mhurhangee/ep-ind-claims huggingface dataset:
A mounting system (100, 400) for mounting an object to a structure, the mounting system (100, 400) comprising: a base; and a mounting arm having a first end for attachment to an object, and a second end attached to the base such that the orientation of the mounting arm is adjustable, the mounting system further comprising at least one load applying member (115; 402, 404) attached to the base, the or each load applying member comprising a loading plate (120; 410, 412) and a plurality of force applying members (130A-130D; 414A-414D) attached to the loading plate (120; 410, 412) and that extend through the loading plate in a direction perpendicular to the loading plate, characterised in that: the orientation of the mounting arm is adjustable relative to the base; the at least one load applying member (115; 402, 404) is coupled to the bottom of the base; a plurality of openings (202; 604A, 604B) extend through each loading plate (120; 410, 412) for the receipt of fasteners (301A, 301B) for attaching the loading plate to the structure on which the object is to be mounted, and: the plurality of force applying members (130A-130D; 414A-414D) being arranged such that applying a torque to the force applying member (130A-130D; 414A-414D) causes a preload force to be applied to the structure. a base; and a mounting arm having a first end for attachment to an object, and a second end attached to the base such that the orientation of the mounting arm is adjustable, the mounting system further comprising at least one load applying member (115; 402, 404) attached to the base, the or each load applying member comprising a loading plate (120; 410, 412) and a plurality of force applying members (130A-130D; 414A-414D) attached to the loading plate (120; 410, 412) and that extend through the loading plate in a direction perpendicular to the loading plate, characterised in that: the orientation of the mounting arm is adjustable relative to the base; the at least one load applying member (115; 402, 404) is coupled to the bottom of the base; a plurality of openings (202; 604A, 604B) extend through each loading plate (120; 410, 412) for the receipt of fasteners (301A, 301B) for attaching the loading plate to the structure on which the object is to be mounted, and: the plurality of force applying members (130A-130D; 414A-414D) being arranged such that applying a torque to the force applying member (130A-130D; 414A-414D) causes a preload force to be applied to the structure. the orientation of the mounting arm is adjustable relative to the base; the at least one load applying member (115; 402, 404) is coupled to the bottom of the base; a plurality of openings (202; 604A, 604B) extend through each loading plate (120; 410, 412) for the receipt of fasteners (301A, 301B) for attaching the loading plate to the structure on which the object is to be mounted, and: the plurality of force applying members (130A-130D; 414A-414D) being arranged such that applying a torque to the force applying member (130A-130D; 414A-414D) causes a preload force to be applied to the structure.
A glass waveguide assembly, comprising: a glass substrate defined by a body having a top surface, a front-end section and a back-end section; a waveguide array comprising a plurality of glass optical waveguides, each glass optical waveguide having respective front and back ends and being formed within the body of the glass substrate, the glass optical waveguides running from the front-end section to the back-end section of the glass substrate; a protective coating made of a dielectric material formed over at least a portion of the top surface adjacent to the waveguide array, characterised in that at least one of the front-end and back-end sections of the glass substrate includes slots that define a plurality of waveguide sections, wherein the plurality of waveguide sections comprise the front or back end of the plurality of glass optical waveguides, and wherein the waveguide sections are independently flexible; and the glass waveguide assembly comprises a plurality of connectors, wherein each connector is operably arranged at the respective front or back end of the glass optical waveguides in each waveguide section, and terminates one or more of the plurality of the glass optical waveguides. a glass substrate defined by a body having a top surface, a front-end section and a back-end section; a waveguide array comprising a plurality of glass optical waveguides, each glass optical waveguide having respective front and back ends and being formed within the body of the glass substrate, the glass optical waveguides running from the front-end section to the back-end section of the glass substrate; a protective coating made of a dielectric material formed over at least a portion of the top surface adjacent to the waveguide array, characterised in that at least one of the front-end and back-end sections of the glass substrate includes slots that define a plurality of waveguide sections, wherein the plurality of waveguide sections comprise the front or back end of the plurality of glass optical waveguides, and wherein the waveguide sections are independently flexible; and the glass waveguide assembly comprises a plurality of connectors, wherein each connector is operably arranged at the respective front or back end of the glass optical waveguides in each waveguide section, and terminates one or more of the plurality of the glass optical waveguides. a protective coating made of a dielectric material formed over at least a portion of the top surface adjacent to the waveguide array, characterised in that at least one of the front-end and back-end sections of the glass substrate includes slots that define a plurality of waveguide sections, wherein the plurality of waveguide sections comprise the front or back end of the plurality of glass optical waveguides, and wherein the waveguide sections are independently flexible; and the glass waveguide assembly comprises a plurality of connectors, wherein each connector is operably arranged at the respective front or back end of the glass optical waveguides in each waveguide section, and terminates one or more of the plurality of the glass optical waveguides.
A buoy configured to accomplish a fluid connection, via at least one riser (171, 172, 173, 174, 175, 176, 177, 178), from a vessel on a water surface to a subsea template located on a seabed, so as to enable transport of fluid from the vessel to the subsea template for injection of the fluid into a subterranean void via a drill hole from the subsea template to the subterranean void, the buoy comprising: at least one electric powered valve (511, 512, 513, 514) configured to allow or shut off a passage of fluid from the vessel to the at least one riser (171, 172, 173, 174, 175, 176, 177, 178), characterized in that the buoy comprises a primary communication interface configured to: be connected to an external site positioned at a location being geographically separated from an offshore injection site 100 containing the subsea template, and receive commands (C cmd) from the external site, wherein in response to the received commands (C cmd), the buoy is configured to control the at least one valve (511, 512, 513, 514) to either allow or shut off the passage of fluid from the vessel to the at least one riser (171, 172, 173, 174, 175, 176, 177, 178). be connected to an external site positioned at a location being geographically separated from an offshore injection site 100 containing the subsea template, and receive commands (C cmd) from the external site, wherein in response to the received commands (C cmd), the buoy is configured to control the at least one valve (511, 512, 513, 514) to either allow or shut off the passage of fluid from the vessel to the at least one riser (171, 172, 173, 174, 175, 176, 177, 178).
Rotor for an electrical machine, having at least one laminated core which has a multiplicity of magnet pockets arranged in succession in an axial direction of the rotor, in which magnet pockets there are received respective magnets which are fixed in the magnet pockets by means of a cured potting compound, wherein the magnet pockets are fluidically connected to one another via at least one distributor system which is formed in the laminated core and which has, for each magnet pocket, at least one filling channel fluidically connected to the respective magnet pocket, wherein the distributor system has at least one distributor channel which is common to the filling channels and which is fluidically connected to the filling channels, and wherein the cured potting compound extends continuously through the distributor system from magnet pocket to magnet pocket, wherein a first part of the respective magnet pocket is formed by a first individual lamination of the laminated core, and a second part, which directly adjoins the first part in the axial direction of the rotor, of the respective magnet pocket is formed by a second individual lamination, which directly adjoins the first individual lamination in the axial direction of the rotor, of the laminated core, the respective parts (44, 46) differ from one another in terms of their shapes and/or inner circumferences and thereby form at least one undercut of the respective magnet pocket, characterized in that the individual laminations (14, 16) are formed by identical lamination blanks and are arranged so as to be rotationally staggered with respect to one another in a circumferential direction of the rotor, and the respective magnet pocket has at least one protuberance extending in a radial direction of the rotor. a first part of the respective magnet pocket is formed by a first individual lamination of the laminated core, and a second part, which directly adjoins the first part in the axial direction of the rotor, of the respective magnet pocket is formed by a second individual lamination, which directly adjoins the first individual lamination in the axial direction of the rotor, of the laminated core, the respective parts (44, 46) differ from one another in terms of their shapes and/or inner circumferences and thereby form at least one undercut of the respective magnet pocket, characterized in that the individual laminations (14, 16) are formed by identical lamination blanks and are arranged so as to be rotationally staggered with respect to one another in a circumferential direction of the rotor, and the respective magnet pocket has at least one protuberance extending in a radial direction of the rotor.
A strain gauge (10, 40, 50), comprising a substrate and a plurality of sensitive grids (1, 2) disposed on the substrate, wherein the plurality of sensitive grids (1, 2) comprises a plurality of longitudinal sensitive grids and at least one lateral sensitive grid, which are arranged in two directions that are perpendicular to each other and share one grounding interface (3, 123), and one lateral sensitive grid is disposed between two adjacent longitudinal sensitive grids, and all of the longitudinal sensitive grids and the lateral sensitive grid share one grounding interface (3,123).
A method for receiving a broadcast signal in a radio access system, the method comprising: periodically receiving a broadcast signal during a predetermined transmission time interval, TTI,; acquiring transmission locations and transmission patterns of the broadcast signal in the TTI; and acquiring system information included in the broadcast signal based on one or more of the transmission locations and the transmission patterns, characterized in that the transmission locations allocated to the broadcast signal are reversed with the predetermined TTI in a time domain or frequency domain within a broadcast channel region based on the transmission patterns. periodically receiving a broadcast signal during a predetermined transmission time interval, TTI,; acquiring transmission locations and transmission patterns of the broadcast signal in the TTI; and acquiring system information included in the broadcast signal based on one or more of the transmission locations and the transmission patterns,
A fluid dispenser device including at least one individual reservoir containing a single dose of powder, opening means being provided for opening an individual reservoir each time the device is actuated, thereby enabling the user to inhale the dose contained in said open reservoir, the powder contained in an open reservoir being expelled by a flow of air created by the user inhaling, said opening means comprising perforator and/or cutter means that are adapted to cut a closure wall of the reservoir in such a manner that the cut portion(s) does/do not obstruct the opening(s) that is/are formed, said perforator and/or cutter means comprising opposite perforator ends (42, 43) separated from each other by a gap to form the cut portion(s) into a central fold, said opening means being triggered by the user inhaling, in a manner that at least 90%, advantageously at least 95%, preferably at least 97% of the powder contained in said open reservoir is expelled from said reservoir during inhalation.
A lactic acid bacteria fermentation product, which has been obtained by culturing lactic acid bacteria on an animal milk medium comprising an extract of Rubus suavissimus S. Lee (Rosaceae) as a food material, wherein the extract has been obtained by acid extraction under an acidic condition not higher than pH 4.0; and wherein bacteria of the genus Bifidobacteria are excluded from said lactic acid bacteria.
An in vitro method for inducing non-hepatocyte cells into hepatocytes-like cells (iHeps), comprising the steps of: (a) treating the non-hepatocyte cells to upregulate the following Hepatocyte inducing factors: Hepatocyte nuclear factor 1-alpha (HNF1A), Hepatocyte nuclear factor 4-alpha (HNF4A), and Hepatocyte nuclear factor 6-alpha, the maturation factors Activating transcription factor 5, Prospero homeobox protein 1 (PROX1), and CCAAT/enhancer-binding protein alpha (CEBPA) by exogenously introducing nucleic acids encoding the Hepatocyte inducing factors into the non-hepatocyte cells; (b) culturing the non-hepatocyte cells from the step (a) in a somatic cell medium; (c) expanding the cells from the step (b) in a hepatocyte cell culture medium; and (d) culturing the cells from the step (c) in a hepatocyte maturation medium. (a) treating the non-hepatocyte cells to upregulate the following Hepatocyte inducing factors: Hepatocyte nuclear factor 1-alpha (HNF1A), Hepatocyte nuclear factor 4-alpha (HNF4A), and Hepatocyte nuclear factor 6-alpha, the maturation factors Activating transcription factor 5, Prospero homeobox protein 1 (PROX1), and CCAAT/enhancer-binding protein alpha (CEBPA) by exogenously introducing nucleic acids encoding the Hepatocyte inducing factors into the non-hepatocyte cells; (b) culturing the non-hepatocyte cells from the step (a) in a somatic cell medium; (c) expanding the cells from the step (b) in a hepatocyte cell culture medium; and (d) culturing the cells from the step (c) in a hepatocyte maturation medium.
A refrigerator comprising: a cabinet forming a storage space; a barrier partitioning the storage space into a refrigeration compartment and a freezer compartment, the barrier having a supply duct and a return duct formed at separate portions thereof to connect the refrigeration compartment with the freezer compartment; a compressor compressing a refrigerant; an evaporator cooling cold air in the storage space; a blower fan supplying the cold air generated by the evaporator into the freezer compartment; a damper that opens and closes the supply duct; and a controller configured to control the driving of the compressor, the blower fan, and the damper, wherein the controller is configured to control the driving of the compressor and the blower fan to stop when temperatures of the refrigeration compartment and the freezer compartment are both in a satisfactory state and then controls the damper to repeatedly open and close when a set time elapses from a point of time when the driving of the compressor is stopped or when the temperature of the refrigeration compartment is increased to a set temperature (T S), so that cold air in the freezer compartment is supplied into the refrigeration compartment through the supply duct. a cabinet forming a storage space; a barrier partitioning the storage space into a refrigeration compartment and a freezer compartment, the barrier having a supply duct and a return duct formed at separate portions thereof to connect the refrigeration compartment with the freezer compartment; a compressor compressing a refrigerant; an evaporator cooling cold air in the storage space; a blower fan supplying the cold air generated by the evaporator into the freezer compartment; a damper that opens and closes the supply duct; and a controller configured to control the driving of the compressor, the blower fan, and the damper, wherein the controller is configured to control the driving of the compressor and the blower fan to stop when temperatures of the refrigeration compartment and the freezer compartment are both in a satisfactory state and then controls the damper to repeatedly open and close when a set time elapses from a point of time when the driving of the compressor is stopped or when the temperature of the refrigeration compartment is increased to a set temperature (T S), so that cold air in the freezer compartment is supplied into the refrigeration compartment through the supply duct.
An intravascular blood pump, comprising: a collapsible housing comprising a fluid lumen, the fluid lumen having a distal end, a proximal end, and a substantially constant diameter portion having a proximal end, wherein the fluid lumen proximal end is proximal to the proximal end of the substantially constant diameter portion; a collapsible distal impeller axially spaced from a collapsible proximal impeller, the distal impeller having an expanded configuration and the proximal impeller having an expanded configuration, characterised in that at least a portion of the proximal impeller is disposed in the substantially constant diameter portion, wherein the proximal impeller has an axial length in the expanded configuration, and from 20% to 50% of the proximal impeller, measured along the axial length, is disposed proximal to the proximal end of the substantially constant diameter portion. a collapsible housing comprising a fluid lumen, the fluid lumen having a distal end, a proximal end, and a substantially constant diameter portion having a proximal end, wherein the fluid lumen proximal end is proximal to the proximal end of the substantially constant diameter portion; a collapsible distal impeller axially spaced from a collapsible proximal impeller, the distal impeller having an expanded configuration and the proximal impeller having an expanded configuration, characterised in that at least a portion of the proximal impeller is disposed in the substantially constant diameter portion, wherein the proximal impeller has an axial length in the expanded configuration, and from 20% to 50% of the proximal impeller, measured along the axial length, is disposed proximal to the proximal end of the substantially constant diameter portion.
Spacer device, of temporary and/or disposable type, implantable in the human body for the treatment of a bone seat or a joint seat affected by infection, comprising a body (2, 102, 202) configured in a substantially complementary manner to said bone seat or joint seat with which it must be associated in use, said body (2, 102, 202) being provided with at least one coupling surface (3, 103, 203) of said spacer device with a bone seat or joint seat of the human body, wherein said body (2, 102, 202) comprises at least one recess (4, 104, 204, 4', 104', 204') for housing a filling material comprising at least one pharmaceutical or medical substance, positioned along said coupling surface (3, 103, 203) and defining at least one opening (5, 105, 205, 5', 105', 205') through said coupling surface (3, 103, 203), said body (2, 102, 202) comprises a plurality of said at least one recess (4, 104, 204) defining an open cell structure (6, 106, 206) along said coupling surface (3, 103, 203), wherein said open cell structure (6, 106, 206) comprises a plurality of cells adjacent to one another, corresponding to said recesses (4, 104, 204), said recesses (4, 104, 204, 4', 104', 204') have ribs that define the perimeter of said at least one recess (4, 104, 204, 4', 104', 204'), wherein said recesses (4, 104, 204, 4', 104', 204') affect substantially the entire coupling surface (3, 103, 203), wherein said filling material is of the setting or solidifiable type, wherein said body (2, 102, 202) of said spacer device (1, 100, 200) is made of a porous biologically compatible material, wherein said body (2, 102, 202) comprises at least one filling portion or insert (8, 108, 208), comprising said filling material, for filling at least one respective recess (4, 104, 204, 4', 104', 204'), wherein said filling material is of permanent type and wherein said at least one filling portion or insert (8, 108, 208) is flush with or projects with respect to said coupling surface (3, 103, 203), characterised in that each of said recesses (4, 104, 204, 4', 104', 204') has a shape in plan view that is substantially rectangular, triangular or trapezoidal, wherein said at least one opening (5, 105, 205, 5', 105', 205') of said at least one recess (4, 104, 204, 4', 104', 204') is wide with respect to the depth of said at least one recess (4, 104, 204, 4', 104', 204'), said at least one filling portion or insert (8, 108, 208) has pores, with pores having average dimensions smaller than 100 micron, at least one of said filling portions or inserts (8, 108, 208) comprises a filling material comprising at least one first pharmaceutical or medical substance and at least one other of said filling portions or inserts (8, 108, 208) comprises a filling material comprising a second pharmaceutical or medical substance different from said first pharmaceutical or medical substance, such that the various recesses allow separate storing of said first and second pharmaceutical or medical substances.
A hydromill wheel for excavating a trench in hard rock, the wheel comprising: • a drum arranged to be rotated about its axis (A, B); and • a plurality of single disc cutters having disc projection spacing on the drum axis (A, B), mounted on the periphery of the drum, each of the single disc cutters having a rotatable single cutting disc arranged to come in contact with and crush or cut the rock during excavation, wherein the spacing of the projections of at least some of the cutting discs on the drum axis (A, B) is 5 % to 70 % of the cutting disc diameter. • a drum arranged to be rotated about its axis (A, B); and • a plurality of single disc cutters having disc projection spacing on the drum axis (A, B), mounted on the periphery of the drum, each of the single disc cutters having a rotatable single cutting disc arranged to come in contact with and crush or cut the rock during excavation,
A system for filling a toner container with toner, the system comprising: a base; a receiving portion supported by the base and defining a chamber, the receiving portion including an opened end configured to receive the toner container; and a vacuum source in fluid communication with the chamber, wherein the chamber has a first pressure and the toner container has a second pressure, and the vacuum source is configured to create a pressure differential between the first pressure and the second pressure, so that the filling of the toner container with the toner is at least partially performed by the pressure differential between the first pressure and the second pressure. a base; a receiving portion supported by the base and defining a chamber, the receiving portion including an opened end configured to receive the toner container; and a vacuum source in fluid communication with the chamber,