mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: obtaining sensor readings from an Ultraviolet sensor in response to a media item being illuminated with UV light within a depository; deducing, from the sensor readings, an area of the media item which is indicative of a metallic material being integrated into the media item; identifying a tolerance level for any contamination associated with the media item, identifying contamination readings from the sensor readings using the tolerance level; and determining whether the media item is acceptable for further processing within the depository based on the sensor readings, the area, and the tolerance level; wherein determining further includes: extracting a vector of features from the sensor readings using select sensor readings associated with the metallic material for the area and any contamination present with the media item using the tolerance level; and comparing the vector against a model template for determining whether the media item is acceptable for further processing within the depository. obtaining sensor readings from an Ultraviolet sensor in response to a media item being illuminated with UV light within a depository; deducing, from the sensor readings, an area of the media item which is indicative of a metallic material being integrated into the media item; identifying a tolerance level for any contamination associated with the media item, identifying contamination readings from the sensor readings using the tolerance level; and determining whether the media item is acceptable for further processing within the depository based on the sensor readings, the area, and the tolerance level; extracting a vector of features from the sensor readings using select sensor readings associated with the metallic material for the area and any contamination present with the media item using the tolerance level; and comparing the vector against a model template for determining whether the media item is acceptable for further processing within the depository.
Gangway for connecting a first car of a multi-car vehicle to a second car, the gangway having • a first vehicle mounting plate at a first end for mounting the gangway to the first car, • a second vehicle mounting plate at a second end for mounting the gangway to the second car or a frame arranged at the second end for mounting the gangway to a second gangway, • a first frame arranged between the first vehicle mounting plate and the second vehicle mounting plate or arranged between the first vehicle mounting plate and the frame arranged at the second end for mounting the gangway to a second gangway, • a second frame arranged between the first vehicle mounting plate and the first frame, wherein a bellows is attached to at least one of the first frame, the second frame, the first vehicle mounting plate and the second vehicle mounting plate or the frame arranged at the second end for mounting the gangway to a second gangway, and wherein at least one floor plate (20, 21, 22, 23, 24) is provided and the floor plate (20, 21, 22, 23, 24) is supported by the first frame, the second frame, the first vehicle mounting plate, the second vehicle mounting plate or the frame arranged at the second end for mounting the gangway to a second gangway characterized by at least one hoop, wherein • the bellows is attached to the hoop, • the hoop does not support the floor plate (20, 21, 22, 23, 24) and • the hoop is arranged between the first vehicle mounting plate and the second frame or arranged between the second frame and the first frame or the first frame and the second vehicle mounting plate or arranged between the first frame and a frame arranged at the second end for mounting the gangway to a second gangway. • a first vehicle mounting plate at a first end for mounting the gangway to the first car, • a second vehicle mounting plate at a second end for mounting the gangway to the second car or a frame arranged at the second end for mounting the gangway to a second gangway, • a first frame arranged between the first vehicle mounting plate and the second vehicle mounting plate or arranged between the first vehicle mounting plate and the frame arranged at the second end for mounting the gangway to a second gangway, • a second frame arranged between the first vehicle mounting plate and the first frame, • the bellows is attached to the hoop, • the hoop does not support the floor plate (20, 21, 22, 23, 24) and • the hoop is arranged between the first vehicle mounting plate and the second frame or arranged between the second frame and the first frame or the first frame and the second vehicle mounting plate or arranged between the first frame and a frame arranged at the second end for mounting the gangway to a second gangway.
A plant comprising one or more plant cells in which the nucleotide sequence of an endogenous malate dehydrogenase gene is mutated by transforming the one or more cells with a vector encoding one or more zinc finger nucleases such that activity of an expressed MDH protein is reduced as compared to the wild-type activity of said MDH protein and wherein crop yield from the plant is increased and with the proviso that the plant is not exclusively obtained by means of an essentially biological process.
A method of controlling a pathogenic infection in a plant, comprising contacting said plant with an effective amount of a composition comprising phenylalanine at a concentration of 0.5 to 30 mM, thereby controlling a pathogenic infection in a plant, wherein said pathogenic infection is an arthropod infection, a bacterium infection, or both.
A single-package magnetic rotation sensor, comprising a first full-bridge sensor and a second full-bridge sensor; wherein each of the first and second full-bridge sensors comprises two pairs of MTJ or GMR magnetoresistive sensor chips (20, 61, 62, 63 64, 81, 82, 83, 84); each MTJ or GMR magnetoresistive sensor chip (20, 61, 62, 63 64, 81, 82, 83, 84) being a half-bridge, containing a reference resistor with a fixed resistance (R ref) and a sensing resistor with a resistance (R s) varying in response to a magnetic field; wherein the first full-bridge sensor is aligned at 90 degrees to the second full bridge sensor, the sensing resistors within the first full-bridge sensor are aligned along a first common axis, and the sensing resistors within the second full-bridge sensor are aligned along a second common axis; each of the reference resistor and the sensing resistor containing a plurality of MTJ or GMR sensor elements (231, 241) that are interconnected as a single magnetoresistive element in row arrays with bar-shaped permanent magnets between MTJ or GMR sensor element rows to bias the magnetoresistive elements; the sensing resistors having a resistance (R s) that is linearly proportional to an applied magnetic field over a portion of their magnetoresistive transfer curves; wherein the bond pads of the MTJ or GMR sensor chip (20, 61, 62, 63 64, 81, 82, 83, 84) are designed such that more than one wire bond may be attached to each side of the array of MTJ or GMR sensor elements (231, 241); wherein the MTJ or GMR magnetoresistive sensor chips (20, 61, 62, 63 64, 81, 82, 83, 84) are adhered to a semiconductor package lead frame, and the MTJ or GMR magnetoresistive sensor chips are wire bonded to each other and to the semiconductor package lead frame in order to produce said full-bridge sensor; and wherein the semiconductor package lead frame and MTJ or GMR magnetoresistive sensor chips (20, 61, 62, 63 64, 81, 82, 83, 84) are encapsulated in plastic to form a standard semiconductor package.
A method of manufacturing a three-dimensional decoration piece made of synthetic resin, wherein laying an intermediate layer material of a thermoplastic synthetic resin and an upper layer material of a thermoplastic synthetic resin on a protruding mold of cathode; pressing the layers material from above by an indented mold of anode, to melt and mold the materials by high frequency dielectric heating, so as to form a three-dimensional molded body, said molded body being formed with a recessed section on a lower surface thereof, said molded body being temporarily anchored to the indented mold; pulling up the indented mold with the molded body; laying a lower layer material having a boding or sticking feature on a cathode having a flat surface; lowering the indented mold onto the cathode to press the layer materials; and melting the lower layer material by high frequency dielectric heating, so that the lower layer material flows into the recessed section, so as to weld the molded body and the lower layer material.
A specimen preparation device that prepares a cross section of a specimen by applying an ion beam, the specimen preparation device comprising: an ion beam generator that generates the ion beam; a specimen holder that holds the specimen; and a shield plate that shields part of the specimen from the ion beam, wherein the specimen holder further comprises a tilted plate that is placed to intersect a path of the ion beam on a downstream side of the specimen, and has an incidence surface that is tilted relative to a direction in which the ion beam is incident, characterized in that a through-hole is formed in the specimen holder, and the tilted plate and the through-hole overlap each other when viewed in travel direction of the ion beam. an ion beam generator that generates the ion beam; a specimen holder that holds the specimen; and a shield plate that shields part of the specimen from the ion beam, wherein the specimen holder further comprises a tilted plate that is placed to intersect a path of the ion beam on a downstream side of the specimen, and has an incidence surface that is tilted relative to a direction in which the ion beam is incident, characterized in that a through-hole is formed in the specimen holder, and the tilted plate and the through-hole overlap each other when viewed in travel direction of the ion beam.
A transient electrochemical device comprising: an anode; a cathode; an electrolyte provided between said anode and cathode, said electrolyte capable of conducting charge carriers; and a packaging component at least partially enclosing said anode, said cathode and said electrolyte; wherein each of said anode, said cathode, said electrolyte and said packaging component independently comprises a selectively transformable material; wherein at least partial transformation of each of said anode, said cathode, said electrolyte and said packaging component provides a programmable transformation of the transient electrochemical device in response to an external or internal stimulus; wherein the anode comprises Mg or Zn and the cathode is selected from the group consisting of Fe, W, Zn, Mo and any alloys or combinations thereof. an anode; a cathode; an electrolyte provided between said anode and cathode, said electrolyte capable of conducting charge carriers; and a packaging component at least partially enclosing said anode, said cathode and said electrolyte; wherein each of said anode, said cathode, said electrolyte and said packaging component independently comprises a selectively transformable material; wherein at least partial transformation of each of said anode, said cathode, said electrolyte and said packaging component provides a programmable transformation of the transient electrochemical device in response to an external or internal stimulus; wherein the anode comprises Mg or Zn and the cathode is selected from the group consisting of Fe, W, Zn, Mo and any alloys or combinations thereof.
A torque motor, comprising: a lower pole-piece; an upper pole-piece; an armature; a shaft; and a pair of magnetic coils; the armature having a longitudinal axis and being configured to pivot or rotate; wherein the pair of magnetic coils surround the armature; and wherein one of the upper and lower pole-pieces is ring-shaped, comprising a radially inner circumferential surface and a radially outer circumferential surface, wherein the one of the upper and lower pole pieces further comprises a first section formed separate from a second section, wherein the first section and the second section are configured to abut each other to form one or more lines of abutment on an outer surface thereof, wherein each line of abutment extends from the inner circumferential surface to the outer circumferential surface, and wherein each line of abutment follows an S- or Z- shape when the first section abuts the second section. a lower pole-piece; an upper pole-piece; an armature; a shaft; and a pair of magnetic coils; the armature having a longitudinal axis and being configured to pivot or rotate; wherein the pair of magnetic coils surround the armature; and wherein one of the upper and lower pole-pieces is ring-shaped, comprising a radially inner circumferential surface and a radially outer circumferential surface, wherein the one of the upper and lower pole pieces further comprises a first section formed separate from a second section, wherein the first section and the second section are configured to abut each other to form one or more lines of abutment on an outer surface thereof, wherein each line of abutment extends from the inner circumferential surface to the outer circumferential surface, and wherein each line of abutment follows an S- or Z- shape when the first section abuts the second section.
A method for activating an Optical Network Unit, ONU, characterized in that the ONU communicates with an Optical Line Terminal, OLT, through a plurality of paths simultaneously, wherein the method comprises: opening a quiet window by the OLT on one or more paths of the plurality of paths and discovering one or more ONUs by the OLT on the one or more paths on which the quiet window has been opened, and receiving, by the OLT, ONU identity information returned by each of the one or more ONUs on one path determined from the one or more paths on which the quiet window has been opened; and selecting one path from the plurality of paths and performing a ranging on the ONU on the selected path, by the OLT. opening a quiet window by the OLT on one or more paths of the plurality of paths and discovering one or more ONUs by the OLT on the one or more paths on which the quiet window has been opened, and receiving, by the OLT, ONU identity information returned by each of the one or more ONUs on one path determined from the one or more paths on which the quiet window has been opened; and selecting one path from the plurality of paths and performing a ranging on the ONU on the selected path, by the OLT.
Access floor of a motor vehicle, said access floor comprising a structural core made from injection-moulded thermoplastic material, said core comprising at least one first part, said first part having a first face for receiving the feet of the passengers, defining a generally flat and horizontal surface, and a first rear face, defining a non-planar surface, said access floor further being characterised in that: - said first part in plan view is generally in the form of a network of contiguous cells defining a repetitive pattern extending along two axes (12a, 12b), said cells being open on said reception and rear faces, - said cells are delimited by partitions extending generally vertically, two contiguous cells having at least one common portion of partition, - the material constituting said core has an MFR fluidity - in accordance with ISO 1133 - greater than or equal to 50, and in particular between 50 and 80, said partitions generally have a thickness of between 0.6 and 1.6 mm, and particularly between 0.7 and 1.4 mm, and particularly between 0.8 and 1.2 mm, said thickness varying progressively so as to exhibit at least one undercut enabling said core to be removed from the mould. - said first part in plan view is generally in the form of a network of contiguous cells defining a repetitive pattern extending along two axes (12a, 12b), said cells being open on said reception and rear faces, - said cells are delimited by partitions extending generally vertically, two contiguous cells having at least one common portion of partition, - the material constituting said core has an MFR fluidity - in accordance with ISO 1133 - greater than or equal to 50, and in particular between 50 and 80,
An aqueous preparation of calcium comprising water, calcium, a compound of Formula I, and a compound of Formula II as constituent elements, wherein 98% or more of the calcium is in non-ionic calcium form and forms a complex, wherein in the complex, the calcium binds to the compound of Formula I and/or the compound of Formula II in a state that basic structures of these compounds are kept, and at least a part of the complex forms colloidal particles, and wherein the aqueous preparation of calcium is a transparent aqueous preparation having a pH value ranging from 4 to 13; wherein, A 1, A 2, A 3, A 4, A 5 and A 6 are independently O- or OX, X represents a monovalent or polyvalent cation, and the Xs are the same or different when multiple OXs exist.
Method for granulating a melt of an hydrous nitrate mineral salt-based composition comprising from 15 to 30 weight% of water, the method comprising the steps of: a) granulating a melt of the nitrate mineral salt-based composition by a granulator operating according to the agglomeration granulation principle to obtain a set of granules; b) separating out oversized and undersized granules from the gran-ules obtained from step a) to obtain at least a set of oversized granules, a set of undersized granules and a set of granules having a suitable size; c) crushing the oversized granules obtained from step b); d) recycling the granules obtained from step c) to the granulator; e) recycling the undersized granules obtained from step b) to the granulator; f) during step a) measuring a temperature in the granulator, said temperature ranges from 90 to 96°C, in particular from 92 to 95°C, and g) based on the temperature measured in step f), adjusting the amounts of granules recycled in steps d) and/or e) to maintain the temperature measured in step f) within said range; and wherein the melt of the nitrate mineral salt based composition is a melt of a calcium nitrate salt-based composition. a) granulating a melt of the nitrate mineral salt-based composition by a granulator operating according to the agglomeration granulation principle to obtain a set of granules; b) separating out oversized and undersized granules from the gran-ules obtained from step a) to obtain at least a set of oversized granules, a set of undersized granules and a set of granules having a suitable size; c) crushing the oversized granules obtained from step b); d) recycling the granules obtained from step c) to the granulator; e) recycling the undersized granules obtained from step b) to the granulator; f) during step a) measuring a temperature in the granulator, said temperature ranges from 90 to 96°C, in particular from 92 to 95°C, and g) based on the temperature measured in step f), adjusting the amounts of granules recycled in steps d) and/or e) to maintain the temperature measured in step f) within said range;
Compressed air foam system, CAFS, comprising compressor means for increasing air pressure between an input and an output, a source of water-additive solution and a mixing chamber module configured to provide an air-solution mixture composed by said pressurized air and said water-additive solution, said mixture being further fluidly connectable to an extinguishing equipment, said system further comprising an air regulation system fluidly interposed in series between said output of said compressor means and said mixing chamber module, said air regulation system comprising a plurality of dosing modules fluidly interposed in parallel among each other between said output of said compressor means and said mixing chamber module, each dosing module being configured to selectively allow the passage of a predefined flow of compressed air to said mixing chamber module, characterized in that such plurality of dosing modules being dimensioned so that the predefined flow of one dosing module being different from the predefined flows of the other dosing module.
Curing system for curing a sealant, especially in an aerofoil structure or a fuselage structure of an aircraft or spacecraft, comprising: a casing which substantially encloses or forms a space or cavity for accommodating the sealant to be cured; and a device for conditioning an airflow for the space or cavity that accommodates the sealant; wherein the casing comprises an airflow inlet at one end region of the casing and an airflow outlet at another end region of the casing for an airflow through said space or cavity, wherein the casing is elongate and in the form of a channel and is configured to direct the airflow through said space or cavity from the airflow inlet to the airflow outlet; and wherein the conditioning device comprises a heater and/or a humidifier for heating and/or humidifying the airflow in the space or cavity that accommodates the sealant. a casing which substantially encloses or forms a space or cavity for accommodating the sealant to be cured; and a device for conditioning an airflow for the space or cavity that accommodates the sealant; wherein the casing comprises an airflow inlet at one end region of the casing and an airflow outlet at another end region of the casing for an airflow through said space or cavity, wherein the casing is elongate and in the form of a channel and is configured to direct the airflow through said space or cavity from the airflow inlet to the airflow outlet; and
Wireless charging device for generating a time-varying magnetic flux within a predefined coupling zone which is provided for positioning a wireless power receiving unit for an inductive power transfer, wherein an electromagnetic coil arrangement is provided for generating the magnetic flux and an electronic power control unit is designed to control an electric power that is provided to the coil arrangement, wherein the coil arrangement comprises several electromagnetic coils, each of which is designed to provide a part of the magnetic flux in a different region of the coupling zone, wherein the power control unit is designed to switch the electric power for each of the coils independently of the remaining coils, wherein a sensing unit is provided that is designed to detect the presence of an object in the coupling zone before and/or while the magnetic flux is generated, characterized in that the sensing unit is designed to locate the position of the object, and that the power control unit is designed to interrupt the respective power for one or some of the coils in dependence of the position of the object, while the respective power of at least one of the coils is continued to be provided.
A heat pump comprising a compressor, a heat source-side heat exchanger, a receiver, at least one expansion valve (40,41,42), and a utilization-side heat exchanger, and being configured to perform a pump-down operation to recover a liquid refrigerant into the receiver every time the heat pump is stopped, and wherein at least one refrigerant path (113a-113j) is provided from a predetermined position in the receiver to a suction side of the compressor, wherein the heat pump is configured to determine whether refrigerant leakage has occurred or not, in that a control device detects an amount of the liquid refrigerant in the receiver in the pump-down operation, and characterized in that the heat pump is configured to determine that refrigerant leakage has occurred when a degree of superheat of a refrigerant in the refrigerant path (113a-113j) is equal to or greater than a predetermined value after a first predetermined time has passed.
A dispersant for a hydraulic composition, comprising an alkyldiethanolamine having an alkyl group having 1 to 3 carbon atoms and a naphthalenesulfonic acid-formaldehyde condensate, wherein a weight ratio of the alkyldiethanolamine having an alkyl group having 1 to 3 carbon atoms to the naphthalenesulfonic acid-formaldehyde condensate (alkyldiethanolamine/ naphthalenesulfonic acid-formaldehyde condensate) is 0.01 to 2.0.