mhurhangee/ep-ind-claims huggingface dataset:
A method for correcting image density, applied to an image forming device, comprising: forming, in response to an image density correcting instruction triggered by a user, an image density pattern for image density correction; collecting image density data corresponding to the image density pattern; generating tone reproduction curve data according to the image density data corresponding to the image density pattern; and sending the TRC data to a control device, wherein the control device is configured to correct image density based on the TRC data during the image forming process; characterized in that the step of sending the TRC data to the control device includes: determining, by the image forming device, whether to establish a communication connection with the control device; and if the image forming device establishes a communication connection with the control device, the TRC data are sent to the control device; and if the image forming device does not establish a communication connection with the control device, the TRC data are locally saved, and after the image forming device establishes a communication connection with the control device, the TRC data are sent to the control device. forming, in response to an image density correcting instruction triggered by a user, an image density pattern for image density correction; collecting image density data corresponding to the image density pattern; generating tone reproduction curve data according to the image density data corresponding to the image density pattern; and sending the TRC data to a control device, wherein the control device is configured to correct image density based on the TRC data during the image forming process; characterized in that the step of sending the TRC data to the control device includes: determining, by the image forming device, whether to establish a communication connection with the control device; and if the image forming device establishes a communication connection with the control device, the TRC data are sent to the control device; and if the image forming device does not establish a communication connection with the control device, the TRC data are locally saved, and after the image forming device establishes a communication connection with the control device, the TRC data are sent to the control device. determining, by the image forming device, whether to establish a communication connection with the control device; and if the image forming device establishes a communication connection with the control device, the TRC data are sent to the control device; and if the image forming device does not establish a communication connection with the control device, the TRC data are locally saved, and after the image forming device establishes a communication connection with the control device, the TRC data are sent to the control device.
A luminescent component, comprising a solid material composition; said composition comprising first luminescent crystals embedded in a solid matrix; said luminescent crystals - emit light of a first wavelength in response to excitation and - are of the perovskite crystal structure of formula: [M 1 A 1] a M 2 b X c, wherein: A 1 represents one or more organic cations, M 1 represents one or more alkaline metals, M 2 represents one or more metals selected from the group of Ge, Sn, Pb, and Bi, preferably Pb. X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfide, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1, or A 1, or M 1 and A 1 being present; and said solid matrix comprising - polymer or small molecules as a matrix material; and - a metal M 3 distributed within said matrix material, whereby M 3 is Zn; and - optionally surfactant; and whereby the total molar ratio M 3:M 2 within said solid material composition is between 0.3:1 and 20:1 as determined by ICP-MS or ICP-OES. said composition comprising first luminescent crystals embedded in a solid matrix; said luminescent crystals - emit light of a first wavelength in response to excitation and - are of the perovskite crystal structure of formula: [M 1 A 1] a M 2 b X c, wherein: A 1 represents one or more organic cations, M 1 represents one or more alkaline metals, M 2 represents one or more metals selected from the group of Ge, Sn, Pb, and Bi, preferably Pb. X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfide, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1, or A 1, or M 1 and A 1 being present; and - emit light of a first wavelength in response to excitation and - are of the perovskite crystal structure of formula: [M 1 A 1] a M 2 b X c, wherein: A 1 represents one or more organic cations, M 1 represents one or more alkaline metals, M 2 represents one or more metals selected from the group of Ge, Sn, Pb, and Bi, preferably Pb. X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfide, a represents 1-4, b represents 1-2, c represents 3-9, and wherein either M 1, or A 1, or M 1 and A 1 being present; and A 1 represents one or more organic cations, M 1 represents one or more alkaline metals, M 2 represents one or more metals selected from the group of Ge, Sn, Pb, and Bi, preferably Pb. X represents one or more anions selected from the group consisting of halides, pseudohalides and sulfide, a represents 1-4, b represents 1-2, c represents 3-9, and said solid matrix comprising - polymer or small molecules as a matrix material; and - a metal M 3 distributed within said matrix material, whereby M 3 is Zn; and - optionally surfactant; and - polymer or small molecules as a matrix material; and - a metal M 3 distributed within said matrix material, whereby M 3 is Zn; and - optionally surfactant; and whereby the total molar ratio M 3:M 2 within said solid material composition is between 0.3:1 and 20:1 as determined by ICP-MS or ICP-OES.
A microelectromechanical system, MEMS, device comprising a support structure formed of printed circuit board, PCB, materials; and a piezoelectric transducer formed at the support structure; wherein the piezoelectric transducer is a layer structure (122, 124) characterized in that, the piezoelectric transducer is embedded at least partially within the support structure. a support structure formed of printed circuit board, PCB, materials; and a piezoelectric transducer formed at the support structure; wherein the piezoelectric transducer is a layer structure (122, 124) characterized in that, the piezoelectric transducer is embedded at least partially within the support structure.
Fastening device for a sanitary installation, having - a support body to which at least one sanitary component (102a, 102b) or at least one sanitary assembly can be attached - a first mounting body and a second mounting body spaced from the first mounting body, the first mounting body being connected to the support body and adapted to be secured to a first drywall profile of a stud frame, and the second mounting body being connected to the support body and adapted to be secured to a second drywall profile of the stud frame spaced from the first drywall profile, and - an adjustment mechanism by means of which the distance between the support body and the first and second mounting bodies (14a, 14b) and the distance between the first mounting body and the second mounting body can be varied; characterized in that the support body is formed as a grooved plate with a plurality of grooves (18a-18c), wherein the adjustment mechanism comprises a rail system with two adjustment clamping bodies (26a, 26b), wherein - the first mounting body is connected to a first adjustment clamping body and the first adjustment clamping body is displaceable and clampable in a first groove (18a, 18c) of the support body, and - the second mounting body is connected to a second adjustment clamping body and the second adjustment clamping body is displaceable and clampable in a second groove (18a, 18c) of the support body. - a support body to which at least one sanitary component (102a, 102b) or at least one sanitary assembly can be attached - a first mounting body and a second mounting body spaced from the first mounting body, the first mounting body being connected to the support body and adapted to be secured to a first drywall profile of a stud frame, and the second mounting body being connected to the support body and adapted to be secured to a second drywall profile of the stud frame spaced from the first drywall profile, and - an adjustment mechanism by means of which the distance between the support body and the first and second mounting bodies (14a, 14b) and the distance between the first mounting body and the second mounting body can be varied; - the first mounting body is connected to a first adjustment clamping body and the first adjustment clamping body is displaceable and clampable in a first groove (18a, 18c) of the support body, and - the second mounting body is connected to a second adjustment clamping body and the second adjustment clamping body is displaceable and clampable in a second groove (18a, 18c) of the support body.
A method for mapping a network topology request to a physical network, the network topology request including a plurality of VNO nodes and a plurality of VNO links, the method comprising: (a) for each of a plurality of VNO nodes included in the network topology request: (a.1) determining a site cluster including a plurality of sites in the physical network that meet a VNO node resource requirement associated with the VNO node to be mapped, and (a.2) selecting one or more migration paths in the physical network that meet a backup link requirement for a link between the sites of the site cluster; (b) for each of a plurality of VNO links between respective VNO nodes included in the network topology request: (b.1) determining a plurality of paths in the physical network that meet a VNO link requirement for a path between two site clusters, and (b.2) selecting from the paths determined in step (b.1) a primary path and at least one backup path for linking two site clusters. (a) for each of a plurality of VNO nodes included in the network topology request: (a.1) determining a site cluster including a plurality of sites in the physical network that meet a VNO node resource requirement associated with the VNO node to be mapped, and (a.2) selecting one or more migration paths in the physical network that meet a backup link requirement for a link between the sites of the site cluster; (a.1) determining a site cluster including a plurality of sites in the physical network that meet a VNO node resource requirement associated with the VNO node to be mapped, and (a.2) selecting one or more migration paths in the physical network that meet a backup link requirement for a link between the sites of the site cluster; (b) for each of a plurality of VNO links between respective VNO nodes included in the network topology request: (b.1) determining a plurality of paths in the physical network that meet a VNO link requirement for a path between two site clusters, and (b.2) selecting from the paths determined in step (b.1) a primary path and at least one backup path for linking two site clusters. (b.1) determining a plurality of paths in the physical network that meet a VNO link requirement for a path between two site clusters, and (b.2) selecting from the paths determined in step (b.1) a primary path and at least one backup path for linking two site clusters.
A smoke detection system for an enclosed area, the system comprising: a housing having an inlet and an outlet; a divider within the housing, wherein the housing includes a first compartment to receive air flow from the inlet, and a turning portion configured to direct flow to a second compartment in communication with the outlet; and a sensor configured to detect smoke in an air flow, said sensor provided within the first compartment; and characterized in that the divider is a circuit board electrically controlling the sensor. a housing having an inlet and an outlet; a divider within the housing, wherein the housing includes a first compartment to receive air flow from the inlet, and a turning portion configured to direct flow to a second compartment in communication with the outlet; and a sensor configured to detect smoke in an air flow, said sensor provided within the first compartment; and characterized in that the divider is a circuit board electrically controlling the sensor.
Inline process for treating meat comprising the following steps: - injection of a marination-fluid into the meat, - shaking of the meat, wherein during shaking the meat is driven in one direction, stopped and then reversed, - heat treatment of the meat. - injection of a marination-fluid into the meat, - shaking of the meat, wherein during shaking the meat is driven in one direction, stopped and then reversed, - heat treatment of the meat.
A method in a network node, the method comprising: broadcasting a location of a time and/or frequency resource of a first Physical Random Access Channel, PRACH, the first PRACH having a static location; determining a location of a time and/or frequency resource for a second PRACH, wherein the location of the second PRACH is determined dynamically; communicating downlink control information to a wireless device, the downlink control information indicating the location of the second PRACH; receiving a random access attempt from the wireless device, the random access attempt received via the first PRACH or the second PRACH; and communicating a random access response to the wireless device, characterized in that: a preamble of the second PRACH is shorter than a preamble of the first PRACH, which is a legacy preamble which occupies fourteen symbols; and a single subframe comprises both: the downlink control information that indicates the location of the second PRACH, and the second PRACH. broadcasting a location of a time and/or frequency resource of a first Physical Random Access Channel, PRACH, the first PRACH having a static location; determining a location of a time and/or frequency resource for a second PRACH, wherein the location of the second PRACH is determined dynamically; communicating downlink control information to a wireless device, the downlink control information indicating the location of the second PRACH; receiving a random access attempt from the wireless device, the random access attempt received via the first PRACH or the second PRACH; and communicating a random access response to the wireless device, characterized in that: a preamble of the second PRACH is shorter than a preamble of the first PRACH, which is a legacy preamble which occupies fourteen symbols; and a single subframe comprises both: the downlink control information that indicates the location of the second PRACH, and the second PRACH.
A method of improving the frequency stability of a frequency reference, or improving the effective frequency stability of a frequency reference in a host application system, comprising: a) retrieving from memory hysteresis characterization data indicative of one or more temperature-frequency hysteresis characterization values or hysteresis model parameters, b) retrieving from memory hysteretic state data indicative of an accumulated hysteretic effect of prior temperature history experienced by the frequency reference, and continually or periodically updating the hysteretic state data, c) executing an error calculation algorithm arranged to calculate an estimate of any reference frequency error using said hysteresis characterization data and said hysteretic state data, and d) using said estimate of frequency error to correct the reference frequency, or to mitigate the effect of reference frequency error in the host application system. a) retrieving from memory hysteresis characterization data indicative of one or more temperature-frequency hysteresis characterization values or hysteresis model parameters, b) retrieving from memory hysteretic state data indicative of an accumulated hysteretic effect of prior temperature history experienced by the frequency reference, and continually or periodically updating the hysteretic state data, c) executing an error calculation algorithm arranged to calculate an estimate of any reference frequency error using said hysteresis characterization data and said hysteretic state data, and d) using said estimate of frequency error to correct the reference frequency, or to mitigate the effect of reference frequency error in the host application system.
An input apparatus for an electronic device, said input apparatus comprising: a force receiving surface configured to receive a tactile input force applied thereon; a plurality of force sensing elements configured to sense indications of the tactile input force applied on said force receiving surface, and to exhibit a corresponding electrical parameter value; and a plurality of sensing-element fasteners, each sensing-element fastener configured to fasten a respective force sensing-element to the input apparatus, and to exhibit a clamp load such that each force sensing element, prior to application of the tactile input force, exhibits a substantially equal initial electrical parameter. a force receiving surface configured to receive a tactile input force applied thereon; a plurality of force sensing elements configured to sense indications of the tactile input force applied on said force receiving surface, and to exhibit a corresponding electrical parameter value; and a plurality of sensing-element fasteners, each sensing-element fastener configured to fasten a respective force sensing-element to the input apparatus, and to exhibit a clamp load such that each force sensing element, prior to application of the tactile input force, exhibits a substantially equal initial electrical parameter.
A method for the delayed deregistration of functional numbers for mobile stations of a wireless communication system in the home network of a mobile station, said mobile station sending a deregistration message, characterized in that a comparison is carried out between an identifier of the originating network of the deregistration message and the international code of the functional number, said functional number to be deregistered in a configuration database of another network, and in that the deregistration of the functional number is delayed if a difference is detected in this comparison.
A pressure controlled wind turbine enhancement system comprising a shroud, the shroud comprising in axial direction at least first and second sections separated from one another by a circumferentially extending gap wherein the first section has a steeper taper than the second section, the gap allowing pressure to be alleviated from the interior of the shroud in order to accelerate the airflow and maintain the continuity of airflow, and therefore prevent the introduction of turbulence, at the transition between the first and second sections.
A sleeve for being provided inside a bag body to come into contact with an inner face of the bag body in a tubular state and being able to impart a three-dimensional box shape to the bag body, wherein the sleeve contains a polyolefin and a filler, a first crease (11a, 11b, 11c, 11d) configured to assist in folding the sleeve into a rectangular tubular shape is formed on a sleeve surface, and second creases (12a, 12b) configured to assist in folding the sleeve into a flat shape are formed on the sleeve surface, characterized in that bonding-scheduled parts (14a, 14b) are provided along each second crease (12a, 12b) at each of positions sandwiching the second crease (12a, 12b) on the sleeve surface, the bonding-scheduled parts (14a, 14b) being configured to bond the sleeve to an inner face of the bag body. the sleeve contains a polyolefin and a filler, a first crease (11a, 11b, 11c, 11d) configured to assist in folding the sleeve into a rectangular tubular shape is formed on a sleeve surface, and second creases (12a, 12b) configured to assist in folding the sleeve into a flat shape are formed on the sleeve surface, characterized in that bonding-scheduled parts (14a, 14b) are provided along each second crease (12a, 12b) at each of positions sandwiching the second crease (12a, 12b) on the sleeve surface, the bonding-scheduled parts (14a, 14b) being configured to bond the sleeve to an inner face of the bag body.
Method of producing a cutting plate made of hard metal, in particular of sintered carbide, by multiaxial pressing a powder mixture of a hard metal component and a binder to form a green body, followed by sintering the green body, which after pressing comprises two substantially parallel main surfaces (1a, 1b) and a peripheral edge surface (2, 3a, 3b) extending between the main surfaces at the periphery thereof and connecting the same, which main surfaces include depressions (4a,b; 5a,b) extending at least partly to the edge surface such that cutting edges (6a, 6b) are formed at the intersection of the bottom of said depressions and at least a part (3a, 3b) of said edge surface wherein the powder mixture is supplied to a compression mold comprising a cavity which is defined by side punches moveable along at least a first direction for forming said edge surfaces and at least one heading punch moveable substantially perpendicular to the first direction for compacting the powder mixture to form a cutting plate green body, wherein a heading tool is used which is moveable perpendicular to and towards said main surfaces, wherein the heading tool comprises two parts, one of which is a main punch (23,a,b) and the other being an independently moveable form punch (24a,b), characterized in that in a first pressing step the form punch (24a,b) is moved towards the powder mixture to form a preliminarily compressed portion of the green body adjacent the edge surface and including an area designated to become an area of a minimal final thickness of the green body, while in a second step the main punch (23a,b) and the form punch (24a,b) are both moved towards their final position to provide the green body with its final dimensions of the parallel main surfaces (1a, 1b) including the depressions (4a,b, 5a,b).