mhurhangee/ep-ind-claims huggingface dataset:
A video decoding device comprising: (a) extracting means (21; 201) for extracting PCM block size information from a bitstream, the PCM block size information indicating a threshold (pcmCodingUnitSize) to be used by PCM header parsing means; (b) determination means (22; 201) for determining the threshold (pcmCodingUnitSize) based on the extracted PCM block size information; (c) the PCM header parsing means (23; 204) for parsing a PCM header from the bitstream with respect to an encoded block, only when a block size of said encoded block is equal to or less than the determined threshold (pcmCodingUnitSize), the PCM header being information indicative of whether said encoded block is a block that has been encoded by PCM-encoding or not; (d) entropy decoding means (24; 204) for parsing transformed data of a prediction error data of an image in the bitstream; (e) PCM decoding means (26; 203) for decoding by PCM decoding PCM data of the image in the bitstream; and (f) decoding control means (27; 202) for controlling the entropy decoding means (24; 204) and the PCM decoding means (26; 203) based on the parsed PCM header, (g) wherein the PCM decoding means (26; 203) performs the decoding operation based on the block size of the encoding block being equal to or less than the determined threshold (pcmCodingUnitSize). (a) extracting means (21; 201) for extracting PCM block size information from a bitstream, the PCM block size information indicating a threshold (pcmCodingUnitSize) to be used by PCM header parsing means; (b) determination means (22; 201) for determining the threshold (pcmCodingUnitSize) based on the extracted PCM block size information; (c) the PCM header parsing means (23; 204) for parsing a PCM header from the bitstream with respect to an encoded block, only when a block size of said encoded block is equal to or less than the determined threshold (pcmCodingUnitSize), the PCM header being information indicative of whether said encoded block is a block that has been encoded by PCM-encoding or not; (d) entropy decoding means (24; 204) for parsing transformed data of a prediction error data of an image in the bitstream; (e) PCM decoding means (26; 203) for decoding by PCM decoding PCM data of the image in the bitstream; and (f) decoding control means (27; 202) for controlling the entropy decoding means (24; 204) and the PCM decoding means (26; 203) based on the parsed PCM header, (g) wherein the PCM decoding means (26; 203) performs the decoding operation based on the block size of the encoding block being equal to or less than the determined threshold (pcmCodingUnitSize).
Sensor for measuring structures in a finger surface, comprising a chosen number of sensor elements (2, 12, 22) at chosen positions for coupling to a surface having a size less or comparable to the size of the structures in the surface, and a processing unit including interrogation electrodes coupled to said sensor elements for providing impedance measurements at said surface structures, the processing unit being mounted on one side of a substrate and the sensor elements (2, 12, 22) being positioned on the opposite side of said substrate, the substrate including through going first conducting leads between said sensor elements and said interrogation electrodes, wherein the substrate is made from a semiconductor material such as silicon and said first conducting leads (2, 12, 22) are constituted by through going substrate sections of a chosen size surrounded by an insulating material, preferably a dielectric separating them from the substrate, the first conducting leads being made from the same material as the substrate, characterised in that, the substrate also including at least one second conductor lead also being constituted by a section of the substrate being insulated from the substrate with a dielectric material, being coupled to said finger surface and to said processing unit, the processing unit being adapted to measure the impedance between the first conductor leads and the second conductor lead, the second conductor lead being substantially larger than the structures on the surface, and the sensing side of the substrate being covered by a first dielectric layer.
A network control device that manages an optical network provided with a plurality of optical node devices that switch optical signals, and optical transmission paths that connect the plurality of optical node devices, wherein a preset section in which data transmission is possible without 3R (Reshaping, Retiming and Regenerating) relay is defined as a 3R section, and an optical node device at a start point of the 3R section is defined as a 3R source node, the network control device comprising:a topology information storage unit which stores topology information of the optical network; wherein the network control device is characterized by comprising: a generating unit which generates information representing a 3R section which has one or more hops specified by input information of the number of the hops and of which a specified optical node device is a 3R source node so as to correspond to the topology information, the information of the number of hops being generated using information on optical fiber types and wavelength bands which correspond to the topology of the optical network as well as the degrees of optical signal deterioration; a changing unit which changes part or the whole of the information of the 3R section generated by the generating unit, based on an instruction input by a user; and a unit which informs the optical node devices of information of a 3R section changed by the changing unit. a generating unit which generates information representing a 3R section which has one or more hops specified by input information of the number of the hops and of which a specified optical node device is a 3R source node so as to correspond to the topology information, the information of the number of hops being generated using information on optical fiber types and wavelength bands which correspond to the topology of the optical network as well as the degrees of optical signal deterioration; a changing unit which changes part or the whole of the information of the 3R section generated by the generating unit, based on an instruction input by a user; and a unit which informs the optical node devices of information of a 3R section changed by the changing unit.
Stable blend membrane comprising of polybenzimidazole and polymeric ionic liquid Poly (diallyl dimethyl ammonium) trifluoromethane sulphonate P[PDADMA][TFMS] with enhanced proton and hydroxyl ion conductivity.
A process for forming poly(1,4-dioxan-2-one) copolymer with a cyclic ester monomer, which comprises: (i) providing a reactant mixture comprising 1,4-dioxan-2-one and a cyclic ester monomer in an amount of 20 mole% or less based upon the 1,4-dioxan-2-one each containing less than 100-ppm water and having an acid value less than 0.5 mg KOH/g, and an organometallic polymerization agent into a blending means, in the absence of a solvent for the monomers; and (ii) blending the reactant mixture at a temperature between 80° and 240° C to form the poly(1,4-dioxane-2-one) copolymer, wherein less than 3 wt.% of unreacted 1,4-dioxan-2-one is present in the copolymer.
A system, comprising: a first mobile device including an input arrangement, a memory and an output arrangement, the input arrangement configured to receive a plurality of staging profiles, the memory configured to store the plurality of staging profiles, the plurality of staging profiles including a staging profile used to configure at least a portion of the first mobile device and another staging profile not previously used to configure a portion of the first mobile device; and a second mobile device including an input arrangement, the input arrangement configured to obtain at least one of the plurality of staging profiles from the output arrangement of the first mobile device, wherein at least a portion of the second mobile device is configured using the obtained staging profile a first mobile device including an input arrangement, a memory and an output arrangement, the input arrangement configured to receive a plurality of staging profiles, the memory configured to store the plurality of staging profiles, the plurality of staging profiles including a staging profile used to configure at least a portion of the first mobile device and another staging profile not previously used to configure a portion of the first mobile device; and a second mobile device including an input arrangement, the input arrangement configured to obtain at least one of the plurality of staging profiles from the output arrangement of the first mobile device, wherein at least a portion of the second mobile device is configured using the obtained staging profile
Vehicle seat, in particular a rear bench seat, which has a functional strip between a seat part (12M, 12S) and a backrest (14M, 14S), which, in the normal position of the vehicle seat, closes the gap between the seat part (12M, 12S) and the backrest (14M, 14S), wherein a mirror surface of the functional strip is arranged substantially in a vertical plane (y/z plane) in the installed state and at least one recess (10.1', 10.2') is arranged so as to be integrated in the functional strip as a belt buckle pocket for receiving at least one belt buckle in a non-use position, which belt buckle is arranged movably on a bodywork with a flexible belt strap (16M.1), the belt strap (16M.1) being located opposite the buckle of the belt buckle when viewed in the longitudinal extension of the belt buckle, wherein • the at least one recess (10.1') is designed for the vertical arrangement of the belt buckle in the mirror surface of the functional strip transversely to the longitudinal extension of the functional strip, or • the at least one recess (10.2') is designed for the horizontal arrangement of the belt buckle in the mirror surface of the functional strip in the longitudinal extension of the functional strip, wherein the at least one recess (10.1', 10.2') is formed in a foam of the functional strip, the inner contour of the at least one recess (10.1', 10.2') substantially corresponding to an outer contour of the belt buckle, characterized in that the inner contour of the at least one recess (10.1', 10.2') has at least one narrowed portion which clamps the belt buckle arranged in the at least one recess (10.1', 10.2') in the non-use position in the at least one recess (10.1', 10.2'). • the at least one recess (10.1') is designed for the vertical arrangement of the belt buckle in the mirror surface of the functional strip transversely to the longitudinal extension of the functional strip, or • the at least one recess (10.2') is designed for the horizontal arrangement of the belt buckle in the mirror surface of the functional strip in the longitudinal extension of the functional strip, wherein the at least one recess (10.1', 10.2') is formed in a foam of the functional strip, the inner contour of the at least one recess (10.1', 10.2') substantially corresponding to an outer contour of the belt buckle, characterized in that the inner contour of the at least one recess (10.1', 10.2') has at least one narrowed portion which clamps the belt buckle arranged in the at least one recess (10.1', 10.2') in the non-use position in the at least one recess (10.1', 10.2').
An apparatus comprising: control means; first radio means for communicating with first radio means of a base station via a first radio link, wherein the first radio link is 4G based and is for communicating control plane signalling; second radio means for communicating with second radio means of a base station via a second radio link, wherein the second radio link is 5G based and is for communicating user plane signalling and/or data; wherein the control means is configured to use information received from a user equipment, for configuring the second radio means of the apparatus to establish a connection between the second radio means of the apparatus and the second radio means of the base station. control means; first radio means for communicating with first radio means of a base station via a first radio link, wherein the first radio link is 4G based and is for communicating control plane signalling; second radio means for communicating with second radio means of a base station via a second radio link, wherein the second radio link is 5G based and is for communicating user plane signalling and/or data; wherein the control means is configured to use information received from a user equipment, for configuring the second radio means of the apparatus to establish a connection between the second radio means of the apparatus and the second radio means of the base station.
A method for detecting a main vessel in a medical 3D volume represented by a digital voxel representation comprising the steps of - applying a segmentation algorithm to said volume resulting in a first binary mask with one of a first and a second class value assigned to each voxel of said volume, a first class value assigned to voxels of osseous tissue and a second class value assigned to vascular tissue, - applying a thresholding operation to said volume to obtain a second binary mask, - subtracting said second binary mask from said first binary mask to generate a third binary mask, - extracting connected components by propagating labels to all adjacent voxels indicative of a class to which they belong, - computing features for each connected component, said features indicating whether a component is considered part of an osseous or a vascular region, - preserving connected components on the basis of the results of said computed features and identifying the preserved component as said vessel. - applying a segmentation algorithm to said volume resulting in a first binary mask with one of a first and a second class value assigned to each voxel of said volume, a first class value assigned to voxels of osseous tissue and a second class value assigned to vascular tissue, - applying a thresholding operation to said volume to obtain a second binary mask, - subtracting said second binary mask from said first binary mask to generate a third binary mask, - extracting connected components by propagating labels to all adjacent voxels indicative of a class to which they belong, - computing features for each connected component, said features indicating whether a component is considered part of an osseous or a vascular region, - preserving connected components on the basis of the results of said computed features and identifying the preserved component as said vessel.
A valve timing control device comprising: a driving rotary element synchronously rotatable with a crankshaft; a driven rotary element mounted coaxially with the driving rotary element and synchronously rotatable with a camshaft; a plurality of partitions provided in the driven rotary element each for dividing a fluid pressure chamber formed between the driving rotary element and the driven rotary element into a regarded angle chamber and an advanced angle chamber; and a connecting element for connecting the driven rotary element to the camshaft, wherein the connecting element includes a flange inserted into a recess formed in the driven rotatory element, and a shaft portion inserted into a through bore formed in a wall of the driving rotary element adjacent to the camshaft, the flange has an outer diameter larger than that of the shaft portion, and the flange is disposed between the driven rotary element and the wall. a driving rotary element synchronously rotatable with a crankshaft; a driven rotary element mounted coaxially with the driving rotary element and synchronously rotatable with a camshaft; a plurality of partitions provided in the driven rotary element each for dividing a fluid pressure chamber formed between the driving rotary element and the driven rotary element into a regarded angle chamber and an advanced angle chamber; and a connecting element for connecting the driven rotary element to the camshaft, wherein the connecting element includes a flange inserted into a recess formed in the driven rotatory element, and a shaft portion inserted into a through bore formed in a wall of the driving rotary element adjacent to the camshaft, the flange has an outer diameter larger than that of the shaft portion, and the flange is disposed between the driven rotary element and the wall.
An optoelectronic module comprising: a contiguous image sensor including a first region and a second region; a wall separating the module into first and second channels, the first region of the image sensor disposed in the first channel, and the second region of the image sensor disposed in the second channel, wherein the wall attenuates light at one or more wavelengths detectable by the image sensor, wherein the wall includes a bridge region that spans across the image sensor between the first and second channels, the wall further including adhesive that fills an area between the bridge region and an upper surface of the image sensor, characterized in that the bridge region has one or more conduits for flow of adhesive into the area between the bridge region and an upper surface of the image sensor, wherein the one or more conduits penetrates through the bridge region and is filled with the adhesive. a contiguous image sensor including a first region and a second region; a wall separating the module into first and second channels, the first region of the image sensor disposed in the first channel, and the second region of the image sensor disposed in the second channel, wherein the wall attenuates light at one or more wavelengths detectable by the image sensor, wherein the wall includes a bridge region that spans across the image sensor between the first and second channels, the wall further including adhesive that fills an area between the bridge region and an upper surface of the image sensor, characterized in that the bridge region has one or more conduits for flow of adhesive into the area between the bridge region and an upper surface of the image sensor, wherein the one or more conduits penetrates through the bridge region and is filled with the adhesive.
Frame for a electric bicycle with a frame tube which has a mount for a storage battery, which frame tube forms a top side, a bottom side and a right-hand and left-hand side wall (19, 20) respectively, wherein the mount is bordered at the edge in a transitional region between the top side and one of the side walls by an opening in the frame tube, characterised in that the opening extends at least over a partial width of the top side and its adjoining side wall so that the storage battery can be inserted into and removed from the mount in a direction obliquely from above and the side.
Compound of formula 1 wherein R 1 is H, C 1-6 -alkyl, C 0-4 -alkyl-C 3-6 -cycloalkyl, C 1-6 -haloalkyl; R 2 is H, C 1-6 -alkyl; X is an anion selected from the group consisting of chloride or 1⁄2 dibenzoyltartrate j is 1 or 2; for use as a medicament for the treatment of diseases selected from nasal polyposis, eosinophilic esophagitis, eosinophillic gastroenteritis (e.g. eosinophilic gastritis and eosinophilic enteritis), hypereosinophilic syndrome and Churg Strauss syndrome. R 1 is H, C 1-6 -alkyl, C 0-4 -alkyl-C 3-6 -cycloalkyl, C 1-6 -haloalkyl; R 2 is H, C 1-6 -alkyl; X is an anion selected from the group consisting of chloride or 1⁄2 dibenzoyltartrate j is 1 or 2;
A method for repeater selection to be performed by a radio base station working in a pre-coding mode in a radio access network, wherein the radio base station is using at least one repeater (330 a-d), and is serving at least one user equipment, UE, said method comprising the steps of: - broadcasting reference signals, - receiving from each repeater of the at least one repeater (330 a-d) an index of a pre-coding matrix selected by each repeater on the basis of measured reference signals, - storing all the pre-coding matrix indices received from the at least one repeater (330 a-d), - receiving a pre-coding matrix index from the at least one UE, characterized by - comparing the received pre-coding matrix index from the at least one UE, with the stored pre-coding matrix indices from the at least one repeater (330 a-d), and when a stored pre-coding matrix from a repeater (330 c) matches the received pre-coding matrix index from the at least one UE, - determining the repeater (330 c) that corresponds to this matching stored pre-coding matrix index as a repeater selection of the at least one UE, and - controlling the on and off of the at least one repeater (330 a-d). - broadcasting reference signals, - receiving from each repeater of the at least one repeater (330 a-d) an index of a pre-coding matrix selected by each repeater on the basis of measured reference signals, - storing all the pre-coding matrix indices received from the at least one repeater (330 a-d), - receiving a pre-coding matrix index from the at least one UE, characterized by - comparing the received pre-coding matrix index from the at least one UE, with the stored pre-coding matrix indices from the at least one repeater (330 a-d), and when a stored pre-coding matrix from a repeater (330 c) matches the received pre-coding matrix index from the at least one UE, - determining the repeater (330 c) that corresponds to this matching stored pre-coding matrix index as a repeater selection of the at least one UE, and - controlling the on and off of the at least one repeater (330 a-d).
A method comprising: measuring an airspeed of the aircraft; as the aircraft enters into a final landing approach, comparing the measured airspeed to a predetermined flap placard speed; and prior to flap deployment, if the measured airspeed is greater than the predetermined flap placard speed, providing a first audible advisory informing the pilot that the speed of the aircraft is too fast to prevent the pilot from even attempting to deploy the flaps, wherein: the predetermined flap placard speed is a function of flap position and restricts the airspeed at which the flaps may be deployed for each flap setting or detent, and corresponds to a flap deployment speed determined by a structural capacity of the aircraft flap system, and the structural capacity relates to structural design airspeeds as a function of altitude. measuring an airspeed of the aircraft; as the aircraft enters into a final landing approach, comparing the measured airspeed to a predetermined flap placard speed; and prior to flap deployment, if the measured airspeed is greater than the predetermined flap placard speed, providing a first audible advisory informing the pilot that the speed of the aircraft is too fast to prevent the pilot from even attempting to deploy the flaps, the predetermined flap placard speed is a function of flap position and restricts the airspeed at which the flaps may be deployed for each flap setting or detent, and corresponds to a flap deployment speed determined by a structural capacity of the aircraft flap system, and the structural capacity relates to structural design airspeeds as a function of altitude.