mhurhangee/ep-ind-claims huggingface dataset:
Gearing having a central housing part, wherein the bearings of the output shaft are accommodated in the central housing part, wherein the central housing part has a terminal box extension which is integrally formed on it and on which a converter is placed, wherein the converter has a housing lower part, characterised in that the central housing part accommodates the bearings (2, 3) of the input shaft of the gearing, wherein the input shaft also acts as a rotor shaft, mounted at one end, in the central housing part of an electric motor and wherein a thermal barrier in the form of a seal is arranged between the central housing part and the stator laminated core of the electric motor, in order, together with a seal arranged between the housing lower part and the central housing part, to considerably impair the heat transfer resistance from the electronics of the converter to the motor.
An implantable device, comprising: - a posture sensor designed to supply, in the implanted state, a first sensor output signal indicating a body posture and/or a change in a body posture; - a physiological signal sensor designed to supply at least one second sensor output signal indicating at least one value of at least one physiological parameter such as blood pressure, intracardiac impedance, stroke volume, heart sounds, heart rate, biochemical signals and/or oxygen concentration; and - an evaluation unit which is connected to the posture sensor and the physiological signal sensor and designed to process the first and second sensor output signals combined with each other and determine, from these output signals, one or more variables that describe the dynamic behavior of the second sensor signal in response to a change in body posture indicated by the first output signal, characterized in that the evaluation unit is designed to determine one or more of the following variables: - the time between a change in the body posture and the start of a change of the second output signal that indicates a compensation; - duration of a sub-interval of the second sensor output signal; - duration required for the second sensor output signal during a given time segment to pass through a given relative signal difference. - a posture sensor designed to supply, in the implanted state, a first sensor output signal indicating a body posture and/or a change in a body posture; - a physiological signal sensor designed to supply at least one second sensor output signal indicating at least one value of at least one physiological parameter such as blood pressure, intracardiac impedance, stroke volume, heart sounds, heart rate, biochemical signals and/or oxygen concentration; and - an evaluation unit which is connected to the posture sensor and the physiological signal sensor and designed to process the first and second sensor output signals combined with each other and determine, from these output signals, one or more variables that describe the dynamic behavior of the second sensor signal in response to a change in body posture indicated by the first output signal, - the time between a change in the body posture and the start of a change of the second output signal that indicates a compensation; - duration of a sub-interval of the second sensor output signal; - duration required for the second sensor output signal during a given time segment to pass through a given relative signal difference.
A medical fluid drainage device for drainage of edematous tissues comprising: - at least one pumping element (1, 23, 33), having an inlet and an outlet, - at least one outlet member having at least one lumen, connected directly or indirectly to the outlet of said pumping element and connecting said pumping element, in use, to a body cavity or to a vessel or to a subcutaneous area, and - at least one inlet member connected to said inlet of said pumping element and providing fluidic connection, in use, between said edematous tissue and said pumping element, and characterized in that the inlet member comprises at least two inlet lumens (4, 5, 6) having different lengths and running in parallel in said inlet member to be connected in parallel to said inlet of said pumping element, each of said lumens (4, 5, 6) contains at least one fluid access region, wherein each fluid access region (8, 9, 10) being adapted to allow simultaneous edematous fluid entry from distinct regions of said edematous tissue located at different distances from the pumping member, wherein the values of hydraulic resistance of each inlet lumen, in the tract preceding each fluid access region, for the same fluid, have a maximum difference of 30%. - at least one pumping element (1, 23, 33), having an inlet and an outlet, - at least one outlet member having at least one lumen, connected directly or indirectly to the outlet of said pumping element and connecting said pumping element, in use, to a body cavity or to a vessel or to a subcutaneous area, and - at least one inlet member connected to said inlet of said pumping element and providing fluidic connection, in use, between said edematous tissue and said pumping element, and characterized in that the inlet member comprises at least two inlet lumens (4, 5, 6) having different lengths and running in parallel in said inlet member to be connected in parallel to said inlet of said pumping element, each of said lumens (4, 5, 6) contains at least one fluid access region, wherein each fluid access region (8, 9, 10) being adapted to allow simultaneous edematous fluid entry from distinct regions of said edematous tissue located at different distances from the pumping member, wherein the values of hydraulic resistance of each inlet lumen, in the tract preceding each fluid access region, for the same fluid, have a maximum difference of 30%.
Voltage supply and drive system for a fire service vehicle or rescue vehicle or special utility vehicle, having at least one drive source and having multiple voltage sources that are connected to one another by way of an electrical line network, and a control apparatus, wherein at least one of the voltage sources is formed by a battery, characterized in that the control apparatus is configured for connecting or disconnecting one or more voltage sources and/or one or more drive sources, taking into consideration at least one emission value of at least one of the voltage sources and/or at least one of the drive sources.
A lubricant material for assisting machining process comprising: a high molecular weight compound having a weight average molecular weight of 5 × 10 4 or higher and 1 × 10 6 or lower; a medium molecular weight compound having a weight average molecular weight of 1 × 10 3 or higher and lower than 5 × 10 4; and a carbon, wherein the high molecular weight compound and the medium molecular weight compound are selected from the group consisting of water soluble thermoplastic resins, non-water soluble thermoplastic resins, water soluble thermosetting resins and non-water soluble thermosetting resins, characterized in that the carbon has an average particle size of 100 μm or larger. a high molecular weight compound having a weight average molecular weight of 5 × 10 4 or higher and 1 × 10 6 or lower; a medium molecular weight compound having a weight average molecular weight of 1 × 10 3 or higher and lower than 5 × 10 4; and a carbon, wherein the high molecular weight compound and the medium molecular weight compound are selected from the group consisting of water soluble thermoplastic resins, non-water soluble thermoplastic resins, water soluble thermosetting resins and non-water soluble thermosetting resins, characterized in that the carbon has an average particle size of 100 μm or larger.
An acoustic panel for aircraft, said acoustic panel including an acoustic structure having a cellular structure and a so-called front resistive skin and a so-called backing skin on respective opposite sides of that cellular structure, the acoustic panel including at least one auxiliary acoustic device that is configured to produce acoustic absorption, said auxiliary acoustic device being attached to said acoustic structure, said auxiliary acoustic device being arranged on a peripheral edge of the acoustic structure where the acoustic panel includes an edge part for fixing the acoustic panel, said auxiliary acoustic device being an auxiliary acoustic device with cavities including a plurality of adjacent chambers separated by shared walls, each of said chambers including perforations and being adapted to produce acoustic absorption, the perforations being provided on a front face (11, 13) of the auxiliary acoustic device with cavities, said perforated front face (11, 13) being arranged on a same side of the acoustic panel as the front resistive skin, characterized in that the front face of the auxiliary acoustic device with cavities comprises at least a first part provided with perforations and a second part with no perforations, and in that the resistive skin of the acoustic structure is fixed to the second part of said front face.
A head rest accessory (130,1002) for coupling to a frame member at a head end of a pivotable torso support section of a hospital bed, the head rest accessory (130,1002) comprising a frame having a pair of rails that are spaced apart and substantially parallel and that extend from a distal end to a proximal end, a crossbeam coupled to the distal ends of the pair of rails, a U-shaped connector that is coupled to the proximal ends of a respective rail of the pair of rails, the U-shaped connector opening downwardly to permit the U-shaped connector to be insertable downwardly over the frame member to couple the frame to the pivotable torso support section so that the frame is cantilevered from the frame member, a head rest mount coupled to the frame and extending between the pair of rails, the head rest mount having at least one releasable clamp that grips a corresponding one of the pair of rails to lock the head rest mount in place on the frame when the releasable clamp is in a locked condition, and the head rest mount being repositionable along the pair of rails when the releasable clamp is in an unlocked condition, and a head rest coupled to the head rest mount, the head rest including a face rest shell having an upwardly facing concave surface and having a generally T-shaped cutout to receive a patient's eyes, nose, mouth, and a central chin region of the patient's face when the patient is in a prone position on the head rest accessory. a frame having a pair of rails that are spaced apart and substantially parallel and that extend from a distal end to a proximal end, a crossbeam coupled to the distal ends of the pair of rails, a U-shaped connector that is coupled to the proximal ends of a respective rail of the pair of rails, the U-shaped connector opening downwardly to permit the U-shaped connector to be insertable downwardly over the frame member to couple the frame to the pivotable torso support section so that the frame is cantilevered from the frame member, a head rest mount coupled to the frame and extending between the pair of rails, the head rest mount having at least one releasable clamp that grips a corresponding one of the pair of rails to lock the head rest mount in place on the frame when the releasable clamp is in a locked condition, and the head rest mount being repositionable along the pair of rails when the releasable clamp is in an unlocked condition, and a head rest coupled to the head rest mount, the head rest including a face rest shell having an upwardly facing concave surface and having a generally T-shaped cutout to receive a patient's eyes, nose, mouth, and a central chin region of the patient's face when the patient is in a prone position on the head rest accessory.
A method for preparing polymer coated ferrite fine particles, the method comprising the steps of: preparing a mixed aqueous solution dissolving therein ferrous iron ion and polyacrylic acid; adding alkaline to the mixed aqueous solution; adding an oxidizer to the mixed aqueous solution after addition of the alkaline; and heating the mixed aqueous solution after addition of the oxidizer under pressurized condition in a pressure proofed closed container at a temperature condition beyond 100 Celsius degrees. preparing a mixed aqueous solution dissolving therein ferrous iron ion and polyacrylic acid; adding alkaline to the mixed aqueous solution; adding an oxidizer to the mixed aqueous solution after addition of the alkaline; and heating the mixed aqueous solution after addition of the oxidizer under pressurized condition in a pressure proofed closed container at a temperature condition beyond 100 Celsius degrees.
A method for receiving a multichannel optical signal (O B) in an optical receiver arrangement (500; 600), wherein the optical signal (O B) comprises a number of optical channels (A, B, C, D) equally distributed around an optical carrier frequency (f LO) and wherein the optical receiver arrangement (500; 600) comprises an optical homodyne receiver and a multichannel recovery unit (300; 400), which method comprises the actions of; - receiving and detecting the multichannel optical signal (O B) so as to provide at least one electrical quadrature signal (IQ V) comprising at least one folded channel (A+D), wherein each folded channel (A+D) correspond to a set of two optical channels (A, D) collapsed onto each other, - up-converting said at least one electrical quadrature signal (IQ V) so as to provide at least one up-converted quadrature signal (IQ V-UP) comprising at least one pair of two separated unfolded channels (A', D'), wherein each pair correspond to the two optical channels (A, D) of an unique folded channel (A+D), - demodulating said at least one up-converted quadrature signal (IQ V-UP) so as to provide one baseband quadrature signal (IQ A, IQ D; IQ B, IQ C) for each un-folded channel (A', D', B', C') such that each baseband quadrature signal (IQ A, IQ D; IQ B, IQ C) corresponds to one unique optical channel (A, D, B, C). - receiving and detecting the multichannel optical signal (O B) so as to provide at least one electrical quadrature signal (IQ V) comprising at least one folded channel (A+D), wherein each folded channel (A+D) correspond to a set of two optical channels (A, D) collapsed onto each other, - up-converting said at least one electrical quadrature signal (IQ V) so as to provide at least one up-converted quadrature signal (IQ V-UP) comprising at least one pair of two separated unfolded channels (A', D'), wherein each pair correspond to the two optical channels (A, D) of an unique folded channel (A+D), - demodulating said at least one up-converted quadrature signal (IQ V-UP) so as to provide one baseband quadrature signal (IQ A, IQ D; IQ B, IQ C) for each un-folded channel (A', D', B', C') such that each baseband quadrature signal (IQ A, IQ D; IQ B, IQ C) corresponds to one unique optical channel (A, D, B, C).
Applicator for applying an eyelash cosmetic, characterized in that it comprises: - a body (1, 2), and - protuberances having a free end and arranged so as to be movably mounted relative to the body between a retracted position and an extended position, in which the protuberances extend outward from the body further than in the retracted position, the applicator being arranged such that each free end follows a path transverse to the longitudinal axis of the applicator from the retracted position to the extended position, characterized in that at least some of the protuberances have a bead. - a body (1, 2), and - protuberances having a free end and arranged so as to be movably mounted relative to the body between a retracted position and an extended position, in which the protuberances extend outward from the body further than in the retracted position, the applicator being arranged such that each free end follows a path transverse to the longitudinal axis of the applicator from the retracted position to the extended position, characterized in that at least some of the protuberances have a bead.
A computer-implemented method for determining calibration data for an airborne goniometry apparatus comprising an antenna array of several antennas, from several calibration data sets measured in-flight by said goniometry apparatus, each associated with a measured angular position and comprising an amplitude datum and a phase datum measured by each antenna of said antenna array at said measured position, said method comprising, for an estimated angular position, a phase of calculating an estimated calibration data set characterized in that said calculation phase comprising the following steps: for each measured position, normalizing the data set measured at said measured position, with respect to the phase data measured by each antenna, said normalizing providing as many normalized data sets as there are antennas for each measured position; - for each antenna, calculating a candidate data set by interpolating the measured data sets at said measured positions and previously normalized with respect to the phase measured by said antenna; - for at least one candidate data set, a step of calculating the energy of said candidate data set, comprising the following operations: • calculating the energy associated with each antenna in the candidate data set; and • calculating the energy of said candidate data set based on the energy associated with each antenna; and - selecting, as the estimated calibration data set, the candidate data set whose phase reference has the highest energy among said candidate data sets. for each measured position, normalizing the data set measured at said measured position, with respect to the phase data measured by each antenna, said normalizing providing as many normalized data sets as there are antennas for each measured position; - for each antenna, calculating a candidate data set by interpolating the measured data sets at said measured positions and previously normalized with respect to the phase measured by said antenna; - for at least one candidate data set, a step of calculating the energy of said candidate data set, comprising the following operations: • calculating the energy associated with each antenna in the candidate data set; and • calculating the energy of said candidate data set based on the energy associated with each antenna; and • calculating the energy associated with each antenna in the candidate data set; and • calculating the energy of said candidate data set based on the energy associated with each antenna; and - selecting, as the estimated calibration data set, the candidate data set whose phase reference has the highest energy among said candidate data sets.
A diamond single crystal produced by gas-phase synthesis, wherein the diamond single crystal includes two or more diamond monocrystalline layers having different absorption coefficients for light having a wavelength of 350 nm, one of the diamond monocrystalline layers having one main surface has an absorption coefficient of less than 25 cm -1 for light having a wavelength of 350 nm, and another of the diamond monocrystalline layers having the other main surface has an absorption coefficient of 25 cm -1 or more and 80 cm -1 or less for light having a wavelength of 350 nm, and any of the two or more diamond monocrystalline layers has an absorption coefficient of 80 cm -1 or less for light having a wavelength of 350 nm.
An apparatus comprising at least one elongated mould by means of which at least one block of meat, in particular of fish meat, can be produced, and comprising at least one elongated hold-down device which can be received within the mould for fixing a web of material inserted therein, wherein the mould is adjustably mounted between a first orientation, in which the mould is positioned lying in its longitudinal extension for assembly with the hold-down device, and a second orientation, in which the mould is positioned upright in its longitudinal extension for receiving superimposed layers of meat.
An optical fiber unit comprising: a plurality of optical fibers; and a plurality of bundling members (12G, 12H, 121, 12J) that bundle the plurality of optical fibers into a bundle, each bundling member (12G, 12H, 121, 12J) of said plurality of bundling members being arranged along a length direction of the bundle of optical fibers so as to be wound on an outer circumference of the bundle of optical fibers in a respective winding direction with respect to the bundle of optical fibers; wherein a first bundling member of said plurality of bundling members is joined with a second bundling member of the plurality of bundling members at a first contact point where the first bundling member contacts the second bundling member, and the winding direction of the first bundling member is reversed at the first contact point; characterized in that the first bundling member is joined with a third bundling member of said plurality of bundling members at a second contact point where the first bundling member contacts the third bundling member, and the winding direction of the first bundling member is reversed at said second contact point. a plurality of optical fibers; and a plurality of bundling members (12G, 12H, 121, 12J) that bundle the plurality of optical fibers into a bundle, each bundling member (12G, 12H, 121, 12J) of said plurality of bundling members being arranged along a length direction of the bundle of optical fibers so as to be wound on an outer circumference of the bundle of optical fibers in a respective winding direction with respect to the bundle of optical fibers; wherein a first bundling member of said plurality of bundling members is joined with a second bundling member of the plurality of bundling members at a first contact point where the first bundling member contacts the second bundling member, and the winding direction of the first bundling member is reversed at the first contact point; characterized in that the first bundling member is joined with a third bundling member of said plurality of bundling members at a second contact point where the first bundling member contacts the third bundling member, and the winding direction of the first bundling member is reversed at said second contact point.
Heating, ventilation and/or air-conditioning device for a motor vehicle, comprising a main body (2, 3, 4) having at least a first duct for circulation of air, intended to supply a first part of an interior of a motor vehicle, a second duct for circulation of air, intended to supply a second part of the interior, an air-inlet housing mounted on the main body (2, 3, 4) upstream of the said first and second circulation ducts (5, 6) of the main body with respect to the direction of circulation of the air (F1, F2), an air filter mounted upstream of the said circulation ducts (5, 6) of the main body (2, 3, 4) with respect to the direction of circulation of the air, the main body (2, 3, 4) having a separation wall separating the upstream end of the first circulation duct and the upstream end of the second circulation duct, the air filter being housed, at least in part, in a placement region for the air-inlet housing, the air filter resting at least in part on the said separation wall of the main body (2, 3, 4), characterized in that the said separation wall has, when seen in plan view, a general S shape.
A method for the enzymatic conversion of a phenol substrate into a corresponding catechol product, in which the phenol substrate is selected from tyrosol and a 4-halophenol, the method comprising the steps of incubating the phenol substrate with a Ralstonia solanacearum tyrosinase enzyme, or a functional derivative thereof, in a reaction mixture, for a period of time sufficient to allow the enzyme convert at least some of the phenol substrate into the catechol product and in which the reaction mixture comprises ascorbic acid, in which the functional derivative is an engineered variant of the Ralstonia solanacearum tyrosinase enzyme having 1 to 5 amino acid alterations compared with the Ralstonia solanacearum tyrosinase enzyme, wherein the or each alteration is selected from insertion, addition, deletion and substitution of an amino acid.