mhurhangee/patent-ind-claim-en huggingface dataset:
A decorative molded body comprising: a resin molded body : and a skin material that contains a fiber material and that is stacked on a surface of the resin molded body , wherein the skin material has a through hole (h), and the surface of the resin molded body is present in the through hole (h), characterized in that a ratio (Hr/d) of a height (Hr) of the surface of the resin molded body relative to a depth (d) of the through hole (h) is 0.3 to 1, wherein the height (Hr) is the height of the surface of the resin molded body that has entered the through hole (h). a resin molded body : and a skin material that contains a fiber material and that is stacked on a surface of the resin molded body , wherein the skin material has a through hole (h), and the surface of the resin molded body is present in the through hole (h), characterized in that a ratio (Hr/d) of a height (Hr) of the surface of the resin molded body relative to a depth (d) of the through hole (h) is 0.3 to 1, wherein the height (Hr) is the height of the surface of the resin molded body that has entered the through hole (h).
An X-ray imaging device comprising: a radiography unit having an X-ray source and an X-ray sensor disposed to face each other with a rotating axis therebetween, wherein the X-ray sensor is configured to obtain X-ray transmission images (St1, St2, St3; Sb11, Sb12, Sb13; Sf11, Sf12, Sf13); a driver configured to rotate the X-ray source and the X-ray sensor about the rotating axis; and characterised by an image processor configured to provide a two-dimensional tomographic image of an image layer disposed between the rotating axis and the X-ray source, by shifting and overlapping the X-ray transmission images after reversing left to right at least some of the X-ray transmission images, wherein the image processor is configured to reverse at least some of the X-ray transmission images left to right, and the reversed X-ray transmission images are shifted in a moving direction of the X-ray sensor and overlapped with each other, whereby the two-dimensional tomographic image (Sb1; f1) of the image layer is provided. a radiography unit having an X-ray source and an X-ray sensor disposed to face each other with a rotating axis therebetween, wherein the X-ray sensor is configured to obtain X-ray transmission images (St1, St2, St3; Sb11, Sb12, Sb13; Sf11, Sf12, Sf13); a driver configured to rotate the X-ray source and the X-ray sensor about the rotating axis; and characterised by an image processor configured to provide a two-dimensional tomographic image of an image layer disposed between the rotating axis and the X-ray source, by shifting and overlapping the X-ray transmission images after reversing left to right at least some of the X-ray transmission images, wherein the image processor is configured to reverse at least some of the X-ray transmission images left to right, and the reversed X-ray transmission images are shifted in a moving direction of the X-ray sensor and overlapped with each other, whereby the two-dimensional tomographic image (Sb1; f1) of the image layer is provided.
A method of decoding a digital video, comprising: receiving a bitstream comprising a base layer and an enhancement layer at a video decoder ; receiving one or more parameters associated with at least some sub-pictures; decoding base layer values in a first color space from said base layer; performing a reverse color mapping operation on said base layer values within each sub-picture, to generate a reconstructed reference picture having values in a second color space that is wider than said first color space, wherein said video decoder adapts said reverse color mapping operation for each sub-picture based on received parameters associated with that sub-picture; and decoding enhancement layer values in said second color space from said enhancement layer using prediction based on said reconstructed reference picture, wherein the method further comprises: reversing a previously performed color mapping operation performed on sub-pictures of a reference frame using a first set of parameters associated with the sub-pictures of the reference frame; re-mapping the sub-pictures of a reference frame with a color mapping operation using a second set of parameters associated with a current sub-picture; and decoding the current sub-picture with reference to the re-mapped sub-pictures of the reference frame. receiving a bitstream comprising a base layer and an enhancement layer at a video decoder ; receiving one or more parameters associated with at least some sub-pictures; decoding base layer values in a first color space from said base layer; performing a reverse color mapping operation on said base layer values within each sub-picture, to generate a reconstructed reference picture having values in a second color space that is wider than said first color space, wherein said video decoder adapts said reverse color mapping operation for each sub-picture based on received parameters associated with that sub-picture; and decoding enhancement layer values in said second color space from said enhancement layer using prediction based on said reconstructed reference picture, wherein the method further comprises: reversing a previously performed color mapping operation performed on sub-pictures of a reference frame using a first set of parameters associated with the sub-pictures of the reference frame; re-mapping the sub-pictures of a reference frame with a color mapping operation using a second set of parameters associated with a current sub-picture; and decoding the current sub-picture with reference to the re-mapped sub-pictures of the reference frame. reversing a previously performed color mapping operation performed on sub-pictures of a reference frame using a first set of parameters associated with the sub-pictures of the reference frame; re-mapping the sub-pictures of a reference frame with a color mapping operation using a second set of parameters associated with a current sub-picture; and decoding the current sub-picture with reference to the re-mapped sub-pictures of the reference frame.
An image forming method comprising: applying a pre-processing fluid to a non-permeable plastic film; jetting an ink to the non-permeable plastic film, the time between the pre-processing fluid application and the ink application being 10 seconds or less; applying a post-processing fluid to the non-permeable medium; and drying the pre-processing fluid applied to, the ink jetted to and the post-processing fluid applied to the non-permeable plastic film, the drying being performed by drying by heat, non-heat drying by ventilation or blowing, hot air drying, drying by infrared heating, drying by radiation heating, drying by conduction heating, high frequency drying, or microwave drying, wherein the pre-processing fluid comprises a multivalent metal salt and a resin particle. applying a pre-processing fluid to a non-permeable plastic film; jetting an ink to the non-permeable plastic film, the time between the pre-processing fluid application and the ink application being 10 seconds or less; applying a post-processing fluid to the non-permeable medium; and drying the pre-processing fluid applied to, the ink jetted to and the post-processing fluid applied to the non-permeable plastic film, the drying being performed by drying by heat, non-heat drying by ventilation or blowing, hot air drying, drying by infrared heating, drying by radiation heating, drying by conduction heating, high frequency drying, or microwave drying, wherein the pre-processing fluid comprises a multivalent metal salt and a resin particle.
An inhaler (100; 300) comprising: a mouthpiece (170; 370); a mouthpiece cover (180; 380) movable between an open position and a closed position; a dosing cup ; a medication reservoir configured to deliver a dose of medication into the dosing cup upon the mouthpiece cover moving from the closed position to the open position; a pressure sensor (410; 610) configured to monitor flows associated with breathing; a single light indicator (152; 452; 552); and a processor (150; 250; 457; 550; 650) configured to control the single light indicator to be in a first state (810; 910) when the mouthpiece cover is in the closed position, a second state (820; 920) when the mouthpiece cover is in the open position, an optional third state (830; 930) when the inhaler makes a pressure measurement, and a fourth state (840; 940) upon detecting that the measured pressure exceeds a predetermined amount. a mouthpiece (170; 370); a mouthpiece cover (180; 380) movable between an open position and a closed position; a dosing cup ; a medication reservoir configured to deliver a dose of medication into the dosing cup upon the mouthpiece cover moving from the closed position to the open position; a pressure sensor (410; 610) configured to monitor flows associated with breathing; a single light indicator (152; 452; 552); and a processor (150; 250; 457; 550; 650) configured to control the single light indicator to be in a first state (810; 910) when the mouthpiece cover is in the closed position, a second state (820; 920) when the mouthpiece cover is in the open position, an optional third state (830; 930) when the inhaler makes a pressure measurement, and a fourth state (840; 940) upon detecting that the measured pressure exceeds a predetermined amount.
A base station handover method based on a motion status of a mobile device, performed by a base station, a mobile device or a mobile service switching center, comprising: obtaining (S110) a current location and a motion status of a mobile device; predicting (S120), based on the current location and the motion status of the mobile device, duration from a current moment to a moment when a base station that serves the mobile device completes handover from a first base station to a second base station, wherein the first base station is a base station that currently serves the mobile device, and the second base station is a next base station that serves the mobile device, and the motion status comprises at least a combination of a direction, a speed and an acceleration of the mobile device; and after the mobile device maintains a first communication connection to the first base station and establishes a second communication connection to the second base station, initiating (S140) the handover from the first base station to the second base station when the duration is reduced to a set threshold; wherein the method further comprising: setting the threshold based on an assumption that the mobile device has established the second communication connection to the second base station, and a required time from the initiating the handover from the first base station to the second base station to the completing the handover from the first base station to the second base station. obtaining (S110) a current location and a motion status of a mobile device; predicting (S120), based on the current location and the motion status of the mobile device, duration from a current moment to a moment when a base station that serves the mobile device completes handover from a first base station to a second base station, wherein the first base station is a base station that currently serves the mobile device, and the second base station is a next base station that serves the mobile device, and the motion status comprises at least a combination of a direction, a speed and an acceleration of the mobile device; and after the mobile device maintains a first communication connection to the first base station and establishes a second communication connection to the second base station, initiating (S140) the handover from the first base station to the second base station when the duration is reduced to a set threshold; wherein the method further comprising: setting the threshold based on an assumption that the mobile device has established the second communication connection to the second base station, and a required time from the initiating the handover from the first base station to the second base station to the completing the handover from the first base station to the second base station.
A recombinant plasmid, which is constructed from pUC57 plasmid and contains in the order depicted in Figure 1c: SEQ ID NO: 1 comprising the promoter sequence of Salmo salar found in the ITS-1 region; SEQ ID NO: 2 comprising the sequence of a Hammerhead ribozyme; SEQ ID NO: 3 comprising a Sapl cloning site; SEQ ID NO: 4 comprising the sequence of the hepatitis δ virus ribozyme; and SEQ ID NO: 5 comprising the rabbit β-globin transcription terminator. SEQ ID NO: 1 comprising the promoter sequence of Salmo salar found in the ITS-1 region; SEQ ID NO: 2 comprising the sequence of a Hammerhead ribozyme; SEQ ID NO: 3 comprising a Sapl cloning site; SEQ ID NO: 4 comprising the sequence of the hepatitis δ virus ribozyme; and SEQ ID NO: 5 comprising the rabbit β-globin transcription terminator.
An order-picking installation (10, 10', 10", 10′′′) for the order-picking of different goods, in particular goods that are capable of being transported in a suspended state, said order-picking installation (10, 10', 10", 10′′′) comprising at least one supply station having a plurality of supply locations which for supplying the goods to be order-picked to the order-picking installation (10, 10', 10", 10′′′) are disposed in parallel, as well as at least one dispatch station having a plurality of dispatch locations which for dispensing the order-picked goods for dispatch are disposed in parallel, wherein at least one temporary store (12; 12.1, 12.2; 12a-d) is provided for order-picking the goods between the supply station and the dispatch station , wherein the at least one temporary store (12; 12.1, 12.2; 12a-d) has a dynamic store for temporarily storing the goods provided for the order-picking, and a standby store , downstream of the dynamic store , for storing goods which are retrieved from the dynamic store and thereby pre-sorted and which are disposed within a common continuous conveyor and are connected to each other by way of the common continuous conveyor , wherein the continuous conveyor comprises a plurality of conveyor sections (20a-d), and in that the dynamic store and the standby store are in each case formed by a plurality of storage sections which as branches depart from predefined conveyor sections of the continuous conveyor , which comprise in each case one entry and one exit, and in that the storage sections by way of the entry are in each case connected to a first conveyor section (20a, or 20c, respectively), and by way of the exit are in each case connected to a second conveyor section (20c, or 20a, respectively), wherein the conveying directions of the first (20a respectively 20c) and the second (20c respectively 20a) conveyor section are mutually opposed and in that each of the storage sections are connected to the associated conveyor sections of the continuous conveyor at the entry side by way of an activatable egress turnout and at the exit by way of an activatable access turnout , characterized in that the storage sections are in each case configured as gravity sections which comprise a gradient from the entry to the exit, and on which the conveyed goods by virtue of gravity move in a self-acting manner from the entry to the exit.
A heat exchanger comprising: a first conduit module for the flow of a first fluid; a second conduit module for the flow of a second fluid, wherein the second conduit module is fluidly isolated from the first conduit module ; and a first fluid flow path for the flow of a third fluid in heat exchange with the first and second fluids, wherein the first fluid flow path extends in a substantially radial direction of the heat exchanger ; wherein at least a portion of the first conduit module and at least a portion of the second conduit module are each arranged in a respective path that gradually widens or tightens about a longitudinal axis of the heat exchanger ; and wherein the first conduit module and the second conduit module are nested with one another; characterised in that the first conduit module comprises a plurality of first tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger , and in that the second conduit module comprises a plurality of second tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger . a first conduit module for the flow of a first fluid; a second conduit module for the flow of a second fluid, wherein the second conduit module is fluidly isolated from the first conduit module ; and a first fluid flow path for the flow of a third fluid in heat exchange with the first and second fluids, wherein the first fluid flow path extends in a substantially radial direction of the heat exchanger ; wherein at least a portion of the first conduit module and at least a portion of the second conduit module are each arranged in a respective path that gradually widens or tightens about a longitudinal axis of the heat exchanger ; and wherein the first conduit module and the second conduit module are nested with one another; characterised in that the first conduit module comprises a plurality of first tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger , and in that the second conduit module comprises a plurality of second tubes each wound in a respective path that gradually widens or tightens about the longitudinal axis of the heat exchanger and each spaced from one another in rows along the longitudinal direction of the heat exchanger .
An apparatus comprising: a robotic diagnostic device which includes at least one input and one output and configured to assist in the determination of a health of a robot having moving mechanical components by distinguishing changes in operation of the robot from a change in health of the robot , the robotic diagnostic device structured to align data features of a training data and data features of an operation data in a common subspace, and utilize a classifier within the common subspace trained on the training data and applied to the operation data, wherein the operation data includes features related to a mechanical movement of the robot which is targeted for health evaluation and the training data includes features related to a reference mechanical movement that the operation data is to be compared against.
A pharmaceutical composition comprising an at least 70% enantiomerically pure dual partial agonist at the serotonin 5-HT 7 and 5-HT 1A receptors, the dual partial agonist having the structure of Formula (I) : or pharmaceutically acceptable salt, hydrate, or solvate thereof, wherein: each of R 1 and R 2 is independently hydrogen or alkyl, or R 1 and R 2 come together to form an optionally substituted heterocyclic ring; each of R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , and R 10 is independently hydrogen, hydroxy, acyl, acyloxy, alkyl, heteroalkyl, alkenyl, heteroalkenyl, alkynyl, heteroalkynyl, alkoxycarbonyl, cyano, trifluoromethoxy, nitro, amino, and amido, and wherein any two adjacent R groups may optionally come together to form a carbocyclic or heterocyclic ring system; and a pharmaceutically acceptable excipient or carrier. each of R 1 and R 2 is independently hydrogen or alkyl, or R 1 and R 2 come together to form an optionally substituted heterocyclic ring; each of R 3 , R 4 , R 5 , R 6 , R 7 , R 8 , R 9 , and R 10 is independently hydrogen, hydroxy, acyl, acyloxy, alkyl, heteroalkyl, alkenyl, heteroalkenyl, alkynyl, heteroalkynyl, alkoxycarbonyl, cyano, trifluoromethoxy, nitro, amino, and amido, and wherein any two adjacent R groups may optionally come together to form a carbocyclic or heterocyclic ring system; and a pharmaceutically acceptable excipient or carrier.
A modular spray assembly for a working machine that includes a frame and a working fluid storage tank and is adapted for operation on a roadway, said modular spray assembly further comprising: (a) a base assembly that is attachable to the frame of the working machine , said base assembly comprising: (i) a working fluid conduit having an open end and a closed end ; (ii) a plurality of nozzle assemblies that are attached to and are in fluid communication with the working fluid conduit ; (b) a modular component comprising a modular fluid conduit which further comprises: (i) a first end; (ii) a second end that is adapted to be removably attached to the open end of the working fluid conduit so as to be in fluid communication with the working fluid conduit ; and (iii) a nozzle assembly between the first end and the second end which is attached to and in fluid communication with the modular fluid conduit; (c) an open end component that is adapted to be removably and alternatively attached to the open end of the working fluid conduit or to the first end of the modular component , said open end component including a working fluid supply pipe that is configured to be brought in fluid communication with the working fluid storage tank ; characterized in that : the modular spray assembly also includes a thermal fluid storage tank and a thermal fluid circulating system by which thermal fluid is circulated from the thermal fluid storage tank ,through the modular spray assembly for heat-transfer purposes and back to the thermal fluid storage tank . (a) a base assembly that is attachable to the frame of the working machine , said base assembly comprising: (i) a working fluid conduit having an open end and a closed end ; (ii) a plurality of nozzle assemblies that are attached to and are in fluid communication with the working fluid conduit ; (i) a working fluid conduit having an open end and a closed end ; (ii) a plurality of nozzle assemblies that are attached to and are in fluid communication with the working fluid conduit ; (b) a modular component comprising a modular fluid conduit which further comprises: (i) a first end; (ii) a second end that is adapted to be removably attached to the open end of the working fluid conduit so as to be in fluid communication with the working fluid conduit ; and (iii) a nozzle assembly between the first end and the second end which is attached to and in fluid communication with the modular fluid conduit; (i) a first end; (ii) a second end that is adapted to be removably attached to the open end of the working fluid conduit so as to be in fluid communication with the working fluid conduit ; and (iii) a nozzle assembly between the first end and the second end which is attached to and in fluid communication with the modular fluid conduit; (c) an open end component that is adapted to be removably and alternatively attached to the open end of the working fluid conduit or to the first end of the modular component , said open end component including a working fluid supply pipe that is configured to be brought in fluid communication with the working fluid storage tank ;
A process for preparing a diol of formula (I) which comprises hydrogenolysis of an ozonide of formula (II) in the presence of a base and a catalyst comprising molybdenum-doped Raney nickel.