mhurhangee/patent-ind-claim-en huggingface dataset:
A method of operating a data processing system wherein at least one previously defined generic computer program parameterized by one or more parameters is configured via a user interface defined at least in part according to a recorded configuration template , the data processing system comprising execution time data and a plurality of configuration controls including at least a first configuration control and a second configuration control, the first and second configuration controls comprising at least user interface portions and operational portions , the method comprising: dynamically generating the user interface so as to enable a user to configure an instance of the at least one generic program by: rendering, according to the configuration template , a first user interface based on the user interface portion of the first configuration control; receiving first user input through the first user interface, the first user input providing values for at least one of the one or more parameters for the instance of the at least one generic program ; identifying the second configuration control from a set of configuration controls based at least in part on evaluating at least part of the operational portion of the first configuration control, said evaluation being based at least in part on the execution time data, the execution time data being data defined at execution time and including at least one environment variable, and said evaluation comprising evaluating the current value of the at least one environment variable; rendering a second user interface based on the user interface portion of the identified second configuration control; and receiving second user input through the second user interface, the second user input providing values for at least one of the one or more parameters for the instance of the at least one generic program. rendering, according to the configuration template , a first user interface based on the user interface portion of the first configuration control; receiving first user input through the first user interface, the first user input providing values for at least one of the one or more parameters for the instance of the at least one generic program ; identifying the second configuration control from a set of configuration controls based at least in part on evaluating at least part of the operational portion of the first configuration control, said evaluation being based at least in part on the execution time data, the execution time data being data defined at execution time and including at least one environment variable, and said evaluation comprising evaluating the current value of the at least one environment variable; rendering a second user interface based on the user interface portion of the identified second configuration control; and receiving second user input through the second user interface, the second user input providing values for at least one of the one or more parameters for the instance of the at least one generic program.
A production method of a (meth)acrylic resin composition, comprising: continuously feeding reaction starting materials to a tank reactor, the reaction starting materials comprising a polymerizable monomer component, a chain transfer agent and a radical polymerization initiator, the polymerizable monomer component comprising 50 to 100% by mass of methyl methacrylate, 0 to 20% by mass of an acrylic acid alkyl ester and 0 to 30% by mass of an additional monomer; conducting bulk polymerization of the polymerizable monomer component at a polymerization conversion ratio of 40 to 70% by mass to obtain a liquid containing a (meth)acrylic resin; continuously feeding the resulting liquid to a vented extruder to separate volatile component from the (meth)acrylic resin; conducting distillation using an atmospheric distillation column to separate the resulting volatile component into a high boiling fraction (C 1 ) and a low boiling fraction (A 1 ); conducting distillation using a vacuum distillation column having a pressure of -50 kPaG to -101 kPaG at the top of the vacuum distillation column to separate the high boiling fraction (C 1 ) into a high boiling fraction (C 2 ) and a low boiling fraction (A 2 ); and reusing the low boiling fraction (A 1 ) and the low boiling fraction (A 2 ) as part of the reaction starting materials; wherein the high boiling fraction (C 1 ) is discharged from the bottom of the atmospheric distillation column and is continuously fed to the vacuum distillation column; and the high boiling fraction (C 1 ) is fed to an intermediate plate of the vacuum distillation column. continuously feeding reaction starting materials to a tank reactor, the reaction starting materials comprising a polymerizable monomer component, a chain transfer agent and a radical polymerization initiator, the polymerizable monomer component comprising 50 to 100% by mass of methyl methacrylate, 0 to 20% by mass of an acrylic acid alkyl ester and 0 to 30% by mass of an additional monomer; conducting bulk polymerization of the polymerizable monomer component at a polymerization conversion ratio of 40 to 70% by mass to obtain a liquid containing a (meth)acrylic resin; continuously feeding the resulting liquid to a vented extruder to separate volatile component from the (meth)acrylic resin; conducting distillation using an atmospheric distillation column to separate the resulting volatile component into a high boiling fraction (C 1 ) and a low boiling fraction (A 1 ); conducting distillation using a vacuum distillation column having a pressure of -50 kPaG to -101 kPaG at the top of the vacuum distillation column to separate the high boiling fraction (C 1 ) into a high boiling fraction (C 2 ) and a low boiling fraction (A 2 ); and reusing the low boiling fraction (A 1 ) and the low boiling fraction (A 2 ) as part of the reaction starting materials; wherein the high boiling fraction (C 1 ) is discharged from the bottom of the atmospheric distillation column and is continuously fed to the vacuum distillation column; and the high boiling fraction (C 1 ) is fed to an intermediate plate of the vacuum distillation column.
A method for a client device in a network , comprising: registering to the network ; obtaining at least a user plane key shared with a user plane network function implemented at a first network node or a control plane key shared with a control plane network function implemented at a second network node ; and protecting a data packet with the user plane key or a control packet with the control plane key , wherein the data packet includes first destination information indicating that the data packet is to be processed at the first network node , the first destination information enabling a network access node to forward the data packet to the first network node , and wherein the control packet includes second destination information indicating that the control packet is to be processed at the second network node , the second destination information enabling the network access node to forward the control packet to the second network node ; transmitting the protected data packet or the protected control packet and an encrypted client device context within a message to the network , wherein the encrypted client device context includes at least the user plane key or the control plane key and enables reconstruction of at least a security context at the network for the client device, wherein the security context enables processing of the protected data packet or the protected control packet at the network . registering to the network ; obtaining at least a user plane key shared with a user plane network function implemented at a first network node or a control plane key shared with a control plane network function implemented at a second network node ; and protecting a data packet with the user plane key or a control packet with the control plane key , wherein the data packet includes first destination information indicating that the data packet is to be processed at the first network node , the first destination information enabling a network access node to forward the data packet to the first network node , and wherein the control packet includes second destination information indicating that the control packet is to be processed at the second network node , the second destination information enabling the network access node to forward the control packet to the second network node ; transmitting the protected data packet or the protected control packet and an encrypted client device context within a message to the network , wherein the encrypted client device context includes at least the user plane key or the control plane key and enables reconstruction of at least a security context at the network for the client device, wherein the security context enables processing of the protected data packet or the protected control packet at the network .
A variant polypeptide having kaurenoic acid 13-hydroxylase activity, which variant polypeptide has at least 70% sequence identity with SEQ ID NO: 1 and comprises an amino acid sequence which, when aligned with a kaurenoic acid 13-hydroxylase comprising the sequence set out in SEQ ID NO: 1, comprises at least one substitution, said substitution being at an amino acid residue corresponding to amino acid position 129, said position being defined with reference to SEQ ID NO: 1 and wherein the variant is capable of increasing production of steviol and/or steviol glycoside in a recombinant host capable of the production of said steviol and/or steviol glycoside as compared with a recombinant host capable of production of steviol and/or steviol glycoside which expresses a reference polypeptide having kaurenoic acid 13-hydroxylase activity as set forth in SEQ ID NO: 1.
A hybrid adjunct material for use with a surgical stapler, comprising: a biologic layer ; a synthetic layer having opposed first and second surfaces , the first surface being mated to the biologic layer and the second surface being configured to mate to a surgical stapler, the synthetic layer having a lattice structure with one or more openings formed therein and configured to allow biologic material from the biologic layer to pass therethrough, and a self-sealing port in fluid communication with the biologic layer , the port being configured to permit delivery of patient-derived material to the biologic layer , wherein at least one of the biologic layer and the synthetic layer is configured to form a seal around legs of a staple. a biologic layer ; a synthetic layer having opposed first and second surfaces , the first surface being mated to the biologic layer and the second surface being configured to mate to a surgical stapler, the synthetic layer having a lattice structure with one or more openings formed therein and configured to allow biologic material from the biologic layer to pass therethrough, and a self-sealing port in fluid communication with the biologic layer , the port being configured to permit delivery of patient-derived material to the biologic layer , wherein at least one of the biologic layer and the synthetic layer is configured to form a seal around legs of a staple.
An in situ method of determining a location of a target polynucleotide in a sample, comprising: (a) attaching the sample affixed to a support to a first microfluidic device having multiple first addressing channels, wherein a first addressing channel identifies a first area in the sample; (b) delivering a first probe through the first addressing channel to the first area in the sample, wherein the first probe comprises (i) a sequence that is at least 80% complementary to at least a portion of a target polynucleotide, (ii) a first address tag that identifies the first area in the sample, and (iii) a first ligation region; (c) attaching the sample affixed to the support to a second microfluidic device having multiple second addressing channels, wherein a second addressing channel identifies in the sample a second area that intersects with the first area at an angle greater than 0 degree, e.g., about 90 degrees, about 80 degrees, about 70 degrees, about 60 degrees, about 50 degrees, about 40 degrees, about 30 degrees, about 20 degrees, or about 10 degrees; and (d) delivering a second probe through the second addressing channel to the second area in the sample, wherein the second probe comprises (i) a second address tag that identifies the second area in the sample and (ii) a second ligation region, wherein the second probe is coupled to the first probe through ligation between the first and second ligation regions at an intersection between the first area and the second area, and the first and second address tags are used to identify the location of the target polynucleotide at the intersection in the sample. (a) attaching the sample affixed to a support to a first microfluidic device having multiple first addressing channels, wherein a first addressing channel identifies a first area in the sample; (b) delivering a first probe through the first addressing channel to the first area in the sample, wherein the first probe comprises (i) a sequence that is at least 80% complementary to at least a portion of a target polynucleotide, (ii) a first address tag that identifies the first area in the sample, and (iii) a first ligation region; (c) attaching the sample affixed to the support to a second microfluidic device having multiple second addressing channels, wherein a second addressing channel identifies in the sample a second area that intersects with the first area at an angle greater than 0 degree, e.g., about 90 degrees, about 80 degrees, about 70 degrees, about 60 degrees, about 50 degrees, about 40 degrees, about 30 degrees, about 20 degrees, or about 10 degrees; and (d) delivering a second probe through the second addressing channel to the second area in the sample, wherein the second probe comprises (i) a second address tag that identifies the second area in the sample and (ii) a second ligation region, wherein the second probe is coupled to the first probe through ligation between the first and second ligation regions at an intersection between the first area and the second area, and the first and second address tags are used to identify the location of the target polynucleotide at the intersection in the sample.
An insertion-locking pin and grommet fastener comprising: a grommet defining a central aperture with at least two adjacent longitudinally extending leg members ; a pin having a first locking member in the form of one of a recess and a protrusion that engages a first cooperating locking member of the grommet in the form of an opposite one of a recess and a protrusion to retain the pin in a first position relative to the grommet in which the longitudinally extending leg members of the grommet are in a laterally unexpanded state; the grommet and the pin being separate components, respectively, wherein the pin can be inserted into the central aperture of the grommet ; the pin having a second locking member in the form of a second protrusion that engages the at least two adjacent longitudinally extending leg members to retain the pin in a second position relative to the grommet in which the longitudinally extending leg members of the grommet are in a laterally expanded state; characterised in that the pin has a laterally extending driving protrusion , wherein during insertion of the pin and grommet into a joining aperture of a joining part, the driving protrusion automatically engages a periphery of the joining aperture to drive the pin from the first position relative to the grommet to the second position relative to the grommet to lock the pin and grommet to the joining part. a grommet defining a central aperture with at least two adjacent longitudinally extending leg members ; a pin having a first locking member in the form of one of a recess and a protrusion that engages a first cooperating locking member of the grommet in the form of an opposite one of a recess and a protrusion to retain the pin in a first position relative to the grommet in which the longitudinally extending leg members of the grommet are in a laterally unexpanded state; the grommet and the pin being separate components, respectively, wherein the pin can be inserted into the central aperture of the grommet ; the pin having a second locking member in the form of a second protrusion that engages the at least two adjacent longitudinally extending leg members to retain the pin in a second position relative to the grommet in which the longitudinally extending leg members of the grommet are in a laterally expanded state; characterised in that the pin has a laterally extending driving protrusion , wherein during insertion of the pin and grommet into a joining aperture of a joining part, the driving protrusion automatically engages a periphery of the joining aperture to drive the pin from the first position relative to the grommet to the second position relative to the grommet to lock the pin and grommet to the joining part.
An oven comprising: a main body having a cooking compartment ; and a door configured to open and close, and thereby open and close, respectively, the cooking compartment , the door including: a window configured to provide a view of an inside of the cooking compartment from an outside of the cooking compartment when the door is closed; a door frame having an opening forming the window and the door frame including a front frame , a rear frame and a middle frame disposed between the front frame and the rear frame ; a light emitting member fixed at the middle frame to emit light; an opening formed as a hole in the middle frame at the fixing position of the light emitting member to transmit light from the light emitting member therethrough; and a guide member disposed to pass through the opening in the middle frame to guide the emitted light from the light emitting member toward the inside of the cooking compartment . a main body having a cooking compartment ; and a door configured to open and close, and thereby open and close, respectively, the cooking compartment , the door including: a window configured to provide a view of an inside of the cooking compartment from an outside of the cooking compartment when the door is closed; a door frame having an opening forming the window and the door frame including a front frame , a rear frame and a middle frame disposed between the front frame and the rear frame ; a light emitting member fixed at the middle frame to emit light; an opening formed as a hole in the middle frame at the fixing position of the light emitting member to transmit light from the light emitting member therethrough; and a guide member disposed to pass through the opening in the middle frame to guide the emitted light from the light emitting member toward the inside of the cooking compartment . a window configured to provide a view of an inside of the cooking compartment from an outside of the cooking compartment when the door is closed; a door frame having an opening forming the window and the door frame including a front frame , a rear frame and a middle frame disposed between the front frame and the rear frame ; a light emitting member fixed at the middle frame to emit light; an opening formed as a hole in the middle frame at the fixing position of the light emitting member to transmit light from the light emitting member therethrough; and a guide member disposed to pass through the opening in the middle frame to guide the emitted light from the light emitting member toward the inside of the cooking compartment .
A process for preparing a carbon molecular sieve membrane from a polyimide for separation of hydrogen and ethylene from one another comprising sequential steps as follows: a) placing a membrane fabricated from hollow fibers of a polyimide which is 6FDA/BPDA-DAM in contact with an oxygen-containing atmosphere or gas at a temperature within a range of from 340 °C to 380 °C and for a time within that temperature range of from five minutes up to 200 hours to produce a pre-oxidized and pre-carbonized polymeric membrane that is insoluble in N-methylpyrrolidone at a temperature of 110 °C and free of substructure collapse; wherein 6FDA is 5,5'-[2,2,2-trifluoro-1-(trifluoromethyl)ethylidene]bis-1,3-isobenzofurandione , BPDA is 3,3',4,4'-biphenyl tetracarboxylic dianhydride, and DAM is 2,4,6-trimethyl-1,3-phenylene diamine, wherein 6FDA and BPDA are present in a molar ratio in a range of from 10:1 to 1:10, wherein the polyimide i) has a glass transition temperature (T g ) of at least 400 °C and ii) includes a bridged phenyl compound; and b) pyrolyzing the pre-oxidized and pre-carbonized polymeric membrane in the presence of a purge gas at a temperature within a range of from 450 °C to 1000 °C and for a time within a range of from 1 minute to 100 hours, to yield a carbon molecular sieve membrane that has at least one of a hydrogen permeance and a hydrogen/ethylene selectivity greater than that of a carbon molecular sieve membrane prepared from the same membrane using only pyrolysis as in step b). a) placing a membrane fabricated from hollow fibers of a polyimide which is 6FDA/BPDA-DAM in contact with an oxygen-containing atmosphere or gas at a temperature within a range of from 340 °C to 380 °C and for a time within that temperature range of from five minutes up to 200 hours to produce a pre-oxidized and pre-carbonized polymeric membrane that is insoluble in N-methylpyrrolidone at a temperature of 110 °C and free of substructure collapse; wherein 6FDA is 5,5'-[2,2,2-trifluoro-1-(trifluoromethyl)ethylidene]bis-1,3-isobenzofurandione , BPDA is 3,3',4,4'-biphenyl tetracarboxylic dianhydride, and DAM is 2,4,6-trimethyl-1,3-phenylene diamine, wherein 6FDA and BPDA are present in a molar ratio in a range of from 10:1 to 1:10, wherein the polyimide i) has a glass transition temperature (T g ) of at least 400 °C and ii) includes a bridged phenyl compound; and i) has a glass transition temperature (T g ) of at least 400 °C and ii) includes a bridged phenyl compound; b) pyrolyzing the pre-oxidized and pre-carbonized polymeric membrane in the presence of a purge gas at a temperature within a range of from 450 °C to 1000 °C and for a time within a range of from 1 minute to 100 hours, to yield a carbon molecular sieve membrane that has at least one of a hydrogen permeance and a hydrogen/ethylene selectivity greater than that of a carbon molecular sieve membrane prepared from the same membrane using only pyrolysis as in step b).
Self-aligned metal mask assembly for selectively depositing thin films of material on microelectronic substrates and devices , characterised in that it consists of: a) an upper metal mask , which comprises orifices which define patterns to be deposited on the device or substrate and centring holes ; b) a lower metal mask , which comprises orifices of the same size and shape as the devices or substrates whereon one wishes to deposit the material and centring holes and screw holes ; c) b1) substrate placed inside orifice ; d) a base piece which comprises rods which correspond to the centring holes which centre the upper metal mask with the lower metal mask ; and e) an upper frame , which comprises centring holes and holes which secure and maintain the assembly , aligned by means of screws ; wherein the lower metal mask has a thickness equal to or thicker than the thickness of the substrate in such a way that said thickness of the lower mask defines a separation distance between the substrate and the upper metal mask . a) an upper metal mask , which comprises orifices which define patterns to be deposited on the device or substrate and centring holes ; b) a lower metal mask , which comprises orifices of the same size and shape as the devices or substrates whereon one wishes to deposit the material and centring holes and screw holes ; c) b1) substrate placed inside orifice ; d) a base piece which comprises rods which correspond to the centring holes which centre the upper metal mask with the lower metal mask ; and e) an upper frame , which comprises centring holes and holes which secure and maintain the assembly , aligned by means of screws ;