mhurhangee/patent-ind-claim-en huggingface dataset:
Screw vacuum pump, comprising a housing forming a suction chamber and two screw rotors arranged in the suction chamber, each comprising one rotor shaft and at least two displacement elements connected with the rotor shaft , each having at least one helical recess , wherein a suction-side displacement element is designed tapering in the conveying direction , and a pressure-side displacement element is designed substantially cylindrically, characterized in that the interior volume ratio is greater than 6, the internal volume ratio being the ratio of the volume at the inlet of the vacuum pump to the volume at the outlet of the vacuum pump. comprising a housing forming a suction chamber and two screw rotors arranged in the suction chamber, each comprising one rotor shaft and at least two displacement elements connected with the rotor shaft , each having at least one helical recess , each comprising one rotor shaft and at least two displacement elements connected with the rotor shaft , each having at least one helical recess , wherein a suction-side displacement element is designed tapering in the conveying direction , and a pressure-side displacement element is designed substantially cylindrically, characterized in that the interior volume ratio is greater than 6, the internal volume ratio being the ratio of the volume at the inlet of the vacuum pump to the volume at the outlet of the vacuum pump.
A method of extending the color gamut of a 4-color process printing ink set having cyan, magenta, yellow and black primaries, comprising: shifting at least one of the cyan, magenta and yellow primaries, wherein the cyan is shifted from a hue angle near 234 degrees to a CIELAB metric hue angle less than about 220 degrees, and/or wherein the magenta primary is shifted from a hue angle of a few degrees above 0 degrees to a CIELAB metric hue angle less than 355 degrees, and/or wherein the yellow primary is shifted from a hue angle of 94 degrees to a CIELAB metric hue angle greater than 95 degrees; and adding at least one additional primary process color. shifting at least one of the cyan, magenta and yellow primaries, wherein the cyan is shifted from a hue angle near 234 degrees to a CIELAB metric hue angle less than about 220 degrees, and/or wherein the magenta primary is shifted from a hue angle of a few degrees above 0 degrees to a CIELAB metric hue angle less than 355 degrees, and/or wherein the yellow primary is shifted from a hue angle of 94 degrees to a CIELAB metric hue angle greater than 95 degrees; and adding at least one additional primary process color.
A wheel drive device comprising: an output member ; and a wheel that includes a wheel member whereby the wheel member is connected to the output member , wherein the output member and the wheel member include a spigot fitting portion in which an outer peripheral spigot surface and an inner peripheral spigot surface are spigot-fitted, characterized in that an anti-fretting agent is applied to the spigot fitting portion , and a seal member that prevents leakage of the anti-fretting agent is disposed between the output member and the wheel member . an output member ; and a wheel that includes a wheel member whereby the wheel member is connected to the output member , wherein the output member and the wheel member include a spigot fitting portion in which an outer peripheral spigot surface and an inner peripheral spigot surface are spigot-fitted, characterized in that an anti-fretting agent is applied to the spigot fitting portion , and a seal member that prevents leakage of the anti-fretting agent is disposed between the output member and the wheel member .
A core material of a magnetic carrier for an electrophotographic developer comprising spherical composite particles comprising at least ferromagnetic iron oxide fine particles and a cured phenol resin and having a volume-based average particle diameter of 1 to 100 μm, a resin index of the spherical composite particles being within the range of 40 to 80%, the resin index of spherical composite particles being measured according to the method as defined in the description.
A method, in a wireless device operating in a wireless network, for handling transitions from Radio Resource Control, RRC, connected state to an RRC inactive state, the method comprising: receiving , from the wireless network, a message indicating that the wireless device is to enter the RRC inactive state; and characterized in that responsive to the message, using , for inactive state operation, at least one previously stored inactive state parameter corresponding to a parameter omitted from the message, wherein the previously stored inactive state parameter is at least one of the following: a cell quality derivation parameter; and a measurement configuration parameter to be used in the RRC inactive state. receiving , from the wireless network, a message indicating that the wireless device is to enter the RRC inactive state; and characterized in that responsive to the message, using , for inactive state operation, at least one previously stored inactive state parameter corresponding to a parameter omitted from the message, wherein the previously stored inactive state parameter is at least one of the following: a cell quality derivation parameter; and a measurement configuration parameter to be used in the RRC inactive state. a cell quality derivation parameter; and a measurement configuration parameter to be used in the RRC inactive state.
A coated article comprising: a substrate; and an MCrAlY coating supported on the substrate, where the M includes at least one of nickel, cobalt, and iron, Cr is chromium, Al is aluminum, and Y is yttrium, the composition of the MCrAlY coating varying in an amount of at least one of Cr, Al, and Y by location on the substrate and with respect to localized property requirements, wherein the MCrAlY coating further includes at least one alloying element of tungsten (W), molybdenum (Mo), and zirconium (Zr), and the amount of the alloying element differs by location on the substrate and with respect to localized property requirements, and wherein the MCrAlY coating is functionally graded between locations that vary in composition, and wherein the localized property requirements are selected from the group consisting of corrosion resistance, erosion resistance, spallation resistance, fatigue resistance, oxidation resistance, creep resistance, impact resistance, and combinations thereof. a substrate; and an MCrAlY coating supported on the substrate, where the M includes at least one of nickel, cobalt, and iron, Cr is chromium, Al is aluminum, and Y is yttrium, the composition of the MCrAlY coating varying in an amount of at least one of Cr, Al, and Y by location on the substrate and with respect to localized property requirements, wherein the MCrAlY coating further includes at least one alloying element of tungsten (W), molybdenum (Mo), and zirconium (Zr), and the amount of the alloying element differs by location on the substrate and with respect to localized property requirements, and wherein the MCrAlY coating is functionally graded between locations that vary in composition, and wherein the localized property requirements are selected from the group consisting of corrosion resistance, erosion resistance, spallation resistance, fatigue resistance, oxidation resistance, creep resistance, impact resistance, and combinations thereof.
Industrial truck having a secondary coil for inductively receiving electrical power to charge a battery, wherein, as the battery, a traction battery of the industrial truck operated electrically by battery is charged by way of the received electrical power, and the secondary coil is arranged in a planar manner on one of the six external surfaces of the industrial truck , in particular a side surface or a bottom surface, and wherein a control unit of the industrial truck is configured to detect a signal level of the secondary coil and, from this signal level, to calculate position instructions for positioning the industrial truck at a charging station , characterized in that the control unit is configured to display driving instructions for a driver on a display apparatus and/or to autonomously perform driving commands to position the industrial truck in a charging station with the maximum signal level. wherein, as the battery, a traction battery of the industrial truck operated electrically by battery is charged by way of the received electrical power, and the secondary coil is arranged in a planar manner on one of the six external surfaces of the industrial truck , in particular a side surface or a bottom surface, and wherein a control unit of the industrial truck is configured to detect a signal level of the secondary coil and, from this signal level, to calculate position instructions for positioning the industrial truck at a charging station , characterized in that the control unit is configured to display driving instructions for a driver on a display apparatus and/or to autonomously perform driving commands to position the industrial truck in a charging station with the maximum signal level.
A converter network bridge controller for a power converter hardware being connectable to an alternating current electricity network , comprising: a three-phase alternating current to d-q converter which receives a measured current and provides a d-axis current component and a q-axis current component ; a filter being configured for receiving the q-axis current component and for providing in response hereto a filtered q-axis current component as a converter active current component ; an output unit configured for generating a quadrature voltage component reference to a PWM modulator which determines the switching of the power converter hardware , wherein the quadrature voltage component reference comprises a first signal and a second signal ; the output unit comprising a first part and a second part; the first part being configured for generating the first signal based on a current reference for an active current to be generated by the power converter hardware ; and the second part being configured for providing the second signal to reduce a difference between an converter active current component of measured feedback current and the current reference for active current ; the second part further comprising: a summing junction for subtracting the converter active current component and the current reference for an active current , and providing a resulting signal ; a proportional integral controller configured for receiving the resulting signal and providing the second signal . a three-phase alternating current to d-q converter which receives a measured current and provides a d-axis current component and a q-axis current component ; a filter being configured for receiving the q-axis current component and for providing in response hereto a filtered q-axis current component as a converter active current component ; an output unit configured for generating a quadrature voltage component reference to a PWM modulator which determines the switching of the power converter hardware , wherein the quadrature voltage component reference comprises a first signal and a second signal ; the output unit comprising a first part and a second part; the first part being configured for generating the first signal based on a current reference for an active current to be generated by the power converter hardware ; and the second part being configured for providing the second signal to reduce a difference between an converter active current component of measured feedback current and the current reference for active current ; the second part further comprising: a summing junction for subtracting the converter active current component and the current reference for an active current , and providing a resulting signal ; a proportional integral controller configured for receiving the resulting signal and providing the second signal . a summing junction for subtracting the converter active current component and the current reference for an active current , and providing a resulting signal ; a proportional integral controller configured for receiving the resulting signal and providing the second signal .
A method of transmitting first downlink control information, DCI, to a user equipment configured with a first uplink carrier, wherein the method is executed by a base station in a wireless communication system which comprises the base station and the user equipment, the method comprising: transmitting, to the user equipment, configuration information of a second uplink carrier through a higher layer signaling message; transmitting, to the user equipment, the first DCI for transmission of an uplink signal to the user equipment; and receiving, from the user equipment, the uplink signal based on the first DCI, wherein one or more bits of the first DCI are padded with padding bits, and wherein, based on a second bit size of second DCI scheduling a downlink data signal being larger than a first bit size of the first DCI, the first DCI includes first information in a last bit of the first DCI, after the padding bits, wherein the first information includes information for a carrier to which the uplink signal is to be transmitted among the first uplink carrier and the second uplink carrier, and wherein the first DCI does not include the first information based on the second bit size being less than or equal to the first bit size. transmitting, to the user equipment, configuration information of a second uplink carrier through a higher layer signaling message; transmitting, to the user equipment, the first DCI for transmission of an uplink signal to the user equipment; and receiving, from the user equipment, the uplink signal based on the first DCI, wherein one or more bits of the first DCI are padded with padding bits, and wherein, based on a second bit size of second DCI scheduling a downlink data signal being larger than a first bit size of the first DCI, the first DCI includes first information in a last bit of the first DCI, after the padding bits, wherein the first information includes information for a carrier to which the uplink signal is to be transmitted among the first uplink carrier and the second uplink carrier, and wherein the first DCI does not include the first information based on the second bit size being less than or equal to the first bit size.
A magnetic lock device for locking a container having a container portion and a lid part, comprising a slider part on which a first magnetic lock member is arranged and which has a pretensioned latching device , and an elongated receiving part which has a second magnetic lock member between which and the magnetic lock member at the slider part an attractive force acts, wherein the slider part and the elongated receiving part can be brought, against the pretension of the latching device at the slider part, into latching engagement by means of the attractive force acting between the magnetic lock member at the slider part and the magnetic lock member at the receiving part, and wherein the slider part can be displaced on the elongated receiving part , characterized in that the magnetic lock member arranged on the elongate receiving part extends over the entire or almost the entire longitudinal extent of the elongate receiving part and in that the elongated receiving part has an undercutting device extending over its entire or almost entire longitudinal extent, with which the latching device at the slider part can be brought into latching engagement.
A cabin module in the form of a self-supporting structural body , in particular for a motor vehicle , such as an emergency vehicle, a fire engine, a firefighting vehicle, a communal vehicle or a transport vehicle, comprising - several walls (15 to 18), which at least sectionally delimit a cabin area , wherein - the walls (15 to 18) each comprise an inner layer facing the cabin area and an outer layer arranged at a distance therefrom, and - the individual walls (15 to 18) are formed of a continuous blank with a first end section and a second end section arranged at a distance thereof in the longitudinal extension of the blank , wherein - in edge regions of walls (15 to 18) arranged so as to directly follow one another, the outer layer is in each case designed to be continuous and deformed between walls (15 to 18) arranged so as to directly follow one another in each case and the inner layer is designed to be interrupted by a separating section between the walls (15 to 18) arranged so as to directly follow one another in each case and to be shortened with respect to the deformed outer layer , characterized in that - at least one first lateral wall , a base wall , a second lateral wall as well as a roof wall are provided, said walls (15 to 18) being formed of the continuous blank , - the first end section of the blank is connected to the second end section of the blank in a joint area , and - the walls (15 to 18) form the self-supporting structural body in the form of a hollow body. - several walls (15 to 18), which at least sectionally delimit a cabin area , wherein - the walls (15 to 18) each comprise an inner layer facing the cabin area and an outer layer arranged at a distance therefrom, and - the individual walls (15 to 18) are formed of a continuous blank with a first end section and a second end section arranged at a distance thereof in the longitudinal extension of the blank , wherein - in edge regions of walls (15 to 18) arranged so as to directly follow one another, the outer layer is in each case designed to be continuous and deformed between walls (15 to 18) arranged so as to directly follow one another in each case and the inner layer is designed to be interrupted by a separating section between the walls (15 to 18) arranged so as to directly follow one another in each case and to be shortened with respect to the deformed outer layer , characterized in that - at least one first lateral wall , a base wall , a second lateral wall as well as a roof wall are provided, said walls (15 to 18) being formed of the continuous blank , - the first end section of the blank is connected to the second end section of the blank in a joint area , and - the walls (15 to 18) form the self-supporting structural body in the form of a hollow body.
Deflection roller in a pulling-means drive, preferably in an elevator drive having elevator or suspension belts, wherein the deflection roller is rotatably mounted and comprises a plurality of deflection discs , which are arranged on a shaft , for the one or more pulling means, wherein the pulling means runs around or wraps around the deflection roller or deflection discs on an outer circumferential surface over a partial circumference, characterized in that the deflection discs are arranged or designed to be axially displaceable, preferably axially slidably displaceable, relative to the shaft and relative to one another.
A system for recovering heat from wastewater by heat exchange between the wastewater and a heat transfer fluid, the heat recovery system comprising: - an external heat transfer fluid holding tank , the external tank having a side wall , the external tank having a heat transfer fluid inlet and a heat transfer fluid outlet , one located at the top of the external tank , and the other located at the bottom of the external tank , - an internal tank for holding wastewater, the internal tank having a side wall , the internal tank being arranged inside the external tank for an exchange of heat between the heat transfer fluid and the wastewater through the side wall of the internal tank , an annular retention space being delimited between the side wall of the external tank and the side wall of the internal tank , and - a pipe ramp arranged between the side wall of the external tank and the side wall of the internal tank so as to delimit, in the holding space, a circulation duct extending helically around the internal tank , for the circulation of the heat transfer fluid from the heat transfer fluid inlet to the heat transfer fluid outlet , wherein the internal tank has an inlet for wastewater and an outlet for wastewater located at the bottom of the internal tank , the heat recovery system having an inlet duct for the wastewater supplying the wastewater inlet , and an outlet duct for the wastewater supplied by the wastewater outlet , the outlet duct rising from the wastewater outlet so as to form a siphon, the system being characterized in that the wastewater inlet is located at the top of the internal tank . - an external heat transfer fluid holding tank , the external tank having a side wall , the external tank having a heat transfer fluid inlet and a heat transfer fluid outlet , one located at the top of the external tank , and the other located at the bottom of the external tank , - an internal tank for holding wastewater, the internal tank having a side wall , the internal tank being arranged inside the external tank for an exchange of heat between the heat transfer fluid and the wastewater through the side wall of the internal tank , an annular retention space being delimited between the side wall of the external tank and the side wall of the internal tank , and - a pipe ramp arranged between the side wall of the external tank and the side wall of the internal tank so as to delimit, in the holding space, a circulation duct extending helically around the internal tank , for the circulation of the heat transfer fluid from the heat transfer fluid inlet to the heat transfer fluid outlet , wherein the internal tank has an inlet for wastewater and an outlet for wastewater located at the bottom of the internal tank , the heat recovery system having an inlet duct for the wastewater supplying the wastewater inlet , and an outlet duct for the wastewater supplied by the wastewater outlet , the outlet duct rising from the wastewater outlet so as to form a siphon, the system being characterized in that the wastewater inlet is located at the top of the internal tank .