mhurhangee/ep-ind-claims huggingface dataset:
A floor drain, comprising a drain compartment having a bottom, at least one side and an open upper portion, wherein the bottom and the at least one side together define a space to collect waste water and wherein the bottom comprises an opening for a drain trap, further comprising a heat exchanger element, receivable in the space of the drain compartment, for transferring heat present in the waste water to fresh water, which heat exchanger element is provided with a first connection and a second connection, wherein the first connection and the second connection are arranged inside the space of the drain compartment, and a first conduit for fresh water is connected to the first connection and in that a second conduit for fresh water is connected to the second connection, wherein the first conduit is arranged to comprise fresh water having a first temperature and in that the second conduit is arranged to comprise fresh water having a second temperature, the heat exchanger element is pivotably arranged between a first position and a second position, characterized in that the floor drain further comprises a partition wall removably arranged within the space of the drain compartment and comprising at least one waste water outlet (12, 13) and a drain control unit having walls encircling the at least one waste water outlet, wherein the walls are protruding upward from the partition wall and wherein the walls are protruding above the heat exchanger element when the heat exchanger element is arranged in the first position.
A method for printing a metallic material to be printed in a printing press, wherein with at least one printing unit of the printing press a curing printing ink or a curing varnish is respectively applied directly and immediately to the surface of the metallic material to be printed, wherein a radically curing printing ink is used as printing ink or a radically curing varnish is used as varnish, wherein the radical curing is carried out by a radical polymerization, wherein a tin plate is used as the material to be printed, characterized in that a tin plate with a surface passivated in a chromium-free manner is used as the material to be printed, wherein the chrome-free passivation of the surface of the relevant tin plate occurs by means of a titanium/zirconium passivation and/or by a use of the substance hafnium and/or silicon and/or aluminum and/or boron respectively as the central atom.
Electrosurgical device, comprising an RF generator with an output circuit containing an output transformer (T 1) and having an output impedance, and with output terminals (1, 2), to which an electrosurgical instrument can be connected, the latter supplying a radiofrequency current at a certain frequency for treating a tissue (Z L), an additional output circuit containing an additional transformer (T 2), which is connected between the output circuit (T 1, L 1, C 1) and the output terminals (1, 2) with reduction of the output impedance in relation to the output impedance of the output circuit such that the output resistance of the electrosurgical device is adapted to the load impedance (Z L), wherein the primary side of the additional transformer (T 2) has a greater number of turns per unit length than a secondary side and characterized in that the additional output circuit comprises a resonant circuit (L 2, C 2) such that the resonant frequency thereof lies above the certain frequency of the generator.
An apparatus of controlling a medium voltage inverter, the medium voltage inverter including a plurality of serially connected single-phase inverters and outputting a high voltage to drive a motor, the apparatus characterized by: an outage detector configured to detect whether an outage occurs or whether power is recovered; and a controller configured to fix a frequency of an alternating current power generated by the medium voltage inverter to a frequency at the time of detection of outage by the outage detector, reduce a voltage level of the alternating current power generated by the medium voltage inverter in response to a predetermined reduction slope, and output the reduced voltage level.
A method for forming and filling a container with liquid and setting the headspace of the liquid within the container, the container being formed from a preform located within a mold and the method utilizing a hydraulic blow molding device that is coupled to a source of a liquid blow medium, the hydraulic blow molding device having an injection nozzle, and a pressurized liquid source, the method comprising: engaging the injection nozzle in fluid tight engagement with an open end of the preform; injecting the liquid blow medium into the preform under a pressure of the pressurized liquid source so as to form the container; establishing a closing pressure of the liquid blow medium inside the formed container that is independent from the pressure of the pressurized liquid source; breaking the fluid tight engagement by disengaging the injection nozzle from the preform while the pressure inside the container is still independent from the pressure of the pressurized liquid source thereby providing a predetermined final fill level of the liquid within the container, characterized in that the closing pressure is different from the ambient pressure and is above the ambient pressure and the method further comprises that after establishing the closing pressure inside the container and before breaking the fluid tight engagement, reducing the pressure of the liquid blow medium inside the formed container from the closing pressure to a disengaging pressure that is one of a pressure lower than ambient pressure or a pressure equal to ambient pressure, said reducing the pressure taking place while said pressure of the liquid blow medium inside the formed container is still independent from the pressure of the pressurized liquid source. engaging the injection nozzle in fluid tight engagement with an open end of the preform; injecting the liquid blow medium into the preform under a pressure of the pressurized liquid source so as to form the container; establishing a closing pressure of the liquid blow medium inside the formed container that is independent from the pressure of the pressurized liquid source; breaking the fluid tight engagement by disengaging the injection nozzle from the preform while the pressure inside the container is still independent from the pressure of the pressurized liquid source thereby providing a predetermined final fill level of the liquid within the container, characterized in that the closing pressure is different from the ambient pressure and is above the ambient pressure and the method further comprises that after establishing the closing pressure inside the container and before breaking the fluid tight engagement, reducing the pressure of the liquid blow medium inside the formed container from the closing pressure to a disengaging pressure that is one of a pressure lower than ambient pressure or a pressure equal to ambient pressure, said reducing the pressure taking place while said pressure of the liquid blow medium inside the formed container is still independent from the pressure of the pressurized liquid source.
A method for discriminating a control solution from a whole blood sample by using a detection wavelength and a reference wavelength, wherein a wavelength range of 500 to 590 nm is employed as the detection wavelength and a wavelength range of 700 to 950 nm is employed as the reference wavelength, comprising the steps: detecting whether or not the whole blood sample is supplied by using a detection wavelength, checking the apparatus by using a control solution, wherein when a response value is absorbance, determining that the control solution is supplied when the following conditions are satisfied: when the response value is lower than a lower limit value of a response value supposed when luminance of the sample is measured at the reference wavelength, or when information from which it is determined that the response value is lower than the lower limit value is obtained; when the response value is higher than an upper limit value of the response value supposed when the luminance of the sample is measured at the detection wavelength, or when information from which it is determined that the response value is higher than the upper limit value is obtained. detecting whether or not the whole blood sample is supplied by using a detection wavelength, checking the apparatus by using a control solution, wherein when a response value is absorbance, determining that the control solution is supplied when the following conditions are satisfied: when the response value is lower than a lower limit value of a response value supposed when luminance of the sample is measured at the reference wavelength, or when information from which it is determined that the response value is lower than the lower limit value is obtained; when the response value is higher than an upper limit value of the response value supposed when the luminance of the sample is measured at the detection wavelength, or when information from which it is determined that the response value is higher than the upper limit value is obtained. when the response value is lower than a lower limit value of a response value supposed when luminance of the sample is measured at the reference wavelength, or when information from which it is determined that the response value is lower than the lower limit value is obtained; when the response value is higher than an upper limit value of the response value supposed when the luminance of the sample is measured at the detection wavelength, or when information from which it is determined that the response value is higher than the upper limit value is obtained.
A method for determining a noise blending factor; wherein the noise blending factor is used for approximating a high frequency component of the audio signal based on a low frequency component of the audio signal; wherein the high frequency component comprises one or more high frequency subband signals in a high frequency band; wherein the low frequency component comprises one or more low frequency subband signals in a low frequency band; wherein approximating the high frequency component comprises copying one or more low frequency subband signals to the high frequency band, thereby yielding one or more approximated high frequency subband signals; the method comprising: - determining a target banded tonality value based on the one or more high frequency subband signals; - determining a source banded tonality value based on the one or more approximated high frequency subband signals; and - determining the noise blending factor based on a variance of the target and source banded tonality values. - determining a target banded tonality value based on the one or more high frequency subband signals; - determining a source banded tonality value based on the one or more approximated high frequency subband signals; and - determining the noise blending factor based on a variance of the target and source banded tonality values.
An article of clothing incorporating apparatus for selectively destroying dividing cells in a target area of tissue, the dividing cells having polarizable or polar or charged intracellular members, the article of clothing comprising: a first insulated electrode (230; 1210) having a first conductor and a first dielectric member that is in contact with the first conductor, the first dielectric member being for placement against the tissue to form a capacitor; a second insulated electrode (230; 1200) having a second conductor and a second dielectric member that is in contact with the second conductor, the second dielectric member being for placement against the tissue to form a capacitor; and an electric field source connected to the first and second electrodes (230; 1210, 1200) for applying an alternating electric potential difference across the first and second conductors, wherein passage of the electric field through the dividing cells in late anaphase or telophase transforms the electric field into a non-homogenous electric field that produces an increased density electric field in a region of a cleavage furrow of the dividing cells, wherein the electric field source comprises a generator that generates an alternating voltage waveform at frequencies between 50 kHz to 500 kHz, whereby the non-homogeneous electric field produced within the dividing cells is of sufficient intensity to move the polarizable or charged intracellular members towards the cleavage furrow, and the voltage waveform generated by the generator is adapted to provide an electric field intensity in the tissue be treated of between 0.1 V/cm to 10.0 V/cm. a first insulated electrode (230; 1210) having a first conductor and a first dielectric member that is in contact with the first conductor, the first dielectric member being for placement against the tissue to form a capacitor; a second insulated electrode (230; 1200) having a second conductor and a second dielectric member that is in contact with the second conductor, the second dielectric member being for placement against the tissue to form a capacitor; and an electric field source connected to the first and second electrodes (230; 1210, 1200) for applying an alternating electric potential difference across the first and second conductors, wherein passage of the electric field through the dividing cells in late anaphase or telophase transforms the electric field into a non-homogenous electric field that produces an increased density electric field in a region of a cleavage furrow of the dividing cells, wherein the electric field source comprises a generator that generates an alternating voltage waveform at frequencies between 50 kHz to 500 kHz, whereby the non-homogeneous electric field produced within the dividing cells is of sufficient intensity to move the polarizable or charged intracellular members towards the cleavage furrow, and the voltage waveform generated by the generator is adapted to provide an electric field intensity in the tissue be treated of between 0.1 V/cm to 10.0 V/cm.
A seal device that seals between a housing and a rotation shaft passing through the housing, the seal device comprising: a floating ring arranged with an inside gap (h) with respect to the rotation shaft, and with an outside gap (g) with respect to the housing, and an aligning means that contactlessly aligns a position of the floating ring, characterized in that the aligning means includes a first magnet arranged in the housing, the first magnet having a magnetic pole face (14N, 14S) directed in the radial direction, and a second magnet arranged in the floating ring, the second magnet having a magnetic pole face (17N, 17S) directed in the radial direction, wherein the magnetic pole faces (14N, 14S, 17N, 17S) of the first magnet and of the second magnet are arranged so that the same poles oppose each other, and the inside gap (h) and the outside gap (g) are formed within a range of 0.5 ≤ g/h ≤ 2. a floating ring arranged with an inside gap (h) with respect to the rotation shaft, and with an outside gap (g) with respect to the housing, and an aligning means that contactlessly aligns a position of the floating ring, characterized in that the aligning means includes a first magnet arranged in the housing, the first magnet having a magnetic pole face (14N, 14S) directed in the radial direction, and a second magnet arranged in the floating ring, the second magnet having a magnetic pole face (17N, 17S) directed in the radial direction, wherein the magnetic pole faces (14N, 14S, 17N, 17S) of the first magnet and of the second magnet are arranged so that the same poles oppose each other, and the inside gap (h) and the outside gap (g) are formed within a range of 0.5 ≤ g/h ≤ 2.
A polypeptide comprising a first nuclease domain, a second nuclease domain, and an albumin, or an albumin variant having more than 80% identity to the amino acid sequence of human serum albumin set forth in SEQ ID NO: 1, or a fragment of albumin comprising at least domain III of albumin or domain III of albumin and an additional domain selected from the group consisting of domain I, domain II, and domain III, wherein the first and/or second nuclease domain is operably linked to the albumin, or variant or fragment thereof, optionally via a linker, wherein the first nuclease domain is an RNase and the second nuclease domain is a human DNase1 comprising the amino acid subsitutions E13R, N74K, A114F, and T205K, the amino acid numbering referring to SEQ ID NO: 66.
A ventricular assist device for improving blood flow in a mammal, wherein said ventricular assist device comprises: (a) a conduit, wherein said conduit comprises a proximal region, a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said first and second compartments of the cardiovascular system of said mammal, and (b) a pump having a pump inflow and a pump outflow, wherein said pump is adapted to be positioned within said conduit with said pump inflow near the distal region of the conduit and located in the first compartment of the cardiovascular system and said pump outflow near the proximal region of the conduit within a second compartment of the cardiovascular system, said pump passing from said first compartment into said second compartment. (a) a conduit, wherein said conduit comprises a proximal region, a distal region and an intermediate region located between said proximal and distal regions, wherein said proximal region is adapted to be positioned within a first compartment in the cardiovascular system of said mammal, and said distal region is adapted to be positioned within a second compartment in said cardiovascular system, and wherein said intermediate region defines a lumen configured to be positioned through a wall between said first and second compartments of the cardiovascular system of said mammal, and (b) a pump having a pump inflow and a pump outflow, wherein said pump is adapted to be positioned within said conduit with said pump inflow near the distal region of the conduit and located in the first compartment of the cardiovascular system and said pump outflow near the proximal region of the conduit within a second compartment of the cardiovascular system, said pump passing from said first compartment into said second compartment.
An electrostatic sprayer coating products with an external charge, comprising: - a bowl rotating around a rotation axis, - means for driving the rotation of the bowl around this axis, - several first electrodes each extending along an axis which extends this electrode toward the rear and distributed around this axis and each able to emit, when the sprayer is operating and at least partially toward an object to be coated, a first stream of ions from a first tip, the first tips being fitted into a first circle centered on the rotation axis and perpendicular thereto, characterized in that it comprises second electrodes (200; 200, 200') each extending along an axis perpendicular to the axis along which extends the first electrode and each able to emit, when the sprayer is operating and primarily or exclusively toward the edge of the bowl, a second stream of ions, with the same sign as the ions of the first ion streams, from second tips (202; 202, 202') fitted into a second circle centered on the rotation axis, perpendicular thereto and the radius of which is different from that of the first circle, and in that, a plane radial to the rotation axis, each second tip (202; 202, 202') is positioned in a dihedron of this plane whereof the origin is on the axis extending a first electrode toward the rear, the apical angle (α) of which is equal to 90° and which is centered, on the one hand, on the intersection between the axis along which the first electrode extends and the axis along which the second electrode (200; 200, 200') extends and, on the other hand, on an axis (A200; P200) oriented toward the edge of the bowl. - a bowl rotating around a rotation axis, - means for driving the rotation of the bowl around this axis, - several first electrodes each extending along an axis which extends this electrode toward the rear and distributed around this axis and each able to emit, when the sprayer is operating and at least partially toward an object to be coated, a first stream of ions from a first tip, the first tips being fitted into a first circle centered on the rotation axis and perpendicular thereto,
A probe-off detector providing an indication that an optical pulse oximetry sensor may not be properly positioned proximate a tissue site, said probe-off detector comprising: probe-off logic configured to receive a signal quality input of a sensor signal from said sensor indicative of an operating region of the sensor; and a signal strength calculator configured to receive the sensor signal from the sensor and configured to generate a signal strength output dependent on a time-varying component of the sensor signal, wherein the probe-off logic is further configured to indicate a probe-off condition based on a comparison determining that the signal strength output is below an acceptable signal strength value, and wherein the probe-off logic is further configured to determine the acceptable signal strength value based on the signal quality input and a stored relationship between signal strength and signal quality that defines a portion of an acceptable operating region of the sensor. probe-off logic configured to receive a signal quality input of a sensor signal from said sensor indicative of an operating region of the sensor; and a signal strength calculator configured to receive the sensor signal from the sensor and configured to generate a signal strength output dependent on a time-varying component of the sensor signal, wherein the probe-off logic is further configured to indicate a probe-off condition based on a comparison determining that the signal strength output is below an acceptable signal strength value, and wherein the probe-off logic is further configured to determine the acceptable signal strength value based on the signal quality input and a stored relationship between signal strength and signal quality that defines a portion of an acceptable operating region of the sensor.
A process for preparing a compound of formula: wherein R 3 is hydrogen, alkyl, alkenyl, alkynyl, cycloalkyl, heterocycloalkyl, alkoxy, amido, amino, alkoxycarbonyl sulfonamido, halo, cyano, hydroxy or nitro; comprising reacting a compound of formula: with a compound of formula: in the presence of a base.