mhurhangee/ep-ind-claims huggingface dataset:
Vinyl polymer microparticles that satisfy the following to: a coefficient of variation of particle sizes is 30% or more on a volume basis; a proportion of vinyl polymer microparticles having a particle size of 1.7 times or more and 2.5 times or less a volume average particle size is 0.030% or less on a number basis; and a volume average particle size is 3.7 μm or more and 10 μm or less, wherein the above to are determined according to the methods indicated in the description, wherein the vinyl polymer microparticles are produced by a suspension polymerization method in which the stirring speed during dispersion and suspension is 3000 rpm or more and 4900 rpm or less and the stirring time is 20 to 60 minutes, and wherein the vinyl polymer is a homopolymer or copolymer of a vinyl compound, and the vinyl compound is (meth)acrylic monomers or styrenic monomers. a coefficient of variation of particle sizes is 30% or more on a volume basis; a proportion of vinyl polymer microparticles having a particle size of 1.7 times or more and 2.5 times or less a volume average particle size is 0.030% or less on a number basis; and a volume average particle size is 3.7 μm or more and 10 μm or less, wherein the above to are determined according to the methods indicated in the description, wherein the vinyl polymer microparticles are produced by a suspension polymerization method in which the stirring speed during dispersion and suspension is 3000 rpm or more and 4900 rpm or less and the stirring time is 20 to 60 minutes, and wherein the vinyl polymer is a homopolymer or copolymer of a vinyl compound, and the vinyl compound is (meth)acrylic monomers or styrenic monomers.
A method of classifying a diffuse large B-cell lymphoma (DLBCL), comprising: measuring expression, optionally nucleic acid expression, of CD47, CD86, ENTPD1, FOXP1, FUT8, IL16, ITPKB, LRMP, MME, NF2, PIM1, PTPRC, REL, STAT3, TNFRSF8, and TYMS, in a sample obtained from a subject, thereby obtaining an expression value for CD47, CD86, ENTPD1, FOXP1, FUT8, IL16, ITPKB, LRMP, MME, NF2, PIM1, PTPRC, REL, STAT3, TNFRSF8, and TYMS; weighting each expression value, thereby generating weighted expression values; summing the weighted expression values, thereby generating a summed weighted expression value; calculating a probability score using the summed weighted expression value; comparing the probability score to thresholds; and classifying the DLBCL as activated B-cell-like when the probability score is value in a range for ABC; classifying the DLBCL as germinal center B-cell-like when the probability score is value in a range for GCB; or classifying the DLBCL as unclassified when the probability score is value in a range for unclassified. measuring expression, optionally nucleic acid expression, of CD47, CD86, ENTPD1, FOXP1, FUT8, IL16, ITPKB, LRMP, MME, NF2, PIM1, PTPRC, REL, STAT3, TNFRSF8, and TYMS, in a sample obtained from a subject, thereby obtaining an expression value for CD47, CD86, ENTPD1, FOXP1, FUT8, IL16, ITPKB, LRMP, MME, NF2, PIM1, PTPRC, REL, STAT3, TNFRSF8, and TYMS; weighting each expression value, thereby generating weighted expression values; summing the weighted expression values, thereby generating a summed weighted expression value; calculating a probability score using the summed weighted expression value; comparing the probability score to thresholds; and classifying the DLBCL as activated B-cell-like when the probability score is value in a range for ABC; classifying the DLBCL as germinal center B-cell-like when the probability score is value in a range for GCB; or classifying the DLBCL as unclassified when the probability score is value in a range for unclassified. classifying the DLBCL as activated B-cell-like when the probability score is value in a range for ABC; classifying the DLBCL as germinal center B-cell-like when the probability score is value in a range for GCB; or classifying the DLBCL as unclassified when the probability score is value in a range for unclassified.
A biopsy device, comprising: a disposable needle assembly having a cutting cannula, a stylet, a cannula driver, and a stylet driver, the cannula driver connected to a first portion of the cutting cannula, the stylet driver being connected to a first portion of the stylet, the cannula driver having a first rack member and a flange connected to the first rack member, the stylet driver having a second rack member; a linear motor drive having at least one linear motor (62, 64, 66); a coupler member connected to the linear motor drive, the coupler member configured to engage the flange of the cannula driver of the disposable needle assembly; a switching motor drive having at least one rotary motor (70, 72, 74); a transmission assembly having a gear assembly drivably coupled to the switching motor drive, the gear assembly configured to releasably engage at least one of the first rack member of the cannula driver and the second rack member of the stylet driver; and an electrical controller circuit configured to execute program instructions to selectively operate the linear motor drive and the switching motor drive. a disposable needle assembly having a cutting cannula, a stylet, a cannula driver, and a stylet driver, the cannula driver connected to a first portion of the cutting cannula, the stylet driver being connected to a first portion of the stylet, the cannula driver having a first rack member and a flange connected to the first rack member, the stylet driver having a second rack member; a linear motor drive having at least one linear motor (62, 64, 66); a coupler member connected to the linear motor drive, the coupler member configured to engage the flange of the cannula driver of the disposable needle assembly; a switching motor drive having at least one rotary motor (70, 72, 74); a transmission assembly having a gear assembly drivably coupled to the switching motor drive, the gear assembly configured to releasably engage at least one of the first rack member of the cannula driver and the second rack member of the stylet driver; and an electrical controller circuit configured to execute program instructions to selectively operate the linear motor drive and the switching motor drive.
A method for obtaining integrated biorefineries of lignocellulose biomasses which biorefineries transform said lignocellulose biomasses into products for food, industrial, energy-related, and agricultural use, characterized in that production units of former oil refineries selected from a distillation unit, a conversion unit, storage units (1, 11), a desulfurization unit (6, 12), a catalytic isomerization unit, and a gas scrubbing unit are reused; and wherein the biorefinery is capable of: (i) pretreatment of the lignocellulose biomasses provided as raw material with exclusively physical-mechanic methods to obtain hemicelluloses and celluloses; (ii) saccharification of the hemicelluloses and of the celluloses to obtain soluble sugars; (iii) separation of the insoluble lignin part; (iv) performing fermentations and non-fermentation processes with the soluble sugars; and (v) transforming of the lignins. (i) pretreatment of the lignocellulose biomasses provided as raw material with exclusively physical-mechanic methods to obtain hemicelluloses and celluloses; (ii) saccharification of the hemicelluloses and of the celluloses to obtain soluble sugars; (iii) separation of the insoluble lignin part; (iv) performing fermentations and non-fermentation processes with the soluble sugars; and (v) transforming of the lignins.
An anti-asphyxia valve assembly (12, 84), comprising: a first housing (22, 86); a diaphragm member (24, 88) coupled to an end of the first housing (22, 86), the diaphragm member (24, 88) has a pivotable sealing member (50A-D); and a second housing (26, 90) coupled to the end of the first housing (22, 86) over the diaphragm member (24, 88), the second housing (26, 90) having a plurality of ports (78A-D) extending through the second housing (26, 90) and spaced about the second housing (26, 90), wherein the diaphragm member (24, 88) is structured to actuate between (i) a first state wherein the sealing member (50A-D) substantially seals the end of the first housing (22, 86) responsive to a pressure within the first housing (22, 86) being below a certain level, each of the ports being open in the first state, and (ii) a second state wherein the sealing member (50A-D) pivots away from and does not substantially seal the end of the first housing (22, 86) responsive to a pressure within the first housing (22, 86) being at or above the certain level, characterized in that the diaphragm member (24, 88) has a plurality of said sealing members (50A-D) which are individually pivotable, and in that each of the plurality of sealing members (50A-D) substantially seals a respective one of the ports (78A-D) in the second state. a first housing (22, 86); a diaphragm member (24, 88) coupled to an end of the first housing (22, 86), the diaphragm member (24, 88) has a pivotable sealing member (50A-D); and a second housing (26, 90) coupled to the end of the first housing (22, 86) over the diaphragm member (24, 88), the second housing (26, 90) having a plurality of ports (78A-D) extending through the second housing (26, 90) and spaced about the second housing (26, 90), wherein the diaphragm member (24, 88) is structured to actuate between (i) a first state wherein the sealing member (50A-D) substantially seals the end of the first housing (22, 86) responsive to a pressure within the first housing (22, 86) being below a certain level, each of the ports being open in the first state, and (ii) a second state wherein the sealing member (50A-D) pivots away from and does not substantially seal the end of the first housing (22, 86) responsive to a pressure within the first housing (22, 86) being at or above the certain level, characterized in that the diaphragm member (24, 88) has a plurality of said sealing members (50A-D) which are individually pivotable, and in that each of the plurality of sealing members (50A-D) substantially seals a respective one of the ports (78A-D) in the second state.
A switch, comprising: an ignition chamber; a pyrotechnic actuator arranged to release gas into the ignition chamber upon ignition; a first conductor and a second conductor, the first and second conductors comprising connection contacts; a third conductor moveable in a direction from a first position towards a second position upon actuation by the pyrotechnic actuator; a breakable retaining member arranged to retain the third conductor in the first position prior to actuation by the pyrotechnic actuator, wherein the retaining member is arranged to break in dependence on actuation of the pyrotechnic actuator to allow movement of the third conductor; and a housing arranged to enclose at least the third conductor and the retaining member, wherein the retaining member is supported by the housing, wherein in the first position the third conductor is arranged between, and in electrical and physical contact with, the first and second conductors to define a current conduction path, and wherein in the second position the third conductor is electrically and physically separate from the first and second conductors; characterized in that contact surfaces at which the first conductor contacts the third conductor and at which the second conductor contacts the third conductor extend generally perpendicularly to the direction of movement of the third conductor. an ignition chamber; a pyrotechnic actuator arranged to release gas into the ignition chamber upon ignition; a first conductor and a second conductor, the first and second conductors comprising connection contacts; a third conductor moveable in a direction from a first position towards a second position upon actuation by the pyrotechnic actuator; a breakable retaining member arranged to retain the third conductor in the first position prior to actuation by the pyrotechnic actuator, wherein the retaining member is arranged to break in dependence on actuation of the pyrotechnic actuator to allow movement of the third conductor; and a housing arranged to enclose at least the third conductor and the retaining member, wherein the retaining member is supported by the housing, wherein in the first position the third conductor is arranged between, and in electrical and physical contact with, the first and second conductors to define a current conduction path, and wherein in the second position the third conductor is electrically and physically separate from the first and second conductors; characterized in that contact surfaces at which the first conductor contacts the third conductor and at which the second conductor contacts the third conductor extend generally perpendicularly to the direction of movement of the third conductor.
A window pane frame (1;37;41;51) combination comprising at least two parallel window panes (9;53,59,61) spaced from each other, as well as a frame present along the periphery of the window panes, which frame forms a whole in combination with the window panes, which window panes comprise each one or more glass sheets (11;55,57) and an air space is situated in between the window panes, which frame is constituted by a profile part of which is situated in between the window panes and forms a chamber which comprises an inner wall bounding on the air space and having openings, as well as two sidewalls facing the window panes, which chamber is at least partly open on the side opposite to the inner wall and is closed by means of a vapour barrier, where a dehydrating agent is present in the chamber and where a vapour barrier is present between the peripheral side of the window panes and the frame, and where a bonding layer is present between the side walls of the chamber and the window panes by means of which bonding layer the window panes are sealed to the frame and are rigidly positioned relative to the frame, which frame is comprised of a single segment, characterized in that the frame is comprised of four steel profiles which are welded together into one whole and are fold formed from strips.
An identification apparatus comprising: irradiation means configured to irradiate at least one sample with light; light collecting means for collecting scattered light from the at least one sample; a plurality of spectroscopic elements (150l, 150h) configured to disperse light from the light collecting means; imaging means that includes a plurality of light detection elements arrayed in a row direction and a column direction and to which Raman spectra from the plurality of spectroscopic elements (150l, 150h) are projected, whereby the plurality of spectroscopic elements disperse the light collected by the collecting means along the row direction; and acquisition means for acquiring spectral information about the at least one sample based on an output signal from the imaging means, whereby the plurality of spectroscopic elements are arranged to project respective Raman spectra corresponding to the at least one sample to the imaging means in such a way that an intermediate Raman spectral band is not projected in at least one of the row direction or the column direction. irradiation means configured to irradiate at least one sample with light; light collecting means for collecting scattered light from the at least one sample; a plurality of spectroscopic elements (150l, 150h) configured to disperse light from the light collecting means; imaging means that includes a plurality of light detection elements arrayed in a row direction and a column direction and to which Raman spectra from the plurality of spectroscopic elements (150l, 150h) are projected, whereby the plurality of spectroscopic elements disperse the light collected by the collecting means along the row direction; and acquisition means for acquiring spectral information about the at least one sample based on an output signal from the imaging means, whereby the plurality of spectroscopic elements are arranged to project respective Raman spectra corresponding to the at least one sample to the imaging means in such a way that an intermediate Raman spectral band is not projected in at least one of the row direction or the column direction.
A modular centrifugal separator system configured for separating a liquid feed mixture into a heavy phase and light phase, wherein the modular centrifugal separator system comprises a base unit and arranged therein an exchangeable separation insert, an exchangeable tube kit, and an interface for fluid communication between the exchangeable separation insert and the exchangeable tube kit, wherein the exchangeable separation insert comprises a rotor casing forming a separation space, and a first half of the interface, the rotor casing being configured to rotate about a rotational axis extending in an axial direction, wherein the exchangeable tube kit comprises at least one tube (22, 24, 26) for one of the liquid feed mixture, the heavy phase, and the light phase, and a second half of the interface, and characterised in that the modular centrifugal separator system comprises a removable sealing member covering the first and/or second half (101, 102) of the interface. the modular centrifugal separator system comprises a base unit and arranged therein an exchangeable separation insert, an exchangeable tube kit, and an interface for fluid communication between the exchangeable separation insert and the exchangeable tube kit, wherein the exchangeable separation insert comprises a rotor casing forming a separation space, and a first half of the interface, the rotor casing being configured to rotate about a rotational axis extending in an axial direction, wherein the exchangeable tube kit comprises at least one tube (22, 24, 26) for one of the liquid feed mixture, the heavy phase, and the light phase, and a second half of the interface, and characterised in that the modular centrifugal separator system comprises a removable sealing member covering the first and/or second half (101, 102) of the interface.
A method of producing Compound 1 or a salt thereof, comprising the steps of: (a) reacting a compound of Formula, wherein each PG is an amino protecting group, with a compound of Formula, wherein X is a leaving group; thereby producing a compound of Formula, (b) reacting the compound of Formula with a reducing agent, thereby producing a compound of Formula, (c) reacting the compound of Formula with an acetylating agent thereby producing a compound of Formula, (d) reacting the compound of Formula with a reducing agent, thereby producing a compound of Formula, and (e) deprotecting the compound of Formula, optionally in the presence of an acid, thereby producing Compound 1 or a salt thereof. (a) reacting a compound of Formula, wherein each PG is an amino protecting group, with a compound of Formula, wherein X is a leaving group; thereby producing a compound of Formula, wherein each PG is an amino protecting group, with a compound of Formula, wherein X is a leaving group; thereby producing a compound of Formula, (b) reacting the compound of Formula with a reducing agent, thereby producing a compound of Formula, (c) reacting the compound of Formula with an acetylating agent thereby producing a compound of Formula, (d) reacting the compound of Formula with a reducing agent, thereby producing a compound of Formula, and (e) deprotecting the compound of Formula, optionally in the presence of an acid, thereby producing Compound 1 or a salt thereof.
An ultrasonic transducer comprising: an upper substrate (241,441); a support (230,430) disposed on the upper substrate (241,441) and comprising a cavity (223,423); a via hole (220,420) through the upper substrate (241,441) and the support (230,430); a lower insulating layer (250,450) formed on a lower surface of the upper substrate (241,441) and on an inner wall of the via hole (220,420); a membrane (213,413) disposed on the support to cover the cavity; a first electrode layer (261,461) disposed on the lower insulating layer (250,450) to cover the lower insulating layer (250,450) on the inner wall of the via hole (220,420) and an upper portion of the via hole; a second electrode layer (262,462) electrically connected to the lower surface of the upper substrate and separated from the first electrode layer; and a trench (222,422) formed by penetrating through the upper substrate (222,422) and the lower insulating layer. an upper electrode (240,280) disposed on the membrane and electrically connected to the first electrode layer; wherein the first electrode layer (261,461) is disposed to cover a surface of the upper substrate and a surface of the support via the lower insulating layer (250,450). an upper substrate (241,441); a support (230,430) disposed on the upper substrate (241,441) and comprising a cavity (223,423); a via hole (220,420) through the upper substrate (241,441) and the support (230,430); a lower insulating layer (250,450) formed on a lower surface of the upper substrate (241,441) and on an inner wall of the via hole (220,420); a membrane (213,413) disposed on the support to cover the cavity; a first electrode layer (261,461) disposed on the lower insulating layer (250,450) to cover the lower insulating layer (250,450) on the inner wall of the via hole (220,420) and an upper portion of the via hole; a second electrode layer (262,462) electrically connected to the lower surface of the upper substrate and separated from the first electrode layer; and a trench (222,422) formed by penetrating through the upper substrate (222,422) and the lower insulating layer. an upper electrode (240,280) disposed on the membrane and electrically connected to the first electrode layer; wherein the first electrode layer (261,461) is disposed to cover a surface of the upper substrate and a surface of the support via the lower insulating layer (250,450).
A pump assembly comprising: a motor assembly, the motor assembly comprising a motor shaft; a motor housing, wherein the motor assembly is received in the motor housing; a transmission assembly drivable by the motor assembly; a pump connected to the transmission assembly; and a pipe assembly connecting the motor housing and the pump; characterized in the motor housing having a cuboid shape, and in that at least two mutually independent heat dissipating portions are provided in the motor housing, wherein each heat dissipating portion comprises a groove provided on a respective side of a first main body portion of the motor housing, and a side cover plate assembled to the groove forming a space therebetween, a plurality of guide ribs provided in the groove, the plurality of guide ribs forming a cooling water channel in the heat dissipating portion, a water inlet located at a first end of the cooling water channel, and a water outlet located at a second end of the cooling water channel, wherein water is arranged to flow into the heat dissipating portion through the water inlet, pass through the cooling water channel in the groove, and exit the heat dissipating portion through the water outlet. a motor assembly, the motor assembly comprising a motor shaft; a motor housing, wherein the motor assembly is received in the motor housing; a transmission assembly drivable by the motor assembly; a pump connected to the transmission assembly; and a pipe assembly connecting the motor housing and the pump; the motor housing having a cuboid shape, and in that at least two mutually independent heat dissipating portions are provided in the motor housing, wherein each heat dissipating portion comprises a groove provided on a respective side of a first main body portion of the motor housing, and a side cover plate assembled to the groove forming a space therebetween, a plurality of guide ribs provided in the groove, the plurality of guide ribs forming a cooling water channel in the heat dissipating portion, a water inlet located at a first end of the cooling water channel, and a water outlet located at a second end of the cooling water channel,