mhurhangee/ep-ind-claims huggingface dataset:
A method for locking a three-dimensional, 3D, mesh composed of faces formed from vertices connected by edges and that is stored in one or more files, comprising: receiving, by a process of a software application executing on one or more computing systems, a request from a first client (120, 160) for a lock on a first region of space represented in the 3D mesh; establishing a region-based lock on the first region, wherein the establishing includes marking a boundary composed of faces in the 3D mesh immediately surrounding the first region as read-only; permitting the first client to write to the 3D mesh within the first region; receiving, by the process of the software application, a request from a second client (120, 160) for a lock on a second region of space represented in the 3D mesh; comparing the first region to the second region; and in response to whether the first region and the second region intersect, either denying the request for the lock on the second region and preventing the second client from writing to the 3D mesh within the second region, or granting the request for the lock on the second region and allowing the second client to write to the 3D mesh within the second region. receiving, by a process of a software application executing on one or more computing systems, a request from a first client (120, 160) for a lock on a first region of space represented in the 3D mesh; establishing a region-based lock on the first region, wherein the establishing includes marking a boundary composed of faces in the 3D mesh immediately surrounding the first region as read-only; permitting the first client to write to the 3D mesh within the first region; receiving, by the process of the software application, a request from a second client (120, 160) for a lock on a second region of space represented in the 3D mesh; comparing the first region to the second region; and in response to whether the first region and the second region intersect, either denying the request for the lock on the second region and preventing the second client from writing to the 3D mesh within the second region, or granting the request for the lock on the second region and allowing the second client to write to the 3D mesh within the second region.
A textile fabrication system comprising: a supply of a fiber bundle, wherein the fiber bundle comprises at least one of a fiber entering a carbon/carbon or a ceramic composite; and an air jet device (111; 611, 612) coupled between the supply of the fiber bundle and a desired lay down location, wherein the air jet device (111; 611, 612) is configured to alter at least one of a fiber volume or an areal weight of the fiber bundle, wherein the air jet device (111; 611, 612) is configured to form a length of volumized fiber bundle, wherein a textile is fabricated from the length of volumized fiber bundle via a fabrication process at the desired lay down location, wherein the fabrication process comprises at least one of a fabric weaving loom, a multi-axial warp knitting apparatus, or a positive delivery fiber placement fabrication process and further comprises a first moveable positive fiber bundle delivery mechanism coupled between the air jet device (111; 611, 612) and the supply of the fiber bundle, and a second moveable positive fiber bundle delivery mechanism coupled between the air jet device (111; 611, 612) and the desired lay down location, wherein the first moveable positive fiber bundle delivery mechanism is configured to insert the fiber bundle into the air jet device, and the second moveable positive fiber bundle delivery mechanism is configured to push the fiber bundle to exit the air jet device. a supply of a fiber bundle, wherein the fiber bundle comprises at least one of a fiber entering a carbon/carbon or a ceramic composite; and an air jet device (111; 611, 612) coupled between the supply of the fiber bundle and a desired lay down location, wherein the air jet device (111; 611, 612) is configured to alter at least one of a fiber volume or an areal weight of the fiber bundle, wherein the air jet device (111; 611, 612) is configured to form a length of volumized fiber bundle, wherein a textile is fabricated from the length of volumized fiber bundle via a fabrication process at the desired lay down location, wherein the fabrication process comprises at least one of a fabric weaving loom, a multi-axial warp knitting apparatus, or a positive delivery fiber placement fabrication process and further comprises a first moveable positive fiber bundle delivery mechanism coupled between the air jet device (111; 611, 612) and the supply of the fiber bundle, and a second moveable positive fiber bundle delivery mechanism coupled between the air jet device (111; 611, 612) and the desired lay down location, wherein the first moveable positive fiber bundle delivery mechanism is configured to insert the fiber bundle into the air jet device, and the second moveable positive fiber bundle delivery mechanism is configured to push the fiber bundle to exit the air jet device.
A lens moving apparatus comprising: a housing; a bobbin disposed in the housing; a first coil disposed on the bobbin; a first magnet disposed in the housing; a first circuit board supported by the housing and comprising a first pad, a second pad, a third pad, a fourth pad, a fifth pad, and a sixth pad; a first position sensor disposed on the first circuit board and electrically connected to the first to sixth pads(5a to 5f); an upper elastic member coupled with an upper portion of the housing; a lower elastic member coupled with a lower portion of the housing and comprising first and second lower springs(160-1, 160-2), wherein the first and second lower springs(160-1, 160-2) are electrically connected to the first coil; and a second circuit board disposed below the lower elastic member; and a supporting member coupled to the upper elastic member and electrically connected to the second circuit board, wherein the first lower spring is bonded to the fifth pad via a solder or a conductive member and the second lower spring is bonded to the sixth pad via a solder or a conductive member. a housing; a bobbin disposed in the housing; a first coil disposed on the bobbin; a first magnet disposed in the housing; a first circuit board supported by the housing and comprising a first pad, a second pad, a third pad, a fourth pad, a fifth pad, and a sixth pad; a first position sensor disposed on the first circuit board and electrically connected to the first to sixth pads(5a to 5f); an upper elastic member coupled with an upper portion of the housing; a lower elastic member coupled with a lower portion of the housing and comprising first and second lower springs(160-1, 160-2), wherein the first and second lower springs(160-1, 160-2) are electrically connected to the first coil; and a second circuit board disposed below the lower elastic member; and a supporting member coupled to the upper elastic member and electrically connected to the second circuit board, wherein the first lower spring is bonded to the fifth pad via a solder or a conductive member and the second lower spring is bonded to the sixth pad via a solder or a conductive member.
A system for delivering a prosthetic heart valve device into a heart of a patient, the system comprising: an elongated catheter body; and a delivery capsule carried by the elongated catheter body and configured to move between a delivery state for holding the prosthetic heart valve device and a deployment state for at least partially deploying the prosthetic heart valve device, wherein the delivery capsule comprises- a first housing configured to contain at least a first portion of the prosthetic heart valve device; a second housing slidably associated with a portion of the first housing, wherein the second housing is configured to contain a second portion of the prosthetic heart valve device, wherein, during a first deployment stage, the first housing moves in a distal direction with respect to the second housing to release the first portion of the prosthetic heart valve device from the delivery capsule, and wherein, during a second deployment stage, the second housing and the first housing together move in a distal direction to release the second portion of the prosthetic heart valve device from the delivery capsule. an elongated catheter body; and a delivery capsule carried by the elongated catheter body and configured to move between a delivery state for holding the prosthetic heart valve device and a deployment state for at least partially deploying the prosthetic heart valve device, wherein the delivery capsule comprises- a first housing configured to contain at least a first portion of the prosthetic heart valve device; a second housing slidably associated with a portion of the first housing, wherein the second housing is configured to contain a second portion of the prosthetic heart valve device, wherein, during a first deployment stage, the first housing moves in a distal direction with respect to the second housing to release the first portion of the prosthetic heart valve device from the delivery capsule, and wherein, during a second deployment stage, the second housing and the first housing together move in a distal direction to release the second portion of the prosthetic heart valve device from the delivery capsule.
A method of manufacturing a pouch-shaped battery cell, the method comprising: (a) receiving an electrode assembly in a preliminary battery case (100, 200, 400) and sealing other outer peripheries of the preliminary battery case (100, 200, 400) excluding a first side outer periphery of the preliminary battery case (100, 200, 400), the first side outer periphery being configured to discharge gas therethrough; (b) attaching a protective film (120, 220,..., 520) to at least one corner portion (112, 212) of an electrode assembly receiving portion (110, 210, 510); wherein the protective film has an adhesive layer (321, 421) comprising an adhesive material and a film layer (322, 422) comprising nylon or a PET-based compound; (c) performing an activation process and a degassing process; (d) sealing the first side outer periphery (111, 211, 411, 511) of the electrode assembly receiving portion (110, 210, 510); and (e) removing the protective film (120, 220,..., 520), wherein an inner surface of the protective film (120, 220,..., 520) is attached to an outer surface of the corner portion (112, 212) of the electrode assembly receiving portion (110, 210, 510) in tight contact therewith without being crumpled in order to support a shape of the corner portion (112, 212) of the electrode assembly receiving portion (110, 210, 510). (a) receiving an electrode assembly in a preliminary battery case (100, 200, 400) and sealing other outer peripheries of the preliminary battery case (100, 200, 400) excluding a first side outer periphery of the preliminary battery case (100, 200, 400), the first side outer periphery being configured to discharge gas therethrough; (b) attaching a protective film (120, 220,..., 520) to at least one corner portion (112, 212) of an electrode assembly receiving portion (110, 210, 510); wherein the protective film has an adhesive layer (321, 421) comprising an adhesive material and a film layer (322, 422) comprising nylon or a PET-based compound; (c) performing an activation process and a degassing process; (d) sealing the first side outer periphery (111, 211, 411, 511) of the electrode assembly receiving portion (110, 210, 510); and (e) removing the protective film (120, 220,..., 520),
A high-throughput method of quantifying selectivity of a heavy chain polypeptide for pairing with a light chain polypeptide comprising the steps of: (a) co-expressing a set of constructs comprising: a first heavy chain polypeptide in a Fab format comprising a VH and a CH1 region; a first light chain polypeptide comprising a first VL and first CL region; and a second light chain polypeptide comprising a second VL and second CL region; wherein said heavy chain polypeptide and said light chain polypeptides are expressed such that the total amount of the heavy chain polypeptide is limiting; and wherein co-expressing the set of constructs results in a set of polypeptide products; (b) isolating heavy chain-paired polypeptide products comprising the heavy chain polypeptide paired with said first or second light chain polypeptide from the set of polypeptide products; and (c) quantitating the amount of heavy chain polypeptide paired with said first light chain polypeptide (H1L1), and the amount of heavy chain polypeptide paired with said second light chain polypeptide (H1L2) in the heavy chain-paired polypeptide products to generate competition assay data; wherein a greater amount of the heavy chain polypeptide paired with one of said first and second light chain polypeptides as compared to the other light chain polypeptide indicates selectivity of the heavy chain polypeptide for pairing with said first or second light chain polypeptide. (a) co-expressing a set of constructs comprising: a first heavy chain polypeptide in a Fab format comprising a VH and a CH1 region; a first light chain polypeptide comprising a first VL and first CL region; and a second light chain polypeptide comprising a second VL and second CL region; wherein said heavy chain polypeptide and said light chain polypeptides are expressed such that the total amount of the heavy chain polypeptide is limiting; and wherein co-expressing the set of constructs results in a set of polypeptide products; a first heavy chain polypeptide in a Fab format comprising a VH and a CH1 region; a first light chain polypeptide comprising a first VL and first CL region; and a second light chain polypeptide comprising a second VL and second CL region; wherein said heavy chain polypeptide and said light chain polypeptides are expressed such that the total amount of the heavy chain polypeptide is limiting; and wherein co-expressing the set of constructs results in a set of polypeptide products; (b) isolating heavy chain-paired polypeptide products comprising the heavy chain polypeptide paired with said first or second light chain polypeptide from the set of polypeptide products; and (c) quantitating the amount of heavy chain polypeptide paired with said first light chain polypeptide (H1L1), and the amount of heavy chain polypeptide paired with said second light chain polypeptide (H1L2) in the heavy chain-paired polypeptide products to generate competition assay data;
A process for industrial production of a periplasmically expressed bacterial toxin by: A. in a fed-batch phase, growing a culture of a gram-negative host cell comprising a polynucleotide comprising a 3' toxin portion encoding a bacterial toxin and a 5' signal portion encoding a polypeptide capable of directing transport of said bacterial toxin to the host cell periplasm, wherein the pH is from 6.0-7.0; and B. inducing expression of said bacterial toxin at a pH that is, and is maintained at, a pH_from 6.5-8.5, wherein said pH is at least 0.5 pH units higher than the pH in step A; and the substrate feed rate is maintained at between 20% and 80% of the substrate feed rate of step A; wherein the bacterial toxin has at least 90% sequence identity to SEQ ID NO:32 and the process is carried out in a fermentor containing from 10-2000 litres of culture. A. in a fed-batch phase, growing a culture of a gram-negative host cell comprising a polynucleotide comprising a 3' toxin portion encoding a bacterial toxin and a 5' signal portion encoding a polypeptide capable of directing transport of said bacterial toxin to the host cell periplasm, wherein the pH is from 6.0-7.0; and B. inducing expression of said bacterial toxin at a pH that is, and is maintained at, a pH_from 6.5-8.5, wherein said pH is at least 0.5 pH units higher than the pH in step A; and the substrate feed rate is maintained at between 20% and 80% of the substrate feed rate of step A;
A processing method comprising: changing a transmittance of a dental material by projecting a laser beam into the dental material and changing character, characterized in that projecting a laser beam is ablation processing, the dental material transmits the laser beam of a certain wavelength, and the changing character is to form processing marks (11 to 14) inside the dental material.
Apparatus for separating product containing pouches from a travelling web of adhered films (202, 204) comprising: a film support surface carrying the adhered films (202, 204) and provided with at least one pouch forming mold configuration; said film support surface including groove portions (226, 228) surrounding said at least one mold configuration; and a rotary blade drum assembly in operative relation with said film support surface having blade configurations with blade portions (266, 268) arranged to form the entire perimeter edge of a flange of the pouch; said blade portions (266, 268) being disposed for synchronous registration with said groove portions (226, 228) of said film support surface, rotation of said rotary blade drum causing said blade portions (266, 268) to enter said groove portions (226, 228) through said travelling web of adhered films, form said perimeter edge of the flange of the pouch and separate said at least one pouch from the travelling web of adhered films (202, 204), wherein a rotating forming drum includes said film support surface, characterised in that said film support surface includes intersecting generally longitudinal groove portions and generally transverse groove portions, and said rotary blade drum assembly includes intersecting generally longitudinal blade portions and generally transverse blade portions configured for synchronous registration with said generally longitudinal and generally transverse groove portions surrounding said at least one mold configuration. a film support surface carrying the adhered films (202, 204) and provided with at least one pouch forming mold configuration; said film support surface including groove portions (226, 228) surrounding said at least one mold configuration; and a rotary blade drum assembly in operative relation with said film support surface having blade configurations with blade portions (266, 268) arranged to form the entire perimeter edge of a flange of the pouch; said blade portions (266, 268) being disposed for synchronous registration with said groove portions (226, 228) of said film support surface, rotation of said rotary blade drum causing said blade portions (266, 268) to enter said groove portions (226, 228) through said travelling web of adhered films, form said perimeter edge of the flange of the pouch and separate said at least one pouch from the travelling web of adhered films (202, 204), wherein a rotating forming drum includes said film support surface, characterised in that said film support surface includes intersecting generally longitudinal groove portions and generally transverse groove portions, and said rotary blade drum assembly includes intersecting generally longitudinal blade portions and generally transverse blade portions configured for synchronous registration with said generally longitudinal and generally transverse groove portions surrounding said at least one mold configuration.
A computer-implemented method of estimating a sequence of polymer units in a polymer from at least one input series of measurements related to the polymer made during translocation of the polymer through a nanopore, wherein, in the at least one input series of measurements, the values of groups of plural measurements are dependent on the same k-mer, a k-mer being a group of k polymer units where k is a positive, plural integer, without a priori knowledge of number of measurements in the group, the method comprising: providing a model comprising, for a set of possible k-mers: transition weightings representing the chances of transitions from origin k-mers to destination k-mers; and emission weightings in respect of each k-mer that represent the chances of observing given values of measurements for that k-mer; and analysing the at least one input series of measurements using an analytical technique that refers to the model and estimating at least one estimated sequence of polymer units in the polymer based on the likelihood predicted by the model of the input series of measurements being produced by sequences of polymer units. providing a model comprising, for a set of possible k-mers: transition weightings representing the chances of transitions from origin k-mers to destination k-mers; and emission weightings in respect of each k-mer that represent the chances of observing given values of measurements for that k-mer; and transition weightings representing the chances of transitions from origin k-mers to destination k-mers; and emission weightings in respect of each k-mer that represent the chances of observing given values of measurements for that k-mer; and analysing the at least one input series of measurements using an analytical technique that refers to the model and estimating at least one estimated sequence of polymer units in the polymer based on the likelihood predicted by the model of the input series of measurements being produced by sequences of polymer units.
Method for diagnosing an electric actuator connected to a computer, - the electrical actuator comprising a module diagnostic arranged to detect a predetermined number of faults operation of the actuator and deliver for each of these defects a signal representative of the detected defect, - the computer comprising a memory and being designed to write in this memory the fault signal of a number of operating faults of the actuator less than the determined number of faults that the module can detect, characterized in that when a fault not registered by the computer is detected by the module to check, this latter transmits to the computer a sequence in which to succeed alternately regularly on a defect signal whose registration is provided by the computer and the fault signal whose registration is not provided by the computer and the computer records the sequence in the memory. - the electrical actuator comprising a module diagnostic arranged to detect a predetermined number of faults operation of the actuator and deliver for each of these defects a signal representative of the detected defect, - the computer comprising a memory and being designed to write in this memory the fault signal of a number of operating faults of the actuator less than the determined number of faults that the module can detect, characterized in that when a fault not registered by the computer is detected by the module to check, this latter transmits to the computer a sequence in which to succeed alternately regularly on a defect signal whose registration is provided by the computer and the fault signal whose registration is not provided by the computer and the computer records the sequence in the memory.
A form-locking connection consisting of an elastomeric bearing and a sleeve surrounding the circular-cylindrical outer shell of the bearing, wherein introduced into the wall of the hollow-cylindrical sleeve are inwardly projecting imprints which form funnel-like constrictions of the free cross section of the sleeve, seen in the direction of the pressing-in procedure of the elastomeric bearing into the sleeve, and which rest on the outer shell of the elastomeric bearing, characterised in that the imprints engage in at least one channel-shaped recess in the outer shell of the elastomeric bearing, which recess is adapted to the imprints in respect of form and dimensions.