mhurhangee/ep-ind-claims huggingface dataset:
A lighting device comprising: a heat radiating body comprising a first receiving groove formed on a bottom surface thereof; a reflective structure being disposed in the first receiving groove and reflecting incident light to the outside; a light emitting module unit being disposed on the circumference of the lower part of the heat radiating body and emitting light; and a cover being disposed under the light emitting module unit and reflecting light emitted from the light emitting module unit to the reflective structure, wherein the reflective structure comprises a reflective surface and an edge around the reflective surface, the reflective surface is received in the first receiving groove of the heat radiating body, and the edge is coupled to a one side of the lower part of the heat radiating body, wherein the reflective surface has a hemispherical shape, and the heat radiating body as viewed from the top has a circular shape, and wherein the cover has an opening for allowing the light reflected from the reflective structure to be emitted to the outside. a heat radiating body comprising a first receiving groove formed on a bottom surface thereof; a reflective structure being disposed in the first receiving groove and reflecting incident light to the outside; a light emitting module unit being disposed on the circumference of the lower part of the heat radiating body and emitting light; and a cover being disposed under the light emitting module unit and reflecting light emitted from the light emitting module unit to the reflective structure, wherein the reflective structure comprises a reflective surface and an edge around the reflective surface, the reflective surface is received in the first receiving groove of the heat radiating body, and the edge is coupled to a one side of the lower part of the heat radiating body, wherein the reflective surface has a hemispherical shape, and the heat radiating body as viewed from the top has a circular shape, and wherein the cover has an opening for allowing the light reflected from the reflective structure to be emitted to the outside.
An apparatus for feeding articles such as tissues or similar folded paper products to an automatic packaging system, the apparatus comprising means for forming stacks (P") of articles with at least two collecting discs defining an axial direction and a radial direction; an accumulation plate adapted to receive and support the articles unloaded from said collecting discs; for each pair of collecting discs a stack separation and expulsion device adapted to eject the stacks (P') over said plate in the radial direction by movably entering between the discs and engaging with the stacks (P'); characterized by an evacuation device for evacuating from the plate along an axial direction the stacks previously ejected from the discs, wherein said at least one stack separation and expulsion device comprises conveyor means arranged below said plate, following a ring-like path with a segment that runs radially over a plane parallel and adjacent with the plane of the plate; and wherein seizing tabs extend from said expulsion conveyor means adapted to engage with said stacks (P') passing through channels formed in the plate and projecting orthogonally from the same plate.
A dye-sensitized solar cell manufacturing method, comprising: a preparation step of preparing a first electrode (1, 101) having a porous oxide semiconductor layer, and a second electrode (2, 102); a first sealing portion formation step of forming a first sealing portion by melting and bonding a thermoplastic resin at a first annular section, of the first electrode (1, 101), that surrounds the porous oxide semiconductor layer; a second sealing portion formation step of forming a second sealing portion by melting and bonding a thermoplastic resin at a second annular section of the second electrode (2, 102); a dye support step of causing a photosensitive dye to be supported on the porous oxide semiconductor layer; an electrolyte layer formation step of forming an electrolyte layer by arranging an electrolyte on the first electrode (1, 101), within the first sealing portion, or on the second electrode (2, 102), within the second sealing portion; and a sealing portion formation step of forming a sealing portion through mutually bonding together the first sealing portion and the second sealing portion, wherein the electrolyte layer formation step is carried out after at least one of the first sealing portion formation step and the second sealing portion formation step; the sealing portion formation step is carried out after the dye support step and the electrolyte layer formation step; and in the sealing portion formation step, the sealing portion is formed through melting, while under application of pressure, of the first sealing portion and the second sealing portion. a preparation step of preparing a first electrode (1, 101) having a porous oxide semiconductor layer, and a second electrode (2, 102); a first sealing portion formation step of forming a first sealing portion by melting and bonding a thermoplastic resin at a first annular section, of the first electrode (1, 101), that surrounds the porous oxide semiconductor layer; a second sealing portion formation step of forming a second sealing portion by melting and bonding a thermoplastic resin at a second annular section of the second electrode (2, 102); a dye support step of causing a photosensitive dye to be supported on the porous oxide semiconductor layer; an electrolyte layer formation step of forming an electrolyte layer by arranging an electrolyte on the first electrode (1, 101), within the first sealing portion, or on the second electrode (2, 102), within the second sealing portion; and a sealing portion formation step of forming a sealing portion through mutually bonding together the first sealing portion and the second sealing portion, wherein the electrolyte layer formation step is carried out after at least one of the first sealing portion formation step and the second sealing portion formation step; the sealing portion formation step is carried out after the dye support step and the electrolyte layer formation step; and in the sealing portion formation step, the sealing portion is formed through melting, while under application of pressure, of the first sealing portion and the second sealing portion.
A wide array printhead module comprising: a plurality of printhead die, each of the printhead die comprising: a number of nozzles to eject ink on a print medium, the number of nozzles forming a number of primitives, each printhead die comprising a plurality of primitives; and a nozzle firing heater coupled to each of the nozzles; and one application specific integrated circuit (ASIC) with delay circuitry configured to control a number of activation pulses that activate the nozzle firing heaters for each of the nozzles associated with the primitives; in which the activation pulses are delayed between each of the primitives via internal delays which are delays between the plurality of primitives of each printhead die and external delays which are delays between the ejections of ink between the plurality of printhead die to reduce peak power demands of the printhead die, and characterized in that the ASIC with delay circuitry is configured to calibrate the internal delays within each printhead die. a plurality of printhead die, each of the printhead die comprising: a number of nozzles to eject ink on a print medium, the number of nozzles forming a number of primitives, each printhead die comprising a plurality of primitives; and a nozzle firing heater coupled to each of the nozzles; and one application specific integrated circuit (ASIC) with delay circuitry configured to control a number of activation pulses that activate the nozzle firing heaters for each of the nozzles associated with the primitives; in which the activation pulses are delayed between each of the primitives via internal delays which are delays between the plurality of primitives of each printhead die and external delays which are delays between the ejections of ink between the plurality of printhead die to reduce peak power demands of the printhead die, and a number of nozzles to eject ink on a print medium, the number of nozzles forming a number of primitives, each printhead die comprising a plurality of primitives; and a nozzle firing heater coupled to each of the nozzles; and one application specific integrated circuit (ASIC) with delay circuitry configured to control a number of activation pulses that activate the nozzle firing heaters for each of the nozzles associated with the primitives; in which the activation pulses are delayed between each of the primitives via internal delays which are delays between the plurality of primitives of each printhead die and external delays which are delays between the ejections of ink between the plurality of printhead die to reduce peak power demands of the printhead die, and characterized in that the ASIC with delay circuitry is configured to calibrate the internal delays within each printhead die.
Reslizumab for use in the treatment of eosinophilic asthma, wherein: 3mg/kg reslizumab is provided intravenously once every 4 weeks to a patient together with a long acting beta 2 adrenoceptor agonist (LABA) and an inhaled corticosteroid, the inhaled corticosteroid comprising > 500 μg Fluticasone, > 440 μg Mometasone, > 800 μg Budesonide, > 320 μg Ciclesonide, > 400 μg Beclomethasone, or > 2000 μg Triamcinolone, said patient having blood eosinophil levels equal to or greater than 400/μl and, prior to the use, the patient's symptoms were inadequately controlled with said long acting beta 2 adrenoceptor agonist (LABA) and inhaled corticosteroid and wherein, in the 12 months prior to the use, the patient had at least one asthma exacerbation requiring oral, intramuscular, or intravenous corticosteroid use for greater than or equal to 3 days. 3mg/kg reslizumab is provided intravenously once every 4 weeks to a patient together with a long acting beta 2 adrenoceptor agonist (LABA) and an inhaled corticosteroid, the inhaled corticosteroid comprising > 500 μg Fluticasone, > 440 μg Mometasone, > 800 μg Budesonide, > 320 μg Ciclesonide, > 400 μg Beclomethasone, or > 2000 μg Triamcinolone, said patient having blood eosinophil levels equal to or greater than 400/μl and, prior to the use, the patient's symptoms were inadequately controlled with said long acting beta 2 adrenoceptor agonist (LABA) and inhaled corticosteroid and wherein, in the 12 months prior to the use, the patient had at least one asthma exacerbation requiring oral, intramuscular, or intravenous corticosteroid use for greater than or equal to 3 days.
A method of amplifying nucleic acids comprising: a) providing a nucleic acid template, an amplification enzyme, an oligonucleotide primer and a plurality of modified nucleotides, wherein each modified nucleotide comprises a 3' blocking group, wherein the 3' blocking group is not thermolabile; b) removing the 3' blocking group from the plurality of modified nucleotides in the presence of the amplification enzyme to produce a plurality of unblocked nucleotides; and c) amplifying the nucleic acid template using the plurality of unblocked nucleotides and the amplification enzyme present during the removing of the 3' blocking group from the plurality of modified nucleotides. a) providing a nucleic acid template, an amplification enzyme, an oligonucleotide primer and a plurality of modified nucleotides, wherein each modified nucleotide comprises a 3' blocking group, wherein the 3' blocking group is not thermolabile; b) removing the 3' blocking group from the plurality of modified nucleotides in the presence of the amplification enzyme to produce a plurality of unblocked nucleotides; and c) amplifying the nucleic acid template using the plurality of unblocked nucleotides and the amplification enzyme present during the removing of the 3' blocking group from the plurality of modified nucleotides.
A surgical cannula for illuminating a surgical cavity using light emitted by a light source, the surgical cannula comprising: an optically transparent walled passageway having an interior working channel, an entrance, an open tip, an inner surface, an outer surface, and light-extracting features; whereby the light source comprises multiple light emitters configured to emit the light, wherein each of the light emitters is positioned along the entrance of the walled passageway, such that the light emitted by each of the light emitters is transported via total internal reflection towards the open tip of the walled passageway; and wherein the light-extracting features are configured to extract the transported light from the walled passageway, such that the extracted light is emitted from the inner surface of the walled passageway into the working channel and illuminates an area bounded by the open tip of the walled passageway. an optically transparent walled passageway having an interior working channel, an entrance, an open tip, an inner surface, an outer surface, and light-extracting features; whereby the light source comprises multiple light emitters configured to emit the light, wherein each of the light emitters is positioned along the entrance of the walled passageway, such that the light emitted by each of the light emitters is transported via total internal reflection towards the open tip of the walled passageway; and wherein the light-extracting features are configured to extract the transported light from the walled passageway, such that the extracted light is emitted from the inner surface of the walled passageway into the working channel and illuminates an area bounded by the open tip of the walled passageway.
Method for acoustically scanning an area, comprising: transmission of an acoustic transmission pulse into the area by means of an acoustic transducer and capture of a received signal by means of the transducer in order to receive the transmission pulse returned from the area, wherein an actual phase profile of the received signal is captured within a post-pulse oscillation time of the transducer that directly follows the transmission of the transmission pulse, wherein an object is detected within the area in the event of a discrepancy between the actual phase profile and a prescribed setpoint phase profile, characterized in that an object moving relative to the transducer is sensed if the discrepancy between the actual phase profile and the setpoint phase profile exhibits a change over time, and a relative speed between the object and the transducer is sensed that results from the change in the discrepancy over time owing to a prescribed dependency, this dependency being a monotonously rising dependency between the relative speed and the resultant change in the discrepancy over time.
Box adapted for the containment and the use of electronic equipment and accessories for painting and/or artistic design, characterised in that it comprises: - a base comprising a bottom and side walls; - a cover adapted to be coupled to said base through hinging means (30, 31) at one side of the base, closing means (32, 33) at an opposite side of the base, and means for adjusting the opening angle (8, 9, 10, 11) with respect to the base, said cover being shaped as a frame with side walls and central opening; - a drawer adapted to be contained by insertion in the base, and adapted to be at least partially extracted from the hinged side of the base, said drawer being adapted to contain said electronic equipment and accessories for painting and/or artistic design; - a removable flat palette, adapted to be inserted in said drawer and removed, said palette when inserted, and with the cover closed, being adapted to retain said electronic equipment and accessories for painting and/or artistic design in a stationary position; - a first retainer and a second retainer, adapted to slide inside said central opening and to be fixed, in determined variable positions, by fixing means (23, 24, 25, 26) to said side walls of the cover, so as to hold therebetween an electronic device with a screen forming part of said electronic equipment. - a base comprising a bottom and side walls; - a cover adapted to be coupled to said base through hinging means (30, 31) at one side of the base, closing means (32, 33) at an opposite side of the base, and means for adjusting the opening angle (8, 9, 10, 11) with respect to the base, said cover being shaped as a frame with side walls and central opening; - a drawer adapted to be contained by insertion in the base, and adapted to be at least partially extracted from the hinged side of the base, said drawer being adapted to contain said electronic equipment and accessories for painting and/or artistic design; - a removable flat palette, adapted to be inserted in said drawer and removed, said palette when inserted, and with the cover closed, being adapted to retain said electronic equipment and accessories for painting and/or artistic design in a stationary position; - a first retainer and a second retainer, adapted to slide inside said central opening and to be fixed, in determined variable positions, by fixing means (23, 24, 25, 26) to said side walls of the cover, so as to hold therebetween an electronic device with a screen forming part of said electronic equipment.
A material obtained from sulfur and an organic starting material in a liquid form wherein the material comprises carbon, hydrogen, and sulfur as constituent elements, and having peaks with tolerances of ±0.3 eV at 2469 eV, 2472 eV, and 2473 eV in an S K-edge X-ray absorption fine structure spectrum, the peak with a tolerance of ±0.3 eV at 2473 eV being most intense, and peaks with tolerances of ±30 cm -1 at 480 cm -1, 1250 cm -1, 1440 cm -1, and 1900 cm -1 in a Raman spectrum detected by Raman spectroscopy, the peak with a tolerance of ±30 cm -1 at 1440 cm -1 being most intense, wherein the material has no peak of Raman scattering intensity with tolerance of ±30 cm -1 at 1066 cm -1 in the Raman spectrum detected by Raman spectroscopy, and wherein the carbon content is 30 to 45 wt%, the sulfur content is 55 to 70 wt%, the hydrogen content is 1 wt% or less, the oxygen content is 1 wt% or less, and the nitrogen content is 1 wt% or less.
A sauna, comprising: a wooden frame (45, 100) consisting of a roof element, a base element and a plurality of side wall elements (5, 6, 7), the interior being defined by the said elements joined to one another at their edges, having one or more doors arranged at least at one of the said elements, and sauna benches and a heater, characterized in that the frame (45, 100) is a load bearing structure, the elements of the said frame being made of cross laminated timber, and that the sauna comprises an adjustable and detachable leg arrangement on which the frame (45, 100) is mounted, said leg arrangement having a plurality of adjustable legs (1, 400) being arranged at a distance from the plurality of the side wall elements (5, 6, 7), such that there are no obstructions that would hinder the frame from lowering down to an installation surface level, such as ground or concrete slabs, and a plurality of actuators (2, 32) operatively coupled to the plurality of legs, and being arranged to move said frame in opposite first and second directions. a wooden frame (45, 100) consisting of a roof element, a base element and a plurality of side wall elements (5, 6, 7), the interior being defined by the said elements joined to one another at their edges, having one or more doors arranged at least at one of the said elements, and sauna benches and a heater, characterized in that the frame (45, 100) is a load bearing structure, the elements of the said frame being made of cross laminated timber, and that the sauna comprises an adjustable and detachable leg arrangement on which the frame (45, 100) is mounted, said leg arrangement having a plurality of adjustable legs (1, 400) being arranged at a distance from the plurality of the side wall elements (5, 6, 7), such that there are no obstructions that would hinder the frame from lowering down to an installation surface level, such as ground or concrete slabs, and a plurality of actuators (2, 32) operatively coupled to the plurality of legs, and being arranged to move said frame in opposite first and second directions.
An electroplated steel sheet comprising a steel sheet, and an electroplating layer which is formed on a surface of the steel sheet and which consists of 0% to 20% of Ni and the balance including Zn and impurities, wherein the steel sheet consists of, as a chemical composition, by mass%, C: 0.0005% to 0.0050%, Si: 0.20% to 1.0%, Mn: 0.40% to 2.5%, P: 0.005% to 0.05%, Ti: 0.010% to 0.050%, Nb: 0.010% to 0.040%, B: 0.0005% to 0.0030%, S: 0.0001% to 0.02%, Al: 0.01% to 0.30%, N: 0.0010% to 0.01%, and the balance including Fe and impurities, wherein in the chemical composition, when a Si content is represented by [Si] and a Mn content is represented by [Mn], a value of "[Mn]+5[Si]" is 2.0 to 7.0, and the steel sheet has a surface property in which an average of displacements of a measurement point that is obtained based on a moving average of continuous 31 points in total including 15 front points and 15 back points in a cross-sectional profile of a surface of the steel sheet obtained by measuring the average of displacements in an evaluation length of 10 μm or more at an interval of 0.07 μm is 0.005 μm to 0.10 μm, wherein the surface property is measured using shape measurement laser microscopes VK-8700 and VK-8710 series manufactured by Keyence Corporation.
A method of electric energy consumption optimization, comprising: selecting, by a network side and a UE, a sleep cycle according to a time delay requirement of an application; transmitting, by the UE, a sleep cycle entry request to the network side, or transmitting, by the network side, a sleep cycle entry instruction to the UE; entering, by the UE, a sleep cycle according to the sleep cycle entry request and the sleep cycle entry instruction; when no packet arrives at the UE within a sleep time of the sleep cycle, enabling the UE to enter a sleep cycle again or enter a longer sleep cycle after current sleep cycle is over (202, 204); and when there comes an uplink packet to be sent to the network side within the sleep time of the sleep cycle, enabling the UE to enter an active mode and transmit the uplink packet; when a downlink packet arrives, keeping the UE waiting until the current sleep cycle is over and then receiving the downlink packet by the UE; and enabling the UE to enter a shorter sleep cycle after receiving the downlink packet or transmitting the uplink packet (202,203), wherein the UE is capable of performing location update during any one of the sleep cycle, the longer sleep cycle and the shorter sleep cycle, the longer sleep cycle being longer than current sleep cycle, and the shorter sleep cycle being shorter than the current sleep cycle. selecting, by a network side and a UE, a sleep cycle according to a time delay requirement of an application; transmitting, by the UE, a sleep cycle entry request to the network side, or transmitting, by the network side, a sleep cycle entry instruction to the UE; entering, by the UE, a sleep cycle according to the sleep cycle entry request and the sleep cycle entry instruction; when no packet arrives at the UE within a sleep time of the sleep cycle, enabling the UE to enter a sleep cycle again or enter a longer sleep cycle after current sleep cycle is over (202, 204); and when there comes an uplink packet to be sent to the network side within the sleep time of the sleep cycle, enabling the UE to enter an active mode and transmit the uplink packet; when a downlink packet arrives, keeping the UE waiting until the current sleep cycle is over and then receiving the downlink packet by the UE; and enabling the UE to enter a shorter sleep cycle after receiving the downlink packet or transmitting the uplink packet (202,203), wherein the UE is capable of performing location update during any one of the sleep cycle, the longer sleep cycle and the shorter sleep cycle, the longer sleep cycle being longer than current sleep cycle, and the shorter sleep cycle being shorter than the current sleep cycle.