mhurhangee/ep-ind-claims huggingface dataset:
A self-cleaning conveyor for conveying meat or fish products, comprising an endless conveyor belt which is passed over a number of pulley means (3a, 3b), cleaning means for cleaning the conveyor belt, the cleaning means comprising a cylindrical cleaning element which is rotatable in a direction of rotation about its central axis, against which the conveyor belt butts over the entire width with its outer side and underside, driving means for rotatably driving at least one pulley means and the cleaning element, wherein the cleaning element is circumferentially provided with outwardly oriented scraping edges (21; 121) extending parallel to each other for scraping off waste matter from the conveyor belt, wherein the cleaning means further comprise fluid supplying means for supplying cleaning fluid to the cleaning element, wherein the cleaning element is also provided with grooves (22; 122) extending between the scraping edges (21; 121), characterized in that the cleaning means also comprise further fluid supplying means for supplying cleaning fluid downstream of the cleaning element against the full width of the conveyor belt at the outer side and the underside thereof, which further fluid supplying means comprise a tubular supply member that butts against the conveyor belt over the full width thereof, in the interior of which supply member a channel is present, wherein at least one passage is provided in the wall of the supply member that surrounds the channel, which passage extends from the channel to the outer side of the supply member and which is oriented in the direction of the conveyor belt, wherein the further fluid supplying means are at least in part provided directly above the cleaning element, in that the cleaning means also comprising a flexible scraper provided under the conveyor belt, downstream of the tubular supply member, for drying the conveyor belt, and in that the fluid supplying means comprise a trough-like container for cleaning fluid, which container has a circumferential upright wall and which extends under the cleaning element, and wherein the bottom side of the cleaning element extends at a lower level than the upper side of the upright wall for immersing the bottom side of the cleaning element in the cleaning fluid in use.
A method performed by a control system comprising a verification module, the method comprising: receiving, at the verification module, a schedule for transmission of one or more data frames to one or more destination nodes via a Time Sensitive Network, TSN; receiving, at the verification module, a destination for each data frame; receiving, at the verification module, a maximum tolerable latency for each data frame; determining, via the verification module, the received schedule is correct, wherein in case the schedule is not correct, stopping the execution of the schedule and generating a notification and wherein in case the schedule is correct, transmitting one or more data frames to the destination according to the schedule; accessing, via the verification module, the one or more destination nodes; verifying, via the verification module, the one or more data frames have arrived to the one or more destination nodes within a maximum tolerable latency, based on accessing the one or more destination nodes, wherein in case the one or more data frame have not arrived to the one or more destination nodes at all or have not arrived within the maximum tolerable latency, the verification module performs an error analysis to determine a most likely point in the flow where the data frame is being delayed or dropped, wherein when a point of error is determined by the verification module, said verification module takes a corrective action; and controlling one or more operations of an installed product based on the transmitted one or more data frames, wherein the installed product is a mechanically operational entity or an asset. receiving, at the verification module, a schedule for transmission of one or more data frames to one or more destination nodes via a Time Sensitive Network, TSN; receiving, at the verification module, a destination for each data frame; receiving, at the verification module, a maximum tolerable latency for each data frame; determining, via the verification module, the received schedule is correct, wherein in case the schedule is not correct, stopping the execution of the schedule and generating a notification and wherein in case the schedule is correct, transmitting one or more data frames to the destination according to the schedule; accessing, via the verification module, the one or more destination nodes; verifying, via the verification module, the one or more data frames have arrived to the one or more destination nodes within a maximum tolerable latency, based on accessing the one or more destination nodes, wherein in case the one or more data frame have not arrived to the one or more destination nodes at all or have not arrived within the maximum tolerable latency, the verification module performs an error analysis to determine a most likely point in the flow where the data frame is being delayed or dropped, wherein when a point of error is determined by the verification module, said verification module takes a corrective action; and controlling one or more operations of an installed product based on the transmitted one or more data frames, wherein the installed product is a mechanically operational entity or an asset.
An injection device comprising: a housing configured to receive a medicament container; a protective cap is removably arranged on the housing; a label with a NFC-circuit (40, 42) comprising an antenna and an activation element extending between the housing and the protective cap; wherein said label is arranged with a tear line that is generally aligned with the interface between the housing and the protective cap; wherein the activation element is configured to be broken when a user removes the protective cap; and wherein the breaking of said activation element is detected by the NFC-circuit, and is transmitted to a smart device. a housing configured to receive a medicament container; a protective cap is removably arranged on the housing; a label with a NFC-circuit (40, 42) comprising an antenna and an activation element extending between the housing and the protective cap; wherein said label is arranged with a tear line that is generally aligned with the interface between the housing and the protective cap; wherein the activation element is configured to be broken when a user removes the protective cap; and wherein the breaking of said activation element is detected by the NFC-circuit, and is transmitted to a smart device.
A system for extracting polluted air in the vicinity of a road surface (2, 102), the system comprising at least one inlet assembly arranged to be recessed, when in use, into the road surface (2, 102) and to be connected to an extraction duct, characterized in that said at least one inlet assembly comprises a resiliently compressible and/or retractable pod (7, 113) arranged to protrude, when in use, above the level of the road surface and to be driven over by a wheel of a road vehicle, whereby the wheel passing over the pod (7, 113) will cause the pod (7, 113) to compress and/or to retract, whereby one or more intakes are located within the pod (7, 113), the pod (7, 113) defining a passage arranged to be connected tc the extraction duct.
A polymer-controlled induced viscosity nutritional emulsion comprising protein having a protein-bound methionine sulfoxide content that is 8% or less of the total protein-bound methionine, on a molar basis, fat, and a polymer-controlled induced viscosity fiber system that provides the emulsion with a packaged viscosity of less than 300 cps and an induced viscosity following consumption of at least 300 cps, wherein the induced viscosity nutritional emulsion is an oil-in-water emulsion. protein having a protein-bound methionine sulfoxide content that is 8% or less of the total protein-bound methionine, on a molar basis, fat, and a polymer-controlled induced viscosity fiber system that provides the emulsion with a packaged viscosity of less than 300 cps and an induced viscosity following consumption of at least 300 cps,
Method for defrosting of raw frozen meat-products in a tumbler, which comprises a drum, whereas the frozen meat is added to the drum, wherein a vacuum is established in the drum, wherein the vacuum is maintained in the drum while steam is injected lower than 300 mbar, characterized in, that the drum is rotated continuously or intermittently and the meat is cooled after the defrosting.
A method for controlling at least one drill parameter when drilling in rock with a rock drill, comprising an impulse-generating device arranged to induce shock waves in a tool acting against the rock with a percussive force generated via a percussion pressure, a rotation-generating device arranged to supply a torque to the impact device with a rotation generated via a rotation pressure, and a pressurisable damping chamber arranged to at least partially regulate the rock drill's contact with the rock via a damping pressure in the damping chamber, characterised by - determining a first parameter value representing the damping pressure, - determining a second parameter value representing the rotation pressure of the drill bit, - determining a deviation (ΔR) between the above second parameter value and a rotation pressure reference value (Rref), - determining a damping pressure reference value (Dref, Drefl, Dref2) in dependence of said deviation, - regulating the percussion pressure based on a function of the above first parameter value and the above damping pressure reference value. - determining a first parameter value representing the damping pressure, - determining a second parameter value representing the rotation pressure of the drill bit, - determining a deviation (ΔR) between the above second parameter value and a rotation pressure reference value (Rref), - determining a damping pressure reference value (Dref, Drefl, Dref2) in dependence of said deviation, - regulating the percussion pressure based on a function of the above first parameter value and the above damping pressure reference value.
A method of controlling a gas turbine engine having a propulsive fan and an engine core, the method including: measuring a first engine performance parameter indicative of the output of the fan; measuring a second engine performance parameter indicative of the output of the engine core; determining a fan thrust generated by the fan based on a first power setting parameter and the first engine performance parameter; determining a core thrust generated by the engine core based on a second power setting parameter and the second engine performance parameter; determining a total thrust based on the fan thrust and core thrust; and controlling the engine based on the determined total thrust, wherein the total thrust comprises the fan thrust and the engine core thrust. measuring a first engine performance parameter indicative of the output of the fan; measuring a second engine performance parameter indicative of the output of the engine core; determining a fan thrust generated by the fan based on a first power setting parameter and the first engine performance parameter; determining a core thrust generated by the engine core based on a second power setting parameter and the second engine performance parameter; determining a total thrust based on the fan thrust and core thrust; and controlling the engine based on the determined total thrust, wherein the total thrust comprises the fan thrust and the engine core thrust. wherein the total thrust comprises the fan thrust and the engine core thrust.
A data transmission method, comprising: determining, by a base station, a first phase noise compensation pilot signal, PCRS, port set and a second PCRS port set in a first scheduling period, wherein the first PCRS port set comprises at least one port used to transmit a PCRS in the first scheduling period, but the second PCRS port set does not comprise a port used to transmit the PCRS in the first scheduling period; determining, by the base station, a modulation and coding scheme, MCS, and notifying a user equipment of the MCS; determining, by the base station based on the MCS and an association relationship maintained at the base station and the user equipment, a first time-frequency resource element corresponding to the at least one port in the first PCRS port set; if a quantity of first time-frequency resource elements is greater than or equal to 1, sending, by the base station, the PCRS to the user equipment on the first time-frequency resource element; and sending, by the base station by using the MCS, data to the user equipment on a second time-frequency resource element corresponding to the second PCRS port set. determining, by a base station, a first phase noise compensation pilot signal, PCRS, port set and a second PCRS port set in a first scheduling period, wherein the first PCRS port set comprises at least one port used to transmit a PCRS in the first scheduling period, but the second PCRS port set does not comprise a port used to transmit the PCRS in the first scheduling period; determining, by the base station, a modulation and coding scheme, MCS, and notifying a user equipment of the MCS; determining, by the base station based on the MCS and an association relationship maintained at the base station and the user equipment, a first time-frequency resource element corresponding to the at least one port in the first PCRS port set; if a quantity of first time-frequency resource elements is greater than or equal to 1, sending, by the base station, the PCRS to the user equipment on the first time-frequency resource element; and sending, by the base station by using the MCS, data to the user equipment on a second time-frequency resource element corresponding to the second PCRS port set.
A packing container for accommodating number plate panels, wherein each number plate panel is provided with a pane! identification means which unambiguously identifies it, which can be detected opto-electronically and in which information about the number plate panel is encrypted, characterized in that at least two number plate panels are accommodated in the packing container, and the packing container is provided with a container identification means in which the information respectively encrypted in the panel identification means of the at least two number plate panels is recorded at least partially.
A weaving machine having a machine frame and having a device for measuring the warp tension having a measuring element implemented as a deflecting element and having two ends (17a, 17b), across which warp threads of the weaving machine can be guided, having a force measuring device and having a lever rotatably supported on the machine frame of the weaving machine and having a fixed center of rotation by means of which the measuring element can act on the force measuring device, characterized in that one of the two ends (17a, 17b) of the deflecting element is supported on the lever and the other of the two ends (17a, 17b) thereof is fixedly supported on the machine frame of the weaving machine.
A method for establishing a cell line for recombinant protein production capable of stably expressing two or more foreign genes, comprising transferring a gene encoding a non-coding RNA which suppresses the expression of NfkBia to a cell so that the non-coding RNA is expressed and so that the cell is cabable of stably expressing two or more foreign genes, wherein the two or more foreign genes are genes encoding proteins that are difficult to express stably at the same time.
A fastening device comprising a coupling element and a tensile force meter (7, 8, 19, 27) and being adopted to exert a tensile force of a penis extension device on a penis, wherein a first electronics component and a first current source are present, the tensile force meter (7, 8, 19, 27) electrically or electronically determines the measurement value for the exerted tension together with the first electronics component, and the first electronics component has a first radio device for transmitting the determined measurement value to an external receiver.
A laser solidification apparatus for building objects by layerwise solidification of material, the laser solidification apparatus comprising a build platform for supporting the object and a material bed, an optical module (157; 257) comprising a movable guiding element (150a, 150b) for directing a laser beam to solidify material of the material bed, and a detector module (160, 260) comprising a sensor for detecting radiation emitted from the material bed and transmitted to the sensor by the movable guiding element (150a, 150b) of the optical module (157; 257), wherein the detector module (160, 260) is removably mounted to the optical module (157; 257), characterised in that the optical module (157; 257) comprises a controller comprising an interface arranged to be releasably coupled to an electronic output of the detector module (160; 260) such that the controller can receive sensor signals from the sensor of the detector module (160; 260) and the controller is arranged to form data packets comprising control or measurement data sent to or generated by the optical module (157; 257) and sensor data based upon the sensor signals received from the detector module (160; 260).
Capsule for the preparation of a beverage using an extractable and/or dissolvable product and a quantity of hot and/or pressurized liquid, comprising: a circumferential wall having on one end a bottom adapted to allow entrance of the liquid, and on an opposite end a lid closing said end of the circumferential wall and adapted to allow exit of the beverage, the circumferential wall, bottom and lid enclosing an inner space containing the product, at least one of the lid and bottom comprising at least one first portion and at least one second portion separated by at least one slit and having different moving mechanics when under pressure so that the first and second portions of the lid and/or bottom will then move relatively at least at the position of the at least one slit, and comprising at least a layer of tearable material made from a foil, permanently attached to at least a part of the inner or outer surface of the first and second portions, covering said slit and thereby fully closing the inner space, said layer of tearable material being adapted to be torn by the first and second portions of the lid moving relatively at the position of the at least one slit when under pressure. a circumferential wall having on one end a bottom adapted to allow entrance of the liquid, and on an opposite end a lid closing said end of the circumferential wall and adapted to allow exit of the beverage, the circumferential wall, bottom and lid enclosing an inner space containing the product, at least one of the lid and bottom comprising at least one first portion and at least one second portion separated by at least one slit and having different moving mechanics when under pressure so that the first and second portions of the lid and/or bottom will then move relatively at least at the position of the at least one slit, and comprising at least a layer of tearable material made from a foil, permanently attached to at least a part of the inner or outer surface of the first and second portions, covering said slit and thereby fully closing the inner space, said layer of tearable material being adapted to be torn by the first and second portions of the lid moving relatively at the position of the at least one slit when under pressure.
A method of substance identification of an item to be inspected using a multi-energy-spectrum X-ray imaging system, the method comprising: acquiring a transparency related vector consisting of transparency values of the item to be inspected in N energy regions, wherein N is greater than 2; and determining the item to be inspected based on the transparency related vector, characterized in that determining the item to be inspected based on the transparency related vector comprises: a) calculating distances between the transparency related vector and transparency related vectors stored in the system consisting of N transparency mean values of multiple kinds of items with multiple thicknesses in the N energy regions; and b1) identifying the item to be inspected as the item corresponding to the minimum distance, or b2) determining a first atomic number and a first thickness of the item corresponding to the minimum distance and a second atomic number and a second thickness of an item corresponding to the next minimum distance; determining an atomic number and a thickness of the item to be inspected by using a linear interpolation algorithm based on the first and second atomic numbers and the first and second thicknesses; and determining a kind of the item to be inspected based on the atomic number and the thickness of the item to be inspected. acquiring a transparency related vector consisting of transparency values of the item to be inspected in N energy regions, wherein N is greater than 2; and determining the item to be inspected based on the transparency related vector, characterized in that determining the item to be inspected based on the transparency related vector comprises: a) calculating distances between the transparency related vector and transparency related vectors stored in the system consisting of N transparency mean values of multiple kinds of items with multiple thicknesses in the N energy regions; and b1) identifying the item to be inspected as the item corresponding to the minimum distance, or b2) determining a first atomic number and a first thickness of the item corresponding to the minimum distance and a second atomic number and a second thickness of an item corresponding to the next minimum distance; a) calculating distances between the transparency related vector and transparency related vectors stored in the system consisting of N transparency mean values of multiple kinds of items with multiple thicknesses in the N energy regions; and b1) identifying the item to be inspected as the item corresponding to the minimum distance, or b2) determining a first atomic number and a first thickness of the item corresponding to the minimum distance and a second atomic number and a second thickness of an item corresponding to the next minimum distance; determining an atomic number and a thickness of the item to be inspected by using a linear interpolation algorithm based on the first and second atomic numbers and the first and second thicknesses; and determining a kind of the item to be inspected based on the atomic number and the thickness of the item to be inspected.