mhurhangee/ep-ind-claims huggingface dataset:
A vacuum cleaner comprising: a main body comprising an air inflow part; an internal passage through which air introduced through the air inflow part is moved, the internal passage being defined in the main body; a dust separation device detachably coupled to the main body, the dust separation device comprising a dust separation chamber for separating foreign substances from the air flowing into the internal passage and a dust collection unit for storing dusts separated through the dust separation chamber; and a passage formation part disposed between the internal passage and the dust separation chamber, the passage formation part having an inclined surface for changing a flow direction of the air passing through the internal passage; characterized in that the passage formation part is disposed within the dust collection unit. a main body comprising an air inflow part; an internal passage through which air introduced through the air inflow part is moved, the internal passage being defined in the main body; a dust separation device detachably coupled to the main body, the dust separation device comprising a dust separation chamber for separating foreign substances from the air flowing into the internal passage and a dust collection unit for storing dusts separated through the dust separation chamber; and a passage formation part disposed between the internal passage and the dust separation chamber, the passage formation part having an inclined surface for changing a flow direction of the air passing through the internal passage;
A mixing container comprising: - a wall enclosing a mixing volume; - an anchor; - at least one mixing plate movably mounted to the anchor to allow a relative movement of the at least one mixing plate along a stir direction having a component perpendicular to the extension of the mixing plate, wherein - each of the at least one mixing plates is provided with at least one magnetic device and - the anchor is adapted to be in mechanical contact with a container receptacle of a drive unit, the container receptacle being a flat area adapted to at least partially receive the mixing container, the drive unit including a magnetic actuator comprising at least one magnet such that the magnet induces a time-variant magnetic field which actuates the at least one magnet in order to move the at least one mixing plate along the stir direction, characterized in that the anchor is fixed at the bottom wall of the mixing container inside the mixing volume. - a wall enclosing a mixing volume; - an anchor; - at least one mixing plate movably mounted to the anchor to allow a relative movement of the at least one mixing plate along a stir direction having a component perpendicular to the extension of the mixing plate, wherein - each of the at least one mixing plates is provided with at least one magnetic device and - the anchor is adapted to be in mechanical contact with a container receptacle of a drive unit, the container receptacle being a flat area adapted to at least partially receive the mixing container, the drive unit including a magnetic actuator comprising at least one magnet such that the magnet induces a time-variant magnetic field which actuates the at least one magnet in order to move the at least one mixing plate along the stir direction,
Catalyst system comprising a metathesis catalyst which is a complex catalyst based on a metal of transition group 6 or 8 of the Periodic Table and has at least one ligand bound in a carbene-like fashion to the metal and an alkaline earth metal chloride, preferably calcium chloride or magnesium chloride.
A method of detecting the presence of bacteria in milk, wherein milk is contacted with a preparation comprising an effective amount of at least one type of antibodies, said antibodies being capable of specifically binding to bacteria to be detected; staining said antibodies, before or after said contacting, with a staining preparation, said staining preparation being selected so that the antibodies stained therewith exhibit a color change or a change in color concentration when in contact with said bacteria; and determining the concentration of stained antibodies bound to bacteria in said milk from the presence and/or the relative intensity of the color change caused by contacting said milk with said stained antibodies, characterized in that said preparation comprises more than one type of antibodies, each antibody type specifically binding to a different type of bacteria or to a plurality of such bacteria types, wherein the color change is detected, qualitatively and/or quantitatively, without separating the bacteria from the milk, by using a fluorescent antibody stain and a flow cytometer as the detector.
A method of making a coated article including a UV blocking coating, the method comprising: applying a first wet coating comprising titanium, cerium, and silicon on the glass substrate, at least partially curing the first wet coating solution to form a UV blocking coating on the glass substrate, the UV blocking coating comprising a mixture of oxides of cerium, titanium, and silicon and having a refractive index (n) of from about 1.55 to 1.85; applying a second wet coating comprising a photomonomer and/or photopolymer on the glass substrate over at least the UV blocking coating; and curing the second wet coating though exposure to radiation. applying a first wet coating comprising titanium, cerium, and silicon on the glass substrate, at least partially curing the first wet coating solution to form a UV blocking coating on the glass substrate, the UV blocking coating comprising a mixture of oxides of cerium, titanium, and silicon and having a refractive index (n) of from about 1.55 to 1.85; applying a second wet coating comprising a photomonomer and/or photopolymer on the glass substrate over at least the UV blocking coating; and curing the second wet coating though exposure to radiation.
An isolated peptide being 10 amino acids in length, having an amino acid sequence selected from the group consisting of SEQ ID NOs: 1-4 and 55, the peptide being capable of inhibiting alpha synuclein aggregation.
A passive safety device for an energy storage cell for positioning between two electrically conductive layers of the energy storage cell, the device comprising: a separator; a non-conductive layer; a first electrically conductive material provided on the non-conductive layer; a first opening formed through the separator between the first electrically conductive material and one of the electrically conductive layers of the energy storage cell; a second electrically conductive material provided adjacent the first electrically conductive material on the non-conductive layer, wherein a space is formed on the non-conductive layer between the first and second electrically conductive materials; a second opening formed through the non-conductive layer between the second electrically conductive material and another of the electrically conductive layers of the energy storage cell; and wherein the first and second electrically conductive materials combine and exit at least partially through the first and second openings (20a-b) to connect the two electrically conductive layers of the energy storage cell at a predetermined temperature. a separator; a non-conductive layer; a first electrically conductive material provided on the non-conductive layer; a first opening formed through the separator between the first electrically conductive material and one of the electrically conductive layers of the energy storage cell; a second electrically conductive material provided adjacent the first electrically conductive material on the non-conductive layer, wherein a space is formed on the non-conductive layer between the first and second electrically conductive materials; a second opening formed through the non-conductive layer between the second electrically conductive material and another of the electrically conductive layers of the energy storage cell; and wherein the first and second electrically conductive materials combine and exit at least partially through the first and second openings (20a-b) to connect the two electrically conductive layers of the energy storage cell at a predetermined temperature.
A heat exchange system, comprising: a heat exchange medium (12; 15) comprising solid particles and a fluid; a first heat exchanger, a mixing device disposed upstream of the first heat exchanger and configured to mix the solid particles and the fluid of the heat exchange medium (12; 15) and convey the mixed heat exchange medium (12; 15) to the first heat exchanger, a separating device disposed downstream of the first heat exchanger and configured to separate the solid particles from the fluid in the heat exchange medium (12; 15) discharged by the first heat exchanger, a second heat exchanger, the second heat exchanger comprising a cooling loop and being adapted such that during use of the heat exchange system the solid particles separated by the separating device perform heat exchange whereby the remaining heat in the solid particles is carried away through the cooling loop, and a first conveying device configured to convey the solid particles separated by the separating device to the mixing device after having passed the separated solid particles through the second heat exchanger. a heat exchange medium (12; 15) comprising solid particles and a fluid; a first heat exchanger, a mixing device disposed upstream of the first heat exchanger and configured to mix the solid particles and the fluid of the heat exchange medium (12; 15) and convey the mixed heat exchange medium (12; 15) to the first heat exchanger, a separating device disposed downstream of the first heat exchanger and configured to separate the solid particles from the fluid in the heat exchange medium (12; 15) discharged by the first heat exchanger, a second heat exchanger, the second heat exchanger comprising a cooling loop and being adapted such that during use of the heat exchange system the solid particles separated by the separating device perform heat exchange whereby the remaining heat in the solid particles is carried away through the cooling loop, and a first conveying device configured to convey the solid particles separated by the separating device to the mixing device after having passed the separated solid particles through the second heat exchanger.
A fuel cell, comprising: a membrane electrode assembly provided with a frame at a periphery thereof; two separators holding both the frame and the membrane electrode assembly therebetween; and a gas seal provided between an edge portion of the frame and an edge portion of each separator to have a configuration in which a reactant gas passes through the frame and the membrane electrode assembly and the separators, wherein the frame includes a manifold section (M1, M2) to supply and emit the reactant gas, characterized in that the frame further includes a diffuser section (D1, D2) between the manifold section (M1, M2) and the membrane electrode assembly, said diffuser section (D1, D2) is adapted to function as a diffusion area for the reactant gas provided between the manifold section (M1, M2) and the membrane electrode assembly, and wherein the frame and the separators are not in contact with and separated from each other in an entire region of the diffuser section (D1, D2) between the membrane electrode assembly and the gas seal. a membrane electrode assembly provided with a frame at a periphery thereof; two separators holding both the frame and the membrane electrode assembly therebetween; and a gas seal provided between an edge portion of the frame and an edge portion of each separator to have a configuration in which a reactant gas passes through the frame and the membrane electrode assembly and the separators, wherein the frame includes a manifold section (M1, M2) to supply and emit the reactant gas, characterized in that the frame further includes a diffuser section (D1, D2) between the manifold section (M1, M2) and the membrane electrode assembly, said diffuser section (D1, D2) is adapted to function as a diffusion area for the reactant gas provided between the manifold section (M1, M2) and the membrane electrode assembly, and wherein the frame and the separators are not in contact with and separated from each other in an entire region of the diffuser section (D1, D2) between the membrane electrode assembly and the gas seal.
Method for reading protected sensitive data characterised in that the reading is performed by subjecting the protected sensitive data in digital form to a digital processing which implements one or several digital signatures obtained from at least one structural characteristic of a material element chosen from among all or part of a fibrous material, plastic, metal, leather, wood, composite material, glass, mineral, crystalline structure, the one or several digital signatures being used as reading key.
A method for damping a resonant component of a common-mode current of a multi-phase power converter comprising an output filter with a virtual ground connection to the power converter, wherein the output filter comprises at least one inductive component and at least one capacitive component that form a resonant circuit along the virtual ground connection, wherein the common-mode current is controlled on the basis of a common-mode current reference, and wherein the method comprises determining the common-mode current, forming, on the basis of the common-mode current, a feedback signal representing a resonance frequency component of the common-mode current, and injecting the feedback signal into the common-mode current reference to in order to dampen the resonance frequency component, wherein forming the feedback signal comprises filtering the determined common-mode current with a band-pass filter having its pass-band coinciding with a resonance frequency of the resonant circuit in order to determine the sinusoidal resonance frequency component of the common-mode current at the resonance frequency, and adding a delay to the feedback signal, the delay being such that the determined resonance frequency component has a sufficient phase margin with respect to a subsequent cycle of the resonance frequency component of the common-mode current in order to form a stable control loop.
Method for generating and maintaining an allocation of object data of an object to a changing physical position of the object in a sorting device that comprises at least one entry point for feeding objects to the sorting device and a plurality of transfer points at which selected objects can be discharged from the sorting device, with the steps of: - feeding in an object, of which at least one identity feature can be stored as part of the object data of the object, at an entry point of the sorting device, capturing identity data before, during or after such feeding in, and storing the identity data as part of the object data of the object, - on the basis of sorting data from which a sorting destination of the object can be derived for each object, determining a transfer point that is allocated to the object, - transporting the object as far as the specified transfer point, - discharging the object at the specified transfer point, characterised by the additional steps of: - capturing optical object data for each object discharged at the transfer point when the object has reached a predetermined position on the sorting device, at the transfer point or along a delivery path extending from the transfer point to a removal point, and storing the optical object data as an additional part of the object data of the object, - moving the object along the delivery path, - during the movement, tracking the discharged object on the basis of the optical object data by means of the tracking system, wherein the tracking comprises repeated determination of the position of the object along the delivery path at consecutive time intervals, until the object is removed, and storing a current position of the object as an additional part of the object data of the object. - feeding in an object, of which at least one identity feature can be stored as part of the object data of the object, at an entry point of the sorting device, capturing identity data before, during or after such feeding in, and storing the identity data as part of the object data of the object, - on the basis of sorting data from which a sorting destination of the object can be derived for each object, determining a transfer point that is allocated to the object, - transporting the object as far as the specified transfer point, - discharging the object at the specified transfer point, - capturing optical object data for each object discharged at the transfer point when the object has reached a predetermined position on the sorting device, at the transfer point or along a delivery path extending from the transfer point to a removal point, and storing the optical object data as an additional part of the object data of the object, - moving the object along the delivery path, - during the movement, tracking the discharged object on the basis of the optical object data by means of the tracking system,
A computer-implemented method for providing content via a network, comprising: sending a subscription message via the network prior to a start time of a broadcast session to at least one subscribing machine, the subscription message identifying at least the start-time and an encapsulation protocol to be used for the broadcast session; encapsulating content of the broadcast session according to the encapsulation protocol, the encapsulated content having at least one layer of encapsulation; broadcasting the encapsulated content via the network to the at least one subscribing machine based on the start- time, wherein the encapsulation protocol identified in the subscription message permits removing the at least one layer of encapsulation from the broadcast content at the at least one subscribing machine. sending a subscription message via the network prior to a start time of a broadcast session to at least one subscribing machine, the subscription message identifying at least the start-time and an encapsulation protocol to be used for the broadcast session; encapsulating content of the broadcast session according to the encapsulation protocol, the encapsulated content having at least one layer of encapsulation; broadcasting the encapsulated content via the network to the at least one subscribing machine based on the start- time, wherein the encapsulation protocol identified in the subscription message permits removing the at least one layer of encapsulation from the broadcast content at the at least one subscribing machine.
A frame provided with a drainage system, which frame comprises a section provided with at least a plate member, a connecting member extending transversely to the plate member and at least one passage extending through at least one wall of the connecting member in which passage a tube suitable for water drainage is present, the frame is further provided with at least one sealing strip on said plate member, characterized in that the sealing strip is located below the connecting member, whilst at least a portion of an upper end of the tube is positioned in the wall to enable water on the wall to flow into the tube and a lower end of the tube extends trough the sealing strip, which upper end of the tube is provided with a fixing element supported on the wall.
A video recording and playback equipment which inputs a file from the outside and records the file of a predetermined file format containing video data and metadata accompanying said video data including information about at least an identification tag to identify said video data and data size of said video data, and which plays said video data, said video - recording and playback equipment, comprising: a receiver configured to receive said file from the outside; and a control unit configured to read out said video data from said file with reference to a playback information table which stores a location where said video data is stored in said file as a playback information, wherein said location is expressed by a head position and a data size of said video data in the file or wherein said location is expressed by a head position and an end position of said video data in the file; and a decoder configured to decode said video data read out by said control unit; characterized in that said equipment further comprises: an analyzer configured to analyze said location where said video data is stored in said file received by said receiver with reference to said identification tag of said video data and said data size of said video data; said playback information table configured to memorize said location as said playback information, and a program data memory configured to memorize said file received by said receiver without changing said predetermined file format. a receiver configured to receive said file from the outside; and a control unit configured to read out said video data from said file with reference to a playback information table which stores a location where said video data is stored in said file as a playback information, wherein said location is expressed by a head position and a data size of said video data in the file or wherein said location is expressed by a head position and an end position of said video data in the file; and a decoder configured to decode said video data read out by said control unit; characterized in that said equipment further comprises: an analyzer configured to analyze said location where said video data is stored in said file received by said receiver with reference to said identification tag of said video data and said data size of said video data; said playback information table configured to memorize said location as said playback information, and a program data memory configured to memorize said file received by said receiver without changing said predetermined file format. an analyzer configured to analyze said location where said video data is stored in said file received by said receiver with reference to said identification tag of said video data and said data size of said video data; said playback information table configured to memorize said location as said playback information, and a program data memory configured to memorize said file received by said receiver without changing said predetermined file format.
A belt cutting unit comprising a central section as well as at least two lateral sections, wherein at least one support wheel, which is driven in a height-adjustable manner by a respective double-acting hydraulic cylinder connected to a hydraulic circuit of a hydraulic system, is disposed on at least the outer lateral sections, characterized in that a respective 3/2-way directional control valve which, during operation of the belt cutting unit, takes up a switch position in which the piston rod chamber and piston chamber of the hydraulic cylinder are in fluid communication, is associated with the respective hydraulic cylinder, or in that respectively two 2/2-way directional control valves which, during operation of the belt cutting unit, take up a switch position in which the piston rod chamber and piston chamber of the hydraulic cylinder are in fluid communication, are associated with the respective hydraulic cylinder, wherein a throttle check valve with an accumulator, which are disposed in a respective pressure line connecting a common pressure source of the hydraulic system to the respective hydraulic cylinder, are associated with the respective hydraulic cylinder, and a check valve is disposed in a compensating line connecting the piston rod chamber to the pressure line.