mhurhangee/ep-ind-claims huggingface dataset:
A system for offloading information transfer between a client and a server in a communications network comprising: a network agent residing in a kernel space of a TCP/IP stack to transfer proxy functionality from an application proxy to a network controller to offload data transfer from the kernel space to the network, responsive to the application proxy issuing a transmission control protocol, TCP, splice command and the network controller being integrated to the network; wherein the network is a software-defined network, SDN, and is comprised in said system. a network agent residing in a kernel space of a TCP/IP stack to transfer proxy functionality from an application proxy to a network controller to offload data transfer from the kernel space to the network, responsive to the application proxy issuing a transmission control protocol, TCP, splice command and the network controller being integrated to the network; wherein the network is a software-defined network, SDN, and is comprised in said system.
A method of manufacturing a silicon carbide product which is either a p-type 4H SiC substrate of a single-crystal or a polycrystalline silicon carbide dummy wafer, consisting of: a step of obtaining either the p-type 4H SiC substrate or the polycrystalline silicon carbide dummy wafer by a CVD method; and a step of cleaning a surface of either the p-type 4H SiC substrate or the polycrystalline silicon carbide dummy wafer by immersing in a cleaning solution for 10 min to reduce surface metal impurities of the surface of the silicon carbide product to 1×10 11 (atoms/cm 2) or less; wherein said cleaning solution is obtained by mixing a sulfuric acid having a concentration of 97% and a hydrogen peroxide having a concentration of 30% in a volume ratio of 4:1 or by hydrofluoric acid which has a concentration of 45% or more or by hydrochloric acid which has a concentration of 35% or more. a step of obtaining either the p-type 4H SiC substrate or the polycrystalline silicon carbide dummy wafer by a CVD method; and a step of cleaning a surface of either the p-type 4H SiC substrate or the polycrystalline silicon carbide dummy wafer by immersing in a cleaning solution for 10 min to reduce surface metal impurities of the surface of the silicon carbide product to 1×10 11 (atoms/cm 2) or less; wherein said cleaning solution is obtained by mixing a sulfuric acid having a concentration of 97% and a hydrogen peroxide having a concentration of 30% in a volume ratio of 4:1 or by hydrofluoric acid which has a concentration of 45% or more or by hydrochloric acid which has a concentration of 35% or more.
Method for serially transmitting frames (6000; 6001; 6002) from a transmitter to at least one receiver via a bus line, wherein stuff bits for generating additional signal edges are inserted into the frames (6000; 6001; 6002) by the transmitter, as a function of the values of 'a plurality of preceding bits, wherein the transmitter of the frame (6000; 6001; 6002) counts the stuff bits which are inserted as a function of the values of a plurality of preceding bits, and wherein the number of counted stuff bits is also transmitted in the transmitted frame (6000; 6001; 6002).
Permeation-inhibiting release coatings obtainable by curing a composition comprising components, and optionally 20 to 90% by weight, based on the sum total of components, and of the composition, comprises silicon-free hydrocarbons which consist of the elements carbon, hydrogen and oxygen and which have at least one ethylenically unsaturated free-radically polymerizable group and have no oxyethylene groups, wherein component has a hydrocarbon to an extent of at least 80 up to 100% by weight, based on the total mass of component, having two or more ethylenically unsaturated free-radically polymerizable groups and at least one aromatic group; 10 to 90% by weight, based on the sum total of components, and of the composition, of one or more organomodified silicones having 50 to 500 silicon atoms, it being possible for 0.4 to 10% of the silicon atoms to bear ethylenically unsaturated free-radically polymerizable groups, and it being possible for one silicon atom to bear one, two or three such groups; 0 to 70% by weight, based on the sum total of components, and of the composition, of one or more organomodified silicones having 4 to 40 silicon atoms, wherein 15 to 100% of the silicon atoms have ethylenically unsaturated free-radically polymerizable groups; and optionally further additives; wherein the release coating has a permeation barrier against butyl acetate, wherein the permeation barrier is determined as described in the description and the delta-L* value determined thereby is from 1 to 20. 20 to 90% by weight, based on the sum total of components, and of the composition, comprises silicon-free hydrocarbons which consist of the elements carbon, hydrogen and oxygen and which have at least one ethylenically unsaturated free-radically polymerizable group and have no oxyethylene groups, wherein component has a hydrocarbon to an extent of at least 80 up to 100% by weight, based on the total mass of component, having two or more ethylenically unsaturated free-radically polymerizable groups and at least one aromatic group; 10 to 90% by weight, based on the sum total of components, and of the composition, of one or more organomodified silicones having 50 to 500 silicon atoms, it being possible for 0.4 to 10% of the silicon atoms to bear ethylenically unsaturated free-radically polymerizable groups, and it being possible for one silicon atom to bear one, two or three such groups; 0 to 70% by weight, based on the sum total of components, and of the composition, of one or more organomodified silicones having 4 to 40 silicon atoms, wherein 15 to 100% of the silicon atoms have ethylenically unsaturated free-radically polymerizable groups;
A method of calibrating an optical sensor of a color image forming device, said image forming device including a traversing carriage supporting said optical sensor and a plurality of different color ink printheads, the traversing carriage movable over a print area during normal printing operations and over a service area of the image forming device for service operations, the optical sensor including a sensor array and a sensor light source, a mirror surface being provided at the service area and having a longitudinal extent at least as large as a longitudinal extent of the sensor light source, the method comprising: positioning a prefabricated optical sensor target at the service area of the image forming device, the target including a plurality of target patches (240C - 240H) of predetermined different colors; moving the carriage between: a position at the service area of the image forming device such that the sensor array is generally parallel to the target so as to acquire one or more images of the patches; and a position at the service area such that the mirror surface is disposed at an angle relative to the sensor array to deflect light generated by the sensor light source away from the sensor array so as to acquire one or more images of the deflected light; and using the images to perform a plurality of calibrations of the optical sensor. positioning a prefabricated optical sensor target at the service area of the image forming device, the target including a plurality of target patches (240C - 240H) of predetermined different colors; moving the carriage between: a position at the service area of the image forming device such that the sensor array is generally parallel to the target so as to acquire one or more images of the patches; and a position at the service area such that the mirror surface is disposed at an angle relative to the sensor array to deflect light generated by the sensor light source away from the sensor array so as to acquire one or more images of the deflected light; and a position at the service area of the image forming device such that the sensor array is generally parallel to the target so as to acquire one or more images of the patches; and a position at the service area such that the mirror surface is disposed at an angle relative to the sensor array to deflect light generated by the sensor light source away from the sensor array so as to acquire one or more images of the deflected light; and using the images to perform a plurality of calibrations of the optical sensor.
A gold-coloured effect pigment comprising a non-metallic, platelet-like substrate and a coating applied on the substrate, wherein the coating a) optionally has a layer 1, which comprises or consists of tin oxide, tin hydroxide and/or tin oxide hydrate, b) a layer 2 comprising at least one metal oxide, metal hydroxide and/or metal oxide hydrate, wherein the metallic ion is a metallic ion selected from the group of metals consisting of Fe, Sn, Ti and Zr, c) a layer 3 comprising at least one metal oxide, metal hydroxide and/or metal oxide hydrate, wherein the metal ion is a metal ion selected from the group of metals consisting of Fe, Sn, Ti and/or Zr, at least one of the layers 2 or 3 contains at least two different metal ions and at least one of the two different metal ions is an iron ion, and the layers 2 and 3 are disconnected by a spacer layer, wherein the proportion of iron oxide, iron hydroxide and/or iron oxide hydrate in the gold-coloured effect pigment is in a range of 1 wt.% to 45 wt.%, determined by means of XRF and based on the total weight of the gold-coloured effect pigment, and wherein the average layer thicknesses of the layers 2 and 3 are each within a range of 60 nm to 170 nm. a) optionally has a layer 1, which comprises or consists of tin oxide, tin hydroxide and/or tin oxide hydrate, b) a layer 2 comprising at least one metal oxide, metal hydroxide and/or metal oxide hydrate, wherein the metallic ion is a metallic ion selected from the group of metals consisting of Fe, Sn, Ti and Zr, c) a layer 3 comprising at least one metal oxide, metal hydroxide and/or metal oxide hydrate, wherein the metal ion is a metal ion selected from the group of metals consisting of Fe, Sn, Ti and/or Zr, at least one of the layers 2 or 3 contains at least two different metal ions and at least one of the two different metal ions is an iron ion, and the layers 2 and 3 are disconnected by a spacer layer, wherein the proportion of iron oxide, iron hydroxide and/or iron oxide hydrate in the gold-coloured effect pigment is in a range of 1 wt.% to 45 wt.%, determined by means of XRF and based on the total weight of the gold-coloured effect pigment, and wherein the average layer thicknesses of the layers 2 and 3 are each within a range of 60 nm to 170 nm.
A light-emitting element array comprising: a substrate; and a plurality of light-emitting elements arranged on the substrate, the light-emitting element array being characterized in further comprising a plurality of constriction grooves being provided in a periphery of each of the plurality of light-emitting elements and forming a current constriction layer that constricts a current flowing through a light-emitting layer by oxidizing the light-emitting layer; and a block-separation portion in a curved shape being provided in the periphery of some of the plurality of light emitting elements, wherein the curved shape includes at least one inflection point at which a sign of curvature changes, and wherein the block-separation portion separates the plurality of light-emitting elements into a plurality of blocks of light-emitting elements, wherein the curved shape is along an array of constriction grooves in the periphery of the light-emitting elements, the inflection point is formed at an overlap portion of an array of constriction grooves (52a, 52b, 52c) of one of the light-emitting elements and an array of constriction grooves (52c, 52d, 52e) of the other light-emitting element adjacent to the one of the light-emitting elements, wherein the block-separation portion configured to ensure electrical insulation between different blocks of light-emitting elements. a substrate; and a plurality of light-emitting elements arranged on the substrate, the light-emitting element array being characterized in further comprising a plurality of constriction grooves being provided in a periphery of each of the plurality of light-emitting elements and forming a current constriction layer that constricts a current flowing through a light-emitting layer by oxidizing the light-emitting layer; and a block-separation portion in a curved shape being provided in the periphery of some of the plurality of light emitting elements, wherein the curved shape includes at least one inflection point at which a sign of curvature changes, and wherein the block-separation portion separates the plurality of light-emitting elements into a plurality of blocks of light-emitting elements, wherein the curved shape is along an array of constriction grooves in the periphery of the light-emitting elements, the inflection point is formed at an overlap portion of an array of constriction grooves (52a, 52b, 52c) of one of the light-emitting elements and an array of constriction grooves (52c, 52d, 52e) of the other light-emitting element adjacent to the one of the light-emitting elements, wherein the block-separation portion configured to ensure electrical insulation between different blocks of light-emitting elements.
A connector for connecting compressible ducting comprising: an annular inner wall; an outer wall spaced radially outwards of the inner wall; and an axially extending annular channel defined between the inner and outer walls (6, 8) for receiving a ducting section; wherein the outer wall includes a main body and at least one hinged locking tab; characterised in that: the at least one hinged locking tab has at least one locking element projecting from its inner surface, the at least one hinged locking tab being pivotable relative to the main body between an open configuration in which a ducting section is able to be freely inserted into the annular channel and a closed configuration in which the locking element projects into the annular channel to penetrate the ducting section and lock said ducting section within the annular channel. an annular inner wall; an outer wall spaced radially outwards of the inner wall; and an axially extending annular channel defined between the inner and outer walls (6, 8) for receiving a ducting section; wherein the outer wall includes a main body and at least one hinged locking tab; characterised in that: the at least one hinged locking tab has at least one locking element projecting from its inner surface, the at least one hinged locking tab being pivotable relative to the main body between an open configuration in which a ducting section is able to be freely inserted into the annular channel and a closed configuration in which the locking element projects into the annular channel to penetrate the ducting section and lock said ducting section within the annular channel.
A water craft such as a ship, a cruiser, a yacht, a boat or the like, with a glass pane arrangement arranged thereon and/or therein, with a first glazing arranged as an outer glazing, and with a second glazing realised as an inner glazing and as a fire-proof glazing, resulting in a combined double-glazing, wherein the inner glazing comprises a fire-proof frame as a protection against fire, characterised in that the outer glazing comprises a pane glued to a carrier, in that at least one pane of the outer glazing is glued to the fire-proof frame, in that the frame, on the one hand, serves at least partially as a carrier of the outer glazing and that on the other hand, the outer glazing is supported without an additional carrier part and in that the inner glazing in a frame structure is welded or screwed to a ship's hull, in that the outer glazing is realised as a ribbon window and in that the outer glazing directly or indirectly bridges two adjacent fire-proof frames.
Method for operating a first safety controller (Projekt-SM1) on a first automation network and a second safety controller (Projekt-SM2) on a second automation network, wherein the first and second automation networks are networked to one another, wherein the first and second safety controllers (Projekt-SM1, Projekt-SM2) each have a master subscriber (SM1, SM2) implementing the safety controller and at least one safety-relevant slave subscriber, wherein the first and second safety controllers each predefine a configuration of the master subscriber and of the slave subscriber which is safe in a manner specific to the installation and stipulate a safety connection between the master subscriber and the slave subscriber, wherein the master subscriber (SM1, SM2) and the slave subscriber each have a unique safety address (S-Adresse) in the respective automation network, via which the subscribers address one another, wherein data are interchanged between the subscribers on the basis of a safety protocol, wherein an identifier (Projekt-ID-SM1, Projekt-ID-SM2) is respectively assigned to the first and second safety controllers, wherein, upon activation of the first and second automation networks, the assigned master subscriber (SM1, SM2) checks, after the corresponding safety controller (Projekt-SM1) has been loaded, whether the identifier (Projekt-ID-SM1, Projekt-ID-SM2) assigned to the safety controller matches an identifier calculated from the safety controller, wherein the automation network changes to a safe state if a difference between the identifiers is determined, and wherein, if the identifiers match, the first and second master subscribers (SM1, SM2) each also check whether the slave subscriber stores an identifier assigned to a safety controller, wherein, if the slave subscriber does not store an identifier, the master subscriber loads the identifier (Projekt-ID-SM1, Projekt-ID-SM2) assigned to the respective safety controller into the slave subscriber, and wherein, if the slave subscriber stores an identifier, the master subscriber (SM1, SM2) compares the identifier (Projekt-ID-SM1, Projekt-ID-SM2) assigned to the respective safety controller (Projekt-ID-SM1, Projekt-ID-SM2) with the identifier stored in the slave subscriber, wherein the automation network changes to a safe state if a difference between the identifiers is determined.
A method of isolating a protein containing a cellulose binding domain, comprising: (a) a protein binding step in which a plant extract containing proteins and cellulose are mixed; (b) a washing step in which non-binding proteins are removed; and (c) an elution step in which the proteins binding to the cellulose are eluted using a buffer containing a 10 to 60 mM Tris-HCl buffer with a pH of 7.5 to 10, 10 to 200 mM sodium chloride (NaCl), 0.1 to 3 mM calcium chloride (CaCl 2) and 1 to 20 % cellobiose, wherein the protein containing the cellulose binding domain is a recombinant protein consisting of an amino acid sequence of the cellulose binding domain represented by SEQ. ID. NO: 2. (a) a protein binding step in which a plant extract containing proteins and cellulose are mixed; (b) a washing step in which non-binding proteins are removed; and (c) an elution step in which the proteins binding to the cellulose are eluted using a buffer containing a 10 to 60 mM Tris-HCl buffer with a pH of 7.5 to 10, 10 to 200 mM sodium chloride (NaCl), 0.1 to 3 mM calcium chloride (CaCl 2) and 1 to 20 % cellobiose,
Movable wall element for a building with a floor and a ceiling, the movable wall element comprising at least one lower roller device comprising a wheel element which is capable of engaging the floor of the building when the wall element is to be moved across the floor, the movable wall element further comprises at least one upper roller device comprising a wheel element which is capable of engaging the ceiling of the building when the wall element is to be moved across the floor, characterized in that the wheel elements (22, 18) of the upper roller device and the lower roller device are movably arranged in the upper roller device and the lower roller device respectively between a first position where the wheel elements (22, 18) are engaging respectively the ceiling and the floor and a second retracted position where the wheel elements (22, 18) are not engaging the ceiling or the floor respectively.
A method of cooking and sterilization or high-degree pasteurization of food arranged in a sealed package comprising a one-way valve that opens at a pressure difference of 20-200 mbar, said method comprising the steps of: a) heating the sealed package to cook the food; b) subjecting the sealed package from step a) to a sub-atmospheric pressure such that gas leaves the sealed package through the valve; and c) autoclaving the sealed package from step b) at a supra-atmospheric pressure. a) heating the sealed package to cook the food; b) subjecting the sealed package from step a) to a sub-atmospheric pressure such that gas leaves the sealed package through the valve; and c) autoclaving the sealed package from step b) at a supra-atmospheric pressure.
An isolated polypeptide having glucuronyl esterase activity, selected from the group consisting of: (a) a polypeptide having at least 80%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO:2; (b) a fragment of the polypeptide of (a that has glucuronyl esterase activity. (a) a polypeptide having at least 80%, at least 85%, at least 90%, at least 91%, at least 92%, at least 93%, at least 94%, at least 95%, at least 96%, at least 97%, at least 98%, at least 99%, or 100% sequence identity to the mature polypeptide of SEQ ID NO:2; (b) a fragment of the polypeptide of (a that has glucuronyl esterase activity.
A safe comprising: a lock actuator configured to lock or unlock a mechanical or electronic lock of the safe; a control system communicatively connected with the lock actuator, the control system comprising: a transmitter configured to emit a light into the safe when a user attempts to lock the mechanical or electronic lock of the safe; a receiver configured to receive the light emitted from the transmitter and generate an output signal, wherein when the receiver receives the light emitted from the transmitter the output signal indicates no item is inside the safe; and a processor configured to receive the output signal from the receiver and determine whether an item is inside the safe, wherein the processor is configured to disable the lock actuator from locking the safe when the output signal indicates no item is inside the safe. a lock actuator configured to lock or unlock a mechanical or electronic lock of the safe; a control system communicatively connected with the lock actuator, the control system comprising: a transmitter configured to emit a light into the safe when a user attempts to lock the mechanical or electronic lock of the safe; a receiver configured to receive the light emitted from the transmitter and generate an output signal, wherein when the receiver receives the light emitted from the transmitter the output signal indicates no item is inside the safe; and a processor configured to receive the output signal from the receiver and determine whether an item is inside the safe, wherein the processor is configured to disable the lock actuator from locking the safe when the output signal indicates no item is inside the safe. a transmitter configured to emit a light into the safe when a user attempts to lock the mechanical or electronic lock of the safe; a receiver configured to receive the light emitted from the transmitter and generate an output signal, wherein when the receiver receives the light emitted from the transmitter the output signal indicates no item is inside the safe; and a processor configured to receive the output signal from the receiver and determine whether an item is inside the safe, wherein the processor is configured to disable the lock actuator from locking the safe when the output signal indicates no item is inside the safe.