mhurhangee/patent-ind-claim-en huggingface dataset:
A machine for the continuous decatising of fabrics ( T ) comprising: - at least one decatising cylinder ; - at least one treatment container partially wrapped around said at least one decatising cylinder and adapted at least to distribute steam under pressure for the processing of the fabric ( T ), said at least one treatment container having at least one concave surface portion that identifies with at least one respective outer surface portion of said at least one decatising cylinder a processing channel in which the fabric ( T ) is treated with the steam under pressure distributed by said at least one treatment container , - at least one transport unit shaped to move the fabric ( T ) through said processing channel , wherein said at least one treatment container wraps said at least one decatising cylinder so that said processing channel of the fabric ( T ) develops along said outer surface of said at least one decatising cylinder for an arc of circumference subtending an angle at the centre of said at least one decatising cylinder greater than 180o, characterized in that said processing channel is laterally open so as to allow the outflow of the steam out of the processing channel . - at least one decatising cylinder ; - at least one treatment container partially wrapped around said at least one decatising cylinder and adapted at least to distribute steam under pressure for the processing of the fabric ( T ), said at least one treatment container having at least one concave surface portion that identifies with at least one respective outer surface portion of said at least one decatising cylinder a processing channel in which the fabric ( T ) is treated with the steam under pressure distributed by said at least one treatment container , - at least one transport unit shaped to move the fabric ( T ) through said processing channel , wherein said at least one treatment container wraps said at least one decatising cylinder so that said processing channel of the fabric ( T ) develops along said outer surface of said at least one decatising cylinder for an arc of circumference subtending an angle at the centre of said at least one decatising cylinder greater than 180o, characterized in that said processing channel is laterally open so as to allow the outflow of the steam out of the processing channel .
Arrangement comprising an apparatus for measuring panes and a pane to be measured, wherein the apparatus comprises a light source and a light sensor which are arranged in such a way that a light beam emanating from the light source passes through the pane and impinges on the light sensor , wherein the light sensor is dimensioned such that both a primary beam and a secondary beam of the light beam impinge on the light sensor , characterized in that the light beam has a linear polarization, wherein the light source is embodied to emit linearly polarized light and/or a polarization filter is arranged between the light source and the pane , wherein the polarization direction is adjustable, wherein the polarization direction includes an angle of between 50° and 130° with a plane of incidence , which is spanned by the axis of the light beam and the pane normal at the site at which the light beam impinges on the pane .
Method for operating a distribution machine having first distribution members for discharging liquid or granular material into core zones of an agricultural area and second distribution members for the adapted distribution of agricultural material in edge regions of an agricultural area, wherein the second distribution members are designed to be operated in combination with the first distribution members or separately, wherein the distribution machine has a location-determining system and a control unit with a memory, wherein the control unit is designed to activate and to operate the first and second distribution members for distributing agricultural material, and wherein the first and second distribution members are activated and operated in a location-dependent manner in accordance with a cultivation map stored in the memory of the control unit; characterized in that the control unit is furthermore designed to save operating settings of the first and second distribution members in a geo-referenced manner during the operation of the distribution machine and, upon approaching the same agricultural area again, to retrieve said stored data for the operation of the first and second distribution members and to activate and to operate the first and second distribution members in accordance with the stored data.
An autonomous coverage robot comprising: a chassis having a forward portion and a rearward portion , the forward portion defining a substantially rectangular shape and the rearward portion defining an arcuate shape when viewed from above; a body attached to the chassis ; a drive system carried by the rearward portion of the chassis and configured to maneuver the robot over a cleaning surface; at least one proximity sensor disposed on a lateral side of the robot for detecting when an object is proximate that side; a bump sensor configured to detect movement in multiple directions; a controller in communication with the drive system , the controller configured to maneuver the robot , the controller being configured to alter a drive direction in response to a signal received from the at least one proximity sensor or in response to a contact between the body and an obstacle; a cleaning assembly mounted on the forward portion of the chassis ; a bin disposed adjacent the cleaning assembly and configured to receive debris agitated by the cleaning assembly , characterized in that the autonomous coverage robot further comprises right and left front cliff sensors disposed at the respective right and left corners of the forward portion of the robot . a chassis having a forward portion and a rearward portion , the forward portion defining a substantially rectangular shape and the rearward portion defining an arcuate shape when viewed from above; a body attached to the chassis ; a drive system carried by the rearward portion of the chassis and configured to maneuver the robot over a cleaning surface; at least one proximity sensor disposed on a lateral side of the robot for detecting when an object is proximate that side; a bump sensor configured to detect movement in multiple directions; a controller in communication with the drive system , the controller configured to maneuver the robot , the controller being configured to alter a drive direction in response to a signal received from the at least one proximity sensor or in response to a contact between the body and an obstacle; a cleaning assembly mounted on the forward portion of the chassis ; a bin disposed adjacent the cleaning assembly and configured to receive debris agitated by the cleaning assembly , characterized in that the autonomous coverage robot further comprises right and left front cliff sensors disposed at the respective right and left corners of the forward portion of the robot .
VVER emergency cooling system sump protection device comprising a system of header-connected filter modules comprising filter elements , each filter module having slotted grates on top, the filter elements are arranged inside and designed as laterally slotted filtration pipes , and perforated distribution tubes arranged inside the filtration pipes , the internals of the perforated distribution tubes are connected to headers , characterized in that the filtration pipes are made of wire with slots between turns, and each filter module has slotted grates on sides. characterized in that the filtration pipes are made of wire with slots between turns, and each filter module has slotted grates on sides.
A mobile apparatus mounted to a motor vehicle for detecting energized objects , comprising: at least one sensor probe , mounted to the motor vehicle , configured to generate a first signal corresponding to an electric field detected by the at least one sensor probe , and wherein the at least one sensor probe comprises at least one electrode ; a processor , coupled to the at least one sensor probe , configured to digitize the first signal to form electric field data, to produce field strengths of each of the at least one sensor probes , and to analyze the field strengths to identify a general location of the voltage anomaly in the electric field, wherein the electric field data is analyzed based on an expected frequency pertaining to the voltage anomaly to locate an energized object proximate a street; and an indicator , coupled to the processor , configured to alert a user to a presence of the voltage anomaly in the electric field proximate the street; characterized in that the mobile apparatus comprises at least one photonic sensor , mounted to the motor vehicle , configured to generate a second signal corresponding to an electric field detected by the at least one photonic sensor , for narrowing down the location of a voltage anomaly, wherein the voltage anomaly is a stray voltage anomaly; wherein the processor is further configured to digitize the second signal to form electric field data, to produce field strengths for the at least one photonic sensor , and to analyze the field strengths to identify a specific location of the voltage anomaly in the electric field. at least one sensor probe , mounted to the motor vehicle , configured to generate a first signal corresponding to an electric field detected by the at least one sensor probe , and wherein the at least one sensor probe comprises at least one electrode ; a processor , coupled to the at least one sensor probe , configured to digitize the first signal to form electric field data, to produce field strengths of each of the at least one sensor probes , and to analyze the field strengths to identify a general location of the voltage anomaly in the electric field, wherein the electric field data is analyzed based on an expected frequency pertaining to the voltage anomaly to locate an energized object proximate a street; and an indicator , coupled to the processor , configured to alert a user to a presence of the voltage anomaly in the electric field proximate the street; characterized in that the mobile apparatus comprises at least one photonic sensor , mounted to the motor vehicle , configured to generate a second signal corresponding to an electric field detected by the at least one photonic sensor , for narrowing down the location of a voltage anomaly, wherein the voltage anomaly is a stray voltage anomaly; wherein the processor is further configured to digitize the second signal to form electric field data, to produce field strengths for the at least one photonic sensor , and to analyze the field strengths to identify a specific location of the voltage anomaly in the electric field.
A vehicle falling-over detection device comprising: inclination angle detection means for detecting an inclination angle of a vehicle; counting means for counting in a case where the inclination angle detected by the inclination angle detection means is equal to or larger than a predetermined angle; and determining means for determining that the vehicle has fallen over in a case where the counting means counts successively a predetermined number of times, characterised in that the inclination angle detection means includes interval deciding means for deciding a detection interval of detection of an angle of the vehicle, the interval deciding means makes the detection interval irregular, and the interval deciding means comprises: a Zener diode for generating white noise; an amplifier for amplifying the white noise; a comparator for performing waveform shaping based on the amplified white noise into a pulse signal; and a counter for counting up the pulse signal, wherein a pulse interval of the pulse signal is used as the detection interval. inclination angle detection means for detecting an inclination angle of a vehicle; counting means for counting in a case where the inclination angle detected by the inclination angle detection means is equal to or larger than a predetermined angle; and determining means for determining that the vehicle has fallen over in a case where the counting means counts successively a predetermined number of times, characterised in that the inclination angle detection means includes interval deciding means for deciding a detection interval of detection of an angle of the vehicle, the interval deciding means makes the detection interval irregular, and the interval deciding means comprises: a Zener diode for generating white noise; an amplifier for amplifying the white noise; a comparator for performing waveform shaping based on the amplified white noise into a pulse signal; and a counter for counting up the pulse signal, wherein a pulse interval of the pulse signal is used as the detection interval. a Zener diode for generating white noise; an amplifier for amplifying the white noise; a comparator for performing waveform shaping based on the amplified white noise into a pulse signal; and a counter for counting up the pulse signal, wherein a pulse interval of the pulse signal is used as the detection interval.
A tubular threaded joint comprising a first tubular member having a pin and a second tubular member having a box , wherein: the pin is an end portion of the first tubular member and comprises on its radially outward-facing surface a male threaded zone comprising a tapered male thread ; the box is an end portion of the second tubular member and comprises on its radially inward-facing surface a female threaded zone comprising a tapered female thread ; the male thread and female thread are configured to engage with each other when the joint is in a made-up state; the male thread and female thread are each trapezoidal and comprise a crest , a root , a load flank , and a stabbing flank ; on both of the male thread and the female thread at least one of the load flank and the stabbing flank is negatively inclined; a first portion of the male thread extending from an end thereof has a first taper (A) relative to a longitudinal axis of the first member ; a first portion of the female thread extending from an end thereof has a second taper (B) relative to a longitudinal axis of the second member , the first portion of the male thread and the first portion of the female thread are configured to engage with each other when the joint is in the made-up state; the second taper (B) is different from the first taper (A) such that the threads converge toward an end of the threads in the made-up state; the male thread varies in axial width along its length such that it narrows towards the terminal end of the pin ; and the female thread varies in axial width along its length such that it narrows towards the terminal end of the box . the pin is an end portion of the first tubular member and comprises on its radially outward-facing surface a male threaded zone comprising a tapered male thread ; the box is an end portion of the second tubular member and comprises on its radially inward-facing surface a female threaded zone comprising a tapered female thread ; the male thread and female thread are configured to engage with each other when the joint is in a made-up state; the male thread and female thread are each trapezoidal and comprise a crest , a root , a load flank , and a stabbing flank ; on both of the male thread and the female thread at least one of the load flank and the stabbing flank is negatively inclined; a first portion of the male thread extending from an end thereof has a first taper (A) relative to a longitudinal axis of the first member ; a first portion of the female thread extending from an end thereof has a second taper (B) relative to a longitudinal axis of the second member , the first portion of the male thread and the first portion of the female thread are configured to engage with each other when the joint is in the made-up state; the second taper (B) is different from the first taper (A) such that the threads converge toward an end of the threads in the made-up state; the male thread varies in axial width along its length such that it narrows towards the terminal end of the pin ; and the female thread varies in axial width along its length such that it narrows towards the terminal end of the box .
A doctor blade device for applying a powder material to a substrate for an additive manufacturing system, comprising: - a doctor blade body , - a doctor blade element , and - a measuring unit , wherein the doctor blade element is configured to spread the powder material onto the substrate , wherein the doctor blade body holds the doctor blade element and the doctor blade element extends at least partially along the doctor blade body , wherein the measuring unit is arranged at the doctor blade body , and wherein the measuring unit is configured for an interaction with a laser unit , which is configured to irradiate the powder material spread onto the substrate , characterized in that the doctor blade body and the doctor blade element comprise two or more components. - a doctor blade body , - a doctor blade element , and - a measuring unit ,
A microelectromechanical pressure sensor structure that comprises a planar base (71; 81) and a side wall layer (73; 83) and a diaphragm plate (76; 86), wherein the diaphragm plate includes a first planar material layer; the side wall layer (73; 83) is electrically insulating and forms side walls that extend circumferentially away from the planar base (71; 81) to a top surface of the side wall layer; the planar base (71; 81) is attached to the side wall layer (71; 83) and the side wall layer is attached to the first planar material layer of the diaphragm plate (76; 86) to form a hermetically closed gap in a reference pressure; a part of the first planar material layer of the diaphragm plate (76; 86) that extends over the gap provides a diaphragm; the top surface of the side wall layer (73; 83) comprises at least one isolation area that is not covered by the first planar material layer of the diaphragm plate ; the microelectromechanical pressure sensor structure characterized in that the isolation area is at least partly covered with a layer of electrically insulating material (84; 84); the layer of electrically insulating material does not extend to the area of the diaphragm; the thickness of the layer of electrically insulating material on the isolation area is at least equal to the thickness of the first planar material layer of the diaphragm plate. the diaphragm plate includes a first planar material layer; the side wall layer (73; 83) is electrically insulating and forms side walls that extend circumferentially away from the planar base (71; 81) to a top surface of the side wall layer; the planar base (71; 81) is attached to the side wall layer (71; 83) and the side wall layer is attached to the first planar material layer of the diaphragm plate (76; 86) to form a hermetically closed gap in a reference pressure; a part of the first planar material layer of the diaphragm plate (76; 86) that extends over the gap provides a diaphragm; the top surface of the side wall layer (73; 83) comprises at least one isolation area that is not covered by the first planar material layer of the diaphragm plate ; the microelectromechanical pressure sensor structure characterized in that the isolation area is at least partly covered with a layer of electrically insulating material (84; 84); the layer of electrically insulating material does not extend to the area of the diaphragm; the thickness of the layer of electrically insulating material on the isolation area is at least equal to the thickness of the first planar material layer of the diaphragm plate.
A stent for repairing a leak in a pipe carrying water, gas, and/or oil, the stent comprising: a spring defining a tubular mesh structure, the spring defining an outer surface and an inner surface, the inner surface defining a void ; and a seal wrapped around the outer surface of the spring ; the stent configurable in a compressed orientation, wherein the spring is compressed, and an expanded orientation, wherein the spring is expanded, the spring biasing the stent to the expanded orientation. a spring defining a tubular mesh structure, the spring defining an outer surface and an inner surface, the inner surface defining a void ; and a seal wrapped around the outer surface of the spring ; the stent configurable in a compressed orientation, wherein the spring is compressed, and an expanded orientation, wherein the spring is expanded, the spring biasing the stent to the expanded orientation.
An active noise reduction, ANR, headset earpiece (100;200;300;400) comprising: a first microphone (206;402) disposed on the ANR headset earpiece such that the first microphone is configured to capture a first input signal representing noise traversing a first noise pathway through the ANR headset earpiece; and a second microphone (204;208;404) disposed on the ANR headset earpiece such that the second microphone is configured to capture a second input signal representing noise traversing a second noise pathway through the ANR headset earpiece, wherein the second noise pathway comprises an acoustic path through a port (204;212) of the headset earpiece, wherein positions of the first microphone and the second microphone on the ANR headset earpiece are configured such that a first target level of coherence is achieved at multiple frequencies, the first target level of coherence at a particular frequency representing a fraction of an output signal that can be suppressed using the first input signal and the second input signal together, wherein the coherence is a single number between 0 and 1 at each frequency ω, computed as γ Y X 2 ω = 1 s YY ω S Y X ω S XX − 1 ω S Y X H ω , where S YX ( ω ) is a cross-spectrum vector between the input signals and output signal, S XX ( ω ) is a cross-spectrum matrix of the input signals, S YY ( ω ) is a power spectrum of the output signal and (.) H denotes the Hermitian of a matrix or vector. a first microphone (206;402) disposed on the ANR headset earpiece such that the first microphone is configured to capture a first input signal representing noise traversing a first noise pathway through the ANR headset earpiece; and a second microphone (204;208;404) disposed on the ANR headset earpiece such that the second microphone is configured to capture a second input signal representing noise traversing a second noise pathway through the ANR headset earpiece, wherein the second noise pathway comprises an acoustic path through a port (204;212) of the headset earpiece, wherein positions of the first microphone and the second microphone on the ANR headset earpiece are configured such that a first target level of coherence is achieved at multiple frequencies, the first target level of coherence at a particular frequency representing a fraction of an output signal that can be suppressed using the first input signal and the second input signal together, wherein the coherence is a single number between 0 and 1 at each frequency ω, computed as γ Y X 2 ω = 1 s YY ω S Y X ω S XX − 1 ω S Y X H ω , where S YX ( ω ) is a cross-spectrum vector between the input signals and output signal, S XX ( ω ) is a cross-spectrum matrix of the input signals, S YY ( ω ) is a power spectrum of the output signal and (.) H denotes the Hermitian of a matrix or vector.