mhurhangee/ep-ind-claims huggingface dataset:
A first device, which provides an audio signal to a second device, the first device comprising: a memory that stores at least one previous audio frame; a control unit that: determines a packet size based on a bandwidth supported by a channel mode, determines a frame size based on the packet size, divides an audio signal input to the first device into a plurality of audio frames based on the frame size, compares a current audio frame among the plurality of audio frames with the at least one previous audio frame prestored in the memory of the first device, and selects one of the prestored previous audio frames based on similarity of the prestored previous audio frame and the current audio frame; and a communication unit that transmits an identification value representing the selected previous audio frame to the second device, wherein, when the similarity, based on a correlation value of the prestored previous audio frame and the current audio frame, is greater than a preset threshold, the control unit selects one of the prestored previous audio frames. a memory that stores at least one previous audio frame; a control unit that: determines a packet size based on a bandwidth supported by a channel mode, determines a frame size based on the packet size, divides an audio signal input to the first device into a plurality of audio frames based on the frame size, compares a current audio frame among the plurality of audio frames with the at least one previous audio frame prestored in the memory of the first device, and selects one of the prestored previous audio frames based on similarity of the prestored previous audio frame and the current audio frame; and a communication unit that transmits an identification value representing the selected previous audio frame to the second device, determines a packet size based on a bandwidth supported by a channel mode, determines a frame size based on the packet size, divides an audio signal input to the first device into a plurality of audio frames based on the frame size, compares a current audio frame among the plurality of audio frames with the at least one previous audio frame prestored in the memory of the first device, and selects one of the prestored previous audio frames based on similarity of the prestored previous audio frame and the current audio frame; and a communication unit that transmits an identification value representing the selected previous audio frame to the second device, wherein, when the similarity, based on a correlation value of the prestored previous audio frame and the current audio frame, is greater than a preset threshold, the control unit selects one of the prestored previous audio frames.
A parenteral formulation of a replication capable oncolytic adenovirus of subgroup B for use in treating cancer in a human cancer patient, by systemically administering as multiple doses of the formulation in a single treatment cycle, wherein the total dose given in each administration is in the range of 1x10 10 to 1x10 14 viral particles per dose, and wherein each dose of virus is administered such that the rate of viral particle delivery is in the range of 2x10 10 particles per minute to 6x10 11 particles per minute.
A method of producing denatured whey protein, the method comprising the steps of: 1) preparing a whey protein solution from whey protein, wherein the whey protein solution is a solution having a whey protein content of 5 to 18% by mass; and 2A) allowing the whey protein solution to be continuously brought into contact and mixed with a whey protein solution flowing in a form of turbulent flow between two concentric cylinders while the mixed whey protein solution flowing in the form of turbulent flow between the two concentric cylinders is sheared at a shearing speed of 5,000 s -1 to 25,000 s -1 at a temperature in a range of 85 to 120°C for at least 0.1 second, in a range of 80 to 85°C for at least 60 seconds, or in a range of 76 to 80°C for at least 480 seconds. 1) preparing a whey protein solution from whey protein, wherein the whey protein solution is a solution having a whey protein content of 5 to 18% by mass; and 2A) allowing the whey protein solution to be continuously brought into contact and mixed with a whey protein solution flowing in a form of turbulent flow between two concentric cylinders while the mixed whey protein solution flowing in the form of turbulent flow between the two concentric cylinders is sheared at a shearing speed of 5,000 s -1 to 25,000 s -1 at a temperature in a range of 85 to 120°C for at least 0.1 second, in a range of 80 to 85°C for at least 60 seconds, or in a range of 76 to 80°C for at least 480 seconds.
A mobile terminal comprising: a display unit; a window provided over the display unit, the window made of an optically transmittive material; and at least one metal frame attached to an edge of a backside of the window characterized in that the mobile terminal further comprises an injection frame combined with a lateral side of the window and the at least one metal frame, wherein the injection frame is formed by insert injection molding, in a manner of enclosing the lateral side of the window and the at least one metal frame by the insert injection molding. a display unit; a window provided over the display unit, the window made of an optically transmittive material; and at least one metal frame attached to an edge of a backside of the window characterized in that the mobile terminal further comprises an injection frame combined with a lateral side of the window and the at least one metal frame, wherein the injection frame is formed by insert injection molding, in a manner of enclosing the lateral side of the window and the at least one metal frame by the insert injection molding.
A subsea hydrocarbon production system which comprises a wellhead housing mounted at the upper end of a well bore, a number of concentric well casings (18, 20, 26, 30) extending from the wellhead housing through the well bore, including an innermost casing through which a hydrocarbon fluid is produced, a plurality of casing annuli (A, B, C, D) formed between successive ones of the wellhead housing and the well casings (18, 20, 26), and a monitoring system for monitoring a parameter existing in at least one of the casing annuli (A, B, C, D), the monitoring system comprising: an interrogation package which is operable to wirelessly transmit an interrogation signal, wherein the interrogation package is located externally of the wellhead housing or within the innermost casing; and a plurality of sensing packages (60, 62, 64), each of which is located in a corresponding casing annulus (A, B, C, D) and includes at least one sensor for sensing the parameter, the sensing packages (60, 62, 64) being operable to wirelessly receive the interrogation signal and in response thereto wirelessly transmit a response signal to the interrogation package which is indicative of the parameter sensed by the sensor, characterized in that the monitoring system is arranged so that the interrogation signals are transmitted between the interrogation package and the sensing packages (60, 62, 64) using a multi-hop signal transmission technique; and the interrogation package is adapted to communicate with a radially adjacent sensing package (60, 62, 64) and the sensing packages (60, 62, 64) are adapted to communicate with each other using near-field magnetic induction signals. an interrogation package which is operable to wirelessly transmit an interrogation signal, wherein the interrogation package is located externally of the wellhead housing or within the innermost casing; and a plurality of sensing packages (60, 62, 64), each of which is located in a corresponding casing annulus (A, B, C, D) and includes at least one sensor for sensing the parameter, the sensing packages (60, 62, 64) being operable to wirelessly receive the interrogation signal and in response thereto wirelessly transmit a response signal to the interrogation package which is indicative of the parameter sensed by the sensor,
A non-return valve mechanism mountable on a one-way valve device to regulate flow of a fluid, the one-way valve device including a flow channel in which the fluid flows and an on-off valve located in a middle portion of the flow channel and switchable between an open state and a closed state, the non-return valve mechanism being mountable in a mounting space (x) located downstream (Dd) from the on-off valve in the flow channel of the one-way valve device, the non-return valve mechanism comprising: a regulator valve movable forward and backward between a valve-closed position (Fig. 14B) and a valve-open position (Fig. 14C) in the mounting space (x), and movable backward to the valve-open position (Fig. 14C) under pressure of the fluid flowing upstream (Du); and a biasing member with a spring force to bias the regulator valve in a valve-closing direction from the valve-open position (Fig. 14C) to the valve-closed position (Fig. 14B), and to permit the regulator valve to move in a valve-opening direction from the valve-closed position (Fig. 14B) to the valve-open position (Fig. 14C) against the biasing in the valve-closing direction when the fluid flowing upstream has a predetermined pressure or greater, characterized in that the regulator valve includes, in an area of the regulator valve at the valve-closed position (Fig. 14B) communicating with an upstream space, a valve-closing directional end for receiving a pressure in the valve-closing direction and having a smaller projected area in an opening and closing direction than a valve-opening directional end for receiving a pressure in the valve-opening direction. a regulator valve movable forward and backward between a valve-closed position (Fig. 14B) and a valve-open position (Fig. 14C) in the mounting space (x), and movable backward to the valve-open position (Fig. 14C) under pressure of the fluid flowing upstream (Du); and a biasing member with a spring force to bias the regulator valve in a valve-closing direction from the valve-open position (Fig. 14C) to the valve-closed position (Fig. 14B), and to permit the regulator valve to move in a valve-opening direction from the valve-closed position (Fig. 14B) to the valve-open position (Fig. 14C) against the biasing in the valve-closing direction when the fluid flowing upstream has a predetermined pressure or greater, characterized in that the regulator valve includes, in an area of the regulator valve at the valve-closed position (Fig. 14B) communicating with an upstream space, a valve-closing directional end for receiving a pressure in the valve-closing direction and having a smaller projected area in an opening and closing direction than a valve-opening directional end for receiving a pressure in the valve-opening direction.
A method of manufacturing or repairing a coating forming a thermal barrier on a metallic substrate formed from a superalloy, characterized in that production of said coating comprises forming a pre-layer on the substrate, or on a binding sub-layer of the coating placed on the substrate, by applying one or more layers of a paint containing at least one metal selected from the group constituted by platinum class metals (platinoids) and chromium, said binding sub-layer being an alloy of the MCrAlY type, M being a metal selected from nickel, cobalt, iron and a mixture of said metals, said sub-layer being modified by forming said pre-layer on its surface by applying one or more layers of a paint containing at least one metal selected from the group constituted by platinum class metals (platinoids) and chromium, then by diffusion heat treatment.
A method of interpolating a reference pixel to be interpolated in an annular image, the method comprising: selecting a plurality of reference pixels; interpolating the reference pixel to be interpolated based on the selected plurality of reference pixels, wherein the plurality of reference pixels are arranged in a 2D- polar coordinate system along the circumference of a circle having a radius between the center of the annular image and the reference pixel to be interpolated and are located within a predetermined distance from the reference pixel to be interpolated; and performing both motion estimation and motion compensation or only motion compensation on the annular image, thereby determining a prediction macroblock comprising the interpolated reference pixel for a current macroblock. selecting a plurality of reference pixels; interpolating the reference pixel to be interpolated based on the selected plurality of reference pixels, wherein the plurality of reference pixels are arranged in a 2D- polar coordinate system along the circumference of a circle having a radius between the center of the annular image and the reference pixel to be interpolated and are located within a predetermined distance from the reference pixel to be interpolated; and performing both motion estimation and motion compensation or only motion compensation on the annular image, thereby determining a prediction macroblock comprising the interpolated reference pixel for a current macroblock.
A pressure fluid operated impact device comprising a frame whereto a tool is mountable movably in its longitudinal direction, control means for controlling pressure fluid feed of the impact device, and means for generating a stress pulse in the tool by means of the pressure of a pressure fluid, wherein the impact device comprises a working chamber entirely filled with pressure fluid and, in the working chamber, a transmission piston movably mounted in the longitudinal direction of the tool with respect to the frame, an end of the transmission piston facing the tool firmly pressed against the tool either directly or indirectly during the generation of the stress pulse, the transmission piston, in its axial direction with respect to the tool on the opposite side thereof, being provided with a pressure surface located towards the working chamber, the impact device comprises energy charging means for charging energy of the pressure fluid to be fed to the working chamber of the impact device and necessary for generating the stress pulse, and the control means are coupled to allow periodically alternately a pressure fluid having a pressure higher than the pressure of the pressure fluid present in the working chamber to flow to the working chamber, thus causing a sudden increase in the pressure in the working chamber generating a pressure pulse acting in the working chamber and, as a result, a force pushing the transmission piston in the direction of the tool, compressing the tool in the longitudinal direction and thus generating a stress pulse in the tool, the generation of the stress pulse ending substantially at the same time as the influence of the force on the tool ends, and, correspondingly, to discharge pressure fluid from the working chamber after the stress pulse has been generated in order to enable the transmission piston to return to its substantially original position, characterized in that in order to stop the influence of the force, the control means are coupled to prevent pressure fluid from entering the working chamber.
A synthetic resin container having a bottom wall for forming a bottom portion of the container, and a body portion connecting integrally with an outer periphery of the bottom wall to define a space for filling a content in the inner side of the container, the bottom wall being inverted and folded back toward the inside of the body portion to form a raised bottom, wherein: an outer-side wall portion of the bottom wall is provided so as to extend downward from a lower edge of the body portion; a slanting wall portion of the bottom wall having a slanting-plate-like shape is provided so as to close an opening at a lower end of the outer-side wall portion and extend from a lower edge of the outer-side wall portion; the outer-side wall portion having a cylindrical shape including an circular upper edge having the same shape as the lower edge of the body portion (+2), and a lower edge having the same plan-view shape as the lower edge of the body portion and slanting downward from one end of the lower edge of the body portion toward the opposing end; the outer-side wall portion is formed so as to be able to be inverted upward with the lower edge of the body portion being a center; the outer-side wall portion is inverted upward by raising the wall for forming the raised bottom; and, an outer surface of the outer-side wall portion is brought into contact with an inner surface of a lower end of the body portion to form the raised bottom. an outer-side wall portion of the bottom wall is provided so as to extend downward from a lower edge of the body portion; a slanting wall portion of the bottom wall having a slanting-plate-like shape is provided so as to close an opening at a lower end of the outer-side wall portion and extend from a lower edge of the outer-side wall portion; the outer-side wall portion having a cylindrical shape including an circular upper edge having the same shape as the lower edge of the body portion (+2), and a lower edge having the same plan-view shape as the lower edge of the body portion and slanting downward from one end of the lower edge of the body portion toward the opposing end; the outer-side wall portion is formed so as to be able to be inverted upward with the lower edge of the body portion being a center; the outer-side wall portion is inverted upward by raising the wall for forming the raised bottom; and, an outer surface of the outer-side wall portion is brought into contact with an inner surface of a lower end of the body portion to form the raised bottom.
A prosthetic heart valve, comprising: a valve member comprising an annular skirt and a plurality of leaflets having inflow end portions and outflow end portions, the annular skirt being sutured to the inflow end portions of the plurality of leaflets; a radially expandable and compressible support frame that supports the valve member, wherein the support frame comprises a plurality of strut members interconnected to each other to form a mesh structure, wherein the strut members form alternating bends and are secured to each other at nodes formed from vertices of adjacent bends, the support frame further comprising an inflow end, an inflow end portion, an outflow end portion, and an outflow end; and wherein the prosthetic heart valve has a curved shape that tapers inwardly from the inflow end to a reduced diameter section, increases in diameter from the reduced diameter section to an intermediate section, and then tapers from the intermediate section to the outflow end, wherein the support frame has a plurality of angularly spaced retaining arms that extend from the outflow end portion and are configured to releasably connect to a valve-retaining mechanism of a delivery apparatus, wherein the inflow end portions of the plurality of leaflets are secured to the support frame by suturing the annular skirt to struts of the inflow end portion of the support frame. a valve member comprising an annular skirt and a plurality of leaflets having inflow end portions and outflow end portions, the annular skirt being sutured to the inflow end portions of the plurality of leaflets; a radially expandable and compressible support frame that supports the valve member, wherein the support frame comprises a plurality of strut members interconnected to each other to form a mesh structure, wherein the strut members form alternating bends and are secured to each other at nodes formed from vertices of adjacent bends, the support frame further comprising an inflow end, an inflow end portion, an outflow end portion, and an outflow end; and wherein the prosthetic heart valve has a curved shape that tapers inwardly from the inflow end to a reduced diameter section, increases in diameter from the reduced diameter section to an intermediate section, and then tapers from the intermediate section to the outflow end, wherein the support frame has a plurality of angularly spaced retaining arms that extend from the outflow end portion and are configured to releasably connect to a valve-retaining mechanism of a delivery apparatus, wherein the inflow end portions of the plurality of leaflets are secured to the support frame by suturing the annular skirt to struts of the inflow end portion of the support frame.
Construction element in a parallelepiped shape having two front walls (5, 6) opposite and parallel to each other on both sides of a periphery formed by four lateral walls (1, 2, 3, 4) opposite and parallel to each other in pairs, and comprising complementary male-female assembly means which enable the said element to be assembled by interlocking with other similar construction elements, the said construction element having complementary assembly means, ones projecting in the form of tenons located on the outer face of two of its contiguous lateral walls (1.4) and others in hollow (M, M ') appearing in the form of recesses complementary to the tenons arranged from the outer face of its two other contiguous lateral walls (2, 3), which allow the assembly by interlocking of said element with another similar construction element by their lateral faces, characterized in that the said construction element further has, on its external front faces, means for locating locations for receiving other tenons or for arranging other recesses, so as to position additional assembly means for assembling the said element with another similar construction element by perpendicular interlocking of a front face of one with a lateral face of the other or by frontal interlocking of a front face of one with a front face of the other.
A set of structural elements suitable to detachably connect a photovoltaic module of a ventilated facade to an insulated front wall of a building, comprising load-bearing aluminium T-sections, console subassemblies, hanger subassemblies, a masking grid assembly, where, in use, a rear glass pane of the photovoltaic module is permanently joined with the flanges of the vertically oriented load-bearing aluminium T-sections, the webs of the load-bearing T-sections each having two profiled hooks (7, 7') on both of their ends, the console subassemblies are detachably joined with the hanger subassemblies and with a masking grid assembly placed between the photovoltaic module and the hanger subassemblies, each of the console subassemblies is made of a vertical metal L-section with a longer leg with vertically aligned profiled indents forming horizontal slots, the longer leg being sunk in a thermal insulation layer of the insulated front wall, and with a shorter leg fixed by means of fixing anchors and via a distance plate to a load-bearing wall of the insulated front wall, each longer leg being joined detachably with a hanger subassembly comprising a vertical metal T-section load-bearing post and two metal profiled hangers inserted in the profiled hooks (7, 7'), wherein each web of the load-bearing post is fixed in the horizontal slots of the a corresponding L-section and is joined to the corresponding L-section detachably by means of screws, wherein each flange of the load-bearing post is detachably fixed between outer vertical offsets (48,49) to vertical side offsets (46, 47) of two corresponding metal profiled hangers with a vibration-damping pad disposed loosely on the face of each metal profiled hanger to eliminate completely any vibrations between the metal profiled hangers and the load-bearing aluminium T-sections.