mhurhangee/patent-ind-claim-en huggingface dataset:
A method of analyzing calcium content in soil, the method comprising: a) obtaining a soil sample; b) adding a liquid to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction whereby a calcium absorbance of the soil mixture is measured. a) obtaining a soil sample; b) adding a liquid to the soil sample to form a soil slurry; c) flowing the soil slurry through a filter to form a filtrate; d) blending a reagent composition with the filtrate to form a soil mixture; and e) flowing the soil mixture through an analysis tool along a flow direction whereby a calcium absorbance of the soil mixture is measured.
Drainage system for discharging hydrocarbon-contaminated wastewater, comprising one or more elongate pipes and one or more drain mouths for collecting hydrocarbon-contaminated wastewater, wherein a first end of the pipes can be connected in a liquid-tight manner to the drain mouths for discharging the contaminated wastewater, the pipes being flexible, and the pipes having a bend radius comprised between 4 and 15 times the nominal diameter of the pipes ; and wherein the pipes comprise polyamide and/or high-density polyethylenes, polyurethanes, polybutylenes, polyphenylenes, polyoxymethyls, ethylene/vinyl alcohol copolymers and/or combinations and/or copolymers of the aforementioned; and wherein the pipes have an inner diameter comprised between 70 mm and 200 mm, and the pipes have a total wall thickness of at least 1 mm and at most 20 mm.
A vertical light-emitting diode comprising: a light-emitting structure comprising a first conductivity type semiconductor layer , an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a reflective electrode electrically connected to the second conductivity type semiconductor layer, arranged under the light-emitting structure and comprising a first region under the second conductivity type semiconductor layer and a second region extending from the first region to pass through the second conductivity type semiconductor layer and the active layer; an electrode electrically connected to the first conductivity type semiconductor layer; wherein an uppermost layer of the reflective electrode, which extends from the second region of the reflective electrode, overlaps with the electrode in a vertical direction, a metal layer making contact with the second region of the reflective electrode, wherein a first region of the metal layer is located higher than the active layer, characterised in that a second region of the metal layer makes contact with a bottom surface of the second conductivity type semiconductor layer and a third region of the metal layer extends laterally outward from the second region of the metal layer, wherein the third region of the metal layer is laterally exposed from a lower peripheral portion of the light-emitting structure, wherein the metal layer is disposed around a lower portion of the light-emitting structure to form a metal channel layer. a light-emitting structure comprising a first conductivity type semiconductor layer , an active layer under the first conductivity type semiconductor layer, and a second conductivity type semiconductor layer under the active layer; a reflective electrode electrically connected to the second conductivity type semiconductor layer, arranged under the light-emitting structure and comprising a first region under the second conductivity type semiconductor layer and a second region extending from the first region to pass through the second conductivity type semiconductor layer and the active layer; an electrode electrically connected to the first conductivity type semiconductor layer; wherein an uppermost layer of the reflective electrode, which extends from the second region of the reflective electrode, overlaps with the electrode in a vertical direction, a metal layer making contact with the second region of the reflective electrode, wherein a first region of the metal layer is located higher than the active layer, characterised in that a second region of the metal layer makes contact with a bottom surface of the second conductivity type semiconductor layer and a third region of the metal layer extends laterally outward from the second region of the metal layer, wherein the third region of the metal layer is laterally exposed from a lower peripheral portion of the light-emitting structure, wherein the metal layer is disposed around a lower portion of the light-emitting structure to form a metal channel layer.
Ventilation device for a motor vehicle , comprising a first ventilation duct through which a first air flow (L1) flows, a second ventilation duct , which is separate from the first ventilation duct , through which a second air flow (L2) flows, and an air outlet which is coupled in a fluid-communicating manner to a first duct end of the first ventilation duct and to a second duct end of the second ventilation duct for discharging a total air flow (G) into a passenger compartment of the motor vehicle , the total air flow (G) comprising the first air flow (L1) and the second air flow (L2), a first air flow rate of the first air flow (L1) and a second air flow rate of the second air flow (L2) being individually adjustable, the air outlet comprising a first deflector wall downstream of the first duct end in the flow direction (S), the first deflector wall being designed to deflect the first air flow (L1) in such a way that the first air flow (L1) crosses the second air flow (L2), characterized in that the air outlet comprises an intake device arranged downstream of a narrowest air outlet cross-section (Q) of the air outlet in the flow direction (S) for intaking the total air flow (G) and/or an exhaust device arranged downstream of the narrowest air outlet cross-section (Q) of the air outlet in the flow direction (S) for generating an exhaust air flow (A) interacting with the total air flow (G). the air outlet comprising a first deflector wall downstream of the first duct end in the flow direction (S), the first deflector wall being designed to deflect the first air flow (L1) in such a way that the first air flow (L1) crosses the second air flow (L2), characterized in that the air outlet comprises an intake device arranged downstream of a narrowest air outlet cross-section (Q) of the air outlet in the flow direction (S) for intaking the total air flow (G) and/or an exhaust device arranged downstream of the narrowest air outlet cross-section (Q) of the air outlet in the flow direction (S) for generating an exhaust air flow (A) interacting with the total air flow (G).
Composition comprising the self-assembling peptide RADA 16-1 for use in a method of promoting hemostasis, wherein the self-assembling peptide assembles and undergoes a phase transition from a liquid state to a semi solid or gel state when it comes in contact with the body.
Seat structure of a vehicle seat comprising a backrest having two longitudinal struts aligned in parallel with one another, and a load-bearing structural part connecting the upper ends of the longitudinal struts to one another to form a dimensionally stable upper side of the backrest, wherein - the structural part has a cavity in which a belt retractor is arranged, wherein - the load-bearing structural part comprises a profile rail which is open on one side and has two opposite side faces extending from a base face , and - the cavity is formed by the intermediate space between the opposite side faces , characterized in that - the profile rail is completed by a cover part to form a closed profile. - the load-bearing structural part comprises a profile rail which is open on one side and has two opposite side faces extending from a base face , and - the cavity is formed by the intermediate space between the opposite side faces , characterized in that - the profile rail is completed by a cover part to form a closed profile.
Drawer having two side frames , a bottom , a rear wall and a front panel, wherein at least one side frame has a thin-walled casing which is supported by an inner core , wherein the inner core has at least two shaped parts , which are held together in a form-fitting manner, characterized in that a groove for receiving a bottom of the drawer is formed on at least one shaped part .
An apparatus for processing documents, comprising: a feeder operable to receive a packet of a plurality of documents and separate the documents to serially feed the documents away from the feeder, wherein the feeder comprises a feed slot; a sensor for detecting a characteristic of the documents in a packet indicative of whether the number of documents in a packet exceeds a predetermined threshold; a drive mechanism for controlling the distance that the packet of documents is advanced into the feeder in response to the detected characteristic of the packet; characterized in that the drive mechanism is configured to further advance the packet into the feed slot as the feeder feeds documents from the packet to reduce the thickness of the packet. a feeder operable to receive a packet of a plurality of documents and separate the documents to serially feed the documents away from the feeder, wherein the feeder comprises a feed slot; a sensor for detecting a characteristic of the documents in a packet indicative of whether the number of documents in a packet exceeds a predetermined threshold; advanced into the feeder in response to the detected characteristic of the packet; characterized in that the drive mechanism is configured to further advance the packet into the feed slot as the feeder feeds documents from the packet to reduce the thickness of the packet.
A method for rotating recorded seismic data, the method comprising: receiving raw seismic data recorded with a particle motion sensor located along a streamer, receiving vibrational data recorded by a gravity sensing sensor also located along the streamer, wherein a first local orthogonal system of coordinates X, Y, Z being attached to the particle motion sensor , where axis X is selected to be collinear with the longitudinal axis of the streamer, the particle motion sensor records the seismic data for Y and Z axis; and a second local orthogonal system of coordinates Xt, Yt, Zt being attached to the gravity sensing sensor, where axis Xt is selected to be collinear with the longitudinal axis of the streamer, the gravity sensing sensor records vibrational data for Yt and Zt axis; the method further comprising calculating an angle β (t), defined by the Z axis of the particle motion sensor and a Z 0 axis of a global orthogonal system of coordinates attached to the earth, based on an angle α ( t ), defined by the Z t axis of the gravity sensing sensor and the Z 0 axis, and an angle θ ( t ) defined by the Z t axis and the Z axis; wherein the angle θ ( t ) is calculated based on the seismic data and the vibrational data; and correcting the raw seismic data by rotating the raw seismic data, recorded in the first local orthogonal system of coordinates, with the angle β (t), to obtain corrected seismic data in the global orthogonal system of coordinates. receiving raw seismic data recorded with a particle motion sensor located along a streamer, receiving vibrational data recorded by a gravity sensing sensor also located along the streamer, wherein a first local orthogonal system of coordinates X, Y, Z being attached to the particle motion sensor , where axis X is selected to be collinear with the longitudinal axis of the streamer, the particle motion sensor records the seismic data for Y and Z axis; and a second local orthogonal system of coordinates Xt, Yt, Zt being attached to the gravity sensing sensor, where axis Xt is selected to be collinear with the longitudinal axis of the streamer, the gravity sensing sensor records vibrational data for Yt and Zt axis; the method further comprising calculating an angle β (t), defined by the Z axis of the particle motion sensor and a Z 0 axis of a global orthogonal system of coordinates attached to the earth, based on an angle α ( t ), defined by the Z t axis of the gravity sensing sensor and the Z 0 axis, and an angle θ ( t ) defined by the Z t axis and the Z axis; wherein the angle θ ( t ) is calculated based on the seismic data and the vibrational data; and correcting the raw seismic data by rotating the raw seismic data, recorded in the first local orthogonal system of coordinates, with the angle β (t), to obtain corrected seismic data in the global orthogonal system of coordinates.
An air-conditioning apparatus, comprising: a refrigerant circuit in which a compressor , a heat source heat exchanger , an expansion device , and a load heat exchanger are connected via refrigerant pipes ; a refrigerant leakage sensor configured to output a refrigerant leakage detection signal indicating detection of refrigerant leakage when the refrigerant leakage sensor detects the refrigerant leakage; a refrigerant leakage cutoff device configured to cut off a flow of refrigerant when the refrigerant leakage cutoff device is set to a closed state; and a controller configured to determine whether refrigerant leakage occurs on a basis of whether the refrigerant leakage detection signal is received from the refrigerant leakage sensor , characterized by a temperature sensor configured to detect a discharge temperature of refrigerant discharged from the compressor , wherein when the controller receives the refrigerant leakage detection signal and further determines, on a basis of an operating state, that the refrigerant leakage occurs, the controller is configured to set the refrigerant leakage cutoff device to the closed state, wherein the controller is configured to determine whether the refrigerant leakage occurs by comparing the discharge temperature serving as an index of the operating state with a predetermined reference value. a refrigerant circuit in which a compressor , a heat source heat exchanger , an expansion device , and a load heat exchanger are connected via refrigerant pipes ; a refrigerant leakage sensor configured to output a refrigerant leakage detection signal indicating detection of refrigerant leakage when the refrigerant leakage sensor detects the refrigerant leakage; a refrigerant leakage cutoff device configured to cut off a flow of refrigerant when the refrigerant leakage cutoff device is set to a closed state; and a controller configured to determine whether refrigerant leakage occurs on a basis of whether the refrigerant leakage detection signal is received from the refrigerant leakage sensor , characterized by a temperature sensor configured to detect a discharge temperature of refrigerant discharged from the compressor , wherein when the controller receives the refrigerant leakage detection signal and further determines, on a basis of an operating state, that the refrigerant leakage occurs, the controller is configured to set the refrigerant leakage cutoff device to the closed state, wherein the controller is configured to determine whether the refrigerant leakage occurs by comparing the discharge temperature serving as an index of the operating state with a predetermined reference value.
A perillyl alcohol carbamate comprising perillyl alcohol conjugated with dimethyl celecoxib (DMC).
An explosion protection valve for decoupling system parts or workpieces for the installation in a pipeline, comprising - a housing , - a closing body which is axially guided inside the housing on a guide rod and can be shifted from a defined open position into a sealing closed position in the event of a pressure or suction wave in the pipeline in at least one closing movement direction, - a spring assembly , which is in operative connection to the closing body , on the guide rod for holding the closing body in the open position, - a sealing ring on the inner side of the housing , against which the closing body can be pressed in its closed position as well as - an open receiving pocket applied to the inner side of the housing for holding the sealing ring , - wherein the receiving pocket is delimited on its radially inwardly facing side by a tubular housing portion of the housing , - wherein a sealing portion of the sealing ring interacting with the closing body in the closed position is arranged outside and against the closing movement direction (SB) in front of the receiving pocket and wherein the sealing portion of the sealing ring adjoins the inner side of the housing at its radially outwardly pointing rim in a circumferential sealing lip , characterized in that the sealing portion of the sealing ring at its radially inwardly pointing rim merges smoothly into the tubular housing portion of the housing . - a housing , - a closing body which is axially guided inside the housing on a guide rod and can be shifted from a defined open position into a sealing closed position in the event of a pressure or suction wave in the pipeline in at least one closing movement direction, - a spring assembly , which is in operative connection to the closing body , on the guide rod for holding the closing body in the open position, - a sealing ring on the inner side of the housing , against which the closing body can be pressed in its closed position as well as - an open receiving pocket applied to the inner side of the housing for holding the sealing ring , - wherein the receiving pocket is delimited on its radially inwardly facing side by a tubular housing portion of the housing , - wherein a sealing portion of the sealing ring interacting with the closing body in the closed position is arranged outside and against the closing movement direction (SB) in front of the receiving pocket and wherein the sealing portion of the sealing ring adjoins the inner side of the housing at its radially outwardly pointing rim in a circumferential sealing lip ,
A method of forming a shaped foamed polymer article in an injection moulding tool from a polymer composition , wherein the injection moulding tool comprises: a cavity in which said article is formed; and a tool part which is movable to vary the volume of said cavity ; wherein the method comprises: (a) moving the tool part so that the cavity volume is greater than the volume of the shaped foamed polymer article in its final form; (b) reducing the pressure in the cavity ; (c) injecting the polymer composition into the cavity , wherein the volume of the injected polymer composition is less than the volume of the shaped foamed polymer article in its final form; (d) sealing the cavity ; and (e) moving the tool part to reduce the volume of the cavity to correspond to the geometry and volume of the shaped foamed polymer article in its final form; wherein said method is characterised by said polymer composition comprising a polymer and a foaming agent. a cavity in which said article is formed; and a tool part which is movable to vary the volume of said cavity ; (a) moving the tool part so that the cavity volume is greater than the volume of the shaped foamed polymer article in its final form; (b) reducing the pressure in the cavity ; (c) injecting the polymer composition into the cavity , wherein the volume of the injected polymer composition is less than the volume of the shaped foamed polymer article in its final form; (d) sealing the cavity ; and (e) moving the tool part to reduce the volume of the cavity to correspond to the geometry and volume of the shaped foamed polymer article in its final form; wherein said method is characterised by said polymer composition comprising a polymer and a foaming agent.
Electronic circuit board comprising an assembly of a printed circuit board comprising a first face receiving at least one electronic component, and of a heat sink , the printed circuit board and the heat sink being stacked in a stacking direction (z), said heat sink being fixed to the printed circuit board on a second face opposite the first face , said heat sink comprising a base , in the form of a plate, and reliefs extending from a flat surface of said base , the reliefs being intended to increase the contact surface between the heat sink and a flow of air relative to the contact surface between the base and the flow of air, the base being interposed between the printed circuit board and the reliefs in the stacking direction (z), characterized in that the heat sink is fixed to the printed circuit board by gluing only such that only an adhesive layer separates the base and the printed circuit board , the adhesive layer comprising a glue extending continually from the base to the printed circuit board , and in that said heat sink is of a single piece.
A method for printing a pouch filled with a washing or cleaning agent and made of a water-soluble or water-dispersible film with an imprint by means of a pad printing method, characterized in that the method comprises the steps of: (i) applying an ink or medium containing a chromophoric substance to a printing plate; (ii) wiping off excess ink or excess medium using a doctor blade; (iii) pressing the pad, which has a Shore A hardness in the range 0-20, preferably in the range 0-15, onto the printing plate, the ink or medium being transferred from the printing plate onto the pad, and (iv) pressing the pad onto the pouch, the ink or medium being transferred from the pad onto the pouch; the ink or medium being water-soluble and the pouch being fixed in a holder which is the lower part of the mold already used for shaping and/or filling the pouch. (i) applying an ink or medium containing a chromophoric substance to a printing plate; (ii) wiping off excess ink or excess medium using a doctor blade; (iii) pressing the pad, which has a Shore A hardness in the range 0-20, preferably in the range 0-15, onto the printing plate, the ink or medium being transferred from the printing plate onto the pad, and (iv) pressing the pad onto the pouch, the ink or medium being transferred from the pad onto the pouch;