mhurhangee/ep-ind-claims huggingface dataset:
A lathe comprising: a spindle which rotates a workpiece on a spindle axis; a turret head having a plurality of turret surfaces to which a tool unit is radially attached around an indexing axis, to at least part of the turret surfaces the tool unit being attached in a plurality of attaching positions provided in an indexing axis direction along the indexing axis; and a tool unit switching driving unit which rotates the turret head on the indexing axis and moves the turret head in the indexing axis direction to switch the tool units for use to machine the workpiece, an opposite tool post, a turret driver comprising a Y-axis direction feeding mechanism bidirectionally moving the turret head in the indexing axis direction, an X-axis direction feeding mechanism bidirectionally moving the turret head and the Y-axis direction feeding mechanism in a direction the turret head and the opposite tool post facing each other, the direction being different from the indexing axis direction and a spindle axis direction parallel to the spindle axis, and a Z-axis direction feeding mechanism bidirectionally moving the turret head, the Y-axis direction feeding mechanism, and the X-axis direction feeding mechanism in the spindle axis direction, characterised in that the turret head, the Y-axis direction feeding mechanism, the X-axis direction feeding mechanism, and the Z-axis direction feeding mechanism are sequentially stacked in the indexing axis direction which is a vertical direction with respect to a base of the lathe. a spindle which rotates a workpiece on a spindle axis; a turret head having a plurality of turret surfaces to which a tool unit is radially attached around an indexing axis, to at least part of the turret surfaces the tool unit being attached in a plurality of attaching positions provided in an indexing axis direction along the indexing axis; and a tool unit switching driving unit which rotates the turret head on the indexing axis and moves the turret head in the indexing axis direction to switch the tool units for use to machine the workpiece, an opposite tool post, a turret driver comprising a Y-axis direction feeding mechanism bidirectionally moving the turret head in the indexing axis direction, an X-axis direction feeding mechanism bidirectionally moving the turret head and the Y-axis direction feeding mechanism in a direction the turret head and the opposite tool post facing each other, the direction being different from the indexing axis direction and a spindle axis direction parallel to the spindle axis, and a Z-axis direction feeding mechanism bidirectionally moving the turret head, the Y-axis direction feeding mechanism, and the X-axis direction feeding mechanism in the spindle axis direction, characterised in that the turret head, the Y-axis direction feeding mechanism, the X-axis direction feeding mechanism, and the Z-axis direction feeding mechanism are sequentially stacked in the indexing axis direction which is a vertical direction with respect to a base of the lathe.
A protein complex comprising a first polypeptide covalently or non-covalently associated with a second polypeptide, wherein: a. the first polypeptide comprises the amino acid sequence of a first member of an interaction pair and the amino acid sequence of a TGFβ superfamily type II receptor polypeptide, wherein the TGFβ superfamily type II receptor polypeptide is an ActRIIB polypeptide, wherein the ActRIIB polypeptide comprises an amino acid sequence that is at least 85% identical to amino acids 29-109 of SEQ ID NO: 1, and wherein the first polypeptide comprises a leucine at the amino acid position corresponding to position 79 of SEQ ID NO: 1; and b. the second polypeptide comprises the amino acid sequence of a second member of the interaction pair, and wherein the second polypeptide does not comprise a TGFβ superfamily type II receptor polypeptide; wherein the first member of the interaction pair is an Fc comprising a multimerization domain, and wherein the second member of the interaction pair is an Fc comprising a multimerization domair and wherein the ActRIIB polypeptide is capable of binding GDF8 and/or GDF11. a. the first polypeptide comprises the amino acid sequence of a first member of an interaction pair and the amino acid sequence of a TGFβ superfamily type II receptor polypeptide, wherein the TGFβ superfamily type II receptor polypeptide is an ActRIIB polypeptide, wherein the ActRIIB polypeptide comprises an amino acid sequence that is at least 85% identical to amino acids 29-109 of SEQ ID NO: 1, and wherein the first polypeptide comprises a leucine at the amino acid position corresponding to position 79 of SEQ ID NO: 1; and b. the second polypeptide comprises the amino acid sequence of a second member of the interaction pair, and wherein the second polypeptide does not comprise a TGFβ superfamily type II receptor polypeptide;
A method of three-dimensional measurement of an object by stereo-correlation, said method being implemented by at least two cameras connected to image processing means, said cameras being positioned so as to give at least a first image and a second image of the object seen from at least two different angles, the image processing means being arranged so as to determine all or part of the three-dimensional coordinates of said object, said method including at least two steps: - a first step of calibration wherein, a template of known shape being arranged in the field of the cameras, the processing means compute the at least two transfer matrices linking the three-dimensional coordinates captured in the reference frame of the template with the two-dimensional coordinates captured in the at least two reference frames of the first image and of the second image of said template; - a second step of spatial matching wherein, the object to be measured being arranged in the field of the cameras, the processing means determine the whole displacement field existing between the at least two images of said object to be measured, making it possible to obtain the smallest possible difference between said images; characterized in that, the surface of the template having a first parametric representation, the object surface having a second parametric representation, said first parametric representation being a first mathematical representation of the surface of the template having the form of a first decomposition over a scalar function basis, and said second parametric representation being a second mathematical representation of the object surface having the form of a second decomposition over a scalar function basis, said first parametric representation is implemented in the first calibration step and said second parametric representation is implemented in the second spatial matching step. - a first step of calibration wherein, a template of known shape being arranged in the field of the cameras, the processing means compute the at least two transfer matrices linking the three-dimensional coordinates captured in the reference frame of the template with the two-dimensional coordinates captured in the at least two reference frames of the first image and of the second image of said template; - a second step of spatial matching wherein, the object to be measured being arranged in the field of the cameras, the processing means determine the whole displacement field existing between the at least two images of said object to be measured, making it possible to obtain the smallest possible difference between said images;
Method for starting up a controller system, the controller system comprising: - at least one electrical controller device, and - a plurality of hardware modules (3a, 3b, 3c) of different types which are couplable to the controller device, wherein a type-specific parameter set (4a, 4b, 4c) and a type-specific control program (5a, 5b, 5c) are assigned to each type of hardware module (3a, 3b, 3c), wherein a respective parameter set (4a, 4b, 4c) has a number of parameters having adjustable parameter values and the type-specific control program (5a, 5b, 5c) is driver software matched to the type of hardware module (3a, 3b, 3c) coupled, wherein the method comprises the steps of: - coupling a hardware module (3a, 3b, 3c) to the controller device in that the hardware module (3a, 3b, 3c) is plugged into a plug-in position of the controller device provided for that purpose, - using the controller device to determine the type of coupled hardware module (3a, 3b, 3c) in that the controller device reads a type identification of the hardware module (3a, 3b, 3c) from a register of the hardware module (3a, 3b, 3c) provided for that purpose, - using the controller device to select the type-specific control program (5a, 5b, 5c), and - using the controller device to select the type-specific parameter set (4a, 4b, 4c) as the adjustable parameter set. - at least one electrical controller device, and - a plurality of hardware modules (3a, 3b, 3c) of different types which are couplable to the controller device, wherein a type-specific parameter set (4a, 4b, 4c) and a type-specific control program (5a, 5b, 5c) are assigned to each type of hardware module (3a, 3b, 3c), wherein a respective parameter set (4a, 4b, 4c) has a number of parameters having adjustable parameter values and the type-specific control program (5a, 5b, 5c) is driver software matched to the type of hardware module (3a, 3b, 3c) coupled, - coupling a hardware module (3a, 3b, 3c) to the controller device in that the hardware module (3a, 3b, 3c) is plugged into a plug-in position of the controller device provided for that purpose, - using the controller device to determine the type of coupled hardware module (3a, 3b, 3c) in that the controller device reads a type identification of the hardware module (3a, 3b, 3c) from a register of the hardware module (3a, 3b, 3c) provided for that purpose, - using the controller device to select the type-specific control program (5a, 5b, 5c), and - using the controller device to select the type-specific parameter set (4a, 4b, 4c) as the adjustable parameter set.
A method for preparing an α-galactose epitope ( α-Gal hereinafter)-expressing virus, comprising the steps of: introducing an α1,3-galactosyltransferase gene in an expressible condition into a cell line that does not express α-Gal to obtain a cell line capable of expressing α-Gal; inoculating a virus into the cell line capable of expressing α-Gal to obtain a cell line infected with a virus; and culturing the cell line infected with the virus to obtain a virus expressing α-Gal from the culture medium wherein the introduction of the α1,3-galactosyltransferase gene is conducted by introducing an expression vector containing an α1,3-galactosyltransferase gene in an expressible condition, and wherein said expression vector has a CAG promoter for expressing the α1,3-galactosyltransferase gene. introducing an α1,3-galactosyltransferase gene in an expressible condition into a cell line that does not express α-Gal to obtain a cell line capable of expressing α-Gal; inoculating a virus into the cell line capable of expressing α-Gal to obtain a cell line infected with a virus; and culturing the cell line infected with the virus to obtain a virus expressing α-Gal from the culture medium
A big-data-based business logic learning method, comprising: receiving a network request sent by a requester, identifying a current request identifier of the network request, and parsing procedure information of the network request; extracting a reference request identifier from the procedure information, determining whether a direction from the reference request identifier to the current request identifier exists in a procedure direction table, and updating the procedure direction table based on the determination result; and distributing a tracking code for the network request when responding to the network request, wherein the tracking code comprises the current request identifier and a timestamp for distributing the tracking code; wherein, the tracking code adds the current request identifier and the timestamp to procedure information of a new network request when the new network request is initiated again based on the network request. receiving a network request sent by a requester, identifying a current request identifier of the network request, and parsing procedure information of the network request; extracting a reference request identifier from the procedure information, determining whether a direction from the reference request identifier to the current request identifier exists in a procedure direction table, and updating the procedure direction table based on the determination result; and distributing a tracking code for the network request when responding to the network request, wherein the tracking code comprises the current request identifier and a timestamp for distributing the tracking code; wherein, the tracking code adds the current request identifier and the timestamp to procedure information of a new network request when the new network request is initiated again based on the network request.
A single stage flapper type servovalve housing (4; 104; 204) comprising: a bore (8; 108) for receiving a pair of opposed nozzles therein; and a plurality of fluid ports (14, 16, 18) in fluid communication with the housing bore (8; 108); a plurality of mounting bores for receiving fasteners for mounting the valve housing to a surface, the mounting bores formed as tubular elements (46; 146), characterised in that: the mounting bores are attached to a central portion (48; 148) of the valve housing (4; 104; 204) in which is formed the valve bore (8; 108) and the plurality of fluid ports (14, 16, 18) by means of a plurality of connecting arms (50; 150a; 150b; 150c), wherein the connecting arms form a lattice structure with voids (52; 152) formed between the connecting arms (50; 150a; 150b; 150c) and the central portion (48; 148) of the valve housing (4; 104; 204), and wherein the valve housing (4; 104; 204) is made from stainless steel. a bore (8; 108) for receiving a pair of opposed nozzles therein; and a plurality of fluid ports (14, 16, 18) in fluid communication with the housing bore (8; 108); a plurality of mounting bores for receiving fasteners for mounting the valve housing to a surface, the mounting bores formed as tubular elements (46; 146), characterised in that: the mounting bores are attached to a central portion (48; 148) of the valve housing (4; 104; 204) in which is formed the valve bore (8; 108) and the plurality of fluid ports (14, 16, 18) by means of a plurality of connecting arms (50; 150a; 150b; 150c), wherein the connecting arms form a lattice structure with voids (52; 152) formed between the connecting arms (50; 150a; 150b; 150c) and the central portion (48; 148) of the valve housing (4; 104; 204), and wherein the valve housing (4; 104; 204) is made from stainless steel.
A light emitting device comprising: a conductive support layer; a transparent conductive layer comprising a first transparent conductive region adjacent to the conductive support layer and a second transparent conductive region adjacent to the first transparent conductive region; a first semiconductor layer adjacent to the transparent conductive layer; an active layer adjacent to the first semiconductor layer; a second semiconductor layer adjacent to the active layer, which is between the first semiconductor layer and the second semiconductor layer; and an electrode adjacent to the second semiconductor layer, wherein the second transparent conductive region has less electrical conductivity than the first transparent conductive region, wherein the conductive support layer, transparent conductive layer, first semiconductor layer, active layer, second semiconductor layer, and electrode are stacked in a first direction of epitaxial growth, wherein the first and second semiconductor layers are of different conductivity types, wherein the first and second transparent conductive regions are adjacent to each other in a lateral second direction, and wherein the electrode at least partially overlaps the second transparent conductive region in the first direction, wherein at least portion of the second transparent conductive region contacts the first semiconductor layer at a central portion of a bottom surface of the first semiconductor layer, at least portion of the first transparent conductive region contacts the first semiconductor layer at a peripheral portion of the bottom surface of the first semiconductor layer, characterized in that: the light emitting device further comprises a reflective layer between the transparent conducting layer and the conductive support layer, and the second transparent conducting region is partially disposed between the first transparent conducting region and the reflective layer, wherein the first transparent conductive region and second transparent conductive region are separate conductive layers. a conductive support layer; a transparent conductive layer comprising a first transparent conductive region adjacent to the conductive support layer and a second transparent conductive region adjacent to the first transparent conductive region; a first semiconductor layer adjacent to the transparent conductive layer; an active layer adjacent to the first semiconductor layer; a second semiconductor layer adjacent to the active layer, which is between the first semiconductor layer and the second semiconductor layer; and an electrode adjacent to the second semiconductor layer, the light emitting device further comprises a reflective layer between the transparent conducting layer and the conductive support layer, and the second transparent conducting region is partially disposed between the first transparent conducting region and the reflective layer, wherein the first transparent conductive region and second transparent conductive region are separate conductive layers.
A print medium for inkjet printing comprising: a base substrate comprising a blend of cellulosic fibers; said blend comprising a blend of hardwood fibers and softwood fibers in a ratio ranging from 100%:0% to 30%:70%; a sizing material, from internal sizing and/or surface sizing, present in an effective amount from 0.25 Kg/Ton of the print medium to 0.75 Kg/Ton of the print medium wherein the sizing material is alkyl succinic anhydride; and a multivalent cation salt present in a synergetic amount from 5.5 Kg/Ton of the print medium to 20 Kg/Ton of the print medium, wherein the multivalent cation salt is calcium chloride. a base substrate comprising a blend of cellulosic fibers; said blend comprising a blend of hardwood fibers and softwood fibers in a ratio ranging from 100%:0% to 30%:70%; a sizing material, from internal sizing and/or surface sizing, present in an effective amount from 0.25 Kg/Ton of the print medium to 0.75 Kg/Ton of the print medium wherein the sizing material is alkyl succinic anhydride; and a multivalent cation salt present in a synergetic amount from 5.5 Kg/Ton of the print medium to 20 Kg/Ton of the print medium, wherein the multivalent cation salt is calcium chloride.
A power supply combination, comprising: a first multi-voltage power source comprising a first power rail adapted to deliver power at a first voltage and a second power rail adapted to deliver power at a second voltage; a second multi-voltage power source comprising a third power rail adapted to deliver power at the first voltage and a fourth power rail adapted to deliver power at the second voltage; a first single-voltage power source comprising a fifth power rail adapted to deliver power at the first voltage; a second single-voltage power source comprising a sixth power rail adapted to deliver power at the first voltage; a first power combining circuit electrically connected to the first power rail of the first multi-voltage power source, to the third power rail of the second multi-voltage power source, to the fifth power rail of the first single-voltage power source, and to the sixth power rail of the second single-voltage power source, the first power combining circuit being adapted to deliver power at the first voltage to a first voltage input of a load; and a second power combining circuit electrically connected to the second power rail of the first multi-voltage power source and to the fourth power rail of the second multi-voltage power source, the second power combining circuit being adapted to deliver power at the second voltage to a second voltage input of the load. a first multi-voltage power source comprising a first power rail adapted to deliver power at a first voltage and a second power rail adapted to deliver power at a second voltage; a second multi-voltage power source comprising a third power rail adapted to deliver power at the first voltage and a fourth power rail adapted to deliver power at the second voltage; a first single-voltage power source comprising a fifth power rail adapted to deliver power at the first voltage; a second single-voltage power source comprising a sixth power rail adapted to deliver power at the first voltage; a first power combining circuit electrically connected to the first power rail of the first multi-voltage power source, to the third power rail of the second multi-voltage power source, to the fifth power rail of the first single-voltage power source, and to the sixth power rail of the second single-voltage power source, the first power combining circuit being adapted to deliver power at the first voltage to a first voltage input of a load; and a second power combining circuit electrically connected to the second power rail of the first multi-voltage power source and to the fourth power rail of the second multi-voltage power source, the second power combining circuit being adapted to deliver power at the second voltage to a second voltage input of the load.
A multi-tissue body-on-a-chip apparatus, comprising: a first chamber comprising a first organoid; a second chamber comprising a second organoid; a primary fluid conduit that connects said first and second chambers; and a common aqueous growth media in said first chamber, said second chamber, and said primary fluid conduit; wherein said first and second chambers are connected in series and are in fluid communication with one another via said primary fluid conduit; wherein, in operation, the media flows through said first chamber, said second chamber, and said primary fluid conduit by recirculating perfusion; wherein said first and second organoids are different from each other, wherein the volume of the apparatus is less than 100 μL, wherein each of said first chamber and said second chamber has a volume in a range of 2 μL to 10 μL, and wherein the apparatus provides a hyperphysiological fluid to tissue volume ratio. a first chamber comprising a first organoid; a second chamber comprising a second organoid; a primary fluid conduit that connects said first and second chambers; and a common aqueous growth media in said first chamber, said second chamber, and said primary fluid conduit; wherein said first and second chambers are connected in series and are in fluid communication with one another via said primary fluid conduit; wherein, in operation, the media flows through said first chamber, said second chamber, and said primary fluid conduit by recirculating perfusion; wherein said first and second organoids are different from each other, wherein the volume of the apparatus is less than 100 μL, wherein each of said first chamber and said second chamber has a volume in a range of 2 μL to 10 μL, and wherein the apparatus provides a hyperphysiological fluid to tissue volume ratio.