mhurhangee/ep-ind-claims huggingface dataset:
Microcapsules for use in liquid detergents having a core and a polyelectrolyte complex shell in the form of a semipermeable membrane, the microcapsule being capable of withstanding a force before bursting of from 20 mN to 20,000 mN and having a density of from 900 Kg/m 3 to 1,300 Kg/m 3 at 25°C, wherein the core includes a density modifier effective in reducing the density of the microcapsules by at least 10% at 25°C, the density modifier being selected from the group consisting of silicone oils, petrolatums, vegetable oils, limonene and octane, wherein the shell is composed of a polyanion-polycation polyelectrolyte complex, which is a combination of sodium alginate with poly-(diallyldimethylammonium) chloride, chitosan polymer having a molecular weight of from 10 to 1,000 kDa, chitosan oligomer having a molecular weight of from 300 to 9,000 Da or a mixture of the chitosan polymer and the oligomer.
An apparatus for forming a wellbore in a subterranean formation, comprising: - a bottomhole assembly having a first BHA section and a second BHA section; - a flex sub connecting the first BHA section to the second BHA section, the flex sub flexing to allow an axial misalignment between the first BHA section and the second BHA section; - a drill bit connected to a first end of the first BHA section; - a drilling motor disposed along the second BHA section, the drilling motor connected to and rotating the drill bit, the flex sub separating the drilling motor from the first BHA section having the drill bit connected to the first end; and - a steering assembly positioned along the bottomhole assembly, the steering assembly including: - a first steering unit having at least one pad generating a force in a first direction, and - a second steering unit axially spaced apart from the first steering unit, the second steering unit having at least one pad generating a force in a second direction different from the first direction, wherein the first and the second steering units (150, 170) cooperate to axially misalign the first BHA section and the second BHA section at the flex sub. - a bottomhole assembly having a first BHA section and a second BHA section; - a flex sub connecting the first BHA section to the second BHA section, the flex sub flexing to allow an axial misalignment between the first BHA section and the second BHA section; - a drill bit connected to a first end of the first BHA section; - a drilling motor disposed along the second BHA section, the drilling motor connected to and rotating the drill bit, the flex sub separating the drilling motor from the first BHA section having the drill bit connected to the first end; and - a steering assembly positioned along the bottomhole assembly, the steering assembly including: - a first steering unit having at least one pad generating a force in a first direction, and - a second steering unit axially spaced apart from the first steering unit, the second steering unit having at least one pad generating a force in a second direction different from the first direction, wherein the first and the second steering units (150, 170) cooperate to axially misalign the first BHA section and the second BHA section at the flex sub. - a first steering unit having at least one pad generating a force in a first direction, and - a second steering unit axially spaced apart from the first steering unit, the second steering unit having at least one pad generating a force in a second direction different from the first direction, wherein the first and the second steering units (150, 170) cooperate to axially misalign the first BHA section and the second BHA section at the flex sub.
Radiation-emitting device, comprising - a substrate - an organic radiation-emitting functional layer, which emits a primary radiation, and - a radiation decoupling layer which is disposed in the beam path of the primary radiation, wherein - the radiation decoupling layer comprises a partial layer having light-scattering regions, - the radiation decoupling layer comprises, on the side remote from the radiation-emitting functional layer, a microstructure having regularly disposed geometric structural elements, so that the partial layer having the light-scattering regions is situated between the microstructure and the substrate, - the radiation decoupling layer includes the partial layer having the light-scattering regions, which effect a scattering of the primary radiation, - each planar curve, which extends from a maximum of the geometric structural element to the base thereof, comprises in its lowermost third facing the radiation-emitting layer only curvatures which are smaller than any curvature in the corresponding uppermost third of the planar curve, - curvatures in the central third are between the curvatures between the uppermost third and the lowermost third, - planar curves refer to such curves which extend on the outer surface of the corresponding geometric structural element such as degrees of longitude of a globe which extend from the pole to the equator, and - the maxima of mutually adjacent geometric structural elements comprise a spacing of 30 to 500 μm. - a substrate - an organic radiation-emitting functional layer, which emits a primary radiation, and - a radiation decoupling layer which is disposed in the beam path of the primary radiation, - the radiation decoupling layer comprises a partial layer having light-scattering regions, - the radiation decoupling layer comprises, on the side remote from the radiation-emitting functional layer, a microstructure having regularly disposed geometric structural elements, so that the partial layer having the light-scattering regions is situated between the microstructure and the substrate, - the radiation decoupling layer includes the partial layer having the light-scattering regions, which effect a scattering of the primary radiation, - each planar curve, which extends from a maximum of the geometric structural element to the base thereof, comprises in its lowermost third facing the radiation-emitting layer only curvatures which are smaller than any curvature in the corresponding uppermost third of the planar curve, - curvatures in the central third are between the curvatures between the uppermost third and the lowermost third, - planar curves refer to such curves which extend on the outer surface of the corresponding geometric structural element such as degrees of longitude of a globe which extend from the pole to the equator, and - the maxima of mutually adjacent geometric structural elements comprise a spacing of 30 to 500 μm.
A method for producing a cell capable of high-yield production of a desired polypeptide, wherein a cell into which a bicarbonate transporter gene has been artificially transferred and into which DNA encoding the desired polypeptide has been introduced is cultured in the presence of 40 nM or more of methotrexate and a cell capable of high-yield production of the desired polypeptide is selected from among surviving cells.
Fractionating device for separating feedstock into at least one light material fraction and a heavy material fraction, comprising at least one inlet for the feedstock, at least one light material outlet for the light material fractions, and at least one heavy material outlet for the heavy material fraction, a flow generator for generating a gas flow, in particular an air flow, in the fractionating device for separating the feedstock into the light material fractions and the heavy material fraction, a curved centrifugal separating device for separating at least the light material fractions from the gas flow, a conveying device, arranged downstream of the inlet in the conveying direction of the feedstock, for conveying the feedstock into the centrifugal separating device, wherein at least 50% of the gas is conductible as a circulatory flow in the fractionating device, characterized in that the circulatory flow is conducted in crosss section through the centrifugal separating device around the conveying device arranged in the fractionating device.
A printing unit, comprising: a platen roller configured to convey a recording sheet; a thermal head configured to perform printing on the recording sheet through press contact with an outer peripheral surface of the platen roller; a sensor, which is arranged in such a manner as to face the platen roller, and is configured to detect the recording sheet; a flexible printed board including a sensor mounting portion on which the sensor is mounted; and a frame, which is configured to support the platen roller in a rotatable manner, characterized in that the frame includes a locking projection to which the sensor mounting portion is to be locked. a platen roller configured to convey a recording sheet; a thermal head configured to perform printing on the recording sheet through press contact with an outer peripheral surface of the platen roller; a sensor, which is arranged in such a manner as to face the platen roller, and is configured to detect the recording sheet; a flexible printed board including a sensor mounting portion on which the sensor is mounted; and a frame, which is configured to support the platen roller in a rotatable manner, characterized in that the frame includes a locking projection to which the sensor mounting portion is to be locked.
Cleaning apparatus for cleaning a floor cloth for an automatic floor cleaner, wherein the cleaning apparatus comprises the following: - a water-permeable radial drum which is configured to accommodate the floor cloth on its peripheral surface; - a dampening facility for the floor cloth attached to the drum; and - a control apparatus for controlling the drum such that the floor cloth is removed from or attached to a floor cleaner running over the drum. - a water-permeable radial drum which is configured to accommodate the floor cloth on its peripheral surface; - a dampening facility for the floor cloth attached to the drum; and - a control apparatus for controlling the drum such that the floor cloth is removed from or attached to a floor cleaner running over the drum.
A beauty apparatus comprising: a first stimulation provider configured to provide a skin with a first stimulation and comprising a probe head; a second stimulation provider configured to provide the skin with a second stimulation induced by an electromagnetic change in a radio frequency, and different in type from the first stimulation; a detector configured to detect a contact of the skin with the first stimulation provider and the second stimulation provider; a controller configured to control the first stimulation provider and the second stimulation provider, based on a detection result of the detector, and a retractable mechanism for retracting the first stimulation provider in relation to the second stimulation provider when the probe head of the first stimulation provider is pressed against the skin, the retractable mechanism being configured to stop the retracting when the detector detects contact of the skin with both the first stimulation provider and the second stimulation provider. a first stimulation provider configured to provide a skin with a first stimulation and comprising a probe head; a second stimulation provider configured to provide the skin with a second stimulation induced by an electromagnetic change in a radio frequency, and different in type from the first stimulation; a detector configured to detect a contact of the skin with the first stimulation provider and the second stimulation provider; a controller configured to control the first stimulation provider and the second stimulation provider, based on a detection result of the detector, and a retractable mechanism for retracting the first stimulation provider in relation to the second stimulation provider when the probe head of the first stimulation provider is pressed against the skin, the retractable mechanism being configured to stop the retracting when the detector detects contact of the skin with both the first stimulation provider and the second stimulation provider.
A method for determination of alignment errors of structures which are present on a substrate or which have been applied to it for checking the alignment accuracy and/or the distortion of the applied or present structures, with the following steps: - fixing the substrate on a substrate holder, - receiving the substrate holder by a receiving apparatus - translational and/or rotatory movement of the receiving apparatus and thereby positioning the substrate relative to at least one firmly mountable optic in a first coordinate system - detection of X-Y positions of markings (11, 11') on the structures by the at least one optic, wherein in a second coordinate system which is independent of the first coordinate system ideal X'-Y'- structure positions for the structures are given, - determining of each distance of the ideal X'-Y'-structure positions from the detected X-Y-positions of the markings (11, 11'), - treatment of the substrate in a treatment step, characterized in that - after the treatment a detection of X-Y positions of the markings (11, 11') on the structures is conducted by the at least one optic, wherein in the second coordinate system, which is independent from the first coordinate system, ideal X'-Y'-structure positions for the structures are given, - a determination of each distance of the ideal X'-Y'- structure positions from the detected X-Y-positions of the markings (11, 11') is conducted, wherein the determined distances are used for determination of alignment errors. - fixing the substrate on a substrate holder, - receiving the substrate holder by a receiving apparatus - translational and/or rotatory movement of the receiving apparatus and thereby positioning the substrate relative to at least one firmly mountable optic in a first coordinate system - detection of X-Y positions of markings (11, 11') on the structures by the at least one optic, wherein in a second coordinate system which is independent of the first coordinate system ideal X'-Y'- structure positions for the structures are given, - determining of each distance of the ideal X'-Y'-structure positions from the detected X-Y-positions of the markings (11, 11'), - treatment of the substrate in a treatment step, characterized in that - after the treatment a detection of X-Y positions of the markings (11, 11') on the structures is conducted by the at least one optic, wherein in the second coordinate system, which is independent from the first coordinate system, ideal X'-Y'-structure positions for the structures are given, - a determination of each distance of the ideal X'-Y'- structure positions from the detected X-Y-positions of the markings (11, 11') is conducted, wherein the determined distances are used for determination of alignment errors.
A system for forming a container from a preform, the preform having a finish and a support ring, the system comprising: a mold having a mold cavity defining an internal surface and adapted to accept the preform; a pressure system having an inlet and an outlet, the pressure system outputting fluid; the fluid being a liquid commodity a blow nozzle receiving the fluid from the pressure system and introducing the fluid at a pressure into the preform thereby expanding the preform toward the internal surface of the mold cavity and creating a resultant container; a first seal engagement selectively engageable between the blow nozzle and the finish of the preform; and a second seal engagement (73, 75) selectively engageable between the blow nozzle and an adjacent feature, wherein the adjacent feature comprises a top surface of the support ring of the preform such that the second seal engagement is disposable between the blow nozzle and the top surface of the support ring of the preform or wherein the adjacent feature comprises the mold such that the second seal engagement is disposed between the blow nozzle and the mold. characterized in that the system further comprises an aspiration port system operably coupled between the first seal engagement and the second seal engagement, the aspiration port system applying a vacuum sufficient to remove residual liquid from a volume between the first seal engagement and the second seal engagement. a mold having a mold cavity defining an internal surface and adapted to accept the preform; a pressure system having an inlet and an outlet, the pressure system outputting fluid; the fluid being a liquid commodity a blow nozzle receiving the fluid from the pressure system and introducing the fluid at a pressure into the preform thereby expanding the preform toward the internal surface of the mold cavity and creating a resultant container; a first seal engagement selectively engageable between the blow nozzle and the finish of the preform; and a second seal engagement (73, 75) selectively engageable between the blow nozzle and an adjacent feature, wherein the adjacent feature comprises a top surface of the support ring of the preform such that the second seal engagement is disposable between the blow nozzle and the top surface of the support ring of the preform or wherein the adjacent feature comprises the mold such that the second seal engagement is disposed between the blow nozzle and the mold. characterized in that the system further comprises an aspiration port system operably coupled between the first seal engagement and the second seal engagement, the aspiration port system applying a vacuum sufficient to remove residual liquid from a volume between the first seal engagement and the second seal engagement.
A system for diagnosis or diagnosis and treatment of a condition in a patient's large intestine, the system comprising: a water delivery unit comprising a water supply and a nozzle connected thereto, configured to introduce water controllably into the patient's large intestine; a transparent drainage pipe configured to drain, by gravity, the introduced water with contents of the patient's large intestine; characterised in that the system comprises further: an analysis module configured to relate at least two portions of the drained contents with at least two sections of the large intestine and to derive microbiome characteristics of the at least two sections of the large intestine by analyzing the corresponding at least two portions of the drained contents. a water delivery unit comprising a water supply and a nozzle connected thereto, configured to introduce water controllably into the patient's large intestine; a transparent drainage pipe configured to drain, by gravity, the introduced water with contents of the patient's large intestine; characterised in that the system comprises further: an analysis module configured to relate at least two portions of the drained contents with at least two sections of the large intestine and to derive microbiome characteristics of the at least two sections of the large intestine by analyzing the corresponding at least two portions of the drained contents.
A flexible carbon nanotube film self-heating platform for assisting automatic laying, wherein the self-heating platform comprises an automatic laying mould, a carbon nanotube film and a vacuum bag which are sequentially laid from bottom to top; the carbon nanotube film is connected with a power source by a conducting wire (3, 4); and the vacuum bag is connected with a vacuumizing device by a pipeline, wherein the carbon nanotube film has an arbitrary area and covers a laying region of the automatic laying mould, wherein in that the carbon nanotube film has a thickness of 10 μm-1 mm and a density of lower than 1g/cm 3. wherein the carbon nanotube film has an arbitrary area and covers a laying region of the automatic laying mould, wherein in that the carbon nanotube film has a thickness of 10 μm-1 mm and a density of lower than 1g/cm 3.
A production method for a lateral electro-optical modulator on an SOI substrate, the modulator comprising a rib waveguide formed in the thin layer of silicon of the SOI substrate, the rib waveguide being placed between a doped region P and a doped region N formed in the thin layer of silicon, the rib waveguide occupying an intrinsic region of the thin layer, the doped region P, the intrinsic region and the doped region N constituting a PIN diode structure, at least one doped zone P being formed in the rib and perpendicularly to the substrate, the method comprising steps of: - masking the thin layer of silicon, employing a hard mask whereof the pattern defines therein the rib of the waveguide, - producing the rib by etching of the thin layer of silicon, a first resin mask covering the hard mask to protect the parts to be doped P, - masking of the thin layer of silicon to delimit the parts to be doped P, - doping the parts to be doped P, - masking the thin layer of silicon to delimit the region to be doped N and - doping the region to be doped N, characterised in that said first resin mask partially covers the hard mask and in that said masking steps likewise define the zone to be doped P in the rib of the waveguide due to the hard mask and to a second resin mask having an opening whose width is greater than the width of the zone to be doped P such that it is the hard mask which defines the width of the doped zone P, and define the limit of the doped region N (216, 316) relative to the rib of the waveguide due to the hard mask and to a third resin mask which leaves part of the hard mask partially visible located to the side of the region to be doped N. - masking the thin layer of silicon, employing a hard mask whereof the pattern defines therein the rib of the waveguide, - producing the rib by etching of the thin layer of silicon, a first resin mask covering the hard mask to protect the parts to be doped P, - masking of the thin layer of silicon to delimit the parts to be doped P, - doping the parts to be doped P, - masking the thin layer of silicon to delimit the region to be doped N and - doping the region to be doped N,
A bone void filler comprising a dry weight of said collagen between 5% and 30% of the weight of the bone void filler, a weight of said calcium phosphate between 55% and 94% of the weight of the bone void filler, and at least one stabilizer agent including calcium sulfate between 2% and 5% of the weight of the bone void filler, wherein said collagen comprises soluble collagen and insoluble fibrillar collagen; with a dry weight of the soluble collagen is between 20% and 40% of the dry weight of the collagen; and a dry weight of the insoluble fibrillar collagen is between 60% and 80% of the dry weight of the collagen. a dry weight of said collagen between 5% and 30% of the weight of the bone void filler, a weight of said calcium phosphate between 55% and 94% of the weight of the bone void filler, and at least one stabilizer agent including calcium sulfate between 2% and 5% of the weight of the bone void filler,