mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition, comprising the following components: Phenolic acids 2-20 parts by weight Flavonoids 0.5-5 parts by weight Tanshinones 0.005-0.5 part by weight Saponins 5-20 parts by weight Volatile oils 10-18 parts by weight, wherein, the phenolic acids comprise substances of the following weight parts: Danshensu (salvianic acid A): protocatechuic aldehyde : salvianolic acid T : salvianolic acid U : salvianolic acid D : salvianolic acid G : rosmarinic acid : lithospermic acid : salvianolic acid B : salvianolic acid A : isosalvianolic acid C = (3.0-11.0) : (0.06-0.15) : (0.2-0.55) : (0.2-0.55) : (0.4-1.3) : (0.02-0.05) : (0.3-0.8) : (0.05-0.40) : (0.10-0.40) : (0.07-0.12) : (0.015-0.04); the flavonoids comprise substances of the following weight parts: calycosin-7-glucoside : ononin : calycosin : formononetin = (0.6-1.8) : (0.3-0.7) : (0.03-0.18) : (0.03-0.65); the tanshinones comprise substances of the following weight parts: dihydrotanshinone I : cryptotanshinone : tanshinone I : tanshinone IIA = (0.001-0.03) : (0.005-0.04) : (0.002-0.025) : (0.004-0.03); the saponins comprise substances with the following weight parts: notoginsenoside R1 : ginsenoside Rg1 : ginsenoside Rb1 : astragaloside : ginsenoside Rd = (1.8-3.5) : (2.5-5.4) : (1.3-5.0) : (0.30-0.60) : (0.4-0.6); and the volatile oils comprise substances with the following weight parts: trans -nerolidol : nerolidol oxide = (25-38) : (55-76). wherein, the phenolic acids comprise substances of the following weight parts: Danshensu (salvianic acid A): protocatechuic aldehyde : salvianolic acid T : salvianolic acid U : salvianolic acid D : salvianolic acid G : rosmarinic acid : lithospermic acid : salvianolic acid B : salvianolic acid A : isosalvianolic acid C = (3.0-11.0) : (0.06-0.15) : (0.2-0.55) : (0.2-0.55) : (0.4-1.3) : (0.02-0.05) : (0.3-0.8) : (0.05-0.40) : (0.10-0.40) : (0.07-0.12) : (0.015-0.04); the flavonoids comprise substances of the following weight parts: calycosin-7-glucoside : ononin : calycosin : formononetin = (0.6-1.8) : (0.3-0.7) : (0.03-0.18) : (0.03-0.65); the tanshinones comprise substances of the following weight parts: dihydrotanshinone I : cryptotanshinone : tanshinone I : tanshinone IIA = (0.001-0.03) : (0.005-0.04) : (0.002-0.025) : (0.004-0.03); the saponins comprise substances with the following weight parts: notoginsenoside R1 : ginsenoside Rg1 : ginsenoside Rb1 : astragaloside : ginsenoside Rd = (1.8-3.5) : (2.5-5.4) : (1.3-5.0) : (0.30-0.60) : (0.4-0.6); and the volatile oils comprise substances with the following weight parts: trans -nerolidol : nerolidol oxide = (25-38) : (55-76).
A powder coating composition which comprises at least two silicone resins having different glass transition temperatures and/or different melt viscosities, a reinforcing filler, and optional additives, wherein the composition further comprises an acrylic resin having hydroxyl and glycidyl functional groups, a mica-containing filler, and an adhesion promoter having groups selected from ethoxy active groups, carboxyl groups, anhydride groups, hydroxyl groups, halogen groups, cyano groups, amido or sulphonate groups.
Wiper blade with a connection adapter and at least one wiper strip and an elastically flexible wiper strip carrier , in particular made from plastic, which, in cross section, receives a supporting element in one or more channels , in the region of the connection adapter , the supporting element at least partially embraced in recesses in the wiper strip carrier by retaining elements of the connection adapter such that the connection adapter is connected to the wiper strip carrier by the supporting element , wherein a blocking pin which is pushed into the connection adapter secures the supporting element in its position in the longitudinal direction of the wiper strip carrier with respect to the connection adapter by contact surfaces in the connection adapter and contact surfaces of the supporting element , characterized in that the blocking pin is a round pin with a conical bevel and locking edge , the conical bevel upon insertion being able to slide via a latching edge into a hole , and, after the latching, the round pin being able to be retained at the locking edge by the latching edge .
A chimeric antigen receptor (CAR) comprising a signal peptide, a TGF-β antigen-binding domain with a variable heavy (VH) and variable light (VL) region of an antibody, a peptide spacer, a transmembrane domain, and an endodomain that transmits an activation signal to the T cell after antigen is bound; wherein the TGF-β antigen-binding domain specifically binds to soluble TGF-β and wherein: (a) the VH region comprises SEQ ID NO:5 as HCDR1, SEQ ID NO:6 as HCDR2; and SEQ ID NO:7 as HCDR3 and the VL region comprises SEQ ID NO:8 as LCDR1, SEQ ID NO:9 as LCDR2; and SEQ ID NO:10 as LCDR3; or (b) the VH region comprises SEQ ID NO:11 as HCDR1, SEQ ID NO:12 as HCDR2; and SEQ ID NO: 13 as HCDR3 and the VL region comprises SEQ ID NO:14 as LCDR1, SEQ ID NO:15 as LCDR2; and SEQ ID NO:16 as LCDR3; or (c) the VH region comprises SEQ ID NO:21 as HCDR1, SEQ ID NO:22 as HCDR2; and SEQ ID NO:23 as HCDR3 and the VL region comprises SEQ ID NO:24 as LCDR1, SEQ ID NO:25 as LCDR2; and SEQ ID NO:26 as LCDR3; and wherein the CAR has the structure: S-X-PL-Y-PS-T-E or S-Y-PL-X-PS-T-E wherein S is the signal peptide, X is VH, PL is a peptide linker, Y is VL, PS is the peptide spacer, T is the transmembrane domain, and E is the endodomain. (a) the VH region comprises SEQ ID NO:5 as HCDR1, SEQ ID NO:6 as HCDR2; and SEQ ID NO:7 as HCDR3 and the VL region comprises SEQ ID NO:8 as LCDR1, SEQ ID NO:9 as LCDR2; and SEQ ID NO:10 as LCDR3; or (b) the VH region comprises SEQ ID NO:11 as HCDR1, SEQ ID NO:12 as HCDR2; and SEQ ID NO: 13 as HCDR3 and the VL region comprises SEQ ID NO:14 as LCDR1, SEQ ID NO:15 as LCDR2; and SEQ ID NO:16 as LCDR3; or (c) the VH region comprises SEQ ID NO:21 as HCDR1, SEQ ID NO:22 as HCDR2; and SEQ ID NO:23 as HCDR3 and the VL region comprises SEQ ID NO:24 as LCDR1, SEQ ID NO:25 as LCDR2; and SEQ ID NO:26 as LCDR3; and
A compound selected from: 4-((5-carbamoyl-2-ethyl-1,3-benzodiazol-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoyl-2-isopropyl-1,3-benzodiazol-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((2-ethyl-4-hydroxyimidazo[4,5-c]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((4-hydroxy-2-isopropylimidazo[4,5-c]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; (4-((5-carbamoyl-2-methyl-1H-imidazo[4,5-b]pyridin-1-yl)methyl)phenyl)boronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoyl-2-methyl-1H-benzo[d]imidazol-1-yl)methyl)phenyl)boronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoylimidazo[4,5-b]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-cyanoimidazo[4,5-b]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoyl-2-isopropylimidazo[4,5-b]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; and 4-((5-carbamoyl-1,3-benzodiazol-1-yl)methyl)phenylboronic acid trifluoroacetic acid salt 4-((5-carbamoyl-2-ethyl-1,3-benzodiazol-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoyl-2-isopropyl-1,3-benzodiazol-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((2-ethyl-4-hydroxyimidazo[4,5-c]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((4-hydroxy-2-isopropylimidazo[4,5-c]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; (4-((5-carbamoyl-2-methyl-1H-imidazo[4,5-b]pyridin-1-yl)methyl)phenyl)boronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoyl-2-methyl-1H-benzo[d]imidazol-1-yl)methyl)phenyl)boronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoylimidazo[4,5-b]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-cyanoimidazo[4,5-b]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; 4-((5-carbamoyl-2-isopropylimidazo[4,5-b]pyridin-1-yl)methyl)phenylboronic acid according to the following structure: or a pharmaceutically acceptable salt thereof; and 4-((5-carbamoyl-1,3-benzodiazol-1-yl)methyl)phenylboronic acid trifluoroacetic acid salt
A magnetic resonance imaging system comprising a basic field magnetic arrangement for generating a main magnetic field (B0) and multiple spatially separated imaging regions (IR1, IR2, IR3, IR4, IR5, IR6), wherein the basic field magnetic arrangement comprises several spatially separated magnet segments , in order to generate segment magnetic fields with a defined segment field direction (R0), wherein at least two of the spatially separated magnet segments are configured in a way that their defined segment field directions (R0) are running in an angular fashion to each other so that the segment magnetic fields result in a main magnetic field (B0) which has the form of a toroid, wherein the magnetic resonance imaging system is designed to be adapted to MR imaging of dedicated body or organ parts of a patient (O), characterised in that a respective imaging region between two magnet segments is V- shaped and is formed inside the opening angle of these magnet segments. wherein the basic field magnetic arrangement comprises several spatially separated magnet segments , in order to generate segment magnetic fields with a defined segment field direction (R0), wherein at least two of the spatially separated magnet segments are configured in a way that their defined segment field directions (R0) are running in an angular fashion to each other so that the segment magnetic fields result in a main magnetic field (B0) which has the form of a toroid, wherein the magnetic resonance imaging system is designed to be adapted to MR imaging of dedicated body or organ parts of a patient (O), characterised in that a respective imaging region between two magnet segments is V- shaped and is formed inside the opening angle of these magnet segments.
A vacuum packaging device, comprising: a vacuum packaging unit configured to vacuum-package a packaging sheet ; and a cutting unit formed in the vacuum packaging unit to form a tearing notch on the packaging sheet , the cutting unit comprises, a cutting member configured to cut the packaging sheet to form the tearing notch (la); and a driving part installed in the vacuum packaging unit to be connected to the cutting member and move the cutting member to cut the packaging sheet , characterized in that , the vacuum packaging unit includes an externally exposed first supporting groove, the driving unit includes a pressing member with the cutting member mounted therein and installed in the first supporting groove to reciprocate to the packaging sheet , and when a pressing force is applied to the pressing member , the pressing member moves together with the cutting member so that the packaging sheet (l) is cut by the cutting member .
A system for robotically assisted implantation of an implant in a patient, the system comprising: an external positioning unit (110; 210; 300A; 300B) including a coupling unit having at least two rollers arranged and configured to engage at least a portion of an elongate member of the implant and robotically deliver and position the implant into a target implantation site; a control console communicatively coupled to the external positioning unit, the control console including a controller circuit configured to generate a motion control signal, according to a specific motion control instruction, for controlling the external positioning unit to robotically deliver and position the implant into the target implantation site; and a motor included in the external positioning unit or the control console, wherein the coupling unit is configured to engage the elongate member through compression between respective radial outer surfaces of the at least two rollers, and wherein the motor is coupled to at least one of the at least two rollers via a power transmission unit to drive rotation of the at least two rollers, the motor being configured to robotically drive at least one of the at least two rollers to rotate in response to the motion control signal to move the elongate member via friction generated by the compression. an external positioning unit (110; 210; 300A; 300B) including a coupling unit having at least two rollers arranged and configured to engage at least a portion of an elongate member of the implant and robotically deliver and position the implant into a target implantation site; a control console communicatively coupled to the external positioning unit, the control console including a controller circuit configured to generate a motion control signal, according to a specific motion control instruction, for controlling the external positioning unit to robotically deliver and position the implant into the target implantation site; and a motor included in the external positioning unit or the control console, wherein the coupling unit is configured to engage the elongate member through compression between respective radial outer surfaces of the at least two rollers, and wherein the motor is coupled to at least one of the at least two rollers via a power transmission unit to drive rotation of the at least two rollers, the motor being configured to robotically drive at least one of the at least two rollers to rotate in response to the motion control signal to move the elongate member via friction generated by the compression.
An orthopaedic device for attachment to an insole of a shoe, comprising a heel relief means which comprises an upper end for exerting pressure in line with the junction of the posterior part of the plantar arch and the anterior part of the heel, the heel relief means having a maximum thickness of between 6 and 14 millimeters, its shore A hardness being between 15 and 40, the hardness being measured at ambient temperature using a standardized shore A Durometer, the heel relief means comprising a lower face intended to be fixed to the insole , an inclined upper face and a concave rear face extending from the upper end of the upper face to the end of the correspondingly arranged lower face , the rear face forming an acute angle with the lower face , the junction of the inclined upper face and the posterior face forming a ridge corresponding to the upper end of the heel relief means , the ridge being intended to exert pressure at the insertion of the flexor tendons at the calcaneus.
A method for producing an α-halo-tetraacyl-glucose represented by the formula (III): wherein R represents optionally substituted C 1-6 alkyl or optionally substituted aryl, and X represents a halogen atom, which comprises reacting D-glucose or C 1-6 alkyl D-glucoside with an acid halide represented by the formula (V): wherein R represents an optionally substituted C 1-6 alkyl or an optionally substituted aryl, and X represents a halogen atom, in the presence of a catalytic amount of a Lewis acidic metal halide selected from the group consisting of zinc bromide, cobalt bromide and bismuth bromide.
A reversible powering device for an electronic equipment comprising a first power input port and a second power input port, comprising: a power input determining module configured to determine whether the first power input port or the second power input port of the electronic equipment has a power input respectively, and send a control signal to a switch controlling module if it is determined that the first power input port has a power input and the second power input port has no power input; characterised in that the switch controlling module is configured to control a switching device according to said control signal such that the power input into the first power input port is output from the second power input port in a reverse direction to power another electronic equipment, and said reversible powering device further comprises an enable determining module configured to determine, after the electronic equipment is powered on, whether the electronic equipment enables a reversible powering function, and if the reversible powering function is enabled, the power input determining module implements said determination, wherein said determination is performed only once after the electronic equipment is powered on. a power input determining module configured to determine whether the first power input port or the second power input port of the electronic equipment has a power input respectively, and send a control signal to a switch controlling module if it is determined that the first power input port has a power input and the second power input port has no power input; characterised in that the switch controlling module is configured to control a switching device according to said control signal such that the power input into the first power input port is output from the second power input port in a reverse direction to power another electronic equipment, and said reversible powering device further comprises an enable determining module configured to determine, after the electronic equipment is powered on, whether the electronic equipment enables a reversible powering function, and if the reversible powering function is enabled, the power input determining module implements said determination, wherein said determination is performed only once after the electronic equipment is powered on.
An apparatus for compressing gas-phase fluid , comprising: - a housing having a wall ; - a non-motional stator having a base plate and a helical wall extending from one side of the base plate (3 a); - a motional orbiter having a base plate and a helical wall extending from the base plate , the base plates being disposed such that the wall of the stator and the wall of the orbiter engage with each other to define closed working chambers , volumes and positions of the working chambers being changed in response to motion of the orbiter ; - a guide device having at least one opening formed in the base plate of the orbiter and at least one pin fixedly coupled to and protruding from the housing, the pin engaging into the opening ; and - a sliding element disposed between the wall of the housing and the orbiter and fixedly coupled to the wall , wherein the at least one pin is pressed into an opening formed in the sliding element , characterized in that the sliding element is pressed into and coupled to the housing by force-fit, and the housing comprises a recess having a side and a base surface, one circular ring surface of the sliding element abuts on the base surface of the recess, and the side of the recess is fitted and coupled to an outer jacket surface of the sliding element . - a housing having a wall ; - a non-motional stator having a base plate and a helical wall extending from one side of the base plate (3 a); - a motional orbiter having a base plate and a helical wall extending from the base plate , the base plates being disposed such that the wall of the stator and the wall of the orbiter engage with each other to define closed working chambers , volumes and positions of the working chambers being changed in response to motion of the orbiter ; - a guide device having at least one opening formed in the base plate of the orbiter and at least one pin fixedly coupled to and protruding from the housing, the pin engaging into the opening ; and - a sliding element disposed between the wall of the housing and the orbiter and fixedly coupled to the wall , the sliding element is pressed into and coupled to the housing by force-fit, and the housing comprises a recess having a side and a base surface, one circular ring surface of the sliding element abuts on the base surface of the recess, and the side of the recess is fitted and coupled to an outer jacket surface of the sliding element .
An optical sensor disposition structure for a saddle riding vehicle including a handle bar , the optical sensor disposition structure comprising: an optical sensor including a main body section and a lens attached to the main body section ; left and right handle bar grips installed on both side portions of the handle bar ; and a switch case installed between the left and right handle bar grips and supported by the handle bar , wherein the optical sensor is installed at the switch case so that the lens is exposed toward an outside of the switch case , wherein the switch case is formed in an annular shape and has an external shape larger than that of the handle bar , characterized in that a space is formed around the handlebar inside the switch case and that the main body section is installed in the space inside the switch case , wherein the lens is exposed toward a rear side from the switch case . an optical sensor including a main body section and a lens attached to the main body section ; left and right handle bar grips installed on both side portions of the handle bar ; and a switch case installed between the left and right handle bar grips and supported by the handle bar , wherein the optical sensor is installed at the switch case so that the lens is exposed toward an outside of the switch case , wherein the switch case is formed in an annular shape and has an external shape larger than that of the handle bar , characterized in that a space is formed around the handlebar inside the switch case and that the main body section is installed in the space inside the switch case , wherein the lens is exposed toward a rear side from the switch case .
Agricultural vehicle with a header comprising multiple row units along a width of the header, the multiple row units comprising a feed/snapping unit and a chopping unit , wherein the header comprises a first power transmission shaft extending along the multiple row units for driving the feed/snapping units of the multiple row units, the header comprising a second power transmission shaft connected via a drivetrain to a drive at the agricultural vehicle, characterized in that each chopper unit comprises a safety clutch and is connected via the safety clutch to the second power transmission shaft , wherein at least one torque sensor is provided at one of the second power transmission shaft , the drivetrain and the drive , which torque sensor is operationally connected to a torque fluctuation monitor adapted to recognize a predetermined change in torque fluctuation indicating a safety clutch slip of the safety clutch , the torque fluctuation monitor being operationally connected to a user interface for signaling the safety clutch slip.