control circuitry to share first interaction data associated with a first virtual object assigned to a virtual object group with a second virtual object assigned to the virtual object group to thereby permit use of the first interaction data for the second virtual object in response to a user interaction with the second virtual object in the virtual environment, wherein the first interaction data is associated specifically with the first virtual object.
Electrical equipment comprising: - a transformer, comprising a primary winding, at least one secondary winding and at least one first metal screen; - a first load configured for a nominal use of the equipment; - a sensor; and - a power supply conductor (CALIM:ME), characterised in that the at least one first metal screen is placed between the primary winding and the at least one secondary winding, in that the first load and the at least first metal screen are linked electrically to the power supply conductor, in that the sensor is configured to measure a quantity characteristic of the first load, and in that the equipment also comprises a comparator (COMP) configured so as to compare measurements from the sensor to detect a dormant failure of the at least first metal screen. - a transformer, comprising a primary winding, at least one secondary winding and at least one first metal screen; - a first load configured for a nominal use of the equipment; - a sensor; and - a power supply conductor (CALIM:ME),
A system for recovering waste heat from an internal combustion engine using a Rankine cycle system, comprising: a heat exchanger thermally coupled to a heat source associated with the internal combustion engine and adapted to transfer heat from the heat source to working fluid of the RC system; an energy conversion device fluidly coupled to the heat exchanger and adapted to receive the working fluid having the transferred heat and convert the energy of the transferred heat; a condenser fluidly coupled to the energy conversion device and adapted to receive the working fluid from which the energy was converted; a pump positioned in a flow path of the working fluid between the condenser and the heat exchanger, said pump adapted to move the working fluid through the RC system; a bypass valve having an inlet fluidly connected between an outlet of the heat exchanger and an inlet of the energy conversion device, and an outlet fluidly connected to an inlet of the condenser; at least one sensor in the flow path of the working fluid between the condenser and the pump and adapted to sense pressure and temperature characteristics of the working fluid and to generate a signal indicative of the temperature and pressure of the working fluid, the at least one sensor being configured to sense a transient condition; and a controller adapted to regulate the condenser pressure in the RC system via controlling the bypass valve based on the generated signal and adapted to control an extent to which the bypass valve is opened based on a magnitude of the sensed transient condition. a heat exchanger thermally coupled to a heat source associated with the internal combustion engine and adapted to transfer heat from the heat source to working fluid of the RC system; an energy conversion device fluidly coupled to the heat exchanger and adapted to receive the working fluid having the transferred heat and convert the energy of the transferred heat; a condenser fluidly coupled to the energy conversion device and adapted to receive the working fluid from which the energy was converted; a pump positioned in a flow path of the working fluid between the condenser and the heat exchanger, said pump adapted to move the working fluid through the RC system; a bypass valve having an inlet fluidly connected between an outlet of the heat exchanger and an inlet of the energy conversion device, and an outlet fluidly connected to an inlet of the condenser; at least one sensor in the flow path of the working fluid between the condenser and the pump and adapted to sense pressure and temperature characteristics of the working fluid and to generate a signal indicative of the temperature and pressure of the working fluid, the at least one sensor being configured to sense a transient condition; and a controller adapted to regulate the condenser pressure in the RC system via controlling the bypass valve based on the generated signal and adapted to control an extent to which the bypass valve is opened based on a magnitude of the sensed transient condition.
A starter assembly (160; 260; 360; 460; 560; 660; 760) for a gas turbine engine (ENG-1, ENG-2; 20; 120) comprising: a fluid-actuated starter coupled to a spool; and a controller operable to cause a reduction in torque output of the starter in response to determining that a first predefined threshold is met, the first predefined threshold relating to an engine operational condition, wherein the controller is configured to cause an increase in torque output of the starter in response to determining that a second predefined threshold is met subsequent to the first predefined threshold being met, the second predefined threshold relating to the engine operational condition, and the engine operational condition is an engine light-off condition. a fluid-actuated starter coupled to a spool; and a controller operable to cause a reduction in torque output of the starter in response to determining that a first predefined threshold is met, the first predefined threshold relating to an engine operational condition, wherein the controller is configured to cause an increase in torque output of the starter in response to determining that a second predefined threshold is met subsequent to the first predefined threshold being met, the second predefined threshold relating to the engine operational condition, and the engine operational condition is an engine light-off condition.
High-heeled shoe with no heel comprising a sole, the base part of which is designed as a single-piece and made from metal, characterized in that the base part of the sole is supported only in the ball area on a plurality of legs (1, 1 ') arranged there on each of the two sides of the shoe, which project therefrom on both sides in a downwardly spinning manner, wherein the legs (1 ') located furthermost on the heel side are arranged below the heel middle.
A hoisting machine, particularly of the type mini-crane, comprising a frame, rolling means arranged on each side of the frame for moving the hoisting machine on a surface, and track enlarging means intended to change the track of the hoisting machine, the track enlarging means comprise a kinematic assembly with lateral scissors deformable in a plane substantially perpendicular to the longitudinal axis of the hoisting machine, and means for deforming scissors between a folded position in which the track of the hoisting machine is minimum and a deployed position in which the track of the hoisting machine is maximum, the scissors comprising at least one pair of connecting rods (10, 12) arranged on one side of the frame and above the rolling means to release the space under the frame and between the rolling means, each pair of connecting rods (10, 12) being composed of a first connecting rod, laterally extending from one side or an upper portion of the frame, and of a second connecting rod, rotatably hinged on a support member of the rolling means about an axis and on the first connecting rod about an axis, the first connecting rod and the second connecting rod forming an angle (α) therebetween, and the deforming means being arranged to make the second connecting rod pivot relative to the first connecting rod about the axis by changing the angle (α) between a minimum value reached in the folded position and a maximum value reached in the deployed position, characterized in that the deforming means comprise for each pair of connecting rods (10, 12) a cylinder hinged relative to the frame about an axis (X4, X1"), a lever hinged relative to the cylinder about an axis and on the first connecting rod about an axis, and a transmission member arranged to transmit the rotation movements of the lever about the axis to the second connecting rod in order to change the angle (α).
Material in the divided state formed by solid particles with the following general composition: (Cu +1 2; Zn +2 a-v-(y / 2); Cd +2 v; Sn +4 b-w-(y / 2); 1 X + 4 w; 2 X + 3 y; S -2 c-x; Se -2 x), where: a, b, c, v, w, x and y and the arithmetic combinations thereof are real numbers that represent the molar proportion of each element with which each number is associated in formula, and such that: ∘ 1 ≤ a < 1.65; ∘ 1 ≤ b < 1.40; ∘ 4 < c < 9, and; ∘ v, w, x, and y belong independently of one another to all the real numbers belonging to the interval [0; 0.5[, and, ▪ 1 X + 4 is chosen from the group formed by titanium (Ti) cations, zirconium (Zr) cations and lead (Pb) cations, ▪ 2 X + 3 is chosen from the group formed by gallium (Ga) cations, indium (In) cations and yttrium cations; said material having: - by analysis of said material by x-ray diffraction, a unique crystalline structure; - by elementary analysis, a proportion by mass of carbon element of less than 2.5%. a, b, c, v, w, x and y and the arithmetic combinations thereof are real numbers that represent the molar proportion of each element with which each number is associated in formula, and such that: ∘ 1 ≤ a < 1.65; ∘ 1 ≤ b < 1.40; ∘ 4 < c < 9, and; ∘ v, w, x, and y belong independently of one another to all the real numbers belonging to the interval [0; 0.5[, and, ▪ 1 X + 4 is chosen from the group formed by titanium (Ti) cations, zirconium (Zr) cations and lead (Pb) cations, ▪ 2 X + 3 is chosen from the group formed by gallium (Ga) cations, indium (In) cations and yttrium cations; said material having: - by analysis of said material by x-ray diffraction, a unique crystalline structure; - by elementary analysis, a proportion by mass of carbon element of less than 2.5%. ∘ 1 ≤ a < 1.65; ∘ 1 ≤ b < 1.40; ∘ 4 < c < 9, and; ∘ v, w, x, and y belong independently of one another to all the real numbers belonging to the interval [0; 0.5[, and, ▪ 1 X + 4 is chosen from the group formed by titanium (Ti) cations, zirconium (Zr) cations and lead (Pb) cations, ▪ 2 X + 3 is chosen from the group formed by gallium (Ga) cations, indium (In) cations and yttrium cations; said material having: - by analysis of said material by x-ray diffraction, a unique crystalline structure; - by elementary analysis, a proportion by mass of carbon element of less than 2.5%. ▪ 1 X + 4 is chosen from the group formed by titanium (Ti) cations, zirconium (Zr) cations and lead (Pb) cations, ▪ 2 X + 3 is chosen from the group formed by gallium (Ga) cations, indium (In) cations and yttrium cations; said material having: - by analysis of said material by x-ray diffraction, a unique crystalline structure; - by elementary analysis, a proportion by mass of carbon element of less than 2.5%. - by analysis of said material by x-ray diffraction, a unique crystalline structure; - by elementary analysis, a proportion by mass of carbon element of less than 2.5%.
Tool arrangement with a screw-in tool and a tool holding fixture, wherein the screw-in tool exhibits a thread for engagement in a mating thread on the tool holding fixture, characterised in that the mating thread and the thread exhibit different thread contours which adjust to one another through elastic deformation when screwed together.
A method for communication by a user equipment, the method comprising the steps of: establishing a mapping scheme between a plurality of control channel element sets and a plurality of acknowledgement channel resource sets, with each of the control channel element sets comprising a plurality of control channel elements, and each of the acknowledgement channel resource sets comprising a plurality of acknowledgement channel resources; in accordance with a scheduling grant received from a base station using a control channel element set selected from the plurality of control channel element sets, transmitting a data packet to the base station; and receiving from the base station an acknowledgement channel message by using at least one acknowledgement channel resource selected from the acknowledgement channel resource set that corresponds to the control channel element set used for transmitting the scheduling grant in accordance with the mapping scheme, with the acknowledgement channel message being one of a positive acknowledgement message if the base station correctly decoded the data packet, and a negative acknowledgement message if the base station did not correctly decode the data packet. establishing a mapping scheme between a plurality of control channel element sets and a plurality of acknowledgement channel resource sets, with each of the control channel element sets comprising a plurality of control channel elements, and each of the acknowledgement channel resource sets comprising a plurality of acknowledgement channel resources; in accordance with a scheduling grant received from a base station using a control channel element set selected from the plurality of control channel element sets, transmitting a data packet to the base station; and receiving from the base station an acknowledgement channel message by using at least one acknowledgement channel resource selected from the acknowledgement channel resource set that corresponds to the control channel element set used for transmitting the scheduling grant in accordance with the mapping scheme, with the acknowledgement channel message being one of a positive acknowledgement message if the base station correctly decoded the data packet, and a negative acknowledgement message if the base station did not correctly decode the data packet.