mhurhangee/ep-ind-claims huggingface dataset:
Method for in vitro establishing prostate cancer (PrCa) in a sample originating from a human individual suspected of or suffering from prostate cancer comprising: a) determining expression levels of DLX1 and HOXC6; b) establishing up-regulation of the expression levels of DLX1 and HOXC6 as compared to expression levels of DLX1 and HOXC6 in a sample originating from an individual not suffering from prostate cancer or as compared to a reference value indicative of a non-disease expression level; and c) establishing the presence or absence of prostate cancer (PrCa) based on the up-regulation of the expression levels of DLX1 and HOXC6 in said sample. wherein step (a) further comprises determining the expression levels of HOXC4 and TDRD1; wherein step (b) further comprises establishing up-regulation of the expression levels of HOXC4 and TDRD1 as compared to expression levels of HOXC4 and TDRD1 in a sample originating from an individual not suffering from prostate cancer or as compared to a reference value indicative of a non-disease expression level; and wherein step (c) comprises establishing the presence or absence of prostate cancer (PrCa) based on the up-regulation of the expression levels of DLX1, HOXC6, HOXC4 and TDRD1 in said sample. a) determining expression levels of DLX1 and HOXC6; b) establishing up-regulation of the expression levels of DLX1 and HOXC6 as compared to expression levels of DLX1 and HOXC6 in a sample originating from an individual not suffering from prostate cancer or as compared to a reference value indicative of a non-disease expression level; and c) establishing the presence or absence of prostate cancer (PrCa) based on the up-regulation of the expression levels of DLX1 and HOXC6 in said sample.
A laminate comprising a metallic base layer and a transparent colored layer formed on the metallic base layer, wherein the metallic base layer comprises an aluminum pigment, a light-scattering component, a surface adjusting agent, and a rheology control agent, and the transparent colored layer comprises a resin and a color pigment, when X = C * 45 2 + C * 75 2 1 / 2, and Y = L * 15 2 + C * 15 2 1 / 2 + L * 25 2 + C * 25 2 1 / 2, X is 64 or more, and Y is 191 or more; and the measured value of graininess (HG value) is 45 or less, with the proviso that C*15, C*25, C*45, and C*75 represent chroma calculated from spectral reflectances of light illuminated at an incident angle of 45 degrees with respect to the laminate and received at respective angles of 15 degrees, 25 degrees, 45 degrees, and 75 degrees deviated from the specular reflection light, and that L*15 and L*25 represent lightness calculated from spectral reflectances of light illuminated at an incident angle of 45 degrees with respect to the laminate and received at respective angles of 15 degrees and 25 degrees deviated from the specular reflection light. the metallic base layer comprises an aluminum pigment, a light-scattering component, a surface adjusting agent, and a rheology control agent, and the transparent colored layer comprises a resin and a color pigment, when X = C * 45 2 + C * 75 2 1 / 2, and Y = L * 15 2 + C * 15 2 1 / 2 + L * 25 2 + C * 25 2 1 / 2, X is 64 or more, and Y is 191 or more; and the measured value of graininess (HG value) is 45 or less, with the proviso that C*15, C*25, C*45, and C*75 represent chroma calculated from spectral reflectances of light illuminated at an incident angle of 45 degrees with respect to the laminate and received at respective angles of 15 degrees, 25 degrees, 45 degrees, and 75 degrees deviated from the specular reflection light, and that L*15 and L*25 represent lightness calculated from spectral reflectances of light illuminated at an incident angle of 45 degrees with respect to the laminate and received at respective angles of 15 degrees and 25 degrees deviated from the specular reflection light.
A method for detecting a protein-protein interaction, the method comprising steps of: (a) providing a lysate prepared from cells that express a prey protein and a bait protein, wherein the prey protein is labelled with a detectable label and the bait protein is tagged with a tag that allows separation of the bait protein and protein(s) interacting with the bait protein from other proteins in the lysate; (b) immobilizing the tag to one or more inner surface(s) of a well, thereby immobilizing the bait protein and protein(s) interacting with the bait protein; (c) detecting immobilized prey protein by detecting the detectable label, thereby detecting a protein-protein interaction; further comprising detecting immobilized bait protein and measuring the protein-protein interaction based on the ratio of prey protein to bait protein detected, wherein the cells stably express the prey protein, and the immobilized prey protein and bait protein are detected without removing them from the well; and wherein the detectable label comprises a fluorescent, luminescent, or enzymatic label. (a) providing a lysate prepared from cells that express a prey protein and a bait protein, wherein the prey protein is labelled with a detectable label and the bait protein is tagged with a tag that allows separation of the bait protein and protein(s) interacting with the bait protein from other proteins in the lysate; (b) immobilizing the tag to one or more inner surface(s) of a well, thereby immobilizing the bait protein and protein(s) interacting with the bait protein; (c) detecting immobilized prey protein by detecting the detectable label, thereby detecting a protein-protein interaction;
An access and storage system comprising: a storage component configured to store items therein or thereon in an associated storage position; a sensor system (46, 66, 70, 88, 90, 100, 102, 106) configured to track at least one of said user's removal of an item from the associated storage position or replacement of an item to the associated storage position; an identification system for identifying said user; and an authorization database operatively coupled to said identification system for tracking which of said items a particular identified user is authorized to access, characterised in that said access and storage system does not include any physical barrier, between the user and said items, to said items. a storage component configured to store items therein or thereon in an associated storage position; a sensor system (46, 66, 70, 88, 90, 100, 102, 106) configured to track at least one of said user's removal of an item from the associated storage position or replacement of an item to the associated storage position; an identification system for identifying said user; and an authorization database operatively coupled to said identification system for tracking which of said items a particular identified user is authorized to access, characterised in that said access and storage system does not include any physical barrier, between the user and said items, to said items.
A resin determination method comprising: placing an object on a placement surface with a diffusion reflectance of equal to or greater than 80% in an effective wavelength region of infrared light and with arithmetic mean roughness of equal to or greater than 0.25 μm and equal to or less than 25 μm; irradiating the object with the infrared light; receiving reflected light from the object that has been irradiated with the infrared light, the reflected light including a direct reflection component from the object and a diffused and reflected component from the placement surface; and determining a resin type based on a reflection spectrum or an absorption spectrum obtained by the reflected light, wherein the effective wavelength region of the infrared light is equal to or greater than 1 μm and equal to or less than 3 μm. placing an object on a placement surface with a diffusion reflectance of equal to or greater than 80% in an effective wavelength region of infrared light and with arithmetic mean roughness of equal to or greater than 0.25 μm and equal to or less than 25 μm; irradiating the object with the infrared light; receiving reflected light from the object that has been irradiated with the infrared light, the reflected light including a direct reflection component from the object and a diffused and reflected component from the placement surface; and determining a resin type based on a reflection spectrum or an absorption spectrum obtained by the reflected light, wherein the effective wavelength region of the infrared light is equal to or greater than 1 μm and equal to or less than 3 μm.
A method for non-invasive and non-destructive determinations of mechanical properties of a polymeric material, comprising: coupling a first end of the polymeric material to a first mechanical mechanism which is movable in a first direction and coupling a second end of the polymeric material to a second mechanical mechanism which is movable in a second direction opposed to the first direction; applying a pulling force to stretch the polymeric material by moving the first and second mechanical mechanisms a first distance in respective first and second directions (204, 206); applying an oscillating force to the polymeric material having the pulling force applied thereto; removing the oscillating force from the polymeric material; further stretching the polymeric material by moving the first and second mechanical mechanisms a second distance in respective first and second directions (204, 206), where the further stretching causes any undulating movement in the polymeric material to be removed that resulted from the application of the oscillating force and causes a loading of fibers or polymeric units that support the polymeric material; allowing the polymeric material to oscillate through a series of cycles of loading and unloading; measuring a strain and stress on the polymeric material as a function of time while the material oscillates; determining a natural frequency of the polymeric material based on a Fourier Transform of the strain or stress in a frequency domain; and determining an elastic modulus of the polymeric material using the natural frequency. coupling a first end of the polymeric material to a first mechanical mechanism which is movable in a first direction and coupling a second end of the polymeric material to a second mechanical mechanism which is movable in a second direction opposed to the first direction; applying a pulling force to stretch the polymeric material by moving the first and second mechanical mechanisms a first distance in respective first and second directions (204, 206); applying an oscillating force to the polymeric material having the pulling force applied thereto; removing the oscillating force from the polymeric material; further stretching the polymeric material by moving the first and second mechanical mechanisms a second distance in respective first and second directions (204, 206), where the further stretching causes any undulating movement in the polymeric material to be removed that resulted from the application of the oscillating force and causes a loading of fibers or polymeric units that support the polymeric material; allowing the polymeric material to oscillate through a series of cycles of loading and unloading; measuring a strain and stress on the polymeric material as a function of time while the material oscillates; determining a natural frequency of the polymeric material based on a Fourier Transform of the strain or stress in a frequency domain; and determining an elastic modulus of the polymeric material using the natural frequency.
A method for manufacturing a dielectric part, wherein there is carried out an interlocking of several dielectric materials at least one of which is in the solid state, said dielectric materials having at least one relative electromagnetic constant ε r, μ r with different values, characterized in that: - said interlocking is made by selecting: ∘ an interlocking structure of said dielectric materials formed by a three-dimensional solid network constituted by a repetition in all directions of the space of meshes (20, 30, 40, 50, 60, 70, 80, 90, 100) of the at least one of said dielectric materials that is in the solid state, and wherein each homogeneous area of any of said dielectric materials has in every direction of the space a maximum dimension smaller than a value a max = α. λ 0, where α is a real number lower than 10, and λ 0 is a wavelength of an electromagnetic radiation to which the dielectric part must be adapted, ∘ and dielectric materials adapted to enable a manufacture of the three-dimensional solid network by three-dimensional printing of each solid dielectric material, - the dielectric part is manufactured by three-dimensional printing of the three-dimensional solid network, so that the dielectric part has at least one determined tensor [ε r], [μ r] of at least one relative electromagnetic constant ε r, μ r. - said interlocking is made by selecting: ∘ an interlocking structure of said dielectric materials formed by a three-dimensional solid network constituted by a repetition in all directions of the space of meshes (20, 30, 40, 50, 60, 70, 80, 90, 100) of the at least one of said dielectric materials that is in the solid state, and wherein each homogeneous area of any of said dielectric materials has in every direction of the space a maximum dimension smaller than a value a max = α. λ 0, where α is a real number lower than 10, and λ 0 is a wavelength of an electromagnetic radiation to which the dielectric part must be adapted, ∘ and dielectric materials adapted to enable a manufacture of the three-dimensional solid network by three-dimensional printing of each solid dielectric material, ∘ an interlocking structure of said dielectric materials formed by a three-dimensional solid network constituted by a repetition in all directions of the space of meshes (20, 30, 40, 50, 60, 70, 80, 90, 100) of the at least one of said dielectric materials that is in the solid state, and wherein each homogeneous area of any of said dielectric materials has in every direction of the space a maximum dimension smaller than a value a max = α. λ 0, where α is a real number lower than 10, and λ 0 is a wavelength of an electromagnetic radiation to which the dielectric part must be adapted, ∘ and dielectric materials adapted to enable a manufacture of the three-dimensional solid network by three-dimensional printing of each solid dielectric material, - the dielectric part is manufactured by three-dimensional printing of the three-dimensional solid network,
Reverse micelle system comprising at least one metal ion, a sterol, an acylglycerol, a phospholipid or a sphingolipid, an alcohol and water, wherein the weight ratio phospholipid or sphingolipid/acylglycerol is from 0.05 to 0.40.
A child stroller apparatus comprising: a handle frame having a first side segment fixedly connected with a first coupling part; a front leg frame having a second side segment fixedly connected with a second coupling part; a rear leg frame having a third side segment fixedly connected with a shell, the third side segment being respectively connected pivotally with the first and second coupling parts (41, 44); a linking member received at least partially inside the shell and respectively connected pivotally with the first and second coupling parts (41, 44) about two different pivot axes (B, C), the handle frame and the front leg frame being thereby rotationally linked to each other; and a latch disposed adjacent to the first coupling part, the latch being operable to rotationally lock the handle frame with respect to the rear leg frame so as to lock the infant stroller apparatus in an unfolded state, characterized in that: the latch is assembled with the shell and is movable to engage with or disengage from the first coupling part; and an actuating arm that is exposed outside the shell is pivotally connected with the latch, the actuating arm and the latch further being respectively connected pivotally with the shell, a rotation of the actuating arm in one direction urging the latch to rotate and disengage from the first coupling part. a handle frame having a first side segment fixedly connected with a first coupling part; a front leg frame having a second side segment fixedly connected with a second coupling part; a rear leg frame having a third side segment fixedly connected with a shell, the third side segment being respectively connected pivotally with the first and second coupling parts (41, 44); a linking member received at least partially inside the shell and respectively connected pivotally with the first and second coupling parts (41, 44) about two different pivot axes (B, C), the handle frame and the front leg frame being thereby rotationally linked to each other; and a latch disposed adjacent to the first coupling part, the latch being operable to rotationally lock the handle frame with respect to the rear leg frame so as to lock the infant stroller apparatus in an unfolded state, characterized in that: the latch is assembled with the shell and is movable to engage with or disengage from the first coupling part; and an actuating arm that is exposed outside the shell is pivotally connected with the latch, the actuating arm and the latch further being respectively connected pivotally with the shell, a rotation of the actuating arm in one direction urging the latch to rotate and disengage from the first coupling part. the latch is assembled with the shell and is movable to engage with or disengage from the first coupling part; and an actuating arm that is exposed outside the shell is pivotally connected with the latch, the actuating arm and the latch further being respectively connected pivotally with the shell, a rotation of the actuating arm in one direction urging the latch to rotate and disengage from the first coupling part.
A fat or oil composition comprising diacylglycerol and a sucrose fatty acid ester, wherein the content of diacylglycerol in the fat or oil composition is 20 wt.% or more; wherein the content of monoester in the sucrose fatty acid ester is 30 wt% or more; and wherein the concentration of saturated fatty acids as the fatty acids constituting the ester in the sucrose fatty acid ester is from 0 to 30 wt.%, the residual constituent fatty acids being unsaturated fatty acids.
A radiating/receiving element (E2a) for a compact multiband base station antenna, said radiating/receiving element (E2a) comprising two radiating/receiving dipole parts (P1a, P2a) and a feeding and impedance matching circuit (C2a) coupled to the radiating/receiving dipole parts (P1a, P2a); wherein a multiplexer/demultiplexer (MD2a), for a plurality of frequency bands (F1a, F2a, F3a), is embedded into said feeding and impedance matching circuit (C2a) coupled to the radiating/receiving dipole parts (P1a, P2a),
Water purification method including the steps of: - purifying water using water treatment means, - providing a hydraulic connector comprising four ports for distributing and recirculating purified water, said four ports comprising a purified fluid inlet and three outlets, the inlet of the connector being connected directly to a first of said three outlets by a first pipe, and a second pipe being connected hydraulically to said first pipe between said inlet and said first outlet and to a third pipe, having two ends forming the other two outlets of the connector; and - circulating the purified water in a recirculation line, the method being further adapted to implement each of the following steps: - opening a purified water distribution line connecting the recirculation line to a purified water distribution point and opening the purified water recirculation line to obtain low throughput distribution, the major portion of the purified water being directly recirculated via the recirculation line; or - opening the water distribution line and closing the recirculation line downstream of the water distribution line to obtain high throughput distribution, all the purified water being distributed at the distribution point via the distribution line; or - opening the distribution line and closing the recirculation line to obtain the distribution of a predetermined volume of water, or - opening the recirculation line and closing the distribution line to obtain a recirculation of all the purified water. - purifying water using water treatment means, - providing a hydraulic connector comprising four ports for distributing and recirculating purified water, said four ports comprising a purified fluid inlet and three outlets, the inlet of the connector being connected directly to a first of said three outlets by a first pipe, and a second pipe being connected hydraulically to said first pipe between said inlet and said first outlet and to a third pipe, having two ends forming the other two outlets of the connector; and - circulating the purified water in a recirculation line, - opening a purified water distribution line connecting the recirculation line to a purified water distribution point and opening the purified water recirculation line to obtain low throughput distribution, the major portion of the purified water being directly recirculated via the recirculation line; or - opening the water distribution line and closing the recirculation line downstream of the water distribution line to obtain high throughput distribution, all the purified water being distributed at the distribution point via the distribution line; or - opening the distribution line and closing the recirculation line to obtain the distribution of a predetermined volume of water, or - opening the recirculation line and closing the distribution line to obtain a recirculation of all the purified water.
Overflow valve for an agricultural spraying device for the passive control of the volumetric flow of an agricultural fluid to be output from a primary line via a transfer cross section to a secondary line wherein the size and/or geometry of the transfer cross section depends on the position of a valve body and the valve body is built with a balanced piston having a first piston surface which is permanently biased by the pressure in the primary line and with a second piston surface acting opposite to the first piston surface wherein the second piston surface is permanently biased by the pressure in the secondary line such that the position of the valve body and accordingly the size and/or geometry of the transfer cross section depends on the pressure difference in the primary line and the secondary line, characterised by a sensor sensing the position of the valve body.
An insulating monolithic refractory material, wherein the insulating monolithic refractory material comprises a binder and a refractory raw material; a bulk specific gravity of the insulating monolithic refractory material is in a range of 0.8 to 1.8 both inclusive when a kneaded mixture of the insulating monolithic refractory material with water is cured at normal temperature for 24 hours and then dried at 110°C for 24 hours; the binder comprises a calcium aluminate cement including CaO and Al 2 O 3 as chemical components and a strontium aluminate cement including SrO and Al 2 O 3 as chemical components; and on the basis of 100% by mass as a total mass of the binder and the refractory raw material, a content of the strontium aluminate cement is in a range of 2 to 10% by mass both inclusive, and a content of CaO derived from the calcium aluminate cement is in a range of 1 to 12% by mass both inclusive.