mhurhangee/ep-ind-claims huggingface dataset:
An auto valet parking system for operating a car in a parking lot attached to a facility, the system comprising: a parking lot map database which manages route information to each parking space inside the parking lot; a vacant space information database which manages full and vacant information for each parking space; a facility migration information database which accumulates facility migration information indicative of behaviors of a parking lot user in the facility; a first unit (11, 12, 16) which detects the full and vacant information for each parking space, searches for a route to the parking space and automatically parks the car in the parking space based on the route information to the searched parking position; a second unit which notifies the parking lot user of information on a parking position through a mobile terminal; and a third unit (18, 19) which searches for the vacant space as close as possible to conditions based on the facility migration information of the parking lot user, and reflects the vacant space on the first unit (11, 12, 16). a parking lot map database which manages route information to each parking space inside the parking lot; a vacant space information database which manages full and vacant information for each parking space; a facility migration information database which accumulates facility migration information indicative of behaviors of a parking lot user in the facility; a first unit (11, 12, 16) which detects the full and vacant information for each parking space, searches for a route to the parking space and automatically parks the car in the parking space based on the route information to the searched parking position; a second unit which notifies the parking lot user of information on a parking position through a mobile terminal; and a third unit (18, 19) which searches for the vacant space as close as possible to conditions based on the facility migration information of the parking lot user, and reflects the vacant space on the first unit (11, 12, 16).
A method of adapting to volume variations in microfluidic chromatography columns, the method comprising: calibrating a column by: comparing a parameter of the column with a same parameter of a reference column; and generating, by a processor, an adjustment factor in response to the comparison between the parameter of the column and the same parameter of the reference column; and compensating for volume differences between the column and the reference column by integrating the generated adjustment factor into a sample separation involving the column; wherein the parameter of the column being calibrated includes at least one of a column volume and a retention time, and wherein compensating for volume differences between the column and the reference column includes applying the adjustment factor to a flow rate during the sample separation. calibrating a column by: comparing a parameter of the column with a same parameter of a reference column; and generating, by a processor, an adjustment factor in response to the comparison between the parameter of the column and the same parameter of the reference column; and comparing a parameter of the column with a same parameter of a reference column; and generating, by a processor, an adjustment factor in response to the comparison between the parameter of the column and the same parameter of the reference column; and compensating for volume differences between the column and the reference column by integrating the generated adjustment factor into a sample separation involving the column; wherein the parameter of the column being calibrated includes at least one of a column volume and a retention time, and wherein compensating for volume differences between the column and the reference column includes applying the adjustment factor to a flow rate during the sample separation.
An information processing apparatus with a user interface, comprising an object recognition processing unit configured to recognize an operation body and a target object (H, Z) included in a picked-up image; a contact determination unit configured to determine contact of the operation body with the target object, in which a depression can be formed by pressing of the operation body, the target object being an operation target of the operation body, characterized in that the contact of the operation body with the target object is determined on the basis of a change in a normal line vector of a surface of the target object around the operation body in the picked-up image.
Gas treatment device, characterised in that it comprises a tank divided into several channels (A, B, C, D, E, F), each having a gas inlet ( e) and a gas outlet ( s), wherein at least one lamp that generates a photonic, in particular ultraviolet, radiation is placed in each channel (A-F) and each channel is delimited by two partition walls (7.1, 7.2), each comprising: • a dielectric wall (71.1, 71.2), • a photocatalytic element (72.1, 72.2) arranged between the dielectric wall (71.1, 71.2) on the side of the channel (A-F) and comprising a support, which carries a photocatalyst, • a first electrode (73.1, 73.2) laid against the photocatalytic element (72.1, 72.2) and • a second electrode laid against the dielectric wall (71.1, 71.2). • a dielectric wall (71.1, 71.2), • a photocatalytic element (72.1, 72.2) arranged between the dielectric wall (71.1, 71.2) on the side of the channel (A-F) and comprising a support, which carries a photocatalyst, • a first electrode (73.1, 73.2) laid against the photocatalytic element (72.1, 72.2) and • a second electrode laid against the dielectric wall (71.1, 71.2).
An electrode assembly comprising a combination of two or more types of electrode unit having different areas, the two or more types of electrode unit being stacked so as to form a stepped portion therebetween, wherein a positive electrode and a negative electrode are formed to face each other at an interface between the electrode units, a ratio of a thickness of the negative electrode to a thickness of the positive electrode facing the negative electrode at the interface between the electrode units is in a range of 0.5 to 2.
A method for distinguishing between infection-negative systemic inflammatory response syndrome (inSIRS) and infection-positive systemic inflammatory response syndrome (ipSIRS), the method comprising: providing a correlation of a reference inflammatory response syndrome biomarker profile of a blood sample with the presence or absence of inSIRS or ipSIRS, wherein the reference IRS biomarker profile evaluates at least one IRS biomarker, wherein the at least one IRS biomarker comprises a PLAC8 expression product, and wherein the evaluation includes determining the level of the at least one IRS biomarker; obtaining an IRS biomarker profile of a blood sample from a subject, wherein the sample IRS biomarker profile evaluates for an individual IRS biomarker in the reference IRS biomarker profile a corresponding IRS biomarker including a corresponding PLAC8 expression product, by determining the level of the corresponding IRS biomarker in the blood sample from the subject; and determining a likelihood of the subject having or not having inSIRS or ipSIRS based on the expression levels of the IRS biomarkers in the sample IRS biomarker profile and the reference IRS biomarker profile.
A patient support apparatus comprising a caster (33, 35) including a stem, a wheel coupled to the stem to rotate about an wheel axis relative to the stem, and a braking element movable from a disengaged position allowing the wheel to rotate relative to the stem to an engaged position blocking the wheel from rotation relative to the stem, a brake drive including a mount and an actuator coupled to the mount, the actuator configured to move from a first position to a second position relative to the mount, and a linkage coupled to the braking element, the linkage configured to selectively couple the actuator of the brake drive to the braking element to transfer motion of the actuator to the braking element and to selectively decouple the braking element from the actuator to allow a disengaging-bias spring included in the linkage to move the braking element from the engaged position to the disengaged position, characterized in that the linkage further includes a locator spring that resists the disengaging-bias spring so that the braking element is properly located in the disengaged position when the braking element is decoupled from the actuator.
A curable composition comprising: a) 100 parts by weight of a diamine-terminated polysiloxane, b) 0.2 to 30 parts by weight of a cyclic anhydride copolymer, and c) 20 to 200 parts by weight of an MQ resin tackifier. a) 100 parts by weight of a diamine-terminated polysiloxane, b) 0.2 to 30 parts by weight of a cyclic anhydride copolymer, and c) 20 to 200 parts by weight of an MQ resin tackifier.
Foamable composition comprising a) at least one base polymer, b) 10 to 20% by weight of at least one propellant, based on the foamable composition, c) 0.5 to 5% by weight of at least one heat stabilizer, based on the foamable composition, which is selected from fatty acid amides, fatty acids and fatty acid alcohol esters which, in addition to a linear aliphatic chain, have a Thioether function. a) at least one base polymer, b) 10 to 20% by weight of at least one propellant, based on the foamable composition, c) 0.5 to 5% by weight of at least one heat stabilizer, based on the foamable composition, which is selected from fatty acid amides, fatty acids and fatty acid alcohol esters which, in addition to a linear aliphatic chain, have a Thioether function.
A method comprising: determining a variance in path metrics (P1, P2,..., Pm) for a plurality of cellular interfaces (124.1, 124.2,..., 124.m) of a router, each associated with a path, by determining a ratio between a minimum path metric of the plurality of cellular interfaces and a maximum path metric of the plurality of cellular interfaces (124.1, 124.2,..., 124.m); determining whether there is a difference between the determined variance and a previous variance in path metrics determined for the plurality of cellular interfaces (124.1, 124.2,..., 124.m); and updating a routing table for the plurality of cellular interfaces (124.1, 124.2,..., 124.m) using the determined variance if there is a difference between the determined variance and the previous variance in path metrics determined for the plurality of cellular interfaces to provide for dynamic load balancing between the cellular interfaces. determining a variance in path metrics (P1, P2,..., Pm) for a plurality of cellular interfaces (124.1, 124.2,..., 124.m) of a router, each associated with a path, by determining a ratio between a minimum path metric of the plurality of cellular interfaces and a maximum path metric of the plurality of cellular interfaces (124.1, 124.2,..., 124.m); determining whether there is a difference between the determined variance and a previous variance in path metrics determined for the plurality of cellular interfaces (124.1, 124.2,..., 124.m); and updating a routing table for the plurality of cellular interfaces (124.1, 124.2,..., 124.m) using the determined variance if there is a difference between the determined variance and the previous variance in path metrics determined for the plurality of cellular interfaces to provide for dynamic load balancing between the cellular interfaces.
Method for producing a catalyst which includes a catalytically active component consisting of a single compound or a mixture of different oxides having the general formula Mo x Bi y Fe z A a B b C c D d O v, where A stands for Ni and/or Co, B stands for one or more metals selected from Mg, Cr, Mn, Zn, Ce, and Ca and combinations thereof, C stands for W, and D stands for one or more alkali metals, where x stands for a number from 10 to 14, y stands for a number from 0.1 to 5, z stands for a number from 0.5 to 5, a stands for a number from 1 to 10, b stands for a number from 0.1 to 6, c stands for a number from > 0 to 2, d stands for a number from 0.02 to 2, and v is determined by the oxidation state of the elements, the method including the following steps: a) Providing a solution in which at least 95% by weight, of all precursor compounds of the catalytically active component are dissolved in an acidic aqueous solvent; b) Bringing the solution obtained in step a) into contact with a chemical inert porous support which during the reaction to be catalyzed does not take part in a chemical reaction and having a specific surface of 1 to 500 m 2 /g, measured according to the BET method of DIN ISO 9277:2010; c) Heat treatment of the material obtained in step b), including heating the material obtained in step b) to a temperature of 450 to 650°C over a period of 30 min to 20 hours, in which the precursor compounds of the catalytically active component are converted to their oxides. a) Providing a solution in which at least 95% by weight, of all precursor compounds of the catalytically active component are dissolved in an acidic aqueous solvent; b) Bringing the solution obtained in step a) into contact with a chemical inert porous support which during the reaction to be catalyzed does not take part in a chemical reaction and having a specific surface of 1 to 500 m 2 /g, measured according to the BET method of DIN ISO 9277:2010; c) Heat treatment of the material obtained in step b), including heating the material obtained in step b) to a temperature of 450 to 650°C over a period of 30 min to 20 hours, in which the precursor compounds of the catalytically active component are converted to their oxides.
A bus bar structure arranged below a printed circuit board in an interconnect board of a battery pack, the bus bar structure comprising: bus bar and bus bar sequentially arranged in one direction and facing each other, wherein said bus bar and said bus bar are spaced apart from each other directly under said PCB and arranged on the same level around the opposite ends thereof, wherein said bus bar is partially inserted into said PCB and said bus bar is configured to contact an electrode lead of a battery cell; and a fuse case arranged between the bus bars (32,33), wherein each of the bus bars (32, 33) is configured to contact the fuse case via at least one end of the fuse case, and the fuse case includes a fuse wire therein and is configured to bring the fuse wire into contact with the bus bars (32,33) via the at least one end thereof. bus bar and bus bar sequentially arranged in one direction and facing each other, wherein said bus bar and said bus bar are spaced apart from each other directly under said PCB and arranged on the same level around the opposite ends thereof, wherein said bus bar is partially inserted into said PCB and said bus bar is configured to contact an electrode lead of a battery cell; and a fuse case arranged between the bus bars (32,33), wherein each of the bus bars (32, 33) is configured to contact the fuse case via at least one end of the fuse case, and the fuse case includes a fuse wire therein and is configured to bring the fuse wire into contact with the bus bars (32,33) via the at least one end thereof.
A gas pressure regulator comprising: - a central body having a first, gas inlet pipe and a second, gas outlet pipe; - a shutter housed at least partially in the central body and mobile to adjust the opening of a section for the passage of the gas between a position in which the section is fully open and a position in which the section is closed; - a silencing device located in the central body at the passage section, for reducing the noise created by the passage of the gas; - means for fastening the silencing device to the central body, wherein the silencing device comprises: - a cylindrical perforated plate to allow the passage of the gas; - an annular base for supporting and stiffening the cylindrical plate and having a zone for engaging the means for fastening the silencing device to the central body, the cylindrical plate and the annular base being assembled in a single piece, the regulator being characterized in that the fastening means comprise an annular element having a jutting portion, said jutting portion being shaped to match the engagement zone of the annular base in order to engage the engagement zone and constrain the silencing device to the central body and in that the annular element supports a gasket with which the shutter is engaged in sealed fashion in the closed position. - a central body having a first, gas inlet pipe and a second, gas outlet pipe; - a shutter housed at least partially in the central body and mobile to adjust the opening of a section for the passage of the gas between a position in which the section is fully open and a position in which the section is closed; - a silencing device located in the central body at the passage section, for reducing the noise created by the passage of the gas; - means for fastening the silencing device to the central body, - a cylindrical perforated plate to allow the passage of the gas; - an annular base for supporting and stiffening the cylindrical plate and having a zone for engaging the means for fastening the silencing device to the central body,
A frame structure for a mini trampoline, wherein the frame structure comprises at least three nodes, at least three elongate internodes and a plurality of legs, wherein in each case two of the internodes are assigned to each other with end portions and are rigidly connected to each other via one of the nodes such that a closed frame lying substantially in a main plane is formed, and wherein each leg is in each case fastened directly to one of the nodes, characterized in that all nodes are designed as broad leg nodes and extend from the frame structure parallel to the main plane deformed outwards and towards the respective associated leg, so that all the legs are in each case positioned outwards with respect to the frame.
A method of controlling a utilization of a software application by an individual client, wherein the application is implemented as a number of peer application instances that receive application traffic from any one or more clients in a plurality of clients and wherein the method at each application instance comprises: classifying the application traffic incoming to the application instance into flows corresponding to different ones of the clients and/or different types of application traffic; estimating a local demand value for each flow with respect to the application instance; exchanging local demand information with one or more other ones of the application instances, including sending the local demand values estimated for the flows at the application instance and receiving like estimated local demand values for all like flows at other ones of the application instances; determining a global demand value for each flow with respect to the application, based on the exchanged local demand information; calculating a local utilization limit for each flow as a function of the global demand value determined for the flow; marking the application traffic in each flow as being out-of-policy traffic or as being in-policy traffic, in dependence on whether or not the local utilization limit for the flow is exceeded; determining whether an aggregation of the application traffic for all flows at the application instance exceeds a local aggregated utilization limit; and controlling a buffering of the aggregated application traffic toward the application instance on a per-flow and/or aggregated flow basis, based on whether the local aggregated utilization limit is exceeded and distinguishing between in-policy and out-of-policy traffic. classifying the application traffic incoming to the application instance into flows corresponding to different ones of the clients and/or different types of application traffic; estimating a local demand value for each flow with respect to the application instance; exchanging local demand information with one or more other ones of the application instances, including sending the local demand values estimated for the flows at the application instance and receiving like estimated local demand values for all like flows at other ones of the application instances; determining a global demand value for each flow with respect to the application, based on the exchanged local demand information; calculating a local utilization limit for each flow as a function of the global demand value determined for the flow; marking the application traffic in each flow as being out-of-policy traffic or as being in-policy traffic, in dependence on whether or not the local utilization limit for the flow is exceeded; determining whether an aggregation of the application traffic for all flows at the application instance exceeds a local aggregated utilization limit; and controlling a buffering of the aggregated application traffic toward the application instance on a per-flow and/or aggregated flow basis, based on whether the local aggregated utilization limit is exceeded and distinguishing between in-policy and out-of-policy traffic.
An apparatus for cleaning cloth filter media by backwashing and increasing the effective filtering surface area of the cloth filter media, the cloth filter media having a support fabric and a pile made of pile threads, the apparatus comprising: at least one backwash shoe in fluid communication with a suction source; at least one suction slot on said at least one backwash shoe; a leading surface on said at least one backwash shoe, the leading surface being in contact with the pile threads and compressing the pile threads at least partly toward the support fabric prior to entering the suction slot, wherein the pile threads are released into the suction slot; and a trailing surface on said at least one backwash shoe, characterized in that the trailing surface has a crenelated surface such that some of the pile threads are flattened toward the support fabric after suction and some of the pile threads remain in an extended or semi-extended position away from the support surface of the cloth filter media after being subject to suction, wherein the backwash shoe has a front edge and a rear edge and wherein the trailing surface has a series of merlons and crenels extending from the suction slot to the rear edge of the backwash shoe. at least one backwash shoe in fluid communication with a suction source; at least one suction slot on said at least one backwash shoe; a leading surface on said at least one backwash shoe, the leading surface being in contact with the pile threads and compressing the pile threads at least partly toward the support fabric prior to entering the suction slot, wherein the pile threads are released into the suction slot; and a trailing surface on said at least one backwash shoe,