mhurhangee/ep-ind-claims huggingface dataset:
A system with a flush-mounted socket and a proximity sensor, wherein the proximity sensor includes: • at least one sensor component, comprising - a transmission element, which is adapted to emit a focused radiation into a predetermined detection area, and - a reception element, which is disposed in such a way that it receives radiation which was emitted by the first transmission element and reflected by an object, which is located in the predetermined detection area, and • deflection optics (111 a), which are disposed on an optical path of the emitted radiation between the transmission component and the predetermined detection area and are supported to be pivotable, arrestable in different positions, and are arrested in one of the various positions, wherein a printed circuit board is disposed inside the flush-mounted socket, wherein the sensor component is stationarily disposed with regard to the printed circuit board and wherein the sensor component is tightly mounted in the inside of the flush-mounted socket and is countersunk. • at least one sensor component, comprising - a transmission element, which is adapted to emit a focused radiation into a predetermined detection area, and - a reception element, which is disposed in such a way that it receives radiation which was emitted by the first transmission element and reflected by an object, which is located in the predetermined detection area, and - a transmission element, which is adapted to emit a focused radiation into a predetermined detection area, and - a reception element, which is disposed in such a way that it receives radiation which was emitted by the first transmission element and reflected by an object, which is located in the predetermined detection area, and • deflection optics (111 a), which are disposed on an optical path of the emitted radiation between the transmission component and the predetermined detection area and are supported to be pivotable, arrestable in different positions, and are arrested in one of the various positions,
A vibration generating device comprising: a vibration generating member having a movable part movable in a vibration direction; a vibration transmitting member connected to the movable part; and a base body that holds the vibration generating member, Characterised by: the vibration generating member comprises: a first yoke having: a first surface orthogonal to the vibration direction, and a second surface parallel to the vibration direction, a second yoke having: a third surface orthogonal to the vibration direction, the third surface facing the first surface with a first gap provided therebetween, and a fourth surface parallel to the vibration direction, the fourth surface facing the second surface with a second gap provided therebetween, wherein the first gap is narrower than the second surface, a coil that is placed in a vicinity of at least one of the first yoke and the second yoke, the coil generating magnetism; and a support body that movably supports the first yoke in the vibration direction. a vibration generating member having a movable part movable in a vibration direction; a vibration transmitting member connected to the movable part; and a base body that holds the vibration generating member, Characterised by: the vibration generating member comprises: a first yoke having: a first surface orthogonal to the vibration direction, and a second surface parallel to the vibration direction, a second yoke having: a third surface orthogonal to the vibration direction, the third surface facing the first surface with a first gap provided therebetween, and a fourth surface parallel to the vibration direction, the fourth surface facing the second surface with a second gap provided therebetween, wherein the first gap is narrower than the second surface, a coil that is placed in a vicinity of at least one of the first yoke and the second yoke, the coil generating magnetism; and a support body that movably supports the first yoke in the vibration direction. a first yoke having: a first surface orthogonal to the vibration direction, and a second surface parallel to the vibration direction, a first surface orthogonal to the vibration direction, and a second surface parallel to the vibration direction, a second yoke having: a third surface orthogonal to the vibration direction, the third surface facing the first surface with a first gap provided therebetween, and a fourth surface parallel to the vibration direction, the fourth surface facing the second surface with a second gap provided therebetween, wherein the first gap is narrower than the second surface, a third surface orthogonal to the vibration direction, the third surface facing the first surface with a first gap provided therebetween, and a fourth surface parallel to the vibration direction, the fourth surface facing the second surface with a second gap provided therebetween, wherein the first gap is narrower than the second surface, a coil that is placed in a vicinity of at least one of the first yoke and the second yoke, the coil generating magnetism; and a support body that movably supports the first yoke in the vibration direction.
A sulfur-based positive-electrode active material (i) wherein the sulfur-based positive electrode active material comprises: a carbon skeleton derived from a polymer composed of a monomer unit having at least one hetero atom-containing moiety, and sulfur incorporated into the carbon skeleton as the carbon skeleton is formed from the polymer by heat treatment under a non-oxidizing atmosphere, wherein the temperature of the heat treatment is within the range from 250°C to 550°C; or (ii) wherein the sulfur-based positive-electrode active material is one prepared by a preparation process comprising a step of heat-treating a polymer composed of a monomer unit having at least one hetero atom-containing moiety and sulfur under a non-oxidizing atmosphere, and a heat-treating temperature is from 250°C to 550°C; wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a heterocyclic group having at least one hetero atom being O. (i) wherein the sulfur-based positive electrode active material comprises: a carbon skeleton derived from a polymer composed of a monomer unit having at least one hetero atom-containing moiety, and sulfur incorporated into the carbon skeleton as the carbon skeleton is formed from the polymer by heat treatment under a non-oxidizing atmosphere, wherein the temperature of the heat treatment is within the range from 250°C to 550°C; or (ii) wherein the sulfur-based positive-electrode active material is one prepared by a preparation process comprising a step of heat-treating a polymer composed of a monomer unit having at least one hetero atom-containing moiety and sulfur under a non-oxidizing atmosphere, and a heat-treating temperature is from 250°C to 550°C; wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a heterocyclic group having at least one hetero atom being O. wherein the sulfur-based positive-electrode active material (i, ii) is characterized in that the hetero atom-containing moiety is a moiety having a heterocyclic group having at least one hetero atom being O.
Process for continuously producing aqueous polyurethane dispersions, comprising the steps of a) simultaneously introducing at least one prepolymer and at least one chain-extending reagent into a mixing element M1; b) subsequently simultaneously introducing the chain-extended prepolymer formed in process step a) and water into a mixing element M2; and c) subsequently simultaneously introducing the mixture formed in process step b) and water into a mixing element M3 to form an aqueous polyurethane dispersion. a) simultaneously introducing at least one prepolymer and at least one chain-extending reagent into a mixing element M1; b) subsequently simultaneously introducing the chain-extended prepolymer formed in process step a) and water into a mixing element M2; and c) subsequently simultaneously introducing the mixture formed in process step b) and water into a mixing element M3 to form an aqueous polyurethane dispersion.
A method for graphically representing the relative position of the sky and of the earth in an on-board display system for aircraft, said graphical representation (1, 2, 4, 5) being displayed on a display screen comprising the piloting and navigation information for said aircraft superimposed on a three-dimensional synthetic representation of the outside landscape or on a real image of the outside landscape, characterised in that said graphical representation is only displayed when the attitude of the aircraft is unusual, with an unusual attitude corresponding to a roll value or to a pitch value located outside a first range of nominal values.
A radar system comprising: a substrate comprising a first surface and a second surface, the first surface being opposite the second surface; transmitter front-end circuitry attached to the substrate, the transmitter front-end circuitry being configured to transmit a transmitted radio frequency signal (10, 20) in a first direction away from the first surface and in a second direction away from the second surface; a first receive antenna (82; 81) disposed at the first surface, the first receive antenna (82; 81) being configured to receive a first reflected RF signal propagating in the second direction, the first reflected RF signal being generated by the transmitted RF signal; and a second receive antenna disposed at the second surface, the second receive antenna being configured to receive a second reflect RF signal propagating in the first direction, the second reflected RF signal being generated by the transmitted RF signal, characterized in that the radar system further comprises a first receiving ground plane region and a second receiving ground plane region (92;91) respectively acting as electromagnetic shielding for the second receive antenna and the first receive antenna (82; 81). a substrate comprising a first surface and a second surface, the first surface being opposite the second surface; transmitter front-end circuitry attached to the substrate, the transmitter front-end circuitry being configured to transmit a transmitted radio frequency signal (10, 20) in a first direction away from the first surface and in a second direction away from the second surface; a first receive antenna (82; 81) disposed at the first surface, the first receive antenna (82; 81) being configured to receive a first reflected RF signal propagating in the second direction, the first reflected RF signal being generated by the transmitted RF signal; and a second receive antenna disposed at the second surface, the second receive antenna being configured to receive a second reflect RF signal propagating in the first direction, the second reflected RF signal being generated by the transmitted RF signal, characterized in that the radar system further comprises a first receiving ground plane region and a second receiving ground plane region (92;91) respectively acting as electromagnetic shielding for the second receive antenna and the first receive antenna (82; 81).
A system for controlling an air intake system for a work vehicle, the system comprising: - a filter assembly including a pre-cleaner configured to separate particulates from air received by the filter assembly, the pre-cleaner defining a pre-cleaner outlet; - an electric aspirator in fluid communication with the pre-cleaner outlet, the electric aspirator including a motor configured to rotate a fan so as to create a vacuum for scavenging the particulates separated from the air within the pre-cleaner; and - a controller communicatively coupled to the electric aspirator, the controller being configured to vary a rotational speed of the motor based on changes in a load-based parameter of the work vehicle; and a particulate sensor communicatively coupled to the controller, the particulate sensor being configured to detect the presence of particulates contained within the air received by the filter assembly; and characterized by the controller being configured to shut down the electric aspirator when the particulate sensor detects that no particulates are contained within the air received by the filter assembly. - a filter assembly including a pre-cleaner configured to separate particulates from air received by the filter assembly, the pre-cleaner defining a pre-cleaner outlet; - an electric aspirator in fluid communication with the pre-cleaner outlet, the electric aspirator including a motor configured to rotate a fan so as to create a vacuum for scavenging the particulates separated from the air within the pre-cleaner; and - a controller communicatively coupled to the electric aspirator, the controller being configured to vary a rotational speed of the motor based on changes in a load-based parameter of the work vehicle; and a particulate sensor communicatively coupled to the controller, the particulate sensor being configured to detect the presence of particulates contained within the air received by the filter assembly; and
A method for displaying medical information on a display to display information for a plurality of users based on gaze detection, the method comprising: determining a direction of a user's gaze in relation to a reference position using a portable eyewear and eye tracking system; identifying a user looking toward a display to display information for a plurality of users based on the determined direction of the user's gaze in relation to the reference position; and updating user specific information on the display based on the direction of a user's gaze and on the identity of the user, wherein the identified user is allowed control of the display, based on the identity of the user, to allow display of specific information targeted to the identified user. determining a direction of a user's gaze in relation to a reference position using a portable eyewear and eye tracking system; identifying a user looking toward a display to display information for a plurality of users based on the determined direction of the user's gaze in relation to the reference position; and updating user specific information on the display based on the direction of a user's gaze and on the identity of the user, wherein the identified user is allowed control of the display, based on the identity of the user, to allow display of specific information targeted to the identified user.
Device for the actuation of a component mounted rotatably on a shaft, preferably of a gearwheel (3A to 3D), designed as a loose wheel, of a transmission device, which component can be transferred via at least one cut-in device (4A, 4B) having an electric actuator (5, 17) into a cut-in state in which the component is connected fixedly in terms of rotation to the shaft, the at least one actuator (5, 17) being arranged at least partially inside the shaft, and the component being capable of being acted upon from inside the shaft by the actuating force necessary for cutting in or cutting out, characterized in that the cut-in device (4A, 4B) has between the actuator (5, 17) and the component a drive converter device (8, 14), by means of which a rotary drive of the actuator (5, 17) can be converted into a translational drive movement, and the electric actuator (5, 17) is designed as an electric motor.
A method for connecting a first body (401, 503) to a second body (403, 501) using a spring force and conducting electrical conductivity between the first body (401, 503) and the second body (403, 501), said method comprising positioning a canted coil spring comprising a plurality of coils canted in a same direction in fastener grooves (415, 417, 515, 517) defined by the first body (401, 503) and the second body (403, 501), applying electrical current through the canted coil spring, said canted coil spring comprising an inner core, a secondary layer outside the core, and an outer layer; the inner core comprising a highly electrically conductive material comprising copper and the secondary layer comprising a high modulus and high tensile strength steel material with a lower electrical conductive property than the inner core.
A semiconductor device (1, 1_1 - 1_M) configured to be disposed in each of M pieces, where M is an integer of three or larger, of unit cell groups in a plurality of unit cells configuring an assembled battery by being serially coupled in multiple stages between a positive electrode and a negative electrode, the M groups existing from a first tap close to the positive electrode and a second tap close to the negative electrode, and the semiconductor device (1, 1_1 - 1_M) monitoring the unit cells belonging to the group, characterized in that the semiconductor device comprises: a communication signal pin (4, 4_1 - 4_M); placement setting pins (6, 7) for setting a binary code designating a unit cell group to which the semiconductor device (1, 1_1 - 1_M) is coupled, in the M pieces of unit cell groups; an output switching circuit capable of switching between output and interruption of a signal from the communication signal pin (4, 4_1 - 4_M); and a mode determining circuit for controlling the output switching circuit on the basis of the set binary code, wherein a binary code for designating coupling to the first tap is expressed by a first code, a binary code for designating coupling to the second tap is expressed by a second code, and wherein the mode determining circuit interrupts an output from the communication signal pin (4, 4_1 - 4_M) by the output switching circuit when the set binary code is a Hamming distance of 1 from the first code or the second code. a communication signal pin (4, 4_1 - 4_M); placement setting pins (6, 7) for setting a binary code designating a unit cell group to which the semiconductor device (1, 1_1 - 1_M) is coupled, in the M pieces of unit cell groups; an output switching circuit capable of switching between output and interruption of a signal from the communication signal pin (4, 4_1 - 4_M); and a mode determining circuit for controlling the output switching circuit on the basis of the set binary code, wherein a binary code for designating coupling to the first tap is expressed by a first code, a binary code for designating coupling to the second tap is expressed by a second code, and wherein the mode determining circuit interrupts an output from the communication signal pin (4, 4_1 - 4_M) by the output switching circuit when the set binary code is a Hamming distance of 1 from the first code or the second code.
An antibody that binds IL-25 and which comprises an antibody VH domain or a substantial portion thereof comprising a VH CDR1 having an amino acid sequence as set out in SEQ ID NO:5; a VH CDR2 having an amino acid sequence as set out in SEQ ID NO:6; and a VH CDR3 having an amino acid sequence as set out in SEQ ID NO:7, and which further comprises a VL domain or a substantial portion thereof comprising a CDR1 having an amino acid sequence as set out in SEQ ID NO:8, a CDR2 having an amino acid sequence as set out in SEQ ID NO:9; and a CDR3 having an amino acid sequence as set out in SEQ ID NO:10.
A method for producing induced pluripotent stem cells generated from somatic cells of aged donors (A-iPSCs), the method comprising: supplementing somatic cells of aged donors, simultaneously with or following reprogramming of somatic cells into induced pluripotent stem cells, with an effective amount of at least one of: (i) pluripotency factor ZSCAN10; (ii) pluripotent stem cell-specific glucose transporter 3 (GLUT3); and (iii) an exosome subunit, thereby producing A-iPSCs with one or more of increased DNA damage response, increased apoptosis response, increased glucose metabolism, and increased genomic stability as compared to A-iPSCs not supplemented with at least one of (i), (ii), and (iii).
An atmospheric-pressure plasma generation circuit for use in an atmospheric-pressure plasma generation device, in which an alternating-current power supply applies an alternating-current voltage between a pair of electrodes (14A,14B) in a plasma generation unit under atmospheric pressure and the plasma generation unit generates plasma, the atmospheric-pressure plasma generation circuit comprising: a discharge current dispersion circuit configured to be connected in series between the alternating-current power supply and the plasma generation unit and to disperse a pulse of a discharge current into two or more pulses by reducing the amplitude A1 of the pulse of the discharge current having a frequency higher than the frequency of the alternating-current voltage and generating another pulse using a reduction amount of the amplitude A1 of the discharge current pulse; wherein the discharge current dispersion circuit is one of (i) an LC circuit having an inductor and a capacitor, (ii) an RLC parallel circuit, (iii) an LC circuit with a resistor connected in series to the capacitor, and (iv) an LC circuit with the resistor connected in series to the inductor; and characterised in that the discharge current dispersion circuit has the frequency of the pulse of the discharge current before dispersion a resonance frequency. a discharge current dispersion circuit configured to be connected in series between the alternating-current power supply and the plasma generation unit and to disperse a pulse of a discharge current into two or more pulses by reducing the amplitude A1 of the pulse of the discharge current having a frequency higher than the frequency of the alternating-current voltage and generating another pulse using a reduction amount of the amplitude A1 of the discharge current pulse; wherein the discharge current dispersion circuit is one of (i) an LC circuit having an inductor and a capacitor, (ii) an RLC parallel circuit, (iii) an LC circuit with a resistor connected in series to the capacitor, and (iv) an LC circuit with the resistor connected in series to the inductor; and characterised in that the discharge current dispersion circuit has the frequency of the pulse of the discharge current before dispersion a resonance frequency.