mhurhangee/ep-ind-claims huggingface dataset:
An artificial urinary sphincter comprising: a casing sized for implantation between bulbous spongiosis muscle and perineal skin, the casing including an interior surface and an exterior surface; a coaptation valve attachable to the interior surface and including an iris diaphragm having an adjustable diameter, the iris diaphragm is movable to coapt a patient's urethra; a movable element associated with the casing, wherein the movable element is sized to be palpated through the perineal skin for adjustment of the diameter of the iris diaphragm; a biasing member connected to the iris diaphragm and to the casing and adapted to maintain the iris diaphragm in a first, coapting position; characterized in that the biasing member is adapted to move the iris diaphragm to the first, coapting position from a second, open position of the iris diaphragm without manual adjustment. a casing sized for implantation between bulbous spongiosis muscle and perineal skin, the casing including an interior surface and an exterior surface; a coaptation valve attachable to the interior surface and including an iris diaphragm having an adjustable diameter, the iris diaphragm is movable to coapt a patient's urethra; a movable element associated with the casing, wherein the movable element is sized to be palpated through the perineal skin for adjustment of the diameter of the iris diaphragm; a biasing member connected to the iris diaphragm and to the casing and adapted to maintain the iris diaphragm in a first, coapting position; characterized in that the biasing member is adapted to move the iris diaphragm to the first, coapting position from a second, open position of the iris diaphragm without manual adjustment.
A correction data setting apparatus used for setting correction data in a memory storing correction data of each nozzle for correcting a pulse width of a drive pulse signal applied to each actuator corresponding to each nozzle of an inkjet head comprising a plurality of the nozzles for ejecting ink, characterized in that the correction data setting apparatus comprises: a first output section configured to output a first parameter calculated for each nozzle in a group obtained by dividing the nozzles into groups for each certain number for correcting density unevenness of the ink ejected from each nozzle in the group; a second output section configured to output a second parameter calculated for each group for correcting change rate of the density unevenness between groups; a first register circuit configured to divide the first parameters output from the first output section for each nozzle in the group and store the first parameters; a second register circuit configured to divide the second parameters output from the second output section for each group and store the second parameters; a multiplication section configured to sequentially multiply the first parameters of each nozzle stored in the first register circuit by the second parameters of each group stored in the second register circuit; a conversion section configured to convert a multiplication value calculated by the multiplication section in units of a group to the correction data of each nozzle; and a setting section (318, 319, 320) configured to set the correction data obtained by the conversion section in the memory. a first output section configured to output a first parameter calculated for each nozzle in a group obtained by dividing the nozzles into groups for each certain number for correcting density unevenness of the ink ejected from each nozzle in the group; a second output section configured to output a second parameter calculated for each group for correcting change rate of the density unevenness between groups; a first register circuit configured to divide the first parameters output from the first output section for each nozzle in the group and store the first parameters; a second register circuit configured to divide the second parameters output from the second output section for each group and store the second parameters; a multiplication section configured to sequentially multiply the first parameters of each nozzle stored in the first register circuit by the second parameters of each group stored in the second register circuit; a conversion section configured to convert a multiplication value calculated by the multiplication section in units of a group to the correction data of each nozzle; and a setting section (318, 319, 320) configured to set the correction data obtained by the conversion section in the memory.
A brake device for applying a braking force to a wheel being provided at an end of an axle of a railway vehicle, the brake device comprising: a spring brake mechanism generating a braking force by pressing a brake friction member against a pressed member by a spring force, the pressed member being the wheel; and at least one release unit releasing the braking force of the spring brake mechanism by preventing transmission of the spring force of the spring brake mechanism to the brake friction member, characterized in that two or more release units are provided for the spring brake mechanism. a spring brake mechanism generating a braking force by pressing a brake friction member against a pressed member by a spring force, the pressed member being the wheel; and at least one release unit releasing the braking force of the spring brake mechanism by preventing transmission of the spring force of the spring brake mechanism to the brake friction member, characterized in that two or more release units are provided for the spring brake mechanism.
A composition comprising 1 mM Quinolinecarboxaldehyde and Hydroxymethyl-2-furaldehyde having the activity of killing a phytopathogen or reducing the growth thereof.
Optical monitoring system for environmental monitoring, comprising an optical monitoring device, the viewing or scanning field of which is detected by a lens, and a protective screen (12; 14; 114, 214; 314; 112; 218; 318) which protects the lens from precipitation and covers at least the viewing or scanning field of the monitoring device, wherein the protective screen (12; 14; 114, 214; 314; 112; 218; 318) is acoustically coupled to at least one ultrasonic transducer (10; 10 a-j; 1611; 1612; 1711-1718), characterised in that the at least one transducer (10; 10 a-j; 1611; 1612; 1711-1718) is driven in a first mode with a frequency modulated signal and is driven in a second mode with an amplitude modulated signal and is driven in a third mode with a phase modulated signal, each mode having a time variable modulation.
A device for nasal flushing treatment, comprising: a catheter unit having a catheter body and a plurality of apertures formed on the catheter body, the catheter body having an open end; and an injection unit having a detachable syringe and a putter set provided in the syringe connected to the open end, characterized in that: the catheter body is made of a soft material, such as silicone or latex, and has a closed end opposite the open end, with a plurality of apertures near the closed end, and can be used by a user to insert into his/her nasal cavity, wherein multiple thin spouts can spur from the apertures to the nasal meatus. a catheter unit having a catheter body and a plurality of apertures formed on the catheter body, the catheter body having an open end; and an injection unit having a detachable syringe and a putter set provided in the syringe connected to the open end, characterized in that: the catheter body is made of a soft material, such as silicone or latex, and has a closed end opposite the open end, with a plurality of apertures near the closed end, and can be used by a user to insert into his/her nasal cavity, wherein multiple thin spouts can spur from the apertures to the nasal meatus.
A centrifugal compressor, comprising: a shell, which has a fluid inlet at a first position of the shell, and a fluid outlet at a second position of the shell, which is higher than the first position; a motor assembly, which is arranged in the shell and comprises a stator and a rotor, the rotor comprising a vertically arranged rotor shaft, and the rotor shaft comprising a lower end and an upper end; a centrifugal compression mechanism, an impeller of which is connected with the rotor shaft so as to be driven by the motor assembly; and a guide member, which is located above the centrifugal compression mechanism, and which defines a flow passage alone or together with a top part of the shell; wherein the centrifugal compressor is configured such that when the centrifugal compressor is working, a fluid from the fluid inlet passes through the motor assembly and then flows from an outer periphery of the centrifugal compression mechanism into the flow passage from bottom to top, is diverted in the flow passage, thereby enters the centrifugal compression mechanism from top to bottom, and exits from the fluid outlet, wherein the rotor shaft is supported by a first bearing at a lower part and a second bearing at an upper part, characterized in that a bottom part of the shell has an oil tank, and the lower end of the rotor shaft is located in the oil tank; and in that the rotor shaft defines an axial or oblique oil passage therein, and has radial perforations (246, 247) at positions corresponding to the first bearing and the second bearing. a shell, which has a fluid inlet at a first position of the shell, and a fluid outlet at a second position of the shell, which is higher than the first position; a motor assembly, which is arranged in the shell and comprises a stator and a rotor, the rotor comprising a vertically arranged rotor shaft, and the rotor shaft comprising a lower end and an upper end; a centrifugal compression mechanism, an impeller of which is connected with the rotor shaft so as to be driven by the motor assembly; and a guide member, which is located above the centrifugal compression mechanism, and which defines a flow passage alone or together with a top part of the shell; wherein the centrifugal compressor is configured such that when the centrifugal compressor is working, a fluid from the fluid inlet passes through the motor assembly and then flows from an outer periphery of the centrifugal compression mechanism into the flow passage from bottom to top, is diverted in the flow passage, thereby enters the centrifugal compression mechanism from top to bottom, and exits from the fluid outlet, wherein the rotor shaft is supported by a first bearing at a lower part and a second bearing at an upper part, characterized in that a bottom part of the shell has an oil tank, and the lower end of the rotor shaft is located in the oil tank; and in that the rotor shaft defines an axial or oblique oil passage therein, and has radial perforations (246, 247) at positions corresponding to the first bearing and the second bearing.
A computer-implemented method for determining a water treatment parameter, comprising: receiving, by a computer, absorbance measurements of a first absorbance spectrum of a first water sample in response to illumination by a white light source: receiving, by the computer, measurements of a first fluorescence emission spectrum of the first water sample emitted in response to an excitation wavelength; obtaining an absorbance measurement of the first water sample at the excitation wavelength; correcting the first fluorescence emission spectrum based on the absorbance measurements of the first absorbance spectrum to generate a first corrected fluorescence emission spectrum; determining, using the computer, a first component value associated with a first peak emission wavelength and a second component value associated with a second peak emission wavelength of the first corrected fluorescence emission spectrum; and calculating, using the computer, a value for the water treatment parameter based on at least one coefficient calibrated with respect to a relationship between the first and second components and the water treatment parameter, a combination of the first and second component values, and the absorbance measurement of the first sample at the excitation wavelength. receiving, by the computer, measurements of a first fluorescence emission spectrum of the first water sample emitted in response to an excitation wavelength; obtaining an absorbance measurement of the first water sample at the excitation wavelength; correcting the first fluorescence emission spectrum based on the absorbance measurements of the first absorbance spectrum to generate a first corrected fluorescence emission spectrum; determining, using the computer, a first component value associated with a first peak emission wavelength and a second component value associated with a second peak emission wavelength of the first corrected fluorescence emission spectrum; and calculating, using the computer, a value for the water treatment parameter based on at least one coefficient calibrated with respect to a relationship between the first and second components and the water treatment parameter, a combination of the first and second component values, and the absorbance measurement of the first sample at the excitation wavelength.
A window having a frame, a sliding sash which can be offset and displaced, and a fitting for the sliding sash, which can be displaced in parallel on the frame, wherein upon unlocking of the sliding sash via a handle, the sliding sash is pressed slightly away from the frame from its sealed position by the seal elements, which are compressed in the sealed position, two lower carriages (4a, 4b), which can be moved on a runner rail and are coupled to one another at a distance by a first connecting rod, and having upper sliding elements (5a, 5b), which can be displaced jointly in a guide rail and are coupled to one another at a distance by a second connecting rod, wherein each of the two carriages (4a, 4b) and each of the two sliding elements (5a, 5b) has a stay hinge having a pivotable stay arm (10a, 10b; 20a, 20b), characterized in that at least one energy storage unit in the form of a traction or compression spring (15, 25) is coupled to one of the stay arms (10a, 10b; 20a, 20b) of the carriages (4a, 4b) or the sliding elements (5a, 5b), the energy storage unit absorbs energy during a pivoting offsetting movement of all stay arms (10a, 10b; 20a, 20b) from the closed position into the offset position, the absorbed energy is stored when at least one of the stay arms (10a, 20a, 10b, 20b) has reached a locked position, so that the energy is stored during a sliding movement of the sliding door, and after unlocking of the locked stay arm or the locked stay arms from the locked position, the energy storage unit releases the energy stored in the energy storage unit for a return-pivot movement of the stay arms (10a, 10b; 20a, 20b) into a closed position, and the pre-tension of the spring in the closed position of the stay arms (10a, 10b; 20a, 20b) is significantly less than in the offset open position of the stay arms (10a, 10b; 20a, 20b).
An enclosure for electrical installations, the enclosure comprising a bottom part and a cover fastened to the bottom part by fastening means comprising a latch which, supported by a bearing, is turnable in relation to the bottom part to open and close the fastening means, and an arm which at its first end is bearing-mounted to the latch, whereby the cover has a detent to receive the arm and to fasten the cover to the bottom part by means of the arm, wherein the detent is located in a recess formed in an edge of the cover, whereby attached to the arm there is a cover piece adapted to attach to the detent in the recess of the cover by means of the arm whereby the cover piece additionally comprises a first outer surface and a second outer surface characterized in that the first outer surface and the second outer surface at the recess of the cover make the outer surfaces of the cover uniform when the cover is locked to the bottom part, so that the first outer surface of the cover piece is in the same plane as the top surface of the cover and the second outer surface of the cover piece is in the same plane as the side surface of the cover, and in addition so that the first outer surface and the second outer surface conceal the discontinuities formed by the recess of the cover on the top surface of the cover and correspondingly on the side surface of the cover, and in that said first outer surface of the cover piece is planar, and said second outer surface of the cover piece is planar.
An external medicine for use in the treatment of diffuse plexiform neurofibromas, comprising, as an active ingredient, at least one selected from the group consisting of sirolimus, everolimus, temsirolimus, ridaforolimus, and zotarolimus, wherein the external medicine further comprises ethanol, wherein the ethanol is contained in an amount of 20 wt% to 60 wt%, wherein the active ingredient is contained in an amount of not less than 0.2 wt% and less than 0.8 wt%. wherein the external medicine further comprises ethanol, wherein the ethanol is contained in an amount of 20 wt% to 60 wt%, wherein the active ingredient is contained in an amount of not less than 0.2 wt% and less than 0.8 wt%.
A rotating nozzle for an aircraft turboprop with an unducted fan, comprising: - an inner wall, - an outer wall radially remote from said inner wall and concentric with said inner wall, - a junction area (27, 41) of said inner and outer walls, said nozzle being characterized in that the ends of said inner and outer walls define an open trailing edge (38, 54), the junction area (27, 41) of said inner and outer walls comprises at least one opening (35, 53) contained in a plane substantially transverse to a longitudinal axis of said nozzle, and further comprises means selected from the following group comprising: - means for connecting the walls of the nozzle, said means comprising, on the one hand, at least two connecting plates (29, 31) and, on the other hand, means for fastening said plates to each other, or - at least one pad secured to the inner wall and at least one pad secured to the outer wall of the nozzle and positioned opposite said at least one pad of the inner wall of the nozzle. - an inner wall, - an outer wall radially remote from said inner wall and concentric with said inner wall, - a junction area (27, 41) of said inner and outer walls, - means for connecting the walls of the nozzle, said means comprising, on the one hand, at least two connecting plates (29, 31) and, on the other hand, means for fastening said plates to each other, or - at least one pad secured to the inner wall and at least one pad secured to the outer wall of the nozzle and positioned opposite said at least one pad of the inner wall of the nozzle.
A method of driving a pile into a seabed floor adjacent to an existing foundation structure, the method comprising: lowering a lead longitudinally oriented in a first direction toward the subsea floor; engaging a lead indexing foot of the lead with the existing foundation structure; and advancing the pile, along the lead, in the first direction into the subsea floor. lowering a lead longitudinally oriented in a first direction toward the subsea floor; engaging a lead indexing foot of the lead with the existing foundation structure; and advancing the pile, along the lead, in the first direction into the subsea floor.
Separator plate with a receptacle for a drive shaft, which defines an axis of rotation, and with - a first ring area adjoining radially to the receptacle, - a second ring area adjoining radially to the first ring area and - a third ring area adjoining radially to the second ring area, wherein the second ring area has multiple spokes which connect the first and the third ring areas (10, 30) to one another and that flow channels extending in axial direction are between the spokes, characterized in that those spokes which are adjacent to or which comprise a sprue location, have at least one section with a tapered cross-sectional area, wherein the cross-sectional area is a circular-cylindrical area around the axis of rotation and wherein the section with the tapered cross-sectional area is more distant from the axis of rotation than the respective closest sprue location. - a first ring area adjoining radially to the receptacle, - a second ring area adjoining radially to the first ring area and - a third ring area adjoining radially to the second ring area, wherein the second ring area has multiple spokes which connect the first and the third ring areas (10, 30) to one another and that flow channels extending in axial direction are between the spokes, characterized in that those spokes which are adjacent to or which comprise a sprue location, have at least one section with a tapered cross-sectional area, wherein the cross-sectional area is a circular-cylindrical area around the axis of rotation and wherein the section with the tapered cross-sectional area is more distant from the axis of rotation than the respective closest sprue location.
A suspended load lifting and lowering device for a wind turbine power generation apparatus which includes a tower, the device comprising: a lifting and lowering mechanism configured to suspend and to lift and lower a suspended load; a suspended load carriage (30;30') on which the suspended load suspended by the lifting and lowering mechanism can be fixed, wherein the suspended load carriage (30;30') is configured to be movable along the tower of the wind turbine generation apparatus; and a guide rail attachable to the tower, wherein the guide rail is configured to guide the suspended load carriage (30;30') in such a manner that the suspended load carriage (30;30') moves up and down along the tower, wherein the suspended load carriage (30;30') is configured to be lifted and lowered together with the suspended load by means of the lifting and lowering mechanism when the suspended load is fixed to the suspended load carriage (30;30') and the suspended load is lifted and lowered by means of attachment of the lifting and lowering mechanism to the suspended load. a lifting and lowering mechanism configured to suspend and to lift and lower a suspended load; a suspended load carriage (30;30') on which the suspended load suspended by the lifting and lowering mechanism can be fixed, wherein the suspended load carriage (30;30') is configured to be movable along the tower of the wind turbine generation apparatus; and a guide rail attachable to the tower, wherein the guide rail is configured to guide the suspended load carriage (30;30') in such a manner that the suspended load carriage (30;30') moves up and down along the tower,
A method for preparing a racemic or optically active D or L-α-glycerophosphorylcholine represented by the following Formula 1, the method comprising subjecting a salt of a choline phosphate of Formula 2, and racemic or an or -3-halo-1,2-propanediol represented by the following Formula 3 to a substitution reaction in a medium at a temperature of 60 to 100°C, an inorganic base being additionally used in the substitution reaction to increase activity of the reaction thereby preparing the racemic or optically active D or L-α-glycerophosphorylcholine via a one-pot reaction without an -glycidol intermediate production process: wherein * is a chiral center; Formula 1 represents a racemic or optically active D or L-α-glycerophosphorylcholine isomer; Formula 2 represents choline phosphate; and X in Formula 3 denotes fluorine, chlorine, bromine or iodine.
An assembly of the steering rod of a motor vehicle, comprising: a steering housing; a steering rod extending through an aperture in the steering housing; at least one supporting bearing, which is disposed in or on the steering housing, for displaceably mounting the steering rod in the aperture of the steering housing; at least one elastic bellows for externally covering the steering rod in the region outside the steering housing, wherein the supporting bearing further has means for the radially inwardly directed, elastic support of the steering rod, characterized in that the means are biased against the steering rod by the bellows and/or a clamping means surrounding the bellows.