mhurhangee/ep-ind-claims huggingface dataset:
A negative electrode material for a non-aqueous electrolyte secondary battery, comprising: negative electrode active material particles containing a silicon compound expressed by SiO x where 0.5≤x≤1.6, the silicon compound being coated with a carbon coating layer composed of a carbon component, wherein the silicon compound contains a SiO 2 component having a tridymite structure and exhibit a diffraction peak at 21.825° attributable to the tridymite structure with a half width (2θ) of 0.15° or less in X-ray diffraction using Cu-Kα ray. negative electrode active material particles containing a silicon compound expressed by SiO x where 0.5≤x≤1.6, the silicon compound being coated with a carbon coating layer composed of a carbon component, wherein the silicon compound contains a SiO 2 component having a tridymite structure and exhibit a diffraction peak at 21.825° attributable to the tridymite structure with a half width (2θ) of 0.15° or less in X-ray diffraction using Cu-Kα ray.
A method for identifying transcriptional repressor domains, comprising: a) preparing a domain library comprising a plurality of nucleic acid sequences each configured to express a fusion protein comprising a protein domain linked to an inducible DNA binding domain; b) transforming reporter cells with the domain library, wherein a reporter cell comprises a two-part reporter comprising a surface marker and a fluorescent protein, the expression being under the control of a strong promoter that is capable of being silenced by a putative transcriptional repressor domain following treatment with an agent configured to induce the inducible DNA binding domain; c) treating the reporter cells with the agent for a length of time necessary for protein and mRNA degradation in the cell, preferably for at least 3 days, further preferably for 5 days; d) separating reporter cells based on presence or absence of the surface marker, the fluorescent protein, or a combination thereof; e) sequencing the protein domains from the separated reporter cells; f) calculating for each protein domain sequence a ratio of sequencing counts from reporter cells not having the surface marker, the fluorescent protein, or a combination thereof to sequencing counts from reporter cells having the surface marker, the fluorescent protein, or a combination thereof; and g) identifying protein domains as transcriptional repressor, wherein the protein domain is preferably identified as a transcription repressor when log2 of the ratio is at least two standard deviations from the mean of a poorly expressed negative control. a) preparing a domain library comprising a plurality of nucleic acid sequences each configured to express a fusion protein comprising a protein domain linked to an inducible DNA binding domain; b) transforming reporter cells with the domain library, wherein a reporter cell comprises a two-part reporter comprising a surface marker and a fluorescent protein, the expression being under the control of a strong promoter that is capable of being silenced by a putative transcriptional repressor domain following treatment with an agent configured to induce the inducible DNA binding domain; c) treating the reporter cells with the agent for a length of time necessary for protein and mRNA degradation in the cell, preferably for at least 3 days, further preferably for 5 days; d) separating reporter cells based on presence or absence of the surface marker, the fluorescent protein, or a combination thereof; e) sequencing the protein domains from the separated reporter cells; f) calculating for each protein domain sequence a ratio of sequencing counts from reporter cells not having the surface marker, the fluorescent protein, or a combination thereof to sequencing counts from reporter cells having the surface marker, the fluorescent protein, or a combination thereof; and g) identifying protein domains as transcriptional repressor, wherein the protein domain is preferably identified as a transcription repressor when log2 of the ratio is at least two standard deviations from the mean of a poorly expressed negative control.
A composition for use in the reduction of the risk of suffering from hypertension comprising an ingredient selected from monounsaturated fatty acids having 20 or more carbon atoms, salts thereof and esters thereof, as active ingredient, wherein the ratio of monounsaturated fatty acid having 20 or more carbon atoms to total fatty acids in the composition is 10 wt% or greater, and the active ingredient is derived from a fish oil. an ingredient selected from monounsaturated fatty acids having 20 or more carbon atoms, salts thereof and esters thereof, as active ingredient, wherein the ratio of monounsaturated fatty acid having 20 or more carbon atoms to total fatty acids in the composition is 10 wt% or greater, and the active ingredient is derived from a fish oil.
A combined elevator vibration isolation and load measurement element comprising a vibration isolation pad with two opposite substantially planar surfaces, an elastic material layer (110, 210, 310) being permanently attached to a first of the two substantially planar surfaces of the vibration isolation pad, a load sensor arrangement (100, 200, 300) integrated into the combined elevator vibration isolation and load measurement element, characterised in that a load acting on the combined elevator vibration isolation and load measurement element can be measured with the load sensor arrangement as a function of the compression of the elastic material layer (110, 210, 310). a vibration isolation pad with two opposite substantially planar surfaces, an elastic material layer (110, 210, 310) being permanently attached to a first of the two substantially planar surfaces of the vibration isolation pad, a load sensor arrangement (100, 200, 300) integrated into the combined elevator vibration isolation and load measurement element, characterised in that a load acting on the combined elevator vibration isolation and load measurement element can be measured with the load sensor arrangement as a function of the compression of the elastic material layer (110, 210, 310).
Vehicle, in particular rail vehicle, with a vehicle exterior skin which is curved at least in sections, - an adapter frame which is curved on the outer side being inserted into a shell-side opening in a curved section of the vehicle exterior skin, the outer side of which adapter frame, at least in the region of its outer contour which adjoins the curved vehicle exterior skin, follows the curvature of the curved vehicle exterior skin, characterized in that - a planar window pane which is held by the adapter frame is inserted into the inner region of the adapter frame, and - the adapter frame has a depression which, starting from an outer edge region of the adapter frame, which outer edge region is depression-free and flush-mounted with the curvature of the curved vehicle exterior skin, becomes deeper in the direction of the planar window pane and has its greatest depth at the interface with an edge of the planar window pane. - an adapter frame which is curved on the outer side being inserted into a shell-side opening in a curved section of the vehicle exterior skin, the outer side of which adapter frame, at least in the region of its outer contour which adjoins the curved vehicle exterior skin, follows the curvature of the curved vehicle exterior skin, characterized in that - a planar window pane which is held by the adapter frame is inserted into the inner region of the adapter frame, and - the adapter frame has a depression which, starting from an outer edge region of the adapter frame, which outer edge region is depression-free and flush-mounted with the curvature of the curved vehicle exterior skin, becomes deeper in the direction of the planar window pane and has its greatest depth at the interface with an edge of the planar window pane.
An apparatus for preparing bisphenol A comprising: a first crystallizer to which a bisphenol A concentration stream containing a reaction product of phenol and acetone is introduced to crystallize bisphenol A and to discharge an adduct of crystallized bisphenol A and phenol; a first solid-liquid separator in which the adduct of crystallized bisphenol A and phenol in said first crystallizer is introduced, separated from a mother liquid and discharged; a phenol introduction port in which a phenol stream is introduced into the adduct of crystallized bisphenol A and phenol discharged from said first solid-liquid separator to discharge the mixed stream of phenol with said adduct of crystallized bisphenol A and phenol; a first heat exchanger in which said phenol stream is heated before said phenol stream is introduced; a second heat exchanger in which the adduct of crystallized bisphenol A and phenol in the mixed stream flowing out from said phenol introduction port is melted to discharge the molten stream; and a second crystallizer to which the molten stream discharged from said second heat exchanger is introduced to recrystallize bisphenol A and to discharge the adduct of crystallized bisphenol A and phenol, wherein the first heat exchanger comprises a separation line for separating pentane present in said phenol stream, and wherein the separation line introduces the separated pentane into the second crystallizer. a first crystallizer to which a bisphenol A concentration stream containing a reaction product of phenol and acetone is introduced to crystallize bisphenol A and to discharge an adduct of crystallized bisphenol A and phenol; a first solid-liquid separator in which the adduct of crystallized bisphenol A and phenol in said first crystallizer is introduced, separated from a mother liquid and discharged; a phenol introduction port in which a phenol stream is introduced into the adduct of crystallized bisphenol A and phenol discharged from said first solid-liquid separator to discharge the mixed stream of phenol with said adduct of crystallized bisphenol A and phenol; a first heat exchanger in which said phenol stream is heated before said phenol stream is introduced; a second heat exchanger in which the adduct of crystallized bisphenol A and phenol in the mixed stream flowing out from said phenol introduction port is melted to discharge the molten stream; and a second crystallizer to which the molten stream discharged from said second heat exchanger is introduced to recrystallize bisphenol A and to discharge the adduct of crystallized bisphenol A and phenol, wherein the first heat exchanger comprises a separation line for separating pentane present in said phenol stream, and wherein the separation line introduces the separated pentane into the second crystallizer.
A method for producing a milk thistle extract from fruit peels, said method comprising the following steps: a.) peeling the fruit of milk thistle and separating the peels obtained, b.) removing the fat from the peels from a.), and c.) swelling the peels in water, d.) extracting the moist peels from c.) in acetone (dipole moment: 10.0 x 10E-30 Cm) or a solvent with a dipole moment of 8 - 12 x 10E-30 Cm, e.) drying the supernatant. a.) peeling the fruit of milk thistle and separating the peels obtained, b.) removing the fat from the peels from a.), and c.) swelling the peels in water, d.) extracting the moist peels from c.) in acetone (dipole moment: 10.0 x 10E-30 Cm) or a solvent with a dipole moment of 8 - 12 x 10E-30 Cm, e.) drying the supernatant.
A driver for driving a load circuit, wherein the driver comprises: - a supply circuit configured to provide a supply current signal from a mains source to the load circuit, - a storage circuit configured to store energy destined for the load circuit, - a switch circuit coupled with the storage circuit and the supply circuit, wherein the switch circuit is configured to be coupled with the load circuit, and - a controller for controlling the switch circuit, wherein when the switch circuit is coupled to the load circuit, the controller is configured to control the switch circuit to bring the driver into - a charge state for charging the storage circuit via the supply current signal; - a bypass state for bypassing the storage circuit: and - a dependent discharge state for discharging the storage circuit via the load circuit, whereby the supply current signal is not blocked; characterised in that the controller is further configured to control the switch circuit to bring the driver into - an independent discharge state for discharging of the storage circuit via the load circuit, whereby the supply current signal is blocked for a time duration. - a supply circuit configured to provide a supply current signal from a mains source to the load circuit, - a storage circuit configured to store energy destined for the load circuit, - a switch circuit coupled with the storage circuit and the supply circuit, wherein the switch circuit is configured to be coupled with the load circuit, and - a controller for controlling the switch circuit, wherein when the switch circuit is coupled to the load circuit, the controller is configured to control the switch circuit to bring the driver into - a charge state for charging the storage circuit via the supply current signal; - a bypass state for bypassing the storage circuit: and - a dependent discharge state for discharging the storage circuit via the load circuit, whereby the supply current signal is not blocked; characterised in that the controller is further configured to control the switch circuit to bring the driver into - an independent discharge state for discharging of the storage circuit via the load circuit, whereby the supply current signal is blocked for a time duration. - a charge state for charging the storage circuit via the supply current signal; - a bypass state for bypassing the storage circuit: and - a dependent discharge state for discharging the storage circuit via the load circuit, whereby the supply current signal is not blocked; characterised in that the controller is further configured to control the switch circuit to bring the driver into - an independent discharge state for discharging of the storage circuit via the load circuit, whereby the supply current signal is blocked for a time duration.
An image sensor that includes a plurality of super-pixels, each super-pixel comprising: a first photosensitive element; a detector that is electrically connected to the first photosensitive element and configured to generate a trigger signal when an analog signal proportional to brightness of light impinging on the first photosensitive element matches a condition; at least one second photosensitive element; at least one exposure measurement sub-circuit that is electrically connected to the at least one second photosensitive element; an analog-to-digital circuit configured to convert an analog signal proportional to brightness of light impinging on the at least one second photosensitive element to a digital signal; and a logic circuit that is electrically connected to the detector and the analog-to-digital circuit and configured to enable the analog-to-digital circuit in response to the trigger signal, and to disable the analog-to-digital circuit after the digital signal is read out from the analog-to-digital circuit. a first photosensitive element; a detector that is electrically connected to the first photosensitive element and configured to generate a trigger signal when an analog signal proportional to brightness of light impinging on the first photosensitive element matches a condition; at least one second photosensitive element; at least one exposure measurement sub-circuit that is electrically connected to the at least one second photosensitive element; an analog-to-digital circuit configured to convert an analog signal proportional to brightness of light impinging on the at least one second photosensitive element to a digital signal; and a logic circuit that is electrically connected to the detector and the analog-to-digital circuit and configured to enable the analog-to-digital circuit in response to the trigger signal, and to disable the analog-to-digital circuit after the digital signal is read out from the analog-to-digital circuit.
An immunochromatographic detection method of detecting an analyte in a sample acquired by diluting a specimen, comprising the steps of: 1) providing a sample to a sample pad of an immunochromatographic test strip comprising a) a sample pad, b) a conjugate pad disposed downstream relative to the sample pad, the conjugate pad comprising a label to which a first antibody to an analyte is immobilized, and a label to which a first antibody to a control component is immobilized, the control component being contained in the specimen and different from the analyte, and c) an insoluble membrane which is disposed downstream relative to the conjugate pad and to which a second antibody to the analyte and a second antibody to the control component are immobilized; 2) detecting on the insoluble membrane the presence or absence of a complex of the analyte and the first and second antibodies to the analyte; 3) detecting on the insoluble membrane the presence or absence of a complex of the control component and the first and second antibodies to the control component; and 4) determining that no specimen is contained in the sample if no complex can be detected at the detecting step of 3), wherein the specimen is plasma or serum, and wherein the control component is hemoglobin. 1) providing a sample to a sample pad of an immunochromatographic test strip comprising a) a sample pad, b) a conjugate pad disposed downstream relative to the sample pad, the conjugate pad comprising a label to which a first antibody to an analyte is immobilized, and a label to which a first antibody to a control component is immobilized, the control component being contained in the specimen and different from the analyte, and c) an insoluble membrane which is disposed downstream relative to the conjugate pad and to which a second antibody to the analyte and a second antibody to the control component are immobilized; a) a sample pad, b) a conjugate pad disposed downstream relative to the sample pad, the conjugate pad comprising a label to which a first antibody to an analyte is immobilized, and a label to which a first antibody to a control component is immobilized, the control component being contained in the specimen and different from the analyte, and c) an insoluble membrane which is disposed downstream relative to the conjugate pad and to which a second antibody to the analyte and a second antibody to the control component are immobilized; 2) detecting on the insoluble membrane the presence or absence of a complex of the analyte and the first and second antibodies to the analyte; 3) detecting on the insoluble membrane the presence or absence of a complex of the control component and the first and second antibodies to the control component; and 4) determining that no specimen is contained in the sample if no complex can be detected at the detecting step of 3),
One-piece locking bolt for a motor vehicle locking system, embodied as a solid component having different cross-sectional strengths, with a base plate and with a shackle made of a pin, a web and a base, wherein the pin and the base connect the web with the base plate, characterized in that at least one rib serving as surface contour is pre-formed in the region of the web of the locking bolt and below an undercut, which is not a continuous opening, is arranged so that, when observing a main direction of demolding oriented normal to the upper or lower side of the base plate, the region of the undercut is not demoldable with a simple open-close tool.
A fully automatic machine for applying rhinestones to an element to be decorated, comprising: - a pickup station configured to supply a succession of rhinestones; - a release station, arranged downstream of said pickup station, configured to allow a deposit of said rhinestone on said element to be decorated; - a gluing station, interposed between said pickup station and said release station, configured to apply a predetermined amount of adhesive substance on said at least one picked up rhinestone; - a transfer conveyor provided with a succession of heads, each head being configured to cyclically pick up a rhinestone from said pickup station and release the rhinestone in said release station, each head being movable along a closed feed path passing through said gluing station, wherein said transfer conveyor comprises a turret rotating about a rotation axis, preferably horizontal, so that said closed feed path is a circular path along which said stations (1, 2, 3, 5) are distributed; wherein said transfer conveyor is intermittently movable so that the picking up of a first rhinestone in the pickup station by a head is simultaneous with the application of the adhesive substance on a second rhinestone, retained by a further head in the gluing station, and is also simultaneous with the release of a third rhinestone by a further head in the release station. - a pickup station configured to supply a succession of rhinestones; - a release station, arranged downstream of said pickup station, configured to allow a deposit of said rhinestone on said element to be decorated; - a gluing station, interposed between said pickup station and said release station, configured to apply a predetermined amount of adhesive substance on said at least one picked up rhinestone; - a transfer conveyor provided with a succession of heads, each head being configured to cyclically pick up a rhinestone from said pickup station and release the rhinestone in said release station, each head being movable along a closed feed path passing through said gluing station, wherein said transfer conveyor comprises a turret rotating about a rotation axis, preferably horizontal, so that said closed feed path is a circular path along which said stations (1, 2, 3, 5) are distributed; wherein said transfer conveyor is intermittently movable so that the picking up of a first rhinestone in the pickup station by a head is simultaneous with the application of the adhesive substance on a second rhinestone, retained by a further head in the gluing station, and is also simultaneous with the release of a third rhinestone by a further head in the release station.