mhurhangee/ep-ind-claims huggingface dataset:
Method for adjusting a compressed air installation with several compressors, which compressed air installation mainly consists of two or more electrically driven compressors of what is called the 'loaded/unloaded' compressor type and/or of the turbo compressor type and/or of the compressor type with variable rotational speed, whereby these compressors are each connected to a single compressed air network with their outlets, and whereby each compressor is provided with one or several control units, the method making use of a control box onto which is connected a pressure sensor of the above-mentioned compressed air network, which control box makes it possible to adjust the pressure in the above-mentioned compressed air network around a target pressure to be set and within a pressure interval which is limited by a minimum pressure (PMIN) to be set and a maximum pressure (PMAX) to be set, whereby the above-mentioned adjustment takes place by controlling the flow of one or several of the above-mentioned compressors, in particular in order to increase the overall flow supplied by the compressors when the pressure drops too much, and in order to lower the overall supplied flow when the pressure becomes too high; characterised in that an evaluation table is stored in the memory of the control box beforehand for every compressor or for every type of compressor of the compressed air installation, whereby for every working condition of the compressor concerned, the influence of an aforesaid control order is assessed, and whereby for every control order of the compressor concerned, a score is given which is positive when the influence of said order is favourable to the output of the compressed air installation, and which is negative when the aforesaid influence is unfavourable and whose absolute value is all the greater as the favourable or unfavourable influence is bigger; and in that, while the compressed air installation is operational, in order to select the most favourable control order of the scores, the scores of all positive control orders which can direct the overall flow in the required direction in order to bring the pressure in the compressed air network closer to the set target pressure, can be mutually compared by an algorithm, either periodically or continuously, after which the control order concerned with the highest score can be implemented.
A system for testing a particulate filter system, comprising: a filter controller connected to the particulate filter system, the filter controller configured to control a condition of a component of the particulate filter system; and a vehicular computer configured to determine at least one engine condition, the vehicular computer operatively connected to the filter controller to communicate therewith; wherein the vehicular computer is configured to compare the condition of the component of the particulate filter system with the engine condition to determine whether the component of the particulate filter system is functioning properly; wherein the component of the particulate filter system is an air control valve; wherein the vehicular computer is configured to instruct the filter controller to open and close the air control valve between about full open and about 90% valve closure; wherein the engine condition is an engine speed, the system being characterised in that the vehicular computer determines that the component is functioning properly if the engine speed experiences a sufficient drop at about 85% valve closure to about 90% valve closure; and in that if the vehicular computer determines that the air control valve is functioning properly, the vehicular computer is configured to instruct the filter controller to test the particulate filter system to determine if a filter regeneration feature is functioning properly. a filter controller connected to the particulate filter system, the filter controller configured to control a condition of a component of the particulate filter system; and a vehicular computer configured to determine at least one engine condition, the vehicular computer operatively connected to the filter controller to communicate therewith; wherein the vehicular computer is configured to compare the condition of the component of the particulate filter system with the engine condition to determine whether the component of the particulate filter system is functioning properly; wherein the component of the particulate filter system is an air control valve; wherein the vehicular computer is configured to instruct the filter controller to open and close the air control valve between about full open and about 90% valve closure; wherein the engine condition is an engine speed, the system being characterised in that the vehicular computer determines that the component is functioning properly if the engine speed experiences a sufficient drop at about 85% valve closure to about 90% valve closure; and in that if the vehicular computer determines that the air control valve is functioning properly, the vehicular computer is configured to instruct the filter controller to test the particulate filter system to determine if a filter regeneration feature is functioning properly.
A core shell quantum dot comprising: a semiconductor nanocrystal core comprising indium and phosphorus and optionally zinc, and a semiconductor nanocrystal shell disposed on the semiconductor nanocrystal core, the semiconductor nanocrystal shell comprising zinc, selenium, and sulfur, wherein the core shell quantum dot does not comprise cadmium, wherein an extinction coefficient per gram (L*g -1 *cm -1) of the core shell quantum dot is greater than or equal to 0.3, wherein an ultraviolet-visible absorption spectrum curve of the core shell quantum dot has a positive differential coefficient value at 450 nanometers, wherein the core shell quantum dot is configured to emit green light upon excitation; wherein in the core shell quantum dot, a mole ratio of indium with respect to a total sum of sulfur and selenium is greater than or equal to 0.05 and less than or equal to 0.15:1, and wherein in the core shell quantum dot, a mole ratio of sulfur with respect to selenium is less than or equal to 3.5:1. wherein the core shell quantum dot does not comprise cadmium, wherein an extinction coefficient per gram (L*g -1 *cm -1) of the core shell quantum dot is greater than or equal to 0.3, wherein an ultraviolet-visible absorption spectrum curve of the core shell quantum dot has a positive differential coefficient value at 450 nanometers, wherein the core shell quantum dot is configured to emit green light upon excitation; wherein in the core shell quantum dot, a mole ratio of indium with respect to a total sum of sulfur and selenium is greater than or equal to 0.05 and less than or equal to 0.15:1, and wherein in the core shell quantum dot, a mole ratio of sulfur with respect to selenium is less than or equal to 3.5:1.
Braking band of a disc for a disc brake, comprising a first plate and a second plate, arranged facing one another so as to form a gap; a group of connection-spacer elements (6, 7) that connect the first plate and the second plate, said group constituting a module repeated according to a circumferential direction coaxial with the braking band itself; said group of spacer elements (6, 7) comprising a first tab that connects the first plate to the second plate and that extends according to a longitudinal line forming a first arched section having a first concavity that is kept going the same way along its entire longitudinal extension, a second arched section having a second concavity that is kept going the same way along its entire longitudinal extension, said second concavity of said second section being oriented the same way as the first concavity of the first section, said second section being circumferentially offset with respect to said first section; said line of longitudinal extension of the first tab comprising an intermediate section for joining between the first and the second section shaped like as "S"; wherein said first tab comprises a third section of predefined longitudinal extension, said third section being circumferentially offset with respect to said second section; characterized in that the group of spacer elements (6, 7) further comprises a second tab that connects the first plate to the second plate; the first tab being arranged in a radially outer annular portion of the braking band and the second tab extending substantially as a radial continuation, but detached from the first tab 6, towards an inner annular portion of the braking band.
A method for fabricating a semiconductor wafer for use as a solar collector, the method comprising the steps of: a. providing a molten semiconductor material, having a surface; b. providing a mold, comprising a forming surface, the mold also comprising a primary dopant relative to the semiconductor material; c. contacting the forming surface to the surface of the molten material such that primary dopant migrates from the mold into the molten semiconductor material; and d. solidifying a body of semiconductor material in the form of a wafer upon the forming surface, with a first surface of the wafer contacting the forming surface, the wafer having a profile of the primary dopant concentration, there being a larger concentration of the primary dopant at the first surface of the wafer, and a lesser concentration of the primary dopant at a second surface of the wafer than at the first surface of the wafer, the second surface of the wafer being opposite the first surface of the wafer, and the first and second surfaces of the wafer being principal surfaces of the wafer. a. providing a molten semiconductor material, having a surface; b. providing a mold, comprising a forming surface, the mold also comprising a primary dopant relative to the semiconductor material; c. contacting the forming surface to the surface of the molten material such that primary dopant migrates from the mold into the molten semiconductor material; and d. solidifying a body of semiconductor material in the form of a wafer upon the forming surface, with a first surface of the wafer contacting the forming surface, the wafer having a profile of the primary dopant concentration, there being a larger concentration of the primary dopant at the first surface of the wafer, and a lesser concentration of the primary dopant at a second surface of the wafer than at the first surface of the wafer, the second surface of the wafer being opposite the first surface of the wafer, and the first and second surfaces of the wafer being principal surfaces of the wafer.
An apparatus comprising: a radio-frequency, in the following called RF, first die including several through-silicon vias, in the following called TSVS, (426, 430); an active surface and a backside surface; a plurality of sectors in the RF first die; at least one TSV that transmits one of signal, power, and ground, in the following called signal TSV, and at least one TSV shielded sector among the plurality of sectors, where the TSV shielded sector includes: a shielding TSV enclosure of spaced-apart shielding TSVs that form a perimeter around at least a part of the TSV shielded sector; characterised in that the TSV shielded sector further includes: a lid formed by a lattice structure disposed on the die backside and matching the perimeter; a first plurality of shielding TSVs; and a subsequent plurality of shielding TSVs that is concentric to the first plurality. a radio-frequency, in the following called RF, first die including several through-silicon vias, in the following called TSVS, (426, 430); an active surface and a backside surface; a plurality of sectors in the RF first die; at least one TSV that transmits one of signal, power, and ground, in the following called signal TSV, and at least one TSV shielded sector among the plurality of sectors, where the TSV shielded sector includes: a shielding TSV enclosure of spaced-apart shielding TSVs that form a perimeter around at least a part of the TSV shielded sector; characterised in that the TSV shielded sector further includes: a lid formed by a lattice structure disposed on the die backside and matching the perimeter; a first plurality of shielding TSVs; and a subsequent plurality of shielding TSVs that is concentric to the first plurality. a lid formed by a lattice structure disposed on the die backside and matching the perimeter; a first plurality of shielding TSVs; and a subsequent plurality of shielding TSVs that is concentric to the first plurality.
A zirconia-based porous body having a total pore volume of 1.0 ml/g or more in a pore distribution based on a mercury intrusion method, wherein a pore volume of pores having a diameter of 20 nm or more and less than 100 nm is 0.3 ml/g or less, and a pore volume of pores having a diameter of 100 nm or more and 1000 nm or less is 0.5 ml/g or more. a pore volume of pores having a diameter of 20 nm or more and less than 100 nm is 0.3 ml/g or less, and a pore volume of pores having a diameter of 100 nm or more and 1000 nm or less is 0.5 ml/g or more.
An ocular fundus inspection apparatus comprising a frame provided with references of the positioning of at least one of the user's eyes in an inspection position, and an inspection unit fixed to said frame and comprising: - a first optical unit having an optical axis incident in correspondence of said inspection position; - an image detecting device; - a second optical unit, for the focusing, having an optical axis incident on said detecting device, in said inspection unit being defined an optical path between said first optical unit and said detecting device, through said second optical unit; - a first lighting unit suitable for projecting, towards said inspection position, a focusing pattern, susceptible of serving as a reference for focusing the ocular fundus on said detecting device, said focusing pattern being formed by an infrared radiation; the first lighting unit emitting said focusing pattern from a first emission position which is placed between said second optical unit and said detecting device; characterized in that said first lighting unit comprises: - first lighting means ( 15 a) suitable for projecting said focusing pattern; and - second lighting means ( 15 b) suitable for projecting a luminous signal towards said inspection position, said luminous signal being formed by visible light and suitable for being fixed by the eye to be inspected for maintaining stable the optical alignment of the latter, wherein the first and second lighting means (15a and 15b) are fixed to a support and they have a direction of luminous emission transverseto the optical axis of the second optical unit. - a first optical unit having an optical axis incident in correspondence of said inspection position; - an image detecting device; - a second optical unit, for the focusing, having an optical axis incident on said detecting device, in said inspection unit being defined an optical path between said first optical unit and said detecting device, through said second optical unit; - a first lighting unit suitable for projecting, towards said inspection position, a focusing pattern, susceptible of serving as a reference for focusing the ocular fundus on said detecting device, said focusing pattern being formed by an infrared radiation; the first lighting unit emitting said focusing pattern from a first emission position which is placed between said second optical unit and said detecting device; - first lighting means ( 15 a) suitable for projecting said focusing pattern; and - second lighting means ( 15 b) suitable for projecting a luminous signal towards said inspection position, said luminous signal being formed by visible light and suitable for being fixed by the eye to be inspected for maintaining stable the optical alignment of the latter,
An adhesive composition for use in a method of adhering tissue or organs in vivo, the adhesive composition comprising: tannin; poly(ethylene glycol); and a C1-C6 alcohol, wherein the poly(ethylene glycol) has a molecular weight of 1,000-100,000 Dalton.
A patch comprising: a backing layer; and an adhesive layer laminated on the backing layer, wherein a water vapor transmission rate of the backing layer is 4000 g/m 2 ·24 hours or more, and the adhesive layer comprises a drug, dimethylsulfoxide and an adhesive, and wherein the water vapor transmission rate of the backing layer is measured under the conditions of 40°C and 90% RH in accordance with JIS Z0208. a backing layer; and an adhesive layer laminated on the backing layer, wherein a water vapor transmission rate of the backing layer is 4000 g/m 2 ·24 hours or more, and the adhesive layer comprises a drug, dimethylsulfoxide and an adhesive, and wherein the water vapor transmission rate of the backing layer is measured under the conditions of 40°C and 90% RH in accordance with JIS Z0208.
A rotational-angle detection device, comprising: a magnet part provided to rotate integrally with a rotary shaft, and magnetized so that a position of an area magnetized as an N pole and a position of an area magnetized as an S pole are alternately switched as the rotary shaft rotates; a sensor part comprising a plurality of magnetic sensors (Ss1, Sc1, Ss2, Sc2) arranged so as to oppose the magnet part, each of the plurality of magnetic sensors (Ss1, Sc1, Ss2, Sc2) outputting a periodic signal that periodically changes by a magnetic action of the magnet part as the rotary shaft rotates; rotational-angle calculation means for calculating a rotational angle of the rotary shaft based on the periodic signals outputs by the plurality of magnetic sensors (Ss1, Sc1, Ss2, Sc2) of the sensor part; shaft misalignment detection means for detecting occurrence of a shaft misalignment that is a misalignment in a relative position in a radial direction of the rotary shaft between the magnet part and the sensor part; and shaft misalignment information output means for outputting shaft misalignment information representing the occurrence of the shaft misalignment; characterized by rotational-angle correction means for calculating, when the occurrence of the shaft misalignment is detected by the shaft misalignment detection means, the rotational angle of the rotary shaft so as to reduce a detection error in the rotational angle caused by the shaft misalignment. a magnet part provided to rotate integrally with a rotary shaft, and magnetized so that a position of an area magnetized as an N pole and a position of an area magnetized as an S pole are alternately switched as the rotary shaft rotates; a sensor part comprising a plurality of magnetic sensors (Ss1, Sc1, Ss2, Sc2) arranged so as to oppose the magnet part, each of the plurality of magnetic sensors (Ss1, Sc1, Ss2, Sc2) outputting a periodic signal that periodically changes by a magnetic action of the magnet part as the rotary shaft rotates; rotational-angle calculation means for calculating a rotational angle of the rotary shaft based on the periodic signals outputs by the plurality of magnetic sensors (Ss1, Sc1, Ss2, Sc2) of the sensor part; shaft misalignment detection means for detecting occurrence of a shaft misalignment that is a misalignment in a relative position in a radial direction of the rotary shaft between the magnet part and the sensor part; and shaft misalignment information output means for outputting shaft misalignment information representing the occurrence of the shaft misalignment; characterized by rotational-angle correction means for calculating, when the occurrence of the shaft misalignment is detected by the shaft misalignment detection means, the rotational angle of the rotary shaft so as to reduce a detection error in the rotational angle caused by the shaft misalignment.
Microelectrode array for recording an electrocorticogram (ECoG) having a substrate, having a multiplicity of electrodes in the form of ECoG electrodes that do not penetrate the surface of the brain for the purpose of electrically measuring brainwaves, and having an integrated optical stimulating unit for stimulating brain regions with optical signals, wherein the stimulation unit comprises one or more electrical light sources, wherein the substrate is configured, on a sensor side, to be brought into contact with the surface of the brain of a living being to be examined, wherein one, a plurality or all of the electrodes are integrated in a respectively elevated column structure which spaces apart an active electrode area of the individual electrodes on the sensor side from the substrate, characterized in that one, a plurality or all of the column structures have a respectively circumferential sealing lip which laterally delimits the active electrode area of the electrode integrated in the column structure.
A silver particle comprising: a silver powder constituting a base of the silver particle, and a silver layer formed over a surface of a silver powder by a liquid phase reduction method, that includes primary particles, the primary particles being smaller than the silver powder, wherein the average particle size of the primary particles, determined as described in the description, is from 10 to 100 nm, the silver particle having: a tap density, determined as described in the description, from 4.0 to 7.0 g/cm 3, a specific surface area from 0.5 to 1.5 m 2 /g as determined by the BET method, and an average particle size, determined as described in the description, from 1.0 to 3.0 μm. a silver powder constituting a base of the silver particle, and a silver layer formed over a surface of a silver powder by a liquid phase reduction method, that includes primary particles, the primary particles being smaller than the silver powder, wherein the average particle size of the primary particles, determined as described in the description, is from 10 to 100 nm, the silver particle having: a tap density, determined as described in the description, from 4.0 to 7.0 g/cm 3, a specific surface area from 0.5 to 1.5 m 2 /g as determined by the BET method, and an average particle size, determined as described in the description, from 1.0 to 3.0 μm. a tap density, determined as described in the description, from 4.0 to 7.0 g/cm 3, a specific surface area from 0.5 to 1.5 m 2 /g as determined by the BET method, and an average particle size, determined as described in the description, from 1.0 to 3.0 μm.