mhurhangee/ep-ind-claims huggingface dataset:
A press for producing a pellet of a powdered material, comprising - a press frame with an upper and a lower retaining plate (12, 14), which are connected to one another by several vertical spacers and with at least one supporting element, which is disposed between the upper and the lower retaining plate (12, 14), - a tool guiding unit (22, 24, 26, 28) with at least one upper punch unit with at least an upper press punch and/or with at least one lower punch unit with at least one lower press punch and with a die assembly with at least one holder for the powdered material, which is to be pressed by the upper and/or lower press punches, wherein the tool guiding unit (22, 24, 26, 28) is disposed at the supporting element, and wherein the die assembly and the supporting element of the press frame are disposed in the same location plane or in location planes at a slight distance from one another, - at least one upper drive unit for moving the upper punch unit in the vertical direction and/or at least one lower drive unit for moving the lower punch unit and/or the die assembly in the vertical direction, wherein the upper drive unit and/or the lower drive unit are supported at the supporting element during the operation of the press, such that the reaction forces, which are generated by the pressing forces, produced during the pressing of the powdered material in the at least one holder, are generated as action forces, are passed into the supporting element. - a press frame with an upper and a lower retaining plate (12, 14), which are connected to one another by several vertical spacers and with at least one supporting element, which is disposed between the upper and the lower retaining plate (12, 14), - a tool guiding unit (22, 24, 26, 28) with at least one upper punch unit with at least an upper press punch and/or with at least one lower punch unit with at least one lower press punch and with a die assembly with at least one holder for the powdered material, which is to be pressed by the upper and/or lower press punches, wherein the tool guiding unit (22, 24, 26, 28) is disposed at the supporting element, and wherein the die assembly and the supporting element of the press frame are disposed in the same location plane or in location planes at a slight distance from one another, - at least one upper drive unit for moving the upper punch unit in the vertical direction and/or at least one lower drive unit for moving the lower punch unit and/or the die assembly in the vertical direction, wherein the upper drive unit and/or the lower drive unit are supported at the supporting element during the operation of the press, such that the reaction forces, which are generated by the pressing forces, produced during the pressing of the powdered material in the at least one holder, are generated as action forces, are passed into the supporting element.
A light source comprising: a superluminescent diode that includes a first light emitting region and a second light emitting region, and a light emission spectrum conversion region configured to change a wavelength and an intensity of a light passing through the light emission spectrum conversion region; and a control unit configured to control currents injected into the first light emitting region and the light emission spectrum conversion region so that a current density of the light emission spectrum conversion region is smaller than a current density of the first light emitting region, characterized in that the first light emitting region, the second light emitting region and the light emission spectrum conversion region are configured to combine a light that is emitted from the first light emitting region and passes through the light emission spectrum conversion region with a light that is emitted from the first light emitting region or the second light emitting region and does not pass through the light emission spectrum conversion region, such that, by said combining, a light source that is configured to emit light having a light emission spectrum of a wider full width at half maximum than that of the light emitted from the frist light emitting region is achieved. a superluminescent diode that includes a first light emitting region and a second light emitting region, and a light emission spectrum conversion region configured to change a wavelength and an intensity of a light passing through the light emission spectrum conversion region; and a first light emitting region and a second light emitting region, and a light emission spectrum conversion region configured to change a wavelength and an intensity of a light passing through the light emission spectrum conversion region; and a control unit configured to control currents injected into the first light emitting region and the light emission spectrum conversion region so that a current density of the light emission spectrum conversion region is smaller than a current density of the first light emitting region, characterized in that the first light emitting region, the second light emitting region and the light emission spectrum conversion region are configured to combine a light that is emitted from the first light emitting region and passes through the light emission spectrum conversion region with a light that is emitted from the first light emitting region or the second light emitting region and does not pass through the light emission spectrum conversion region, such that, by said combining, a light source that is configured to emit light having a light emission spectrum of a wider full width at half maximum than that of the light emitted from the frist light emitting region is achieved.
A method for producing an ink jet recording water-based ink, the method comprising a contact treatment of a water-based pigment dispersion liquid with an iminodiacetic acid-type chelating resin that is in the form of particles or fibers, the water-based pigment dispersion liquid containing a pigment, an anionic group-containing resin, and a basic compound, wherein each particle or fiber of the iminodiacetic acid-type chelating resin contains a sodium- and/or potassium-bonded chelating group and a hydrogen-bonded chelating group, and the proportion of the sodium- and/or potassium-bonded chelating group in all of the chelating groups is in the range of 30 mol% to 90 mol%.
A prosthetic head for a femoral component comprising: a metal shell with a cavity, the shell having a part-spherical outer surface defining an inner hollow portion terminating in an open end; and, a polymeric material filling the inner hollow portion of the shell extending from an inner surface of the shell to the open end, the polymeric material including a conically tapered socket centered about the polar axis intermediate ends (44, 46) of the open end, characterized in that said inner surface of the shell is part-spherical, and in that said shell has a thickness of 0.2 to 3.0 mm. a metal shell with a cavity, the shell having a part-spherical outer surface defining an inner hollow portion terminating in an open end; and, a polymeric material filling the inner hollow portion of the shell extending from an inner surface of the shell to the open end, the polymeric material including a conically tapered socket centered about the polar axis intermediate ends (44, 46) of the open end,
A method for preparing a metal complex catalyst, the method comprising: obtaining a precipitate by bringing a metal precursor solution comprising a zinc (Zn) precursor, a ferrite (Fe) precursor, and water into contact with a basic aqueous solution; obtaining a zinc ferrite catalyst by filtering and calcining the precipitate; and supporting an acid onto the zinc ferrite catalyst, wherein in Step, the acid is phosphoric acid and a content of the acid is 0.05 wt% to 0.2 wt% based on 100 wt% of the zinc ferrite catalyst. obtaining a precipitate by bringing a metal precursor solution comprising a zinc (Zn) precursor, a ferrite (Fe) precursor, and water into contact with a basic aqueous solution; obtaining a zinc ferrite catalyst by filtering and calcining the precipitate; and supporting an acid onto the zinc ferrite catalyst,
A therapeutic composition, comprising an isolated aminoacyl-tRNA synthetase (AARS) polypeptide that consists of SEQ ID NO:12 or differs from SEQ ID NO:12 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, or 8 amino acids, wherein the AARS polypeptide has an extracellular signaling activity and has a solubility of at least 5 mg/mL, and wherein the composition has a purity of at least 95% on a protein basis and less than 10 EU endotoxin / mg protein, wherein the extracellular signaling activity is selected from modulation of proliferation, acetylated LDL uptake, cytokine release, cell adhesion, and chemotaxis.
An ice detecting system for a wind turbine, the system comprising: a wind sensor comprising a heating element configured to set a temperature of the wind sensor based on an adjustable parameter; characterized by a controller configured to: monitor the adjustable parameter over a period of time; determine a likelihood that water is disposed on the wind sensor based on monitoring the adjustable parameter over the period of time; and activate at least one of an anti-icing system and a deicing system based on the likelihood. a wind sensor comprising a heating element configured to set a temperature of the wind sensor based on an adjustable parameter; characterized by a controller configured to: monitor the adjustable parameter over a period of time; determine a likelihood that water is disposed on the wind sensor based on monitoring the adjustable parameter over the period of time; and activate at least one of an anti-icing system and a deicing system based on the likelihood. monitor the adjustable parameter over a period of time; determine a likelihood that water is disposed on the wind sensor based on monitoring the adjustable parameter over the period of time; and activate at least one of an anti-icing system and a deicing system based on the likelihood.
A negative active material comprising: a carbonaceous core comprising carbonaceous core particles having a crystalloid plate structure; and an amorphous carbon layer continuously formed on a surface of the carbonaceous core, characterized in that the carbonaceous core has a sulphur content of from 10 ppm to 900 ppm and the carbonaceous core particles have a crystallite size of from 10 nm to 45 nm measured using X-ray diffraction, wherein the crystallite size is measured from a full width at half maximum (FWHM) of the peak with respect to a plane in an X-ray diffraction spectrum of the carbonaceous core. a carbonaceous core comprising carbonaceous core particles having a crystalloid plate structure; and an amorphous carbon layer continuously formed on a surface of the carbonaceous core, characterized in that the carbonaceous core has a sulphur content of from 10 ppm to 900 ppm and the carbonaceous core particles have a crystallite size of from 10 nm to 45 nm measured using X-ray diffraction, wherein the crystallite size is measured from a full width at half maximum (FWHM) of the peak with respect to a plane in an X-ray diffraction spectrum of the carbonaceous core.
Electromagnetically controlled proportional valve which comprises a valve housing, a valve piston, a coil former and a coil core, characterized in that an electronic circuit for storing adjusting processes and for actuating the proportional valve is integrated into the valve housing, and in that a plug with a plug housing is provided.
A terminal comprising: a receiving section adapted to receive from a base station, by a higher layer, information indicating one of a first RBG configuration and a second RBG configuration that include a plurality of RBG size candidates, respectively; and a control section adapted to determine a RBG size out of RBG size candidates included in the indicated RBG configuration, wherein the control section is adapted to determine the RBG size based on a value notified by the base station through higher layer signaling and to control allocation of at least one of a downlink shared channel and a uplink shared channel based on the RBG size, and some of the RBG size candidates included in the first RBG configuration overlap with the RBG size candidates included in the second RBG configuration, while at least one of the RBG size candidates included in the first RBG configuration does not overlap with the RBG size candidates included in the second RBG configuration. a receiving section adapted to receive from a base station, by a higher layer, information indicating one of a first RBG configuration and a second RBG configuration that include a plurality of RBG size candidates, respectively; and a control section adapted to determine a RBG size out of RBG size candidates included in the indicated RBG configuration, wherein the control section is adapted to determine the RBG size based on a value notified by the base station through higher layer signaling and to control allocation of at least one of a downlink shared channel and a uplink shared channel based on the RBG size, and some of the RBG size candidates included in the first RBG configuration overlap with the RBG size candidates included in the second RBG configuration, while at least one of the RBG size candidates included in the first RBG configuration does not overlap with the RBG size candidates included in the second RBG configuration.
A generator including a rotor and rotor end windings extending circumferentially around the rotor, the generator comprising: an original wye ring (406; 502) positioned within the rotor end windings, and an auxiliary wye ring electrically coupled to the original wye ring (406; 502), wherein the auxiliary wye ring is configured for being retrofitted onto the generator, is formed of an electrically conductive metal and comprises connection points (506a-506c) electrically coupled to the original wye ring (406; 502), thereby creating a level of redundancy; wherein the connection points (506a-506c) form electrical connections between the original wye ring (406; 502) and the auxiliary wye ring at points corresponding to each electric phase of power. an original wye ring (406; 502) positioned within the rotor end windings, and an auxiliary wye ring electrically coupled to the original wye ring (406; 502), wherein the auxiliary wye ring is configured for being retrofitted onto the generator, is formed of an electrically conductive metal and comprises connection points (506a-506c) electrically coupled to the original wye ring (406; 502), thereby creating a level of redundancy; wherein the connection points (506a-506c) form electrical connections between the original wye ring (406; 502) and the auxiliary wye ring at points corresponding to each electric phase of power.
A cation-exchanged zeolite catalyst for the transiodination of reactants containing multi-iodo benzene and benzene, wherein a molar ratio of Si/Al is 5 to 15. 20% to 50% of the ion exchange capacity is ion-exchanged with sodium (Na) or 10% to 50% of the ion exchange capacity is ion-exchanged with potassium, and the zeolite catalyst is prepared by cation-exchanging any one selected from the group consisting of HY, BEA, and ZSM-5 zeolites.
Method for charging an accumulator by means of a charging apparatus, wherein the accumulator contains at least one energy storage cell, a first data interface and a wake-up circuit for activating control electronics of the accumulator, and the charging apparatus contains a second data interface, a controller, a timer and a switch apparatus, and wherein the data interfaces (9, 23) are connected to one another via a first and a second communication line (26, 27) for differential communication between the accumulator and the charging apparatus, characterized by the method steps of - setting the timer to a predetermined period of time; - setting the control electronics of the accumulator to a deactivation mode, so that no charging current flows from the charging apparatus to the accumulator and no current flows from the at least one energy storage cell to the control electronics of the accumulator; - sending at least one signal from the charging apparatus to the accumulator via the first and second communication lines (26, 27) after the predetermined period of time has elapsed; - activating the wake-up circuit for activating control electronics by detecting a voltage value from the first or second communication line (26, 27), wherein the voltage value is consistent with either the dominant or recessive state of the first or second communication line (26, 27); - setting the control electronics to an activation mode by means of the wake-up circuit; and - requesting or releasing a charging current from the charging apparatus by means of the accumulator. - setting the timer to a predetermined period of time; - setting the control electronics of the accumulator to a deactivation mode, so that no charging current flows from the charging apparatus to the accumulator and no current flows from the at least one energy storage cell to the control electronics of the accumulator; - sending at least one signal from the charging apparatus to the accumulator via the first and second communication lines (26, 27) after the predetermined period of time has elapsed; - activating the wake-up circuit for activating control electronics by detecting a voltage value from the first or second communication line (26, 27), wherein the voltage value is consistent with either the dominant or recessive state of the first or second communication line (26, 27); - setting the control electronics to an activation mode by means of the wake-up circuit; and - requesting or releasing a charging current from the charging apparatus by means of the accumulator.
An image forming apparatus comprising: an image bearing member on which a latent image is formed; development means configured to develop the latent image formed on the image bearing member as a toner image; an intermediate transfer member configured to contact the image bearing member, and on which the toner image formed on the image bearing member is transferred; and control means configured to control a speed of the image bearing member and the intermediate transfer member, characterised in that the image forming apparatus is configured such that the development means and the image bearing member are separated from each other in a case where the image bearing member and the intermediate transfer member are driven at a first speed, and the development means and the image bearing member abut on each other prior to a change to a second speed in a case where the speed of the image bearing member and the intermediate transfer member is changed from the first speed to the second speed, and wherein the control means is configured to change the speed of the image bearing member and the intermediate transfer member from the first speed to the second speed, without stopping the image bearing member and the intermediate transfer member, in a state where a toner supplied due to abutment of the development means and the image bearing member prior to changing the speed of the image bearing member and the intermediate transfer member is provided in a nip portion at which the image bearing member and the intermediate transfer member are brought into contact with each other. an image bearing member on which a latent image is formed; development means configured to develop the latent image formed on the image bearing member as a toner image; an intermediate transfer member configured to contact the image bearing member, and on which the toner image formed on the image bearing member is transferred; and control means configured to control a speed of the image bearing member and the intermediate transfer member, characterised in that the image forming apparatus is configured such that the development means and the image bearing member are separated from each other in a case where the image bearing member and the intermediate transfer member are driven at a first speed, and the development means and the image bearing member abut on each other prior to a change to a second speed in a case where the speed of the image bearing member and the intermediate transfer member is changed from the first speed to the second speed, and wherein the control means is configured to change the speed of the image bearing member and the intermediate transfer member from the first speed to the second speed, without stopping the image bearing member and the intermediate transfer member, in a state where a toner supplied due to abutment of the development means and the image bearing member prior to changing the speed of the image bearing member and the intermediate transfer member is provided in a nip portion at which the image bearing member and the intermediate transfer member are brought into contact with each other.
A milk conduit comprising a first end portion defining a first end and configured to be connected to a milk-receiving member, wherein the first end portion comprises an inner sleeve section made of a first material and an outer sleeve section integrally joined to the inner sleeve section and made of a second material, and wherein the second material is more rigid than the first material, wherein the outer sleeve section comprises an outer peripheral surface and at least one projection extending outwardly from the outer peripheral surface, said projection having a peripheral extension of less than 180°, wherein said projection is configured to be engaged by a coupling member on the milk-receiving member, wherein said projection comprises an upper side and a raised portion, which extends from the upper side and which has an inclined ramp, wherein the raised portion has a top surface, which is provided adjacent to the inclined ramp.
An N-way Doherty distributed amplifier comprising: an RF input, at least one main amplifier (108; 203), at least two peaking amplifiers (107; 204; 205), a hybrid coupler responsive to an input signal for providing input to the at least one main amplifier and the at least two peaking amplifiers, respectively, a phase synchronizer responsive to the RF input for synchronizing the output phase between the at least one main amplifier and the at least two peaking amplifiers, and a plurality of gate (109; 111; 217; 219) and drain (110; 112; 218; 220) lines connected to the at least one main amplifier and the at least two peaking amplifiers, the plurality of gate and drain lines each having a half-wave length at the center frequency of the N-way Doherty distributed amplifier. an RF input, at least one main amplifier (108; 203), at least two peaking amplifiers (107; 204; 205), a hybrid coupler responsive to an input signal for providing input to the at least one main amplifier and the at least two peaking amplifiers, respectively, a phase synchronizer responsive to the RF input for synchronizing the output phase between the at least one main amplifier and the at least two peaking amplifiers, and a plurality of gate (109; 111; 217; 219) and drain (110; 112; 218; 220) lines connected to the at least one main amplifier and the at least two peaking amplifiers, the plurality of gate and drain lines each having a half-wave length at the center frequency of the N-way Doherty distributed amplifier.