mhurhangee/patent-ind-claim-en huggingface dataset:
A compound selected from: and wherein PG is selected from a tri-C 1-6 alkyl silyl group, a di-C 1-6 alkyl-phenyl silyl group, a C 1-6 alkyl-di-phenyl silyl group, and a tri-phenyl silyl group; R' is C 1-6 alkyl; R x is H or C 1-6 alkyl; X is Br, Cl or I; and R 5 is C 1-6 alkyl. a C 1-6 alkyl-di-phenyl silyl group, and a tri-phenyl silyl group; R' is C 1-6 alkyl; R x is H or C 1-6 alkyl; X is Br, Cl or I; and R 5 is C 1-6 alkyl.
A locking fastener assembly comprising: a fastener comprising a threaded portion and a head having a first end and second end axially spaced from the first end, the second end comprising a fastening surface and a locking washer recess ; a locking washer disposed at least partially within the locking washer recess , the locking washer comprising a locking tab extending in a first direction and a stop biased in a second direction opposing the first direction, wherein the locking tab is operable to lock rotation of the locking washer relative to an item being secured upon a torqueing rotation and a loosening rotation of the fastener ; and a locking member supported by the fastener , and operable to interface with the stop of the locking washer upon the loosening rotation of the fastener to lock the fastener relative to the item being secured. a fastener comprising a threaded portion and a head having a first end and second end axially spaced from the first end, the second end comprising a fastening surface and a locking washer recess ; a locking washer disposed at least partially within the locking washer recess , the locking washer comprising a locking tab extending in a first direction and a stop biased in a second direction opposing the first direction, wherein the locking tab is operable to lock rotation of the locking washer relative to an item being secured upon a torqueing rotation and a loosening rotation of the fastener ; and a locking member supported by the fastener , and operable to interface with the stop of the locking washer upon the loosening rotation of the fastener to lock the fastener relative to the item being secured.
A control device for industrial machines with controlled movement drives for machine components, comprising a human-machine interface with at least one operating element for manually influencing or predetermining adjustment movements of at least one of the machine components, wherein at least one operating element is formed as a rotary adjuster operating element with an actuation member mounted so as to be rotatable about an axis of rotation , said actuation member being rotatable by actuation force of an operator, wherein rotation movements of the actuation member , or its axis of rotation , are evaluated by an electronic evaluation and control device for deriving control commands, and wherein the evaluation and control device is formed for automatic differentiation at least between a first operating mode (B 1) and a second operating mode (B2), wherein in the first operating mode (B1), adjustment movements of a controlled machine component are performed only as long as a rotation movement of the actuation member or of its axis of rotation can be detected by the evaluation and control device , characterized in that , in the second operating mode (B2), adjustment movements of a controlled machine component are immediately continued for a temporally limited follow-up time (VNL2, VNL3) after termination of the rotation movement of the actuation member or its axis of rotation without an interruption of the adjustment movement of the controlled machine component, wherein the automatic differentiation between the first and the second operating mode (B1, B2) is carried out based on an angular velocity (ω N , ω 1 , ω 2 , ω 3 ) or angular acceleration ( a ⇀ N a ⇀ 1 , a ⇀ 2 , a ⇀ 3 ) detected by the evaluation and control device , said angular velocity (ω N , ω 1 , ω 2 , ω 3 ) or angular acceleration ( a ⇀ N , a ⇀ 1 , a ⇀ 2 , a ⇀ 3 ) being present during or after an initial phase of a rotary actuation of the actuation member , or being present or given at an evaluation time after the beginning of a rotary actuation of the actuation member in each case initiated relative to the actuation member , and that the evaluation and control device is configured for automatically switching between the first and second operating mode (B1, B2) and vice versa, or for automatically activating the first or second operating mode (B 1, B2).
A process for the preparation of highly pure crystalline form 'M' of the compound 7-[4-(4-flurophenyl)-6-isopropyl-2-(N-methyl-N-methylsulfonylamino)-pyrimidin-5-yl]- -dihydroxy-hept-6-enoic acid Calcium salt designated as form "M" of Rosuvastatin calcium of formula I or hydrates thereof: wherein the polymorphic crystalline form M of Rosuvastatin Calcium has characteristic peaks as given below: 2- Theta Relative intensity (%) (Peaks having > 40% Intensity are mentioned) 6.83 63 8.14 49 9.15 73 10.23 43 11.30 95 15.60 42 17.82 48 19.17 100 19.44 68 20.30 80 20.82 80 22.01 65 22.85 74 24.14 56 24.56 40 which comprises: i. Deprotection of tert-butyl-2-( -6-((E)-2-(4(-(4-fluorophenyl)-6-isopropyl-2-(N-methylmethylsulphonamido)pyrimidin-5-yl)vinyl)-2,2- dimethyl-1,3-dioxan-4-yl) acetate in acetonitrile using dilute hydrochloric acid. ii. Hydrolysis of resulting material with aqueous Caustic solution. iii. Complete removal of acetonitrile from reaction mass under vacuum. iv. Addition of water & methyl tert-butyl ether. v. Layer separation. vi. Isolation of Rosuvastatin calcium by addition of calcium chloride to aqueous layer. vii. Recrystallization of resulting Rosuvastatin Calcium (wet or dry) by dissolving the product using an aliphatic ketone such as acetone, ethyl methyl ketone, diethyl ketone, dipropyl ketone, dibutyl ketone or mixture thereof & recrystallization by adding water as anti-solvent. viii. Isolation of novel Rosuvastatin calcium crystalline form M by routine filtration & drying; wherein the anti-isomer content is very low (<0.1% by HPLC) or even 'Not Detected'. i. Deprotection of tert-butyl-2-( -6-((E)-2-(4(-(4-fluorophenyl)-6-isopropyl-2-(N-methylmethylsulphonamido)pyrimidin-5-yl)vinyl)-2,2- dimethyl-1,3-dioxan-4-yl) acetate in acetonitrile using dilute hydrochloric acid. ii. Hydrolysis of resulting material with aqueous Caustic solution. iii. Complete removal of acetonitrile from reaction mass under vacuum. iv. Addition of water & methyl tert-butyl ether. v. Layer separation. vi. Isolation of Rosuvastatin calcium by addition of calcium chloride to aqueous layer. vii. Recrystallization of resulting Rosuvastatin Calcium (wet or dry) by dissolving the product using an aliphatic ketone such as acetone, ethyl methyl ketone, diethyl ketone, dipropyl ketone, dibutyl ketone or mixture thereof & recrystallization by adding water as anti-solvent. viii. Isolation of novel Rosuvastatin calcium crystalline form M by routine filtration & drying;
A method for producing a water-soluble pea polysaccharide, comprising: grinding a pea fiber material, with a grinder, before, during or after removing starch or protein of the pea fiber material, to adjust that 80% or more particles of the pea fiber material are distributed in a particle size between 100 μm and 1000 μm; adding water to the pea fiber material; adjusting the pH to a range from pH 3 to pH 12 with an acid or alkali; and then extracting a water-soluble pea polysaccharide from the pea fiber material at 60°C or more and 150°C or less for 0.5 to 3 hours, wherein the pea fiber material is prepared from pea seed. grinding a pea fiber material, with a grinder, before, during or after removing starch or protein of the pea fiber material, to adjust that 80% or more particles of the pea fiber material are distributed in a particle size between 100 μm and 1000 μm; adding water to the pea fiber material; adjusting the pH to a range from pH 3 to pH 12 with an acid or alkali; and then extracting a water-soluble pea polysaccharide from the pea fiber material at 60°C or more and 150°C or less for 0.5 to 3 hours, wherein the pea fiber material is prepared from pea seed.
A thermal-type air flow rate sensor, comprising: a semiconductor substrate ; a layered structure which is provided on the semiconductor substrate ; and a diaphragm portion formed by removing a part of the semiconductor substrate , wherein the layered structure includes: a resistance wiring layer ; and a constant potential layer formed above the resistance wiring layer , characterised by : the resistance wiring layer comprising temperature measurement resistors (32; 33) and a heating resistor , wherein in the region of the diaphragm portion the wirings of two temperature measurements resistors (Ru1, Ru2; Rd1, Rd2) in a plan view are adjacent and parallel to each other respectively and are electrically connected to different electric potentials; the constant potential layer being electrically connected to a constant potential to keep the constant potential layer at said same constant potential, wherein the constant potential of the constant potential layer is a ground (GND) potential, and the constant potential layer being formed to cover a region of the resistance wiring layer in the diaphragm portion . a semiconductor substrate ; a layered structure which is provided on the semiconductor substrate ; and a diaphragm portion formed by removing a part of the semiconductor substrate , a resistance wiring layer ; and a constant potential layer formed above the resistance wiring layer , characterised by : the resistance wiring layer comprising temperature measurement resistors (32; 33) and a heating resistor , wherein in the region of the diaphragm portion the wirings of two temperature measurements resistors (Ru1, Ru2; Rd1, Rd2) in a plan view are adjacent and parallel to each other respectively and are electrically connected to different electric potentials; the constant potential layer being electrically connected to a constant potential to keep the constant potential layer at said same constant potential, wherein the constant potential of the constant potential layer is a ground (GND) potential, and the constant potential layer being formed to cover a region of the resistance wiring layer in the diaphragm portion . the resistance wiring layer comprising temperature measurement resistors (32; 33) and a heating resistor , wherein in the region of the diaphragm portion the wirings of two temperature measurements resistors (Ru1, Ru2; Rd1, Rd2) in a plan view are adjacent and parallel to each other respectively and are electrically connected to different electric potentials; the constant potential layer being electrically connected to a constant potential to keep the constant potential layer at said same constant potential, wherein the constant potential of the constant potential layer is a ground (GND) potential, and the constant potential layer being formed to cover a region of the resistance wiring layer in the diaphragm portion .
A method for preparing a fibrous scaffold comprising steps of: a) forming an electric field by applying a voltage using a voltage generator between a nozzle of a syringe containing a biodegradable polymer solution and a current-collecting ground, wherein the biodegradable polymer is polycaprolactone; and b) preparing a cotton-like fibrous scaffold having a three-dimensional volume by radially blowing the biodegradable polymer solution through the syringe nozzle under a continuous air flow by a fan. a) forming an electric field by applying a voltage using a voltage generator between a nozzle of a syringe containing a biodegradable polymer solution and a current-collecting ground, wherein the biodegradable polymer is polycaprolactone; and b) preparing a cotton-like fibrous scaffold having a three-dimensional volume by radially blowing the biodegradable polymer solution through the syringe nozzle under a continuous air flow by a fan.
Vehicle tyre having a tread, having a tyre belt, having a tyre carcass with at least one carcass ply, having side walls and having a tyre bead with a tyre core and a bead filler , wherein the tyre core comprises, in cross section, a multiplicity of strengthening members, and the bead filler is attached on its bottom side to the top side of the tyre core , wherein the vehicle tyre further has a transponder with a transponder chip and has an antenna attached to the transponder chip , wherein the transponder is arranged between the bead filler and an outer ply turn-up of the carcass ply, wherein the height dimension in a radial direction of the vehicle tyre between the transponder and the bottom side of the bead filler amounts to at least 3 mm, characterized in that the transponder is an RFID transponder in foil form, wherein the transponder chip and the antennas are embedded in a carrier foil , wherein the transponder in foil form has an additional material coating, wherein the material coating comprises an adhesion promoter system, wherein the attachment to the surrounding tyre components is improved by means of the adhesion promoter system.
A battery module , comprising: a plurality of battery cells connected in series or connected in series and in parallel; a plurality of bus bars connected to corresponding electrode leads of the battery cells; and a voltage sensing member having sensing parts respectively connected to the bus bars , wherein each of the plurality of bus bars has a pin hole perforated therethrough in a thickness direction, and each of the sensing parts has a solder pin configured to be inserted into and released from the pin hole , wherein the solder pin includes: a base portion attached to one surface of the sensing part ; and a hole insert portion configured to extend in a direction orthogonal to the base portion and provided to be inserted into the pin hole , wherein the hole insert portion includes a first post and a second post (62b formed to extend in parallel with each other, wherein each of the first post and the second post has a hook-shaped end portion (E1, E2), and each of the hook-shaped end portions (E1, E2) is configured to pass through the pin hole and hook to a rear surface of the bus bar . a plurality of battery cells connected in series or connected in series and in parallel; a plurality of bus bars connected to corresponding electrode leads of the battery cells; and a voltage sensing member having sensing parts respectively connected to the bus bars , wherein each of the plurality of bus bars has a pin hole perforated therethrough in a thickness direction, and each of the sensing parts has a solder pin configured to be inserted into and released from the pin hole , wherein the solder pin includes: a base portion attached to one surface of the sensing part ; and a hole insert portion configured to extend in a direction orthogonal to the base portion and provided to be inserted into the pin hole , wherein the hole insert portion includes a first post and a second post (62b formed to extend in parallel with each other, wherein each of the first post and the second post has a hook-shaped end portion (E1, E2), and each of the hook-shaped end portions (E1, E2) is configured to pass through the pin hole and hook to a rear surface of the bus bar . a base portion attached to one surface of the sensing part ; and a hole insert portion configured to extend in a direction orthogonal to the base portion and provided to be inserted into the pin hole , wherein the hole insert portion includes a first post and a second post (62b formed to extend in parallel with each other, wherein each of the first post and the second post has a hook-shaped end portion (E1, E2), and each of the hook-shaped end portions (E1, E2) is configured to pass through the pin hole and hook to a rear surface of the bus bar .
Connection system equipped with a harness comprising an assembly of wires , the said connection system comprises a sandwich enclosing the said wires , the said connection system comprising a trough with a streamlined aerodynamic shape, the said sandwich being arranged in the said trough , characterised in that the said connection system comprises a lower foam and an upper foam forming the sandwich and each wire being compressed in isolation between the upper foam and a lower foam , the said connection system being equipped with an attachment means for attaching the said upper foam to an exterior casing of a vehicle , the said connection system being equipped with an attachment device for attaching the said lower foam to an internal wall of the said trough , the said connection system comprising at least one routing pin keeping the wires flat next to one another in a plane (P1), the said plane (P1) having a thickness (EP) greater than or equal to the largest diameter (DMAX) of the said wires , the said pin having a C shape by comprising two branches linked by an arc enabling relative movement of the said branches , at least one branch having corrugations .
A polarization conversion system for converting at least partially unpolarized and at least partially collimated light to polarized light, the system comprising: a geometric phase element having local optical axis orientations that vary non-linearly in at least one dimension along a surface thereof; and a retarder element arranged to receive light output from the geometric phase element wherein the geometric phase element is configured to diffract at least partially unpolarized incident light that consists of light rays that propagate substantially parallel to one another into first and second divergent beams having orthogonal polarization states and to focus the first beam at a focal length (f) associated therewith and defocus the second beam at the focal length (f), and wherein the retarder element is a patterned retarder element comprising a first retardation region and a second retardation region positioned at or near the focal length (f) of the geometric phase element , wherein the geometric phase element is configured to direct the first beam to the first retardation region , and to direct the second beam to the second retardation region , and wherein the retarder element is configured to convert the orthogonal polarization states of the first beam at the first retardation region and the second beam at the second retardation region to a same polarization state without substantially altering respective directions of propagation thereof. a geometric phase element having local optical axis orientations that vary non-linearly in at least one dimension along a surface thereof; and a retarder element arranged to receive light output from the geometric phase element wherein the geometric phase element is configured to diffract at least partially unpolarized incident light that consists of light rays that propagate substantially parallel to one another into first and second divergent beams having orthogonal polarization states and to focus the first beam at a focal length (f) associated therewith and defocus the second beam at the focal length (f), and wherein the retarder element is a patterned retarder element comprising a first retardation region and a second retardation region positioned at or near the focal length (f) of the geometric phase element , wherein the geometric phase element is configured to direct the first beam to the first retardation region , and to direct the second beam to the second retardation region , and wherein the retarder element is configured to convert the orthogonal polarization states of the first beam at the first retardation region and the second beam at the second retardation region to a same polarization state without substantially altering respective directions of propagation thereof.
A drive coupling device comprising an outer drive shaft adapted to be driven for rotation by a gearbox output, an outer quill shaft coupled to the outer drive shaft and arranged to be driven for rotation thereby, an inner quill shaft arranged coaxially with the outer quill shaft and moveable, axially, between an engaged position in which a dog clutch arrangement is engaged to transmit drive between the outer quill shaft and the inner quill shaft , and a disengaged position in which the dog clutch arrangement is disengaged, a support rod , and support bearing means provided on the support rod and by which the outer quill shaft is supported for rotation relative to the support rod , wherein the outer quill shaft is further supported, when the dog clutch arrangement is engaged, by the inner quill shaft , wherein the inner quill shaft includes a sleeve within which a part of the outer quill shaft is located, the sleeve providing support for the outer quill shaft when the dog clutch arrangement is engaged, wherein, when the dog clutch arrangement is disengaged, the inner and outer quill shafts do not engage one another, and so the outer quill shaft is no longer supported by the inner quill shaft , and wherein the part of the outer quill shaft located, in use, within the sleeve is conveniently of stepped form, including a support section which, when the dog clutch arrangement is engaged, is located within and engages the sleeve , and which is retracted from the sleeve when the dog clutch arrangement is disengaged, and a reduced diameter section .
An apparatus comprising: a data acquiring section that acquires measurement data of temperature and pressure of a natural resource, measured by a measurement device , a relationship between the temperature and the pressure indicating a state of the natural resource that is a fluid flowing through an extraction network for extracting the natural resource; a state estimating section that estimates the state of the natural resource indicated by the relationship between the temperature and the pressure at each of a plurality of locations in a flow path of the extraction network , the plurality of locations differing from a location where the measurement device is provided, and estimates a pressure and a temperature of the natural resource at each of the plurality of locations, using the measurement data and a model of the extraction network , the model simulating the temperature and the pressure while treating a component ratio of the natural resource as being constant; and a margin calculating section that calculates a critical curve indicating a relationship of pressure and temperature across which flow path blocking matter is generated and calculates a difference between the estimated temperature at each of the plurality of locations and the temperature obtained from the critical curve at the pressure corresponding to the estimated pressure at each of the plurality of locations as a temperature margin until the flow path blocking matter is generated in the extraction network , wherein the critical curve changes depending on an amount of a chemical substance injected into the natural resource for preventing the generation of the flow path blocking matter.