mhurhangee/ep-ind-claims huggingface dataset:
A computer-implemented method for generating a data storage server distribution pattern, the method comprising: determining, with at least one processor, a set of servers (S1 - SN); determining, with at least one processor, raw data to be stored; transforming, with at least one processor, the raw data according to an error-correcting code scheme to produce distributable data; determining, with at least one processor, a server reliability of each server in the set of servers; generating, with at least one processor, the data storage server distribution pattern based on maximizing a system reliability relative to maximizing a system entropy, wherein the system reliability is determined at least partly by a minimum reliability yielded from calculating reliabilities while permuting error vectors over various partitions of the distributable data across the set of servers (S1 - SN), and wherein the system entropy is determined at least partly by a cumulated information entropy of each server of the set of servers using a probability mass function based on a ratio of the number of bits of the distributable data to be stored on a given server relative to the total number of bits in the distributable data; and distributing, with at least one processor, the distributable data to be stored across at least two servers of the set of servers (S1 - SN) according to the data storage server distribution pattern. determining, with at least one processor, a set of servers (S1 - SN); determining, with at least one processor, raw data to be stored; transforming, with at least one processor, the raw data according to an error-correcting code scheme to produce distributable data; determining, with at least one processor, a server reliability of each server in the set of servers; generating, with at least one processor, the data storage server distribution pattern based on maximizing a system reliability relative to maximizing a system entropy, wherein the system reliability is determined at least partly by a minimum reliability yielded from calculating reliabilities while permuting error vectors over various partitions of the distributable data across the set of servers (S1 - SN), and wherein the system entropy is determined at least partly by a cumulated information entropy of each server of the set of servers using a probability mass function based on a ratio of the number of bits of the distributable data to be stored on a given server relative to the total number of bits in the distributable data; and distributing, with at least one processor, the distributable data to be stored across at least two servers of the set of servers (S1 - SN) according to the data storage server distribution pattern.
A medical fluid-conducting cassette for a medical fluid treatment, comprising: - a hard body comprising channels for guiding fluids through the cassette; - a first film section arranged to cover parts of the hard body and arranged to cover at least one of the channels against an exterior of the blood cassette; - at least one connection point configured to connect at least one of the channels with an exterior of the blood cassette in a fluid communication by connecting the connection point with a tubing or a substituate line or a substituate site or a coupling; - at least one covering device attached to the hard body and arranged so as to cover the connection point, wherein the covering device is or comprises a second film section made from the same material as the first film section, characterised in that the covering device is attached to the hard body to be releasable or removable from the hard body without any tools. - a hard body comprising channels for guiding fluids through the cassette; - a first film section arranged to cover parts of the hard body and arranged to cover at least one of the channels against an exterior of the blood cassette; - at least one connection point configured to connect at least one of the channels with an exterior of the blood cassette in a fluid communication by connecting the connection point with a tubing or a substituate line or a substituate site or a coupling; - at least one covering device attached to the hard body and arranged so as to cover the connection point,
Apparatus for measuring the temperature in molten metals, in particular in molten iron or molten steel, comprising a thermocouple that is arranged in a thermocouple tube, with an external protection body that is essentially formed from graphite and metal oxide, whereby the thermocouple tube is arranged at the distance in the protection body such that an intervening space is formed and whereby an insulating material and an oxygen-reducing material are arranged in the intervening space, whereby the insulating material and the oxygen-reducing material, as a powder mixture, form a tube (2;2';2"), characterised in that the tube (2;2';2") surrounds the thermocouple tube at a distance or in that the tube (2;2';2") is surrounded by the protection body at a distance, whereby the distance (4;4') between the tube (2;2';2") made of the insulating material and the oxygen-reducing material on the one hand and the thermocouple tube or the protection body on the other hand is at least partially filled with fibres or spheres, and whereby the fibres or spheres are formed from aluminium oxide or from a mixture of an oxide and an oxygen-reducing material.
A system which provides a modular uniform security applications framework for a host computer system and a compliant security token in processing communications with the host computer system comprising: said compliant security token including a set of retrievable token security policies and one or more token security applications (186, 188, 192, 194, 198); said host computer system including a retrievable set of host security policies and a token access control application, wherein said token access control application includes means for; retrieving at least a portion of said host security policies from said host computer system, retrieving at least a portion of said token security policies from said compliant security token, generating a composite set of security policies from said host security policies and said token security policies, and ensuring enforcement of said composite set of security policies on a request to perform a security function using said compliant security token. said compliant security token including a set of retrievable token security policies and one or more token security applications (186, 188, 192, 194, 198); said host computer system including a retrievable set of host security policies and a token access control application, wherein said token access control application includes means for; retrieving at least a portion of said host security policies from said host computer system, retrieving at least a portion of said token security policies from said compliant security token, generating a composite set of security policies from said host security policies and said token security policies, and ensuring enforcement of said composite set of security policies on a request to perform a security function using said compliant security token. said token access control application includes means for; retrieving at least a portion of said host security policies from said host computer system, retrieving at least a portion of said token security policies from said compliant security token, generating a composite set of security policies from said host security policies and said token security policies, and ensuring enforcement of said composite set of security policies on a request to perform a security function using said compliant security token.
A method for configuring channel access parameters in a wireless communication system, the method comprising: identifying a first subset of wireless devices (106a-c) and one or more additional subsets (110b, 110c) of wireless devices (106d-i) in a group of wireless devices, each wireless device (106a-c) of the first subset of wireless devices having a first characteristic, and each of the one or more additional subsets (110b, 110c) of wireless devices having a respective characteristic; generating a channel access parameter set element including a first parameter value in a first parameter field for the first subset of wireless devices, and including a respective parameter value in a respective parameter field for each of the one or more additional subsets (110b, 110c) of wireless devices; transmitting the channel access parameter set element to at least one wireless device (106a-i) of each of the subsets (110a-c) of wireless devices, the transmitting being for setting the first parameter value at each wireless device (106a-c) of the first subset of wireless devices, and the transmitting further being for setting each of the respective parameter values at each wireless device (106d-i) of the respective one or more additional subsets (110b, 110c) of wireless devices; characterized by generating a multicast address corresponding to each subset (110a-c) of the group of wireless devices; and transmitting each of the multicast addresses in the channel access parameter set element in association with the respective subset (110a-c) of the group of wireless devices. identifying a first subset of wireless devices (106a-c) and one or more additional subsets (110b, 110c) of wireless devices (106d-i) in a group of wireless devices, each wireless device (106a-c) of the first subset of wireless devices having a first characteristic, and each of the one or more additional subsets (110b, 110c) of wireless devices having a respective characteristic; generating a channel access parameter set element including a first parameter value in a first parameter field for the first subset of wireless devices, and including a respective parameter value in a respective parameter field for each of the one or more additional subsets (110b, 110c) of wireless devices; transmitting the channel access parameter set element to at least one wireless device (106a-i) of each of the subsets (110a-c) of wireless devices, the transmitting being for setting the first parameter value at each wireless device (106a-c) of the first subset of wireless devices, and the transmitting further being for setting each of the respective parameter values at each wireless device (106d-i) of the respective one or more additional subsets (110b, 110c) of wireless devices; characterized by generating a multicast address corresponding to each subset (110a-c) of the group of wireless devices; and transmitting each of the multicast addresses in the channel access parameter set element in association with the respective subset (110a-c) of the group of wireless devices.
A dispersible, airlaid, multistrata nonwoven wipe material, comprising a first layer comprising (a) from 50 to 100 weight percent cellulosic fibers and (b) from 0 to 50 weight percent bicomponent fibers; a second layer disposed adjacent to the first layer comprising (a) from 0 to 20 weight percent cellulosic fibers and (b) from 80 to 100 weight percent bicomponent fibers; a third layer disposed adjacent to the second layer comprising (a) from 50 to 100 weight percent cellulosic fibers and (b) from 0 to 50 weight percent bicomponent fibers; wherein the second layer is disposed between the first and third layers; wherein the wipe material is dispersible in water; wherein the wipe materials is structurally stable when aged in lotion at 40°C for 24 hours; and wherein at least a portion of at least one outer layer is coated on an external surface with binder. a first layer comprising (a) from 50 to 100 weight percent cellulosic fibers and (b) from 0 to 50 weight percent bicomponent fibers; (a) from 50 to 100 weight percent cellulosic fibers and (b) from 0 to 50 weight percent bicomponent fibers; a second layer disposed adjacent to the first layer comprising (a) from 0 to 20 weight percent cellulosic fibers and (b) from 80 to 100 weight percent bicomponent fibers; (a) from 0 to 20 weight percent cellulosic fibers and (b) from 80 to 100 weight percent bicomponent fibers; a third layer disposed adjacent to the second layer comprising (a) from 50 to 100 weight percent cellulosic fibers and (b) from 0 to 50 weight percent bicomponent fibers; wherein the second layer is disposed between the first and third layers; wherein the wipe material is dispersible in water; wherein the wipe materials is structurally stable when aged in lotion at 40°C for 24 hours; and wherein at least a portion of at least one outer layer is coated on an external surface with binder. (a) from 50 to 100 weight percent cellulosic fibers and (b) from 0 to 50 weight percent bicomponent fibers; wherein the second layer is disposed between the first and third layers; wherein the wipe material is dispersible in water; wherein the wipe materials is structurally stable when aged in lotion at 40°C for 24 hours; and wherein at least a portion of at least one outer layer is coated on an external surface with binder.
A flooring underlayment, comprising: a gypsum and/or concrete underlayment material; and an environmental sensor assembly (2420, 2422, 2424) associated with the gypsum and/or concrete underlayment material and configured to detect an environmental condition of the underlayment and wirelessly communicate data on the environmental condition to a reader, wherein the environmental sensor assembly (2420, 2422, 2424) is self-supporting and comprises an antenna, a processing module, and a wireless communication module, wherein the gypsum and/or concrete underlayment material is formed of one or more layers of underlayment material on a floor substrate of the flooring underlayment, wherein the antenna comprises a resistor inductor capacitor tuned circuit operable to convert the environmental condition into an impedance change, and the processing module is coupled to the antenna and is operable to translate the impedance change into a sensor code by matching antenna impedance to die impedance. a gypsum and/or concrete underlayment material; and an environmental sensor assembly (2420, 2422, 2424) associated with the gypsum and/or concrete underlayment material and configured to detect an environmental condition of the underlayment and wirelessly communicate data on the environmental condition to a reader, wherein the environmental sensor assembly (2420, 2422, 2424) is self-supporting and comprises an antenna, a processing module, and a wireless communication module, wherein the gypsum and/or concrete underlayment material is formed of one or more layers of underlayment material on a floor substrate of the flooring underlayment, wherein the antenna comprises a resistor inductor capacitor tuned circuit operable to convert the environmental condition into an impedance change, and the processing module is coupled to the antenna and is operable to translate the impedance change into a sensor code by matching antenna impedance to die impedance.
An electronic ballast for at least one gas discharge lamp, with a rectifier circuit connectable to an alternating voltage source (U 0), a smoothing circuit connected to the output of the rectifier circuit for generating an intermediate circuit voltage (U z) and an inverter fed with the intermediate circuit voltage (U z), to the output of which a connection is connected for load circuit containing lamp, wherein the smoothing circuit is formed by a switching regulator with an inductivity and the ballast also has a control circuit, which detects at least one operating parameter (U i, I L, U z) of the smoothing circuit and actuates a controllable switch of the switching regulator depending on the value of the detected operating parameter (U i, I L, U z), in order to stabilize the intermediate circuit voltage (U z), wherein the control circuit has an analog/digital converter for converting the detected operating parameter (U i, I L, U z) of the smoothing circuit into a digital value consisting of at least 2 bits, wherein the control circuit on the basis of this digital value in a digital control loop calculates switching information for the operation of the controllable switch of the switching regulator and transmits it to a driver circuit, which converts this switching information into a corresponding control signal for the actuation of the switch, characterized in that the control circuit detects the current (I L) through the inductivity (I;) or a parameter corresponding to this current (I L) and switches on the switch during a detected zero crossing of the inductivity current (I L).
Circuit arrangement for determination of a measuring capacitance, comprising a reference circuit portion for defined periodic charging and discharging of a predefined reference capacitance, and a measuring circuit portion for defined periodic charging and discharging of the measuring capacitance to be determined, and at least one circuit portion (4, 7; 4a, 7a) intended to determine at least one value (M 2) characteristic of the charging time curve of the reference capacitance and for deriving at least one value (M 1) characteristic of the charging time curve of the measuring capacitance, as well as a circuit portion for comparing the at least one value (M 2) characteristic of the charging time curve of the reference capacitance with the at least one value (M 1) characteristic of the charging time curve of the measuring capacitance, and for deriving from that comparison the value of the measuring capacitance.
A method for distributing sensor data, the method comprising: receiving, from a requesting device, a request to access first sensor-collectable data associated with at least one package, wherein the requesting device is authenticated to access the first sensor-collectable data; the method being characterized by: determining whether to prohibit access to the first sensor-collectable data based on second sensor-collectable data of the requesting device indicative of a location, wherein the location is associated with a prohibition on access to the first sensor-collectable data. receiving, from a requesting device, a request to access first sensor-collectable data associated with at least one package, wherein the requesting device is authenticated to access the first sensor-collectable data; the method being characterized by: determining whether to prohibit access to the first sensor-collectable data based on second sensor-collectable data of the requesting device indicative of a location, wherein the location is associated with a prohibition on access to the first sensor-collectable data.
A method for decreasing the concentration of hydrogen sulfide in a hydrocarbon comprising introducing a zinc carboxylate oxo complex composition prepared by reacting particulate zinc oxide with a mixture of two or more carboxylic acids, wherein the zinc carboxylate oxo complex composition is soluble in hydrocarbons, and wherein the two or more carboxylic acids are selected from the group consisting of acetic acid, oleic acid, isobutyric acid, lineoleic acid, cekanoic acid, and neodecanoic acid, and wherein one of the carboxylic acids is selected from isobutyric acid or acetic acid.
A device forming a mold for forming an integral one-piece article obtained by injecting a molding material, in particular a thermoplastic material, via at least one injection point, said article being constituted by a main body having a body volume defined by the space inside a surface forming an outer envelope, and by at least one hook, preferably a field of hooks, coming from the same molding of the main body of the molded article, the or each hook having a stem having a longitudinal axis and a hooking portion projecting laterally from the stem, wherein: · the volume of the hooks is substantially smaller than the volume of the body, i.e. at least one hundred times smaller; and · the width, or the smallest transverse dimension, of the stem, as measured transversely to the longitudinal axis, is less than the thickness of the main body as measured along the longitudinal axis of the stem; the device having a closed inside surface defining a main molding chamber, at least one opening for introducing the molding material being formed to enable the molding material to be introduced into the molding chamber, at least one cavity of shape complementary to at least one hook, preferably to a field of cavities, opening out into a portion of the inside surface, said portion of the inside surface being surrounded by an edge surface (6") not including a cavity, the device being characterized in that urging means are provided for urging at least a portion of the edge surface (6") and a facing portion of the inside surface towards each other, the arrangement being such that the urging of the urging means is limited, such that the two surfaces (6", 11) that are urged towards each other cannot come completely into contact with each other and such that there continues to exist a gap between said surfaces, the gap being dimensioned in such a manner that the molding material cannot penetrate therein without pressure being applied thereto that corresponds to the pressure that exists when substantially the entire chamber has been filled with molding material. · the volume of the hooks is substantially smaller than the volume of the body, i.e. at least one hundred times smaller; and · the width, or the smallest transverse dimension, of the stem, as measured transversely to the longitudinal axis, is less than the thickness of the main body as measured along the longitudinal axis of the stem;
A particulate decellularized tissue for use in therapy or for use in surgery, wherein said particulate decellularized tissue is prepared by a method for preparing a particulate decellularized tissue comprising a step of applying a high hydrostatic pressure to animal-derived tissues in a medium, wherein said high hydrostatic pressure is 2 to 1,500 MPa, and wherein said high hydrostatic pressure is applied after the animal-derived tissues are pulverized.