mhurhangee/patent-ind-claim-en huggingface dataset:
A system for manufacturing fibers from coal comprising: at least one reaction chamber capable of pyrolyzing a combination of coal in a carbon dioxide atmosphere; a heat source configured to provide thermal energy to the reaction chamber; a separation system configured to receive the carbon dioxide atmosphere from a first outlet of the reaction chamber after pyrolysis of the coal and condense pitch from the carbon dioxide into a pitch container; a thermal energy transfer system configured to transfer thermal energy from the heat source to the reaction chamber, the thermal energy transfer system comprising a heat transfer element including a heat transfer loop filled with a supercritical fluid and in thermal communication with the heat source; a flow control system positioned along the heat transfer element and configured to control the flow of supercritical fluid through the heat transfer element; a feedstock supply system operable coupled to the reaction chamber and configured to provide the coal and water to an interior of the reaction chamber; a residual storage system configured receive feedstock residue from a second outlet of the reaction chamber; a product collection system configured to collect the other compounds from the separation system; a return path configured to circulate the carbon dioxide from the separation system back to the heat source; and an extruder connected to the separation system configured to receive and extrude the pitch condensed by the separation system. at least one reaction chamber capable of pyrolyzing a combination of coal in a carbon dioxide atmosphere; a heat source configured to provide thermal energy to the reaction chamber; a separation system configured to receive the carbon dioxide atmosphere from a first outlet of the reaction chamber after pyrolysis of the coal and condense pitch from the carbon dioxide into a pitch container; a thermal energy transfer system configured to transfer thermal energy from the heat source to the reaction chamber, the thermal energy transfer system comprising a heat transfer element including a heat transfer loop filled with a supercritical fluid and in thermal communication with the heat source; a flow control system positioned along the heat transfer element and configured to control the flow of supercritical fluid through the heat transfer element; a feedstock supply system operable coupled to the reaction chamber and configured to provide the coal and water to an interior of the reaction chamber; a residual storage system configured receive feedstock residue from a second outlet of the reaction chamber; a product collection system configured to collect the other compounds from the separation system; a return path configured to circulate the carbon dioxide from the separation system back to the heat source; and an extruder connected to the separation system configured to receive and extrude the pitch condensed by the separation system.
Inspection device for inspecting containers located in a crate for empty containers, wherein the crates are provided in order to transport the containers as empties back for re-use, comprising a head with grippers arranged in several gripper rows (41a - 41d), in order to grip the containers and take them out of the crate for empty containers, and with an optical inspection system for inspecting the containers that are moved out of the crate with the grippers , characterised in that the gripper rows (41a - 41d) are designed to be movable relative to one another in the longitudinal direction (R) of the rows, in order to allow the inspection system to have optical access to the respective rows of containers. a head with grippers arranged in several gripper rows (41a - 41d), in order to grip the containers and take them out of the crate for empty containers, and with an optical inspection system for inspecting the containers that are moved out of the crate with the grippers , characterised in that the gripper rows (41a - 41d) are designed to be movable relative to one another in the longitudinal direction (R) of the rows, in order to allow the inspection system to have optical access to the respective rows of containers.
A method, performed by a User Equipment, UE, for controlling communications between the UE and a base station in a radio access network, RAN , the UE comprising one or more transceivers, each having a corresponding receiver, the UE configured with one or more serving cells for communicating with the RAN , said one or more serving cells comprising a Primary serving Cell, PCell, the method comprising: monitoring the RAN on a specific serving cell of said one or more serving cells using a first receiver of the one or more transceivers; and sending a tune-out message to the base station in the RAN , the message configured to: indicate , to the base station , a temporary tune-out from the RAN on at least one receiver of the one or more transceivers; and indicate , to the base station , an impact on the one or more serving cells when the UE performs the temporary tune-out; and identify which of the one or more serving cells will be affected by the temporary tune-out, wherein the impact on the one or more serving cells is indicated using a Media Access Control, MAC, Control Element, CE, that includes information as to whether or not the PCell will be affected by the temporary tune-out. monitoring the RAN on a specific serving cell of said one or more serving cells using a first receiver of the one or more transceivers; and sending a tune-out message to the base station in the RAN , the message configured to: indicate , to the base station , a temporary tune-out from the RAN on at least one receiver of the one or more transceivers; and indicate , to the base station , an impact on the one or more serving cells when the UE performs the temporary tune-out; and identify which of the one or more serving cells will be affected by the temporary tune-out, wherein the impact on the one or more serving cells is indicated using a Media Access Control, MAC, Control Element, CE, that includes information as to whether or not the PCell will be affected by the temporary tune-out. indicate , to the base station , a temporary tune-out from the RAN on at least one receiver of the one or more transceivers; and indicate , to the base station , an impact on the one or more serving cells when the UE performs the temporary tune-out; and identify which of the one or more serving cells will be affected by the temporary tune-out, wherein the impact on the one or more serving cells is indicated using a Media Access Control, MAC, Control Element, CE, that includes information as to whether or not the PCell will be affected by the temporary tune-out.
Ironing appliance comprising: - an iron , - a steam-generating chamber configured to generate a flow of steam, - an electric pump configured to supply liquid to the steam-generating chamber , - an electronic card configured to control the electric pump , and - an activation trigger carried by the iron and intended to be actuated manually by a user, the activation trigger being connected to the electronic card so as to communicate an activation signal to the electronic card representing an activation state of the activation trigger or a release state of the activation trigger , characterised in that the electronic card is configured to control the electric pump so as to supply liquid to the steam-generating chamber with a feed rate greater than 160 g/min for a feed duration of less than 2 seconds when an activation signal corresponding to an activation state of the activation trigger is communicated to the electronic card after a period of release of the activation trigger of more than 4 seconds, and in that the electronic card is configured to interrupt the operation of the electric pump when an activation signal corresponding to a release state of the activation trigger is communicated to the electronic card . - an iron , - a steam-generating chamber configured to generate a flow of steam, - an electric pump configured to supply liquid to the steam-generating chamber , - an electronic card configured to control the electric pump , and - an activation trigger carried by the iron and intended to be actuated manually by a user, the activation trigger being connected to the electronic card so as to communicate an activation signal to the electronic card representing an activation state of the activation trigger or a release state of the activation trigger , characterised in that the electronic card is configured to control the electric pump so as to supply liquid to the steam-generating chamber with a feed rate greater than 160 g/min for a feed duration of less than 2 seconds when an activation signal corresponding to an activation state of the activation trigger is communicated to the electronic card after a period of release of the activation trigger of more than 4 seconds, and in that the electronic card is configured to interrupt the operation of the electric pump when an activation signal corresponding to a release state of the activation trigger is communicated to the electronic card .
A strainer provided inside an injection port for injection of a liquid into a tank body , the strainer , comprising: a strainer body having a substantially bottomed tubular shape that includes a side surface and a bottom surface , the side surface including a net body through which the liquid is passable; a rod having a substantially rod shape provided adjacent to the strainer body , the rod being provided along a first direction as a longitudinal direction of the strainer body ; a guide portion that regulates a moving direction of the rod such that the rod moves along the first direction; and a float disposed on a distal end on the bottom surface side of the rod, wherein the side surface includes a notched portion and a curved surface portion other than the notched portion , the rod is provided at a position overlapping with a circle as an extension of the curved surface portion and a position adjacent to the notched portion when viewed in the first direction, and characterized in that the side surface has a substantially D shape when viewed in the first direction; the notched portion is cut away so as to form the substantially D shape; the net body being absent on the bottom surface , the liquid being not passable through the bottom surface ; and the bottom surface has a shape in which a part of a substantially conical shape is cut away and protrudes toward an opening of the strainer body , and a top of the substantially conical shape overlaps with the notched portion . a strainer body having a substantially bottomed tubular shape that includes a side surface and a bottom surface , the side surface including a net body through which the liquid is passable; a rod having a substantially rod shape provided adjacent to the strainer body , the rod being provided along a first direction as a longitudinal direction of the strainer body ; a guide portion that regulates a moving direction of the rod such that the rod moves along the first direction; and a float disposed on a distal end on the bottom surface side of the rod, wherein the side surface includes a notched portion and a curved surface portion other than the notched portion , the rod is provided at a position overlapping with a circle as an extension of the curved surface portion and a position adjacent to the notched portion when viewed in the first direction, and characterized in that the side surface has a substantially D shape when viewed in the first direction; the notched portion is cut away so as to form the substantially D shape; the net body being absent on the bottom surface , the liquid being not passable through the bottom surface ; and the bottom surface has a shape in which a part of a substantially conical shape is cut away and protrudes toward an opening of the strainer body , and a top of the substantially conical shape overlaps with the notched portion .
An implantable biomedical device, comprising a vibrational energy harvester having a piezoelectric transducer configured to exhibit a non-linear behavior, wherein the piezoelectric transducer comprises a layer of piezoelectric material and extends between a first end and a second end and at least a portion of the piezoelectric transducer is arranged in a back and forth pattern between the first and second ends , wherein the energy harvester is responsive to a heartbeat waveform in which the frequency spectrum of heartbeat oscillations ranges from fractions of a Hertz to about 50 Hertz.
A composite part, comprising: a component comprising a bushing with an apex portion with a peak point; a first set of first composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a counter-clockwise wrapping direction and comprising first fibers; and a second set of second composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a clockwise wrapping direction and comprising second fibers, wherein the first and second sets of the first and second composite plies, respectively, terminate at increasing distances from the peak point. a component comprising a bushing with an apex portion with a peak point; a first set of first composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a counter-clockwise wrapping direction and comprising first fibers; and a second set of second composite plies with finite lengths, respective ends of each being wrapped around the bushing and the apex portion with the peak point of the component in a clockwise wrapping direction and comprising second fibers, wherein the first and second sets of the first and second composite plies, respectively, terminate at increasing distances from the peak point.
System for supplying and managing electric energy for a thermodynamic device from different energy sources comprising an electronic assembly including an energy converter configured to be connected to said energy sources for converting an electric energy from the energy source or sources into electric energy and a controller of the thermodynamic device , the thermodynamic device being a heat pump , the controller being integrated into the energy converter and together forming an electronic control module configured to be connected to the thermodynamic device and said electronic control module being configured to receive a supply from at least one decentralised energy source without local production of CO 2 , said electronic control module receiving signals (I, II, III, IV, V) from at least one decentralised energy source without local production of CO 2 , characterised in that the signals which are transformed by an interface enter an AC/DC or DC/DC type converter , by means of a digital signal processor processing, and exit into an energy bus the signals (VII) leaving said energy bus being directed at least to an inverter for supplying frequency variation to the compressor of the heat pump or to fans of the ventilation system of the heat pump . the signals which are transformed by an interface enter an AC/DC or DC/DC type converter , by means of a digital signal processor processing, and exit into an energy bus the signals (VII) leaving said energy bus being directed at least to an inverter for supplying frequency variation to the compressor of the heat pump or to fans of the ventilation system of the heat pump .
Housing for electrical plug connections, for example for electric vehicles, having at least one cable line led through an entry opening in the housing , wherein the housing designed as a composite part consists of a hard component made of plastic and a heat-shrink tube , characterized in that the heat-shrink tube is arranged on the cable line and is located in the entry opening , and contacts which are connected to the cable line are arranged in the interior of the housing .
A reaction mixture for determining the presence or absence of Epstein-Barr virus (EBV) in a sample, said reaction mixture comprising: a detection probe oligomer for detecting EBV nucleic acids, wherein the detection probe oligomer is up to 30 nucleotides in length and comprises the base sequence of SEQ ID NO:22 or the complement thereof, allowing for substitution of RNA and DNA equivalent bases; and a pair of amplification oligomers, wherein a first amplification oligomer of the pair comprises 18-25 contiguous bases of SEQ ID NO:3, allowing for substitution of RNA and DNA equivalent bases, and wherein a second amplification oligomer of the pair comprises 18-25 contiguous bases of SEQ ID NO:4, allowing for substitution of RNA and DNA equivalent bases. a detection probe oligomer for detecting EBV nucleic acids, wherein the detection probe oligomer is up to 30 nucleotides in length and comprises the base sequence of SEQ ID NO:22 or the complement thereof, allowing for substitution of RNA and DNA equivalent bases; and a pair of amplification oligomers, wherein a first amplification oligomer of the pair comprises 18-25 contiguous bases of SEQ ID NO:3, allowing for substitution of RNA and DNA equivalent bases, and wherein a second amplification oligomer of the pair comprises 18-25 contiguous bases of SEQ ID NO:4, allowing for substitution of RNA and DNA equivalent bases. wherein a first amplification oligomer of the pair comprises 18-25 contiguous bases of SEQ ID NO:3, allowing for substitution of RNA and DNA equivalent bases, and wherein a second amplification oligomer of the pair comprises 18-25 contiguous bases of SEQ ID NO:4, allowing for substitution of RNA and DNA equivalent bases.
A method of balancing a mirror in a limited rotation motor system, said method comprising the steps of: providing a mirror having an axis of rotation on a rotor shaft of the motor of the limited rotation motor system, the mirror having a front side with respect to the axis of rotation, the front side including a front reflective face of the mirror, and a back side with respect to the axis of rotation, wherein the mirror has more mass on the front side than the mass of the back side such that the mirror is weighted to lean to the front side , and wherein the back side of the mirror comprises at least one threaded counterweight screw directed towards the axis of rotation for balancing the mirror between the front side and the back side; and adjusting the at least one threaded counterweight screw to move in a direction away from the front side of the mirror to a position at which the mirror becomes balanced between the front side and the back side . providing a mirror having an axis of rotation on a rotor shaft of the motor of the limited rotation motor system, the mirror having a front side with respect to the axis of rotation, the front side including a front reflective face of the mirror, and a back side with respect to the axis of rotation, wherein the mirror has more mass on the front side than the mass of the back side such that the mirror is weighted to lean to the front side , and wherein the back side of the mirror comprises at least one threaded counterweight screw directed towards the axis of rotation for balancing the mirror between the front side and the back side; and adjusting the at least one threaded counterweight screw to move in a direction away from the front side of the mirror to a position at which the mirror becomes balanced between the front side and the back side .
A metal-bisphosphonate nanoparticle comprising a core comprising: (a) M 1 , wherein M 1 is a multivalent metal ion selected from Ca 2+ , Mg 2+ , Mn 2+ , and Zn 2+ ; and (b) a bisphosphonate, wherein the bisphosphonate comprises a metal complex having the formula M 2 L x , wherein x is an integer of 2 or greater, M 2 is a second metal ion selected from Pt, Ru, and a beta-emitting radionuclide, and wherein each L is a metal ion ligand, further wherein two L are phosphonate group-containing metal ligands, wherein the phosphonate group of each of said phosphonate group-containing metal ligands is available to coordinate to multivalent metal ion M 1 , and wherein the bisphosphonate is prepared by reacting a metal complex comprising two hydroxyl ligands with a reagent selected from the group consisting of diethoxyphosphinyl isocyanate, diethoxyphosphinyl isothiocyanate, a diethyoxyphosphinyl-containing carboxylic anhydride, or a diethoxyphosphinyl-containing acyl chloride. (a) M 1 , wherein M 1 is a multivalent metal ion selected from Ca 2+ , Mg 2+ , Mn 2+ , and Zn 2+ ; and (b) a bisphosphonate, wherein the bisphosphonate comprises a metal complex having the formula M 2 L x , wherein x is an integer of 2 or greater, M 2 is a second metal ion selected from Pt, Ru, and a beta-emitting radionuclide, and wherein each L is a metal ion ligand, further wherein two L are phosphonate group-containing metal ligands, wherein the phosphonate group of each of said phosphonate group-containing metal ligands is available to coordinate to multivalent metal ion M 1 , and wherein the bisphosphonate is prepared by reacting a metal complex comprising two hydroxyl ligands with a reagent selected from the group consisting of diethoxyphosphinyl isocyanate, diethoxyphosphinyl isothiocyanate, a diethyoxyphosphinyl-containing carboxylic anhydride, or a diethoxyphosphinyl-containing acyl chloride.
A material , comprising: a matrix ; and a plurality of particles dispersed in the matrix , the plurality of particles constituting between 50% and 99% by weight of the material , the plurality of particles including a plurality of tungsten semicarbide, W 2 C, particles , wherein the plurality of tungsten semicarbide, W 2 C, particles constitutes at least 30 vol% and up to 90 vol% of the plurality of particles , and wherein the plurality of particles consists essentially of the plurality of tungsten semicarbide, W 2 C, particles and a plurality of tungsten carbide, WC, particles . a matrix ; and a plurality of particles dispersed in the matrix , the plurality of particles constituting between 50% and 99% by weight of the material , the plurality of particles including a plurality of tungsten semicarbide, W 2 C, particles , wherein the plurality of tungsten semicarbide, W 2 C, particles constitutes at least 30 vol% and up to 90 vol% of the plurality of particles , and wherein the plurality of particles consists essentially of the plurality of tungsten semicarbide, W 2 C, particles and a plurality of tungsten carbide, WC, particles .