mhurhangee/patent-ind-claim-en huggingface dataset:
An inspection apparatus comprising: a stage on which a substrate (W) is placed; a cooler to cool the substrate (W) placed on the stage ; a light irradiator to irradiate light to an upper surface of the substrate (W), opposite to a bottom surface of the substrate (W) placed on the stage ; and a controller to control the light irradiator , characterized in that the inspection apparatus further comprises a probe card having probes to be in contact with the substrate (W) to supply electric power, wherein the light irradiator includes multiple light sources , and the light sources are arranged to surround the outer periphery of the probes . a stage on which a substrate (W) is placed; a cooler to cool the substrate (W) placed on the stage ; a light irradiator to irradiate light to an upper surface of the substrate (W), opposite to a bottom surface of the substrate (W) placed on the stage ; and a controller to control the light irradiator , the inspection apparatus further comprises a probe card having probes to be in contact with the substrate (W) to supply electric power, wherein the light irradiator includes multiple light sources , and the light sources are arranged to surround the outer periphery of the probes .
Drain assembly comprising a drain pot with an inlet opening , a drain gutter with a connecting piece for insertion into the inlet opening of the drain pot , a seal for peripherally sealing the connecting piece against the drain pot , an odor trap and a sealing collar , wherein in a mounting arrangement of the drain assembly the connecting piece is arranged with at least one vertical portion horizontally within the drain pot , wherein the seal extends horizontally circumferentially around the connecting piece and seals the connecting piece circumferentially against the drain pot , wherein the odor trap is arranged horizontally completely within the connecting piece and vertically at least in sections within the connecting piece , and the sealing collar is connected to the drain pot , wherein in the assembly arrangement the connecting piece and the seal are jointly horizontally displaceable relative to the drain pot , wherein the seal has a first abutment portion with which it presses circumferentially against the connecting piece with a horizontal abutment force in the mounting arrangement, and a second abutment portion which in the mounting arrangement is guided in a receiving groove of the drain pot which extends horizontally around the connecting piece and is connected in a sealing manner to the drain pot in this receiving groove, wherein the seal is fixed in the mounting arrangement with its vertical position relative to the drain pot due to its arrangement in the receiving groove and the connecting piece is vertically displaceable relative to the seal while maintaining a sealed condition of the connecting piece relative to the drain pot by means of the seal , characterized in that the first and the second abutment portion of the seal are integrally connected to one another or the seal has a first sealing ring which provides the first abutment portion and a second sealing ring which provides the second abutment portion , these two sealing rings being connected to one another by means of an intermediate element in a material-locking or form-locking manner.
Use of tar extract with aromatic characteristics from a discarded cigarette butt in preparation of a cigarette, or in preparation of a flavor, wherein the tar extract is used to the flavor as an aroma component; wherein the tar extract is obtained by a method for preparing the tar extract with aromatic characteristics from a discarded cigarette butt comprising the following steps: adding the discarded cigarette butt to an extraction solvent, and carrying out subcritical fluid extraction to obtain an extraction solution; carrying out vacuum filtration on the extraction solution, and carrying out vacuum distillation on the filtrate to obtain a concentrated extractum; and carrying out molecular distillation on the concentrated extractum, and collecting a light fraction of the molecular distillation to obtain the tar extract with aromatic characteristics. adding the discarded cigarette butt to an extraction solvent, and carrying out subcritical fluid extraction to obtain an extraction solution; carrying out vacuum filtration on the extraction solution, and carrying out vacuum distillation on the filtrate to obtain a concentrated extractum; and carrying out molecular distillation on the concentrated extractum, and collecting a light
A process for the production of a water-soluble composition comprising a water-insoluble statin which comprises the steps of: a) providing an emulsion comprising: i) a solution of the water-insoluble statin in a water-immiscible solvent for the same, and ii) an aqueous solution of a water-soluble carrier material, and, b) spray-drying the emulsion to remove water and the water-immiscible solvent to obtain a substantially solvent-free nano-dispersion of the statin in the carrier material, or a) providing a single phase solution comprising: i) at least one non-aqueous solvent ii) optionally, water iii) a water-soluble carrier material soluble in the mixture of (i) and (ii) and iv) a water-insoluble statin which is soluble in the mixture of (i) and (ii), and, b) spray-drying the solution to remove water and the water-miscible solvent to obtain a substantially solvent-free nano-dispersion of the statin in the carrier material, wherein, in both cases, the peak diameter particle size of the nanodisperse statin in the carrier material is below 800 nm as measured using dynamic light scattering, and wherein, in both cases, the water-soluble carrier material includes: (a) at least one polymer selected from the group consisting of: polyethylene glycol, polyvinylpyrrolidone, polyvinyl alcohol, hydroxypropyl cellulose and hydroxypropyl methylcellulose, and (b) at least one surfactant selected from the group consisting of: PEG/PPG PluronicTM materials and sorbitan ester surfactants. a) providing an emulsion comprising: i) a solution of the water-insoluble statin in a water-immiscible solvent for the same, and ii) an aqueous solution of a water-soluble carrier material, and, i) a solution of the water-insoluble statin in a water-immiscible solvent for the same, and ii) an aqueous solution of a water-soluble carrier material, and, b) spray-drying the emulsion to remove water and the water-immiscible solvent to obtain a substantially solvent-free nano-dispersion of the statin in the carrier material, a) providing a single phase solution comprising: i) at least one non-aqueous solvent ii) optionally, water iii) a water-soluble carrier material soluble in the mixture of (i) and (ii) and iv) a water-insoluble statin which is soluble in the mixture of (i) and (ii), and, i) at least one non-aqueous solvent ii) optionally, water iii) a water-soluble carrier material soluble in the mixture of (i) and (ii) and iv) a water-insoluble statin which is soluble in the mixture of (i) and (ii), and, b) spray-drying the solution to remove water and the water-miscible solvent to obtain a substantially solvent-free nano-dispersion of the statin in the carrier material, (a) at least one polymer selected from the group consisting of: polyethylene glycol, polyvinylpyrrolidone, polyvinyl alcohol, hydroxypropyl cellulose and hydroxypropyl methylcellulose, and (b) at least one surfactant selected from the group consisting of: PEG/PPG PluronicTM materials and sorbitan ester surfactants.
Method for repairing a radome comprising a panel exhibiting a double curvature forming a dome, the said panel comprising at least one damaged zone , characterized in that it comprises the following steps: - closing an interior space of the panel using a cap to form a chamber , referred to as repair chamber, the surface of the panel forming the said repair chamber containing the said damaged zone ; - heating the space inside the said repair chamber thus forming a heating chamber allowing the curing expected for repairing the damaged zone. - closing an interior space of the panel using a cap to form a chamber , referred to as repair chamber, the surface of the panel forming the said repair chamber containing the said damaged zone ; - heating the space inside the said repair chamber thus forming a heating chamber allowing the curing expected for repairing the damaged zone.
LED lamp , in particular a table lamp, comprising a lighting head extending about a central axis (A); the head comprising a body shaped as a ring about the axis (A) and provided with a substantially annular seat ; a plurality of LEDs arranged spaced apart from one another along the seat and about the axis (A) and supported by a printed circuit board positioned in the seat and having a face , on which the LEDs are positioned, perpendicular to the axis (A); and a lens positioned in front of the LEDs to close the seat ; wherein the lens consists of a monolithic piece extending about the axis (A) and having a concave annular inlet surface , facing the LEDs , and a convex annular outlet surface , substantially aligned to each other parallel to the axis (A) and extending about the axis (A); and wherein the inlet surface and the outlet surface are shaped so as to generate a rotosimmetric light emission about the axis (A); characterized in that the inlet surface has a radius of curvature greater than the outlet surface .
Dosage form comprising a) a core, comprising a biologically active ingredient which is stable to a degree of at least 95 % at pH 3 for 2 hours at 22 °C, wherein the degree of stability of the biologically active ingredient is tested in an assay which is a thin-layer chromatographic identification test, a spectrometric identification test, a nuclear magnetic resonance spectroscopy, a near-infrared spectroscopy or a Raman spectroscopy, b) an intermediate coating layer (ICL) onto or above the core, comprising an alkaline agent and c) an enteric coating layer (ECL) onto or above the intermediate coating layer, comprising an enteric polymer is selected from anionic (meth)acrylate copolymers, anionic celluloses, anionic polysaccharides and polyvinyl acetate phthalates or any mixtures thereof, wherein the relation in weight percent of the alkaline agent in the ICL to the enteric polymer in the ECL is 5 to 95 % when calculated by the formula: quantity of alkaline agent in grams in the ICL × 100 quantity of alkaline agent in grams in the ICL + quantity of enteric polymer in grams in the ECL a) a core, comprising a biologically active ingredient which is stable to a degree of at least 95 % at pH 3 for 2 hours at 22 °C, wherein the degree of stability of the biologically active ingredient is tested in an assay which is a thin-layer chromatographic identification test, a spectrometric identification test, a nuclear magnetic resonance spectroscopy, a near-infrared spectroscopy or a Raman spectroscopy, b) an intermediate coating layer (ICL) onto or above the core, comprising an alkaline agent and c) an enteric coating layer (ECL) onto or above the intermediate coating layer, comprising an enteric polymer is selected from anionic (meth)acrylate copolymers, anionic celluloses, anionic polysaccharides and polyvinyl acetate phthalates or any mixtures thereof,
A method of compressing higher order ambisonic ,HOA, coefficients representative of a soundfield, the method comprising: determining whether to augment one or more foreground audio objects with ambient HOA coefficients based on one or more singular values obtained through decomposition of the HOA coefficients, the ambient HOA coefficients representative of an ambient component of the soundfield, and the foreground audio objects and the ambient HOA coefficients being obtained through the decomposition of the HOA coefficients; characterized in that determining whether to use the ambient HOA coefficients to augment the one or more foreground audio objects in the bitstream with the ambient HOA coefficients comprises: determining whether one or more ambient singular values of the one or more singular values are less than a threshold value, wherein the ambient singular values are associated with the ambient component of the soundfield; and when the one or more ambient singular values associated with the ambient component are less than the threshold value, determining not to use the ambient HOA coefficients to augment the foreground audio objects. determining whether to augment one or more foreground audio objects with ambient HOA coefficients based on one or more singular values obtained through decomposition of the HOA coefficients, the ambient HOA coefficients representative of an ambient component of the soundfield, and the foreground audio objects and the ambient HOA coefficients being obtained through the decomposition of the HOA coefficients; characterized in that determining whether to use the ambient HOA coefficients to augment the one or more foreground audio objects in the bitstream with the ambient HOA coefficients comprises: determining whether one or more ambient singular values of the one or more singular values are less than a threshold value, wherein the ambient singular values are associated with the ambient component of the soundfield; and when the one or more ambient singular values associated with the ambient component are less than the threshold value, determining not to use the ambient HOA coefficients to augment the foreground audio objects. determining whether one or more ambient singular values of the one or more singular values are less than a threshold value, wherein the ambient singular values are associated with the ambient component of the soundfield; and when the one or more ambient singular values associated with the ambient component are less than the threshold value, determining not to use the ambient HOA coefficients to augment the foreground audio objects.
A thermotherapy device having a human body scan function, wherein a thermo-ceramic unit configured to move along a longitudinal direction of a user's backbone, a transfer motor unit configured to move the thermo-ceramic unit , wherein the transfer motor unit includes a transfer motor configured to move the thermo-ceramic unit along a longitudinal direction of a user's backbone; wherein the device further comprises: a motor variation generation module configured to measure variations in load of the transfer motor of the transfer motor unit , wherein the load variations of the transfer motor are measured using at least any one of rpm of the transfer motor , an amount of current supplied to the transfer motor , and a value of voltage supplied to the transfer motor ; and a backbone information generation module configured to generate information about a shape of the user's backbone using data of the motor variation generation module .
A method for fabricating a semiconductor device on a substrate , wherein the substrate comprises a magnetic random access memory, MRAM, region and a logic region , the method comprising: forming a magnetic tunneling junction, MTJ, on the MRAM region ; forming a first inter-metal dielectric, IMD, layer around the MTJ ; forming a first metal interconnection on the MRAM region and a third metal interconnection on the logic region in the first IMD layer, wherein the first metal interconnection is adjacent to the MTJ ; forming a stop layer on the first IMD layer ; removing the stop layer to form an opening on the MRAM region ; forming a channel layer in the opening to electrically connect the MTJ and the first metal interconnection ; forming a third IMD layer on the stop layer and the channel layer ; characterized by forming a fourth metal interconnection in the third IMD layer , wherein a portion of the fourth metal interconnection directly contacts the channel layer and another portion of the fourth metal interconnection penetrates through the stop layer to directly contact the third metal interconnection . forming a magnetic tunneling junction, MTJ, on the MRAM region ; forming a first inter-metal dielectric, IMD, layer around the MTJ ; forming a first metal interconnection on the MRAM region and a third metal interconnection on the logic region in the first IMD layer, wherein the first metal interconnection is adjacent to the MTJ ; forming a stop layer on the first IMD layer ; removing the stop layer to form an opening on the MRAM region ; forming a channel layer in the opening to electrically connect the MTJ and the first metal interconnection ; forming a third IMD layer on the stop layer and the channel layer ; characterized by forming a fourth metal interconnection in the third IMD layer , wherein a portion of the fourth metal interconnection directly contacts the channel layer and another portion of the fourth metal interconnection penetrates through the stop layer to directly contact the third metal interconnection .
A breathing apparatus comprising: - an inspiratory channel , an expiratory channel and a patient interface , wherein the inspiratory channel and the expiratory channel are connected to the patient interface , - a blower comprising blower driving means , wherein the blower is arranged to produce a flow of air to the inspiratory channel , - an oxygen valve arranged to be connected to an oxygen source , wherein the oxygen valve is configured to selectively deliver a flow of oxygen from the oxygen source to the inspiratory channel , - a valve configured to prevent flow of gas in a direction from the patient interface in the inspiratory channel , - a detecting unit configured to detect breathing phases , and - a control unit connected to the blower driving means , the oxygen valve and the detecting unit , characterized in that the control unit is configured to deactivate the blower driving means or reduce an operational rate of the blower driving means so that the blower produces substantially no flow of air to the inspiratory channel during a time period (tp) starting during an inspiratory phase after 30% of a duration of the inspiration phase and ending during the subsequent expiration phase at the latest upon initiation of the subsequent inspiration phase . - an inspiratory channel , an expiratory channel and a patient interface , wherein the inspiratory channel and the expiratory channel are connected to the patient interface , - a blower comprising blower driving means , wherein the blower is arranged to produce a flow of air to the inspiratory channel , - an oxygen valve arranged to be connected to an oxygen source , wherein the oxygen valve is configured to selectively deliver a flow of oxygen from the oxygen source to the inspiratory channel , - a valve configured to prevent flow of gas in a direction from the patient interface in the inspiratory channel , - a detecting unit configured to detect breathing phases , and - a control unit connected to the blower driving means , the oxygen valve and the detecting unit ,
A p38 MAPK inhibitor for use in the treatment of severe influenza in a human patient; wherein the severe influenza is characterised by symptoms that persist or recur for more than 2 days without signs of resolution, and the p38 MAP kinase inhibitor inhibits the release of pro-inflammatory mediators from endothelial cells and inhibits the release of pro-inflammatory cytokines from immune cells.
A surgical distractor comprising: a base plate ; a first intermediate stage telescopically coupled to the base plate; a distraction plate ; and one or more further intermediate stages between the first intermediate stage and the distraction plate, wherein the one or more further intermediate stages are telescopically coupled together; wherein one of the one or more further intermediate stages is telescopically coupled to the distraction plate; wherein one of the one or more further intermediate stages is telescopically coupled to the first intermediate stage, and wherein each intermediate stage is arranged to rotate relative to at least one of the base plate and the distraction plate to cause telescopic movement between that intermediate stage and at least one of the base plate and the distraction plate such that the distraction plate moves towards or away from the base plate. a base plate ; a first intermediate stage telescopically coupled to the base plate; a distraction plate ; and one or more further intermediate stages between the first intermediate stage and the distraction plate, wherein the one or more further intermediate stages are telescopically coupled together; wherein one of the one or more further intermediate stages is telescopically coupled to the distraction plate; wherein one of the one or more further intermediate stages is telescopically coupled to the first intermediate stage, and wherein each intermediate stage is arranged to rotate relative to at least one of the base plate and the distraction plate to cause telescopic movement between that intermediate stage and at least one of the base plate and the distraction plate such that the distraction plate moves towards or away from the base plate.
A reservoir for a controlled temperature therapy system, the reservoir comprising: a container with an interior defined by a floor and at least one wall the container configured to hold a heat transfer fluid; an inlet in fluid communication with the interior and configured to be in fluid communication with a fluid inlet line that is configured to direct heat transfer fluid into the container; an outlet in fluid communication with the interior and configured to be in fluid communication with a fluid outlet line that is configured to direct heat transfer fluid out of the container; and characterised by a baffle created by a first wall and a second wall within the interior such that the outlet is between the first wall and the second wall and the spacing between the first and second walls is less than the width of the interior adjacent the inlet, wherein the outlet comprises an outlet opening being a penetration in the at least one wall, the outlet opening being in fluid communication with the reservoir at a location closer to the floor than the inlet and wherein, in use, the inlet is above the level of the heat transfer fluid in the reservoir. a container with an interior defined by a floor and at least one wall the container configured to hold a heat transfer fluid; an inlet in fluid communication with the interior and configured to be in fluid communication with a fluid inlet line that is configured to direct heat transfer fluid into the container; an outlet in fluid communication with the interior and configured to be in fluid communication with a fluid outlet line that is configured to direct heat transfer fluid out of the container; and characterised by a baffle created by a first wall and a second wall within the interior such that the outlet is between the first wall and the second wall and the spacing between the first and second walls is less than the width of the interior adjacent the inlet, wherein the outlet comprises an outlet opening being a penetration in the at least one wall, the outlet opening being in fluid communication with the reservoir at a location closer to the floor than the inlet and wherein, in use, the inlet is above the level of the heat transfer fluid in the reservoir.