mhurhangee/patent-ind-claim-en huggingface dataset:
Equipment for preparing a solution of a non-ionic, cationic, anionic or amphoteric polymer P2 by reaction between a compound comprising at least one aldehyde function and at least one aqueous solution of base polymer P1 comprising at least one non-ionic monomer selected among acrylamide, methacrylamide, N,N-dimethylacrylamide, and acrylonitrile, said equipment comprising a reactor provided with a stirring system; as well as at least: - a pipe intended to feed the reactor with water, - a pipe equipped with a metering pump intended to feed the reactor with a polymer P1 aqueous solution, - a pipe equipped with a metering pump intended to feed the reactor with the compound comprising at least one aldehyde function, - a pipe equipped with a metering pump intended to feed the reactor with base, - a pipe equipped with a metering pump intended to feed the reactor with acid, said reactor comprising a recirculation loop intended to make the polymer P2 solution recirculate from the bottom of the reactor towards an upper level of the reactor, characterised in that said recirculation circuit comprises between the outlet of the reactor and the inlet of the reactor, a recirculation pump , a pH measuring probe , and a pressure differential in-line measuring device in the form of a calibrated tube intended to measure the pressure difference of the polymer P2 solution between the inlet and the outlet of said calibrated tube, said calibrated tube being positioned in the bypass of the recirculation loop. - a pipe intended to feed the reactor with water, - a pipe equipped with a metering pump intended to feed the reactor with a polymer P1 aqueous solution, - a pipe equipped with a metering pump intended to feed the reactor with the compound comprising at least one aldehyde function, - a pipe equipped with a metering pump intended to feed the reactor with base, - a pipe equipped with a metering pump intended to feed the reactor with acid,
A refrigeration unit for a heating, ventilation, air conditioning, and refrigeration system, comprising: a refrigerant circuit , including: a compressor , a plurality of condensers (106-112) connected in parallel and each having a condenser portion (106A-112A) and a subcooler portion (106B-112B), an expansion device , and an evaporator fluidly connected; a single receiver tank that is fluidly connected to an output of the condenser portions (106A-112A) of the plurality of condensers (106-112) and an input of the subcooler portions (106B-112B) of the plurality of condensers (106-112); and a restrictor to induce a pressure drop in a working fluid flowing from the subcooler portion (106B-112B) of at least one of the plurality of condensers (106-112). a compressor , a plurality of condensers (106-112) connected in parallel and each having a condenser portion (106A-112A) and a subcooler portion (106B-112B), an expansion device , and an evaporator fluidly connected; a single receiver tank that is fluidly connected to an output of the condenser portions (106A-112A) of the plurality of condensers (106-112) and an input of the subcooler portions (106B-112B) of the plurality of condensers (106-112); and a restrictor to induce a pressure drop in a working fluid flowing from the subcooler portion (106B-112B) of at least one of the plurality of condensers (106-112).
Method for secure communication with a field measuring device of process measuring technology, wherein the field measuring device comprises a sensor , an evaluation unit , a fieldbus interface for the transmission of measurement data detected and provided by the field measuring device to other bus devices and/or to a process control system , and a communication interface and wherein an external communication means has external access to information technology content (Pi, Fi) of the field measuring device via the communication interface , wherein the information technology content (Pi, Fi) is not the actual measurement data, wherein a plurality of scopes of rights (Ri) is stored in the field measuring device , wherein each scope of rights (Ri) defines to what extent the information technology content (Pi, Fi) of the field measuring device can be accessed, a plurality of public keys (PUi) of a corresponding plurality of asymmetrical key pairs (PUi, PRi) are stored in the field measuring device and each public key (PUi) is assigned a scope of rights (Ri) and at least one private key (PRi) of the corresponding plurality of asymmetric key pairs (PUi, PRi) is stored in the external communication means , upon establishing contact of the external communication means with the field measuring device via the communication interface , the external communication means identifies itself by means of a public-key authentication with the stored private key (PRi) to the field measuring device , the field measuring device authenticates the external communication means using a suitable public key (PUi) stored in the field measuring device , and after successful authentication , the field measuring device opens an operating session in which the external communication means is granted access to the information technology content (Pi, Fi) of the field measuring device , namely in the scope of rights (Ri) of the public key (PUi) corresponding to the suitable private key (PRi).
An information transmitting method, performed by a terminal device, comprising: when a first physical uplink control channel, PUCCH, carrying a first uplink control information, UCI, overlaps, in a time domain, with each of a plurality of second PUCCHs carrying hybrid automatic repeat request-acknowledgements, HARQ-ACKs, and each of the plurality of second PUCCHs carrying HARQ-ACK does not overlap with each other in the time domain, dropping, by the terminal device, the first UCI; or when the first PUCCH carrying the first UCI overlaps, in the time domain, with a second PUCCH carrying a first HARQ-ACK, dropping, by the terminal device, the first UCI, if it is determined that a third PUCCH carrying simultaneously the first HARQ-ACK and the first UCI overlaps, in the time domain, with a fourth PUCCH carrying a second HARQ-ACK; wherein the first UCI is of an type of UCI other than the HARQ-ACK, or when the first UCI comprises the HARQ-ACK, a priority of the HARQ-ACK in the first UCI is lower than a priority of the HARQ-ACK carried on the second PUCCH. when a first physical uplink control channel, PUCCH, carrying a first uplink control information, UCI, overlaps, in a time domain, with each of a plurality of second PUCCHs carrying hybrid automatic repeat request-acknowledgements, HARQ-ACKs, and each of the plurality of second PUCCHs carrying HARQ-ACK does not overlap with each other in the time domain, dropping, by the terminal device, the first UCI; or when the first PUCCH carrying the first UCI overlaps, in the time domain, with a second PUCCH carrying a first HARQ-ACK, dropping, by the terminal device, the first UCI, if it is determined that a third PUCCH carrying simultaneously the first HARQ-ACK and the first UCI overlaps, in the time domain, with a fourth PUCCH carrying a second HARQ-ACK; wherein the first UCI is of an type of UCI other than the HARQ-ACK, or when the first UCI comprises the HARQ-ACK, a priority of the HARQ-ACK in the first UCI is lower than a priority of the HARQ-ACK carried on the second PUCCH.
A laminated glazing for a vehicle embedded with one or more data transponders comprising: a first substrate consisting an outer face and an inner face; one or more interlayers disposed on the inner face of the first substrate ; a second substrate disposed on the interlayer ; characterized in that at least one data transponder device comprising an antenna and an integrated circuit disposed on one or more interlayer , wherein one or more interlayer placed in between the first and second substrate , wherein the data transponder device is configured to communicate data wirelessly with a detecting device or a mobile device and provide selective reading of the transponder device , one or more heating element being provided between the first substrate and the second substrate , wherein the heating element is positioned around the data transponder device at a pre-defined distance therein to heat a region around the antenna and thereby improve readability of the data transponder. a first substrate consisting an outer face and an inner face; one or more interlayers disposed on the inner face of the first substrate ; a second substrate disposed on the interlayer ; characterized in that at least one data transponder device comprising an antenna and an integrated circuit disposed on one or more interlayer , wherein one or more interlayer placed in between the first and second substrate , wherein the data transponder device is configured to communicate data wirelessly with a detecting device or a mobile device and provide selective reading of the transponder device , one or more heating element being provided between the first substrate and the second substrate , wherein the heating element is positioned around the data transponder device at a pre-defined distance therein to heat a region around the antenna and thereby improve readability of the data transponder.
A process for manufacturing a glass, the chemical composition of which comprises at least 3% by weight of iron oxide, expressed in the form Fe 2 O 3 , comprising a step of electric melting, using electrodes submerged in the molten glass, of a vitrifiable batch material mixture, characterized in that said vitrifiable batch material mixture contains at least one manganese carrier wherein the manganese is in an oxidation state higher than +2.
A lamp , comprising: a lamp head comprising a light source mounted therein; a flexible arm comprising conducting wires arranged therein; and a mounting and power supply unit adapted to be mounted in a connection box , and configured to receive power from a terminal of the connection box and transmit the power via the conducting wires to the light source in the lamp head , the mounting and power supply unit comprising a mounting frame for fixing a power supply module to the connection box , and a panel cover for covering the mounting frame , wherein the panel cover is provided with a hole allowing the flexible arm to pass therethrough and project therefrom, characterized in that the panel cover further comprises a bracket arranged at an outer periphery for supporting an article. a lamp head comprising a light source mounted therein; a flexible arm comprising conducting wires arranged therein; and a mounting and power supply unit adapted to be mounted in a connection box , and configured to receive power from a terminal of the connection box and transmit the power via the conducting wires to the light source in the lamp head , the mounting and power supply unit comprising a mounting frame for fixing a power supply module to the connection box , and a panel cover for covering the mounting frame , wherein the panel cover is provided with a hole allowing the flexible arm to pass therethrough and project therefrom, characterized in that the panel cover further comprises a bracket arranged at an outer periphery for supporting an article.
Tread for a heavy-duty vehicle tyre, this tread comprising a tread surface intended to come into contact with a road surface during running and, opening onto this tread surface, at least one groove undulating in the thickness of the tread, that is to say a groove that opens discontinuously onto the tread surface when new, each undulating groove having, when new, external cavities that are open onto the tread surface and internal cavities that are entirely situated beneath the tread surface when new, these internal cavities being connected to the external cavities by linking cavities , each external cavity being delimited by lateral walls placed facing one another and meeting at a bottom , the innermost points of this bottom being situated at a distance Pce from the tread surface when new, each external cavity intersecting the tread surface along a corner edge contour having a maximum length Ls measured in the main direction of the undulating groove, this corner edge contour delimiting an opening of elongate form having two end regions (A1, A2) and having a total surface area Se measured on the tread surface , the bottom of each external cavity having a maximum length Lf, this tread being characterized in that , in each end region (A1, A2) in the direction of the flow of fluid inside said groove of each external cavity , at least one thin blade of rubbery material is formed, this thin blade being secured to at least one of the lateral walls delimiting the undulating groove so as to reduce the open surface area of the opening of each external cavity viewed from the tread surface when new.
Control unit device for an aircraft seat , with a control and/or regulation unit , with at least one actuator unit that is coupled with the control and/or regulation unit and comprises at least one actuator which is configured for converting electrical signals into movement, and with at least one additional unit , the additional unit being coupled with the control and/or regulation unit via the actuator unit , the actuator unit comprising at least one plug element , via which the actuator unit is coupled with the control and/or regulation unit , the additional unit being connected to the actuator unit via the plug element , the plug element comprising at least one pin, via which the actuator unit is connected with the control and/or regulation unit , and comprising at least one further pin, via which the additional unit is connected with the actuator unit , the actuator unit comprising an incorporated control unit that has at least one entry, via which the pin for the additional unit is connected.
An industrial control device comprising: a processor executing a program stored in a non-transient medium operable to: (a) store first and second sets of executable modules , wherein the first and second sets of executable modules are identical; (b) execute a first and a second code streams each of said first and second code streams executing the same program having the same executable modules of the first and second sets of executable modules , respectively, wherein the first code stream is operable to control an industrial process or machine, and the second code stream is operable to verify the integrity of the first code stream; (c) during execution of the first and second code streams determine first and second execution sequence values corresponding to the first and second code streams , respectively, wherein each of the first and second execution sequence values indicates: (i) an identification of executable modules executed in the code stream ; and (ii) an order of execution of executable modules executed in the code stream ; and (d) upon determining a mismatch between the first and second execution sequence values , generate an output indicating the mismatch. (a) store first and second sets of executable modules , wherein the first and second sets of executable modules are identical; (b) execute a first and a second code streams each of said first and second code streams executing the same program having the same executable modules of the first and second sets of executable modules , respectively, wherein the first code stream is operable to control an industrial process or machine, and the second code stream is operable to verify the integrity of the first code stream; (c) during execution of the first and second code streams determine first and second execution sequence values corresponding to the first and second code streams , respectively, wherein each of the first and second execution sequence values indicates: (i) an identification of executable modules executed in the code stream ; and (ii) an order of execution of executable modules executed in the code stream ; and (i) an identification of executable modules executed in the code stream ; and (ii) an order of execution of executable modules executed in the code stream ; and (d) upon determining a mismatch between the first and second execution sequence values , generate an output indicating the mismatch.
A method performed by a terminal device , comprising: receiving configuration information for a random access procedure from a network node ; and characterized by determining an association between random access resource and shared channel resource for the random access procedure, according to the configuration information, wherein the association is based at least in part on a configuration of the shared channel resource. receiving configuration information for a random access procedure from a network node ; and characterized by determining an association between random access resource and shared channel resource for the random access procedure, according to the configuration information, wherein the association is based at least in part on a configuration of the shared channel resource.
An aerosol-generating device for generating an inhalable vapor, wherein the aerosol-generating device comprises a heating chamber configured to receive an aerosol-generating article , wherein the inner wall of the heating chamber comprises a coating , characterized in that the coating comprises a binder material and metal particles embedded in the binder material , wherein the coating is configured to be heat-reflective and dirt-repellent, and wherein the binder material is configured as an enamel frit.
Spectacles comprising auricular devices, comprising - a structure having a front frame for supporting respective lenses , - and a pair of arms that are articulated to the front frame on laterally opposite sides, each of said arms extending in a longitudinal direction between a first end that is articulated to the front frame and a second, opposite end , close to which an end arm portion can make contact with the head at the ear, each arm extends from said second end into a further arm portion that is made of flexible material and bears an element for supporting an auricular device , said arm portion having a main extension in the longitudinal direction between said second end and an opposite free end of said portion , said support element being provided on the arm portion at said free end and said arm portion can move, on account of its flexibility, between an operating position in which said support element is worn at the ear to allow the auricular device to be positioned, and a non-operating position in which said support element is removably held on the end arm portion , characterized in that the support element , the arm portion and the end arm portion are integrally formed by means of injection moulding and in that said support element can engage in a seat made in said arm so as to hold said support element in the second, non-operating position. - a structure having a front frame for supporting respective lenses , - and a pair of arms that are articulated to the front frame on laterally opposite sides, each of said arms extending in a longitudinal direction between a first end that is articulated to the front frame and a second, opposite end , close to which an end arm portion can make contact with the head at the ear, each arm extends from said second end into a further arm portion that is made of flexible material and bears an element for supporting an auricular device , said arm portion having a main extension in the longitudinal direction between said second end and an opposite free end of said portion , said support element being provided on the arm portion at said free end and said arm portion can move, on account of its flexibility, between an operating position in which said support element is worn at the ear to allow the auricular device to be positioned, and a non-operating position in which said support element is removably held on the end arm portion , characterized in that the support element , the arm portion and the end arm portion are integrally formed by means of injection moulding and in that said support element can engage in a seat made in said arm so as to hold said support element in the second, non-operating position.
A method of forming a through substrate via, TSV, in a semiconductor substrate, comprising: etching a vertical via opening into the backside of the semiconductor substrate, the via opening exposing a surface of an embedded metal landing structure ; depositing a conductive layer over the backside of the semiconductor substrate, sidewalls of the via opening , and exposed surface of the metal landing structure ; coating the conductive layer with a photoresist polymer material , the photoresist polymer material filling remaining portion of the via opening ; irradiating the photoresist polymer material with ultraviolet, UV, light at the backside of the semiconductor substrate, a portion of the photoresist polymer material disposed in the via opening remaining unexposed to the UV light ; developing the photoresist polymer material to remove the photoresist polymer material from the backside of the semiconductor substrate and leaving the remaining portion of the via opening substantially filled with undeveloped photoresist polymer material ; and forming a planar backside surface of the semiconductor substrate by removing the conductive layer deposited over the backside of the semiconductor substrate; the method further comprising hard-baking the undeveloped photoresist polymer material to cross-link the photoresist polymer material and to form a permanent via filling material . etching a vertical via opening into the backside of the semiconductor substrate, the via opening exposing a surface of an embedded metal landing structure ; depositing a conductive layer over the backside of the semiconductor substrate, sidewalls of the via opening , and exposed surface of the metal landing structure ; coating the conductive layer with a photoresist polymer material , the photoresist polymer material filling remaining portion of the via opening ; irradiating the photoresist polymer material with ultraviolet, UV, light at the backside of the semiconductor substrate, a portion of the photoresist polymer material disposed in the via opening remaining unexposed to the UV light ; developing the photoresist polymer material to remove the photoresist polymer material from the backside of the semiconductor substrate and leaving the remaining portion of the via opening substantially filled with undeveloped photoresist polymer material ; and forming a planar backside surface of the semiconductor substrate by removing the conductive layer deposited over the backside of the semiconductor substrate; the method further comprising hard-baking the undeveloped photoresist polymer material to cross-link the photoresist polymer material and to form a permanent via filling material .
A method for evening out the thickness variation in a post-temporary bonding process of a wafer stack comprising a product wafer and a carrier wafer connected by means of an adhesive layer , by means of local mechanical application of pressure on local thickness maxima of the wafer stack by means of an application device (11, 11', 11") comprising at least one application unit (9, 9', 9", 9"', 9 IV , 9 V , 9 VI ), wherein X-Y positions of the thickness maxima are determined, wherein the thickness maxima are evened out in a targeted manner by means of the at least one application unit (9, 9', 9", 9"', 9 IV , 9 V , 9 VI ), wherein the product wafer is subjected to local deformations by means of the at least one application unit (9, 9', 9", 9''', 9 IV , 9 V , 9 VI ), wherein the local deformations of the product wafer lead to evening-out of the thickness maxima of the wafer stack , wherein the product wafer is thinner than the carrier wafer , wherein the local deformations of the product wafer lead to flowing of the adhesive layer and thus bring about evening-out of the thickness of the adhesive layer and therefore of the wafer stack .