mhurhangee/ep-ind-claims huggingface dataset:
Composition comprising formic acid as an active ingredient and a softening agent or emollient for use in the treatment of fungal infections of the skin and/or nail(s) of mammals, wherein the concentration of formic acid is within the range of from 10 to 90 % by weight; wherein said softening agent or emollient is glycerol; and wherein said composition is applied by coating the affected area.
Stroller frame, comprising at least one electric motor (18a, 18b), for preferably assistively driving the stroller frame, at least one wheel connecting device, in particular wheel axle, preferably rear wheel axle, and at least one battery module which is connected or can be connected to the wheel connecting device and in the assembled state is arranged at least partly outside the wheel connecting device, wherein the battery module - is arranged at least predominantly below a level of an upper end of the wheel connecting device and/or - is arranged at least partly below the wheel connecting device and/or - has a height and/or a diameter which is/are at most 1.5 times as large as a height or a diameter of the wheel connecting device, characterized in that the battery module extends over at least half of a wheel distance of the wheels connected by the wheel connecting device and/or a length of the wheel connecting device,wherein the battery module can be removed from the wheel connecting device. at least one electric motor (18a, 18b), for preferably assistively driving the stroller frame, at least one wheel connecting device, in particular wheel axle, preferably rear wheel axle, and at least one battery module which is connected or can be connected to the wheel connecting device and in the assembled state is arranged at least partly outside the wheel connecting device, wherein the battery module - is arranged at least predominantly below a level of an upper end of the wheel connecting device and/or - is arranged at least partly below the wheel connecting device and/or - has a height and/or a diameter which is/are at most 1.5 times as large as a height or a diameter of the wheel connecting device, characterized in that the battery module extends over at least half of a wheel distance of the wheels connected by the wheel connecting device and/or a length of the wheel connecting device,wherein the battery module can be removed from the wheel connecting device. - is arranged at least predominantly below a level of an upper end of the wheel connecting device and/or - is arranged at least partly below the wheel connecting device and/or - has a height and/or a diameter which is/are at most 1.5 times as large as a height or a diameter of the wheel connecting device, characterized in that the battery module extends over at least half of a wheel distance of the wheels connected by the wheel connecting device and/or a length of the wheel connecting device,wherein the battery module can be removed from the wheel connecting device.
A draper cutting unit, comprising: - a frame with a centre segment having at least one continuously revolving centre belt and two side segments respectively having at least one laterally conveying continuously revolving side belt, wherein the centre belt as well as the side belts are respectively provided on their material-conveying upper belt face with equidistantly disposed conveying ribs (14; 16) which are disposed perpendicular to the respective conveying direction of the centre belt or the side belts, as well as a cutter bar which extends substantially over the width of the draper cutting unit, characterized in that each conveying rib of the centre belt is respectively constructed with side ribs which extend parallel to the outer edges of the centre belt and which are directly connected to an outer end of the respective conveying rib by an inclined transition section, wherein the side ribs respectively extend in sections in the conveying direction of the centre belt. - a frame with a centre segment having at least one continuously revolving centre belt and two side segments respectively having at least one laterally conveying continuously revolving side belt, wherein the centre belt as well as the side belts are respectively provided on their material-conveying upper belt face with equidistantly disposed conveying ribs (14; 16) which are disposed perpendicular to the respective conveying direction of the centre belt or the side belts, as well as a cutter bar which extends substantially over the width of the draper cutting unit,
A rotary device for fluid power generation, comprising: a rotary shaft body substantially parallel to a flow direction of a fluid; a rotary body (3, 3', 3") capable of rotating about said rotary shaft body in a rotational plane substantially orthogonal to the flow direction of the fluid; and a wake body that is a distance away from said rotary body (3, 3', 3") toward a downstream side of the flow direction of the fluid, and has at least two crossover sections (15, 16, 72, 84) at which said wake body intersects with said rotary body (3, 3', 3"), said wake body being a ring-shaped body, at least a part of said rotary body (3, 3', 3") that intersects with said wake body at said crossover sections (15, 16, 72, 84) being formed as a columnar body having cross-sections of circular shapes, polygonal shapes or noncircular shapes, characterized in that the rotational plane of said rotary body (3, 3', 3") is substantially parallel to a flat surface of said wake body that receives a current of the fluid, that said wake body has the flat surface toward said rotary body (3, 3', 3") and that a separation distance between said rotary body (3, 3', 3") and said ring-shaped body is formed so that said crossover sections (15, 16, 72, 84) allow longitudinal vortex (21, 23) to be generated in said separation distance, which constitutes conditions for generating longitudinal vortex (21, 23) to rotate said rotary body (3, 3', 3") about said rotary shaft body. a rotary shaft body substantially parallel to a flow direction of a fluid; a rotary body (3, 3', 3") capable of rotating about said rotary shaft body in a rotational plane substantially orthogonal to the flow direction of the fluid; and a wake body that is a distance away from said rotary body (3, 3', 3") toward a downstream side of the flow direction of the fluid, and has at least two crossover sections (15, 16, 72, 84) at which said wake body intersects with said rotary body (3, 3', 3"), said wake body being a ring-shaped body, at least a part of said rotary body (3, 3', 3") that intersects with said wake body at said crossover sections (15, 16, 72, 84) being formed as a columnar body having cross-sections of circular shapes, polygonal shapes or noncircular shapes, characterized in that the rotational plane of said rotary body (3, 3', 3") is substantially parallel to a flat surface of said wake body that receives a current of the fluid, that said wake body has the flat surface toward said rotary body (3, 3', 3") and that a separation distance between said rotary body (3, 3', 3") and said ring-shaped body is formed so that said crossover sections (15, 16, 72, 84) allow longitudinal vortex (21, 23) to be generated in said separation distance, which constitutes conditions for generating longitudinal vortex (21, 23) to rotate said rotary body (3, 3', 3") about said rotary shaft body.
Household appliance, in particular household dishwasher, having at least one connector for electrical contacting, wherein the connector comprises a body for mechanically retaining one or more electrically conductive contact(s), which are accessible on at least one exit side for contacting, wherein the body is constructed from at least two different components (20; 21), of which a first component at least substantially forming the exit side is made from a fire-retardant plastic, wherein the melting temperature of the material of the first component exceeds 260°C, wherein a second component has a lower ignition position and a greater elasticity compared with the first component and wherein the first component takes up the main share of the volume of the connector.
System for cleaning a vehicle-mounted optic surface, comprising: a washing liquid nozzle and a liquid flow control device communicated with the washing liquid nozzle for controlling the flow of liquid therethrough, an air nozzle and an airflow control device communicated with the air nozzle and wherein the air flow control device is adapted to be opened and closed for controlling the flow of air therethrough, an air pump having an inlet opening and an outlet opening, wherein the outlet opening is communicated with the air flow control device, a washing liquid conduit connected with the liquid flow control device, wherein the air pump includes a variable volume compression chamber to pressurize a volume of air, said compression chamber being communicated with the outlet opening, characterized in that the washing liquid conduit is additionally communicated with the air pump inlet opening, such that the air pump can be operated by a flow of pressurized washing liquid. a washing liquid nozzle and a liquid flow control device communicated with the washing liquid nozzle for controlling the flow of liquid therethrough, an air nozzle and an airflow control device communicated with the air nozzle and wherein the air flow control device is adapted to be opened and closed for controlling the flow of air therethrough, an air pump having an inlet opening and an outlet opening, wherein the outlet opening is communicated with the air flow control device, a washing liquid conduit connected with the liquid flow control device, wherein the air pump includes a variable volume compression chamber to pressurize a volume of air, said compression chamber being communicated with the outlet opening, characterized in that the washing liquid conduit is additionally communicated with the air pump inlet opening, such that the air pump can be operated by a flow of pressurized washing liquid.
Sensor unit having a sensor, sensor electronics connected to the sensor and a first connection unit which is connected to the sensor electronics, wherein the sensor, the sensor electronics and the first connection unit are arranged in a tubular housing and wherein the first connection unit is able to be contacted with a correspondingly formed second connection unit, characterised in that a moulded part having an inner contour is arranged in the housing in a non-rotatable manner, wherein the inner contour of the moulded part and an outer contour of the first connection unit are formed to at least partially correspond to each other, wherein the inner contour has at least one holding section which is formed in such a way that rotation of the first connection unit relative to the moulded part is prevented.
Method for reconstituting a diagram of an electrical installation comprising a plurality of electrical elements connected to a source of power via protective elements arranged in an electrical panel, characterized in that it comprises the following steps: automatically identifying the wired electrical elements of the installation by image recognition using a photo of the electrical panel, automatically determining by means of a calculation module the tree structure of the electrical connections of the elements identified and the position of each element in said tree structure, deducing an electrical diagram of the installation using the tree structure of the electrical connections and the position of each element in said tree structure, the determination of the tree structure of the electrical connections and of the position of each element in said tree structure comprising the following steps: locating at least one output terminal and at least one input terminal on each element identified, verifying the electrical continuity between the output terminal of the first element identified and the input terminal of the second element identified by a detection of a current injected on the output terminal of the first element, determining the relative position of the second element with respect to the first element by a current measurement at a test point located downstream of the output terminal of the first element. automatically identifying the wired electrical elements of the installation by image recognition using a photo of the electrical panel, automatically determining by means of a calculation module the tree structure of the electrical connections of the elements identified and the position of each element in said tree structure, deducing an electrical diagram of the installation using the tree structure of the electrical connections and the position of each element in said tree structure, the determination of the tree structure of the electrical connections and of the position of each element in said tree structure comprising the following steps: locating at least one output terminal and at least one input terminal on each element identified, verifying the electrical continuity between the output terminal of the first element identified and the input terminal of the second element identified by a detection of a current injected on the output terminal of the first element, determining the relative position of the second element with respect to the first element by a current measurement at a test point located downstream of the output terminal of the first element. locating at least one output terminal and at least one input terminal on each element identified, verifying the electrical continuity between the output terminal of the first element identified and the input terminal of the second element identified by a detection of a current injected on the output terminal of the first element, determining the relative position of the second element with respect to the first element by a current measurement at a test point located downstream of the output terminal of the first element.
A swimming pool protection assembly comprising a shutter configured to cover a swimming pool basin, and a shutter cover comprising a holding system for holding the cover on the shutter, characterized in that the holding system comprises at least one holding element arranged to retain the cover on the shutter by gravity, the holding system further comprises a fastening element arranged to fasten the holding element to the cover, the fastening element comprising a flexible link which is fastened to the holding element and a retaining element which is connected to the flexible link, the retaining element being arranged to removably connect the holding element to the cover.
A method of monitoring and reporting the condition of an air filter installed in a powered air-handling system, the method comprising: wirelessly receiving pressure information representative of at least a downstream pressure of the powered air-handling system, the information originating from at least one pressure sensor; characterized by wirelessly receiving information regarding the filtration characteristics of an air filter media of the air filter, from a source that is locally-resident on the air filter; and, generating an indication of a condition of the air filter, as a function of the pressure information in combination with the information regarding the filtration characteristics of the air filter media, wherein the source that is locally-resident on the air filter is an RFID tag that is mounted on the air filter or a bar code that is mounted on the air filter. wirelessly receiving pressure information representative of at least a downstream pressure of the powered air-handling system, the information originating from at least one pressure sensor; characterized by wirelessly receiving information regarding the filtration characteristics of an air filter media of the air filter, from a source that is locally-resident on the air filter; and, generating an indication of a condition of the air filter, as a function of the pressure information in combination with the information regarding the filtration characteristics of the air filter media, wherein the source that is locally-resident on the air filter is an RFID tag that is mounted on the air filter or a bar code that is mounted on the air filter.
A cooling device comprising a body that has an inner wall, an outer wall, an insulation volume between the inner wall and the outer wall and an insulation material filled into the insulation volume, wherein - the insulation material comprises rigid polyurethane that is pulverized so as to reduce the cell size thereof, characterized in that - the insulation material is polyurethane and is produced by mixing closed-cell rigid polyurethane, the particle size of which is reduced, with polyol and pentane that are components of the rigid polyurethane, - the insulation material comprises the pulverized rigid polyurethane in a ratio between 0.5% and 25% by weight that serves as a heterogeneous nucleation agent. - the insulation material comprises rigid polyurethane that is pulverized so as to reduce the cell size thereof, characterized in that - the insulation material is polyurethane and is produced by mixing closed-cell rigid polyurethane, the particle size of which is reduced, with polyol and pentane that are components of the rigid polyurethane, - the insulation material comprises the pulverized rigid polyurethane in a ratio between 0.5% and 25% by weight that serves as a heterogeneous nucleation agent.
A device for updating an initial backoff parameter, ECW min, the device comprising: a monitoring stage, configured to monitor, during a monitoring interval, a plurality of data transmissions of a plurality of WLAN devices; an identification stage, configured to identify a number of successful data transmissions from the plurality of data transmissions, wherein the identification stage is configured to identify for each successful data transmission (402, 406, 410) a respective backoff parameter; a weighting stage, configured to weight the initial backoff parameter, ECW min, of the monitoring interval with a weighting function to provide a weighted backoff parameter, ECW AVR, wherein the weighting stage is configured to average the backoff parameters identified for each successful data transmission (402, 406, 410) to provide the weighted backoff parameter, ECW AVR; and an updating stage, configured to update the initial backoff parameter, ECW min, for a next monitoring interval based on the weighted backoff parameter, ECW AVR. a monitoring stage, configured to monitor, during a monitoring interval, a plurality of data transmissions of a plurality of WLAN devices; an identification stage, configured to identify a number of successful data transmissions from the plurality of data transmissions, wherein the identification stage is configured to identify for each successful data transmission (402, 406, 410) a respective backoff parameter; a weighting stage, configured to weight the initial backoff parameter, ECW min, of the monitoring interval with a weighting function to provide a weighted backoff parameter, ECW AVR, wherein the weighting stage is configured to average the backoff parameters identified for each successful data transmission (402, 406, 410) to provide the weighted backoff parameter, ECW AVR; and an updating stage, configured to update the initial backoff parameter, ECW min, for a next monitoring interval based on the weighted backoff parameter, ECW AVR.
Valve arrangement for a fluid-conducting system (18, 21) which produces or is capable of producing a fluid connection between a patient-side coupling unit (26, 27) and a respiratory device, wherein the valve arrangement comprises - a shut-off unit, - a locking unit, - a patient-side port, and - a device-side port, wherein the shut-off unit is movable to and fro between at least one open position and a closure position, wherein - a fluid communication between the two ports (3, 4) of the valve arrangement is produced when the shut-off unit is in the or an open position, and - said fluid communication is interrupted or at least restricted when the shut-off unit is in the closure position, wherein the locking unit - in an open locking state locks the shut-off unit in the or an open position, and - in a closure locking state locks the shut-off unit in the closure position, and wherein the valve arrangement is configured so as, whenever the shut-off unit is in the closure position and, in addition, a pressure above a specified pressure limit prevails at the patient-side port, to move the shut-off unit into the or an open position automatically and counter to a locking effect of the locking unit. - a shut-off unit, - a locking unit, - a patient-side port, and - a device-side port, wherein the shut-off unit is movable to and fro between at least one open position and a closure position, wherein wherein the shut-off unit is movable to and fro between at least one open position and a closure position, wherein - a fluid communication between the two ports (3, 4) of the valve arrangement is produced when the shut-off unit is in the or an open position, and - said fluid communication is interrupted or at least restricted when the shut-off unit is in the closure position, wherein the locking unit - in an open locking state locks the shut-off unit in the or an open position, and - in a closure locking state locks the shut-off unit in the closure position, and wherein the valve arrangement is configured so as, whenever the shut-off unit is in the closure position and, in addition, a pressure above a specified pressure limit prevails at the patient-side port, to move the shut-off unit into the or an open position automatically and counter to a locking effect of the locking unit. wherein the valve arrangement is configured so as, whenever the shut-off unit is in the closure position and, in addition, a pressure above a specified pressure limit prevails at the patient-side port, to move the shut-off unit into the or an open position automatically and counter to a locking effect of the locking unit.
A trench cutting apparatus (200, 1000) comprising: a central support element (202, 1002) comprising at least one jetting outlet (214, 1014); and a cutting element (204, 1004) configured to be driven around the central support element (202, 1002); wherein the trench cutting apparatus (200, 1000) is configured to be operable in a mechanical cutting mode in which the cutting element (204, 1004) is driven around the central support element (202, 1002) to cut material forward of the trench cutting apparatus (200, 1000), and a jet cutting mode in which a pump is activated to eject fluid from the at least one jetting outlet (214, 1014) to fluidize or cut material forward of the trench cutting apparatus (200, 1000), characterised in that in the jet cutting mode the position of the cutting element (204, 1004) is fixed relative to the central support element (202, 1002). a central support element (202, 1002) comprising at least one jetting outlet (214, 1014); and a cutting element (204, 1004) configured to be driven around the central support element (202, 1002); wherein the trench cutting apparatus (200, 1000) is configured to be operable in a mechanical cutting mode in which the cutting element (204, 1004) is driven around the central support element (202, 1002) to cut material forward of the trench cutting apparatus (200, 1000), and a jet cutting mode in which a pump is activated to eject fluid from the at least one jetting outlet (214, 1014) to fluidize or cut material forward of the trench cutting apparatus (200, 1000), characterised in that in the jet cutting mode the position of the cutting element (204, 1004) is fixed relative to the central support element (202, 1002).