mhurhangee/ep-ind-claims huggingface dataset:
A molded product of an anisotropic heat conductive composition in a form of a sheet, the molded product comprising: flake graphite particles; and a resin component for the particles to be dispersed therein, wherein the flake graphite particles each have a basal plane, a maximum diameter a in a direction parallel to the basal plane, a maximum diameter b on the basal plane perpendicular to the maximum diameter a, and a thickness c in a direction perpendicular to the basal plane, the maximum diameter a / the maximum diameter b: a/b ratio having an average of 1 to 20, the maximum diameter a having an average of 1 μm to 30 μm, and the maximum diameter a / the thickness c: a/c ratio having an average of 30 or more, a content of the flake graphite particles is more than 40 mass% and 90 mass% or less, the basal plane of the flake graphite particles is oriented in a planar direction of the sheet, and an acute angle θ is created by the basal plane of each of the flake graphite particles and a planar direction of the sheet, the acute angle θ having an average of 1° to 30°. flake graphite particles; and a resin component for the particles to be dispersed therein, the flake graphite particles each have a basal plane, a maximum diameter a in a direction parallel to the basal plane, a maximum diameter b on the basal plane perpendicular to the maximum diameter a, and a thickness c in a direction perpendicular to the basal plane, the maximum diameter a / the maximum diameter b: a/b ratio having an average of 1 to 20, the maximum diameter a having an average of 1 μm to 30 μm, and the maximum diameter a / the thickness c: a/c ratio having an average of 30 or more, a content of the flake graphite particles is more than 40 mass% and 90 mass% or less, the basal plane of the flake graphite particles is oriented in a planar direction of the sheet, and an acute angle θ is created by the basal plane of each of the flake graphite particles and a planar direction of the sheet, the acute angle θ having an average of 1° to 30°.
A method for manufacturing an aerogel blanket, the method comprising: 1) introducing a catalyzed sol and a substrate for a blanket into a reaction vessel to impregnate the catalyzed sol into the substrate for a blanket; and 2) rotating the substrate for a blanket into which the catalyzed sol is impregnated to perform gelation. 1) introducing a catalyzed sol and a substrate for a blanket into a reaction vessel to impregnate the catalyzed sol into the substrate for a blanket; and 2) rotating the substrate for a blanket into which the catalyzed sol is impregnated to perform gelation.
A self regulating air throttle valve, comprising: a. a male plunger and a female plunger of predetermined shapes; b. a helical spring supporting the male plunger at one end of the spring and other end of the spring is fixed to a flange; c. a plunger guide passing through the helical spring and attached to the flange at one end using fasteners and other end is passed through the male plunger; d. a manifold comprising one or more breathing ports on its surface, said manifold is configured to house said male and said female plungers; and e. an outer cover, housing the manifold, wherein said outer cover is attached with an inlet manifold at top of the outer cover and an outlet manifold at bottom of the outer cover; wherein said male plunger is regulated by force of compressed air supplied through the inlet manifold and reverse force of the helical spring to vary rate of opening of the breathing ports to regulate the air throttle valve. a. a male plunger and a female plunger of predetermined shapes; b. a helical spring supporting the male plunger at one end of the spring and other end of the spring is fixed to a flange; c. a plunger guide passing through the helical spring and attached to the flange at one end using fasteners and other end is passed through the male plunger; d. a manifold comprising one or more breathing ports on its surface, said manifold is configured to house said male and said female plungers; and e. an outer cover, housing the manifold, wherein said outer cover is attached with an inlet manifold at top of the outer cover and an outlet manifold at bottom of the outer cover; wherein said male plunger is regulated by force of compressed air supplied through the inlet manifold and reverse force of the helical spring to vary rate of opening of the breathing ports to regulate the air throttle valve.
A monoclonal antibody that binds specifically and with high affinity to sulfatides and sulphated proteoglycans, wherein the sequences of the complementarity determining regions (CDRs) of the variable region of heavy and light chains are: Heavy chain: HCDR1 RYSVH HCDR2 MIWGGGSTDYNSALKS HCDR3 SGVRRGRAQAWFAY Light chain: LCDR1 KASQDVSTAVA LCDR2 SASYRYT LCDR3 QQHYSTPWT; and wherein the sequences of framework regions within the variable region of heavy and light chains are: Heavy chain: HFR1 QVQLKESGPGLVAPSQSLSITCTVSGFSLS HFR2 WVRQPPGKGLEWLG HFR3 RLSISKDNSKSQVFLKMNSLQTDDTAMYYCAR HFR4 WGQGTLVTVSA Light chain: LFR1 DIVMTQSHKFMSTSVGDRVSITC LFR2 WYQQKPGQSPKLLIY LFR3 GVPDRFTGSGSGTDFTFTISSVQAEDLAVYYC LFR4 FGGGTKLELK. Heavy chain: HCDR1 RYSVH HCDR2 MIWGGGSTDYNSALKS HCDR3 SGVRRGRAQAWFAY HCDR1 RYSVH HCDR2 MIWGGGSTDYNSALKS HCDR3 SGVRRGRAQAWFAY Light chain: LCDR1 KASQDVSTAVA LCDR2 SASYRYT LCDR3 QQHYSTPWT; LCDR1 KASQDVSTAVA LCDR2 SASYRYT LCDR3 QQHYSTPWT; Heavy chain: HFR1 QVQLKESGPGLVAPSQSLSITCTVSGFSLS HFR2 WVRQPPGKGLEWLG HFR3 RLSISKDNSKSQVFLKMNSLQTDDTAMYYCAR HFR4 WGQGTLVTVSA HFR1 QVQLKESGPGLVAPSQSLSITCTVSGFSLS HFR2 WVRQPPGKGLEWLG HFR3 RLSISKDNSKSQVFLKMNSLQTDDTAMYYCAR HFR4 WGQGTLVTVSA Light chain: LFR1 DIVMTQSHKFMSTSVGDRVSITC LFR2 WYQQKPGQSPKLLIY LFR3 GVPDRFTGSGSGTDFTFTISSVQAEDLAVYYC LFR4 FGGGTKLELK. LFR1 DIVMTQSHKFMSTSVGDRVSITC LFR2 WYQQKPGQSPKLLIY LFR3 GVPDRFTGSGSGTDFTFTISSVQAEDLAVYYC LFR4 FGGGTKLELK.
A connector comprising: an insulating housing that is configured to be fixed to a casing of a first device at a communication part through which an opening of the casing of the first device and an opening of a casing of a second device communicate with each other; a conductor unit including a plurality of conductors arranged in a row and an insulating holding body integrally molded with the conductors; and a sealing member that seals between the conductor unit and the housing, wherein each of the conductors includes a plate-shaped body and terminal parts (31, 32) provided at both ends of the body, respectively, the holding body includes a fitting part fitted to the housing, a plurality of covering parts each extending from the fitting part along the body and individually surrounding the body, characterized in that the holding body further includes insulating walls each extending from the covering part and dividing the two adjacent terminal parts, each of the insulating walls has a main wall part and the main wall part extends on an extension line of a gap between the two adjacent covering parts and divides the two adjacent terminal parts. an insulating housing that is configured to be fixed to a casing of a first device at a communication part through which an opening of the casing of the first device and an opening of a casing of a second device communicate with each other; a conductor unit including a plurality of conductors arranged in a row and an insulating holding body integrally molded with the conductors; and a sealing member that seals between the conductor unit and the housing, wherein each of the conductors includes a plate-shaped body and terminal parts (31, 32) provided at both ends of the body, respectively, the holding body includes a fitting part fitted to the housing, a plurality of covering parts each extending from the fitting part along the body and individually surrounding the body, characterized in that the holding body further includes insulating walls each extending from the covering part and dividing the two adjacent terminal parts, each of the insulating walls has a main wall part and the main wall part extends on an extension line of a gap between the two adjacent covering parts and divides the two adjacent terminal parts.
A process for producing a stevia composition comprising rebaudioside B, comprising the steps of: providing a stevia sweetener; providing a biocatalyst capable of hydrolyzing β-glucosyl ester bonds in the stevia sweetener; dissolving the stevia sweetener and adding the biocatalyst to make a reaction mixture; incubating the reaction mixture for 12 to 48 hours to at least partially hydrolyze β-glucosyl ester bonds in the stevia sweetener; cooling the mixture to 10-30°C and adjusting the pH with acid to pH 3.0- 4.0; incubating the mixture at low temperature to obtain a precipitate; separating the precipitate and washing the precipitate with water; and drying the washed precipitate to obtain the stevia composition; further comprising the steps of: suspending the stevia composition in water to form a suspension; increasing the temperature of the suspension by a gradient heating method; holding the suspension at an elevated temperature; decreasing the temperature of the suspension by a gradient cooling method to obtain a high stability and high concentration stevia composition solution; and spray drying the high stability and high concentration stevia composition solution to provide a highly soluble stevia composition. providing a stevia sweetener; providing a biocatalyst capable of hydrolyzing β-glucosyl ester bonds in the stevia sweetener; dissolving the stevia sweetener and adding the biocatalyst to make a reaction mixture; incubating the reaction mixture for 12 to 48 hours to at least partially hydrolyze β-glucosyl ester bonds in the stevia sweetener; cooling the mixture to 10-30°C and adjusting the pH with acid to pH 3.0- 4.0; incubating the mixture at low temperature to obtain a precipitate; separating the precipitate and washing the precipitate with water; and drying the washed precipitate to obtain the stevia composition; further comprising the steps of: suspending the stevia composition in water to form a suspension; increasing the temperature of the suspension by a gradient heating method; holding the suspension at an elevated temperature; decreasing the temperature of the suspension by a gradient cooling method to obtain a high stability and high concentration stevia composition solution; and spray drying the high stability and high concentration stevia composition solution to provide a highly soluble stevia composition. suspending the stevia composition in water to form a suspension; increasing the temperature of the suspension by a gradient heating method; holding the suspension at an elevated temperature; decreasing the temperature of the suspension by a gradient cooling method to obtain a high stability and high concentration stevia composition solution; and spray drying the high stability and high concentration stevia composition solution to provide a highly soluble stevia composition.
A freewheel hub comprising a rotating hub shell for carrying a free running wheel, wherein torque is coupled to the rotating hub shell via a torque transmitting member, which is coupled to the hub shell or forms a part of the hub shell, the freewheel hub further comprising: a) at least one magneto-elastically active region (R1, R2) directly or indirectly attached to or forming a part of the torque transmitting member in such a manner that the applied torque is transmitted to the active region (R1, R2) comprising at least one magnetically polarized region such that the polarization (P1, P2) becomes increasingly helically shaped as the applied torque increases and b) a magneto-elastic sensor means having at least one magnetic field sensor (S11, S12, S21, S22) being arranged proximate to the at least one magneto-elastically active region (R1, R2) for outputting a signal corresponding to a torque-induced magnetic flux emanating from the magnetically polarized region, characterized in that the torque transmitting shaft is a hollow shaft having an interior space, and wherein the magnetic field sensors (S11, S12, S21, S22) of the sensor means are arranged inside the interior space of the torque transmitting shaft. a) at least one magneto-elastically active region (R1, R2) directly or indirectly attached to or forming a part of the torque transmitting member in such a manner that the applied torque is transmitted to the active region (R1, R2) comprising at least one magnetically polarized region such that the polarization (P1, P2) becomes increasingly helically shaped as the applied torque increases and b) a magneto-elastic sensor means having at least one magnetic field sensor (S11, S12, S21, S22) being arranged proximate to the at least one magneto-elastically active region (R1, R2) for outputting a signal corresponding to a torque-induced magnetic flux emanating from the magnetically polarized region,
A stilbazolium derivative represented by the following general formula: wherein R 1, R 2, R 3, and R 4 independently represent hydrogen, halogen, unsubstituted or substituted alkyl, hydroxyl, carboxyl, or amino; R 5 represents hydrogen or unsubstituted or substituted alkyl; X represents oxygen or NR 6 (R 6 is hydrogen or unsubstituted or substituted alkyl); Y - represents an anion selected from the group consisting of sulfonic acid anions, carboxylic acid anions, hydrogen sulfate ions, nitrate ions, tetrafluoroborate ions, perchlorate ions, perbromate ions, and periodate ions; in the general formula, some or all of hydrogens maybe deuterium, and wherein the substituent of the alkyl group is selected from the group consisting of halogen, hydroxyl, ether, carboxyl, nitro, amino, and sulfone. wherein R 1, R 2, R 3, and R 4 independently represent hydrogen, halogen, unsubstituted or substituted alkyl, hydroxyl, carboxyl, or amino; R 5 represents hydrogen or unsubstituted or substituted alkyl; X represents oxygen or NR 6 (R 6 is hydrogen or unsubstituted or substituted alkyl); Y - represents an anion selected from the group consisting of sulfonic acid anions, carboxylic acid anions, hydrogen sulfate ions, nitrate ions, tetrafluoroborate ions, perchlorate ions, perbromate ions, and periodate ions; in the general formula, some or all of hydrogens maybe deuterium, and wherein the substituent of the alkyl group is selected from the group consisting of halogen, hydroxyl, ether, carboxyl, nitro, amino, and sulfone.
A tool-holder turret comprising a stationary base body with a cavity extending along a longitudinal axis (X-X), a tool-holding disk capable of rotating in both directions of rotation relative to the stationary base body about an axis of rotation which is coaxial to and coincident with said longitudinal axis (X-X), said tool-holding disk being mounted to the end of a shaft which extends along said longitudinal axis (X-X), a first cylindrical annular body which is keyed to said shaft and is only free to axially slide thereon between a first axial position and a second axial position against elastic means acting between said first cylindrical body and said tool-holding disk, said first cylindrical body having a plurality of symmetrical cam profiles (17, 17a, 17b,17c, 17d) arranged over a circumference of the front surface of its distal end, with respect to said tool-holding disk, lock members (14, 10, 12) for locking said tool-holding disk relative to said stationary base body when said first cylindrical annular body is in its first axial position and for unlocking it when it is in its second axial position, a second cylindrical annular body, which is also keyed to said shaft and capable of rotating relative to it, said second cylindrical annular body having a plurality of cam followers engaged at their front with respective symmetrical cam profiles (17,17a,17b,17c,17d) of said first annular body, said cam followers and said cam profiles causing said first cylindrical annular body to axially move on said shaft in either direction as a result of angular displacements of said second cylindrical annular body, an electric servo-motor, which is kinematically linked to said second cylindrical annular body to impart angular displacements thereto in both directions of rotation coaxial to said shaft, characterized in that said second cylindrical annular body has a rib which axially projects toward said tool-holding disk and extends over a given arc of a circumference (α), that said shaft, connected to the tool-holding disk, has a front shoulder, facing said second cylindrical annular body and extending over a given arc of a circumference (β) which radially coincides with the circumference of the rib that axially projects out of said second cylindrical annular body, in the portion of the arc that is not covered by said rib, the circumferential ends (30, 31) of said rib and those (32, 33) of said shoulder defining respective abutments, such that when said abutments are mutually engaged, they are adapted to transfer the angular displacements generated by said servo-motor to said shaft, said first cylindrical annular body being kinetically linked (34,35) to an auxiliary shaft which has a braking device that locks its rotation when it is put in action.
A method for identifying internal motion of a breast of a patient during an imaging procedure, the method comprising: compressing the breast of the patient in a position; during compression of the breast, acquiring a first tomosynthesis projection frame for a first angle with respect to the breast; during compression of the breast, acquiring a second tomosynthesis projection frame for a second angle with respect to the breast; characterized in that the position of the compressed breast is a mediolateral oblique, MLO, position, and in that the method further comprises: identifying a first boundary of a pectoral muscle in the first projection frame; generating a first representation of the first boundary of the pectoral muscle; identifying a second boundary of the pectoral muscle in the second projection frame; generating a second representation of the second boundary of the pectoral muscle; determining a difference between the first representation and the second representation; and generating a motion score based on at least the difference between the first representation and the second representation. compressing the breast of the patient in a position; during compression of the breast, acquiring a first tomosynthesis projection frame for a first angle with respect to the breast; during compression of the breast, acquiring a second tomosynthesis projection frame for a second angle with respect to the breast; characterized in that the position of the compressed breast is a mediolateral oblique, MLO, position, and in that the method further comprises: identifying a first boundary of a pectoral muscle in the first projection frame; generating a first representation of the first boundary of the pectoral muscle; identifying a second boundary of the pectoral muscle in the second projection frame; generating a second representation of the second boundary of the pectoral muscle; determining a difference between the first representation and the second representation; and generating a motion score based on at least the difference between the first representation and the second representation. identifying a first boundary of a pectoral muscle in the first projection frame; generating a first representation of the first boundary of the pectoral muscle; identifying a second boundary of the pectoral muscle in the second projection frame; generating a second representation of the second boundary of the pectoral muscle; determining a difference between the first representation and the second representation; and generating a motion score based on at least the difference between the first representation and the second representation.
A breathable gas mask arrangement, comprising: a mask shell having a portion adapted to receive a supply of pressurized breathable gas and a user side; a cushion having a shell attachment portion attached to the user side of the shell, a face contacting portion constructed and arranged to contact a user's face in use and provide a seal between the mask arrangement and the user's face, and a gusset portion between the shell attachment portion and the face contacting portion; and headgear constructed and arranged to attach the mask shell to the user; characterized in that the gusset portion includes an elastic sidewall having a spring constant (k) that is at least partially determinative of a force (Fm) applied to the patient's face through the face contacting portion of the cushion, and the gusset portion includes only two gussets between the shell and the face contacting portion, each gusset having first and second side walls that define an angle therebetween, and the two gussets include different sizes with the gusset closest to the face contacting portion being larger than the gusset closest to the shell attachment portion. a mask shell having a portion adapted to receive a supply of pressurized breathable gas and a user side; a cushion having a shell attachment portion attached to the user side of the shell, a face contacting portion constructed and arranged to contact a user's face in use and provide a seal between the mask arrangement and the user's face, and a gusset portion between the shell attachment portion and the face contacting portion; and headgear constructed and arranged to attach the mask shell to the user; characterized in that the gusset portion includes an elastic sidewall having a spring constant (k) that is at least partially determinative of a force (Fm) applied to the patient's face through the face contacting portion of the cushion, and the gusset portion includes only two gussets between the shell and the face contacting portion, each gusset having first and second side walls that define an angle therebetween, and the two gussets include different sizes with the gusset closest to the face contacting portion being larger than the gusset closest to the shell attachment portion.
An electrically controllable device having a scattering which can be varied by liquid crystals (100, 200, 300, 400, 500, 600, 700, 800, 900, 101, 110, 120) comprising a stack of layers in this order: - a first electrode comprising a first electrically conductive layer, - an electroactive layer containing liquid crystals and spacers, alternating reversibly between a scattering state and a transparent state, by application of an alternating electric field, the active layer having a micronic thickness To, - a second electrode comprising a second electrically conductive layer, the electoactive layer being visible by transparency on the side of the first electrode and/or on the side of the second electrode, said electrically controllable device being such that the stack comprises, between the first electrode and the electroactive layer, a first transparent polymeric barrier layer with a thickness of T 1 and optionally, between the second electrode and the electroactive layer, a second transparent polymeric barrier layer with a thickness of T 2, T 1 being nonzero and at least 1 μm, and T 1 + T 2 being at most 40 μm, the first polymeric barrier layer carries the first electrode on a first main exterior face oriented on the side opposite the electroactive layer or the first electrode is on a first main "internal" face of a first dielectric substrate oriented toward the electroactive layer, and the second optional polymeric barrier layer carries the second electrode on a second main exterior face oriented on the side opposite the electroactive layer or the second electrode is on a second main "internal" face of a second dielectric substrate oriented toward the electroactive layer. - a first electrode comprising a first electrically conductive layer, - an electroactive layer containing liquid crystals and spacers, alternating reversibly between a scattering state and a transparent state, by application of an alternating electric field, the active layer having a micronic thickness To, - a second electrode comprising a second electrically conductive layer,