mhurhangee/ep-ind-claims huggingface dataset:
A method for assessing the release performance of microcapsules comprising at least one volatile ingredient, the method comprising the step of: a. applying a plurality of said microcapsules to an underlying surface; the method being characterised by: b. applying a kinetic frictional shear stress τ through a contact surface (s) of a probe under a predefined load p, a predefined contact surface area and a predefined shear rate to said plurality of microcapsules; wherein: the contact surface area is defined as the area of the contact surface (s) of the probe through which the predefined load is applied; and the shear rate is defined as the velocity u of said probe relative to the underlying surface in a direction parallel to said underlying surface divided by the distance between the probe and the underlying surface; and c. measuring the amount of the at least one volatile ingredient released per second from said microcapsules under said kinetic frictional shear stress τ. a. applying a plurality of said microcapsules to an underlying surface; the method being characterised by: b. applying a kinetic frictional shear stress τ through a contact surface (s) of a probe under a predefined load p, a predefined contact surface area and a predefined shear rate to said plurality of microcapsules; wherein: the contact surface area is defined as the area of the contact surface (s) of the probe through which the predefined load is applied; and the shear rate is defined as the velocity u of said probe relative to the underlying surface in a direction parallel to said underlying surface divided by the distance between the probe and the underlying surface; and the contact surface area is defined as the area of the contact surface (s) of the probe through which the predefined load is applied; and the shear rate is defined as the velocity u of said probe relative to the underlying surface in a direction parallel to said underlying surface divided by the distance between the probe and the underlying surface; and c. measuring the amount of the at least one volatile ingredient released per second from said microcapsules under said kinetic frictional shear stress τ.
Compositions containing, as active ingredient, a mixture of amino acids consisting of glycine, L-proline, L-alanine, L-valine, L-leucine and L-lysine hydrochloride in the following weight ratios: - Glycine 1; - L-proline: 0.7-0.8; - L-alanine: 0.47-0.76; - L-valine: 0.35-0.56; - L-leucine: 0.13-0.27; - L-lysine hydrochloride: 0.10-0.12. - Glycine 1; - L-proline: 0.7-0.8; - L-alanine: 0.47-0.76; - L-valine: 0.35-0.56; - L-leucine: 0.13-0.27; - L-lysine hydrochloride: 0.10-0.12.
A shoulder cover for aerosol container attached to an aerosol container having a mounting cup, such as to encase the mounting cup inside, the mounting cup including an upper tier part having two stems protruding from a top wall thereof and having a non-circular cross-sectional shape with long sides and short sides, and a cylindrical part including a middle tier cylindrical part having a diameter substantially the same as the length of the long sides and connected to the upper tier part, and a lower tier cylindrical part having a larger diameter than that of the middle tier cylindrical part and connected to the middle tier cylindrical part, the shoulder cover for aerosol container comprising: an outer circumferential wall, a roof wall, a cylindrical wall extending downward from the roof wall, and locking means formed by a convex section that is formed on an inner circumferential surface of the cylindrical wall and that retains the shoulder cover by engaging with the cylindrical part of the mounting cup, wherein positioning means for fitting with the non-circular upper tier part of the mounting cup to thereby position a mating position of the shoulder cover is formed characterized in that the locking means is formed of a pair of convex sections circumferentially spaced in a lower part of the inner circumferential surface of the cylindrical wall that fits with the middle tier cylindrical part, and the positioning means includes a convex-shaped region where the convex sections are provided to face each other on the cylindrical wall and where a distance between the convex sections is shorter than the length of the long sides, and a non-convex-shaped region where portions not formed with the convex sections are provided to face each other and where the cylindrical wall has an inner diameter that is equal to or longer than the length of the long sides. an outer circumferential wall, a roof wall, a cylindrical wall extending downward from the roof wall, and locking means formed by a convex section that is formed on an inner circumferential surface of the cylindrical wall and that retains the shoulder cover by engaging with the cylindrical part of the mounting cup, wherein positioning means for fitting with the non-circular upper tier part of the mounting cup to thereby position a mating position of the shoulder cover is formed characterized in that the locking means is formed of a pair of convex sections circumferentially spaced in a lower part of the inner circumferential surface of the cylindrical wall that fits with the middle tier cylindrical part, and the positioning means includes a convex-shaped region where the convex sections are provided to face each other on the cylindrical wall and where a distance between the convex sections is shorter than the length of the long sides, and a non-convex-shaped region where portions not formed with the convex sections are provided to face each other and where the cylindrical wall has an inner diameter that is equal to or longer than the length of the long sides.
A cosmetic composition comprising a bioactive system that combines: - firstly, a stable form, in aqueous solution, of ATP (adenosine triphosphate) in the form of a sodium salt of ATP with, optionally, Gp 4 G (diguanosine tetraphosphate) or Ap 4 A (diadenosine tetraphosphate); and, - secondly, at least one biomimetic dipeptide that mimics a cutaneous polypeptide or a cutaneous protein, or a biomolecule that is an agonist or antagonist with respect to said cutaneous polypeptide or to said cutaneous protein, wherein the biomimetic dipeptide is β-alanyl-L-histidine. - firstly, a stable form, in aqueous solution, of ATP (adenosine triphosphate) in the form of a sodium salt of ATP with, optionally, Gp 4 G (diguanosine tetraphosphate) or Ap 4 A (diadenosine tetraphosphate); and, - secondly, at least one biomimetic dipeptide that mimics a cutaneous polypeptide or a cutaneous protein, or a biomolecule that is an agonist or antagonist with respect to said cutaneous polypeptide or to said cutaneous protein, wherein the biomimetic dipeptide is β-alanyl-L-histidine.
Method for transmitting N bit data by means of a plurality of light emitting diodes, wherein: - the data is transmitted by means of modulation of the intensity of the light emitting diodes; - the light emitting diodes are grouped into at least 2 N -1 groups (6...8); - the light emitting diodes of each group (6...8) are modulated together and similarly; and - the modulations of the groups (6...8) are matched to one another such that the data associated with the modulations is encoded, - wherein for encoding the data, a number of groups (6...8) which can be stipulated on the basis of the data is modulated dark or modulated light, so that an N bit value with a length of N bits is transferred by dividing the light emitting diodes into 2 N -1 groups, wherein N is a natural number greater than or equal to two. - the data is transmitted by means of modulation of the intensity of the light emitting diodes; - the light emitting diodes are grouped into at least 2 N -1 groups (6...8); - the light emitting diodes of each group (6...8) are modulated together and similarly; and - the modulations of the groups (6...8) are matched to one another such that the data associated with the modulations is encoded, - wherein for encoding the data, a number of groups (6...8) which can be stipulated on the basis of the data is modulated dark or modulated light, so that an N bit value with a length of N bits is transferred by dividing the light emitting diodes into 2 N -1 groups, wherein N is a natural number greater than or equal to two.
A tower of a wind turbine comprising a transport system for transporting said tower, said transport system comprising: - a frame coupled to a tower end of the tower, - a wing coupled to the frame, - a lifting unit configured to lift the tower, and - a coupler unit to couple the frame to the tower end, wherein the lifting unit lifts the tower by pushing against the wing, wherein the tower is at least partially supported by the lifting unit during transport, wherein the coupler unit is releasably connected to the tower end by means of a fastener, wherein the frame is releasably connected to the coupler unit by means of the fastener. - a frame coupled to a tower end of the tower, - a wing coupled to the frame, - a lifting unit configured to lift the tower, and - a coupler unit to couple the frame to the tower end, wherein the lifting unit lifts the tower by pushing against the wing, wherein the tower is at least partially supported by the lifting unit during transport, wherein the coupler unit is releasably connected to the tower end by means of a fastener, wherein the frame is releasably connected to the coupler unit by means of the fastener.
A light emitting diode light source comprising: a red light emitting diode array; and a phosphor-coated blue light emitting diode array, characterized in that a color point of the mixed light emitted from the phosphor-coated blue light emitting diode array falling within a quadrilateral of the CIE chromaticity diagram, wherein coordinates of four vertices of the quadrilateral are (0.375, 0.427), (0.390, 0.456), (0.366, 0.430), (0.38, 0.46); wherein, when the junction temperature of the light emitting diodes of the phosphor-coated blue light emitting diode array and the light emitting diodes of the red light emitting diode array is substantially equal to room temperature, the ratio of the lumen output of the phosphor-coated blue light emitting diode array to the lumen output of the red light emitting diode array is within a range of 4:1 to 1.5:1; and wherein, in operation, the red light emitting diode array and the phosphor-coated blue light emitting diode array are driven by the same current. a red light emitting diode array; and a phosphor-coated blue light emitting diode array, characterized in that a color point of the mixed light emitted from the phosphor-coated blue light emitting diode array falling within a quadrilateral of the CIE chromaticity diagram, wherein coordinates of four vertices of the quadrilateral are (0.375, 0.427), (0.390, 0.456), (0.366, 0.430), (0.38, 0.46); wherein, when the junction temperature of the light emitting diodes of the phosphor-coated blue light emitting diode array and the light emitting diodes of the red light emitting diode array is substantially equal to room temperature, the ratio of the lumen output of the phosphor-coated blue light emitting diode array to the lumen output of the red light emitting diode array is within a range of 4:1 to 1.5:1; and wherein, in operation, the red light emitting diode array and the phosphor-coated blue light emitting diode array are driven by the same current.
A liquid jet head comprising: a jet section configured to jet liquid; a base member which is configured to support the jet section, and which is installed on an installation surface of an installation target; and a positioning mechanism configured to adjust a position of the base member in a direction (X, Y) along the installation surface with respect to a protruding part disposed on the installation surface, wherein the positioning mechanism is supported by the base member, and at least a part of the positioning mechanism is arranged inside an outer shape of the base member in a plan view of the installation surface viewed from a vertical direction thereof, characterized in that the positioning mechanism includes: a preloading mechanism configured to apply a preload to the protruding part in a direction (X, Y) along the installation surface, a contact member having contact with the protruding part from an opposite side to a side at which the preloading mechanism is arranged in a direction in which the preloading mechanism applies the preload, and a displacement mechanism configured to displace the contact member along a displacement axis extending in an oblique direction crossing a direction perpendicular to the installation surface. a jet section configured to jet liquid; a base member which is configured to support the jet section, and which is installed on an installation surface of an installation target; and a positioning mechanism configured to adjust a position of the base member in a direction (X, Y) along the installation surface with respect to a protruding part disposed on the installation surface, wherein the positioning mechanism is supported by the base member, and at least a part of the positioning mechanism is arranged inside an outer shape of the base member in a plan view of the installation surface viewed from a vertical direction thereof, characterized in that the positioning mechanism includes: a preloading mechanism configured to apply a preload to the protruding part in a direction (X, Y) along the installation surface, a contact member having contact with the protruding part from an opposite side to a side at which the preloading mechanism is arranged in a direction in which the preloading mechanism applies the preload, and a displacement mechanism configured to displace the contact member along a displacement axis extending in an oblique direction crossing a direction perpendicular to the installation surface. a preloading mechanism configured to apply a preload to the protruding part in a direction (X, Y) along the installation surface, a contact member having contact with the protruding part from an opposite side to a side at which the preloading mechanism is arranged in a direction in which the preloading mechanism applies the preload, and a displacement mechanism configured to displace the contact member along a displacement axis extending in an oblique direction crossing a direction perpendicular to the installation surface.
A codebook feedback method, comprising: selecting, by a terminal device, M frequency domain Discrete Fourier Transform, DFT, vectors from a DFT array; determining, by the terminal device, a first frequency domain DFT vector indication set from a plurality of frequency domain DFT vector indication sets according to the M frequency domain DFT vectors, wherein an indication of the M frequency domain DFT vectors is equivalent to a first frequency domain DFT vector indication in the first frequency domain DFT vector indication set, and M is a positive integer; and sending, by the terminal device, an indication message to the network device, wherein the indication message is used for indicating the first frequency domain DFT vector indication set; characterized in that the indication of the M frequency domain DFT vectors is equivalent to the first frequency domain DFT vector indication in the first frequency domain DFT vector indication set comprises: a sequence corresponding to the indication of the M frequency domain DFT vectors is different from a sequence corresponding to the first frequency domain DFT vector indication, and the sequence corresponding to the indication of the M frequency domain DFT vectors has a cyclic shift relationship with the sequence corresponding to the first frequency domain DFT vector indication. selecting, by a terminal device, M frequency domain Discrete Fourier Transform, DFT, vectors from a DFT array; determining, by the terminal device, a first frequency domain DFT vector indication set from a plurality of frequency domain DFT vector indication sets according to the M frequency domain DFT vectors, wherein an indication of the M frequency domain DFT vectors is equivalent to a first frequency domain DFT vector indication in the first frequency domain DFT vector indication set, and M is a positive integer; and sending, by the terminal device, an indication message to the network device, wherein the indication message is used for indicating the first frequency domain DFT vector indication set; characterized in that the indication of the M frequency domain DFT vectors is equivalent to the first frequency domain DFT vector indication in the first frequency domain DFT vector indication set comprises: a sequence corresponding to the indication of the M frequency domain DFT vectors is different from a sequence corresponding to the first frequency domain DFT vector indication, and the sequence corresponding to the indication of the M frequency domain DFT vectors has a cyclic shift relationship with the sequence corresponding to the first frequency domain DFT vector indication.
Process for the preparation of Apixaban N-1 form of formula: having the X-ray powder diffraction pattern with characteristic peaks expressed in 2-Theta values (2θ) at: 8.4, 10.0, 10.5, 11.1, 12.3, 12.8, 13.9, 15.1, 16.2, 16.9, 18.4, 18.8, 19.6, 21.1, 21.5, 22.0, 22.2, 23.6, 24.0, 24.7, 25.3, 26.2, 26.9, 27.7, 28.0, 28.6, 29.2, 29.9, 30.6, 31.9, 32.6, 35.1; and/or having melting point of 235.68°C as measured by DSC, by means of slurrying of Apixaban 1,2-propylen glycol hemisolvate of formula: in a condition selected between: a) in 10 volumes of Methanol at room temperature overnight; b) in 10 volumes of Ethanol at room temperature for 4 hours; c) in 10 volumes of Isopropanol at 50°C overnight; d) in 10 volumes of a mixture of Ethanol/heptane at room temperature for 6 hours; e) in 10 volumes of Ethyl Acetate at room temperature overnight; or by a crystallization of Apixaban 1,2-propylen glycol hemisolvate of formula in a condition selected between: f) in 36 volumes of methanol at reflux for 4 hours; g) in 60 volumes of ethanol at reflux for 4 hours; wherein in any one of the conditions from a) to g) a seed of Apixaban N-1 form is added. a) in 10 volumes of Methanol at room temperature overnight; b) in 10 volumes of Ethanol at room temperature for 4 hours; c) in 10 volumes of Isopropanol at 50°C overnight; d) in 10 volumes of a mixture of Ethanol/heptane at room temperature for 6 hours; e) in 10 volumes of Ethyl Acetate at room temperature overnight; f) in 36 volumes of methanol at reflux for 4 hours; g) in 60 volumes of ethanol at reflux for 4 hours;
A material handling vehicle configured to manipulate a load and interface with a racking structure, the material handling vehicle comprising: a vehicle frame; one or more base legs (112, 114) coupled to and extending from the vehicle frame; a mast coupled to the vehicle frame; and rack sensors arranged on the one or more base legs (112, 114) at a predetermined distance from a front face defined by the mast, wherein the rack sensors are configured to operate using a time of flight principle where the rack sensors are configured to send a pulse toward the racking structure to detect a racking feature of the racking structure when the racking feature of the racking structure is above the one or more base legs (112, 114), an indication device; and a controller in communication with the rack sensors and the indication device over a network; and wherein the rack sensors are configured to detect the racking feature of the racking structure when it is above the one or more base legs (112, 114), and wherein the material handling vehicle is arranged to be able to provide an indication to an operator by the indication device, that indicates that the predetermined distance exists between the front face of the mast and the racking structure, wherein the one or more base legs (112, 114) comprises a first base leg and a second base leg, wherein the first base leg includes a first rack sensor and the second base leg includes a second rack sensor. a vehicle frame; one or more base legs (112, 114) coupled to and extending from the vehicle frame; a mast coupled to the vehicle frame; and rack sensors arranged on the one or more base legs (112, 114) at a predetermined distance from a front face defined by the mast, wherein the rack sensors are configured to operate using a time of flight principle where the rack sensors are configured to send a pulse toward the racking structure to detect a racking feature of the racking structure when the racking feature of the racking structure is above the one or more base legs (112, 114), an indication device; and a controller in communication with the rack sensors and the indication device over a network; and wherein the rack sensors are configured to detect the racking feature of the racking structure when it is above the one or more base legs (112, 114),
A method for manufacturing a grain-oriented electromagnetic steel sheet whose magnetic domains are controlled by laser beam irradiation, comprising the step of: repeatedly irradiating a surface of a grain-oriented electromagnetic steel sheet with a condensed continuous-wave laser beam by scanning the grain-oriented electromagnetic steel sheet from a rolling direction toward an inclination direction thereof while scanning portions of the continuous-wave laser beam are being shifted at intervals, characterized in that when an average irradiation energy density Ua is defined as Ua = P/(Vc*PL) (mJ/mm 2), where P is average power of the continuous-wave laser beam, Vc (m/s) is a velocity of the scanning, and PL (mm) is an irradiation interval in the rolling direction, the following relationships are satisfied: 1.0 mm ≤ PL ≤ 3.0 mm 0.8 mJ / mm 2 ≤ Ua ≤ 2.0 mJ / mm 2. repeatedly irradiating a surface of a grain-oriented electromagnetic steel sheet with a condensed continuous-wave laser beam by scanning the grain-oriented electromagnetic steel sheet from a rolling direction toward an inclination direction thereof while scanning portions of the continuous-wave laser beam are being shifted at intervals, characterized in that when an average irradiation energy density Ua is defined as Ua = P/(Vc*PL) (mJ/mm 2), where P is average power of the continuous-wave laser beam, Vc (m/s) is a velocity of the scanning, and PL (mm) is an irradiation interval in the rolling direction, the following relationships are satisfied: 1.0 mm ≤ PL ≤ 3.0 mm 0.8 mJ / mm 2 ≤ Ua ≤ 2.0 mJ / mm 2.