mhurhangee/ep-ind-claims huggingface dataset:
A bidet, comprising: a drier disposed in an inside of a frame and blowing air, wherein the drier includes a blower generating air flow, a drying duct connected to the blower and providing a passage through which air generated by the blower flows, and a guide member disposed on a side of the drying duct and guiding the air to a discharge port or the inside of the frame, wherein the frame comprises a humidity sensor and a control unit, characterized in that, the humidity sensor is disposed in the inside of the frame, and the control unit transmits a signal of the humidity sensor to the guide member, disposed in the inside of the frame, wherein the humidity sensor measures humidity in the inside of the frame and transmits the measured humidity value to the control unit as an electrical signal, in a case in which the humidity value measured is higher than a predetermined humidity value. a drier disposed in an inside of a frame and blowing air, wherein the drier includes a blower generating air flow, a drying duct connected to the blower and providing a passage through which air generated by the blower flows, and a guide member disposed on a side of the drying duct and guiding the air to a discharge port or the inside of the frame, wherein the frame comprises a humidity sensor and a control unit, characterized in that, the humidity sensor is disposed in the inside of the frame, and the control unit transmits a signal of the humidity sensor to the guide member, disposed in the inside of the frame, wherein the humidity sensor measures humidity in the inside of the frame and transmits the measured humidity value to the control unit as an electrical signal, in a case in which the humidity value measured is higher than a predetermined humidity value.
Internal combustion engine with a fuel supply device, wherein the fuel supply device comprises a fuel pump, a pressure damper and an injector, wherein the pressure damper has a damping diaphragm which separates a damping chamber from a back chamber, wherein a first reference pressure is applied to the back chamber of pressure damper, and wherein the fuel supply device has a pressure regulator, characterised in that the pressure regulator controls the pressure of the fuel delivered by the fuel pump to the injector on the basis of a second reference pressure of the pressure regulator, and in that the first reference pressure and the second reference pressure are matched to each other.
A method for printing a pouch filled with a washing or cleaning agent and made of a water-soluble or water-dispersible film with an imprint by means of a pad printing method, characterized in that the method comprises the steps of: (i) applying an ink or medium containing a chromophoric substance to a printing plate; (ii) wiping off excess ink or excess medium using a doctor blade; (iii) pressing the pad, which has a Shore A hardness in the range 0-20, preferably in the range 0-15, onto the printing plate, the ink or medium being transferred from the printing plate onto the pad, and (iv) pressing the pad onto the pouch, the ink or medium being transferred from the pad onto the pouch; the ink or medium being water-soluble and the pouch being fixed in a holder which is the lower part of the mold already used for shaping and/or filling the pouch. (i) applying an ink or medium containing a chromophoric substance to a printing plate; (ii) wiping off excess ink or excess medium using a doctor blade; (iii) pressing the pad, which has a Shore A hardness in the range 0-20, preferably in the range 0-15, onto the printing plate, the ink or medium being transferred from the printing plate onto the pad, and (iv) pressing the pad onto the pouch, the ink or medium being transferred from the pad onto the pouch;
Spray nozzle having a nozzle housing, at least one swirl chamber (14, 16) which is disposed in the nozzle housing, and at least one exit opening (18, 20), wherein the exit opening (18, 20) is disposed at the end of an exit duct (22, 24) which emanates from the swirl chamber (14, 16) and widens in the direction towards the exit opening (18, 20), wherein a constriction is disposed at the transition from the swirl chamber (14, 16) to the exit duct (22, 24), wherein the angle of the wall of the exit duct, starting from the constriction, steadily increases in the direction towards the exit opening (18, 20) or in portions remains identical, wherein the shape of the exit opening (18, 20) deviates from a circular shape, wherein the angle of the wall of the exit duct (22, 24) at the exit opening (18, 20), when viewed in the circumferential direction of the exit opening (18, 20), is not constant, and wherein a connector for a liquid to be sprayed is provided, and the liquid to be sprayed is supplied via the connector to the at least one swirl chamber in a tangential manner, characterized in that the exit duct (22, 24) at the transition from the swirl chamber (14, 16) to the exit duct (22, 24) has a circular cross section.
Patch comprising a layer composition, wherein the layer composition comprises at least - a backing liner, - a matrix layer comprising an onion extract, and - an acrylate based polymer, or - a thermoplastic hot melt adhesive (B*), - and a release liner, wherein the matrix layer is disposed between the backing liner and the release liner such that the matrix layer is contacted by the backing liner and the release liner on opposite sides thereof, wherein the release liner is releasable from the matrix layer. - a backing liner, - a matrix layer comprising an onion extract, and - an acrylate based polymer, or - a thermoplastic hot melt adhesive (B*), - an acrylate based polymer, or - a thermoplastic hot melt adhesive (B*), - and a release liner, wherein
An ultrasound imaging system, comprising: a transducer array configured:- to emit an ultrasound beam, to produce at least one transverse pulse-echo field that oscillates in a direction transverse to the emitted ultrasound beam, and to receive echoes produced in response thereto; a first spectral velocity estimator configured to determine an axial velocity of a flowing structure from a frequency of the emitted ultrasound beam, a measured frequency and the speed of sound, and to apply a Fourier transform to the axial velocity to determine a velocity spectrum; and a second spectral velocity estimator configured to determine, based on a transverse oscillation approach, a power density spectrum for the flowing structure using the received echoes; and a spectral velocity estimation selector configured to select the velocity spectrum for display as a first velocity distribution as a function of time when the angle between the velocity vector of the flowing structure and the ultrasound beam is in a range from between zero and seventy degrees, and, to select the power density spectrum for display as a second velocity distribution as a function of time when the angle is greater than seventy degrees. a transducer array configured:- to emit an ultrasound beam, to produce at least one transverse pulse-echo field that oscillates in a direction transverse to the emitted ultrasound beam, and to receive echoes produced in response thereto; to emit an ultrasound beam, to produce at least one transverse pulse-echo field that oscillates in a direction transverse to the emitted ultrasound beam, and to receive echoes produced in response thereto; a first spectral velocity estimator configured to determine an axial velocity of a flowing structure from a frequency of the emitted ultrasound beam, a measured frequency and the speed of sound, and to apply a Fourier transform to the axial velocity to determine a velocity spectrum; and a second spectral velocity estimator configured to determine, based on a transverse oscillation approach, a power density spectrum for the flowing structure using the received echoes; and a spectral velocity estimation selector configured to select the velocity spectrum for display as a first velocity distribution as a function of time when the angle between the velocity vector of the flowing structure and the ultrasound beam is in a range from between zero and seventy degrees, and, to select the power density spectrum for display as a second velocity distribution as a function of time when the angle is greater than seventy degrees.
A method for use in user equipment comprising first and second radio components, comprising: detecting at a first radio component on the UE, in-device coexistence interference, wherein the in-device coexistence interference is caused by a second radio component on the UE; and sending an IDC interference indication message over a random access channel (RACH) to a radio access network where sending the IDC interference indication message comprises sending a dedicated access preamble including an explicit IDC indicator or a dedicated access IDC preamble for the random access channel to the radio access network, wherein the dedicated access preamble and the dedicated access IDC preamble provide an indication of IDC interference detected at the UE. detecting at a first radio component on the UE, in-device coexistence interference, wherein the in-device coexistence interference is caused by a second radio component on the UE; and sending an IDC interference indication message over a random access channel (RACH) to a radio access network where sending the IDC interference indication message comprises sending a dedicated access preamble including an explicit IDC indicator or a dedicated access IDC preamble for the random access channel to the radio access network, wherein the dedicated access preamble and the dedicated access IDC preamble provide an indication of IDC interference detected at the UE.
Tank for a heated gas humidifier used to humidify gas coming from a medical breathing assistance apparatus comprising a water tank comprising a peripheral wall and a bottom provided with a metal plate, and a cover arranged on the tank and integral with the peripheral wall of said tank, with the cover further comprising a gas inlet orifice in fluid communication with a conduit element, with the conduit element projecting into the inner volume of the tank in the direction of the peripheral wall of said tank, and comprising a free end provided with an outlet mouth, characterised in that: - the cover further comprises a gas outlet chamber delimited by the outer wall of the cover and an inner deflector-wall, - said inner deflector-wall is located between the conduit element and the outer wall of the cover, and - said outlet chamber is in fluid communication with the inner volume of the tank and further comprises a gas outlet orifice, and one or more gas inlet windows that put into fluid communication said gas outlet chamber with the inner volume of the tank, said gas inlet window(s) being located between the deflector-wall and the outer wall of the cover. - the cover further comprises a gas outlet chamber delimited by the outer wall of the cover and an inner deflector-wall, - said inner deflector-wall is located between the conduit element and the outer wall of the cover, and - said outlet chamber is in fluid communication with the inner volume of the tank and further comprises a gas outlet orifice, and one or more gas inlet windows that put into fluid communication said gas outlet chamber with the inner volume of the tank, said gas inlet window(s) being located between the deflector-wall and the outer wall of the cover.
A method of identifying the differences in shape and the physical contact characteristics between an object (216, 316, 1016) and a body part (932, 1032) which is engageable with the object (216, 316, 1016), said method comprising the steps of: scanning the object (216, 316, 1016) with radiation in order to produce a surface map of the object (216, 316, 1016), attaching a plurality of bio-sensors to at least one of a surface of the object (216, 316) or to a surface of the body part (932, 1032) at locations which are known relative to a reference point, engaging the body part with the object (216, 316), collecting bio-sensor data from the bio-sensors to record information on the engagement between the body part and the object over the surface of the object, and superimposing the data from the bio-sensors over the surface map of the object (216, 316) in order to identify areas of the object (216, 316, 1016) which need to be adjusted in order to improve the fit of the body part (932, 1032) with the object (216, 316, 1016). scanning the object (216, 316, 1016) with radiation in order to produce a surface map of the object (216, 316, 1016), attaching a plurality of bio-sensors to at least one of a surface of the object (216, 316) or to a surface of the body part (932, 1032) at locations which are known relative to a reference point, engaging the body part with the object (216, 316), collecting bio-sensor data from the bio-sensors to record information on the engagement between the body part and the object over the surface of the object, and superimposing the data from the bio-sensors over the surface map of the object (216, 316) in order to identify areas of the object (216, 316, 1016) which need to be adjusted in order to improve the fit of the body part (932, 1032) with the object (216, 316, 1016).
A coating composition, comprising: an acrylic polymer comprising a quaternary ammonium moiety, a carboxyl moiety and a nonionic monomer unit, wherein the coating composition further comprises zirconium salt. an acrylic polymer comprising a quaternary ammonium moiety, a carboxyl moiety and a nonionic monomer unit, wherein the coating composition further comprises zirconium salt.
A method for automatically adjusting a multiple-input-port and multiple-output-port tuning unit in an automatic tuning system, comprising m user ports (712, 722, 732, 742) to n target ports (911, 921, 931, 941), where m is an integer greater than or equal to 2 and n is an integer greater than or equal to 2, allowing, at a predetermined frequency, a transfer of power from the m user ports to the n target ports, the method comprising the steps of: applying m excitations to the m user ports, wherein to each user port is applied one of the m excitations; detecting, by a signal processing unit, the m excitations applied to the m user ports; obtaining, by the signal processing unit, q real quantities depending on a first impedance matrix seen by the n target ports, where q is an integer greater than or equal to m, using sensing output signals detected for the m excitations applied to the m user ports, and transmitting, by a signal processing unit, tuning control signals corresponding to the q real quantities depending on the first impedance matrix to a tuning control unit; and transmitting, by the tuning control unit, each of the tuning control signals to a plurality of adjustable impedance devices of the multiple-input-port and multiple-output-port tuning unit, wherein each of the plurality of adjustable impedance devices of the multiple-input-port and multiple-output-port tuning unit has a reactance, and the reactance of each of the plurality of adjustable impedance devices is determined by the tuning control signals, wherein each of the m excitations have one and only one complex envelope, and wherein m complex envelopes are linearly independent in a set of complex functions of one real variable, regarded as a vector space over a field of complex numbers. applying m excitations to the m user ports, wherein to each user port is applied one of the m excitations; detecting, by a signal processing unit, the m excitations applied to the m user ports; obtaining, by the signal processing unit, q real quantities depending on a first impedance matrix seen by the n target ports, where q is an integer greater than or equal to m, using sensing output signals detected for the m excitations applied to the m user ports, and transmitting, by a signal processing unit, tuning control signals corresponding to the q real quantities depending on the first impedance matrix to a tuning control unit; and transmitting, by the tuning control unit, each of the tuning control signals to a plurality of adjustable impedance devices of the multiple-input-port and multiple-output-port tuning unit, wherein each of the plurality of adjustable impedance devices of the multiple-input-port and multiple-output-port tuning unit has a reactance, and the reactance of each of the plurality of adjustable impedance devices is determined by the tuning control signals, wherein each of the m excitations have one and only one complex envelope, and wherein m complex envelopes are linearly independent in a set of complex functions of one real variable, regarded as a vector space over a field of complex numbers.
A hydraulic arrangement for lifting and/or lowering at least one implement carrying arm on an agricultural machine, said arrangement comprising an inlet hydraulic line and an outlet hydraulic line connecting a fluid pump and a fluid reservoir respectively to a first valve means, said arrangement comprising at least one dual acting hydraulic cylinder for lifting/and or lowering the implement carrying arm wherein a piston end and a cap end of the at least one cylinder is connected to the first valve means allowing the cylinder to be switched between a single acting mode for lifting a light implement attached to the arm, a single acting mode for lifting a heavy implement attached to the carrying arm and a double acting mode for lifting and lowering an implement attached to the arm, characterised in that the inlet and outlet lines (25, 27) are connected to a second valve means, said second valve means being adjustable to connect the pump to the inlet line and the reservoir to the outlet line and adjustable to connect the pump to the outlet line and the inlet line to the reservoir.
A dimming device comprising: a first substrate; a second substrate, disposed facing the first substrate, which external light enters; a first electrode formed on top of the first substrate; a dimming layer formed on top of the first electrode, wherein the dimming layer is an electrochromic material layer; a second electrode formed on top of at least the dimming layer; a moisture-retaining member that covers at least the second electrode and faces the second substrate; and a sealing member (733, 734), configured as a moisture barrier layer, provided in an edge portion of the first substrate, wherein a moisture-retaining member extending portion that extends from the moisture-retaining member is disposed between the sealing member (733, 734) and the second substrate such that an edge face of the moisture-retaining member extending portion forms a part of the side face of the dimming device, and a thickness of the moisture-retaining member extending portion is thinner than a thickness of the moisture-retaining member in a central portion of the dimming device; wherein the second electrode is formed extending over from the dimming layer to the first substrate, and separated from the first electrode, and the moisture-retaining member covers at least the second electrode and the dimming layer. a first substrate; a second substrate, disposed facing the first substrate, which external light enters; a first electrode formed on top of the first substrate; a dimming layer formed on top of the first electrode, wherein the dimming layer is an electrochromic material layer; a second electrode formed on top of at least the dimming layer; a moisture-retaining member that covers at least the second electrode and faces the second substrate; and a sealing member (733, 734), configured as a moisture barrier layer, provided in an edge portion of the first substrate, wherein a moisture-retaining member extending portion that extends from the moisture-retaining member is disposed between the sealing member (733, 734) and the second substrate such that an edge face of the moisture-retaining member extending portion forms a part of the side face of the dimming device, and a thickness of the moisture-retaining member extending portion is thinner than a thickness of the moisture-retaining member in a central portion of the dimming device; wherein the second electrode is formed extending over from the dimming layer to the first substrate, and separated from the first electrode, and the moisture-retaining member covers at least the second electrode and the dimming layer.
A computer implemented method for generating a weather forecast, the method comprising: receiving weather data; selecting, based on the weather data, a precipitation type most likely to occur in a location; generating, based on the weather data, a plurality of rate probabilities, wherein each of the plurality of rate probabilities indicates a likelihood that precipitation will occur in the location at a corresponding precipitation rate of a plurality of precipitation rates; generating a plurality of result probabilities based on the precipitation type and the plurality of rate probabilities, wherein the plurality of result probabilities indicates likelihoods that the precipitation type will occur at each of the plurality of precipitation rates; and outputting a forecast indicating at least one of the plurality of result probabilities. receiving weather data; selecting, based on the weather data, a precipitation type most likely to occur in a location; generating, based on the weather data, a plurality of rate probabilities, wherein each of the plurality of rate probabilities indicates a likelihood that precipitation will occur in the location at a corresponding precipitation rate of a plurality of precipitation rates; generating a plurality of result probabilities based on the precipitation type and the plurality of rate probabilities, wherein the plurality of result probabilities indicates likelihoods that the precipitation type will occur at each of the plurality of precipitation rates; and outputting a forecast indicating at least one of the plurality of result probabilities.