mhurhangee/ep-ind-claims huggingface dataset:
Method for determining the acoustic absorption coefficient and/or the acoustic transmission coefficient at a chosen position in a space in which a certain sound field prevails as a result of the operation of a sound-emitting source, and/or the acoustic power emitted by the source, which comprises the following steps of: (a) measuring the sound pressure p(t) and the particle velocity v(t) at the chosen position in the space; (b) calculating the Fourier transforms P(f), V(f) of p(t), v(t); (c) calculating on the basis of P(f) and V(f) the time-averaged active intensity Iac(f) in the direction indicated with the vector n, being the normal vector on the relevant surface, and the time-averaged total intensity Itot(f), in the direction indicated with the vector n; (d) determining the time-averaged incident sound intensity in the direction n: Iin(f) = 1⁄2 (Iac(f) + Itot(f)); and the step of: (e) determining the time-averaged absorption coefficient in the direction n: α = Iac(f)/Iin(f); and/or the step of: (f) determining the transmission coefficient θ = Iac(f)/Iin(f) in the direction n for barriers wherein the mechanical absorption can be disregarded; and/or the steps of: (q) defining an enveloping surface around the sound-emitting source; and (r) determining the emitted acoustic power by integrating Iin over the enveloping surface. (a) measuring the sound pressure p(t) and the particle velocity v(t) at the chosen position in the space; (b) calculating the Fourier transforms P(f), V(f) of p(t), v(t); (c) calculating on the basis of P(f) and V(f) the time-averaged active intensity Iac(f) in the direction indicated with the vector n, being the normal vector on the relevant surface, and the time-averaged total intensity Itot(f), in the direction indicated with the vector n; (d) determining the time-averaged incident sound intensity in the direction n: Iin(f) = 1⁄2 (Iac(f) + Itot(f)); and the step of: Iin(f) = 1⁄2 (Iac(f) + Itot(f)); and the step of: (e) determining the time-averaged absorption coefficient in the direction n: α = Iac(f)/Iin(f); and/or the step of: (f) determining the transmission coefficient θ = Iac(f)/Iin(f) in the direction n for barriers wherein the mechanical absorption can be disregarded; and/or the steps of: (q) defining an enveloping surface around the sound-emitting source; and (r) determining the emitted acoustic power by integrating Iin over the enveloping surface.
Floor covering, in particular for a heated substrate having a multi-layered structure - comprising a plurality of floor panels connected to each other, - wherein the floor panels have a support plate made substantially from a derived timber material, a plastic and/or a combination of wood and plastic, and a coating arranged thereon, - wherein a top layer formed by the coating of the floor panels as well as a stabilising layer or a back coat is provided and - a heat conducting layer in the form of impact sound insulation is provided underneath the stabilising layer or the back coat, characterised in that - the heat conducting layer in the form of impact sound insulation has a mineral and/or metallic component. - comprising a plurality of floor panels connected to each other, - wherein the floor panels have a support plate made substantially from a derived timber material, a plastic and/or a combination of wood and plastic, and a coating arranged thereon, - wherein a top layer formed by the coating of the floor panels as well as a stabilising layer or a back coat is provided and - a heat conducting layer in the form of impact sound insulation is provided underneath the stabilising layer or the back coat, - the heat conducting layer in the form of impact sound insulation has a mineral and/or metallic component.
A topical pharmaceutical composition for use in treating a breast cancer selected from the group consisting of: a) a topical pharmaceutical composition comprising arginine, sodium hydroxide, sodium bicarbonate, and a pharmaceutically acceptable liquid carrier, and wherein, the concentration (w/v) of arginine is 15-25%, the concentration (w/v) of sodium hydroxide is 2-5%, and the concentration (w/v) of sodium bicarbonate is 3-10%; b) a topical pharmaceutical composition comprising arginine, sodium carbonate, sodium bicarbonate, and a pharmaceutically acceptable liquid carrier, and wherein the concentration (w/v) of arginine is 15-25%, the concentration (w/v) of sodium carbonate is 3-10%, and the concentration (w/v) of sodium bicarbonate is 3-10%. a) a topical pharmaceutical composition comprising arginine, sodium hydroxide, sodium bicarbonate, and a pharmaceutically acceptable liquid carrier, and wherein, the concentration (w/v) of arginine is 15-25%, the concentration (w/v) of sodium hydroxide is 2-5%, and the concentration (w/v) of sodium bicarbonate is 3-10%; b) a topical pharmaceutical composition comprising arginine, sodium carbonate, sodium bicarbonate, and a pharmaceutically acceptable liquid carrier, and wherein the concentration (w/v) of arginine is 15-25%, the concentration (w/v) of sodium carbonate is 3-10%, and the concentration (w/v) of sodium bicarbonate is 3-10%.
An electric wall saw for processing a substrate, consisting of: a saw head having a saw blade mounted on a swivelling saw arm and designed to rotate about a rotational axis, the saw head being displaceable in a feed direction via a guide carriage; a motor assembly comprising a first motor for rotation of the saw blade about the rotational axis, a second motor for swivelling the saw arm about a swivel axis and a third motor for the feed motion of the guide carriage in the feed direction; a motor housing having a first space for accommodating the first motor, a second space for accommodating the second motor and a third space for accommodating the third motor; a cooling element for cooling the first motor; an electronic assembly having at least one electronic component to be cooled, the electronic assembly including frequency converters for the motors (20, 21, 22) and a braking resistor for dissipating the braking energy upon braking of the saw blade, characterized in that cooling of the electronic components to be cooled is achieved via the motor housing, and three separate cooling surfaces (35, 36, 37) and a cooling bore are provided in the motor housing, the electronic components to be cooled being distributed over the cooling surfaces and positioned thereon and at least one cooling surface (35, 36, 37) and/or one cooling bore being provided in the motor housing for each electronic component of the electronic assembly to be cooled. a saw head having a saw blade mounted on a swivelling saw arm and designed to rotate about a rotational axis, the saw head being displaceable in a feed direction via a guide carriage; a motor assembly comprising a first motor for rotation of the saw blade about the rotational axis, a second motor for swivelling the saw arm about a swivel axis and a third motor for the feed motion of the guide carriage in the feed direction; a motor housing having a first space for accommodating the first motor, a second space for accommodating the second motor and a third space for accommodating the third motor; a cooling element for cooling the first motor; an electronic assembly having at least one electronic component to be cooled, the electronic assembly including frequency converters for the motors (20, 21, 22) and a braking resistor for dissipating the braking energy upon braking of the saw blade, characterized in that cooling of the electronic components to be cooled is achieved via the motor housing, and three separate cooling surfaces (35, 36, 37) and a cooling bore are provided in the motor housing, the electronic components to be cooled being distributed over the cooling surfaces and positioned thereon and at least one cooling surface (35, 36, 37) and/or one cooling bore being provided in the motor housing for each electronic component of the electronic assembly to be cooled.
Phthalide for use in treating and/or delaying the onset of spinal cerebellar atrophy, wherein the phthalide is selected from the group consisting of n-butylidenephthalide, a metabolic precursor of BP, a pharmaceutically acceptable salt of a metabolic precursor of BP, a pharmaceutically acceptable ester of a metabolic precursor of BP, and combinations thereof, wherein the metabolic precursor of BP is 3-butylidene-4,5-dihydrophthalide (ligustilide).
A machine for measuring and sorting assembling parts, of the countersunk head rivet type, each comprising a head and a shank, said machine comprising: - a supply tank for the parts to be sorted, - a plurality of receiving tubs (11, 21, 31) for the sorted parts, - a conveying device (6, 7) for the parts to be sorted arranged between said supply tank and said receiving tubs (11, 21, 31), - optical means (13, 14, 23, 24, 33, 34, 50) for acquiring images of each part to be sorted conveyed by said conveying device (6, 7), - a processing unit for the images acquired by said optical means (13, 14, 23, 24, 33, 34, 50), said processing unit being configured to provide at least one measurement of at least one structural characteristic ( d, α, i, β, t) of each part to be sorted, - distributing means (15, 25, 35) for each part to a receiving tub chosen from said plurality of tubs (11, 21, 31) as a function of at least one measurement of at least one structural characteristic ( d, α, i, β, t) of this part provided by said processing unit, referred to as a sorting structural characteristic, each receiving tub being associated with a predetermined range of values of at least one sorting structural characteristic ( d, α, i, β, t) of said assembling parts. - a supply tank for the parts to be sorted, - a plurality of receiving tubs (11, 21, 31) for the sorted parts, - a conveying device (6, 7) for the parts to be sorted arranged between said supply tank and said receiving tubs (11, 21, 31), - optical means (13, 14, 23, 24, 33, 34, 50) for acquiring images of each part to be sorted conveyed by said conveying device (6, 7), - a processing unit for the images acquired by said optical means (13, 14, 23, 24, 33, 34, 50), said processing unit being configured to provide at least one measurement of at least one structural characteristic ( d, α, i, β, t) of each part to be sorted, - distributing means (15, 25, 35) for each part to a receiving tub chosen from said plurality of tubs (11, 21, 31) as a function of at least one measurement of at least one structural characteristic ( d, α, i, β, t) of this part provided by said processing unit, referred to as a sorting structural characteristic, each receiving tub being associated with a predetermined range of values of at least one sorting structural characteristic ( d, α, i, β, t) of said assembling parts.
Method for generating a user-individualized recharging recommendation for a battery of an electric vehicle, in which at least one target point is determined, a charging station being output as the target point, a recommendation for activating the charging station being output in a physical and/or emotional state of the driver dependent on a state of charge of the battery of the vehicle, characterized in that the physical and/or emotional state of the driver from the data supplied by a camera and a vital sensor system is characterized on the basis of a parameter representing a viewing frequency of the driver with respect to a state-of-charge display, the well-being of the driver, which parameter is determined depending on the state of charge of the battery, the relationship between the values, ascertained the well-being of the driver, of the at least one parameter and the state of charge of the battery is ascertained by means of a trained machine learning model, and the value of the state of charge of the battery for outputting the recommendation for activating the charging station when the parameter representing the well-being of the driver falls or from the point at which a threshold value is not met by the parameter representing the well-being of the driver is ascertained from the relationship between the well-being of the driver and the state of charge of the battery, so that the driver is alerted to the activation of a charging station with an appropriate lead time before the well-being drops to discomfort. a recommendation for activating the charging station being output in a physical and/or emotional state of the driver dependent on a state of charge of the battery of the vehicle, characterized in that the physical and/or emotional state of the driver from the data supplied by a camera and a vital sensor system is characterized on the basis of a parameter representing a viewing frequency of the driver with respect to a state-of-charge display, the well-being of the driver, which parameter is determined depending on the state of charge of the battery, the relationship between the values, ascertained the well-being of the driver, of the at least one parameter and the state of charge of the battery is ascertained by means of a trained machine learning model, and the value of the state of charge of the battery for outputting the recommendation for activating the charging station when the parameter representing the well-being of the driver falls or from the point at which a threshold value is not met by the parameter representing the well-being of the driver is ascertained from the relationship between the well-being of the driver and the state of charge of the battery, so that the driver is alerted to the activation of a charging station with an appropriate lead time before the well-being drops to discomfort.
A fecal incontinence device (500, 600) for insertion into a vagina, characterized by: a plurality of shell segments, which together form an enclosed cylinder with rounded ends in a collapsed state of the device, wherein a lower shell or bottom segment of the plurality of shell segments is disposed in the device facing a posterior wall of the vagina when the device is inserted into the vagina; a pressure generating structure attached to and abutting the posterior-facing cylindrical shell a state-changing mechanism configured to reversibly transition the device from the collapsed state to an expanded state wherein in the expanded state the plurality of shell segments are separated from each other by the state-changing mechanism; and, an applicator (530, 620), removable from the device, inserted into the enclosed cylinder and configured to activate the state-changing mechanism to transition the device from the collapsed state to the expanded state. a plurality of shell segments, which together form an enclosed cylinder with rounded ends in a collapsed state of the device, wherein a lower shell or bottom segment of the plurality of shell segments is disposed in the device facing a posterior wall of the vagina when the device is inserted into the vagina; a pressure generating structure attached to and abutting the posterior-facing cylindrical shell a state-changing mechanism configured to reversibly transition the device from the collapsed state to an expanded state wherein in the expanded state the plurality of shell segments are separated from each other by the state-changing mechanism; and, an applicator (530, 620), removable from the device, inserted into the enclosed cylinder and configured to activate the state-changing mechanism to transition the device from the collapsed state to the expanded state.
Composition (C 1) comprising, per 100% of its mass: - an amount of greater than 0% by mass and less than or equal to 25% by mass of a polyol of formula: HO-CH 2 -(CHOH) m -CH 2 -OH; in which formula m represents an integer equal to 2, 3 or 4; - an amount of greater than 0% by mass and less than or equal to 30% by mass of one or more anhydrides of said polyol of formula; - from 60% by mass to 95% by mass of a composition (C R) represented by formula: HO-CH 2 -(CHOH) m -CH 2 -O-(Rham) x -H, in which formula Rham represents the rhamnose residue, m is as defined previously in formula and x, which indicates the average degree of polymerization of said Rham residue, represents a decimal number greater than 1.0 and less than or equal to 2.5; and - an amount of greater than 0% by mass and less than or equal to 5% by mass of rhamnose. - an amount of greater than 0% by mass and less than or equal to 25% by mass of a polyol of formula: HO-CH 2 -(CHOH) m -CH 2 -OH; in which formula m represents an integer equal to 2, 3 or 4; - an amount of greater than 0% by mass and less than or equal to 30% by mass of one or more anhydrides of said polyol of formula; - from 60% by mass to 95% by mass of a composition (C R) represented by formula: HO-CH 2 -(CHOH) m -CH 2 -O-(Rham) x -H, in which formula Rham represents the rhamnose residue, m is as defined previously in formula and x, which indicates the average degree of polymerization of said Rham residue, represents a decimal number greater than 1.0 and less than or equal to 2.5; and - an amount of greater than 0% by mass and less than or equal to 5% by mass of rhamnose.
A signal transmission method performed by a network side device, the method comprising: • sequentially rotating phases of first to-be-sent signals on a line set 1 by different angles and relative to phases of second to-be-sent signals on a line set 2 (step 301); • sequentially sending, to a user side, the first to-be-sent signals on the line set 1 whose phases are rotated, and sending the second to-be-sent signals on the second line set 2 on a same tone of a frequency band as the first to-be-sent signals, thereby causing cross-talk by the second-to-be sent signals against the first-to-be sent signals during transmission of the first to-be sent signals, wherein the line set 1 comprises at least one activated channel or channel that is being activated, the line set 2 comprises at least one activated channel or channel that is being activated; • receiving a rotation factor that is of a received signal having a high quality on the line set 1 and that is fed back by the user side, wherein the received signal having the high quality comprises a received signal with a high signal-to-noise ratio or high power (step 302); and • using the rotation factor fed back by the user side as a fixed rotation factor, and rotating, according to the fixed rotation factor, a phase of a signal to be subsequently sent on the line set 1 (step 303). • sequentially rotating phases of first to-be-sent signals on a line set 1 by different angles and relative to phases of second to-be-sent signals on a line set 2 (step 301); • sequentially sending, to a user side, the first to-be-sent signals on the line set 1 whose phases are rotated, and sending the second to-be-sent signals on the second line set 2 on a same tone of a frequency band as the first to-be-sent signals, thereby causing cross-talk by the second-to-be sent signals against the first-to-be sent signals during transmission of the first to-be sent signals, wherein the line set 1 comprises at least one activated channel or channel that is being activated, the line set 2 comprises at least one activated channel or channel that is being activated; • receiving a rotation factor that is of a received signal having a high quality on the line set 1 and that is fed back by the user side, wherein the received signal having the high quality comprises a received signal with a high signal-to-noise ratio or high power (step 302); and • using the rotation factor fed back by the user side as a fixed rotation factor, and rotating, according to the fixed rotation factor, a phase of a signal to be subsequently sent on the line set 1 (step 303).
A device comprising: an atomic vapor cell assembly containing a plurality of atoms associated with a plurality of pixel locations; one or more readout laser sources that emit one or more readout lasers that illuminate the plurality of atoms; and one or more targeting laser sources that emit one or more targeting lasers towards a target, wherein a portion of the one or more targeting lasers reflected by the target that is incident upon the one or more atoms causes the one or more atoms to transition to a bright ground state; wherein the one or more atoms in the bright ground state are coupled to the one or more readout lasers and emit one or more readout photons, characterised in that the device further comprises one or more pump laser sources that illuminate the plurality of atoms with one or more pump lasers to prepare one or more atoms in the plurality of atoms that are in a dark ground state, wherein an atom in the dark ground state is not coupled to the one or more readout lasers;. an atomic vapor cell assembly containing a plurality of atoms associated with a plurality of pixel locations; one or more readout laser sources that emit one or more readout lasers that illuminate the plurality of atoms; and one or more targeting laser sources that emit one or more targeting lasers towards a target, wherein a portion of the one or more targeting lasers reflected by the target that is incident upon the one or more atoms causes the one or more atoms to transition to a bright ground state; wherein the one or more atoms in the bright ground state are coupled to the one or more readout lasers and emit one or more readout photons, characterised in that the device further comprises one or more pump laser sources that illuminate the plurality of atoms with one or more pump lasers to prepare one or more atoms in the plurality of atoms that are in a dark ground state, wherein an atom in the dark ground state is not coupled to the one or more readout lasers;.
A bearing assembly, comprising: a support ring structure including: a support ring (151, 152); a plurality of superhard bearing elements distributed about an axis and attached to the support ring, each of the plurality of superhard bearing elements having a superhard material including a superhard bearing surface; and a thermally-conductive structure in thermal communication with the plurality of superhard bearing elements, the thermally-conductive structure having a higher thermal conductivity than the support ring, characterised in that: the support ring (151, 152) includes a plurality of recesses that each hold one of the plurality of superhard bearing elements and an interior channel, at least a portion of the thermally-conductive structure is located within the interior channel of the support ring (151, 152), and at least one of the plurality of superhard bearing elements is brazed to the support ring (151, 152) and the thermally-conductive structure. a support ring (151, 152); a plurality of superhard bearing elements distributed about an axis and attached to the support ring, each of the plurality of superhard bearing elements having a superhard material including a superhard bearing surface; and a thermally-conductive structure in thermal communication with the plurality of superhard bearing elements, the thermally-conductive structure having a higher thermal conductivity than the support ring, characterised in that: the support ring (151, 152) includes a plurality of recesses that each hold one of the plurality of superhard bearing elements and an interior channel, at least a portion of the thermally-conductive structure is located within the interior channel of the support ring (151, 152), and at least one of the plurality of superhard bearing elements is brazed to the support ring (151, 152) and the thermally-conductive structure.