mhurhangee/ep-ind-claims huggingface dataset:
A stethoscope head, comprising a head body (1, 2, 8) and a sound guiding conduit formed in the head body (1, 2, 8), the sound guiding conduit comprising at least one sound collecting surface (12, 23), a sound guiding pore and a lateral sound guiding aperture, the at least one sound collecting surface (12, 23), the sound guiding pore and the lateral sound guiding aperture being located at the head body (1, 2, 8) and intercommunicated with each other, wherein a density of a sound guiding layer on the sound collecting surface (12, 23) is larger than a density of at least a portion of the head body (1, 2, 8), wherein the sound guiding layer is formed as a tubular rivet comprising a head protion and a rod chamber, characterized in that an outside surface of the head portion is shape-matching with the at least one sound collecting surface and the outside surface extends over the entire at least one sound collecting surface.
A peptide comprising the sequence of general formula: or salts, solvates or tautomers thereof, wherein X 20 and X 21, are each independently absent or one or more amino acids; and Z 1 and Z 2 are each independently absent or a protecting group.
Valve apparatus, comprising - a valve body, - at least one first entry for a liquid medium and a second entry for a vaporous medium, which entries are arranged on the valve body, - at least one exit which is arranged on the valve body, and - a control element which is a spindle which is rotatably mounted on the valve body and is mounted in a receiving space so as to be height-adjustable, wherein the valve body has an opening for forming the first entry and an opening for forming the second entry, at least one channel opens into the opening for forming the first entry, and the control element has a pin, wherein a height position of the pin determines whether the first entry is blocked or open, and a position of the control element determines what amount of the fluid medium or media, which are able to be coupled in at the first entry or second entry, are able to be decoupled at the at least one exit, characterized in that the control element has a first region which is in fluidic connection with the first entry and the second entry, and a second region which is fluidically connectable or connected to the at least one exit, wherein the at least one channel is arranged in the control element between the first region and the second region, such that fluid medium is able to flow from the first region into the second region through the control element, and wherein the valve body has an opening which is in direct fluidic connection with the at least one exit, and wherein the control element is configured in the second region such that a level of coverage of said opening by the control element is dependent on the position of the control element and/or a position of the control element determines what amount of fluid medium is able to be coupled into the opening. - a valve body, - at least one first entry for a liquid medium and a second entry for a vaporous medium, which entries are arranged on the valve body, - at least one exit which is arranged on the valve body, and - a control element which is a spindle which is rotatably mounted on the valve body and is mounted in a receiving space so as to be height-adjustable,
A system for managing battery slump in a battery-powered communication device comprising: an input configured for receiving battery voltage level information; a trigger input configured for receiving a signal indicating when a transmission is beginning; an output configured for sending a signal for terminating a transmission; and a controller connected to the input, the trigger input, and the output and configured to: receive the battery voltage level information from the input; monitor the battery voltage level information; delay the monitoring of the battery voltage level information for a predetermined time after receiving the signal indicating when the transmission is beginning, to allow time for the battery slump to begin to have an impact on the battery voltage; and send a signal via the output to terminate the transmission if the monitored battery voltage level information crosses a threshold voltage during the transmission, wherein the threshold voltage is a dynamic parameter that depends on transmit power level for the transmission. an input configured for receiving battery voltage level information; a trigger input configured for receiving a signal indicating when a transmission is beginning; an output configured for sending a signal for terminating a transmission; and a controller connected to the input, the trigger input, and the output and configured to: receive the battery voltage level information from the input; monitor the battery voltage level information; delay the monitoring of the battery voltage level information for a predetermined time after receiving the signal indicating when the transmission is beginning, to allow time for the battery slump to begin to have an impact on the battery voltage; and send a signal via the output to terminate the transmission if the monitored battery voltage level information crosses a threshold voltage during the transmission, wherein the threshold voltage is a dynamic parameter that depends on transmit power level for the transmission. receive the battery voltage level information from the input; monitor the battery voltage level information; delay the monitoring of the battery voltage level information for a predetermined time after receiving the signal indicating when the transmission is beginning, to allow time for the battery slump to begin to have an impact on the battery voltage; and send a signal via the output to terminate the transmission if the monitored battery voltage level information crosses a threshold voltage during the transmission, wherein the threshold voltage is a dynamic parameter that depends on transmit power level for the transmission.
An X-ray generator comprising: a line X-ray source; a multilayer film mirror for reflecting the X-ray; and a side-by-side reflecting mirror including two concave mirrors (40A, 40B) joined together so as to share a join line, wherein: a cross section of a reflecting surface of the multilayer film mirror has a parabolic shape and a focus of the parabolic shape is located at the line X-ray source; and cross sections of reflecting surfaces of the two concave mirrors (40A, 40B) of the side-by-side reflecting mirror each have a parabolic shape and each of focuses of the parabolic shapes is located on a side opposite to the multilayer film mirror, and wherein both focuses substantially coincide with each other. a line X-ray source; a multilayer film mirror for reflecting the X-ray; and a side-by-side reflecting mirror including two concave mirrors (40A, 40B) joined together so as to share a join line, wherein: a cross section of a reflecting surface of the multilayer film mirror has a parabolic shape and a focus of the parabolic shape is located at the line X-ray source; and cross sections of reflecting surfaces of the two concave mirrors (40A, 40B) of the side-by-side reflecting mirror each have a parabolic shape and each of focuses of the parabolic shapes is located on a side opposite to the multilayer film mirror, and wherein both focuses substantially coincide with each other. a cross section of a reflecting surface of the multilayer film mirror has a parabolic shape and a focus of the parabolic shape is located at the line X-ray source; and cross sections of reflecting surfaces of the two concave mirrors (40A, 40B) of the side-by-side reflecting mirror each have a parabolic shape and each of focuses of the parabolic shapes is located on a side opposite to the multilayer film mirror, and wherein both focuses substantially coincide with each other.
A computer implemented method of performing fault isolation for an aircraft comprising: identifying (244, 302, 400) a fault that occurred during a flight of the aircraft; identifying a first set of parameters associated with the aircraft based on the identification of the fault; automatically determining (246, 304, 404) values of the first set of parameters to obtain a first set of measured values, wherein the first set of measured values comprise values of the first set of parameters measured at a time that the fault occurred; determining whether the first set of measured values are within acceptable ranges; wherein the method is characterized by using a checklist output module to: determine a checklist comprising a first set of maintenance procedures to be performed by a maintenance crew to identify a source of a fault, wherein the checklist is based on a type of the fault and a maintenance manual associated with the aircraft; and determine a subset of the first set of maintenance procedures that does not need to be performed based on the determination of whether the first set of measured values are within the acceptable ranges. identifying (244, 302, 400) a fault that occurred during a flight of the aircraft; identifying a first set of parameters associated with the aircraft based on the identification of the fault; automatically determining (246, 304, 404) values of the first set of parameters to obtain a first set of measured values, wherein the first set of measured values comprise values of the first set of parameters measured at a time that the fault occurred; determining whether the first set of measured values are within acceptable ranges; wherein the method is characterized by using a checklist output module to: determine a checklist comprising a first set of maintenance procedures to be performed by a maintenance crew to identify a source of a fault, wherein the checklist is based on a type of the fault and a maintenance manual associated with the aircraft; and determine a subset of the first set of maintenance procedures that does not need to be performed based on the determination of whether the first set of measured values are within the acceptable ranges. determine a checklist comprising a first set of maintenance procedures to be performed by a maintenance crew to identify a source of a fault, wherein the checklist is based on a type of the fault and a maintenance manual associated with the aircraft; and determine a subset of the first set of maintenance procedures that does not need to be performed based on the determination of whether the first set of measured values are within the acceptable ranges.
An indium phosphide substrate containing a dopant, comprising: an average dislocation density value being less than 5000 cm -2; a ratio of the difference between the maximum value and the minimum value with respect to the average value of dopant concentration being 30% or less; a uniform distribution of said dopant concentration in the depth direction of said substrate, wherein diameter of said substrate is 100 mm to 105 mm, wherein said dopant is iron (Fe), sulfur, tin (Sn), or zinc (Zn). an average dislocation density value being less than 5000 cm -2; a ratio of the difference between the maximum value and the minimum value with respect to the average value of dopant concentration being 30% or less; a uniform distribution of said dopant concentration in the depth direction of said substrate, wherein diameter of said substrate is 100 mm to 105 mm, wherein said dopant is iron (Fe), sulfur, tin (Sn), or zinc (Zn).
A roofing panel for interconnection with one or more additional roofing panels, the roofing panel comprising: a PV cell coupled to an inverter, and wireless power transfer circuitry for: receiving power from another roofing panel, and transmitting power to one or more of: another roofing panel, the AC grid, an AC inverter, wherein the wireless power transfer circuitry comprises receiving circuitry comprising an inductor in a first coil region and a rectifier, and the wireless power transfer circuitry comprises transmitting circuitry comprising an inductor in a second coil region coupled to the inverter and the receiving circuitry, and wherein the roofing panel can be interconnected with one or more additional said roofing panels such that the first coil region of a first roofing panel aligns with and creates a physical coupling to a corresponding second coil region of an adjacent roofing panel so that the inductors (415a, 416a) inductively couple to transfer power from one roofing panel to the other. a PV cell coupled to an inverter, and wireless power transfer circuitry for: receiving power from another roofing panel, and transmitting power to one or more of: another roofing panel, the AC grid, an AC inverter, wherein the wireless power transfer circuitry comprises receiving circuitry comprising an inductor in a first coil region and a rectifier, and the wireless power transfer circuitry comprises transmitting circuitry comprising an inductor in a second coil region coupled to the inverter and the receiving circuitry, and wherein the roofing panel can be interconnected with one or more additional said roofing panels such that the first coil region of a first roofing panel aligns with and creates a physical coupling to a corresponding second coil region of an adjacent roofing panel so that the inductors (415a, 416a) inductively couple to transfer power from one roofing panel to the other. receiving power from another roofing panel, and transmitting power to one or more of: another roofing panel, the AC grid, an AC inverter, another roofing panel, the AC grid, an AC inverter, wherein the wireless power transfer circuitry comprises receiving circuitry comprising an inductor in a first coil region and a rectifier, and the wireless power transfer circuitry comprises transmitting circuitry comprising an inductor in a second coil region coupled to the inverter and the receiving circuitry, and wherein the roofing panel can be interconnected with one or more additional said roofing panels such that the first coil region of a first roofing panel aligns with and creates a physical coupling to a corresponding second coil region of an adjacent roofing panel so that the inductors (415a, 416a) inductively couple to transfer power from one roofing panel to the other.
A light detection and ranging, LiDAR, system comprising: light sources configured to generate separate beams of light; a lens array configured to receive the separate beams of light from the light sources and to collimate the separate beams of light, in both a horizontal direction and a vertical direction, into collimated outgoing light that is directed toward an examined area of interest; a mirror assembly comprising a first scanning mirror configured to move and horizontally sweep the collimated outgoing light across the examined area of interest along the horizontal direction and a second scanning mirror configured to move and vertically sweep the collimated outgoing light across the examined area of interest along the vertical direction; a polarizing beam splitter disposed between the lens array and the mirror assembly; a light sensitive detector configured to sense reflection of at least part of the collimated outgoing light; and one or more processors configured to determine a distance to one or more objects off which the at least part of the collimated outgoing light was reflected toward the light sensitive detector, the one or more processors configured to determine the distance based on the reflection of the at least part of the collimated outgoing light. light sources configured to generate separate beams of light; a lens array configured to receive the separate beams of light from the light sources and to collimate the separate beams of light, in both a horizontal direction and a vertical direction, into collimated outgoing light that is directed toward an examined area of interest; a mirror assembly comprising a first scanning mirror configured to move and horizontally sweep the collimated outgoing light across the examined area of interest along the horizontal direction and a second scanning mirror configured to move and vertically sweep the collimated outgoing light across the examined area of interest along the vertical direction; a polarizing beam splitter disposed between the lens array and the mirror assembly; a light sensitive detector configured to sense reflection of at least part of the collimated outgoing light; and one or more processors configured to determine a distance to one or more objects off which the at least part of the collimated outgoing light was reflected toward the light sensitive detector, the one or more processors configured to determine the distance based on the reflection of the at least part of the collimated outgoing light.
A baling system movable in a direction of travel for collecting a windrow (302, 304, 306, 308) of debris, comprising: a baler including a pickup assembly and a cavity for defining an internal chamber, the pickup assembly configured to receive the debris from the windrow (302, 304, 306, 308) and dispose of it in the chamber, wherein the baler is adapted to execute a wrapping process to form a bale of the debris and an eject process for ejecting the bale from the chamber; a drive system for operably driving the baler in the direction of travel; and a windrow diverter positioned in front of the pickup assembly relative to the direction of travel, characterized in that the windrow diverter is selectively positionable in a first position and a second position; wherein, in the first position, the windrow diverter operably diverts debris in a direction away from the pickup assembly as the baler continuously moves in the direction of travel; wherein, in the second position, the windrow diverter is disposed at a location such that the debris is received by the pickup assembly and collected in the chamber. a baler including a pickup assembly and a cavity for defining an internal chamber, the pickup assembly configured to receive the debris from the windrow (302, 304, 306, 308) and dispose of it in the chamber, wherein the baler is adapted to execute a wrapping process to form a bale of the debris and an eject process for ejecting the bale from the chamber; a drive system for operably driving the baler in the direction of travel; and a windrow diverter positioned in front of the pickup assembly relative to the direction of travel, characterized in that the windrow diverter is selectively positionable in a first position and a second position; wherein, in the first position, the windrow diverter operably diverts debris in a direction away from the pickup assembly as the baler continuously moves in the direction of travel; wherein, in the second position, the windrow diverter is disposed at a location such that the debris is received by the pickup assembly and collected in the chamber.
Method for working or processing a component or workpiece by means of a process, wherein a flame issuing from a burner head or from a nozzle in the direction of the component or workpiece is enveloped by an enveloping gas, characterized in that the process is an autogenous process and the enveloping gas is a gas or a gas mixture from the group of gases argon, helium, carbon dioxide, oxygen and hydrogen, for reducing the concentration of nitrogen oxides contained in the exhaust gas.
A tanker intended to contain at least one livestock effluent, such as manure, comprising: - a pipe connected substantially to the base of the tank of said tanker; - means for determining the concentration of at least one chemical element present in said effluent comprising: - a near-infrared spectrometric analysis sensor oriented towards a part of said pipe capable of allowing the propagation of electromagnetic waves in the near-infrared through it, the sensor being capable of measuring values of the absorbance of the effluent for different wavelengths in a predetermined wavelength band in the near-infrared range; - means for acquiring a plurality of said absorbance value measurements; and - means for processing said acquired measurements configured to provide a value of the concentration from said measurements; - means for generating a signal containing instructions for actuating a valve for distributing said effluent and/or for controlling the advance of a tractor pulling said tanker as a function of said concentration(s), the conduit being a conduit incapable of allowing the discharge of the said effluent onto the ground, such as a gauge tube, and the sensor and acquisition means being intended to be activated when the said tank is filled. - a pipe connected substantially to the base of the tank of said tanker; - means for determining the concentration of at least one chemical element present in said effluent comprising: - a near-infrared spectrometric analysis sensor oriented towards a part of said pipe capable of allowing the propagation of electromagnetic waves in the near-infrared through it, the sensor being capable of measuring values of the absorbance of the effluent for different wavelengths in a predetermined wavelength band in the near-infrared range; - means for acquiring a plurality of said absorbance value measurements; and - means for processing said acquired measurements configured to provide a value of the concentration from said measurements; - a near-infrared spectrometric analysis sensor oriented towards a part of said pipe capable of allowing the propagation of electromagnetic waves in the near-infrared through it, the sensor being capable of measuring values of the absorbance of the effluent for different wavelengths in a predetermined wavelength band in the near-infrared range; - means for acquiring a plurality of said absorbance value measurements; and - means for processing said acquired measurements configured to provide a value of the concentration from said measurements; - means for generating a signal containing instructions for actuating a valve for distributing said effluent and/or for controlling the advance of a tractor pulling said tanker as a function of said concentration(s),
A method of producing a semiconductor device, comprising: - providing a semiconductor substrate with a photosensor at a main surface, - forming an array of aperture zones in an opaque or semitransparent material of a further semiconductor substrate, the aperture zones being left void or filled with transparent material, - bonding the further semiconductor substrate including the aperture zones to the semiconductor substrate above the main surface with the aperture zones facing the photosensor, and thereafter - thinning the further semiconductor substrate to an aperture layer, which is penetrated by the aperture zones, the aperture layer comprising the opaque or semitransparent material. - providing a semiconductor substrate with a photosensor at a main surface, - forming an array of aperture zones in an opaque or semitransparent material of a further semiconductor substrate, the aperture zones being left void or filled with transparent material, - bonding the further semiconductor substrate including the aperture zones to the semiconductor substrate above the main surface with the aperture zones facing the photosensor, and thereafter - thinning the further semiconductor substrate to an aperture layer, which is penetrated by the aperture zones, the aperture layer comprising the opaque or semitransparent material.
A method of preserving cooking oil, including by reducing the extent of foaming and/or the build-up of free fatty acids in the cooking oil during its use in the frying of food, the method comprising providing in a cooking vessel a body of cooking oil, locating in said body of cooking oil a solid, calcium-containing filtering medium, locating in said body of cooking oil means for reducing the extent of flow of oil over the surface of said filtering medium during the food frying, locating food within said body of oil and heating the cooking oil to effect frying of the food, characterised in that the means for reducing the extent of flow of oil over the surface of the filter medium is a non-metallic flexible enclosure, which surrounds the filtering medium during use.