mhurhangee/ep-ind-claims huggingface dataset:
A method for enhancing application reliability of a script-based service, comprising: analyzing data source information of the script-based service; obtaining current state information of a data source of the script-based service according to the analysis result; determining an availability state of the script-based service according to the obtained current state information; and performing conversion matching on the current state information of the script-based service according to a state information conversion rule, when determining that the availability state of the script-based service is unavailable according to the obtained current state information and receiving the state information conversion rule reported by a service access management system, marking the availability state of the script-based service as available when the conversion matching succeeds, and marking the availability state of the script-based service as unavailable when the conversion matching fails, wherein the state information conversion rule includes: converting an invalid address and interface of the state information into an updated address and interface. analyzing data source information of the script-based service; obtaining current state information of a data source of the script-based service according to the analysis result; determining an availability state of the script-based service according to the obtained current state information; and performing conversion matching on the current state information of the script-based service according to a state information conversion rule, when determining that the availability state of the script-based service is unavailable according to the obtained current state information and receiving the state information conversion rule reported by a service access management system, marking the availability state of the script-based service as available when the conversion matching succeeds, and marking the availability state of the script-based service as unavailable when the conversion matching fails, wherein the state information conversion rule includes: converting an invalid address and interface of the state information into an updated address and interface.
A method for use at a network node, the method comprising: establishing a neighboring node relationship with one or more neighboring nodes using Resource Reservation Protocol, RSVP, HELLO message exchange; in a first mode of operation with respect to a neighboring node, using HELLO messages to determine that the neighboring node is in a failed state; in response to receiving HELLO suppression active indicia from said neighboring node, wherein said node and said neighboring node support a common path using a Bi-directional Forwarding Detection, BFD, mechanism, entering a second mode of operation with respect to said neighboring node; in said second mode of operation with respect to said neighboring node, suppressing transmission of HELLO messages toward said neighboring node, and using said BFD mechanism to determine that said neighboring node is in a failed state. establishing a neighboring node relationship with one or more neighboring nodes using Resource Reservation Protocol, RSVP, HELLO message exchange; in a first mode of operation with respect to a neighboring node, using HELLO messages to determine that the neighboring node is in a failed state; in response to receiving HELLO suppression active indicia from said neighboring node, wherein said node and said neighboring node support a common path using a Bi-directional Forwarding Detection, BFD, mechanism, entering a second mode of operation with respect to said neighboring node; in said second mode of operation with respect to said neighboring node, suppressing transmission of HELLO messages toward said neighboring node, and using said BFD mechanism to determine that said neighboring node is in a failed state.
A sheet comprising: a base layer; a foamed layer formed on the base layer; a printed layer formed on the foamed layer; and a partially foamed layer formed on the printed layer, wherein at least one layer of the foamed layer and the partially foamed layer comprises an amorphous polylactic acid, a-PLA, resin. a base layer; a foamed layer formed on the base layer; a printed layer formed on the foamed layer; and a partially foamed layer formed on the printed layer, wherein at least one layer of the foamed layer and the partially foamed layer comprises an amorphous polylactic acid, a-PLA, resin.
Method for installation of a pipe based system comprising pipe lengths and coupling components, wherein the method comprises the steps: pre-assembling the pipe system loosely by assembling pipe lengths and coupling components by inserting pipe lengths into coupling components, the coupling components comprising openings containing at least two sealing elements spaced axially apart and positioned so as to allow axial adjustment in or out and twisting of the pipe lengths, and elastic rigidity adapted so as to hold the pipe length in place and in orientation whilst an axial pipe length position in the coupling component easily can be adjusted, conducting sufficient clamping or attachments to the surrounding walls, ceilings or floors by using first clamps, so that the pipe system is self-supporting in the intended position and such that the assemblage of the components easily can be adjusted by a technician, adjusting the components of the pipe system into the intended position, so that the pipe system is basically without any inherent tensions, attaching or clamping the pipe system further onto to the surrounding walls, ceilings or floors by using second clamps, and permanently joining the pipe lengths and coupling components. pre-assembling the pipe system loosely by assembling pipe lengths and coupling components by inserting pipe lengths into coupling components, the coupling components comprising openings containing at least two sealing elements spaced axially apart and positioned so as to allow axial adjustment in or out and twisting of the pipe lengths, and elastic rigidity adapted so as to hold the pipe length in place and in orientation whilst an axial pipe length position in the coupling component easily can be adjusted, conducting sufficient clamping or attachments to the surrounding walls, ceilings or floors by using first clamps, so that the pipe system is self-supporting in the intended position and such that the assemblage of the components easily can be adjusted by a technician, adjusting the components of the pipe system into the intended position, so that the pipe system is basically without any inherent tensions, attaching or clamping the pipe system further onto to the surrounding walls, ceilings or floors by using second clamps, and permanently joining the pipe lengths and coupling components.
An artificial urinary sphincter system comprising: a pump attachable with tubing between a pressure regulating reservoir and a cuff, the cuff configured for placement around a portion of a urethra and comprising: a rigid frame with two inflatable balloons (132a, 132b) attached to the rigid frame, a gap formed from a top edge to a bottom edge of the rigid frame providing the rigid frame with a C-shaped conformation in lateral cross-section having a first lateral section separated from a second lateral section; and those two inflatable balloons (132a, 132b) attached to the rigid frame with a first inflatable balloon attached to an interior surface of the first lateral section and a second inflatable balloon attached to an interior surface of the second lateral section of the rigid frame, wherein the first inflatable balloon is attached to the interior surface from a first end of the gap over a first quadrant of the rigid frame, and the second inflatable balloon is attached to the interior surface from a second end of the gap over a second quadrant of the rigid frame. a rigid frame with two inflatable balloons (132a, 132b) attached to the rigid frame, a gap formed from a top edge to a bottom edge of the rigid frame providing the rigid frame with a C-shaped conformation in lateral cross-section having a first lateral section separated from a second lateral section; and those two inflatable balloons (132a, 132b) attached to the rigid frame with a first inflatable balloon attached to an interior surface of the first lateral section and a second inflatable balloon attached to an interior surface of the second lateral section of the rigid frame, wherein the first inflatable balloon is attached to the interior surface from a first end of the gap over a first quadrant of the rigid frame, and the second inflatable balloon is attached to the interior surface from a second end of the gap over a second quadrant of the rigid frame.
A valve block (350, 350a) comprising: at least one flow direction switching means (22, 23, 25) including a valve body that selectively switches between conductions of a fluid; flow rate control means capable of adjusting a flow rate of the fluid; a first pipe (305, 307) and a second pipe (306, 308), switched by the flow direction switching means (22, 23, 25), allowing the fluid to be conveyed therethrough; and a third pipe (301, 302) that selectively communicates with the first pipe (305, 307) or the second pipe (306, 308), the flow direction switching means (22, 23, 25), the flow rate control means, the first pipe (305, 307), the second pipe (306, 308), and the third pipe (301, 302) being connected to each other, wherein one end of each of the first pipe (305, 307) and the second pipe is female-like and the other end thereof is male-like which is coupleable to another female-like end. at least one flow direction switching means (22, 23, 25) including a valve body that selectively switches between conductions of a fluid; flow rate control means capable of adjusting a flow rate of the fluid; a first pipe (305, 307) and a second pipe (306, 308), switched by the flow direction switching means (22, 23, 25), allowing the fluid to be conveyed therethrough; and a third pipe (301, 302) that selectively communicates with the first pipe (305, 307) or the second pipe (306, 308), the flow direction switching means (22, 23, 25), the flow rate control means, the first pipe (305, 307), the second pipe (306, 308), and the third pipe (301, 302) being connected to each other, wherein one end of each of the first pipe (305, 307) and the second pipe is female-like and the other end thereof is male-like which is coupleable to another female-like end.
A volatile composition comprising: an alkyl cellulose having such a viscosity that a viscosity at 20°C of a 1% by weight aqueous solution of the alkyl cellulose is 4,000 to 11,000 mPa·s as determined by a Brookfield viscometer and having such a storage elastic modulus that a storage elastic modulus G'(65°C) at 65°C of a 1.5% by weight aqueous solution of the alkyl cellulose is 3,000 to 4,500 Pa; a volatile substance selected from the group consisting of an aroma ingredient, an insecticidal ingredient, an insect control ingredient, and an insect repellent ingredient; and a solvent selected from water, alcohol solvents and glycol ether solvents. an alkyl cellulose having such a viscosity that a viscosity at 20°C of a 1% by weight aqueous solution of the alkyl cellulose is 4,000 to 11,000 mPa·s as determined by a Brookfield viscometer and having such a storage elastic modulus that a storage elastic modulus G'(65°C) at 65°C of a 1.5% by weight aqueous solution of the alkyl cellulose is 3,000 to 4,500 Pa; a volatile substance selected from the group consisting of an aroma ingredient, an insecticidal ingredient, an insect control ingredient, and an insect repellent ingredient; and a solvent selected from water, alcohol solvents and glycol ether solvents.
A system associated with a sensing roll and a mating roll for collecting roll data of the mating roll, the system comprising: a plurality of sensors located at axially spaced-apart locations of the sensing roll, wherein each sensor enters a region of a nip between the sensing roll and the mating roll during each rotation of the sensing roll to generate a respective sensor signal; and a processor to receive the respective sensor signal generated by each sensor and, upon receiving the respective sensor signal, the processor operates to: determine a particular one of the plurality of sensors which generated the respective sensor signal, based upon a rotational position of the mating roll relative to a reference position, determine which one of a plurality of circumferential tracking segments of the mating roll is in the nip region when the particular sensor enters the region of the nip, and store the respective sensor signal to associate the respective sensor signal with the determined one tracking segment. a plurality of sensors located at axially spaced-apart locations of the sensing roll, wherein each sensor enters a region of a nip between the sensing roll and the mating roll during each rotation of the sensing roll to generate a respective sensor signal; and a processor to receive the respective sensor signal generated by each sensor and, upon receiving the respective sensor signal, the processor operates to: determine a particular one of the plurality of sensors which generated the respective sensor signal, based upon a rotational position of the mating roll relative to a reference position, determine which one of a plurality of circumferential tracking segments of the mating roll is in the nip region when the particular sensor enters the region of the nip, and store the respective sensor signal to associate the respective sensor signal with the determined one tracking segment. determine a particular one of the plurality of sensors which generated the respective sensor signal, based upon a rotational position of the mating roll relative to a reference position, determine which one of a plurality of circumferential tracking segments of the mating roll is in the nip region when the particular sensor enters the region of the nip, and store the respective sensor signal to associate the respective sensor signal with the determined one tracking segment.
A system (100,200) for forming an optical fiber (122,216) in a low gravity environment, where g≤10 -2 G for 2 or more minutes, the system (100,200) comprising: a preform holder (125, 206) configured to secure a preform (115,204); a heating element (135,209) secured to a heating element stage and residing adjacent the preform holder (125, 206); a heating element stage motor configured to move the heating element stage; a tension sensor; a spool (165,220); a spool tension motor coupled to the spool (165,220) and configured to rotate the spool (165,220); and a control system communicably coupled to the heating element stage motor and the spool tension motor and configured to control the movement of the heating element stage based on a rotational speed of the spool (165,220). a preform holder (125, 206) configured to secure a preform (115,204); a heating element (135,209) secured to a heating element stage and residing adjacent the preform holder (125, 206); a heating element stage motor configured to move the heating element stage; a tension sensor; a spool (165,220); a spool tension motor coupled to the spool (165,220) and configured to rotate the spool (165,220); and a control system communicably coupled to the heating element stage motor and the spool tension motor and configured to control the movement of the heating element stage based on a rotational speed of the spool (165,220).
A control system for controlling a vehicle, the control system capable of performing arithmetic and logic operations, the control system comprising: at least two controllers (100, 200) for controlling the vehicle, including a first controller comprising at least a microprocessor that controls at least some vehicle functions and provides object supervisory control and a second controller comprising at least a microprocessor that controls at least some unmanned robotic vehicle operations, the second controller comprising a vehicle guidance module, at least one interface layer for translating information (411, 511) that is communicated between the first and second controllers (100, 200), the interface layer arranged to take the high-level processing information from the second controller and break it down to low-level commands for the first controller which are simulating operator actions, the first controller then translating the low-level commands into commands that can provide vehicle control; wherein the vehicle guidance module is arranged to receive information about the vehicle including control feedback, vehicle state information and vehicle specific information from the first controller via the interface layer; and the first controller is capable of providing control for the vehicle sufficient to move the vehicle by manual operator control if the second controller is incapable of normal operation. at least two controllers (100, 200) for controlling the vehicle, including a first controller comprising at least a microprocessor that controls at least some vehicle functions and provides object supervisory control and a second controller comprising at least a microprocessor that controls at least some unmanned robotic vehicle operations, the second controller comprising a vehicle guidance module, at least one interface layer for translating information (411, 511) that is communicated between the first and second controllers (100, 200), the interface layer arranged to take the high-level processing information from the second controller and break it down to low-level commands for the first controller which are simulating operator actions, the first controller then translating the low-level commands into commands that can provide vehicle control; wherein the vehicle guidance module is arranged to receive information about the vehicle including control feedback, vehicle state information and vehicle specific information from the first controller via the interface layer; and the first controller is capable of providing control for the vehicle sufficient to move the vehicle by manual operator control if the second controller is incapable of normal operation.
An impeller of a centrifugal compressor, the impeller comprising: a plurality of full blades provided from a fluid inlet side to a fluid outlet side on the hub surface, the full blades being provided side by side; a plurality of splitter blades provided in a flow passage formed between a pair of the mutual adjacent full blades from a part way of the flow passage to the outlet side, wherein a throat is formed so that a distance from a leading edge of a rear side full blade located on the rear side of the rotation direction of the compressor to a front side full blade adjacent to the rear side full blade and located on the front side of the rotation direction is minimized, and the leading edge of the splitter blade is placed in a fluid flow streaming along the flow passage between the full blades, on the downstream side of a leakage vortex line formed to connect the middle location of the throat to the leading edge of the front side full blade; wherein a tip end side in the blade height direction of the leading edge of the splitter blade is inclined toward the front side full blade; characterized in that the inclination angle toward the front side full blade is increased by 5 to 8 degrees with regard to the inclination angle along the rear side full blade. a plurality of full blades provided from a fluid inlet side to a fluid outlet side on the hub surface, the full blades being provided side by side; a plurality of splitter blades provided in a flow passage formed between a pair of the mutual adjacent full blades from a part way of the flow passage to the outlet side, wherein a throat is formed so that a distance from a leading edge of a rear side full blade located on the rear side of the rotation direction of the compressor to a front side full blade adjacent to the rear side full blade and located on the front side of the rotation direction is minimized, and the leading edge of the splitter blade is placed in a fluid flow streaming along the flow passage between the full blades, on the downstream side of a leakage vortex line formed to connect the middle location of the throat to the leading edge of the front side full blade; wherein a tip end side in the blade height direction of the leading edge of the splitter blade is inclined toward the front side full blade; characterized in that the inclination angle toward the front side full blade is increased by 5 to 8 degrees with regard to the inclination angle along the rear side full blade.
A method of detecting a predisposition to, or the incidence of, gastrointestinal cancer in a sample comprising detecting an epigenetic change in at least JAM3 and optionally also at least one gene selected from an NDRG4/NDRG2 subfamily gene, GATA4, OSMR, GATA5, SFRP1, ADAM23, JPH3, SFRP2, APC, MGMT, TFPI2, BNIP3, FOXE1, SYNE1, SOX17 and PHACTR3, wherein detection of the epigenetic change is indicative of a predisposition to, or the incidence of, gastrointestinal cancer, wherein the epigenetic change is methylation.
An emission treatment system for treatment of an exhaust stream comprising NOx and particulate matter, the emission treatment system comprising: a) an oxidation catalyst; b) an injector in fluid communication with and downstream of the oxidation catalyst, wherein the injector periodically meters ammonia or an ammonia precursor into the exhaust stream; and, c) a wall flow monolith in fluid communication with and downstream of the injector, wherein the wall flow monolith has a plurality of longitudinally extending passages formed by longitudinally extending walls bounding and defining said passages, wherein the passages comprise inlet passages having an open inlet end and a closed outlet end, and outlet passages having a closed inlet end and an open outlet end, wherein the wall flow monolith has a porosity of at least 50% with an average pore size of at least 5 microns; wherein the wall flow monolith is loaded with an SCR catalyst composition that permeates the walls at a concentration of from 79.3 g/l (1.3 g/in 3) to 146 g/l (2.4 g/in 3); wherein the SCR catalyst composition comprises a zeolite and base metal component selected from one or more of a copper and iron component. a) an oxidation catalyst; b) an injector in fluid communication with and downstream of the oxidation catalyst, wherein the injector periodically meters ammonia or an ammonia precursor into the exhaust stream; and, c) a wall flow monolith in fluid communication with and downstream of the injector, wherein the wall flow monolith has a plurality of longitudinally extending passages formed by longitudinally extending walls bounding and defining said passages, wherein the passages comprise inlet passages having an open inlet end and a closed outlet end, and outlet passages having a closed inlet end and an open outlet end, wherein the wall flow monolith has a porosity of at least 50% with an average pore size of at least 5 microns; wherein the wall flow monolith is loaded with an SCR catalyst composition that permeates the walls at a concentration of from 79.3 g/l (1.3 g/in 3) to 146 g/l (2.4 g/in 3); wherein the SCR catalyst composition comprises a zeolite and base metal component selected from one or more of a copper and iron component.
A laundry detergent composition comprising: (i) from 4 to 50 wt% of a charged surfactant; (ii) from 0.1 to 20 wt% of a negatively charged alkoxylated polyalkylphenol, other than the charged surfactant of integer (i), wherein the alkyl groups in the alkoxylated polyalkylphenol are selected from linear C3 to C15 alkyl groups; and, (iii) from 0.001 to 3 wt % of a perfume. (i) from 4 to 50 wt% of a charged surfactant; (ii) from 0.1 to 20 wt% of a negatively charged alkoxylated polyalkylphenol, other than the charged surfactant of integer (i), wherein the alkyl groups in the alkoxylated polyalkylphenol are selected from linear C3 to C15 alkyl groups; and, (iii) from 0.001 to 3 wt % of a perfume.