mhurhangee/ep-ind-claims huggingface dataset:
A printing apparatus comprising: a conveyance roller (5A, 5B) configured to convey a sheet in a first direction; an encoder provided at the conveyance roller; a head having a plurality of nozzles aligned in a second direction intersecting with the first direction, and being configured to jet liquid to the sheet which is conveyed in the first direction by the conveyance roller; and a controller having a power circuit (21 to 25) configured to apply voltage to the head for jetting the liquid, wherein the controller is configured to determine a jetting frequency for the head based on a signal outputted from the encoder, characterized in that the controller is configured to change an output voltage of the power circuit depending on the determined jetting frequency; the head further has a memory; a base voltage value and a plurality of correction values associated respectively with a plurality of jetting frequencies are stored in the memory, for the power circuit; and the controller is configured to: read out, from the memory, the base voltage value and a correction value corresponding to the determined jetting frequency, for the power circuit; and change the output voltage of the power circuit based on the base voltage value and the correction value read out from the memory. a conveyance roller (5A, 5B) configured to convey a sheet in a first direction; an encoder provided at the conveyance roller; a head having a plurality of nozzles aligned in a second direction intersecting with the first direction, and being configured to jet liquid to the sheet which is conveyed in the first direction by the conveyance roller; and a controller having a power circuit (21 to 25) configured to apply voltage to the head for jetting the liquid, wherein the controller is configured to determine a jetting frequency for the head based on a signal outputted from the encoder, characterized in that the controller is configured to change an output voltage of the power circuit depending on the determined jetting frequency; determine a jetting frequency for the head based on a signal outputted from the encoder, characterized in that the controller is configured to change an output voltage of the power circuit depending on the determined jetting frequency; the head further has a memory; a base voltage value and a plurality of correction values associated respectively with a plurality of jetting frequencies are stored in the memory, for the power circuit; and the controller is configured to: read out, from the memory, the base voltage value and a correction value corresponding to the determined jetting frequency, for the power circuit; and change the output voltage of the power circuit based on the base voltage value and the correction value read out from the memory. read out, from the memory, the base voltage value and a correction value corresponding to the determined jetting frequency, for the power circuit; and change the output voltage of the power circuit based on the base voltage value and the correction value read out from the memory.
An apparatus for the detection of deposits, in particular operating medium deposits, preferably reducing agent deposits, and/or combustion product deposits, preferably soot or ash, in an exhaust gas section of an internal combustion engine, comprising: an exhaust gas line; an electrically conductive element which is arranged in the exhaust gas line, a measuring device which is connected to the electrically conductive element and is configured to measure and to output at least one electrical characteristic value, in particular a current, a voltage and/or a resistance, of the electrically conductive element; and an evaluation unit which is configured to receive the electrical characteristic value and to carry out a check, based on the electrical characteristic value, for a deposit which is situated on the electrically conductive element; characterized in that, furthermore, the evaluation unit is configured to receive data which relate to an operating point of the internal combustion engine, and to determine the check, additionally based on the data, of a deposit which is situated on the electrically conductive element. an exhaust gas line; an electrically conductive element which is arranged in the exhaust gas line, a measuring device which is connected to the electrically conductive element and is configured to measure and to output at least one electrical characteristic value, in particular a current, a voltage and/or a resistance, of the electrically conductive element; and an evaluation unit which is configured to receive the electrical characteristic value and to carry out a check, based on the electrical characteristic value, for a deposit which is situated on the electrically conductive element; characterized in that, furthermore, the evaluation unit is configured to receive data which relate to an operating point of the internal combustion engine, and to determine the check, additionally based on the data, of a deposit which is situated on the electrically conductive element.
A reduced-pressure treatment system for applying reduced-pressure treatment to a tissue site, the system comprising: a wound cover, for covering the tissue site and for forming a sealed space; a reduced-pressure source producing a positive pressure exhaust and reduced pressure, the reduced-pressure source for providing reduced pressure to the tissue site; and an offloading pressure component (170, 224) for dispersing positive pressure exerted on or near the tissue site, the offloading pressure component (170, 224) fluidly coupled to the reduced pressure source for receiving at least a portion of the positive pressure exhaust; characterised in that the offloading pressure component (170, 224) includes a relief valve for releasing air from the offloading pressure component (170, 224). a wound cover, for covering the tissue site and for forming a sealed space; a reduced-pressure source producing a positive pressure exhaust and reduced pressure, the reduced-pressure source for providing reduced pressure to the tissue site; and an offloading pressure component (170, 224) for dispersing positive pressure exerted on or near the tissue site, the offloading pressure component (170, 224) fluidly coupled to the reduced pressure source for receiving at least a portion of the positive pressure exhaust; characterised in that the offloading pressure component (170, 224) includes a relief valve for releasing air from the offloading pressure component (170, 224).
A light control element, comprising a glass film, a light control layer, a resin film, and a pressure-sensitive adhesive layer in the stated order, wherein the light control layer is sandwiched between the glass film and the resin film, which serve as base materials, wherein the light control element has a bending radius of from 20 mm to 80 mm, wherein the glass film has a thickness of from 50 um to 180 um, wherein the resin film has a thickness of from 30 um to 150 um. wherein the light control layer is sandwiched between the glass film and the resin film, which serve as base materials, wherein the light control element has a bending radius of from 20 mm to 80 mm, wherein the glass film has a thickness of from 50 um to 180 um, wherein the resin film has a thickness of from 30 um to 150 um.
A type of underframe of sitting/sleeping furniture, comprising a supporting frame and a seat frame with backrest, wherein said seat frame is installed on said supporting frame in a movable manner via a quasi-parallel deflecting system; said quasi-parallel deflecting system consists of the supporting frame, the seat frame, a first rocker, and a second rocker, so that seat frame can move between two terminal positions: sitting position and sleeping position, wherein the first rocker is hinged with the supporting frame to form a rear pivot, and the second rocker is hinged with the supporting frame to form a front pivot, wherein positions of said rear pivot and front pivot are such that with the seat frame at sleeping position, resultant gravity of a person is applied on the seat frame at a point behind the rear pivot and the front pivot along the direction of the backrest, and with the seat frame at sitting position, resultant gravity of the person is applied on the seat frame at a point in front of the rear pivot, wherein two limit stops (16, 31) are fixed on said supporting frame, to limit amplitude of movement of said quasi-parallel deflecting system between the two terminal positions, characterized in that said supporting frame includes two longitudinal deflecting rods fixed on the supporting frame, said limit stops (16, 31) are fixed on said longitudinal deflecting rods, one end of said longitudinal deflecting rods is hinged with the second rocker to form the front pivot and the second rocker is then hinged with a front transverse stay tube of the seat frame, and the other end of said longitudinal deflecting rods is hinged with the first rocker to form the rear pivot, with the first rocker directly hinged with a rear transverse stay tube of the seat frame or via an intermediate connecting rod.
Sealing device, in particular for a biological waste treatment automaton, comprising a tank the bottom wall of which is traversed by a shaft bearing in rotation, inside the tank, an annular part comprising at least one first annular groove opening towards the bottom wall and housing a first annular seal bearing in an axial direction on an annular element secured to the bottom wall and radially outwards on a radially outer lateral annular face of said annular groove, said sealing device being characterised in that elastic bearing means are axially interposed between a bottom annular wall of said annular groove and said annular seal.
A vehicle body member (20, 30) having a charging and discharging function, the vehicle body member (20, 30) comprising: a first cell portion including a first negative pole portion made of carbon fiber and a first positive pole portion disposed to be in contact with a surface of the first negative pole portion, the first positive pole portion including a first cathode active material and a first solid electrolyte; a second cell portion including a second negative pole portion made of carbon fiber and a second positive pole portion disposed to be in contact with a surface of the second negative pole portion, the second positive pole portion including a second cathode active material and a second solid electrolyte; an insulating layer disposed between a surface of the first cell portion and a surface of the second cell portion and configured to insulate the first cell portion and the second cell portion; a series connector connecting the first negative pole portion of the first cell portion and the second positive pole portion of the second cell portion in series; a positive pole current collector connected to the first positive pole portion of the first cell portion; and a negative pole current collector connected to the second negative pole portion of the second cell portion. a first cell portion including a first negative pole portion made of carbon fiber and a first positive pole portion disposed to be in contact with a surface of the first negative pole portion, the first positive pole portion including a first cathode active material and a first solid electrolyte; a second cell portion including a second negative pole portion made of carbon fiber and a second positive pole portion disposed to be in contact with a surface of the second negative pole portion, the second positive pole portion including a second cathode active material and a second solid electrolyte; an insulating layer disposed between a surface of the first cell portion and a surface of the second cell portion and configured to insulate the first cell portion and the second cell portion; a series connector connecting the first negative pole portion of the first cell portion and the second positive pole portion of the second cell portion in series; a positive pole current collector connected to the first positive pole portion of the first cell portion; and a negative pole current collector connected to the second negative pole portion of the second cell portion.
A battery system including a plurality of rechargeable battery packs (P1, P2), the battery system comprising: a first battery pack that is rechargeable; a second battery pack that is rechargeable independently of the first battery pack; a first switching element (20-1; 120) configured to switch the first battery pack among a charging node, a discharging node and an open node; a second switching element (20-2; 121) configured to switch the second battery pack among a charging node, a discharging node and an open node; and a controller configured to control switching states of the first switching element and the second switching element based on usage states and states of charge of the first battery pack and the second battery pack, characterized in that: each of the first battery pack and the second battery pack further includes a wireless power transmission/reception module (W1, W2); and when the first battery pack is switched to the charging node and the second battery pack is switched to the open node, the second battery pack wirelessly transmits power to the first battery pack through the wireless power transmission/reception module (W1, W2). a first battery pack that is rechargeable; a second battery pack that is rechargeable independently of the first battery pack; a first switching element (20-1; 120) configured to switch the first battery pack among a charging node, a discharging node and an open node; a second switching element (20-2; 121) configured to switch the second battery pack among a charging node, a discharging node and an open node; and a controller configured to control switching states of the first switching element and the second switching element based on usage states and states of charge of the first battery pack and the second battery pack, characterized in that: each of the first battery pack and the second battery pack further includes a wireless power transmission/reception module (W1, W2); and when the first battery pack is switched to the charging node and the second battery pack is switched to the open node, the second battery pack wirelessly transmits power to the first battery pack through the wireless power transmission/reception module (W1, W2). each of the first battery pack and the second battery pack further includes a wireless power transmission/reception module (W1, W2); and when the first battery pack is switched to the charging node and the second battery pack is switched to the open node, the second battery pack wirelessly transmits power to the first battery pack through the wireless power transmission/reception module (W1, W2).
An ice making device, comprising: an upper plate tray defining an upper appearance of the ice making device, a lower plate tray defining a lower appearance of the ice making device, wherein when the upper plate tray and the lower plate tray are closed a recess part of the lower plate tray and a recess part of the upper plate tray are coupled to match each other in shape, thereby defining a cell which provides an ice making space having a globular or spherical shape; a rotating arm and an elastic member disposed on a side of the lower plate tray; a driving unit for operating one of the upper plate tray and the lower plate tray; an ejecting unit for separating ice pieces made in the upper plate tray or the lower plate tray; and wherein each of the recess parts arranged inside of the lower plate tray has a hemispherical shape and defines a lower half of the globular or spherical ice piece; and wherein the lower plate tray includes: a tray case defining an outer appearance; a tray body mounted on the tray case and having the recess parts; and a tray cover fixing the tray body to the tray case, characterized in that the ice making device further comprises: a water supply unit disposed above the upper plate tray, for supplying water into a water supply part of the upper plate tray; and a flow sensor configured to detect water supply flow to the ice making device by using a pulse value according to rotation of an impeller. an upper plate tray defining an upper appearance of the ice making device, a lower plate tray defining a lower appearance of the ice making device, wherein when the upper plate tray and the lower plate tray are closed a recess part of the lower plate tray and a recess part of the upper plate tray are coupled to match each other in shape, thereby defining a cell which provides an ice making space having a globular or spherical shape; a rotating arm and an elastic member disposed on a side of the lower plate tray; a driving unit for operating one of the upper plate tray and the lower plate tray; an ejecting unit for separating ice pieces made in the upper plate tray or the lower plate tray; and wherein each of the recess parts arranged inside of the lower plate tray has a hemispherical shape and defines a lower half of the globular or spherical ice piece; a tray case defining an outer appearance; a tray body mounted on the tray case and having the recess parts; and a tray cover fixing the tray body to the tray case, a water supply unit disposed above the upper plate tray, for supplying water into a water supply part of the upper plate tray; and a flow sensor configured to detect water supply flow to the ice making device by using a pulse value according to rotation of an impeller.
A crystal form of deuterated AZD9291, characterized in that the structural formula is as shown in formula or formula: the X-ray powder diffraction of the crystal form obtained by Cu-Kα ray measurement has diffraction peaks at a 2θ angle (unit: °) of: 7.1 ± 0.2, 8.5 ± 0.2, 9.4 ± 0.2, 10.3 ± 0.2, 15.1 ± 0.2, 16.3 ± 0.2, 18.7±0.2, 22.0±0.2, 25.6±0.2, and 26.0±0.2.
A tunable inductor arrangement arrangeable on a chip or substrate, the tunable inductor comprising a first winding part connected at one end to a first input of the tunable inductor arrangement; a second winding part connected at one end to the other end of the first winding part; a third winding part connected at one end to a second input of the tunable inductor arrangement; a fourth winding part connected at one end to the other end of the third winding part; wherein the first, second, third and fourth winding parts (W1-W4) are interleaved on the chip or substrate such that magnetic fields of the windings (W1-W4) are common; and a switch arrangement arranged to tune the tunable inductor arrangement to selectively provide either a circuit comprising the first and fourth winding parts (W1, W4) in parallel and the second and third winding parts (W2, W3) in parallel, with the parallel couplings (W1, W4; W2, W3) connected in series between the first and second inputs (INP, INN); or a circuit comprising the first, second, fourth and third winding parts (W1-W4) in series between the first and second inputs (INP, INN). a circuit comprising the first and fourth winding parts (W1, W4) in parallel and the second and third winding parts (W2, W3) in parallel, with the parallel couplings (W1, W4; W2, W3) connected in series between the first and second inputs (INP, INN); or a circuit comprising the first, second, fourth and third winding parts (W1-W4) in series between the first and second inputs (INP, INN).
A method for making an improved fluidic ejection head, the method comprising the steps of: applying a photoresist layer to a release film, wherein the photoresist layer is derived from a photoimageable dry film formulation comprising a multi-functional epoxy compound, a photoacid generator, a silane oligomer adhesion enhancer, and a non-photoreactive solvent; drying the photoimageable dry film formulation on the release film to provide a thick film layer; providing a flow feature layer on a semiconductor substrate, by applying a positive or negative photoresist material to the semiconductor substrate by a spin coating method or as a dry film photoimageable layer using heat and pressure, and forming flow features therein by photoimaging and photolithographic developing techniques; laminating the thick film layer to the flow feature layer on the semiconductor substrate; removing the release film from the thick film layer; imaging a nozzle hole in the thick film layer; and developing the imaged thick film layer to provide a nozzle plate for the fluidic ejection head, wherein the photoimageable dry film formulation comprises from about 1 to about 3 wt. % of the silane oligomer adhesion enhancer based on a total weight of the photoimageable dry film formulation before drying, wherein the silane oligomer adhesion enhancer is an alkoxysilane oligomer compound, wherein the alkoxysilane oligomer compound is gamma-glycidoxypropyltrimethoxysilane oligomer of the formula where n ranges from 1 to 4. applying a photoresist layer to a release film, wherein the photoresist layer is derived from a photoimageable dry film formulation comprising a multi-functional epoxy compound, a photoacid generator, a silane oligomer adhesion enhancer, and a non-photoreactive solvent; drying the photoimageable dry film formulation on the release film to provide a thick film layer; providing a flow feature layer on a semiconductor substrate, by applying a positive or negative photoresist material to the semiconductor substrate by a spin coating method or as a dry film photoimageable layer using heat and pressure, and forming flow features therein by photoimaging and photolithographic developing techniques; laminating the thick film layer to the flow feature layer on the semiconductor substrate; removing the release film from the thick film layer; imaging a nozzle hole in the thick film layer; and developing the imaged thick film layer to provide a nozzle plate for the fluidic ejection head, wherein the photoimageable dry film formulation comprises from about 1 to about 3 wt. % of the silane oligomer adhesion enhancer based on a total weight of the photoimageable dry film formulation before drying, wherein the silane oligomer adhesion enhancer is an alkoxysilane oligomer compound, wherein the alkoxysilane oligomer compound is gamma-glycidoxypropyltrimethoxysilane oligomer of the formula where n ranges from 1 to 4.
A security or identification device comprising a membrane laser structure configured to be optically pumped, the membrane laser structure comprising: a flexible emission layer comprising a gain material, wherein the gain material comprises a thickness of at least 10 nm; and one or more structures formed in or associated with the flexible emission layer, wherein the one or more structures comprise one or more gratings comprising a groove depth of 30nm to 120nm and are configured to provide distributed optical feedback in the emission layer to produce a laser light output having at least one property representing an identifier.
A dishwasher detergent composition, comprising: - a strong biodegradable builder, wherein the strong biodegradable builder is methyl-glycine-diacetic acid or a salt thereof; and - a sulfonated polymer, wherein the sulphonated polymer includes, as a or the monomer unit, 2-acrylamido-2-methyl-1-propanesulfonic acid; wherein the composition produces a washing liquor that has a pH of 5.5 to 7.8 when dissolved 1: 100, wt: wt, composition: water, in de-ionised water at 20 °C, measured using a conventional pH meter. - a strong biodegradable builder, wherein the strong biodegradable builder is methyl-glycine-diacetic acid or a salt thereof; and - a sulfonated polymer, wherein the sulphonated polymer includes, as a or the monomer unit, 2-acrylamido-2-methyl-1-propanesulfonic acid;