mhurhangee/patent-ind-claim-en huggingface dataset:
Base floor of a building functioning as a substructure of a building, the base floor comprising a compacted and levelled soil layer , a hard thermal insulation layer and a load bearing slab , wherein the hard thermal insulation layer is formed on the surface of the compacted and levelled soil layer and wherein the load bearing slab is formed on the hard thermal insulation layer , wherein outer walls of the building are to be fabricated onto end edges and side edges of the load bearing slab , wherein the said slab comprises a thin sheet structure withstanding compression stress and comprising air flow paths parallel to its lower and upper surfaces, wherein the lower surface of the thin sheet structure forms a first surface positioned against the hard thermal insulation layer and wherein the upper surface of the thin sheet structure forms a second surface positioned at a distance from the first surface .
A clear binder that is solid under cold conditions and in divided form, comprising at least one clear binder base and from 0.1% to 5% by weight relative to the total weight of said clear binder base of at least one chemical additive chosen from: • a compound of general formula (I): Ar1-R-Ar2 (I), in which: • Ar1 and Ar2 represent, independently of one another, a benzene nucleus or a system of condensed aromatic nuclei of 6 to 20 carbon atoms which are substituted by at least one hydroxyl group and • R represents an optionally substituted divalent radical, the main chain of which comprises from 6 to 20 carbon atoms and at least one group chosen from the amide, ester, hydrazide, urea, carbamate and anhydride functions, • a compound of general formula (V): R"-(COOH)z (V), in which R" represents a linear or branched and saturated or unsaturated chain comprising from 4 to 68 carbon atoms, • a polyphosphoric acid, and • mixtures thereof. • a compound of general formula (I): Ar1-R-Ar2 (I), in which: • Ar1 and Ar2 represent, independently of one another, a benzene nucleus or a system of condensed aromatic nuclei of 6 to 20 carbon atoms which are substituted by at least one hydroxyl group and • R represents an optionally substituted divalent radical, the main chain of which comprises from 6 to 20 carbon atoms and at least one group chosen from the amide, ester, hydrazide, urea, carbamate and anhydride functions, • Ar1 and Ar2 represent, independently of one another, a benzene nucleus or a system of condensed aromatic nuclei of 6 to 20 carbon atoms which are substituted by at least one hydroxyl group and • R represents an optionally substituted divalent radical, the main chain of which comprises from 6 to 20 carbon atoms and at least one group chosen from the amide, ester, hydrazide, urea, carbamate and anhydride functions, • a compound of general formula (V): R"-(COOH)z (V), in which R" represents a linear or branched and saturated or unsaturated chain comprising from 4 to 68 carbon atoms, • a polyphosphoric acid, and • mixtures thereof.
A sliding screen sliding system (1; 101; 201; 301), comprising a linear slide bar (10; 110; 210; 310) having a slide surface coated with a lacquer comprising a resin, wherein said lacquer in turn is at least partly coated with a lipophilic composition coating to provide a slide layer with lowered friction, and at least one sliding member (20; 120; 220; 320), wherein the linear slide bar (10; 110; 210; 310) and the sliding member (20; 120; 220; 320) are arranged in contact, whereby the interface between the slide layer of the slide bar (10; 110; 210; 310) and the sliding member (20; 120; 220; 320) forms a linear plain bearing to allow for linear movement of the sliding member (20; 120; 220; 320) along the longitudinal axis of the linear slide bar (10; 110; 210; 310), the sliding member (20; 120; 220; 320) being provided with a fastening arrangement (28; 328) adapted for connection to a sliding screen (30; 330) to allow for linear movement of the sliding screen (30; 330) along the longitudinal axis of the linear slide bar (10; 110; 210; 310), wherein at least the part of said sliding member (20; 120; 220; 320) being in contact with the slide layer is made of a plastic.
A plurality of cooling devices (R1, R2, ..., Rn) and a hydraulic distributor distributing a coolant fluid to a plurality of cooling devices (R1, R2, ..., Rn), said distributor comprising: - an inlet conduit of the coolant fluid into the hydraulic distributor ; - a plurality of supply conduits (12 1 , ..., 12 n ) of said cooling devices by the coolant fluid, each of the supply conduits being hydraulically connected with the inlet conduit by means of a supply channel ; - an outlet conduit of the coolant fluid from the distributor; - a plurality of return conduits (15 1 , ..., 15 n ) of the coolant fluid into the distributor, each of the return conduits being hydraulically connected with the outlet conduit by means of a return channel ; - a supply of coolant fluid for the cooling devices according to a last in/first out type scheme; characterized in that at least one of said coolant fluid supply conduits or return conduits comprises a floating connector inserted into the conduit, said floating connector establishing a hydraulic connection with at least one of said cooling devices among the plurality of cooling devices, and in that , on the one hand, the coolant fluid supply channel comprises a baffle , on the other hand, said coolant fluid supply channel and return channel pass through the distributor horizontally and are arranged with respect to one another in such a way that the inlet conduit and the outlet conduit are located at a same end of the hydraulic distributor . - an inlet conduit of the coolant fluid into the hydraulic distributor ; - a plurality of supply conduits (12 1 , ..., 12 n ) of said cooling devices by the coolant fluid, each of the supply conduits being hydraulically connected with the inlet conduit by means of a supply channel ; - an outlet conduit of the coolant fluid from the distributor; - a plurality of return conduits (15 1 , ..., 15 n ) of the coolant fluid into the distributor, each of the return conduits being hydraulically connected with the outlet conduit by means of a return channel ; - a supply of coolant fluid for the cooling devices according to a last in/first out type scheme;
Post processing arrangement for shaped bodies manufactured additively by photopolymerization, which has a cleaning station for cleaning the shaped body and a finishing station for post-exposure of the shaped body, characterized in that the cleaning station and the finishing station are housed in a housing , capable of standing on a horizontal stand surface, in which housing the cleaning station is housed in a lower section and the finishing station is housed in an upper section lying vertically above the lower section, wherein the lower and upper sections can be connected to each other by a passage with a closure which can be opened, in that a vertical lifting apparatus , having a vertical guide and a holder which is vertically displaceable thereon and to which the shaped body can be directly or indirectly secured, extends through the finishing station in order to be able to transport the shaped body back and forth between cleaning station and finishing station , in that a control apparatus integrated into the housing is set up to control the operation of the lifting apparatus , of the closure and of the cleaning and finishing stations such that, after the shaped body has been positioned on the holder and after the closure has been opened, the lifting apparatus lowers the shaped body into a basin of the cleaning station ; to control the operation of the cleaning station for cleaning the shaped body; after completion of the operation of the cleaning station , to displace the shaped body by means of the lifting apparatus upwards into the finishing station ; to close the closure of the passage and then to control the operation of the finishing station for the post-exposure.
A rolling element bell that rings when the entire rolling element bell is shaken, the rolling element bell comprising: a base section having a recessed side; a bell section ; a rolling element that is adapted to roll in the recessed side, the rolling element hitting the bell section when the entire rolling element bell is shaken, so that the rolling element is rolled to reach an edge of the recess of the base section ; and a connection section that connects the bell section with the base section for supporting the bell section by the base section ; characterized in - that a surface of the recessed side is formed by a material that does not make a noise when the rolling element rolls on the surface, and - that a contact angle or a contact height of the rolling element with an inner wall of the bell section is adjusted for adjusting the sound produced by the rolling element bell. a base section having a recessed side; a bell section ; a rolling element that is adapted to roll in the recessed side, the rolling element hitting the bell section when the entire rolling element bell is shaken, so that the rolling element is rolled to reach an edge of the recess of the base section ; and a connection section that connects the bell section with the base section for supporting the bell section by the base section ; characterized in - that a surface of the recessed side is formed by a material that does not make a noise when the rolling element rolls on the surface, and - that a contact angle or a contact height of the rolling element with an inner wall of the bell section is adjusted for adjusting the sound produced by the rolling element bell. - that a surface of the recessed side is formed by a material that does not make a noise when the rolling element rolls on the surface, and - that a contact angle or a contact height of the rolling element with an inner wall of the bell section is adjusted for adjusting the sound produced by the rolling element bell.
An optical inspection device comprising: a wafer support unit configured to support a wafer ; the wafer , wherein the wafer includes a substrate layer and a plurality of Fabry-Perot interference filter portions being formed in the wafer and two-dimensionally arranged on the substrate layer , each of the plurality of Fabry-Perot interference filter portions having a first mirror portion and a second mirror portion , and having a gap formed between the first mirror portion and the second mirror portion facing each other and a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force, the wafer support unit configured to support the wafer such that a direction in which the first mirror portion and the second mirror portion face each other follows along a reference line; a light emission unit configured to emit light to be incident on each of the plurality of Fabry-Perot interference filter portions along the reference line; and a light detection unit configured to detect light transmitted through each of the plurality of Fabry-Perot interference filter portions along the reference line, wherein the wafer support unit has a light passage region through which light is allowed to pass along the reference line. a wafer support unit configured to support a wafer ; the wafer , wherein the wafer includes a substrate layer and a plurality of Fabry-Perot interference filter portions being formed in the wafer and two-dimensionally arranged on the substrate layer , each of the plurality of Fabry-Perot interference filter portions having a first mirror portion and a second mirror portion , and having a gap formed between the first mirror portion and the second mirror portion facing each other and a distance between the first mirror portion and the second mirror portion facing each other varies by an electrostatic force, the wafer support unit configured to support the wafer such that a direction in which the first mirror portion and the second mirror portion face each other follows along a reference line; a light emission unit configured to emit light to be incident on each of the plurality of Fabry-Perot interference filter portions along the reference line; and a light detection unit configured to detect light transmitted through each of the plurality of Fabry-Perot interference filter portions along the reference line, wherein the wafer support unit has a light passage region through which light is allowed to pass along the reference line.
An optical telecommunication module including a casing, this module including a front body , a bottom plate secured to said front body , an upper cover plate and a rear plate pivoting relative to said bottom plate , said cover plate pivoting relative to the bottom plate , said cover plate pivoting relative to said rear plate , characterized in that said casing is made from plastic, and in that said rear plate is a platen including, on its inner face, a set of parts allowing the guiding and/or the splicing and/or the accommodation of coupling systems and/or the storage of optical fibers.
Process for treating wastewater, comprising the following steps: - analyzing first parameters of a water flow entering a purification plant, wherein the first parameters are: water flow rate, and nitrogen concentration, - measuring the temperature of a biological reactor of the purification plant, - as a function of only said first parameters detected in the inflowing water and of only said measured temperature of the biological reactor , estimating a nitrogen concentration of a water flow exiting the purification plant, by means of a trained artificial neural network, wherein the inflowing water and the outflowing water are upstream and downstream, respectively, of the biological reactor , - analyzing a nitrogen concentration of the water flow exiting the purification plant, - comparing the estimated values of nitrogen concentration with the values of nitrogen concentration detected in the outflowing water , - based on such comparison, adjusting the modalities of treatment of the water in the purification plant, which comprises adjusting, in the biological reactor , one or more of: oxygenation, biological sludge amount, biological sludge recirculation, - treating the inflowing water in the purification plant; wherein the detections and/or the adjustments of the modalities of purification are made in real time. - analyzing first parameters of a water flow entering a purification plant, wherein the first parameters are: water flow rate, and nitrogen concentration, - measuring the temperature of a biological reactor of the purification plant, - as a function of only said first parameters detected in the inflowing water and of only said measured temperature of the biological reactor , estimating a nitrogen concentration of a water flow exiting the purification plant, by means of a trained artificial neural network, wherein the inflowing water and the outflowing water are upstream and downstream, respectively, of the biological reactor , - analyzing a nitrogen concentration of the water flow exiting the purification plant, - comparing the estimated values of nitrogen concentration with the values of nitrogen concentration detected in the outflowing water , - based on such comparison, adjusting the modalities of treatment of the water in the purification plant, which comprises adjusting, in the biological reactor , one or more of: oxygenation, biological sludge amount, biological sludge recirculation, - treating the inflowing water in the purification plant;
A system for controlling a thickness of a hot-dip galvanized coating on a flexible-rolled steel strip having two equal thickness sections (h1, h2) and continuous transition sections (T1, T2) between the two discrete thicknesses (h1, h2), comprising: a steel strip thickness gauge , a length measuring roller , a hot-dip galvanizing apparatus, an air knife , a cold-state zinc coating measuring instrument , and a control system , wherein, when the system is in use, in a forward movement direction of the steel strip , the steel strip thickness gauge and the length measuring roller are arranged before an inlet of the hot-dip galvanizing apparatus, and the air knife and the cold-state zinc coating measuring instrument are sequentially arranged behind an outlet of the hot-dip galvanizing apparatus; the steel strip thickness gauge is configured to detect a thickness signal of the steel strip , the length measuring roller is configured to detect a length signal of the steel strip , the cold-state zinc coating measuring instrument is configured to detect a zinc coating thickness of the steel strip , and the steel strip thickness gauge , the length measuring roller and the cold-state zinc coating measuring instrument respectively are configured to send measurement data to the control system ; and the control system is configured to predict a thickness of the steel strip at the air knife according to the length signal and the thickness signal and configured to adjust a pressure of the air knife according to the length signal and the thickness signal, and further configured to adjust the pressure of the air knife according to the zinc coating thickness. a steel strip thickness gauge , a length measuring roller , a hot-dip galvanizing apparatus, an air knife , a cold-state zinc coating measuring instrument , and a control system , wherein, when the system is in use, in a forward movement direction of the steel strip , the steel strip thickness gauge and the length measuring roller are arranged before an inlet of the hot-dip galvanizing apparatus, and the air knife and the cold-state zinc coating measuring instrument are sequentially arranged behind an outlet of the hot-dip galvanizing apparatus; the steel strip thickness gauge is configured to detect a thickness signal of the steel strip , the length measuring roller is configured to detect a length signal of the steel strip , the cold-state zinc coating measuring instrument is configured to detect a zinc coating thickness of the steel strip , and the steel strip thickness gauge , the length measuring roller and the cold-state zinc coating measuring instrument respectively are configured to send measurement data to the control system ; and the control system is configured to predict a thickness of the steel strip at the air knife according to the length signal and the thickness signal and configured to adjust a pressure of the air knife according to the length signal and the thickness signal, and further configured to adjust the pressure of the air knife according to the zinc coating thickness.
A method for wireless communications implemented by a user equipment, UE, comprising: receiving , at the UE, a beam diversity request from a base station ; performing beam measurements for a plurality of directional candidate beams (325-a, 325-b, 325-c) transmitted by the base station towards the UE based in part on the beam diversity request, wherein the beam measurements comprise beam characteristic correlation information for the plurality of directional candidate beams; and transmitting a beam diversity response based on the beam measurements; wherein performing the beam measurements for the plurality of directional candidate beams transmitted by the base station towards the UE is characterized by comprising: identifying a first reference signals received power, RSRP, for each candidate beam from the plurality of directional candidate beams during a first time period; identifying a second RSRP for each candidate beam during a second time period; calculating RSRP correlation as the difference between the first RSRP and the second RSRP; and selecting, at the UE, each respective candidate beam based on a determination that the RSRP correlation is less than a RSRP-correlation threshold. receiving , at the UE, a beam diversity request from a base station ; performing beam measurements for a plurality of directional candidate beams (325-a, 325-b, 325-c) transmitted by the base station towards the UE based in part on the beam diversity request, wherein the beam measurements comprise beam characteristic correlation information for the plurality of directional candidate beams; and transmitting a beam diversity response based on the beam measurements; wherein performing the beam measurements for the plurality of directional candidate beams transmitted by the base station towards the UE is characterized by comprising: identifying a first reference signals received power, RSRP, for each candidate beam from the plurality of directional candidate beams during a first time period; identifying a second RSRP for each candidate beam during a second time period; calculating RSRP correlation as the difference between the first RSRP and the second RSRP; and selecting, at the UE, each respective candidate beam based on a determination that the RSRP correlation is less than a RSRP-correlation threshold. identifying a first reference signals received power, RSRP, for each candidate beam from the plurality of directional candidate beams during a first time period; identifying a second RSRP for each candidate beam during a second time period; calculating RSRP correlation as the difference between the first RSRP and the second RSRP; and selecting, at the UE, each respective candidate beam based on a determination that the RSRP correlation is less than a RSRP-correlation threshold.
A multi-fiber cable assembly comprising: an optical connector including: a connector body having an anchor end and a plug end; an optical ferrule comprising an optical ferrule body extending from a first end to a second end , the first end being configured to receive and anchor optical fibers , the second end defining an end face facing outwardly from the plug end of the connector body, the end face defining at least 144 alignment openings arranged in a plurality of rows, the optical ferrule body being carried by the connector body , the optical ferrule body also defining a plurality of expanded alignment channels , each expanded alignment channel being aligned with a respective one of the alignment openings ; first and second alignment structures disposed at opposite sides of the end face of the optical ferrule body ; a soft epoxy disposed within each of the expanded alignment channels ; and a cable including at least 144 optical fibers , the cable being anchored to the optical connector , the optical fibers being routed through the first end of the optical ferrule body , the optical fibers having bare portions that are secured at the first end of the optical ferrule body using rigid epoxy , each of the optical fibers being routed through one of the expanded alignment channels to the respective alignment opening , each of the optical fibers being surrounded by the soft epoxy within the expanded alignment channel , each of the optical fibers having a fiber tip that protrudes from the respective alignment opening defined by the end face, the fiber tips being bare and relatively coplanar, each of the expanded alignment channels providing sufficient space to accommodate bending of bare portions of the optical fibers to enable axial movement of the fiber tips within the alignment openings , the soft epoxy accommodating a slight bending of the optical fibers to adjust a protrusion height during mating of the optical fibers carried by the optical ferrule to fibers of another optical connector, the soft epoxy accommodating axial compression of the optical fibers during mating. a connector body having an anchor end and a plug end; an optical ferrule comprising an optical ferrule body extending from a first end to a second end , the first end being configured to receive and anchor optical fibers , the second end defining an end face facing outwardly from the plug end of the connector body, the end face defining at least 144 alignment openings arranged in a plurality of rows, the optical ferrule body being carried by the connector body , the optical ferrule body also defining a plurality of expanded alignment channels , each expanded alignment channel being aligned with a respective one of the alignment openings ; first and second alignment structures disposed at opposite sides of the end face of the optical ferrule body ;