mhurhangee/patent-ind-claim-en huggingface dataset:
A user node for an OFDMA system, comprising: a first transceiver modem capable of receiving a full set of resource elements ; a secondary transceiver modem capable of receiving a subset of resource elements among the full set of resource elements , the subset of resource elements comprising resource element blocks , the first transceiver modem being configured to receive first control information identifying the subset of the resource elements and second control information enabling determination of a currently used resource element block among the subset of resource elements; send the first control information and the second control information to the secondary transceiver modem ; enter into a reduced power state; the secondary transceiver modem being configured to receive, based on the first control information and the second control information, at least one signal in the subset of resource elements while the first transceiver modem is in the reduced power state; determine a control decision based on the at least one signal; and output at least one command associated with the control decision. a first transceiver modem capable of receiving a full set of resource elements ; a secondary transceiver modem capable of receiving a subset of resource elements among the full set of resource elements , the subset of resource elements comprising resource element blocks , the first transceiver modem being configured to receive first control information identifying the subset of the resource elements and second control information enabling determination of a currently used resource element block among the subset of resource elements; send the first control information and the second control information to the secondary transceiver modem ; enter into a reduced power state; receive first control information identifying the subset of the resource elements and second control information enabling determination of a currently used resource element block among the subset of resource elements; send the first control information and the second control information to the secondary transceiver modem ; enter into a reduced power state; the secondary transceiver modem being configured to receive, based on the first control information and the second control information, at least one signal in the subset of resource elements while the first transceiver modem is in the reduced power state; determine a control decision based on the at least one signal; and output at least one command associated with the control decision. receive, based on the first control information and the second control information, at least one signal in the subset of resource elements while the first transceiver modem is in the reduced power state; determine a control decision based on the at least one signal; and output at least one command associated with the control decision.
Method for determining a functional state of an ultrasonic sensor of an ultrasonic sensor device for a motor vehicle , which is designed to emit an ultrasonic signal into an environment of the motor vehicle and/or to receive an echo signal of the ultrasonic signal , characterized in that an electrical test signal (P) is generated, which differs from an excitation signal used to generate an emitted ultrasonic signal and is applied to the ultrasonic sensor , in that an amplitude of the test signal (P) can be smaller than an amplitude of the excitation signal, in that at least one electrical characteristic parameter (K) of the ultrasonic sensor affected by the electrical test signal (P) is evaluated and as a function thereof a transfer function of the ultrasonic sensor is determined, which is compared with a reference transfer function , and the functional state of the ultrasonic sensor is determined depending on the comparison.
An apparatus comprising: at least one processor ; and at least one memory including computer program code for one or more programs, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus to perform at least the following, determine at least one location point associated with a first device and at least one algorithm for determining at least one predicted route of the first device based, at least in part, on the at least one location point associated with the first device; transmit the at least one location point associated with the first device and the at least one algorithm to a second device for generating location tracking information; receive at least one location point and at least one algorithm associated with the second device for generating location tracking information; determine at least one predicted route of the second device, based, at least in part, on the at least one received location point and the at least one received algorithm associated with the second device; and display, on a map display of the first device, the at least one predicted route of the second device. at least one processor ; and at least one memory including computer program code for one or more programs, the at least one memory and the computer program code configured to, with the at least one processor, cause the apparatus to perform at least the following, determine at least one location point associated with a first device and at least one algorithm for determining at least one predicted route of the first device based, at least in part, on the at least one location point associated with the first device; transmit the at least one location point associated with the first device and the at least one algorithm to a second device for generating location tracking information; receive at least one location point and at least one algorithm associated with the second device for generating location tracking information; determine at least one predicted route of the second device, based, at least in part, on the at least one received location point and the at least one received algorithm associated with the second device; and display, on a map display of the first device, the at least one predicted route of the second device. determine at least one location point associated with a first device and at least one algorithm for determining at least one predicted route of the first device based, at least in part, on the at least one location point associated with the first device; transmit the at least one location point associated with the first device and the at least one algorithm to a second device for generating location tracking information; receive at least one location point and at least one algorithm associated with the second device for generating location tracking information; determine at least one predicted route of the second device, based, at least in part, on the at least one received location point and the at least one received algorithm associated with the second device; and display, on a map display of the first device, the at least one predicted route of the second device.
A device for performing electrolysis of water, the device comprising: a semiconductor structure comprising a surface and an electron guiding layer below said surface , the electron guiding layer of the semiconductor structure being configured to guide electron movement in a plane parallel to the surface , the electron guiding layer of the semiconductor structure comprising an InGaN quantum well or a heterojunction , the heterojunction being a junction between AIN material and GaN material or between AlGaN material and GaN material; at least one metal cathode arranged on the surface of the semiconductor structure ; and at least one photoanode arranged on the surface of the semiconductor structure , wherein the at least one photoanode comprises a plurality of quantum dots of In x Ga (1-x) N material, wherein 0.4 ≤ x ≤ 1. a semiconductor structure comprising a surface and an electron guiding layer below said surface , the electron guiding layer of the semiconductor structure being configured to guide electron movement in a plane parallel to the surface , the electron guiding layer of the semiconductor structure comprising an InGaN quantum well or a heterojunction , the heterojunction being a junction between AIN material and GaN material or between AlGaN material and GaN material; at least one metal cathode arranged on the surface of the semiconductor structure ; and at least one photoanode arranged on the surface of the semiconductor structure , wherein the at least one photoanode comprises a plurality of quantum dots of In x Ga (1-x) N material, wherein 0.4 ≤ x ≤ 1.
An adaptor for a dust extractor comprising: a housing ; a catch capable of sliding vertically within the housing between a first position where a first end projects through a first aperture formed in the top of the housing and a second position where first end is located flush with or inside of the housing ; a second aperture formed in the bottom of the housing through which a second lower end of the catch can be accessed; and a first biasing mechanism for biasing the catch towards its second position. a housing ; a catch capable of sliding vertically within the housing between a first position where a first end projects through a first aperture formed in the top of the housing and a second position where first end is located flush with or inside of the housing ; a second aperture formed in the bottom of the housing through which a second lower end of the catch can be accessed; and a first biasing mechanism for biasing the catch towards its second position.
A battery package comprising: a rechargeable battery and a wireless power transceiver , the wireless power transceiver configured to wirelessly transfer power to an electronics package of a body-implantable electronic device , wherein both the battery and the wireless power transceiver are enclosed within a hermetic material ; and one or more alignment structures , configured to removably align the battery package with the body-implantable electronic device, wherein the battery is configured to be recharged by power received from the wireless power transceiver , and wherein the wireless power transceiver is further configured to receive power from a wireless transceiver on the body-implantable electronic device , as received from an RF antenna on the body-implantable electronic device . a rechargeable battery and a wireless power transceiver , the wireless power transceiver configured to wirelessly transfer power to an electronics package of a body-implantable electronic device , wherein both the battery and the wireless power transceiver are enclosed within a hermetic material ; and one or more alignment structures , configured to removably align the battery package with the body-implantable electronic device, wherein the battery is configured to be recharged by power received from the wireless power transceiver , and wherein the wireless power transceiver is further configured to receive power from a wireless transceiver on the body-implantable electronic device , as received from an RF antenna on the body-implantable electronic device .
A method of polymerizing olefins to produce a polyolefin polymer with a multimodal composition distribution, comprising contacting ethylene and a comonomer with a catalyst system, wherein the catalyst system comprises a first catalyst compound and a second catalyst compound that are co-supported to form a commonly supported catalyst system, wherein the first catalyst compound comprises the following formula: (C 5 H a R 1 b )(C 5 H c R 2 d )HfX 2 wherein each R 1 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; each R 2 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; a and c are ≥ 3; a+b = c+d = 5; at least one R 1 and at least one R 2 is a hydrocarbyl or substituted hydrocarbyl group; adjacent R 1 and R 2 groups may be coupled to form a ring; and each X is independently a leaving group selected from a labile hydrocarbyl, substituted hydrocarbyl, or heteroatom group, or a divalent radical that links to an R 1 or R 2 group; and the second catalyst compound comprises the following formula: wherein each R 3 or R 4 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group, wherein each R 3 or R 4 may be the same or different; and each X is independently a leaving group selected from a labile hydrocarbyl, a substituted hydrocarbyl, a heteroatom group, or a divalent radical that links to an R 3 group; wherein the method comprises continuously combining a catalyst component slurry with a catalyst component solution to form the commonly supported catalyst system, wherein the catalyst component slurry comprises the first catalyst compound and the catalyst component solution comprises the second catalyst compound. wherein each R 1 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; each R 2 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group; a and c are ≥ 3; a+b = c+d = 5; at least one R 1 and at least one R 2 is a hydrocarbyl or substituted hydrocarbyl group; adjacent R 1 and R 2 groups may be coupled to form a ring; and each X is independently a leaving group selected from a labile hydrocarbyl, substituted hydrocarbyl, or heteroatom group, or a divalent radical that links to an R 1 or R 2 group; and the second catalyst compound comprises the following formula: wherein each R 3 or R 4 is independently H, a hydrocarbyl group, a substituted hydrocarbyl group, or a heteroatom group, wherein each R 3 or R 4 may be the same or different; and each X is independently a leaving group selected from a labile hydrocarbyl, a substituted hydrocarbyl, a heteroatom group, or a divalent radical that links to an R 3 group;
Vibronic sensor designed to monitor at least the density (ρ) and the viscosity (η) of a medium in a vessel , at least comprising a unit capable of vibrating mechanically , a drive/reception unit and an electronics unit , wherein the drive/reception unit is designed to excite the unit capable of vibrating mechanically to produce mechanical vibrations by means of an electrical excitation signal (U A ), and to receive the mechanical vibrations of the unit capable of vibrating mechanically and to convert them into an electrical reception signal (U E ), wherein the electronics unit is designed to generate the excitation signal (U A ) from the reception signal (U E ) in such a way that a predefinable phase shift (φ45, φ90) exists between the excitation signal (U A ) and the reception signal (U E ), characterized in that the electronics unit is designed to set at least a first predefinable phase shift (φ90) and a second predefinable phase shift (φ5), the first predefinable phase shift (φ90) being +/-90° and the second predefinable phase shift (φ45) being 45° or -135°, wherein, in the event that the first predefinable phase shift is -90° the second predefinable phase shift is -135° and in the event that the first predefinable phase shift is +90° the second predefinable phase shift is 45°, and in that the electronics unit is designed to determine a first frequency (ω90) and a second frequency (ω135) corresponding respectively to the predefinable phase shift (φ90, φ45), and to use the two frequencies (φ90, φ135) to determine the density (ρ) of the medium using a first analytical formula and the viscosity (η) of the medium using the second analytical formula.
A method of treating a fluid containing system in order to resist the formation and build-up of scale deposits and comprising injecting a radio frequency signal into the fluid-containing system, the method further comprising the steps of introducing a pulsed radio frequency signal in a primary coil of a transformer , and injecting the signal into the fluid-containing system through an operative connection between a first terminal of a secondary coil of the transformer and a conduit of the fluid-containing system; wherein a second terminal of the secondary coil of the transformer is operably connected to ground, and wherein, in use, the method causes propagation of an electromagnetic signal in the conduit, and further wherein, where the conduit is made of a conductive material the operative connection to the conduit comprises a contact between the first terminal and the conduit, or where the conduit is made of a non-conductive material, the operative connection to the conduit comprises a contact between the terminal and a conductive insert inserted to a section of the conduit or a contact between the terminal and a conductive material clamped around a section of the conduit.
A tunnel profile element adaptable to respective aperture dimensions of raw tunnels, wherein the tunnel profile element comprises foam glass panels, wherein at least a tunnel floor element , at least respective sidewall elements and at least a roof element of foam glass panels are held together by a sprayed unbroken surface layer of polyurea on at least all visible outside surfaces of an assembled tunnel profile element .
A void structure comprising: a rigid or semi-rigid body with a first plurality of first elongated apertures and a second plurality of second elongated apertures, each of the elongated apertures having a major axis and a minor axis, the major axes of the first elongated apertures being perpendicular to the major axes of the second elongated apertures, the first and second pluralities of elongated apertures being arranged in an array of rows and columns, each of the rows and each of the columns alternating between the first and the second elongated apertures, the elongated apertures being cooperatively configured to achieve negative Poisson's Ratio behavior under stress or strain, or both, characterized in that each of the elongated apertures is in the form of two spaced circular holes connected by a straight stem, and the elongated apertures are present in the rigid or semi-rigid body when in a stress-free state and have a predetermined porosity of approximately 1-4%. a rigid or semi-rigid body with a first plurality of first elongated apertures and a second plurality of second elongated apertures, each of the elongated apertures having a major axis and a minor axis, the major axes of the first elongated apertures being perpendicular to the major axes of the second elongated apertures, the first and second pluralities of elongated apertures being arranged in an array of rows and columns, each of the rows and each of the columns alternating between the first and the second elongated apertures, the elongated apertures being cooperatively configured to achieve negative Poisson's Ratio behavior under stress or strain, or both, characterized in that each of the elongated apertures is in the form of two spaced circular holes connected by a straight stem, and the elongated apertures are present in the rigid or semi-rigid body when in a stress-free state and have a predetermined porosity of approximately 1-4%.
An optical module for a lighting and/or signalling device of a vehicle , in particular of a motor vehicle , said optical module including a main body configured to receive a light source, and a projection lens , said projection lens including a front face , able to permit the diffusion of a light emitted by said light source towards the exterior of the vehicle and extending substantially along a diffusion plane (P 51 ), and at least one lateral branch , extending along a branch plane (P 52 ) secant to said diffusion plane (P 51 ) and including an attachment orifice , said main body including at least one attachment stud projecting from said main body , characterized in that said attachment stud has a pyramidal shape extending from a base to an apex , said apex including at least two facets configured to ensure the guidance of said projection lens on the main body and to permit the attaching of the projection lens to the main body .
A container for the consolidation of material under elevated pressure and temperature conditions, comprising: an outer cylinder; and an inner cylinder characterised by further comprising internal compression plates that are positioned between the inner and outer cylinders and curved to match the radius of the inner and outer cylinders, wherein said compression plates are arranged in rows and with predetermined spacing, axially, radially, or both. an outer cylinder; and an inner cylinder characterised by further comprising internal compression plates that are positioned between the inner and outer cylinders and curved to match the radius of the inner and outer cylinders, wherein said compression plates are arranged in rows and with predetermined spacing, axially, radially, or both.
A wireless tag reading device , comprising: a chamber in which an article having a wireless tag attached thereto can be stored; a first antenna (15-1) for outputting a signal for reading information from the wireless tag attached to the article stored in the chamber; a second antenna (15-2) for outputting the signal for reading information from the wireless tag attached to the article stored in the chamber; a first moving mechanism (16-1) configured to change a distance between the wireless tag and the first antenna during a reading process for reading information from the wireless tag: a second moving mechanism (16-2) configured to change a distance between the wireless tag and the second antenna during the reading process; characterized by further comprising a controller configured to control movements of the first and second moving mechanisms during the reading process such that signals from the first and second antennas constructively interfere at a plurality of different positions within the chamber during the reading process. a chamber in which an article having a wireless tag attached thereto can be stored; a first antenna (15-1) for outputting a signal for reading information from the wireless tag attached to the article stored in the chamber; a second antenna (15-2) for outputting the signal for reading information from the wireless tag attached to the article stored in the chamber; a first moving mechanism (16-1) configured to change a distance between the wireless tag and the first antenna during a reading process for reading information from the wireless tag: a second moving mechanism (16-2) configured to change a distance between the wireless tag and the second antenna during the reading process; characterized by further comprising a controller configured to control movements of the first and second moving mechanisms during the reading process such that signals from the first and second antennas constructively interfere at a plurality of different positions within the chamber during the reading process. a second moving mechanism (16-2) configured to change a distance between the wireless tag and the second antenna during the reading process; characterized by further comprising a controller configured to control movements of the first and second moving mechanisms during the reading process such that signals from the first and second antennas constructively interfere at a plurality of different positions within the chamber during the reading process.