mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula: including tautomeric or stereochemically isomeric forms thereof, an N-oxide thereof, a pharmaceutically acceptable salt thereof, or a pharmaceutically acceptable solvate thereof, wherein: - R 1 represents hydrogen or C 1 -C 4 alkyl; - R 2 represents C 1 -C 3 alkyl optionally substituted by one R X group or C 2 -C 4 alkenyl optionally substituted by one R X group, wherein the R X group is -OH or -OMe or -OEt; - R 3 represents bromide or chloride; - each R 4 independently represents hydrogen or methyl or -OMe or chloride or bromide; - each R 5 independently represents hydrogen or methyl or -OMe or halogen or chloride or bromide; - R 6 represents =CR 7 R 8, where R 7 and R 8 independently represent hydrogen, or C 1 -C 4 alkyl or C 2 -C 4 alkenyl. including tautomeric or stereochemically isomeric forms thereof, an N-oxide thereof, a pharmaceutically acceptable salt thereof, or a pharmaceutically acceptable solvate thereof, wherein: - R 1 represents hydrogen or C 1 -C 4 alkyl; - R 2 represents C 1 -C 3 alkyl optionally substituted by one R X group or C 2 -C 4 alkenyl optionally substituted by one R X group, wherein the R X group is -OH or -OMe or -OEt; - R 3 represents bromide or chloride; - each R 4 independently represents hydrogen or methyl or -OMe or chloride or bromide; - each R 5 independently represents hydrogen or methyl or -OMe or halogen or chloride or bromide; - R 6 represents =CR 7 R 8, where R 7 and R 8 independently represent hydrogen, or C 1 -C 4 alkyl or C 2 -C 4 alkenyl. - R 1 represents hydrogen or C 1 -C 4 alkyl; - R 2 represents C 1 -C 3 alkyl optionally substituted by one R X group or C 2 -C 4 alkenyl optionally substituted by one R X group, wherein the R X group is -OH or -OMe or -OEt; - R 3 represents bromide or chloride; - each R 4 independently represents hydrogen or methyl or -OMe or chloride or bromide; - each R 5 independently represents hydrogen or methyl or -OMe or halogen or chloride or bromide; - R 6 represents =CR 7 R 8, where R 7 and R 8 independently represent hydrogen, or C 1 -C 4 alkyl or C 2 -C 4 alkenyl.
Bone nail device, comprising an outer tubing having an inner screw thread extending over at least a part of an inner surface of the outer tubing, and a first bone connection member, an inner tubing having a second bone connection member, the inner tubing being arranged inside at least a part of the outer tubing to allow a sliding axial relative movement, and a drive unit, the drive unit comprising a drive motor fixedly attached to the inner tubing, a transport screw having an outer screw thread engaging the inner screw thread of the outer tubing, and a planetary gear having an input end connected to the drive motor and characterised in that the planetary gear has an output end connected to the transport screw. an outer tubing having an inner screw thread extending over at least a part of an inner surface of the outer tubing, and a first bone connection member, an inner tubing having a second bone connection member, the inner tubing being arranged inside at least a part of the outer tubing to allow a sliding axial relative movement, and a drive unit, the drive unit comprising a drive motor fixedly attached to the inner tubing, a transport screw having an outer screw thread engaging the inner screw thread of the outer tubing, and a planetary gear having an input end connected to the drive motor and characterised in that the planetary gear has an output end connected to the transport screw.
A high-strength hot-rolled steel strip or sheet with a tensile strength of 780 MPa or higher with continuous yielding behaviour and an excellent combination of total elongation, stretch-flange formability, and fatigue resistance, consisting of in wt.%: • between 0.08 and 0.14% C; • between 1.0 and 2.0% Mn; • between 0.05 and 0.45% Mo; • between 0.10 and 0.40% V; • optionally one or more of - at least 0.1 and at most 1.2% Cr; - at least 0.01 and at most 0.14% Ti; • at least 0.05 and at most 0.5% Si; • at least 0.01 and at most 0.10% Nb; • at most 0.04% P; • at most 0.008% S; • at most 0.1% Al_sol; • at most 0.020% N; • at most 0.003% B; • optionally Ca in an amount consistent with a calcium treatment for inclusion control; • balance Fe and inevitable impurities; wherein the steel strip or sheet has a microstructure that consists of a matrix consisting of a mixture of polygonal ferrite and bainitic ferrite and between at least 0.8 vol.% and at most 5 vol.% of ∑(martensite and retained-austenite), wherein the PF and BF is precipitation-strengthened with fine composite carbides and/or carbo-nitrides of V and/or of Mo and optionally of Ti and/or of Nb, wherein the matrix contains in volume percent of the matrix at least 40% BF and at most 60% PF, wherein the tensile properties are measured on JIS5 tensile geometry with tensile testing parallel to the rolling direction according to EN 10002-1/ISO 6892-1, wherein a) Ti is at least 0.01%, and 0.2 ≤ Mo 96 Nb 93 + Ti ∗ 48 + V 51 ≤ 2.0, and 0.7 ≤ Nb 93 + Ti ∗ 48 + V 51 + Mo 96 C 12 ≤ 2.2, with Ti ∗ = Ti total − N 14 × 48 + S 32 × 48, or wherein b) Ti is at most 0.005%, and • Al sol − N 14 × 27 < 0, and • 0.2 ≤ Mo 96 X 51 ≤ 2.0, and • 0.7 ≤ X 51 + Mo 96 C 12 ≤ 2.2, with X = V + Nb 93 × 51 − N ∗ 14 × 51 and N ∗ = N − Al sol 27 × 14. • between 0.08 and 0.14% C; • between 1.0 and 2.0% Mn; • between 0.05 and 0.45% Mo; • between 0.10 and 0.40% V; • optionally one or more of - at least 0.1 and at most 1.2% Cr; - at least 0.01 and at most 0.14% Ti; - at least 0.1 and at most 1.2% Cr; - at least 0.01 and at most 0.14% Ti; • at least 0.05 and at most 0.5% Si; • at least 0.01 and at most 0.10% Nb; • at most 0.04% P; • at most 0.008% S; • at most 0.1% Al_sol; • at most 0.020% N; • at most 0.003% B; • optionally Ca in an amount consistent with a calcium treatment for inclusion control; • balance Fe and inevitable impurities; a) Ti is at least 0.01%, and 0.2 ≤ Mo 96 Nb 93 + Ti ∗ 48 + V 51 ≤ 2.0, and 0.7 ≤ Nb 93 + Ti ∗ 48 + V 51 + Mo 96 C 12 ≤ 2.2, with Ti ∗ = Ti total − N 14 × 48 + S 32 × 48, or wherein b) Ti is at most 0.005%, and • Al sol − N 14 × 27 < 0, and • 0.2 ≤ Mo 96 X 51 ≤ 2.0, and • 0.7 ≤ X 51 + Mo 96 C 12 ≤ 2.2, with X = V + Nb 93 × 51 − N ∗ 14 × 51 and N ∗ = N − Al sol 27 × 14. • Al sol − N 14 × 27 < 0, and • 0.2 ≤ Mo 96 X 51 ≤ 2.0, and • 0.7 ≤ X 51 + Mo 96 C 12 ≤ 2.2, with X = V + Nb 93 × 51 − N ∗ 14 × 51 and N ∗ = N − Al sol 27 × 14.
A method for transmission of New Radio, NR, control information in a Long Term Evolution, LTE, downlink subframe (1200, 1300) comprising resource elements, wherein the resource elements of at least two symbols in the subframe (1200, 1300) are allocatable for LTE control information, the method being performed by a network node, the method comprising: configuring some of said resource elements for LTE transmission and some other of said resource elements for NR transmission within the subframe (1200, 1300) such that NR control information is allocated to resource elements of at least one symbol within the at least two symbols allocatable for the LTE control information in the subframe (1200, 1300); allocating downlink LTE data to resource elements of symbols within the subframe (1200, 1300) and outside the at least two symbols allocatable for the LTE control information; and initiating transmission of the subframe (1200, 1300) from co-sited antennas (140a, 140b), such that the resource elements for LTE transmission and the resource elements for NR transmission are transmitted from the co-sited antennas (140a, 140b), wherein the NR control information is provided in an NR Physical Downlink Control Channel, PDCCH. configuring some of said resource elements for LTE transmission and some other of said resource elements for NR transmission within the subframe (1200, 1300) such that NR control information is allocated to resource elements of at least one symbol within the at least two symbols allocatable for the LTE control information in the subframe (1200, 1300); allocating downlink LTE data to resource elements of symbols within the subframe (1200, 1300) and outside the at least two symbols allocatable for the LTE control information; and initiating transmission of the subframe (1200, 1300) from co-sited antennas (140a, 140b), such that the resource elements for LTE transmission and the resource elements for NR transmission are transmitted from the co-sited antennas (140a, 140b), wherein the NR control information is provided in an NR Physical Downlink Control Channel, PDCCH.
A vertebral, in particular corpectomy, implant intended to be inserted into the rachis according to at least one approach route, for replacing a vertebral segment, the implant extending along a vertical axis, between upper and lower surfaces of the implant each intended to be placed in contact with a respectively upper and lower structure, of said vertebral segment, the implant including at least one end body and at least one intermediate body each having at least mutual fitting means in order to allow assembling of said end body and intermediate body by sliding along a sliding axis, the sliding axis of the end body and the intermediate body being substantially parallel to the approach route provided for inserting the implant into the rachis, and on the other hand, the implant being characterized in that it includes at least one distinct locking means retained in a housing within at least one of the end body and the intermediate body and distinct therefrom and at least one abutment portion of said locking means laid out for passing from a so-called open position, allowing sliding for the assembling of said end body and said intermediate body, to a so-called closed position locking said end body and said intermediate body assembled together by the contact between at least said abutment portion of said locking means and at least one abutment (42, 43) of at least one of said end body and said intermediate body, said abutment (42, 43) being oriented not parallel to the sliding axis and said abutment portion of said locking means passing from the open position to the closed position elastically by flexure or torsion, by means of at least one flexible portion of the locking means allowing withdrawal of said abutment portion of the locking means in an open position during the sliding of the end body and the intermediate body on the one hand and elastic return of said abutment portion of said locking means into the closed position when it is found facing said abutment (42,43) of said end body or said intermediate body on the other hand.
A method for reducing the glycemic index of a food product, the method comprising adding to the food product prior to consumption a dietary fiber composition in an amount of 2.5 g to 7.5 g of the dietary fiber composition per 50 g available carbohydrate of the food product effective to reduce the glycemic index of the food product by at least 5 glycemic index units, wherein the dietary fiber composition comprises from 48% to 90% (w/w) glucomannan, from 5% to 20% (w/w) xanthan gum, and from 5% to 30% (w/w) alginate.
A method of manufacturing a portion unit having at least one filled receiving chamber surrounded by a film, comprising the steps of a) Transport of a first film in the direction of a heating device; b) Bringing the first film into contact with a surface of the heating device; c) Heating the first film using the heating device; d) Remove the contact between the first film and the heating device; e) Moulding the first heated film into the cavities of a thermoforming die, forming a receiving container with at least one receiving chamber; f) Filling of at least one receiving chamber; g) If necessary, closing and separating the filled receiving containers while forming the portion unit, wherein the surface region of the heating device, which is brought into contact with the film, has at least one recess and the at least one recess is covered in step b) by the partial regions of the first film, which are moulded into the cavity of the thermoforming die in step e), wherein the outline of the opening surface of the recess is modelled on the outline of the opening surface of the cavity, characterised in that the outline of the opening surface of the recess is obtained from the outline of the opening surface of the cavity by a reduction factor of 0.6 to 0.8. a) Transport of a first film in the direction of a heating device; b) Bringing the first film into contact with a surface of the heating device; c) Heating the first film using the heating device; d) Remove the contact between the first film and the heating device; e) Moulding the first heated film into the cavities of a thermoforming die, forming a receiving container with at least one receiving chamber; f) Filling of at least one receiving chamber; g) If necessary, closing and separating the filled receiving containers while forming the portion unit,
An adapter tip to be employed with an optical-fiber connector endface inspection microscope for imaging an optical-fiber endface of an angled-polished optical-fiber connector recessed within a connector adapter, the adapter tip comprising: a housing having a mating interface configured to mechanically engage with the connector adapter for inspecting the optical-fiber endface of the angled-polished optical-fiber connector recessed within the connector adapter, said optical-fiber endface being therefore an angled-polished optical-fiber endface; and a relay optical system disposed in said housing, the relay optical system relaying said light beam to an optical axis of the optical-fiber connector endface inspection microscope, the adapter tip being characterized in that the relay optical system comprises a Rhomboid prism, the Rhomboid prism being disposed so as to receive light reflected from said optical-fiber endface during inspection and laterally shift the light beam reflected from the angled-polished optical-fiber endface. a housing having a mating interface configured to mechanically engage with the connector adapter for inspecting the optical-fiber endface of the angled-polished optical-fiber connector recessed within the connector adapter, said optical-fiber endface being therefore an angled-polished optical-fiber endface; and a relay optical system disposed in said housing, the relay optical system relaying said light beam to an optical axis of the optical-fiber connector endface inspection microscope, the adapter tip being characterized in that the relay optical system comprises a Rhomboid prism, the Rhomboid prism being disposed so as to receive light reflected from said optical-fiber endface during inspection and laterally shift the light beam reflected from the angled-polished optical-fiber endface.
A method of controlling an HVAC system with a thermostat, the method comprising: the thermostat receiving an audio stream; the thermostat identifying a trigger phrase in the audio stream; a remote web service identifying one of a plurality of different commands in the audio stream following the trigger phrase; the remote web service generating a thermostat command that is understandable by the thermostat and that instructs the thermostat to perform the one of the plurality of different commands identified in the audio stream; the remote web service sending the thermostat command to the thermostat; the thermostat executing the thermostat command; the thermostat receiving feedback from a user that an identification of the trigger phrase is a false positive when the thermostat identifies the trigger phrase without the trigger phrase being spoken or a false negative when the thermostat fails to identify the trigger phrase after the trigger phrase is spoken; and responsive to the feedback, the thermostat using the feedback to automatically rebalance a trigger phrase sensitivity factor that is used by the thermostat in identifying the trigger phrase to reduce identifying the false positive or the false negative at future times. the thermostat receiving an audio stream; the thermostat identifying a trigger phrase in the audio stream; a remote web service identifying one of a plurality of different commands in the audio stream following the trigger phrase; the remote web service generating a thermostat command that is understandable by the thermostat and that instructs the thermostat to perform the one of the plurality of different commands identified in the audio stream; the remote web service sending the thermostat command to the thermostat; the thermostat executing the thermostat command; the thermostat receiving feedback from a user that an identification of the trigger phrase is a false positive when the thermostat identifies the trigger phrase without the trigger phrase being spoken or a false negative when the thermostat fails to identify the trigger phrase after the trigger phrase is spoken; and responsive to the feedback, the thermostat using the feedback to automatically rebalance a trigger phrase sensitivity factor that is used by the thermostat in identifying the trigger phrase to reduce identifying the false positive or the false negative at future times.
A method for producing a thermoplastic resin-impregnated sheet-shaped reinforcing fiber bundle, characterized in that reinforcing fibers made of a continuous fiber are impregnated with a thermoplastic resin, comprising: an application step of applying the thermoplastic resin to a sheet-shaped reinforcing fiber bundle consisting of unidirectionally disposed reinforcing fibers made of the continuous fiber and passing through an application section retaining the thermoplastic resin to make a fiber-reinforced thermoplastic resin; a further impregnating step of further impregnating the applied thermoplastic resin into the fiber-reinforced thermoplastic resin; and a shaping step of shaping the fiber-reinforced thermoplastic resin to be solidified by cooling, wherein the thermoplastic resin is applied to the fiber-reinforced thermoplastic resin passing vertically downward through the application section in the application step, and the thermoplastic resin is heated to a temperature of a melting point + 30°C or more to have a viscosity of 5 to 200 Pa·s in the application step and the further impregnation step, characterized in that the application section comprises a liquid retainer section and a narrowed section which are communicated with each other, the liquid retainer section has a part of which section area continuously decreases along a travelling direction of the sheet-shaped reinforcing fiber bundle, the narrowed section has a slit-shaped cross section of which area is smaller than that of a top face of the liquid retainer section, and the thermoplastic resin is retained for 1 to 60 min in the liquid retainer section. an application step of applying the thermoplastic resin to a sheet-shaped reinforcing fiber bundle consisting of unidirectionally disposed reinforcing fibers made of the continuous fiber and passing through an application section retaining the thermoplastic resin to make a fiber-reinforced thermoplastic resin; a further impregnating step of further impregnating the applied thermoplastic resin into the fiber-reinforced thermoplastic resin; and a shaping step of shaping the fiber-reinforced thermoplastic resin to be solidified by cooling, wherein the thermoplastic resin is applied to the fiber-reinforced thermoplastic resin passing vertically downward through the application section in the application step, and the thermoplastic resin is heated to a temperature of a melting point + 30°C or more to have a viscosity of 5 to 200 Pa·s in the application step and the further impregnation step, characterized in that the application section comprises a liquid retainer section and a narrowed section which are communicated with each other, the liquid retainer section has a part of which section area continuously decreases along a travelling direction of the sheet-shaped reinforcing fiber bundle, the narrowed section has a slit-shaped cross section of which area is smaller than that of a top face of the liquid retainer section, and the thermoplastic resin is retained for 1 to 60 min in the liquid retainer section.
Apparatus for machining a component comprising a fixation mechanism, wherein the fixation mechanism comprises a first fixation member with a first fixation face and a second fixation member with a second fixation face, wherein the second fixation member is displaceable with respect to the first fixation member, wherein the first fixation face and the second fixation face each comprise two subfaces which are even in shape, wherein the first fixation face and the second fixation face are arranged and configured such that different bearing surfaces of a plurality of different components can be fixed between the first fixation member and the second fixation member, wherein the apparatus further comprises a machining device, wherein the apparatus is configured to machine a machining surface of the respective component by means of the machining device and according to a predetermined accuracy, characterised in that the apparatus comprises a rack, wherein the machining device is surrounded by the rack, wherein the apparatus comprises a base and the apparatus is configured such that the machining device is fixable onto the base for an operation of the apparatus, wherein the apparatus is configured such that the machining device and the rack are demountable from the base for a transportation of the apparatus, and wherein the apparatus is configured such that it can be arranged and transported on a euro-pallet.
An LF refined ladle gas-permeable upper nozzle pocket block with microporous ceramic rods, comprising a ladle nozzle pocket block body, microporous ceramic rods, a gas chamber box, and a gas inlet pipe, wherein a steel flowing hole and an upper nozzle mounting hole which run through are formed in the middle of the pocket block body; the gas chamber box is buried in a surface layer of an upper portion of the ladle nozzle pocket block body; a plurality of microporous ceramic rods are annularly uniformly distributed in the ladle nozzle pocket block body; a top end of each microporous ceramic rod extends out of an upper surface of the ladle nozzle pocket block body; a bottom end of each microporous ceramic rod extends into the gas chamber box; a plurality of jacks for fixing the microporous ceramic rods are formed in the gas chamber box; the shapes, number, and positions of the jacks correspond to the shapes, number and positions of the microporous ceramic rods; a side portion of the gas chamber box is connected with the gas inlet pipe; one end of the gas inlet pipe is communicated with the gas chamber box, and the other end of the gas inlet pipe extends out from a side portion of the ladle nozzle pocket block body; the microporous ceramic rods are cylindrical, a diameter d of which is 35-45 mm; a height h of each ceramic rod is 140-180 mm; the gas-permeable upper nozzle pocket block with the microporous ceramic rods comprises an iron ring; the iron ring is buried in a surface layer of a lower portion of the ladle upper nozzle pocket block body; the entire iron ring is circular-ring-shaped, a height L of which is 40-50 mm; a distance a between a lower end of the iron ring and a lower end of the ladle upper nozzle pocket block body is 50-60 mm; and a depth z of the iron ring buried in the surface layer of the ladle upper nozzle pocket block body is 10-20 mm; 60-120 ventilation holes are formed in the microporous ceramic rods along an axial directions of the microporous ceramic rods; the ventilation holes are uniformly distributed on cross sections of the microporous ceramic rods; an inner diameter of each ventilation hole is 0.075-0.1 mm; the ventilation holes longitudinally run through upper end faces and lower end faces of the microporous rods; the microporous ceramic rods are fired at a high temperature in an extrusion-forming manner, and adopt zirconium oxide toughened corundum or zirconium oxide toughened corundum mullite.