mhurhangee/patent-ind-claim-en huggingface dataset:
Processing system, in particular a crushing system , in particular a rock crusher, comprising a filling unit which can be filled with a material to be crushed, wherein a sieve unit is arranged downstream of the filling unit in the conveying direction or in the filling unit , wherein the sieve unit can be set into vibratory motion by means of a vibration exciter , wherein via the sieve unit a first part of the supplied material is fed to a processing unit, in particular a crushing unit , and another part of the supplied material is separated out in the sieve unit , wherein, by means of a flap of a conveyor unit , which flap is adjustable about a pivot axis (74.1), the separated part of the material is fed past the processing unit, in particular past the crushing unit , to a conveyor device, in particular a crusher discharge conveyor , in a bypass position, or is alternatively discharged by means of a conveyor device from a working region of the processing system in a conveying position, wherein bearing portions (75.1) of a bearing are coupled to opposite sides of the flap and are rotationally mounted on the conveyor unit , characterised in that at least one detachable clamping portion (80.1, 80.2) is associated with at least one of the bearing portions (75.1), which clamping portion acts in a clamping manner on the associated bearing portion (75.1) and fixes it relative to the conveyor unit in a pivoting position of the flap such that the flap is held in a rotationally fixed manner relative to the conveyor unit in the pivoting position.
An ultra-high strength, hot-dip galvanized steel sheet having a tensile strength of 780 MPa or greater, high surface quality and coating adhesion, comprising a base steel sheet and a galvanized layer formed on the base steel sheet, wherein the ultra-high strength, hot-dip galvanized steel sheet comprises, by wt%, carbon (C): 0.1% to 0.3%, silicon (Si): 0.1% to 2.0%, aluminum (Al): 0.005% to 1.5%, manganese (Mn): 1.5% to 3.5%, phosphorus (P): 0.04% or less (excluding 0%), sulfur (S): 0.015% or less (excluding 0%), nitrogen (N): 0.02% or less (excluding 0%), and a balance of iron (Fe) and inevitable impurities, wherein the ultra-high strength, hot-dip galvanized steel sheet further comprises at least one element selected from the group consisting of bismuth (Bi), tin (Sn), and antimony (Sb) in an amount of 0.01 wt% to 0.07 wt%, wherein the ultra-high strength, hot-dip galvanized steel sheet optionally including at least one element selected from the group consisting of titanium (Ti): 0.005% to 0.1%, niobium (Nb): 0.005% to 0.1%, vanadium (V): 0.005% to 0.1%, zirconium (Zr): 0.005% to 0.1%, and tungsten (W): 0.005% to 0.5%, wherein the ultra-high strength, hot-dip galvanized steel sheet is optionally including at least one element selected from the group consisting of molybdenum (Mo): 1% or less (excluding 0%), nickel (Ni): 1% or less (excluding 0%), copper (Cu): 0.5% or less (excluding 0%), and chromium (Cr): 1% or less (excluding 0%), wherein the ultra-high strength, hot-dip galvanized steel sheet is optionally including at least one element selected from the group consisting of calcium (Ca): 0.01% or less (excluding 0%), and boron (B): 0.01% or less, excluding 0%, characterized in that a degree of concentration of at least one element selected from the group consisting of Bi, Sn, and Sb in a region of the base steel sheet defined as being from an interface between the base steel sheet and the galvanized layer to a depth of 0 to 0.1 μm, is 2 times to 20 times a degree of concentration of the at least one element in a region of the base steel sheet, defined to be within a depth range of 0.2 μm or greater, wherein the degree of concentration of at least one element selected from the group consisting of Bi, Sn, and Sb is determined as indicated in experimental example 2.
A dressing bolster assembly for treating a tissue site with reduced pressure, comprising: a dressing bolster having a first side and a second, inward-facing side; characterized by a comfort layer having a first side and a second, inward-facing side, the first side of the comfort layer coupled to the second, inward-facing side of the dressing bolster , wherein at least a portion of the second side of the comfort layer is configured to be directly against the tissue site; and a sealing ring disposed on at least a portion of the second, inward-facing side of the comfort layer , and configured to be directly coupled to a sealing member having a portion configured to be disposed over the dressing bolster , wherein an inward-facing side of the sealing ring is configured to be placed against a portion of the patient's epidermis. a dressing bolster having a first side and a second, inward-facing side; characterized by a comfort layer having a first side and a second, inward-facing side, the first side of the comfort layer coupled to the second, inward-facing side of the dressing bolster , wherein at least a portion of the second side of the comfort layer is configured to be directly against the tissue site; and a sealing ring disposed on at least a portion of the second, inward-facing side of the comfort layer , and configured to be directly coupled to a sealing member having a portion configured to be disposed over the dressing bolster , wherein an inward-facing side of the sealing ring is configured to be placed against a portion of the patient's epidermis.
A rotation mechanism for an X-ray inspection apparatus used in an X-ray inspection apparatus including an X-ray generator and an X-ray detector disposed with an object to be inspected placed between the X-ray detector and the X-ray generator, the rotation mechanism comprising: a table; a table holding member rotatably holding the table; a rolling bearing including an inner race and an outer race, the inner race having a ring shape and being fixed to either one of the table and the table holding member, the outer race having a ring shape and being fixed to another of the table and the table holding member; characterized in that the rotation mechanism further comprises three or more adjustment members configured to adjust a shape of the outer race by deforming the outer race, the adjustment members being arranged in a circumferential direction of the rolling bearing, the table or the table holding member to which the outer race is fixed including an adjustment member holder movably holding the adjustment members, the adjustment member holder being disposed on an outer circumferential side of the outer race, the adjustment members being movable relative to the adjustment member holder in a diameter direction of the rolling bearing and being contactable with an outer circumferential surface of the outer race, and a gap configured to allow deformation of the outer race being formed between the outer circumferential surface of the outer race and the adjustment member holder in the diameter direction of the rolling bearing. a table; a table holding member rotatably holding the table; a rolling bearing including an inner race and an outer race, the inner race having a ring shape and being fixed to either one of the table and the table holding member, the outer race having a ring shape and being fixed to another of the table and the table holding member; characterized in that the rotation mechanism further comprises three or more adjustment members configured to adjust a shape of the outer race by deforming the outer race, the adjustment members being arranged in a circumferential direction of the rolling bearing, the table or the table holding member to which the outer race is fixed including an adjustment member holder movably holding the adjustment members, the adjustment member holder being disposed on an outer circumferential side of the outer race, the adjustment members being movable relative to the adjustment member holder in a diameter direction of the rolling bearing and being contactable with an outer circumferential surface of the outer race, and a gap configured to allow deformation of the outer race being formed between the outer circumferential surface of the outer race and the adjustment member holder in the diameter direction of the rolling bearing.
A method for determining imaging parameters for an MR image generated by an MR imaging system of an object under examination with an imaging sequence in which a part of the object under examination is imaged with a reduced field of view obtained with 2 dimensional spatially selective RF excitation pulses and magnetic field gradients applied to 2 different directions, wherein the 2 dimensional spatially selective RF excitation pulses are tilted by a rotation angle alpha with regard to an imaging plane where the MR image is generated, the method comprising: - determining a set of image sequence parameters of the imaging sequence, - determining a frequency offset of off-resonant tissue potentially present in the object under examination, - determining an allowed maximum position shift of the off-resonant tissue along a slice selection direction, which then results in a corresponding signal attenuation or cancellation for the determined frequency offset, - determining the rotation angle which leads to the allowed maximum shift for the off-resonant tissue based on the determined set of image sequence parameters, - providing the determined rotation angle to the MR imaging system in order to allow the MR imaging system to generate the MR image using the determined rotation angle in the imaging sequence. - determining a set of image sequence parameters of the imaging sequence, - determining a frequency offset of off-resonant tissue potentially present in the object under examination, - determining an allowed maximum position shift of the off-resonant tissue along a slice selection direction, which then results in a corresponding signal attenuation or cancellation for the determined frequency offset, - determining the rotation angle which leads to the allowed maximum shift for the off-resonant tissue based on the determined set of image sequence parameters, - providing the determined rotation angle to the MR imaging system in order to allow the MR imaging system to generate the MR image using the determined rotation angle in the imaging sequence.
A filter system having a filter for an aqueous urea solution, having a first pump and having a second pump , wherein the filter features a filter housing , a supply line , a discharge line and a filter element disposed in the filter housing , said filter element being designed as round filter element, having a star-shaped folded filter material for filtering aqueous urea solution, wherein the filter material can be flowed through by a medium to be filtered from a raw side to a clean side of the filter element , wherein the filter element features a non-return element , which is designed to allow a return flow of the filtered medium from the clean side back to the raw side , but no flow of unfiltered medium from the raw side to the clean side , wherein the filter element features a first end disc , wherein the medium to be filtered can be supplied to the filter via the first pump and wherein a medium contained in the filter can be pumped out of the filter via the second pump characterized in that the non-return element is directly disposed on the first end disc and the non-return element features a first passage recess in the first end disc and a membrane made of silicone or synthetic rubber, said membrane covering the first passage recess on the raw side of the filter element , wherein the membrane closes the passage recess at a higher pressure on the raw side than on the clean side and opens it at a higher pressure on the clean side than on the raw side , so that the filtered medium can be guided from the clean side to the raw side without the filtered medium passing through the filter material .
A moving image capturing device comprising: an image data generation unit provided with a rolling shutter configured to generate a plurality of pieces of image data of different resolutions from each frame image of a moving image obtained by capturing an image of a target object, and configured to sequentially output the image data as a stream for each single horizontal row of pixels, wherein the generated resolutions comprise at least 1/1 image data; an image synthesis unit configured to cyclically connect the rows of each of the plurality of pieces of image data, which is output from the image data generation unit for each single horizontal row of pixels, and configured to output resultant data as a stream so as to generate a virtual synthesized image which includes the plurality of image pieces and in which a row of pixels that results when a connection cycle is completed is defined as a horizontal row of pixels of the virtual synthesized image; and an image transmission unit configured to receive, from a connected host terminal, a request to transmit data specifying a plurality of rectangular areas having a common vertical range in the virtual synthesized image, configured to crop out ranges corresponding to the rectangular areas for each row of pixels of the virtual synthesized image output by the image synthesis unit , configured to connect the ranges, and configured to transmit as a stream to the host terminal. an image data generation unit provided with a rolling shutter configured to generate a plurality of pieces of image data of different resolutions from each frame image of a moving image obtained by capturing an image of a target object, and configured to sequentially output the image data as a stream for each single horizontal row of pixels, wherein the generated resolutions comprise at least 1/1 image data; an image synthesis unit configured to cyclically connect the rows of each of the plurality of pieces of image data, which is output from the image data generation unit for each single horizontal row of pixels, and configured to output resultant data as a stream so as to generate a virtual synthesized image which includes the plurality of image pieces and in which a row of pixels that results when a connection cycle is completed is defined as a horizontal row of pixels of the virtual synthesized image; and an image transmission unit configured to receive, from a connected host terminal, a request to transmit data specifying a plurality of rectangular areas having a common vertical range in the virtual synthesized image, configured to crop out ranges corresponding to the rectangular areas for each row of pixels of the virtual synthesized image output by the image synthesis unit , configured to connect the ranges, and configured to transmit as a stream to the host terminal.
A system comprising: an authorization mechanism that performs a discovery authorization procedure for proximity services, ProSe, the authorization mechanism comprising: a validation controller configured to receive information for a discovery request sent by an application in User Equipment , wherein the information for the discovery request includes an application identifier for the application ; and a rules engine configured to determine validation rules for the discovery authorization procedure; the validation controller is configured to send a security challenge message to the User Equipment requesting challenge values for security parameters that are mapped to the application identifier, to receive a security answer message from the User Equipment in response to the security challenge message, to extract the challenge values for the security parameters from the security answer message as provided by the User Equipment , and to determine whether the application is authorized for direct discovery using the application identifier based on the challenge values for the security parameters and the validation rules ; the validation controller is configured to generate a validation indicator to authorize the discovery request sent by the application , if the application is authorized for direct discovery using the application identifier , wherein the validation controller is further configured to output the validation indicator to a proximity service function , wherein the validation indicator indicates whether the proximity service function is to allow the User Equipment or application to perform direct discovery using the application identifier . a validation controller configured to receive information for a discovery request sent by an application in User Equipment , wherein the information for the discovery request includes an application identifier for the application ; and a rules engine configured to determine validation rules for the discovery authorization procedure; the validation controller is configured to send a security challenge message to the User Equipment requesting challenge values for security parameters that are mapped to the application identifier, to receive a security answer message from the User Equipment in response to the security challenge message, to extract the challenge values for the security parameters from the security answer message as provided by the User Equipment , and to determine whether the application is authorized for direct discovery using the application identifier based on the challenge values for the security parameters and the validation rules ; the validation controller is configured to generate a validation indicator to authorize the discovery request sent by the application , if the application is authorized for direct discovery using the application identifier , wherein the validation controller is further configured to output the validation indicator to a proximity service function , wherein the validation indicator indicates whether the proximity service function is to allow the User Equipment or application to perform direct discovery using the application identifier .
A wire coat rubber composition for a tire, the rubber composition comprising: from 70 to 100 phr of cis 1,4-polyisoprene rubber, from 0 to 30 phr of solution-polymerized styrene butadiene rubber, from 65 to 95 phr pre-silanized precipitated silica, from 0.1 phr to 5 phr of a cobalt salt, from 0 to 15 phr carbon black, from 0 to 10 phr of a resin, and from 0 to 10 phr oil. from 70 to 100 phr of cis 1,4-polyisoprene rubber, from 0 to 30 phr of solution-polymerized styrene butadiene rubber, from 65 to 95 phr pre-silanized precipitated silica, from 0.1 phr to 5 phr of a cobalt salt, from 0 to 15 phr carbon black, from 0 to 10 phr of a resin, and from 0 to 10 phr oil.
An information sharing method comprising: A10: obtaining processing information during an information sharing process, regarding preset rules or sharing conditions which need to be met, wherein the processing information is obtained from a sending terminal and/or provided by a receiving terminal; A11: processing original information to be shared according to the processing information to obtain target sharing information; A12: sending the target sharing information; characterized in that , the method further comprises: D10: obtaining the target sharing information; D11: detecting whether the target sharing information is the same as first sharing information, wherein the first sharing information is original information to be shared; D12: in determining that the first sharing information is different from the original information to be shared, obtaining description information corresponding to the target sharing information, and sending the target sharing information and the description information; and; D13: in determining that the first sharing information is the same as the original information to be shared, only sending the target sharing information. A10: obtaining processing information during an information sharing process, regarding preset rules or sharing conditions which need to be met, wherein the processing information is obtained from a sending terminal and/or provided by a receiving terminal; A11: processing original information to be shared according to the processing information to obtain target sharing information; A12: sending the target sharing information; D10: obtaining the target sharing information; D11: detecting whether the target sharing information is the same as first sharing information, wherein the first sharing information is original information to be shared; D12: in determining that the first sharing information is different from the original information to be shared, obtaining description information corresponding to the target sharing information, and sending the target sharing information and the description information; and; D13: in determining that the first sharing information is the same as the original information to be shared, only sending the target sharing information.
Method of multi-dimensional high-resolution imaging a structure of a sample , which is marked with fluorescence markers, comprising the steps which are repeated for a plurality of measurement areas in the sample : - focusing the fluorescence enabling light into the sample , wherein the area illuminated by the fluorescence enabling light in the sample is the respective measurement area ; - subjecting a partial area of the measurement area to fluorescence inhibiting light , wherein the partial area omits a centre of the measurement area in that an intensity distribution of the fluorescence inhibiting light comprises a line-shaped or plane-shaped zero extending across the centre , wherein a minimal extension of the zero through the centre of the measurement area is by a factor k ≥ 2 smaller than a diameter of the measurement area in the same direction; - measuring fluorescence light emitted from the sample out of the measurement area without spatial resolution within the measurement area ; - assigning a value of the measured fluorescence light to a location defined by the position of the centre in the sample ; characterized in - that the fluorescence light emitted out of the measurement area is measured for a plurality of consecutive different angle positions of the zero about the centre , wherein, for each of the angle positions of the zero , the measurement area is subjected to the fluorescence enabling light , and wherein the fluorescence light emitted from the sample out of the measurement area is measured at a temporal resolution which resolves the plurality of consecutive angle position of the zero in the measured fluorescence light . - focusing the fluorescence enabling light into the sample , wherein the area illuminated by the fluorescence enabling light in the sample is the respective measurement area ; - subjecting a partial area of the measurement area to fluorescence inhibiting light , wherein the partial area omits a centre of the measurement area in that an intensity distribution of the fluorescence inhibiting light comprises a line-shaped or plane-shaped zero extending across the centre , wherein a minimal extension of the zero through the centre of the measurement area is by a factor k ≥ 2 smaller than a diameter of the measurement area in the same direction; - measuring fluorescence light emitted from the sample out of the measurement area without spatial resolution within the measurement area ; - assigning a value of the measured fluorescence light to a location defined by the position of the centre in the sample ; - that the fluorescence light emitted out of the measurement area is measured for a plurality of consecutive different angle positions of the zero about the centre , wherein, for each of the angle positions of the zero , the measurement area is subjected to the fluorescence enabling light , and wherein the fluorescence light emitted from the sample out of the measurement area is measured at a temporal resolution which resolves the plurality of consecutive angle position of the zero in the measured fluorescence light .