mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for encoding configured to: include at least one static media item as at least one meta box into a container file according to the International Standards Organization Base Media File Format ISO/IEC 14496-12 (ISOBMFF); include one or more media tracks into the container file as one or more track boxes according to the ISOBMFF, wherein the apparatus is characterized by being configured to; include in the container file a box (EntityToGroupBox) specifying a group of entities, wherein the box (EntityToGroupBox) comprises a list of entity identifier values that indicate the at least one static media item and the one or more media tracks are entities of the group of entities, wherein the list of entity identifier values comprises an item identifier value for each of the at least one static media item and a track identifier value for each of the one or more media tracks; and include in the box (EntityToGroupBox) of the container file, a grouping type (grouping_type) for the group, wherein the grouping type indicates that the entities of the group of entities are alternatives to each other for processing. include at least one static media item as at least one meta box into a container file according to the International Standards Organization Base Media File Format ISO/IEC 14496-12 (ISOBMFF); include one or more media tracks into the container file as one or more track boxes according to the ISOBMFF, wherein the apparatus is characterized by being configured to; include in the container file a box (EntityToGroupBox) specifying a group of entities, wherein the box (EntityToGroupBox) comprises a list of entity identifier values that indicate the at least one static media item and the one or more media tracks are entities of the group of entities, wherein the list of entity identifier values comprises an item identifier value for each of the at least one static media item and a track identifier value for each of the one or more media tracks; and include in the box (EntityToGroupBox) of the container file, a grouping type (grouping_type) for the group, wherein the grouping type indicates that the entities of the group of entities are alternatives to each other for processing.
A passenger seat comprising: (a) a seat back support; (b) a head rest assembly coupled to the seat back support, the head rest assembly comprising: (i) a head support; (ii) a lower head support comprising a pair of extensions, characterised in that the lower head support further comprises a rest bar, wherein a first end of each extension is slidingly coupled to the rest bar and a second end of each extension is pivotally coupled to the head support; wherein the rest bar is positioned adjacent the head support when the lower head support is in a stowed position, and wherein the rest bar is positioned a distance forward of the head support when the lower head support is in a deployed position. (a) a seat back support; (b) a head rest assembly coupled to the seat back support, the head rest assembly comprising: (i) a head support; (ii) a lower head support comprising a pair of extensions, characterised in that the lower head support further comprises a rest bar, wherein a first end of each extension is slidingly coupled to the rest bar and a second end of each extension is pivotally coupled to the head support; wherein the rest bar is positioned adjacent the head support when the lower head support is in a stowed position, and wherein the rest bar is positioned a distance forward of the head support when the lower head support is in a deployed position. (i) a head support; (ii) a lower head support comprising a pair of extensions, characterised in that the lower head support further comprises a rest bar, wherein a first end of each extension is slidingly coupled to the rest bar and a second end of each extension is pivotally coupled to the head support;
A post processing apparatus comprising: a reader that reads a paper on which an image is formed by an image forming apparatus to acquire a read image; a post processor that performs post processing on the paper; and a controller that detects a position of an edge of the paper and a position of the image from the read image acquired by the reader, and controls a post processing position in the post processor on the basis of the position of the edge of the paper and the position of the image detected, characterized in that the reader, when images are formed on both sides of the paper, reads both sides of the paper to acquire read images of both sides of the paper, and the controller controls the post processing position in the post processor on the basis of the read images of both sides of the paper acquired by the reader. a reader that reads a paper on which an image is formed by an image forming apparatus to acquire a read image; a post processor that performs post processing on the paper; and a controller that detects a position of an edge of the paper and a position of the image from the read image acquired by the reader, and controls a post processing position in the post processor on the basis of the position of the edge of the paper and the position of the image detected, characterized in that the reader, when images are formed on both sides of the paper, reads both sides of the paper to acquire read images of both sides of the paper, and the controller controls the post processing position in the post processor on the basis of the read images of both sides of the paper acquired by the reader.
A system for treating an occlusion in a vessel the system comprising:- a guide catheter and a second catheter; the guide catheter comprising a proximal end, a distal end and a lumen extending between the proximal end and the distal end, the lumen of the guide catheter further comprising a proximal segment and a distal segment; the second catheter comprising a distal end and a proximal end, a distal segment and a proximal segment, and a lumen, said lumen extending proximal of the distal end and terminating at a transfer port at the proximal end of the distal segment; the guide catheter being configured to facilitate aspiration through the lumen; the transfer port being configured to transmit aspiration in the proximal lumen of the guide catheter into the lumen of the distal segment of the second catheter, the transfer port being formed in a funnel shape and the distal end of the second catheter being configured to receive clot into at least a portion of the lumen of the second catheter, and a flow restrictor between the guide catheter and the distal segment of the second catheter, distal of the transfer port, the flow restrictor being located on the inner surface of the guide catheter, or on the outer surface of the second catheter. the guide catheter comprising a proximal end, a distal end and a lumen extending between the proximal end and the distal end, the lumen of the guide catheter further comprising a proximal segment and a distal segment; the second catheter comprising a distal end and a proximal end, a distal segment and a proximal segment, and a lumen, said lumen extending proximal of the distal end and terminating at a transfer port at the proximal end of the distal segment; the guide catheter being configured to facilitate aspiration through the lumen; the transfer port being configured to transmit aspiration in the proximal lumen of the guide catheter into the lumen of the distal segment of the second catheter, the transfer port being formed in a funnel shape and the distal end of the second catheter being configured to receive clot into at least a portion of the lumen of the second catheter, and a flow restrictor between the guide catheter and the distal segment of the second catheter, distal of the transfer port, the flow restrictor being located on the inner surface of the guide catheter, or on the outer surface of the second catheter.
A medical device (100; 200; 300), comprising: an elongate tubular body formed of one or more woven filaments having a constrained configuration, the elongate tubular body having an expanded configuration with a proximal portion of the elongate tubular body expanded into a proximal retention member, a distal portion of the elongate tubular body expanded into a distal retention member, and a cylindrical saddle region extending between the proximal and distal retention members (114, 124); wherein the proximal retention member, distal retention member and cylindrical saddle region define an open interior passage configured to permit flow therethrough; and wherein an outer surface of the distal retention member includes at least one surface feature extending in a helical configuration around a full circumference of the distal retention member. an elongate tubular body formed of one or more woven filaments having a constrained configuration, the elongate tubular body having an expanded configuration with a proximal portion of the elongate tubular body expanded into a proximal retention member, a distal portion of the elongate tubular body expanded into a distal retention member, and a cylindrical saddle region extending between the proximal and distal retention members (114, 124); wherein the proximal retention member, distal retention member and cylindrical saddle region define an open interior passage configured to permit flow therethrough; and wherein an outer surface of the distal retention member includes at least one surface feature extending in a helical configuration around a full circumference of the distal retention member.
A combination of a hydraulic hammer and a device for preventing damage caused by ricocheting pieces, wherein the hydraulic hammer comprises a hydraulic impact system, and a work point for performing work, wherein the device is formed of a shield, which is configured to be lowered to the level of the work point, characterised in that the shield is equipped with a closed jacket and a cover, in which there is an opening, which forms a closed space, shaped to fit around a body of the hydraulic hammer, wherein the shield is adapted to be lowered and raised using a hydraulic cylinder or cylinders (7, 8) that are operated by means of hydraulics of the hammer.
An electrochemical capacitor polarized up to 1.6 V comprising two electrodes made of high surface area carbon placed in mixed salt aqueous electrolyte, characterized in that one of the components of the mixed aqueous electrolyte is an iodide (I -) containing salt in the concentration between 0.1 mol·L -1 and 2 mol·L -1 and another component is a sulphate (SO 4 2-) anion salt with a cation selected from Li +, Na +, K +, Rb +, Cs +, NH 4 +, Be 2+, Mg 2+, Ba 2+, and Al 3+ or a nitrate (NO 3 -) anion salt with a cation selected from Li +, Na +, K +, Rb +, Cs +, NH 4 +, Be 2+, Mg 2+, Ca 2+, Sr 2+, Ba 2+, and Al 3+, in the concentration from 0.1 mol·L -1 to 10 mol·L -1 or up to 0.2 mol·L -1 below the solubility limit.
A transport apparatus for the transport of objects along a transport track having a drive system which has at least two stationary stator elements which are spaced apart from one another spatially and which cooperate with a rotor element (24a, 24b) which is arranged at a transport element suitable for receiving at least one object and movable along the transport track, wherein a distance between the stator elements in a direction parallel to the transport track is smaller than the longitudinal extent of the rotor element (24a, 24b), characterized in that the stator elements each have two stator units (22a, 22b) which are arranged mutually opposite one another at both sides of a section of the transport track; and in that the rotor element has at least two functional sections (24a, 24b) which are arranged offset in parallel with respect to the transport track and which each cooperate with one of the stator units (22a and 22b respectively).
A method for operating a cable-drawn transportation device, by means of which the at least one vehicle that is coupled to a driven cable of the transportation device is moved between a first station and a second station, whereby at least one generator, which generates electrical energy while the vehicle is moving, being arranged on the vehicle in order to supply power to electrical loads (11, 11') of the vehicle, characterized in that the electrical loads of the vehicle are supplied with power outside a station (3, 4) by an electrical energy store of the vehicle or by both an electrical energy store of the vehicle and the generator during a first movement phase (A1, A3), in which the vehicle is accelerated to a limit speed out of the station (3, 4), or, conversely, is decelerated from a limit speed into the station (3, 4), and in that, in a subsequent or previous second movement phase when the vehicle is moving at a speed that is greater than the limit speed, the electrical loads of the vehicle are supplied with electrical energy by the generator only.
Process for oligomerizing ethene, in which a mixture comprising ethene and an inert medium contacts a solid catalyst, characterized in that the proportion by weight of the inert medium in the mixture is greater than the proportion by weight of ethene in the mixture, the inert medium is an alkane or a cycloalkane, where the alkane or cycloalkane has not less than three and not more than seven carbon atoms, and pressure and temperature of the mixture are chosen with respect to the proportion of ethene in the mixture such that ethene and inert medium are in the supercritical state.
Pleasure boat (1;1') comprising - at least one hull (5;5'), - propulsion means (9;9',10') arranged for moving the boat on the water; and - a platform (3;3') mounted on said at least one hull (5;5'), said boat further comprising - a jetted tub (13;13') provided on said platform (3;3'), said jetted tub having a water recirculation system; and - a suction tube arranged to draw water from the sea; - at least one drawing pump connected to said suction tube, said at least one drawing pump being arranged to suck water from the suction tube; characterized by - a plurality of circulation ducts terminating with outlet mouths directed towards a plurality of positions provided in said jetted tub so as to direct water jets on users seated on said positions; and by - said at least one drawing pump being arranged to transport the water through the circulation ducts to said plurality of positions provided in said jetted tub; said drawing pump being selectively connectable to said suction tube or to said recirculation system so that when the drawing pump is connected to the suction tube, the water recirculation system is disconnected from said drawing pump, and when the suction tube is disconnected from said drawing pump the recirculation system is connected to said drawing pump and the jetted tub (13;13') can continue to function with its own water. - at least one hull (5;5'), - propulsion means (9;9',10') arranged for moving the boat on the water; and - a platform (3;3') mounted on said at least one hull (5;5'), - a jetted tub (13;13') provided on said platform (3;3'), said jetted tub having a water recirculation system; and - a suction tube arranged to draw water from the sea; - at least one drawing pump connected to said suction tube, said at least one drawing pump being arranged to suck water from the suction tube; characterized by - a plurality of circulation ducts terminating with outlet mouths directed towards a plurality of positions provided in said jetted tub so as to direct water jets on users seated on said positions; and by - said at least one drawing pump being arranged to transport the water through the circulation ducts to said plurality of positions provided in said jetted tub;
Roll of an elongated material, the elongated material comprising first and second major surfaces, two longitudinal edge portions (5a, 5b) and a central portion provided in the width direction in between the two longitudinal edge portions (5a, 5b), the width of each longitudinal edge portion (5a, 5b) being at most 30% of the total width of the elongated material, wherein each of the two longitudinal edge portions (5a, 5b) has mechanical fastening elements provided on at least a region of the first major surface, wherein the central portion comprises an innermost central region, the first major surface of the innermost central region being free of fastening elements, and wherein the second major surface is free of adhesive.
Retractable warping winch (10; 110; 210; 310; 410), comprising: a supporting housing, adapted to be stably fixed to a deck of a vessel at an opening thereof, a bell (30; 130), including a base (32; 132) and a drum (31; 131) integral to each other, the bell (30; 130) being movably supported by the housing so that it can vertically shift therein between an extracted working position, where the drum (31; 131) projects upwardly from the housing and is adapted to be engaged with warping ropes, and a retracted rest position where the drum (31; 131) is accommodated inside the housing and is substantially flush with the deck, a driving mechanism (40; 240; 340; 440) including a motor and a transmission (45, 46), to rotate the bell (30; 130), characterised in that the driving mechanism (40; 240; 340; 440) comprises a drive hub (44; 144) mounted inside the housing, wherein the base (32; 132) of the bell (30; 130) is mounted inside the drive hub (44; 144) in such a way as to be rotatably integral therewith and free to axially shift with respect thereto, and wherein the drive hub (44; 144) is mounted inside the housing in such a way as to be rotatably free and axially constrained thereto; and in that the motor is mounted on the housing externally and laterally thereto. a supporting housing, adapted to be stably fixed to a deck of a vessel at an opening thereof, a bell (30; 130), including a base (32; 132) and a drum (31; 131) integral to each other, the bell (30; 130) being movably supported by the housing so that it can vertically shift therein between an extracted working position, where the drum (31; 131) projects upwardly from the housing and is adapted to be engaged with warping ropes, and a retracted rest position where the drum (31; 131) is accommodated inside the housing and is substantially flush with the deck, a driving mechanism (40; 240; 340; 440) including a motor and a transmission (45, 46), to rotate the bell (30; 130), characterised in that the driving mechanism (40; 240; 340; 440) comprises a drive hub (44; 144) mounted inside the housing, wherein the base (32; 132) of the bell (30; 130) is mounted inside the drive hub (44; 144) in such a way as to be rotatably integral therewith and free to axially shift with respect thereto, and wherein the drive hub (44; 144) is mounted inside the housing in such a way as to be rotatably free and axially constrained thereto; and in that the motor is mounted on the housing externally and laterally thereto.
A galvanized steel sheet, wherein the steel sheet is a cold-rolled steel sheet and, optionally, zinc used to plate the steel sheet is alloyed, wherein the steel consists of C, Si, Mn, P, S, Al, N and Cr at content ratios in mass% of 0.005 to 0.04%, 1.5% or lower, 1.0 to 2.0%, 0.10% or lower, 0.03% or lower, 0.01 to 0.1%, less than 0.008% and 0.35 to 0.8%, respectively, with Mn (mass%) + 1.29Cr (mass%) being in the range of 2.3 to 2.8, and optionally one or more of Mo, V, B, Ti and Nb at content ratios in mass% of 0.5% or lower, 0.5% or lower, 0.01% or lower, 0.1% or lower and 0.1% or lower, respectively; and optionally oxygen in a content of 0.003 mass% or lower, and iron and unavoidable impurities as the balance, wherein the structure of the galvanized steel sheet consists of a ferrite phase and a martensite phase with a volume fraction being at least 3.0% and less than 10%, which may contain a pearlite phase, a bainite phase, a residual γ phase and unavoidable carbides to the maximum extent of 3% besides the above-mentioned two phases, ferrite and martensite phases, the average particle diameter of the ferrite is larger than 6 μm and not more than 15 μm, and 90% or more of the martensite phase exists in a ferrite grain boundary, and wherein the galvanized steel sheet has a tensile strength of 340 to 590 MPa and a TS x El value of 17,000 MPa·% or higher based on an elongation of a sheet thickness of 0.75 mm.
A communication method, comprising: generating, by a base station, a first signal; performing, by the base station, cyclic delay diversity, CDD weighted processing on the first signal to obtain a second signal; characterized by performing, by the base station, densified beam weighted processing on the second signal to obtain a third signal; and sending, by the base station, the third signal via transmit antennas; wherein the second signal and the first signal satisfy: s CDD k = 1 e j θ k ∗ s k, wherein s CDD (k) is the second signal, s(k) is the first signal, 1 e j θ k is a CDD weight matrix, θ k = 2 πD k N FFT, k = 0,1,..., N FFt - 1, D is a delay length, and N FFT is an fast fourier transformation, FFT length; wherein the third signal and the second signal satisfy: s Out k = W m 0 0 W m ∗ s CDD k, wherein s Out (k) is the third signal, W m 0 0 W m is a beam weight matrix, W(m) = 1 e j 2 πm Q ∗ N e j 4π m Q ∗ N... e j 2 π m N − 1 Q ∗ N, m represents a beam number, m = 1, 2,..., Q * N, N represents a total quantity of transmit antennas, and Q is a beam densification multiple, wherein the beam densification multiple is a densification multiple of a beam sent by the base station. generating, by a base station, a first signal; performing, by the base station, cyclic delay diversity, CDD weighted processing on the first signal to obtain a second signal; characterized by performing, by the base station, densified beam weighted processing on the second signal to obtain a third signal; and sending, by the base station, the third signal via transmit antennas; wherein the second signal and the first signal satisfy: s CDD k = 1 e j θ k ∗ s k, wherein s CDD (k) is the second signal, s(k) is the first signal, 1 e j θ k is a CDD weight matrix, θ k = 2 πD k N FFT, k = 0,1,..., N FFt - 1, D is a delay length, and N FFT is an fast fourier transformation, FFT length; wherein the third signal and the second signal satisfy: s Out k = W m 0 0 W m ∗ s CDD k, wherein s Out (k) is the third signal, W m 0 0 W m is a beam weight matrix, W(m) = 1 e j 2 πm Q ∗ N e j 4π m Q ∗ N... e j 2 π m N − 1 Q ∗ N, m represents a beam number, m = 1, 2,..., Q * N, N represents a total quantity of transmit antennas, and Q is a beam densification multiple, wherein the beam densification multiple is a densification multiple of a beam sent by the base station.