mhurhangee/patent-ind-claim-en huggingface dataset:
An ultrasonic flow meter comprising: a pipe having two ends; electronic circuitry ; an outer case comprising a top section and a bottom section separated by a divider, the top section housing the electronic circuitry and being watertight, the bottom section housing the pipe and not being watertight, the two ends of the pipe protruding from the bottom section; a plurality of ultrasonic transducers attached to an external surface of the pipe within the bottom section; a plurality of caps , each transducer being covered by a respective cap and sealed from water ingress with a sealant; and a plurality of pairs of wires , each transducer being connected to the electronic circuitry by a respective pair of wires; sealant arranged around the wires where they pass through the divider so as to prevent any water ingress in the bottom section from reaching the top section. a pipe having two ends; electronic circuitry ; an outer case comprising a top section and a bottom section separated by a divider, the top section housing the electronic circuitry and being watertight, the bottom section housing the pipe and not being watertight, the two ends of the pipe protruding from the bottom section; a plurality of ultrasonic transducers attached to an external surface of the pipe within the bottom section; a plurality of caps , each transducer being covered by a respective cap and sealed from water ingress with a sealant; and a plurality of pairs of wires , each transducer being connected to the electronic circuitry by a respective pair of wires; sealant arranged around the wires where they pass through the divider so as to prevent any water ingress in the bottom section from reaching the top section.
An optical front-end subsystem for receiving optical wireless communication signals, the optical front-end subsystem comprising: - a first photodiode with a first active surface area configured to receive a first optical signal; - a second photodiode with a second active surface area configured to receive a second optical signal; the optical front-end subsystem is characterized in that :the optical front-end subsystem further comprising: - a sniffer circuit configured to compare a received signal strength of the first optical signal with a predefined reference value; and - a switch configured to select the received first optical signal as an output signal of the optical front-end subsystem when the received signal strength of the first optical signal is higher than the predefined reference value; and, otherwise, select the received second optical signal as the output signal of the optical front-end subsystem ; wherein the second active surface area is larger than the first active surface area. - a first photodiode with a first active surface area configured to receive a first optical signal; - a second photodiode with a second active surface area configured to receive a second optical signal; - a sniffer circuit configured to compare a received signal strength of the first optical signal with a predefined reference value; and - a switch configured to select the received first optical signal as an output signal of the optical front-end subsystem when the received signal strength of the first optical signal is higher than the predefined reference value; and, otherwise, select the received second optical signal as the output signal of the optical front-end subsystem ;
Method of operation of a rolling mill for rolling a billet , - wherein the billet is rolled in the rolling mill to a rod , said rod exiting the rolling mill with a finishing temperature (TE1), - detecting by means of a rear laser measurement device arranged downstream of the rolling mill the head end and the speed (v) of the rod , - integrating the detected speed (v) of the rod , thereby determining an instantaneous length (L) of the rod , - providing, in dependency on the determined instantaneous length (L) of the rod , cutting commands (S) to a rear shears arranged downstream of the rolling mill for cutting the rod in sections of predetermined length (L0), - cooling down said sections of the rod in a cooling bed . - wherein the billet is rolled in the rolling mill to a rod , said rod exiting the rolling mill with a finishing temperature (TE1), - detecting by means of a rear laser measurement device arranged downstream of the rolling mill the head end and the speed (v) of the rod , - integrating the detected speed (v) of the rod , thereby determining an instantaneous length (L) of the rod , - providing, in dependency on the determined instantaneous length (L) of the rod , cutting commands (S) to a rear shears arranged downstream of the rolling mill for cutting the rod in sections of predetermined length (L0), - cooling down said sections of the rod in a cooling bed .
An air filter element comprising: - a filter medium pack being formed from coiled fluted filter media, the filter medium pack having an outer circumference defining a convex portion and a concave portion; - a first guiding rim mounted to a first end of the filter medium pack , the first guiding rim defining a convex portion corresponding to the filter medium pack convex portion and defining a concave portion corresponding to the filter medium pack concave portion; and - a seal portion supported by the first guiding rim , the seal portion defining an outwardly directed radial sealing surface. - a filter medium pack being formed from coiled fluted filter media, the filter medium pack having an outer circumference defining a convex portion and a concave portion; - a first guiding rim mounted to a first end of the filter medium pack , the first guiding rim defining a convex portion corresponding to the filter medium pack convex portion and defining a concave portion corresponding to the filter medium pack concave portion; and - a seal portion supported by the first guiding rim , the seal portion defining an outwardly directed radial sealing surface.
An integrated light-emitting package comprising: a light-emitting element layer including a plurality of light-emitting units spaced at a predetermined interval from each other; an optical conversion substrate provided along an upper portion of the light-emitting element layer ; a first adhesive member provided in a space between the plurality of light-emitting units , wherein the first adhesive member further includes ceramic powder , characterised in that the ceramic powder includes BN powder, wherein the BN powder is contained in an amount of 10 to 40 parts by weight based on 100 parts by weight of the first adhesive member , the BN powder having an average diameter of 10 μm to 30 μm. a light-emitting element layer including a plurality of light-emitting units spaced at a predetermined interval from each other; an optical conversion substrate provided along an upper portion of the light-emitting element layer ; a first adhesive member provided in a space between the plurality of light-emitting units , wherein the first adhesive member further includes ceramic powder , characterised in that the ceramic powder includes BN powder, wherein the BN powder is contained in an amount of 10 to 40 parts by weight based on 100 parts by weight of the first adhesive member , the BN powder having an average diameter of 10 μm to 30 μm.
A method for differentiating background and foreground of a scenery in images recorded by an electronic camera , wherein the background shows an arbitrary depiction coded with a coding such that the depiction is recognisable for a direct observer of the background , and wherein, by means of the coding, the background is differentiated from the uncoded foreground in a signal produced by an image sensor of the camera , said image sensor recording the images, characterised in that the coding of the depiction comprises that the background shows periodically alternatingly patterns which complement each other within one period to form the complete depiction, and in that the background is differentiated from the foreground in the signal of the image sensor on the basis of the periodically alternating pattern, wherein an exposure frequency of the image sensor and the showing of the pattern are synchronised with each other. and wherein, by means of the coding, the background is differentiated from the uncoded foreground in a signal produced by an image sensor of the camera , said image sensor recording the images, characterised in that the coding of the depiction comprises that the background shows periodically alternatingly patterns which complement each other within one period to form the complete depiction, and in that the background is differentiated from the foreground in the signal of the image sensor on the basis of the periodically alternating pattern, wherein an exposure frequency of the image sensor and the showing of the pattern are synchronised with each other.
Filler head for a storage system comprising a body to be mounted inclined according to a predetermined angle (α) regarding the gravity direction (G), called the filling direction (F), and including a main part closed by a cover part so as to form a cavity in which a separating device is received, the filler head being configured to receive, in a cylindrical wall of the separating device extending around the filling direction (F), a distribution nozzle of a fluid with an automatic stop sensor to prevent overfilling of the filler head , the filler head being configured to be connected to a filling line and a venting line of a fluid tank and the separating device being arranged to improve the partitioning of the flow (V) coming from the venting line and the flow (F) going to the filling line , the separating device further comprising at least one flange , protruding transversally from the outside surface of the cylindrical wall and mounted in the cavity upstream of the sensor of the nozzle when received in the cylindrical wall and considering the filling direction (F), so as to ensure the fluid outgoing from the nozzle present in the filler head has limited possibility to spit back from the filler head without affecting the sensor work, characterised in that the flange of the separating device is mounted between a back portion (B) of the body and a front portion (P) of the body , located in an opposite direction to the back portion (B) when considering the filling direction (F) to form a shield substantially above all the upper surface of the fluid present in the filler head and in that the venting line is connected with the filler head in the back portion (B) of the body and the lowest half cylindrical wall when considering the gravity direction (G) has no through recess downstream of the flange when considering the filling direction (F) on the external surface facing the front portion (P) of the body so as to ensure a laminar flow (F) of the fluid from the nozzle received in the cylindrical wall towards the filling line .
A seat-sliding apparatus for a vehicle comprising: a lower rail fixed to the vehicle: an upper rail , which is coupled to a seat and slides along the lower rail; a rail groove portion , which is formed in at least one surface of the lower rail and has therein a plurality of grooves; a tooth portion having teeth positioned between the grooves in the rail groove portion; a sloped portion , which is positioned at at least a portion of the rail groove portion and in which heights of the teeth of the tooth portion decrease toward a center of the rail groove portion from one end of the rail groove portion in a longitudinal direction; and a locking unit , which is positioned at the upper rail and is selectively engaged with the rail groove portion so as to hold the upper rail. an upper rail , which is coupled to a seat and slides along the lower rail; a rail groove portion , which is formed in at least one surface of the lower rail and has therein a plurality of grooves; a tooth portion having teeth positioned between the grooves in the rail groove portion; a sloped portion , which is positioned at at least a portion of the rail groove portion and in which heights of the teeth of the tooth portion decrease toward a center of the rail groove portion from one end of the rail groove portion in a longitudinal direction; and a locking unit , which is positioned at the upper rail and is selectively engaged with the rail groove portion so as to hold the upper rail.
A method for transmitting a reference signal, comprising: pre-coding, by a transmitter, each data stream, and transmitting each data stream over its corresponding one or more antenna groups, wherein antenna elements or antenna ports in a same antenna group have a same phase noise, and all antenna groups corresponding to one data stream have a same phase noise; pre-coding, by the transmitter, a Demodulation Reference Signal, DMRS, of each DMRS port, and transmitting each DMRS over its corresponding one or more antenna groups, wherein all antenna groups corresponding to one DMRS port have a same phase noise, one data stream corresponds to one DMRS port, and the data stream and its corresponding DMRS port use same antenna group for transmission; and pre-coding, by the transmitter, a Phase-Tracking Reference Signal, PTRS, of each PTRS port, and transmitting the PTRS over its corresponding one or more antenna groups, wherein all antenna groups corresponding to one PTRS port have a same phase noise, and one PTRS port corresponds to at least one DMRS port, and the PTRS port and its corresponding DMRS port use same antenna group for transmission. pre-coding, by a transmitter, each data stream, and transmitting each data stream over its corresponding one or more antenna groups, wherein antenna elements or antenna ports in a same antenna group have a same phase noise, and all antenna groups corresponding to one data stream have a same phase noise; pre-coding, by the transmitter, a Demodulation Reference Signal, DMRS, of each DMRS port, and transmitting each DMRS over its corresponding one or more antenna groups, wherein all antenna groups corresponding to one DMRS port have a same phase noise, one data stream corresponds to one DMRS port, and the data stream and its corresponding DMRS port use same antenna group for transmission; and pre-coding, by the transmitter, a Phase-Tracking Reference Signal, PTRS, of each PTRS port, and transmitting the PTRS over its corresponding one or more antenna groups, wherein all antenna groups corresponding to one PTRS port have a same phase noise, and one PTRS port corresponds to at least one DMRS port, and the PTRS port and its corresponding DMRS port use same antenna group for transmission.
Device for setting a position of a stationary guide for guiding a rapier on a weaving machine, the device comprising a first support part and a second support part , characterized in that for setting an orientation of the first support part with respect to the second support part , the first support part is mounted to the second support part swivelably about a virtual axis , which virtual axis lies outside the first support part .
A multilayer polyolefin film comprising at least 3 layers, the multilayer polyolefin film comprising: a first surface layer comprising: a first composition comprising at least one ethylene based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ); and a second composition comprising an ethylene based polymer having a density from 0.890 to 0.925 g/cc and a melt index (I 2 ) from 0.2 to 2.0 g/10 min; and a first intermediate layer comprising the first composition. a first surface layer comprising: a first composition comprising at least one ethylene based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ); and a second composition comprising an ethylene based polymer having a density from 0.890 to 0.925 g/cc and a melt index (I 2 ) from 0.2 to 2.0 g/10 min; and a first composition comprising at least one ethylene based polymer, wherein the first composition comprises a Molecular Weighted Comonomer Distribution Index (MWCDI) value greater than 0.9, and a melt index ratio (I 10 /I 2 ) that meets the following equation: I 10 /I 2 ≥ 7.0 - 1.2 x log (I 2 ); and a second composition comprising an ethylene based polymer having a density from 0.890 to 0.925 g/cc and a melt index (I 2 ) from 0.2 to 2.0 g/10 min; and a first intermediate layer comprising the first composition.
A method for identifying proteins which are allergenic in a mammal comprising or consisting of the steps of: (a) providing a population of dendritic cells or a population of dendritic-like cells; (b) exposing the cells provided in step (a) to a test protein; and (c) measuring in the cells of step (b) the expression of 23 or more biomarkers selected from the group defined in Table A; wherein the expression of the 23 or more biomarkers measured in step (c) is indicative of the allergenicity of the test protein of step (b); and wherein the 23 or more biomarkers selected from the group defined in Table A include the biomarkers defined by the following Probe Set ID numbers in Table A: 8104107; 7984862; 7914992; 7986229; 7896756; 7929478; 7946021; 7912863; 8143710; 8176806; 7920264; 8107421;7906205;7897991;7925846;7905077;7938951;8110104;8015060;7919572; 7953747; 7897960; 7928308. (a) providing a population of dendritic cells or a population of dendritic-like cells; (b) exposing the cells provided in step (a) to a test protein; and (c) measuring in the cells of step (b) the expression of 23 or more biomarkers selected from the group defined in Table A;
An image processing method performed in an electronic device, the image processing method comprising: collecting a first motion picture by photographing an object while gradually moving the electronic device along a specific direction around the object; sampling the first motion picture at a specific sampling interval to generate a second motion picture ; cropping the second motion picture based on a moving path of the electronic device so as to remove a circumferential area which does not include the object; extracting spatial information, such as features and depths, using the cropped second motion picture while continuously collecting the first motion picture; and generating a 3-Dimensional 3D view corresponding to the first motion picture based on the extracted spatial information. collecting a first motion picture by photographing an object while gradually moving the electronic device along a specific direction around the object; sampling the first motion picture at a specific sampling interval to generate a second motion picture ; cropping the second motion picture based on a moving path of the electronic device so as to remove a circumferential area which does not include the object; extracting spatial information, such as features and depths, using the cropped second motion picture while continuously collecting the first motion picture; and generating a 3-Dimensional 3D view corresponding to the first motion picture based on the extracted spatial information.
A power cable comprising a conductor surrounded by one or more layers, wherein at least one of said layer(s) comprises a crosslinkable polymer composition comprising a polyolefin, peroxide and a phenolic sulphur containing antioxidant, wherein said peroxide is present in an amount which corresponds to Xmmol -O-O-/kg polymer composition and said phenolic sulphur containing antioxidant is present in an amount which corresponds to Y mmol-OH /kg polymer composition, wherein Y 1 ≤ Y ≤ Y 2 , X < 35 and 0.9 ∗ Y + m ≤ X ≤ n − k ∗ Y , wherein Y 1 is 0.50 and Y 2 is 10, and m is 0.8, n is 70 and k is 4.7; and wherein said polymer composition has a melt flow rate (MFR 2 ) which is at least 1.7 g /10 min (ISO 1133), and said polymer composition comprises less than 0.05 % by weight (wt%) 2,4-Diphenyl-4-methyl-1-pentene. Y 1 is 0.50 and Y 2 is 10, and m is 0.8, n is 70 and k is 4.7; and wherein said polymer composition has a melt flow rate (MFR 2 ) which is at least 1.7 g /10 min (ISO 1133), and said polymer composition comprises less than 0.05 % by weight (wt%) 2,4-Diphenyl-4-methyl-1-pentene.
Motor vehicle door latch, comprising a locking mechanism, and comprising a control element that can be moved back and forth between at least two operational positions, for example a child safety element or emergency locking element, wherein the control element is equipped with at least one spring of a different material for releasably adopting the two operational positions, wherein the spring is largely U-shaped and has two legs , wherein one leg is designed as a contour leg and interacts with a stationary contour for adopting the two operational positions, and the other leg is used as a fixing leg for securing the spring on the control element .
Device for the continuous production of materials, preferably for the production of material panels from essentially non-metallic material, comprising a continuous furnace for the continuous heating of material on an endlessly circulating conveyor belt and a press connected downstream in the production direction , wherein the continuous furnace has a plurality of magnetrons for generating electromagnetic waves and waveguides with outlet openings for feeding the waves into a radiation chamber , wherein the outlet openings are arranged in rows (R) and tracks (S) longitudinally and transversely to the production direction , characterized in that a control or regulating device is arranged for actuating individual or grouped magnetrons in order to operate them with different powers (L) for producing a differentiated power profile , preferably in and/or transversely to the production direction .
Local stimulation device, for stimulating of a predetermined region of brain tissue, said brain tissue comprising at least GABAergic neuron type, wherein said device comprises a set of bipolar electrodes (SBE) and activation means for said set of bipolar electrodes (SBE), wherein said activation means is configured to, according to a predetermined electric intensity and a predetermined biphasic pulse frequency (PBPF), deliver a predetermined electric field by activating said set of bipolar electrodes, said predetermined electric field (PEF) inducing an activation of said GABAergic type neurons Wherein: - the activation means of said set of bipolar electrodes is configured to deliver, to said bipolar electrodes, biphasic pulses, each biphasic pulse lasting about 200 microseconds, and one of: - said predetermined biphasic pulse frequency (PBPF) is comprised between 0.5 and 10 Hz, or - said predetermined biphasic pulse frequency (PBPF) is about 1 kHz. - the activation means of said set of bipolar electrodes is configured to deliver, to said bipolar electrodes, biphasic pulses, each biphasic pulse lasting about 200 microseconds, and one of: - said predetermined biphasic pulse frequency (PBPF) is comprised between 0.5 and 10 Hz, or - said predetermined biphasic pulse frequency (PBPF) is about 1 kHz.