mhurhangee/ep-ind-claims huggingface dataset:
Fluid line, which defines a fluid flow channel in its interior, comprising an outer layer which is designed as a corrugated tube having a sequence of wave troughs and wave crests, which protrude further radially outwards than the wave troughs, and comprising an inner layer which is accommodated within the outer layer, the outer layer, in a cross section which is perpendicular to a main extension direction of the fluid flow channel, having a shape which is different to a circular shape and which comprises at least one side portion and at least one main surface, the inner layer being attached to the side of a relevant main surface that faces the fluid flow channel, such that, in a substantially straight orientation of the fluid line, the inner layer connects the inner sides of adjacent wave troughs of the outer layer at a shorter distance, compared to the profile of the outer layer between adjacent wave troughs thereof, an inner side of a relevant side portion, which faces the fluid flow channel, being corrugated following the sequence of wave troughs and wave crests, characterised in that the inner layer, in the region of the inner side of a relevant side portion, which faces the fluid flow channel, is arranged so as to substantially follow the profile of the outer layer, so that the wall thickness of the fluid line in the region of a side portion, including between adjacent wave troughs, approximately corresponds to the sum of the wall thickness of the outer layer and the inner layer. an outer layer which is designed as a corrugated tube having a sequence of wave troughs and wave crests, which protrude further radially outwards than the wave troughs, and comprising an inner layer which is accommodated within the outer layer, the outer layer, in a cross section which is perpendicular to a main extension direction of the fluid flow channel, having a shape which is different to a circular shape and which comprises at least one side portion and at least one main surface, the inner layer being attached to the side of a relevant main surface that faces the fluid flow channel, such that, in a substantially straight orientation of the fluid line, the inner layer connects the inner sides of adjacent wave troughs of the outer layer at a shorter distance, compared to the profile of the outer layer between adjacent wave troughs thereof, an inner side of a relevant side portion, which faces the fluid flow channel, being corrugated following the sequence of wave troughs and wave crests, characterised in that the inner layer, in the region of the inner side of a relevant side portion, which faces the fluid flow channel, is arranged so as to substantially follow the profile of the outer layer, so that the wall thickness of the fluid line in the region of a side portion, including between adjacent wave troughs, approximately corresponds to the sum of the wall thickness of the outer layer and the inner layer.
Dental evacuator having a housing, in the upper region of which a drainage zone is provided for separating particle-containing liquid from an air stream which is loaded with the liquid, wherein the housing has an inlet for the loaded air stream which opens tangentially into the drainage zone, and in the housing below the drainage zone an evacuation zone is provided for separating the particles from the particle-containing liquid falling from the drainage zone into the evacuation zone, characterised in that the drainage zone comprises a curved flow path, and the inlet has a jet pump with a propellant connection for a propellant, a suction medium connection for a suction medium and an outlet, wherein the outlet opens tangentially into the flow path.
An apparatus for use on a structural member having a longitudinal axis, the structural member being configured to propagate stress wave energy in an operational state, the stress wave energy having an operational frequency spectrum, the apparatus comprising: a housing assembly including a first end, a second end, and at least one protective enclosure configured to accommodate at least one device (16, 100), the housing assembly being configured to be rotationally registered to the structural member when coupled to the structural member, the housing assembly having a predetermined housing mass; and a spring arrangement coupled between the structural member and the first end and/or coupled between the structural member and the second end in the operational state, the spring arrangement having a predetermined force-displacement relationship, the housing assembly and the spring arrangement forming an isolation filter having a predetermined spectral transfer function, the predetermined spectral transfer function being a function of the predetermined housing mass and the predetermined force-displacement relationship, the predetermined spectral transfer function including a passband having frequencies that are substantially outside the operational frequency spectrum wherein the stress wave energy is substantially attenuated in the operational state so that the housing assembly is substantially isolated from the stress wave energy. a housing assembly including a first end, a second end, and at least one protective enclosure configured to accommodate at least one device (16, 100), the housing assembly being configured to be rotationally registered to the structural member when coupled to the structural member, the housing assembly having a predetermined housing mass; and a spring arrangement coupled between the structural member and the first end and/or coupled between the structural member and the second end in the operational state, the spring arrangement having a predetermined force-displacement relationship, the housing assembly and the spring arrangement forming an isolation filter having a predetermined spectral transfer function, the predetermined spectral transfer function being a function of the predetermined housing mass and the predetermined force-displacement relationship, the predetermined spectral transfer function including a passband having frequencies that are substantially outside the operational frequency spectrum wherein the stress wave energy is substantially attenuated in the operational state so that the housing assembly is substantially isolated from the stress wave energy.
A walking assistance device comprising an assisting force generator disposed at least on a side of a hip joint to provide an assisting force to a movement of a lower limb, wherein a hip support member for securely mounting the assisting force generator on a side of the hip joint comprises a back support formed from a rigid material to substantially have a shape of letter-U as seen in plan view; characterised in that said back support is equipped with pads (18,19,20) for respectively abutting an intermediate portion between right and left erector spinae muscles, lateral outer sides of the spinae muscles and right and left iliac crests; said assisting force generator is mounted on the back support; and said hip support member further comprises a belt connected to the back support for tightening a lower part of an abdominal muscle.
An electrical storage device comprising a stack structure, the stack structure including: a conductive first electrode layer, a conductive second electrode layer, a charging layer disposed between the first electrode layer and the second electrode layer, the charging layer including a mixture containing an insulating material and at least one metal oxide, the at least one metal oxide being an n-type semiconductor, and a p-type semiconductor disposed between the charging layer and the second electrode layer, characterized in that the at least one metal oxide is selected from the group consisting of niobium oxide, tantalum oxide and molybdenum oxide. a conductive first electrode layer, a conductive second electrode layer, a charging layer disposed between the first electrode layer and the second electrode layer, the charging layer including a mixture containing an insulating material and at least one metal oxide, the at least one metal oxide being an n-type semiconductor, and a p-type semiconductor disposed between the charging layer and the second electrode layer,
A method of formatting quantized vectors for transmission and reception of 100 ms of speech in a voice communication system, comprising the steps of: quantizing a first half spectrum from a set of unquantized MELP parameter associated with a first set of plural frames of speech; and encoding the first half spectrum in 19 bits of a 60 bit serial stream; quantizing a second half spectrum from another set of unquantized MELP parameters associated with a second set of plural blocks of speech; and encoding the second half spectrum in 19 bits of the 60 bit serial stream; quantizing a bandpass voicing parameter created from the unquantized MELP parameters of the first and second set of plural blocks of speech and encoding the quantized bandpass voicing parameter in 4 bits of the 60 bit serial stream; quantizing a pitch voicing parameter created from the unquantized MELP parameters of the first and second set of plural blocks of speech; and encoding the quantized pitch parameters in 7 bits of the 60 bit serial stream; quantizing a gain parameter created from the unquantized MELP parameters of the first and second set of plural blocks of speech, and encoding the quantized gain parameters in 11 bits of the 60 bit serial stream. quantizing a first half spectrum from a set of unquantized MELP parameter associated with a first set of plural frames of speech; and encoding the first half spectrum in 19 bits of a 60 bit serial stream; quantizing a second half spectrum from another set of unquantized MELP parameters associated with a second set of plural blocks of speech; and encoding the second half spectrum in 19 bits of the 60 bit serial stream; quantizing a bandpass voicing parameter created from the unquantized MELP parameters of the first and second set of plural blocks of speech and encoding the quantized bandpass voicing parameter in 4 bits of the 60 bit serial stream; quantizing a pitch voicing parameter created from the unquantized MELP parameters of the first and second set of plural blocks of speech; and encoding the quantized pitch parameters in 7 bits of the 60 bit serial stream; quantizing a gain parameter created from the unquantized MELP parameters of the first and second set of plural blocks of speech, and encoding the quantized gain parameters in 11 bits of the 60 bit serial stream.
A method of orientating a vehicle for a potential impact, the method comprising: detecting an object proximate a vehicle with at least one sensor mounted to the vehicle; identifying if the object is a pedestrian; determining a potential for a collision between the object and the vehicle with a controller mounted within the vehicle;determining a post impact trajectory of the object responsive to identification of the object as a pedestrian based on the relative location, direction and speed between the pedestrian and the vehicle; determining a vehicle orientation for mitigating damage based on the determined potential for collision, wherein the determined vehicle orientation includes at least an independent determination of a ride height (22; 22'; 22") for each corner of the vehicle; and actuating a suspension component (20A, 20B, 20C, 20D) to move each corner of the vehicle to the determined ride height (22; 22'; 22") for that corner independent of the other corners of the vehicle. detecting an object proximate a vehicle with at least one sensor mounted to the vehicle; identifying if the object is a pedestrian; determining a potential for a collision between the object and the vehicle with a controller mounted within the vehicle;determining a post impact trajectory of the object responsive to identification of the object as a pedestrian based on the relative location, direction and speed between the pedestrian and the vehicle; determining a vehicle orientation for mitigating damage based on the determined potential for collision, wherein the determined vehicle orientation includes at least an independent determination of a ride height (22; 22'; 22") for each corner of the vehicle; and actuating a suspension component (20A, 20B, 20C, 20D) to move each corner of the vehicle to the determined ride height (22; 22'; 22") for that corner independent of the other corners of the vehicle.
A storage and arrangement device comprising a frame provided with stringers defining areas for receiving and fixing at least one decking, said decking including a panel consisting of a mesh of metal wires, respectively of support wires and mesh wires welded together at their intersection, said panel being associated with a second lower metal mesh panel, defined by support wires and mesh wires and including rectilinear folding areas parallel to each other, extending along an entire main dimension of said second lower panel, and each forming a projection with respect to the plane defined by said second panel, the two panels, respectively upper and lower panels being joined together by welding, characterised in that the mesh wires of the upper panel are welded to the support wires of the lower panel, so as to constitute a stacking and to impart increased rigidity to the end wires constituting the extension of the support wires of the upper panel, the decking resting on the stringers of the frame by means of said end wires.
A method of using a pressure medium oil which comprises applying a pressure to a substance via the pressure medium comprising a Group-14 element-containing organic compound selected from an organic germanium compound, an organic tin compound, and an organic lead compound, wherein the kinematic viscosity at 40°C of the Group-14 element-containing organic compound is 20 mm 2 /s or less, measured according to the method of JIS K2283, the pour point of the Group-14 element-containing organic compound is -40°C or lower, measured according to the method of JIS K2269, and wherein the content of the Group-14 element-containing organic compound is from 70 to 100% by mass, based on the total amount of the pressure medium oil.
A gully sensor for deployment within, and detecting the presence of matter contained in, a gully, the gully sensor comprising an elongate body, the body comprising: a first portion accommodating a light source; a second portion accommodating a light detector for detecting light emitted from the light source along a light path towards the light detector; a third portion connecting the first and second portions; and an indented portion formed between the first, second and third portions, wherein the indented portion forms a trench configured to enable the matter to enter the trench, and wherein the light path is configured to pass through the indented portion; and wherein the elongate body comprises a cross sectional profile that is substantially C-shaped, and wherein an outer peripheral wall of the elongate body comprises a tube, and the cross sectional profile of the elongate body extends throughout the length of the tube. a first portion accommodating a light source; a second portion accommodating a light detector for detecting light emitted from the light source along a light path towards the light detector; a third portion connecting the first and second portions; and an indented portion formed between the first, second and third portions, wherein the indented portion forms a trench configured to enable the matter to enter the trench, and wherein the light path is configured to pass through the indented portion; and wherein the elongate body comprises a cross sectional profile that is substantially C-shaped, and wherein an outer peripheral wall of the elongate body comprises a tube, and the cross sectional profile of the elongate body extends throughout the length of the tube.
A computer-readable medium having computer-executable instructions for performing a method of obtaining capacity planning data, the capacity planning data being based on a measurement of CPU utilization, a measurement of queue lengths and a count of I/O operations, comprising: collecting performance data at a client machine, the performance data being collected at selected time intervals; storing the performance data in a cache of the client machine for a period of time and averaging the cached performance data at the client machine over the period of time to obtain capacity planning data, wherein the period of time is greater than a collection interval for the performance data; and forwarding the cached data to a central collection location. collecting performance data at a client machine, the performance data being collected at selected time intervals; storing the performance data in a cache of the client machine for a period of time and averaging the cached performance data at the client machine over the period of time to obtain capacity planning data, wherein the period of time is greater than a collection interval for the performance data; and forwarding the cached data to a central collection location.
A method for differentiating mesenchymal stem cells into neurons, comprising the steps of: (a) adding an Ecklonia cava extract to a cell culture medium; (b) dedifferentiating mesenchymal stem cells into induced pluripotent stem cells in the medium; and (c) differentiating the induced pluripotent stem cells into neurons. (a) adding an Ecklonia cava extract to a cell culture medium; (b) dedifferentiating mesenchymal stem cells into induced pluripotent stem cells in the medium; and (c) differentiating the induced pluripotent stem cells into neurons.
A grain-oriented electrical steel sheet comprising a chemical composition containing, in mass%, C: 0.005 % or less, Si: 3.0 % or more and 4.0 % or less, Mn: 0.05 % or more and 0.50 % or less, sol.Al: 0.001 % or less, N: 0.0015 % or less, S: 0.0010 % or less, Se: 0.0010 % or less, and optionally one or more selected from the group consisting of Sb: 0.005 % or more and 0.1 % or less, Sn: 0.005 % or more and 0.1 % or less, P: 0.005 % or more and 0.1 % or less, Ni: 0.005 % or more and 1.5 % or less, Cu: 0.005 % or more and 1.5 % or less, Cr: 0.005 % or more and 0.1 % or less, Mo: 0.005 % or more and 0.5 % or less, Ti: 0.0005 % or more and 0.1 % or less, Nb: 0.0005 % or more and 0.1 % or less, V: 0.0005 % or more and 0.1 % or less, B: 0.0002 % or more and 0.0025 % or less, Bi: 0.005 % or more and 0.1 % or less, Te: 0.0005 % or more and 0.01 % or less, and Ta: 0.0005 % or more and 0.01 % or less, with the balance being Fe and inevitable impurities, wherein an average value of a deviation angle (α 2 + β 2) 1/2 calculated from a deviation angle α from ideal Goss orientation around an ND rotation axis and a deviation angle β from ideal Goss orientation around a TD rotation axis is 5.0° or less, and an area ratio R β of crystal grains with β ≤ 0.50° is 20 % or less. Sb: 0.005 % or more and 0.1 % or less, Sn: 0.005 % or more and 0.1 % or less, P: 0.005 % or more and 0.1 % or less, Ni: 0.005 % or more and 1.5 % or less, Cu: 0.005 % or more and 1.5 % or less, Cr: 0.005 % or more and 0.1 % or less, Mo: 0.005 % or more and 0.5 % or less, Ti: 0.0005 % or more and 0.1 % or less, Nb: 0.0005 % or more and 0.1 % or less, V: 0.0005 % or more and 0.1 % or less, B: 0.0002 % or more and 0.0025 % or less, Bi: 0.005 % or more and 0.1 % or less, Te: 0.0005 % or more and 0.01 % or less, and Ta: 0.0005 % or more and 0.01 % or less,
A transmission comprising a shaft made in one piece or in at least two coaxial shaft sections (6A, 6B), a toothed drive wheel mounted freely rotating on said shaft, and either a clutch mechanism arranged between the shaft and the drive wheel when the shaft is made in one piece, or two clutch mechanisms arranged one between the shaft section and the drive wheel, the other between the other shaft section and the drive wheel, the or each clutch mechanism being activated by the rotational driving of the drive wheel in a first forward rotary drive direction, and being able to be deactivated by driving the shaft or the shaft section (6A; 6B) with which it cooperates in rotation in the forward direction, when the speed of rotation of the shaft or the shaft section (6A; 6B) is greater than the speed of rotation of the drive wheel, the shaft for driving the wheels or each shaft section (6A; 6B) for driving a wheel being, in the deactivated state of the corresponding clutch mechanism, free to rotate in either of its directions of rotation, the or each clutch mechanism comprising a clutch plate mounted freely rotating on the associated shaft or the associated shaft section (6A, 6B) and to which the rotational movement of the drive wheel can be transmitted, a part borne by, and secured in rotation with, the associated shaft or shaft section (6A, 6B), and a brake of said clutch plate acting continuously on the angular speed of said plate, characterized in that the brake of the at least one of the clutch plate is threaded on the shaft or on the shaft section (6A, 6B) bearing said plate, this brake, which is U-shaped, comprising two spring blades extending along the shaft or the shaft section (6A, 6B) bearing said clutch plate and a connection zone of said spring blades to one another, said connection zone, arranged at or near one of the ends of the spring blades, being provided with a through orifice to allow said brake to be threaded on the shaft or the shaft section (6A, 6B) bearing said clutch plate.
A forming device that expands a metal pipe material to form a metal pipe, the device comprising: an upper die and a lower die that form a main cavity part forming a main body part of the metal pipe and a sub-cavity part (SC1, SC2) forming a flange part (100b, 100c) of the metal pipe by surfaces thereof opposed to each other; a shielding member (200, 300) configured to prevent foreign matter discharged from the main cavity part or the sub-cavity part (SC1, SC2) from scattering; a heating mechanism configured to energize the metal pipe material to heat the metal pipe material; and a gas supply part configured to supply a gas for expanding the metal pipe material into the metal pipe material held between the lower die and the upper die and heated by the heating mechanism, characterized in that the sub-cavity part (SC1, SC2) is extended to be opened to the outside of the die in a direction crossing an extending direction of the metal pipe material, and the shielding member (200, 300) is provided on a line in which the sub-cavity part (SC1, SC2) extends in the expanding of the metal pipe material. an upper die and a lower die that form a main cavity part forming a main body part of the metal pipe and a sub-cavity part (SC1, SC2) forming a flange part (100b, 100c) of the metal pipe by surfaces thereof opposed to each other; a shielding member (200, 300) configured to prevent foreign matter discharged from the main cavity part or the sub-cavity part (SC1, SC2) from scattering; a heating mechanism configured to energize the metal pipe material to heat the metal pipe material; and a gas supply part configured to supply a gas for expanding the metal pipe material into the metal pipe material held between the lower die and the upper die and heated by the heating mechanism, characterized in that the sub-cavity part (SC1, SC2) is extended to be opened to the outside of the die in a direction crossing an extending direction of the metal pipe material, and the shielding member (200, 300) is provided on a line in which the sub-cavity part (SC1, SC2) extends in the expanding of the metal pipe material.