mhurhangee/ep-ind-claims huggingface dataset:
A method of connecting three-dimensional structured meshes to form a conformal mesh, for solutions of flow problems, the method comprising the steps of: - forming an interface by overlaying surfaces of two structured meshes, each structured mesh comprising hexahedra; - defining an interface set of mesh points (S1, TC 1...TC 4) in the interface comprising mesh points from each surface and intersection mesh points formed at the intersection of mesh lines; - identifying mesh points (A, E) in the interface set that are within a predetermined distance of each other and merging them to form merged mesh points; - identifying mesh points of one mesh in the interface that are within a predetermined distance of a line of the other mesh and projecting these mesh points to the corresponding mesh line to form projected mesh points (B 1); - generating an interface layer in the form of an unstructured mesh formed of triangles and quadrilaterals, including the mesh points from each surface, the merged mesh points, the projected mesh points (B 1) and the intersection mesh points (S1, TC 1...TC 4); and - inserting a node at the centre of each hexahedra, and producing an unstructured layer of cells between the two structured meshes by joining the nodes to the mesh points of the interface layer so as to form tetrahedra and pyramids. - forming an interface by overlaying surfaces of two structured meshes, each structured mesh comprising hexahedra; - defining an interface set of mesh points (S1, TC 1...TC 4) in the interface comprising mesh points from each surface and intersection mesh points formed at the intersection of mesh lines; - identifying mesh points (A, E) in the interface set that are within a predetermined distance of each other and merging them to form merged mesh points; - identifying mesh points of one mesh in the interface that are within a predetermined distance of a line of the other mesh and projecting these mesh points to the corresponding mesh line to form projected mesh points (B 1); - generating an interface layer in the form of an unstructured mesh formed of triangles and quadrilaterals, including the mesh points from each surface, the merged mesh points, the projected mesh points (B 1) and the intersection mesh points (S1, TC 1...TC 4); and - inserting a node at the centre of each hexahedra, and producing an unstructured layer of cells between the two structured meshes by joining the nodes to the mesh points of the interface layer so as to form tetrahedra and pyramids.
A method comprising: calculating a two-by-two channel matrix representation representing properties of a radio channel between a transmission antenna array of a radio transmitter and a reception antenna array of a radio receiver; examining mutual proportions of a first eigenvalue and a second eigenvalue of the channel matrix representation with a test function, wherein the test function comprises a discriminant of a solution of the roots of a quadratic characteristic equation of the two-by-two channel matrix representation, wherein in the test function a square root of said discriminant of the solution of the roots of the quadratic characteristic equation is replaced by the discriminant itself without the square root operation; and determining the number of available spatially parallel communication streams between the transmission antenna array and reception antenna array from the mutual proportions of the eigenvalues. calculating a two-by-two channel matrix representation representing properties of a radio channel between a transmission antenna array of a radio transmitter and a reception antenna array of a radio receiver; examining mutual proportions of a first eigenvalue and a second eigenvalue of the channel matrix representation with a test function, wherein the test function comprises a discriminant of a solution of the roots of a quadratic characteristic equation of the two-by-two channel matrix representation, wherein in the test function a square root of said discriminant of the solution of the roots of the quadratic characteristic equation is replaced by the discriminant itself without the square root operation; and determining the number of available spatially parallel communication streams between the transmission antenna array and reception antenna array from the mutual proportions of the eigenvalues.
A method of fabricating a light emitting diode package, comprising: forming a plurality of semiconductor stacks on a first substrate, each of the semiconductor stacks comprising a first-conductivity-type semiconductor layer, a second-conductivity-type semiconductor layer, and an active region disposed between the first-conductivity-type semiconductor layer and the second-conductivity-type semiconductor layer; forming an underfill covering the plurality of semiconductor stacks, forming first bumps and second bumps on the first-conductivity-type semiconductor layers and the second-conductivity-type semiconductor layers of the semiconductor stacks, respectively; wherein the first bumps and the second bumps pass through the underfill; preparing a second substrate comprising first lead electrodes and second lead electrodes arranged corresponding to the plurality of semiconductor stacks; bonding the first bumps and the second bumps to the first lead electrodes and the second lead electrodes, respectively, so that the plurality of semiconductor stacks are bonded to the first lead electrodes cutting the first substrate and the second substrate into a plurality of packages after the bonding is completed, characterized in that the forming of the underfill comprises: forming a B-stage underfill on the first substrate to cover the plurality of semiconductor stacks; and curing the B-stage underfill while the first and second bumps are bonded to the first and second lead electrodes. forming a plurality of semiconductor stacks on a first substrate, each of the semiconductor stacks comprising a first-conductivity-type semiconductor layer, a second-conductivity-type semiconductor layer, and an active region disposed between the first-conductivity-type semiconductor layer and the second-conductivity-type semiconductor layer; forming an underfill covering the plurality of semiconductor stacks, forming first bumps and second bumps on the first-conductivity-type semiconductor layers and the second-conductivity-type semiconductor layers of the semiconductor stacks, respectively; wherein the first bumps and the second bumps pass through the underfill; preparing a second substrate comprising first lead electrodes and second lead electrodes arranged corresponding to the plurality of semiconductor stacks; bonding the first bumps and the second bumps to the first lead electrodes and the second lead electrodes, respectively, so that the plurality of semiconductor stacks are bonded to the first lead electrodes cutting the first substrate and the second substrate into a plurality of packages after the bonding is completed, characterized in that the forming of the underfill comprises: forming a B-stage underfill on the first substrate to cover the plurality of semiconductor stacks; and curing the B-stage underfill while the first and second bumps are bonded to the first and second lead electrodes. forming a B-stage underfill on the first substrate to cover the plurality of semiconductor stacks; and curing the B-stage underfill while the first and second bumps are bonded to the first and second lead electrodes.
In a method for constructing an ITE hearing aid using an electronic-detailing program for assembling an ITE hearing aid in which each component of the ITE hearing aid has a visually displayable virtual representation, the improvement comprising the steps of: - for each of said components, electronically determining a collision plot representing an influence that a physical property that component has on other components; - logically linking the collision plot for a component to the virtual representation of that component so that as the virtual representations of components are moved and/or adjusted in the electronic detailing software, the collision plot that is logically linked thereto moves correspondingly; - at a display, visually displaying the collision plot for a first of said components together with the visual representation for the first of said components; - at said display, moving the visual representation of a second of said components with respect to the visual representation of the first of said components to identify an acceptable position of said second of said components relative to said first of said components in the ITE hearing aid; and - providing a visual indication at said display of an unacceptable relative position if said virtual representation of said second of said components invades said collision plot of said first of said components, characterized by comprising generating said collision plot to represent a magnetic influence of the component to which the collision plot is logically linked and/or comprising generating said collision plot to represent an electrical influence of the component to which the collision plot is logically linked. - for each of said components, electronically determining a collision plot representing an influence that a physical property that component has on other components; - logically linking the collision plot for a component to the virtual representation of that component so that as the virtual representations of components are moved and/or adjusted in the electronic detailing software, the collision plot that is logically linked thereto moves correspondingly; - at a display, visually displaying the collision plot for a first of said components together with the visual representation for the first of said components; - at said display, moving the visual representation of a second of said components with respect to the visual representation of the first of said components to identify an acceptable position of said second of said components relative to said first of said components in the ITE hearing aid; and - providing a visual indication at said display of an unacceptable relative position if said virtual representation of said second of said components invades said collision plot of said first of said components,
A method for producing an unsaturated carboxylic ester by an esterification reaction of unsaturated carboxylic acid and alcohol using a reactor packed with a solid catalyst, comprising: a step of continuously feeding unsaturated carboxylic acid and alcohol to the reactor from an inlet of the reactor to form a fluid of the reaction solution within the reactor, wherein the unsaturated carboxylic acid is selected from acrylic acid and methacrylic acid; and a step of continuously feeding a vaporized organic solvent into the reactor from the inlet of or a part near the inlet of the reactor in a concurrent flow, wherein the organic solvent is an aliphatic hydrocarbon or an aromatic hydrocarbon. a step of continuously feeding unsaturated carboxylic acid and alcohol to the reactor from an inlet of the reactor to form a fluid of the reaction solution within the reactor, wherein the unsaturated carboxylic acid is selected from acrylic acid and methacrylic acid; and a step of continuously feeding a vaporized organic solvent into the reactor from the inlet of or a part near the inlet of the reactor in a concurrent flow, wherein the organic solvent is an aliphatic hydrocarbon or an aromatic hydrocarbon.
A cable connector comprising: an outer shell having a bore, the outer shell extending between a mating end and a cable end, the outer shell having latch pockets; a shield received in the outer shell, the shield dividing the bore into chambers, the shield and the outer shell providing shielding for the chambers; contact holders received in corresponding chambers, each contact holder including at least one contact channel, each contact holder including a deflectable latch, the latch having a latching head at an distal end of the latch configured to be received in the corresponding latch pocket of the outer shell to axially secure the contact holder in the outer shell, the latch having an interference bump at an inner end of the latch configured to engage the shield to press the latching head of the latch outward; and contacts received in corresponding contact channels of the corresponding contact holders, the contacts held in the bore of the outer shell by the contact holders, each contact extending between a mating end and a terminating end, the terminating end configured to be terminated to a wire of a cable. an outer shell having a bore, the outer shell extending between a mating end and a cable end, the outer shell having latch pockets; a shield received in the outer shell, the shield dividing the bore into chambers, the shield and the outer shell providing shielding for the chambers; contact holders received in corresponding chambers, each contact holder including at least one contact channel, each contact holder including a deflectable latch, the latch having a latching head at an distal end of the latch configured to be received in the corresponding latch pocket of the outer shell to axially secure the contact holder in the outer shell, the latch having an interference bump at an inner end of the latch configured to engage the shield to press the latching head of the latch outward; and contacts received in corresponding contact channels of the corresponding contact holders, the contacts held in the bore of the outer shell by the contact holders, each contact extending between a mating end and a terminating end, the terminating end configured to be terminated to a wire of a cable.
A method of making a gypsum fiberboard panel comprising: providing an aqueous slurry comprising gypsum and a first portion of cellulose fibers to a reactor, reacting the gypsum and a first portion of cellulose fiber in a reactor to produce a calcined crystalline gypsum and cellulose fiber slurry, uniformly reinforcing the calcined gypsum and cellulose fiber slurry with a second portion of cellulose fiber after the reactor step to form a second slurry, depositing the second slurry to form a mat, dewatering the mat, rehydrating the formed mat to a gypsum cellulose fiber mat, and then drying, cutting and finishing the formed mat into a final gypsum fiberboard panel. providing an aqueous slurry comprising gypsum and a first portion of cellulose fibers to a reactor, reacting the gypsum and a first portion of cellulose fiber in a reactor to produce a calcined crystalline gypsum and cellulose fiber slurry, uniformly reinforcing the calcined gypsum and cellulose fiber slurry with a second portion of cellulose fiber after the reactor step to form a second slurry, depositing the second slurry to form a mat, dewatering the mat, rehydrating the formed mat to a gypsum cellulose fiber mat, and then drying, cutting and finishing the formed mat into a final gypsum fiberboard panel.
A human von Willebrand factor molecule capable of binding to Factor VIII comprising a C1 domain which lacks an O-glycosylation site at amino acid position 2298 for use in the treatment of a blood coagulation disorder, wherein said blood coagulation disorder is hemophilia A or von Willebrand disease and the VWF molecule having a reduced in vivo clearance when compared to native plasma-derived VWF.
A shipping container system comprising: a bottom panel with interlocking features disposed about a perimeter thereof; a plurality of side panels with interlocking features disposed about perimeters thereof, the side panels interlocking with the bottom panel to assemble a self-supporting shipping container; a plurality of horizontally oriented slots formed in an opposing pair of the side panels, the slots arranged at different heights between the bottom panel and a top edge of the side panels; vertically oriented channels formed in the opposing pair of side panels, the vertically oriented channels extending along and adjoining the horizontally oriented slots; a cross member positioned at a selected one of the different heights by insertion into an opposing pair of the slots, the cross member configured to restrain one or more shipping units inside the shipping container against vertical motion with respect to the bottom panel; and a top panel with interlocking features disposed about a perimeter thereof, the top panel interlocking with the side panels to cover the shipping container, wherein the top panel is spaced above the one or more shipping units at a clearance maintained by the cross member. a bottom panel with interlocking features disposed about a perimeter thereof; a plurality of side panels with interlocking features disposed about perimeters thereof, the side panels interlocking with the bottom panel to assemble a self-supporting shipping container; a plurality of horizontally oriented slots formed in an opposing pair of the side panels, the slots arranged at different heights between the bottom panel and a top edge of the side panels; vertically oriented channels formed in the opposing pair of side panels, the vertically oriented channels extending along and adjoining the horizontally oriented slots; a cross member positioned at a selected one of the different heights by insertion into an opposing pair of the slots, the cross member configured to restrain one or more shipping units inside the shipping container against vertical motion with respect to the bottom panel; and a top panel with interlocking features disposed about a perimeter thereof, the top panel interlocking with the side panels to cover the shipping container, wherein the top panel is spaced above the one or more shipping units at a clearance maintained by the cross member.
A method for controlling sending of a media access control, MAC, address forwarding table, comprising: Receiving, by a software-defined networking, SDN, controller, an address resolution protocol, ARP, request packet sent by a source virtual machine by using a first top-of-rack, TOR, switch to which the source virtual machine is attached, wherein the ARP request packet carries a destination Internet Protocol, IP, address; the method is characterized by determining, by the SDN controller, whether the destination IP address is different from any IP address of a gateway to which the source virtual machine is indirectly attached via the first TOR switch and when the SDN controller determines that the destination IP address is different from any IP address of a gateway to which the source virtual machine is indirectly attached via the first TOR switch, forbidding generation, according to the ARP request packet, of a first MAC address forwarding table that is to be sent to the gateway to which the source virtual machine is indirectly attached via the first TOR switch. Receiving, by a software-defined networking, SDN, controller, an address resolution protocol, ARP, request packet sent by a source virtual machine by using a first top-of-rack, TOR, switch to which the source virtual machine is attached, wherein the ARP request packet carries a destination Internet Protocol, IP, address; the method is characterized by determining, by the SDN controller, whether the destination IP address is different from any IP address of a gateway to which the source virtual machine is indirectly attached via the first TOR switch and when the SDN controller determines that the destination IP address is different from any IP address of a gateway to which the source virtual machine is indirectly attached via the first TOR switch, forbidding generation, according to the ARP request packet, of a first MAC address forwarding table that is to be sent to the gateway to which the source virtual machine is indirectly attached via the first TOR switch.
A machine tool (10, 10') comprising: a first active element (12, 12'); a first active element receptacle; a drive unit operatively connected to the first active element receptacle and configured to guide the first active element receptacle in a first phase of a motion cycle towards the first active element (12, 12') against a workpiece (14, 14') and in a second phase of the motion cycle away from the first active element (12, 12'); and at least one speed translation unit (28, 28', 28") having a first and a second connecting means (30, 30', 32, 32') wherein the first connecting means (30, 30') is connected to the first active element receptacle and the second connecting means (32, 32') forms a second active element receptacle, characterized in that the at least one speed translation unit (28, 28', 28") is designed as a hydraulic force/distance transducer, wherein the force/distance transducer comprises a housing (34, 34'), the housing interior of which is loaded with a hydraulic fluid, a preferably cylindrical first piston, which is in contact with the hydraulic fluid via a piston end, and a preferably cylindrical second piston which is in contact with the hydraulic fluid via a piston end and the cross-sectional area of which is smaller than the cross-sectional area of the first piston, wherein the first piston or the second piston is configured to be detachably connected as a first connecting means (30, 30') to the active element receptacle of the machine tool (10, 10') and the other piston (38, 36) forms the second active element receptacle as a second connecting means (30, 30', 32, 32'). a first active element (12, 12'); a first active element receptacle; a drive unit operatively connected to the first active element receptacle and configured to guide the first active element receptacle in a first phase of a motion cycle towards the first active element (12, 12') against a workpiece (14, 14') and in a second phase of the motion cycle away from the first active element (12, 12'); and at least one speed translation unit (28, 28', 28") having a first and a second connecting means (30, 30', 32, 32') wherein the first connecting means (30, 30') is connected to the first active element receptacle and the second connecting means (32, 32') forms a second active element receptacle, characterized in that the at least one speed translation unit (28, 28', 28") is designed as a hydraulic force/distance transducer, wherein the force/distance transducer comprises a housing (34, 34'), the housing interior of which is loaded with a hydraulic fluid, a preferably cylindrical first piston, which is in contact with the hydraulic fluid via a piston end, and a preferably cylindrical second piston which is in contact with the hydraulic fluid via a piston end and the cross-sectional area of which is smaller than the cross-sectional area of the first piston, wherein the first piston or the second piston is configured to be detachably connected as a first connecting means (30, 30') to the active element receptacle of the machine tool (10, 10') and the other piston (38, 36) forms the second active element receptacle as a second connecting means (30, 30', 32, 32').