mhurhangee/ep-ind-claims huggingface dataset:
An absorbent article characterized by comprising: a. a longitudinal direction, a transverse direction, and a depth direction; b. a topsheet layer and a backsheet layer; and c. an absorbent system positioned between the topsheet layer and the backsheet layer, the absorbent system comprising: i. a fluid intake layer positioned below the topsheet layer in the depth direction of the absorbent article; ii. an absorbent core positioned below the fluid intake layer in the depth direction of the absorbent article; and iii. a distribution layer positioned below the absorbent core in the depth direction of the absorbent article and capable of distributing fluid in at least the longitudinal direction of the absorbent article; wherein the fluid intake layer and the absorbent core define an aligned annular opening and wherein a spatial gap exists between the topsheet layer and the distribution layer. a. a longitudinal direction, a transverse direction, and a depth direction; b. a topsheet layer and a backsheet layer; and c. an absorbent system positioned between the topsheet layer and the backsheet layer, the absorbent system comprising: i. a fluid intake layer positioned below the topsheet layer in the depth direction of the absorbent article; ii. an absorbent core positioned below the fluid intake layer in the depth direction of the absorbent article; and iii. a distribution layer positioned below the absorbent core in the depth direction of the absorbent article and capable of distributing fluid in at least the longitudinal direction of the absorbent article; i. a fluid intake layer positioned below the topsheet layer in the depth direction of the absorbent article; ii. an absorbent core positioned below the fluid intake layer in the depth direction of the absorbent article; and iii. a distribution layer positioned below the absorbent core in the depth direction of the absorbent article and capable of distributing fluid in at least the longitudinal direction of the absorbent article;
A retaining cap for a plasma torch, comprising a first outer portion comprising a plastic material; and a second inner portion comprising a metallic material, wherein the second portion comprises an annular inner wall comprising multiple start threads, wherein each of the multiple start threads comprises a root and two walls extending from the root, having a thread angle between the two walls of greater than 60°.
A wing assembly, in particular a sliding door, comprising at least two wings (6a-6d) which are slidably arranged and movable between a front and a rear approach rail (4, 5), such wings (6a-6d) being designed as at least largely frameless glass wings and further comprising a glass pane as well as a carriage unit associated with its bottom rim and guided on a guide rail, with the rear wing in normal operation being held in contact on the rear approach rail by means of a locking device comprising a stationary element and a movable element and located in its locking position, and with the locking device being unlocked in special cases out of the normal operation only, and whereby the stationary element of the locking device is associated with the rear wing and the movable element of the locking device is associated with the rear approach rail, with the stationary element being positioned in the region of the end of the bottom carriage unit of the rear wing facing the rear approach rail, and with the movable element being positioned in the bottom region of the rear approach rail adjacent to the carriage unit, and with the operating element being movably arranged with a distance above the latter on the inner side of the rear approach rail, such operating element being connected with the movable element by means of a power transmitting element, characterized in that the operating element is attached to a slide arranged with distance above the bar of the movable element of the locking device, such slide being movably arranged in the rear approach rail and connected with the bar of the movable element by the power transmitting element, said bar being designed in the kind of a shifting slide, and that the slide associated with the operating element and the slide-like bar of the movable element are provided with lateral guide rails which are adjustable in height and supported in guide grooves which are limited by inner ribs of the rear approach rail.
Use of a compound of general formula wherein A is N or C substituted with one of H, halogen ( Cl, Br, F),SO 3 H, C 1-4 alkyl, aryl, hetaryl, CO-C 1-16 alkylamino, Z and Z 1 independently are N or C substituted with one of H, halogen ( Cl, Br, F),SO 3 H, C 1-4 alkyl, aryl, hetaryl, C-O-C 1-16 alkylamino, E = O, S or P; R 1 is independently substituted or unsubstituted C 4-15 alkylaryl, substituted or unsubstituted aryl, substituted or unsubstituted heterocycle, or substituted or unsubstituted heteroaryl, wherein the substitution is by one or more moiety(ies) selected from a group consisting of imide, -C (CH 2)0-3CH3, C 2-5 carboxyl, -(CH 2) 1-3 C (CH 2) 0-3 CH 3, nitro, amino, thiol, succinimide, maleimide, aminooxyl, acetylene, N 3, acetamino, azide, -C O(CH 2) 1-3 CH 3, - OC (CH 2) 0-3 CH 3, halogen, C 1-5 alkynyl, and NCS; and a = 0 - 5, for chromatographic separation of rare earth elements, actinides, and/or s-, p- and d-block metals. A is N or C substituted with one of H, halogen ( Cl, Br, F),SO 3 H, C 1-4 alkyl, aryl, hetaryl, CO-C 1-16 alkylamino, Z and Z 1 independently are N or C substituted with one of H, halogen ( Cl, Br, F),SO 3 H, C 1-4 alkyl, aryl, hetaryl, C-O-C 1-16 alkylamino, E = O, S or P; R 1 is independently substituted or unsubstituted C 4-15 alkylaryl, substituted or unsubstituted aryl, substituted or unsubstituted heterocycle, or substituted or unsubstituted heteroaryl, wherein the substitution is by one or more moiety(ies) selected from a group consisting of imide, -C (CH 2)0-3CH3, C 2-5 carboxyl, -(CH 2) 1-3 C (CH 2) 0-3 CH 3, nitro, amino, thiol, succinimide, maleimide, aminooxyl, acetylene, N 3, acetamino, azide, -C O(CH 2) 1-3 CH 3, - OC (CH 2) 0-3 CH 3, halogen, C 1-5 alkynyl, and NCS; and a = 0 - 5, for chromatographic separation of rare earth elements, actinides, and/or s-, p- and d-block metals.
A method in a video surveillance system for identifying properties of an object in a video sequence captured by a video surveillance camera, the method comprising the steps of: identifying a specific object in the video sequence; characterized by: generating a color histogram in at least two dimensions of a color space, based on color and intensity information of the specific object identified in the video sequence, wherein the color space is a color space in which intensity information and color information can be separated, such as YCbCr, HSV or YUV color space, wherein the color and intensity information originating from a plurality of images of the video sequence, wherein in the color histogram each color part of the specific object is represented by a blob having a certain extension in the color histogram, and wherein the specific object is described as a cluster of such blobs; transforming the color histogram from a Cartesian coordinate system into a polar coordinate system with p representing intensity and α representing color, wherein ρ is the radial coordinate and α is the angular coordinate; identifying properties of the specific object based on the generated and transformed color histogram by identifying a center of mass of the color histogram and a color histogram distribution defined as an extension in the color histogram of the cluster of blobs that describes the specific object, and calculating parameters for identifying properties of the specific object based on the identified center of mass and the identified color histogram distribution. identifying a specific object in the video sequence; generating a color histogram in at least two dimensions of a color space, based on color and intensity information of the specific object identified in the video sequence, wherein the color space is a color space in which intensity information and color information can be separated, such as YCbCr, HSV or YUV color space, wherein the color and intensity information originating from a plurality of images of the video sequence, wherein in the color histogram each color part of the specific object is represented by a blob having a certain extension in the color histogram, and wherein the specific object is described as a cluster of such blobs; transforming the color histogram from a Cartesian coordinate system into a polar coordinate system with p representing intensity and α representing color, wherein ρ is the radial coordinate and α is the angular coordinate; identifying properties of the specific object based on the generated and transformed color histogram by identifying a center of mass of the color histogram and a color histogram distribution defined as an extension in the color histogram of the cluster of blobs that describes the specific object, and calculating parameters for identifying properties of the specific object based on the identified center of mass and the identified color histogram distribution.
A detection circuit of electromagnetic fault injection, comprising: a shielding layer configured to shield interference; at least one group of metal-oxide semiconductor, MOS, transistors, wherein a source end of the at least one group of MOS transistors is connected to the shielding layer; at least one latch, wherein a drain end of the at least one group of MOS transistors is connected to an input end of the at least one latch; and a signal output module, wherein an input end of the signal output module is connected to an output end of the at least one latch, the signal output module is configured to generate and output a target signal based on a voltage change at the output end of the at least one latch, and the target signal is used to indicate whether there is electromagnetic fault injection in the shielding layer; wherein when some or all MOS of the at least one group of MOS transistors is turned on, the signal output module is configured to output s first target signal, and the first target signal is used to indicate that there is electromagnetic fault injection in the shielding layer; and when the at least one group of MOS transistors are each turned off, the signal output module is configured to output a second target signal, and the second target signal is used to indicate that there is no electromagnetic fault injection in the shielding layer. a shielding layer configured to shield interference; at least one group of metal-oxide semiconductor, MOS, transistors, wherein a source end of the at least one group of MOS transistors is connected to the shielding layer; at least one latch, wherein a drain end of the at least one group of MOS transistors is connected to an input end of the at least one latch; and a signal output module, wherein an input end of the signal output module is connected to an output end of the at least one latch, the signal output module is configured to generate and output a target signal based on a voltage change at the output end of the at least one latch, and the target signal is used to indicate whether there is electromagnetic fault injection in the shielding layer; wherein when some or all MOS of the at least one group of MOS transistors is turned on, the signal output module is configured to output s first target signal, and the first target signal is used to indicate that there is electromagnetic fault injection in the shielding layer; and when the at least one group of MOS transistors are each turned off, the signal output module is configured to output a second target signal, and the second target signal is used to indicate that there is no electromagnetic fault injection in the shielding layer.
A method, implemented by a second device, of providing a first device with access to a function of the second device, the method comprising the second device detecting the first device; transferring a code module, from a first runtime environment executing on the first device, to a second runtime environment executing on the second device to expose a function of the second device supported by the second runtime environment to the first device, wherein the function is inaccessible via remote invocation without the code module, using the second runtime environment to control performance of the function of the second device responsive to a remote invocation of the function received via the code module from an application executing within the first runtime environment, deleting the code module from the second device after the application has remotely invoked the function of the second device and/or when the second device no longer detects the first device. the second device detecting the first device; transferring a code module, from a first runtime environment executing on the first device, to a second runtime environment executing on the second device to expose a function of the second device supported by the second runtime environment to the first device, wherein the function is inaccessible via remote invocation without the code module, using the second runtime environment to control performance of the function of the second device responsive to a remote invocation of the function received via the code module from an application executing within the first runtime environment, deleting the code module from the second device after the application has remotely invoked the function of the second device and/or when the second device no longer detects the first device.
A method for producing a glass component which consists at least in part of doped, in particular rare-earth-doped SiO 2, comprising the following method steps: (a) providing a cavity-containing intermediate product that contains doped SiO 2, (b) introducing the intermediate product into a sheath made of glass, which sheath comprises a longitudinal axis and an inner bore, and (c) thermally treating the intermediate product in the sheath, wherein a first gas-permeable gas diffuser is inserted into the sheath inner bore, which gas diffuser is displaceable along the sheath longitudinal axis and is pressed against the intermediate product during thermal treatment, wherein a pressing force is generated by means of a clamping device (8; 9; 10; 60; 61, 62; 63), which exerts a pre-pressure on the first gas diffuser, wherein the clamping device (8; 9; 10; 60; 61; 62; 63) comprises an elastically deformable spring element inserted in the sheath inner bore or a slide (61; 63), which is displaceable in the sheath inner bore and has a first magnet element made of a magnetic material, and a second magnetic element, which is movable in the longitudinal axis direction outside the sheath inner bore and acts on the magnet element. (a) providing a cavity-containing intermediate product that contains doped SiO 2, (b) introducing the intermediate product into a sheath made of glass, which sheath comprises a longitudinal axis and an inner bore, and (c) thermally treating the intermediate product in the sheath,
A system for arithmetic encoding and decoding comprising • an entropy coder for converting at least one event sequence, each event sequence including a plurality of events, to at least one information sequence, each information sequence including at least one information piece, wherein the at least one event sequence represents input data partitioned into a number of segments, comprising: ∘ an arithmetic encoder configured to generate zero or more information pieces of at least one information sequence by encoding at least one event of at least one event sequence; and ∘ a controller coupled with the arithmetic encoder configured to maintain a constraint of the number of events of the sequence of events with respect to a number of information pieces generated including the number of events in the at least one event sequence to be equal to or less than a number determined by a function of a linear combination including the number of generated information pieces in at least one information sequence and the number of segments and • a decoder configured to decode the at least one information sequence. • an entropy coder for converting at least one event sequence, each event sequence including a plurality of events, to at least one information sequence, each information sequence including at least one information piece, wherein the at least one event sequence represents input data partitioned into a number of segments, comprising: ∘ an arithmetic encoder configured to generate zero or more information pieces of at least one information sequence by encoding at least one event of at least one event sequence; and ∘ a controller coupled with the arithmetic encoder configured to maintain a constraint of the number of events of the sequence of events with respect to a number of information pieces generated including the number of events in the at least one event sequence to be equal to or less than a number determined by a function of a linear combination including the number of generated information pieces in at least one information sequence and the number of segments and ∘ an arithmetic encoder configured to generate zero or more information pieces of at least one information sequence by encoding at least one event of at least one event sequence; and ∘ a controller coupled with the arithmetic encoder configured to maintain a constraint of the number of events of the sequence of events with respect to a number of information pieces generated including the number of events in the at least one event sequence to be equal to or less than a number determined by a function of a linear combination including the number of generated information pieces in at least one information sequence and the number of segments and • a decoder configured to decode the at least one information sequence.
Use of an article for molding, the article comprising a polyester resin copolymerized with diacid components including terephthalic acid; diol components including 10 to 40 mol% of isosorbide and 50 to 80 mol% of ethylene glycol with respect to total diol components; and 1 to 50 weight% of lactic acid or a compound derived therefrom with respect to total reactants for resin polymerization, wherein, the amount of biomass resource components including the isosorbide and the lactic acid or the compound derived therefrom is 5 to 70 weight%, and the polyester resin has the repeated structure of diacid moiety derived from the diacid components, diol moiety derived from the diol components and hydroxy monoacid moiety derived from the lactic acid or the compound derived therefrom, and wherein an intrinsic viscosity of the polyester resin is 0.5 dl/g or more, and the intrinsic viscosity is measured at the temperature of 35 °C while the polyester resin is dissolved with orthochlorophenol to a concentration of 1.2g/dl.
A method for identifying an inconsistency, the method comprising: generating a number of waves that propagate through a structure; generating a response signal in response to detecting at least a portion of the number of waves that propagate through the structure; determining whether the response signal includes a reflected component; indicating a presence of the inconsistency(106 in the structure when the response signal includes the reflected component; identifying information about the inconsistency using a difference in arrival time of a transmitted portion and a reflected portion of the at least a portion of the number of waves detected; wherein identifying the information about the inconsistency comprises identifying an m value, wherein the m value is half of a product of a central frequency of the number of waves and the difference in arrival time of the transmitted portion and the reflected portion of the at least a portion of the number of waves detected. generating a number of waves that propagate through a structure; generating a response signal in response to detecting at least a portion of the number of waves that propagate through the structure; determining whether the response signal includes a reflected component; indicating a presence of the inconsistency(106 in the structure when the response signal includes the reflected component; identifying information about the inconsistency using a difference in arrival time of a transmitted portion and a reflected portion of the at least a portion of the number of waves detected; wherein identifying the information about the inconsistency comprises identifying an m value, wherein the m value is half of a product of a central frequency of the number of waves and the difference in arrival time of the transmitted portion and the reflected portion of the at least a portion of the number of waves detected.
A decorating method suitable for decorating handmade ceramic products, comprising: - extruding a substantially laminar ribbon of ceramic material in a raw and plastic condition according to an extruding direction; - obtaining raw and plastic handmade products from said ribbon; - drying said raw and plastic handmade products obtaining raw products having cohesive bodies; - decorating in sight surfaces of said cohesive bodies, obtaining raw and decorated handmade products; and - firing said raw and decorated handmade products, characterized in that after said drying and before said decorating, grinding defects of said in sight surfaces of said cohesive bodies. - extruding a substantially laminar ribbon of ceramic material in a raw and plastic condition according to an extruding direction; - obtaining raw and plastic handmade products from said ribbon; - drying said raw and plastic handmade products obtaining raw products having cohesive bodies; - decorating in sight surfaces of said cohesive bodies, obtaining raw and decorated handmade products; and - firing said raw and decorated handmade products, characterized in that after said drying and before said decorating, grinding defects of said in sight surfaces of said cohesive bodies.