mhurhangee/ep-ind-claims huggingface dataset:
A package (10; 50) for cell-containing material, comprising: an inner bag having an opening for introducing the cell-containing material into the inner bag; an outer bag that contains the inner bag such that the opening faces outward, wherein the periphery of the outer bag is sealed except for an opening; a portion of the opening outside the inner bag is sealed to form an outer bag sealed portion; a portion of the opening overlapping the inner bag is sealed to form an inter-bag sealed portion at which an outer surface of the opening of the inner bag is bonded to an inner surface of the outer bag in contact with the outer surface of the opening of the inner bag while the opening is kept open; a sterile closed space surrounded by an outer surface of the inner bag and the inner surface of the outer bag, wherein the cell-containing material can be delivered through the opening into the inner bag and, after the cell-containing material is put into the inner bag through the opening, inner surfaces of the inner bag in the opening of the inner bag can be heat-sealed to form an inner bag sealed portion, the adhesive strength of the inner bag sealed portion is greater than the adhesive strength of the inter-bag sealed portion, allowing the outer bag to be removed from the inner bag while the closed state of the inner bag is maintained. an inner bag having an opening for introducing the cell-containing material into the inner bag; an outer bag that contains the inner bag such that the opening faces outward, wherein the periphery of the outer bag is sealed except for an opening; a portion of the opening outside the inner bag is sealed to form an outer bag sealed portion; a portion of the opening overlapping the inner bag is sealed to form an inter-bag sealed portion at which an outer surface of the opening of the inner bag is bonded to an inner surface of the outer bag in contact with the outer surface of the opening of the inner bag while the opening is kept open; the periphery of the outer bag is sealed except for an opening; a portion of the opening outside the inner bag is sealed to form an outer bag sealed portion; a portion of the opening overlapping the inner bag is sealed to form an inter-bag sealed portion at which an outer surface of the opening of the inner bag is bonded to an inner surface of the outer bag in contact with the outer surface of the opening of the inner bag while the opening is kept open; a sterile closed space surrounded by an outer surface of the inner bag and the inner surface of the outer bag, wherein the cell-containing material can be delivered through the opening into the inner bag and, after the cell-containing material is put into the inner bag through the opening, inner surfaces of the inner bag in the opening of the inner bag can be heat-sealed to form an inner bag sealed portion, the adhesive strength of the inner bag sealed portion is greater than the adhesive strength of the inter-bag sealed portion, allowing the outer bag to be removed from the inner bag while the closed state of the inner bag is maintained.
High-temperature furnace for T C measurement on a sample, having a furnace housing which bounds a vaporization space and has a sample opening for introducing the sample dropwise, characterized in that the furnace housing is lined with a spinel ceramic on an inner side facing the vaporization space and has at least one flushing opening for introduction of a flushing liquid.
An apparatus comprising a leaflet resection catheter for a Transcatheter Aortic Valve Replacement, TAVR, procedure, the apparatus comprising: a catheter configured at a distal end with a guidewire to deploy the catheter within a vessel lumen to a situs of an aortic valve for leaflet resection; an accessory tool configured with a set of grasping elements (22, 24) attached at the catheter's distal end to enable the accessory tool to travel down the vessel lumen to the situs of the aortic valve to exert a pulling action to draw an aortic valve leaflet in a direction towards the catheter's distal end to draw a portion of the aortic valve leaflet into a protective sleeve of the catheter at the catheter's distal end; and a ring of fibers surrounding the catheter's distal end, said ring of fibers being configured to transmit laser energy to resect tissue that comprises a portion of the aortic valve leaflet drawn into the protective sleeve at the catheter's distal end, wherein the catheter comprises a guidewire lumen for receiving the guidewire and an accessory tool lumen for receiving the accessory tool configured to travel down the accessory tool lumen. a catheter configured at a distal end with a guidewire to deploy the catheter within a vessel lumen to a situs of an aortic valve for leaflet resection; an accessory tool configured with a set of grasping elements (22, 24) attached at the catheter's distal end to enable the accessory tool to travel down the vessel lumen to the situs of the aortic valve to exert a pulling action to draw an aortic valve leaflet in a direction towards the catheter's distal end to draw a portion of the aortic valve leaflet into a protective sleeve of the catheter at the catheter's distal end; and a ring of fibers surrounding the catheter's distal end, said ring of fibers being configured to transmit laser energy to resect tissue that comprises a portion of the aortic valve leaflet drawn into the protective sleeve at the catheter's distal end, wherein the catheter comprises a guidewire lumen for receiving the guidewire and an accessory tool lumen for receiving the accessory tool configured to travel down the accessory tool lumen.
A recombinant, purified, or isolated polypeptide comprising an amino acid sequence selected from (a) the sequence of SEQ ID NO:1; (b) amino acids 20 to 235 of SEQ ID NO:1; (c) a sequence which has greater than 95% amino acid sequence identity with the sequence as defined in (a) or the sequence as defined in (b) and which is an immunogen. (a) the sequence of SEQ ID NO:1; (b) amino acids 20 to 235 of SEQ ID NO:1; (c) a sequence which has greater than 95% amino acid sequence identity with the sequence as defined in (a) or the sequence as defined in (b) and which is an immunogen.
A method for user equipment, UE, feedback of Flow-to-radio access technology, RAT, preferences in a wireless network, the method characterized by: the UE transmitting a preference for Flow-to-RAT mapping to a base station of the wireless network wherein the preference for Flow-to-RAT mappings comprises a table of preferences for a plurality of best-effort UE flows, each best-effort UE flow associated with an indication for a preferred RAT; and the UE receiving a Flow-to-RAT mapping for the plurality of best-effort UE flows from the base station; and the UE dynamically switching to the RAT specified by the received Flow-to-RAT mapping from the base station when a best effort Flow of the Flow-to-RAT mapping is executed. the UE transmitting a preference for Flow-to-RAT mapping to a base station of the wireless network wherein the preference for Flow-to-RAT mappings comprises a table of preferences for a plurality of best-effort UE flows, each best-effort UE flow associated with an indication for a preferred RAT; and the UE receiving a Flow-to-RAT mapping for the plurality of best-effort UE flows from the base station; and the UE dynamically switching to the RAT specified by the received Flow-to-RAT mapping from the base station when a best effort Flow of the Flow-to-RAT mapping is executed.
A microsphere comprising a biocompatible, cross-linked and substantially hydrophilic polymer selected from the group consisting of acrylamide polymers, vinyl alcohol polymers, polysaccharides, silicones, and mixtures thereof and one or more active components comprising doxorubicin, tamoxifen or a combination thereof, wherein the diameter of the microsphere ranges from 10 μm to 400 μm before swelling; for use in active embolization in a mammal.
A computer-implemented method in a distributed computing environment utilizing a processor and memory for geo replicating data in the distributed computing environment, the method comprising: receiving data at a primary data store from a client; writing the data to a log of the primary data store; annotating the data written to the log with a commit ID; communicating an acknowledgement of committal of the data at the primary data store to the client; communicating the data annotated with the commit ID to a log at a secondary data store; receiving an acknowledgement from the secondary data store that the data has been stored at the secondary data store, wherein the commit ID of the message encompasses a unique identifier associated with the data to be committed; and communicating a message with the updated commit ID from the primary data store to the secondary data store; determining if the commit ID of the message authorizes committal of the data at the secondary data store; and committing the data at the secondary data store after the commit ID of the message authorized the committal of the data. receiving data at a primary data store from a client; writing the data to a log of the primary data store; annotating the data written to the log with a commit ID; communicating an acknowledgement of committal of the data at the primary data store to the client; communicating the data annotated with the commit ID to a log at a secondary data store; receiving an acknowledgement from the secondary data store that the data has been stored at the secondary data store, wherein the commit ID of the message encompasses a unique identifier associated with the data to be committed; and communicating a message with the updated commit ID from the primary data store to the secondary data store; determining if the commit ID of the message authorizes committal of the data at the secondary data store; and committing the data at the secondary data store after the commit ID of the message authorized the committal of the data.
A continuous pretreatment process of a ligno-cellulosic feedstock having a starting liquid retention capability and a starting moisture content which is less than a first target range, the process comprising the steps of: a. Providing a slurry of the ligno-cellulosic feedstock; b. Draining by gravity at least a portion of a free liquid of the slurry to produce a drained ligno-cellulosic feedstock containing a capillary liquid; c. Removing a first portion of the capillary liquid in a low pressure zone by compressing a stream of the drained ligno-cellulosic feedstock at a compression ratio in a range of greater than 1:1 to 12:1, to produce a dewatered ligno-cellulosic feedstock stream having a moisture content in the first target range which is from 65% to 85%; d. Removing a second portion of the capillary liquid from the dewatered ligno-cellulosic feedstock stream by shearing and compressing the dewatered ligno-cellulosic feedstock stream in a plug forming device, to form and advance a ligno-cellulosic feedstock plug into a high pressure reactor connected to an outlet of the plug forming device; e. subjecting the lignocellulosic feedstock to a hydrothermal treatment in the presence of water in liquid or steam phase or a mixture thereof at a hydrothermal temperature in the range of 160°C to 250°C for a hydrothermal time in the range of 10 sec to 2 hour to produce a pretreated lignocellulosic feedstock. a. Providing a slurry of the ligno-cellulosic feedstock; b. Draining by gravity at least a portion of a free liquid of the slurry to produce a drained ligno-cellulosic feedstock containing a capillary liquid; c. Removing a first portion of the capillary liquid in a low pressure zone by compressing a stream of the drained ligno-cellulosic feedstock at a compression ratio in a range of greater than 1:1 to 12:1, to produce a dewatered ligno-cellulosic feedstock stream having a moisture content in the first target range which is from 65% to 85%; d. Removing a second portion of the capillary liquid from the dewatered ligno-cellulosic feedstock stream by shearing and compressing the dewatered ligno-cellulosic feedstock stream in a plug forming device, to form and advance a ligno-cellulosic feedstock plug into a high pressure reactor connected to an outlet of the plug forming device; e. subjecting the lignocellulosic feedstock to a hydrothermal treatment in the presence of water in liquid or steam phase or a mixture thereof at a hydrothermal temperature in the range of 160°C to 250°C for a hydrothermal time in the range of 10 sec to 2 hour to produce a pretreated lignocellulosic feedstock.
A climbing shoe comprising: a substantially sock-like shoe-upper which is shaped so as to completely cover the foot of the user; a rear sole made of elastomeric material and which is firmly fixed to the bottom and to the rear part of the shoe-upper; a pair of protective inserts made of elastomeric material and which are substantially seashell-shaped and are firmly fixed on the two lateral sides of the shoe-upper adjacent to the rear sole; and at least one tensioning band (6, 7, 14) made of an elastic material and which is firmly fixed to the shoe-upper so as to tighten the shoe-upper onto the foot of the user; the rear sole being substantially L-shaped so as to have a lower flat portion covering the talus-calcaneal portion of the bottom of the shoe-upper, and an upper flat portion covering the heel portion of the shoe-upper; each protective insert being fixed on the shoe-upper so as to have a first lateral border adjacent to the upper flat portion of the rear sole, and a second lateral border adjacent to the lower flat portion of the rear sole; the climbing shoe being characterized in that at least one of the two protective inserts is shaped so that its first lateral border overlaps and is firmly fixed to a corresponding and complementary lateral border of the upper flat portion of the rear sole.
A hand held field rover survey apparatus, comprising: a support rod having a lower end for engaging a ground surface; a position sensor mounted on the support rod; and a control unit communicated with the position sensor, the control unit including: a position data determination component configured to determine position data using the position sensor to define a surveyed position of the position sensor in relation to a reference system; characterized in that the control unit further includes: a shape fitting component configured to define a shape corresponding to and defined by a series of surveyed positions which are determined with the position data determination component, the shape fitting component configured such that a user may select for at least some of the surveyed positions whether the positions are part of a straight line portion or part of a curved portion of the defined shape; and a shape storing component configured to store in memory the defined shape defined by the shape fitting component. a support rod having a lower end for engaging a ground surface; a position sensor mounted on the support rod; and a control unit communicated with the position sensor, the control unit including: a position data determination component configured to determine position data using the position sensor to define a surveyed position of the position sensor in relation to a reference system; a position data determination component configured to determine position data using the position sensor to define a surveyed position of the position sensor in relation to a reference system; characterized in that the control unit further includes: a shape fitting component configured to define a shape corresponding to and defined by a series of surveyed positions which are determined with the position data determination component, the shape fitting component configured such that a user may select for at least some of the surveyed positions whether the positions are part of a straight line portion or part of a curved portion of the defined shape; and a shape storing component configured to store in memory the defined shape defined by the shape fitting component. a shape fitting component configured to define a shape corresponding to and defined by a series of surveyed positions which are determined with the position data determination component, the shape fitting component configured such that a user may select for at least some of the surveyed positions whether the positions are part of a straight line portion or part of a curved portion of the defined shape; and a shape storing component configured to store in memory the defined shape defined by the shape fitting component.
A method for determining pathology risk scores for a given individual belonging to a final population, the method comprising the steps of: - selection of a prospective cohort from an initial population different from the final population; - estimation of a module of individual relative risk scores of the individual from parameters and variables of the prospective cohort, said module comprising at least one risk score associated with at least one pathology variable; characterized in that the method comprises the steps of: - multiplication of each risk score of the individual relative module by the incidence of each pathology in the final population of the individual; wherein the estimation of a module of individual relative risk scores comprises for each pathology the steps of: - estimation of relative risks (βi) for each individual explanatory parameter (vi) of the cohort and considered as explanatory for this pathology; - construction of a relative risk for each explanatory parameter expressed as exp[βi (vi - mean value of vi)]; - construction of the module of individual relative risk score by multiplying the relative risks for each given pathology variable. - selection of a prospective cohort from an initial population different from the final population; - estimation of a module of individual relative risk scores of the individual from parameters and variables of the prospective cohort, said module comprising at least one risk score associated with at least one pathology variable; - multiplication of each risk score of the individual relative module by the incidence of each pathology in the final population of the individual; - estimation of relative risks (βi) for each individual explanatory parameter (vi) of the cohort and considered as explanatory for this pathology; - construction of a relative risk for each explanatory parameter expressed as exp[βi (vi - mean value of vi)]; - construction of the module of individual relative risk score by multiplying the relative risks for each given pathology variable.
Method for controlling transports of a plurality of workpieces in a modular assembly system with multiple assembly locations, with the steps: - determining respective production data for the workpieces of the plurality of workpieces, wherein the production data includes an indication of a position and a target assembly location for the respective workpiece, - determining transport data based at least on the production data, wherein the transport data is used to assign a respective transport to be carried out to each workpiece of the plurality of workpieces, - determining a first planning data set based on the transport data, wherein an assignment between transport units and transports to be carried out is generated by distributing a plurality of transport units to the transports to be carried out according to a prespecified policy, - generating a plurality of second planning data sets (11, 12) from the first planning data set by respectively different recombination of the assignment between the transport units and the transports to be carried out, - selecting a selected of the second planning data sets (11, 12) according to a prespecified evaluation criterion, and - controlling the transport of the plurality of workpieces by the transport units according to the selected second planning data set (11, 12). - determining respective production data for the workpieces of the plurality of workpieces, wherein the production data includes an indication of a position and a target assembly location for the respective workpiece, - determining transport data based at least on the production data, wherein the transport data is used to assign a respective transport to be carried out to each workpiece of the plurality of workpieces, - determining a first planning data set based on the transport data, wherein an assignment between transport units and transports to be carried out is generated by distributing a plurality of transport units to the transports to be carried out according to a prespecified policy, - generating a plurality of second planning data sets (11, 12) from the first planning data set by respectively different recombination of the assignment between the transport units and the transports to be carried out, - selecting a selected of the second planning data sets (11, 12) according to a prespecified evaluation criterion, and - controlling the transport of the plurality of workpieces by the transport units according to the selected second planning data set (11, 12).
A method of tooling fixture calibration for determining deviation introduced into a panel during manufacturing, wherein the panel comprises an outer surface and an inner surface, the method comprising: performing a first scan to create a first three-dimensional surface scan of the inner surface of the panel while the panel is secured to a tooling fixture, wherein the tooling fixture is configured to support the panel during forming of the panel such that the outer surface of the panel faces the tooling fixture; removing the panel from the tooling fixture, wherein removing the panel is performed after performing the first scan; securing the panel to a header structure configured to hold the panel at a nominal configuration, thereby holding the panel at the nominal configuration, wherein the nominal configuration corresponds to a size and shape of the panel, as-designed; performing a second scan to create a second 3D surface scan of the inner surface of the panel while the panel is held at the nominal configuration by the header structure; and determining a deformation function corresponding to deviation between the first 3D surface scan and the second 3D surface scan. performing a first scan to create a first three-dimensional surface scan of the inner surface of the panel while the panel is secured to a tooling fixture, wherein the tooling fixture is configured to support the panel during forming of the panel such that the outer surface of the panel faces the tooling fixture; removing the panel from the tooling fixture, wherein removing the panel is performed after performing the first scan; securing the panel to a header structure configured to hold the panel at a nominal configuration, thereby holding the panel at the nominal configuration, wherein the nominal configuration corresponds to a size and shape of the panel, as-designed; performing a second scan to create a second 3D surface scan of the inner surface of the panel while the panel is held at the nominal configuration by the header structure; and determining a deformation function corresponding to deviation between the first 3D surface scan and the second 3D surface scan.