mhurhangee/patent-ind-claim-en huggingface dataset:
Method for manufacturing an antenna comprising the following steps: • providing a magnetic sheet made of composite material including magnetic particles and a synthetic resin, said magnetic sheet having a first surface; • forming an electrically conductive antenna track directly on the first surface of the magnetic sheet, which acts as a supporting substrate , the electrically conductive antenna track having at least one turn, characterized in that it is carried out via a reel-to-reel process and it further comprises the steps of • applying an adhesive layer on a first surface of the magnetic sheet, prior to forming the electrically conductive antenna track ; and • punching two through-holes in the magnetic sheet and the adhesive layer, prior to forming an electrically conductive antenna track directly on the first surface of the magnetic sheet, so as to form, once the electrically conductive antenna track is formed, two blind-holes located at the level of two antenna connection ends and providing an access for electrically connecting the antenna to a device. • providing a magnetic sheet made of composite material including magnetic particles and a synthetic resin, said magnetic sheet having a first surface; • forming an electrically conductive antenna track directly on the first surface of the magnetic sheet, which acts as a supporting substrate , the electrically conductive antenna track having at least one turn, characterized in that it is carried out via a reel-to-reel process and it further comprises the steps of • applying an adhesive layer on a first surface of the magnetic sheet, prior to forming the electrically conductive antenna track ; and • punching two through-holes in the magnetic sheet and the adhesive layer, prior to forming an electrically conductive antenna track directly on the first surface of the magnetic sheet, so as to form, once the electrically conductive antenna track is formed, two blind-holes located at the level of two antenna connection ends and providing an access for electrically connecting the antenna to a device.
Pneumatic vehicle tyre of radial type, having a tread with at least one shoulder-side profile block row , which is provided along its circumferential extent with a multiplicity of transverse channels that subdivide the profile block row into shoulder blocks , wherein a bottom elevation is formed in each transverse channel , said bottom elevation attaching shoulder blocks that follow one another in the circumferential direction to one another, and wherein the tread has a ground contact patch with a width (B), the edge (L) of which lies within the shoulder-side profile block row , characterized in that the bottom elevation , when the transverse channel is seen in longitudinal section, has, at least along the majority of its extent, a surface that extends in a radially outwardly curved manner and is interrupted by grooves formed in the bottom elevation , wherein the grooves extend parallel to one another and at an angle (α) of 0° to 20° to the circumferential direction (UR) of the pneumatic vehicle tyre.
A method for wireless communication performed by a user equipment, UE (115; 605; 705; 905), comprising: establishing (505; 1405; 1505; 1605) a first connection with a first base station (105-a) in a first public land mobile network, PLMN , the first connection being a coverage extension, CE, mode connection or a non-CE mode connection; receiving (510; 1410; 1610) , from the first base station, information associated with one or more neighboring base stations (150-b) in the first PLMN for use in establishing a second connection with a second base station of the one or more neighboring base stations, the information including one or more parameters for establishing the second connection in a CE mode or in a non-CE mode; transmitting (535; 1620), based on the received information, a CE request to the second base station that requests broadcast transmissions of the second base station to be transmitted in the CE mode; and transmitting (555; 1415; 1530) a random access request to the second base station to establish the second connection based at least in part on the information associated with the one or more neighboring base stations in the first PLMN . establishing (505; 1405; 1505; 1605) a first connection with a first base station (105-a) in a first public land mobile network, PLMN , the first connection being a coverage extension, CE, mode connection or a non-CE mode connection; receiving (510; 1410; 1610) , from the first base station, information associated with one or more neighboring base stations (150-b) in the first PLMN for use in establishing a second connection with a second base station of the one or more neighboring base stations, the information including one or more parameters for establishing the second connection in a CE mode or in a non-CE mode; transmitting (535; 1620), based on the received information, a CE request to the second base station that requests broadcast transmissions of the second base station to be transmitted in the CE mode; and transmitting (555; 1415; 1530) a random access request to the second base station to establish the second connection based at least in part on the information associated with the one or more neighboring base stations in the first PLMN .
Genetically engineered retinal pigment epithelial (RPE) cells for use in the treatment of retinal degeneration in a subject in need thereof, wherein: said RPE cells over-express intracellularly Orthodenticle Homeobox 2 (OTX2) protein through the introduction in vitro or ex vivo of a recombinant nucleic acid sequence encoding OTX2 protein operably linked to one or more control sequences that direct the expression of said nucleic acid in said cells, and said treatment is performed by intraocular administration of said RPE cells in the subject. said RPE cells over-express intracellularly Orthodenticle Homeobox 2 (OTX2) protein through the introduction in vitro or ex vivo of a recombinant nucleic acid sequence encoding OTX2 protein operably linked to one or more control sequences that direct the expression of said nucleic acid in said cells, and said treatment is performed by intraocular administration of said RPE cells in the subject.
Apparatus for chopping and discharging crop residue for a combine harvester , the apparatus comprising a rotor supporting a plurality of chopping elements and a rotor housing comprising an inlet opening , a first outlet and a second outlet (31;32), characterised in that each of the first and second outlets comprises a separate opening, the first outlet being axially aligned with the inlet opening , and the second outlet (31;32) being axially offset from the inlet opening .
A method for monitoring energy consumption in an electric vehicle EV charging network , wherein the EV charging network comprises multiple EV charging stations each equipped with an energy meter, characterized in that the method comprises: a) receiving (S302) a new message from at least one of the EV charging stations , the new message comprising a timestamp, a station identifier (ID), a charging session ID unique for each charging session, and an energy meter reading; b) storing (S304) the new message in a database comprising old messages from the EV charging stations ; c) checking (S306) whether the database comprises an older message comprising the same station ID and charging session ID as the new message; d) if the older message is present in the database , calculating (S308) a time difference and an energy difference between the new message and the older message; e) selecting (S310) a time granularity level based on the calculated time difference; f) obtaining (S312) an energy consumption distribution between the timestamps of the new message and the older message based on the time granularity level and the energy difference; and g) providing the energy consumption distribution to a station operator. a) receiving (S302) a new message from at least one of the EV charging stations , the new message comprising a timestamp, a station identifier (ID), a charging session ID unique for each charging session, and an energy meter reading; b) storing (S304) the new message in a database comprising old messages from the EV charging stations ; c) checking (S306) whether the database comprises an older message comprising the same station ID and charging session ID as the new message; d) if the older message is present in the database , calculating (S308) a time difference and an energy difference between the new message and the older message; e) selecting (S310) a time granularity level based on the calculated time difference; f) obtaining (S312) an energy consumption distribution between the timestamps of the new message and the older message based on the time granularity level and the energy difference; and g) providing the energy consumption distribution to a station operator.
An electro-optic modulator (100; 200; 300; 400) for a waveguide, comprising: a first semiconductor layer (210; 310; 410); a second semiconductor layer (220; 320; 420); a dielectric layer (230; 330; 430) interposed between the second semiconductor layer and the first semiconductor layer; and a coupling layer (240; 340; 440) for coupling a guided mode of the waveguide to at least one of the first semiconductor layer and the second semiconductor layer, wherein, when the guided mode is coupled to at least one of the first semiconductor layer and the second semiconductor layer, the coupling layer is disposed between the first semiconductor layer and the waveguide such that a centre of the guided mode does not overlap with the electro-optic modulator, and wherein the electro-optic modulator is configured to induce a modulation on the guided mode of the waveguide by changing a refractive index in response to a voltage applied between the first semiconductor layer and the second semiconductor layer. a first semiconductor layer (210; 310; 410); a second semiconductor layer (220; 320; 420); a dielectric layer (230; 330; 430) interposed between the second semiconductor layer and the first semiconductor layer; and a coupling layer (240; 340; 440) for coupling a guided mode of the waveguide to at least one of the first semiconductor layer and the second semiconductor layer, wherein, when the guided mode is coupled to at least one of the first semiconductor layer and the second semiconductor layer, the coupling layer is disposed between the first semiconductor layer and the waveguide such that a centre of the guided mode does not overlap with the electro-optic modulator, and wherein the electro-optic modulator is configured to induce a modulation on the guided mode of the waveguide by changing a refractive index in response to a voltage applied between the first semiconductor layer and the second semiconductor layer.
An applicator for a cosmetic product, in particular a mascara, comprising a twisted core and fibres which extend from the core while being held by said core , said core having a main direction of longitudinal extension, known as the principal axis (X), said core being straight along said principal axis (X), said fibres forming a shell (E) with their free end, the shell (E) comprising four faces (F1-F4), said faces (F1-F4) each comprising a plane of symmetry comprising the principal axis (X), each of said four faces (F1-F4) being generated by a straight line, known as generatrix straight line, orthogonal to the principal axis (X) and orthogonal to the plane of symmetry of said face (F1-F4), at least two consecutive faces (F1, F2) of said four faces (F1-F4) having a curved profile along said principal axis (X), and at least one of said four faces having a substantially convex curved profile along said principal axis, the four faces (F1-F4) are symmetrical in pairs with respect to the principal axis (X), a pair of said symmetrical faces (F1, F3) have a substantially concave profile along the principal axis (X) and a pair (F2, F4) of said symmetrical faces have a substantially convex profile along the principal axis (X).
Process apparatus for treatment of polluted water or liquid, the process apparatus comprising: at least one filter element , the filter element being an elongate hollow semi-permeable member arranged for removing organisms, organic or non-organic pollutants from a polluted water or liquid above a defined filtration size specification when in use; at least one anode ; and at least one cathode ; wherein the at least one anode and the at least one cathode are semi-permeable such that liquid can pass therethrough; wherein the anode and cathode are arranged radially and concentrically with respect to the filter element ; wherein the process apparatus further comprises an electrical supply arranged in use to generate potential difference and an electrical current between the at least one anode and an adjacent cathode for activating them; and wherein at least one anode and cathode are elongate and each arranged circumferentially and radially around the filter element such that, in use, liquid flows into the process apparatus through one or both ends of the filter element and radially outwards through a wall of the filter element . at least one filter element , the filter element being an elongate hollow semi-permeable member arranged for removing organisms, organic or non-organic pollutants from a polluted water or liquid above a defined filtration size specification when in use; at least one anode ; and at least one cathode ; wherein the at least one anode and the at least one cathode are semi-permeable such that liquid can pass therethrough; wherein the anode and cathode are arranged radially and concentrically with respect to the filter element ; wherein the process apparatus further comprises an electrical supply arranged in use to generate potential difference and an electrical current between the at least one anode and an adjacent cathode for activating them; and wherein at least one anode and cathode are elongate and each arranged circumferentially and radially around the filter element such that, in use, liquid flows into the process apparatus through one or both ends of the filter element and radially outwards through a wall of the filter element .
An isolating decoupler comprising: a hub for connection to a shaft; a pulley journalled to the hub , the pulley having a belt engaging surface; a composite spring having a clutch portion , a transition portion and a variable diameter portion ; the composite spring engaged between the hub and the pulley , the clutch portion diameter reducible in a loading direction for a frictional engagement with the pulley in the loading direction; the frictional engagement of the clutch portion progressively releasable from the pulley in an unloading direction; the variable diameter portion having a diameter which varies according to a torque load; and characterized by : an inertial member engaged with the hub through a damping member , wherein the transition portion of the composite spring has a helical shape in the unloaded condition with an increasing diameter from the clutch portion to a tab at one end of the composite spring . a hub for connection to a shaft; a pulley journalled to the hub , the pulley having a belt engaging surface; a composite spring having a clutch portion , a transition portion and a variable diameter portion ; the composite spring engaged between the hub and the pulley , the clutch portion diameter reducible in a loading direction for a frictional engagement with the pulley in the loading direction; the frictional engagement of the clutch portion progressively releasable from the pulley in an unloading direction; the variable diameter portion having a diameter which varies according to a torque load; and characterized by : an inertial member engaged with the hub through a damping member , wherein the transition portion of the composite spring has a helical shape in the unloaded condition with an increasing diameter from the clutch portion to a tab at one end of the composite spring . an inertial member engaged with the hub through a damping member , wherein the transition portion of the composite spring has a helical shape in the unloaded condition with an increasing diameter from the clutch portion to a tab at one end of the composite spring .
A process for purifying a process gas from a reactor for thermal treatment of polyesters such as polyethylene terephthalate and its copolymers, which contains organic impurities and optionally an amount of oxygen less than required for complete combustion of the organic impurities in said process, comprising the steps of: - Introducing a process gas from a reactor for thermal treatment of polyesters such as polyethylene terephthalate and its copolymers, into at least one heat exchanger for heating the process gas, and heating the process gas in said heat exchanger, - Controlled supply of an oxygen-containing gas to the process gas, - Introduction of the process gas mixed with the oxygen-containing gas into a catalyst vessel with at least one catalyst bed arranged therein, through which the process gas flows from an inlet side to an outlet side, - Combustion of the organic impurities in the process gas in the at least one catalyst bed, - At least partial recirculation of the process gas into the reactor for thermal treatment of polyesters such as polyethylene terephthalate and its copolymers, characterized in that , before entering the catalyst vessel, the process gas is passed through a protective bed containing a solid adsorbent material that removes high-boiling organic substances or organic substances with a high combustion temperature from the process gas stream, a temperature in the range of 100 to 250°C being set so that the high-boiling substances can condense and be absorbed by the adsorbent material. - Introducing a process gas from a reactor for thermal treatment of polyesters such as polyethylene terephthalate and its copolymers, into at least one heat exchanger for heating the process gas, and heating the process gas in said heat exchanger, - Controlled supply of an oxygen-containing gas to the process gas, - Introduction of the process gas mixed with the oxygen-containing gas into a catalyst vessel with at least one catalyst bed arranged therein, through which the process gas flows from an inlet side to an outlet side, - Combustion of the organic impurities in the process gas in the at least one catalyst bed, - At least partial recirculation of the process gas into the reactor for thermal treatment of polyesters such as polyethylene terephthalate and its copolymers,
Liquid bleaching composition comprising: - a hypohalite bleach in an amount of 2.5 to 5 % by weight of the total composition, - a source of alkalinity in an amount of 0.05% to 10% by weight of the total composition, wherein the source of alkalinity is a mixture of sodium carbonate and sodium hydroxide, and - an hybrid polymer in an amount of 0,02% to 2% by weight of the total composition, the hybrid polymer comprising: a synthetic polymer as the backbone of the hybrid polymer, and a chain transfer agent selected from the group consisting of gluconic acid, glucoheptonic acid and naturally derived mono-, di-, oligo- or polysaccharides, as the chain terminating portion of the polymer. - a hypohalite bleach in an amount of 2.5 to 5 % by weight of the total composition, - a source of alkalinity in an amount of 0.05% to 10% by weight of the total composition, wherein the source of alkalinity is a mixture of sodium carbonate and sodium hydroxide, and - an hybrid polymer in an amount of 0,02% to 2% by weight of the total composition, the hybrid polymer comprising: a synthetic polymer as the backbone of the hybrid polymer, and a chain transfer agent selected from the group consisting of gluconic acid, glucoheptonic acid and naturally derived mono-, di-, oligo- or polysaccharides, as the chain terminating portion of the polymer. a synthetic polymer as the backbone of the hybrid polymer, and a chain transfer agent selected from the group consisting of gluconic acid, glucoheptonic acid and naturally derived mono-, di-, oligo- or polysaccharides, as the chain terminating portion of the polymer.
Peeling rotor for a device for processing foodstuffs comprising at least one peeling arm which is arranged on a carrier shaft , characterised in that the peeling arm comprises a connection piece and an end piece , wherein the connection piece connects with a first end the peeling arm to the carrier shaft and the end piece adjoins the second end of the connection piece , wherein the end piece is produced from a first elastomer material which has a lower Shore hardness A than a second elastomer material from which the connection piece is produced.
A manufacturing method of electronic device , comprising: providing an insulation substrate , wherein the insulation substrate has a first surface (S1) and a second surface (S2) opposite to the first surface (S1); forming a plurality of sub-matrix circuits on the insulation substrate , wherein each of the sub-matrix circuits comprises at least one thin film transistor (T); disposing at least one functional chip on the first surface (S1), wherein the functional chip is electrically connected with the sub-matrix circuit ; forming a plurality of through-holes (H) on the insulation substrate and disposing a conductive material in the through-holes (H), so that the functional chip is electrically connected to the second surface (S2) through the sub-matrix circuits and the conductive material ; forming a protection layer on the first surface (S1) to cover the functional chips ; cutting the insulation substrate and the protection layer to form a plurality of the electronic package units ; and electrically connecting the conductive material of the electronic package units to a driving circuit board , wherein the driving circuit board faces toward the second surfaces (S2) of the insulation substrates , and the functional chips are electrically connected to the driving circuit board through the sub-matrix circuits and conductive material inside the through-holes (H). providing an insulation substrate , wherein the insulation substrate has a first surface (S1) and a second surface (S2) opposite to the first surface (S1); forming a plurality of sub-matrix circuits on the insulation substrate , wherein each of the sub-matrix circuits comprises at least one thin film transistor (T); disposing at least one functional chip on the first surface (S1), wherein the functional chip is electrically connected with the sub-matrix circuit ; forming a plurality of through-holes (H) on the insulation substrate and disposing a conductive material in the through-holes (H), so that the functional chip is electrically connected to the second surface (S2) through the sub-matrix circuits and the conductive material ; forming a protection layer on the first surface (S1) to cover the functional chips ; cutting the insulation substrate and the protection layer to form a plurality of the electronic package units ; and electrically connecting the conductive material of the electronic package units to a driving circuit board , wherein the driving circuit board faces toward the second surfaces (S2) of the insulation substrates , and the functional chips are electrically connected to the driving circuit board through the sub-matrix circuits and conductive material inside the through-holes (H).