mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing a dosage form comprising ezetimibe, the process comprising the steps of: a) providing a composition comprising ezetimibe, b) sieving a composition comprising a composition provided by step (a), c) high shear mixing of the composition after step (b), d) formulation into a dosage form, wherein said high shear mixing is carried out at a paddle speed of at least 100 RPM, wherein the composition of step (a) additionally comprises at least one hydrophilic excipient, and wherein process step d) comprises direct compression, and wherein the process does not comprise addition of any liquid substance. a) providing a composition comprising ezetimibe, b) sieving a composition comprising a composition provided by step (a), c) high shear mixing of the composition after step (b), d) formulation into a dosage form,
Driving arrangement for a pump, compressor or similar, adapted to provide alternating pressure in at least two chambers (27a, 27b, 27', 27"), such as chambers of a pump or compressor, as result of a reciprocating movement of a rod element , which rod element is connected to two movable pressure chamber faces being pistons having fluid connection to said chambers, which rod element is reciprocally supported in a housing , and wherein the driving arrangement further comprises an electric motor which is adapted to provide the reciprocating movement of the rod element , wherein - the rod element extends through the rotor of the electric motor ; - the electric motor is an electric rotary motor; - the rotor of the electric motor is arranged in a fluid chamber which is confined by at least said housing and said pistons , the fluid chamber is liquid-filled. - the rod element extends through the rotor of the electric motor ; - the electric motor is an electric rotary motor; - the rotor of the electric motor is arranged in a fluid chamber which is confined by at least said housing and said pistons , the fluid chamber is liquid-filled.
A supply unit in which a liquid container including a coupling portion is detachably mounted, the supply unit comprising: a liquid introducing portion to which the coupling portion of the liquid container is coupled; a pressing member configured to press the liquid container in an uncoupling direction (Do) being a direction opposite to a coupling direction (Dc) when a direction in which the liquid container is coupled to the liquid introducing portion is defined as the coupling direction; an engaging portion configured to engage with the liquid container when the liquid container is coupled to the liquid introducing portion; a moving unit including a rotating body configured to rotate in an intersecting direction (Di) intersecting the uncoupling direction (Do); and a speed reduction portion configured to reduce, when engagement of the engaging portion with the liquid container is released, a moving speed of the liquid container moving in the uncoupling direction, characterized in that at least a part of the moving unit is configured to move in the intersecting direction (Di) with the movement of the liquid container in the uncoupling direction (Do), and the speed reduction portion is configured to reduce the moving speed of the liquid container by reducing a moving speed of the moving unit in the intersecting direction (Di). a liquid introducing portion to which the coupling portion of the liquid container is coupled; a pressing member configured to press the liquid container in an uncoupling direction (Do) being a direction opposite to a coupling direction (Dc) when a direction in which the liquid container is coupled to the liquid introducing portion is defined as the coupling direction; an engaging portion configured to engage with the liquid container when the liquid container is coupled to the liquid introducing portion; a moving unit including a rotating body configured to rotate in an intersecting direction (Di) intersecting the uncoupling direction (Do); and a speed reduction portion configured to reduce, when engagement of the engaging portion with the liquid container is released, a moving speed of the liquid container moving in the uncoupling direction, characterized in that at least a part of the moving unit is configured to move in the intersecting direction (Di) with the movement of the liquid container in the uncoupling direction (Do), and the speed reduction portion is configured to reduce the moving speed of the liquid container by reducing a moving speed of the moving unit in the intersecting direction (Di).
Co-crystal of Ketoprofen Lysine (Form 4) characterized by having an X ray diffraction pattern with characteristic peaks at 13.6; 16.0; 16.5; 17.3; 19.1; 19.4; 20.5; 21.8; 22.9; 23.5; 24.9; 25.9; 27.6 °2theta ± 0.20 degrees.
A method of inhibiting microbial fouling, the method comprising: providing an aqueous cooling system containing an aqueous liquid having a biocide demand and a first filtration surface having a given porosity and an operating variable being the oxidation reduction potential; treating the aqueous liquid with a biocide; determining the biocide demand of the biocide-treated aqueous liquid by monitoring said operating variable; providing a stream of the biocide-treated aqueous liquid; filtering the stream of the biocide-treated aqueous liquid with the first filtration surface to produce a second stream that is initially returned to the aqueous cooling system, and continuing the filtering and returning until a steady state with respect to the first filtration surface is reached, wherein steady state refers to a situation in which all state variables are statistically constant within a 90% confidence interval of a setpoint or desired value in spite of ongoing factors that strive to change the variables; identifying that the steady state with respect to the first filtration surface has been reached, whereupon the stream of the biocide-treated aqueous liquid is diverted away from the first filtration surface to a second filtration surface having a lower porosity than the first filtration surface ; filtering the diverted stream with the second filtration surface to produce a third stream ; and returning at least a portion of the third stream to the aqueous cooling system; wherein the state variables are the number of backwash cycles per period of time, oxidation-reduction potential, and biocide dosage. providing an aqueous cooling system containing an aqueous liquid having a biocide demand and a first filtration surface having a given porosity and an operating variable being the oxidation reduction potential; treating the aqueous liquid with a biocide; determining the biocide demand of the biocide-treated aqueous liquid by monitoring said operating variable; providing a stream of the biocide-treated aqueous liquid; filtering the stream of the biocide-treated aqueous liquid with the first filtration surface to produce a second stream that is initially returned to the aqueous cooling system, and continuing the filtering and returning until a steady state with respect to the first filtration surface is reached, wherein steady state refers to a situation in which all state variables are statistically constant within a 90% confidence interval of a setpoint or desired value in spite of ongoing factors that strive to change the variables; identifying that the steady state with respect to the first filtration surface has been reached, whereupon the stream of the biocide-treated aqueous liquid is diverted away from the first filtration surface to a second filtration surface having a lower porosity than the first filtration surface ; filtering the diverted stream with the second filtration surface to produce a third stream ; and returning at least a portion of the third stream to the aqueous cooling system; wherein the state variables are the number of backwash cycles per period of time, oxidation-reduction potential, and biocide dosage.
A monoclonal antibody (mAb) that binds to Death Receptor 4 (DR4) and which comprises a light chain variable (V) region having three CDRs from the light chain V region sequence of SEQ ID NO:5, i.e. SASQDITNYLN, YTSSLHS and HQYSKLPWT, and a heavy chain V region having three CDRs from the heavy chain V region sequence of SEQ ID NO:8, i.e. NYYIN, WIYPGIGDIKYNEKFKG and SGWAWFVD, which comprises a human constant region having a double mutation that increases binding to the human FcyRIIb receptor, wherein the human constant region is a gamma-1 constant region and the double mutation is S267E/L328F according to Kabat numbering with EU index, and wherein the light chain V region has a sequence at least 90% identical to SEQ ID NO:6 and the heavy chain V region has a sequence at least 90% identical to SEQ ID NO:9 or SEQ ID NO: 10, wherein light chain positions 48 and 71 by Kabat numbering are occupied by V and Y respectively and heavy chain positions 48 and 71 by Kabat numbering are occupied by L and A respectively. which comprises a human constant region having a double mutation that increases binding to the human FcyRIIb receptor, wherein the human constant region is a gamma-1 constant region and the double mutation is S267E/L328F according to Kabat numbering with EU index, and wherein the light chain V region has a sequence at least 90% identical to SEQ ID NO:6 and the heavy chain V region has a sequence at least 90% identical to SEQ ID NO:9 or SEQ ID NO: 10, wherein light chain positions 48 and 71 by Kabat numbering are occupied by V and Y respectively and heavy chain positions 48 and 71 by Kabat numbering are occupied by L and A respectively.
A method of wireless communication at a base station, comprising: identifying a starting subframe and a repetition level used by the base station to page one or more user equipments "UEs"; processing one or more paging messages for a UE of the one or more UEs based at least in part on the starting subframe, characterised in that the processing includes scrambling the one or more paging messages for transmission in a set of paging subframes with a scrambling sequence, the scrambling sequence arranged to be generated based at least in part on the starting subframe; and transmitting the one or more paging messages to the one or more UEs according to the repetition level in the set of paging subframes. identifying a starting subframe and a repetition level used by the base station to page one or more user equipments "UEs"; processing one or more paging messages for a UE of the one or more UEs based at least in part on the starting subframe, characterised in that the processing includes scrambling the one or more paging messages for transmission in a set of paging subframes with a scrambling sequence, the scrambling sequence arranged to be generated based at least in part on the starting subframe; and transmitting the one or more paging messages to the one or more UEs according to the repetition level in the set of paging subframes.
A prosthetic foot comprising: an elongate lower foot member extending from a heel end to a toe end; and an elongate second foot member extending from a proximal end to a distal end, wherein the second foot member is disposed above the lower foot member and coupled to the lower foot member proximate the distal end of the second foot member and proximal of the toe end of the lower foot member, ; and an elongate upper foot member extending from a proximal end to a distal end and coupled to the second foot member at or near the proximal ends of the second foot member and upper foot member, wherein the upper foot member is tapered, characterized in that the second foot member is tapered such that a thickness of the second foot member gradually increases toward the distal end of the second foot member. an elongate lower foot member extending from a heel end to a toe end; and an elongate second foot member extending from a proximal end to a distal end, wherein the second foot member is disposed above the lower foot member and coupled to the lower foot member proximate the distal end of the second foot member and proximal of the toe end of the lower foot member, ; and an elongate upper foot member extending from a proximal end to a distal end and coupled to the second foot member at or near the proximal ends of the second foot member and upper foot member, wherein the upper foot member is tapered, characterized in that the second foot member is tapered such that a thickness of the second foot member gradually increases toward the distal end of the second foot member.
A method of protecting a 5LPP or 7LPP coating comprising alternating layers of solid and foamed polypropylene on a length of pipe for subsea use, the method comprising applying a protective edge finisher of thermoplastics to a cut edge of the coating to encase the cut edge of the coating , heat being applied to melt the thermoplastics of the edge finisher and the polypropylene of the coating at their interface to fuse the edge finisher with the coating , wherein the edge finisher is a discrete component mirror-welded to the edge of the coating.
A method of forming a rechargeable battery stack, the method comprising: providing a cathode material substrate having a non-textured surface; forming a stressor layer on the non-textured surface of the cathode material substrate so that an interface between the cathode material substrate and the stressor layer is non-textured; texturing a physically exposed surface of the stressor layer to provide a first textured surface (TS1) on the physically exposed surface of the stressor layer; and performing a spalling process to remove a spalled cathode material layer from the cathode material substrate, wherein the spalled cathode material layer is attached to the stressor layer and includes a second textured surface (TS2) that is opposite the non-textured interface between the cathode material substrate and the stressor layer . providing a cathode material substrate having a non-textured surface; forming a stressor layer on the non-textured surface of the cathode material substrate so that an interface between the cathode material substrate and the stressor layer is non-textured; texturing a physically exposed surface of the stressor layer to provide a first textured surface (TS1) on the physically exposed surface of the stressor layer; and performing a spalling process to remove a spalled cathode material layer from the cathode material substrate, wherein the spalled cathode material layer is attached to the stressor layer and includes a second textured surface (TS2) that is opposite the non-textured interface between the cathode material substrate and the stressor layer .
A system for deicing an external evaporator of a heat pump system, said heat pump system comprising at least one compressor , at least one internal condenser , at least one external evaporator , at least one liquid separator , and a system of ducts for a cooling fluid, wherein said deicing system comprises: - a secondary refrigeration circuit, connectable in input and in output to said heat pump system and adapted to convey said cooling fluid, comprising a tank for storing a heat transfer fluid, and a first heat exchanger configured to be immersed in said heat transfer fluid and adapted to transfer heat to said heat transfer fluid by cooling said cooling fluid; said secondary refrigeration circuit being connectable in input downstream of said compressor and in output downstream of said internal condenser ; - a bypass refrigeration circuit, connectable in input and in output to said heat pump system and adapted to convey said cooling fluid, comprising said tank , and a second heat exchanger configured to be immersed in said heat transfer fluid and adapted to absorb heat from said heat transfer fluid by heating said cooling fluid; and - a deicing circuit connectable in input and in output to said heat pump system and adapted to convey said cooling fluid. - a secondary refrigeration circuit, connectable in input and in output to said heat pump system and adapted to convey said cooling fluid, comprising a tank for storing a heat transfer fluid, and a first heat exchanger configured to be immersed in said heat transfer fluid and adapted to transfer heat to said heat transfer fluid by cooling said cooling fluid; said secondary refrigeration circuit being connectable in input downstream of said compressor and in output downstream of said internal condenser ; - a bypass refrigeration circuit, connectable in input and in output to said heat pump system and adapted to convey said cooling fluid, comprising said tank , and a second heat exchanger configured to be immersed in said heat transfer fluid and adapted to absorb heat from said heat transfer fluid by heating said cooling fluid; and - a deicing circuit connectable in input and in output to said heat pump system and adapted to convey said cooling fluid.
An operation unit with an operation support function comprising: a subordinate operation shaft (22 1 ) releasably engageable with a primary operation shaft of an external unit , said primary operation shaft being movably linked with an operation of an operation switch ; a detection part that detects a remote operation of said subordinate operation shaft (22 1 ); and an actuating part that actuates said subordinate operation shaft (22 1 ) on the basis of the remote operation detected by said detection part , characterised in that an actuation of said actuating part causes said subordinate operation shaft (22 1 ) and said primary operation shaft along with said operation switch to be displaced in an axial direction. a subordinate operation shaft (22 1 ) releasably engageable with a primary operation shaft of an external unit , said primary operation shaft being movably linked with an operation of an operation switch ; a detection part that detects a remote operation of said subordinate operation shaft (22 1 ); and an actuating part that actuates said subordinate operation shaft (22 1 ) on the basis of the remote operation detected by said detection part , characterised in that an actuation of said actuating part causes said subordinate operation shaft (22 1 ) and said primary operation shaft along with said operation switch to be displaced in an axial direction.
A method for manufacturing a semiconductor device, comprising the steps of: forming a metal layer over a first substrate and forming an oxide layer over the metal layer thereby forming a metal oxide film between the metal layer and the oxide layer over a first substrate ; forming an element over the metal oxide film; forming an insulating film over the element; forming a terminal electrode over the insulating film; forming a protective layer over the terminal electrode ; removing a part of the protective layer to expose a part of the terminal electrode ; peeling the metal oxide film, the element, the insulating film, the terminal electrode and the protective layer from the first substrate after the removing; pasting a second substrate to the metal oxide film with an adhesive material after the peeling; and pressure-bonding an FPC to the part of the terminal electrode in which a circumference is covered with the protective layer . forming a metal layer over a first substrate and forming an oxide layer over the metal layer thereby forming a metal oxide film between the metal layer and the oxide layer over a first substrate ; forming an element over the metal oxide film; forming an insulating film over the element; forming a terminal electrode over the insulating film; forming a protective layer over the terminal electrode ; removing a part of the protective layer to expose a part of the terminal electrode ; peeling the metal oxide film, the element, the insulating film, the terminal electrode and the protective layer from the first substrate after the removing; pasting a second substrate to the metal oxide film with an adhesive material after the peeling; and pressure-bonding an FPC to the part of the terminal electrode in which a circumference is covered with the protective layer .
A compound of formula (I) wherein R 1 is X is selected from O, S or CF 2 ; R 6 is selected from C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted by 1, 2 or 3 F; R 7 is selected from hydrogen, F, Cl or CH 3 ; or a pharmaceutically-acceptable salt thereof. X is selected from O, S or CF 2 ; R 6 is selected from C 1-3 alkyl, wherein said C 1-3 alkyl is optionally substituted by 1, 2 or 3 F; R 7 is selected from hydrogen, F, Cl or CH 3 ; or a pharmaceutically-acceptable salt thereof.
An electrolyte solution for a lithium secondary battery comprising an electrolyte salt and an organic solvent, wherein the electrolyte solution further includes a compound represented by Chemical Formula 1 or Chemical Formula 1a below as an additive, wherein the compound represented by Chemical Formula 1 or Chemical Formula 1a is included in an amount of 0.05 wt% to 7 wt% based on a total weight of the non-aqueous electrolyte solution: wherein R is a linear or branched alkylene group with a carbon number of 1 to 3, R 1 is arylene group with a carbon number of 5 to 8, and n is an integer of 0 to 10. wherein R is a linear or branched alkylene group with a carbon number of 1 to 3, R 1 is arylene group with a carbon number of 5 to 8, and n is an integer of 0 to 10.
Fire blanket having a multi-layer structure, the fire blanket having a three-layer structure having a first and third outer layer made of a glass fabric and a second layer which is arranged between said outer layers and comprises bentonite in the form of a fine granulate, characterized in that the fire blanket is stitched through with quilting seams to form chambers in which the bentonite is already introduced between the outer layers during production in each case.
Supporting frame structure for a utility vehicle, in particular heavy goods vehicle, preferably semitrailer tractor, having: - a first longitudinally running supporting construction and a second longitudinally running supporting construction , said supporting constructions being spaced apart from one another in a transverse direction (QR) of the supporting frame structure , - two wheel suspension units (RA) for front wheels (Rv) for the utility vehicle, and - at least one tank unit (T) for accommodating fluid, wherein - the first supporting construction and the second supporting construction are guided upwards so as to form a raised supporting structure , characterized in that - the tank unit (T) serves for supporting a driver's cab for the utility vehicle or at least parts thereof, and/or serves as a substructure for the driver's cab. - a first longitudinally running supporting construction and a second longitudinally running supporting construction , said supporting constructions being spaced apart from one another in a transverse direction (QR) of the supporting frame structure , - two wheel suspension units (RA) for front wheels (Rv) for the utility vehicle, and - at least one tank unit (T) for accommodating fluid, wherein - the first supporting construction and the second supporting construction are guided upwards so as to form a raised supporting structure , characterized in that - the tank unit (T) serves for supporting a driver's cab for the utility vehicle or at least parts thereof, and/or serves as a substructure for the driver's cab.