mhurhangee/ep-ind-claims huggingface dataset:
Device for sterilizing and drying medical filters such as dialyzers, wherein the device comprises a pressure chamber with at least one inlet and one outlet and a holder for at least one filter, characterized in that the pressure chamber is divided into a first chamber and a second chamber, wherein the filter is insertable into the holder in such a way that the inlet opening(s) (13, 16) of the filter are arranged in the first chamber and the outlet opening(s) (14, 17) of the filter are arranged in the second chamber.
A rail vehicle comprising at least one pilot, which is disposed in front of the first wheelset of the rail vehicle, in the direction of travel, on the bogie frame of the rail vehicle and comprises a pilot beam, characterized in that at least two vertically movable pilot pistons (22, 22') are disposed on the pilot beam, the pilot pistons (22, 22') being guided and supported by a guiding pipe (23, 23') enclosing the pistons and, when retracted, not extending beyond the lower edge of the pilot beam.
A parking assistance device comprising: an external environment recognition unit that recognizes a road surface environment around a vehicle on the basis of information detected by an external environment sensor installed in the vehicle; an information presenting unit that presents, to an occupant of the vehicle, road surface information indicating a presence of an obstacle on a road surface around the vehicle on the basis of the road surface environment recognized by the external environment recognition unit; a road surface information correction unit that corrects the road surface information and invalidates the obstacle; and a parking route calculation unit that calculates a parking route for parking the vehicle on the basis of the road surface information corrected by the road surface information correction unit, wherein the external environment sensor includes a first sensor capable of two-dimensional detection around the vehicle, and a second sensor capable of three-dimensional detection around the vehicle, characterized in that: a correction of the road surface information by the road surface information correction unit is permitted for the obstacle detected by the first sensor and not detected by the second sensor, and the correction of the road surface information by the road surface information correction unit is prohibited for the obstacle detected by the second sensor. an external environment recognition unit that recognizes a road surface environment around a vehicle on the basis of information detected by an external environment sensor installed in the vehicle; an information presenting unit that presents, to an occupant of the vehicle, road surface information indicating a presence of an obstacle on a road surface around the vehicle on the basis of the road surface environment recognized by the external environment recognition unit; a road surface information correction unit that corrects the road surface information and invalidates the obstacle; and a parking route calculation unit that calculates a parking route for parking the vehicle on the basis of the road surface information corrected by the road surface information correction unit, wherein the external environment sensor includes a first sensor capable of two-dimensional detection around the vehicle, and a second sensor capable of three-dimensional detection around the vehicle, characterized in that: a correction of the road surface information by the road surface information correction unit is permitted for the obstacle detected by the first sensor and not detected by the second sensor, and the correction of the road surface information by the road surface information correction unit is prohibited for the obstacle detected by the second sensor. a correction of the road surface information by the road surface information correction unit is permitted for the obstacle detected by the first sensor and not detected by the second sensor, and the correction of the road surface information by the road surface information correction unit is prohibited for the obstacle detected by the second sensor.
An analyte detector for detecting at least one analyte in at least one fluid sample, the analyte detector comprising at least one multipurposeelectrode exposable to the fluid sample, wherein the multipurpose electrode is configured to take part in analytical examinations based on at least one of method comprising the use of a field-effect transistor and the at least one other method comprising the use of an electrochemical measurement device, wherein the term analytical examination is understood to describe a qualitative and/or a quantitative detection of the at least one analyte, the analyte detector further comprising at least one field-effect transistor in electrical contact with the at least one multipurpose electrode, wherein for being in electrical contact with each other the at least one field-effect transistor and the at least one multipurpose electrode are separate components or are fully or partially integrated into one another, the analyte detector further comprising at least one electrochemical measurement device configured for performing at least one electrochemical measurement using the multipurpose electrode, wherein the analyte detector comprises at least one further electrode exposable to the fluid sample, wherein the analyte detector further comprises at least one controller, wherein the controller is connected to the field-effect transistor and to the electrochemical measurement device and wherein the controller is configured for controlling at least one transistor measurement by using the field-effect transistor and wherein the controller additionally is configured for controlling the at least one electrochemical measurement by using the electrochemical measurement device, wherein the controller is further configured to combine the transistor measurement value and the electrochemical measurement value for one or both of quantitatively or qualitatively detecting the at least one analyte in the fluid sample.
1-acyl-lysophosphatidyl derivatives of general formula I, wherein R is C4 to C30 alifatic hydrocarbyl chain, R1 is selected from H or C1 to C10 alkyl, R2 is selected from H, C10 to C30 acyl or C1 to C10 alkyl, R3 is selected from H or C1 to C10 alkyl, or R3 is not present, for use in a method of treatment of cancer selected from a hepatocarcinoma and a melanoma. R is C4 to C30 alifatic hydrocarbyl chain, R1 is selected from H or C1 to C10 alkyl, R2 is selected from H, C10 to C30 acyl or C1 to C10 alkyl, R3 is selected from H or C1 to C10 alkyl, or R3 is not present, for use in a method of treatment of cancer selected from a hepatocarcinoma and a melanoma.
An apparatus for treating molten iron, comprising: a melting furnace melting an iron source to produce molten iron; and a decoppering device comprising a first container accommodating the molten iron and a second container that accommodates flux therein, that is configured such that the molten iron reacts with it to remove copper contained in the molten iron, and is disposed under the first container; and a third container disposed under the second container and accommodating the molten iron discharged from the second container, wherein the first container comprises a spraying unit disposed at the bottom of the first container to spray the molten iron in the form of droplets to the second container, and an outlet for discharging the molten iron is disposed at the bottom of the second container. a melting furnace melting an iron source to produce molten iron; and a decoppering device comprising a first container accommodating the molten iron and a second container that accommodates flux therein, that is configured such that the molten iron reacts with it to remove copper contained in the molten iron, and is disposed under the first container; and a third container disposed under the second container and accommodating the molten iron discharged from the second container, wherein the first container comprises a spraying unit disposed at the bottom of the first container to spray the molten iron in the form of droplets to the second container, and an outlet for discharging the molten iron is disposed at the bottom of the second container.
Mounting system for a continuous-flow heater, at least comprising a flexible tube part, wherein the flexible tube part has, at its first end, a connecting pipe with a union nut, wherein the flexible tube part has, at its second end a rigid cooling pipe which is solidly and permanently connected to the flexible tube part, characterized in that the solid, permanent connection between the flexible tube part and the rigid cooling pipe is created by welding and/or adhesive bonding, wherein the cooling pipe has a flattened shape, and wherein the flattened shape is adapted to the shape of triacs (11a, 11b, 11c).
Operating liquid container, the inner space of which is defined by a covering wall, a bottom wall and a side stall connecting the bottom wall to the covering wall, comprising; - a reference capacitor comprising a first electrode and a second electrode, which both extend parallel to the bottom wall; - a measuring capacitor comprising a first electrode and a second electrode, which both have a length extension, a width extension and a depth extension, and both extend parallel to the side wall in such a way that the length extensions (I,) of the first electrode and the second electrode extend from the bottom wall towards the covering wall; - an evaluation device electrically connecting to the reference capacitor and the measuring capacitor, for determining a filling level of the operating liquid container by means of measuring signals determined by the reference capacitor and the measuring capacitor, - wherein the first electrode and the second electrode of the reference capacitor are embedded in the bottom wall; and - the first electrode and the second electrode of the measuring capacitor are embedded in the side wall; wherein the operating liquid container is characterized in that: - the bottom wall has an elevation which extends into the inner space of the operating liquid container; and - the first electrode and the second electrode of the measuring capacitor are embedded in the elevation of the bottom wall. - a reference capacitor comprising a first electrode and a second electrode, which both extend parallel to the bottom wall; - a measuring capacitor comprising a first electrode and a second electrode, which both have a length extension, a width extension and a depth extension, and both extend parallel to the side wall in such a way that the length extensions (I,) of the first electrode and the second electrode extend from the bottom wall towards the covering wall; - an evaluation device electrically connecting to the reference capacitor and the measuring capacitor, for determining a filling level of the operating liquid container by means of measuring signals determined by the reference capacitor and the measuring capacitor, - wherein the first electrode and the second electrode of the reference capacitor are embedded in the bottom wall; and - the first electrode and the second electrode of the measuring capacitor are embedded in the side wall; - the bottom wall has an elevation which extends into the inner space of the operating liquid container; and - the first electrode and the second electrode of the measuring capacitor are embedded in the elevation of the bottom wall.
A method for analyzing a blood sample comprising: providing a portion of the blood sample to a first measurement channel in a disposable analysis cartridge (14, 100), said first measurement channel comprising a first flow cytometry analysis channel configured to hydrodynamically focus a sample and configured to support optical light scattering measurements; providing a portion of the blood sample to a second measurement channel in the disposable analysis cartridge, said second measurement channel comprising a second flow cytometry analysis channel configured to hydrodynamically focus a sample and configured to support optical light scattering measurements; sphering the red blood cells in the blood sample after the sample is provided to the first measurement channel in the disposable analysis cartridge; providing the sphered red blood cell sample to the first flow cytometry analysis channel, wherein the first flow cytometry analysis channel hydrodynamically focuses the sphered red blood cell sample; and directing a light beam on the sphered red blood cell sample in the first flow cytometry analysis channel, and detecting the light scatter energy at one or more detector angles. providing a portion of the blood sample to a first measurement channel in a disposable analysis cartridge (14, 100), said first measurement channel comprising a first flow cytometry analysis channel configured to hydrodynamically focus a sample and configured to support optical light scattering measurements; providing a portion of the blood sample to a second measurement channel in the disposable analysis cartridge, said second measurement channel comprising a second flow cytometry analysis channel configured to hydrodynamically focus a sample and configured to support optical light scattering measurements; sphering the red blood cells in the blood sample after the sample is provided to the first measurement channel in the disposable analysis cartridge; providing the sphered red blood cell sample to the first flow cytometry analysis channel, wherein the first flow cytometry analysis channel hydrodynamically focuses the sphered red blood cell sample; and directing a light beam on the sphered red blood cell sample in the first flow cytometry analysis channel, and detecting the light scatter energy at one or more detector angles.
A method for wireless communication performed by a user equipment, UE, the method comprising: determining a power parameter associated with received communication using a first radio access technology, RAT; determining a power gain of the UE; applying an offset to the power parameter to form a modified power parameter, the offset being determined based on the determined power gain of the UE; determining whether the modified power parameter satisfies a reporting threshold; and transmitting a measurement report including the modified power parameter based at least in part on a determination that the modified power parameter satisfies the reporting threshold. determining a power parameter associated with received communication using a first radio access technology, RAT; determining a power gain of the UE; applying an offset to the power parameter to form a modified power parameter, the offset being determined based on the determined power gain of the UE; determining whether the modified power parameter satisfies a reporting threshold; and transmitting a measurement report including the modified power parameter based at least in part on a determination that the modified power parameter satisfies the reporting threshold.
Process for manufacturing a disc for disc brakes, comprising: submitting at least one surface (4, 9) of a portion of composite material reinforced with carbon fibers to an electrolytic treatment to improve the roughness of said surface (4, 9); wherein said portion is a radially external band of the disc, the radially external band extending around a symmetry axis (X-X) and presenting side braking surfaces suitable to cooperate with brake calipers to exert a braking action on a vehicle; wherein at least one of, preferably both, the side braking surfaces is submitted to the electrolytic treatment. submitting at least one surface (4, 9) of a portion of composite material reinforced with carbon fibers to an electrolytic treatment to improve the roughness of said surface (4, 9); wherein said portion is a radially external band of the disc, the radially external band extending around a symmetry axis (X-X) and presenting side braking surfaces suitable to cooperate with brake calipers to exert a braking action on a vehicle; wherein at least one of, preferably both, the side braking surfaces is submitted to the electrolytic treatment.
A sealing station for sealing a cover film onto packaging trays, wherein the sealing station comprises a sealing tool and a bar chain and the sealing tool includes a tool upper part and a tool lower part, and wherein the bar chain is configured for conveying the packaging trays into the sealing tool and out of the sealing tool, characterized in that the tool lower part is configured for accommodating the packaging trays in at least a first and a second row (14, 15), and that the tool lower part includes at least one lowerable supporting disc for lowering at least one of the first and second rows (14, 15) of packaging trays, and in that the tool lower part comprises a further supporting disc for the other row (14, 15) of packaging trays.
A method for preserving cooking oil which comprises contacting the oil with oil-permeable cementious material in the form of either stand-alone blocks, pellets, granules, or balls and which has been hydraulically hardened from a paste comprising:- (a) > 50 wt% of (i) white ordinary Portland cement clinker, (ii) white OPC or (iii) a mixture of white OPC clinker and white OPC, and (b) optionally further ingredients selected from silica, titania, lime, calcium sulphate, hydrated alumina, natural feldspars, diatomaceous earth, Na and Ca forms of natural and synthetic zeolites, clays, pillared clays, activated clays/earths, silicate minerals selected from calcium silicate, magnesium silicate, aluminium silicate, agalmatolite, amphiboles, attapulgite, granite porphyry, kaolinite, porphyry, rhyolite, talc and wollastonite, wherein the porosity of the cementious material is 30-55%, characterised in that the oil-permeable cementious material has during manufacture being subjected to prolonged drying at a temperature of at least 230°C so as to reduce the amount of foaming occurring in the oil during treatment with the said cementious material. (a) > 50 wt% of (i) white ordinary Portland cement clinker, (ii) white OPC or (iii) a mixture of white OPC clinker and white OPC, and (b) optionally further ingredients selected from silica, titania, lime, calcium sulphate, hydrated alumina, natural feldspars, diatomaceous earth, Na and Ca forms of natural and synthetic zeolites, clays, pillared clays, activated clays/earths, silicate minerals selected from calcium silicate, magnesium silicate, aluminium silicate, agalmatolite, amphiboles, attapulgite, granite porphyry, kaolinite, porphyry, rhyolite, talc and wollastonite, wherein the porosity of the cementious material is 30-55%, characterised in that the oil-permeable cementious material has during manufacture being subjected to prolonged drying at a temperature of at least 230°C so as to reduce the amount of foaming occurring in the oil during treatment with the said cementious material.
A method for determining an operational state of a turbine flow meter in a liquid level loop control (500, 600, 700), comprising: determining via a sensor a first pressure of a liquid in a tank; determining via the turbine flow meter a second pressure of the liquid in the tank using correlation information to convert a liquid flow rate through the turbine flow meter to the second pressure; determining if the first pressure is within a specified range of deviation from the second pressure to determine an operational state of the turbine flow meter; and based on the operational state of the turbine flow meter, transmitting a diagnostic message indicating that the turbine flow meter needs to be serviced based on the state of the turbine flow meter. determining via a sensor a first pressure of a liquid in a tank; determining via the turbine flow meter a second pressure of the liquid in the tank using correlation information to convert a liquid flow rate through the turbine flow meter to the second pressure; determining if the first pressure is within a specified range of deviation from the second pressure to determine an operational state of the turbine flow meter; and based on the operational state of the turbine flow meter, transmitting a diagnostic message indicating that the turbine flow meter needs to be serviced based on the state of the turbine flow meter.
A method implemented by a network element to improve load sharing for a link aggregation group by redistributing data flows to less congested ports in a set of ports associated with the link aggregation group, the method comprising the steps of: receiving a data packet in a data flow at an ingress port of the network element; performing a load sharing process to select an egress port of the network element; checking whether the selected egress port is congested; checking whether a time since a previous data packet in the data flow was received exceeds a threshold value; identifying a less congested egress port in the set of ports; updating a flow table to bind the data flow to the less congested egress port; and forwarding the data packet to the less congested egress port. receiving a data packet in a data flow at an ingress port of the network element; performing a load sharing process to select an egress port of the network element; checking whether the selected egress port is congested; checking whether a time since a previous data packet in the data flow was received exceeds a threshold value; identifying a less congested egress port in the set of ports; updating a flow table to bind the data flow to the less congested egress port; and forwarding the data packet to the less congested egress port.
An attachment for a motor vehicle, the attachment comprising at least one antenna for transmitting and/or receiving radio signals, the antenna having a conductor path (8, 9), wherein the attachment and the at least one conductor path (8, 9) of the antenna are configured as an injection-molded interconnect device, characterized in that the attachment is configured as a mirror base of an interior rear mirror and has a prismatic hollow shape, whereby the conductor path (8, 9) is electrically connected to a coaxial cable, at least a portion of the coaxial cable being a component of the injection-molded interconnect device.
Method for detecting an obstacle (22-H) during a working operation of a tractor-implement combination, wherein an object is detected and a detected object is detected as an obstacle (22-H) depending on a predetermined classification parameter for classifying the detected object and a predetermined working parameter of the tractor and/or the implement, wherein the classification parameter is a size (V_obj) of the object corresponding to one or more size categories, characterized in that the size categories are classified as an obstacle or not an obstacle depending on the specific working operation, the tractor type and/or the implement type.
Combination of a tray and a cleaning device for cleaning surfaces, wherein the cleaning device comprises a head having an open side for facing surfaces to be cleaned, and at least one brush (22, 23) for contacting surfaces to be cleaned, which is rotatably arranged in the head, wherein the tray is adapted to receive and accommodate at least a portion of the head of the cleaning device, and to cover the open side of the head, wherein the tray comprises a bottom part and standing walls connected to the bottom part, wherein the bottom part serves for supporting the head of the cleaning device, wherein the standing walls jointly serve for encompassing the head of the cleaning device, wherein the tray comprises two areas (3, 4) which are separated by a barrier protruding from the bottom part, wherein one of the areas (3, 4) is an elevated portion which is arranged on the bottom part, and which is located at the position on the bottom part where the at least one brush (22, 23) of the cleaning device is present when the cleaning device is in place on the tray, and wherein the tray is adapted to receive and contain liquid, at least in another of the areas (3, 4).