mhurhangee/patent-ind-claim-en huggingface dataset:
An air spring system for an automobile, with at least one air spring , which can be supplied with compressed air via an associated supply unit , which includes a compressed air reservoir , from which the air spring can be supplied with compressed air and into which compressed air can be returned from the air spring via a pressure generator , wherein the supply unit includes at least one further, front compressed air reservoir , which is arranged between the air spring and the pressure generator , characterized in that the supply unit includes at least one further compressed air reservoir , via which the compressed air reservoir can be filled with compressed air.
A method for manufacturing a reinforced ply comprising an elastomer composition and at least one metallic reinforcing element, wherein said reinforcer is subjected to at least the following successive steps: a. The reinforcer is unwound from storage means on which the reinforcer is wound; b. The reinforcer resulting from the unwinding step is heat treated under temperature and time conditions such that T+13.7.ln(t)>175, where T is the treatment temperature in C° and t is the time for which the reinforcer is kept at the temperature T in seconds; c. The reinforcer resulting from the heat treatment step is fed into a step in which said reinforcer is embedded in an elastomer composition in order to obtain a reinforced ply. a. The reinforcer is unwound from storage means on which the reinforcer is wound; b. The reinforcer resulting from the unwinding step is heat treated under temperature and time conditions such that T+13.7.ln(t)>175, where T is the treatment temperature in C° and t is the time for which the reinforcer is kept at the temperature T in seconds; c. The reinforcer resulting from the heat treatment step is fed into a step in which said reinforcer is embedded in an elastomer composition in order to obtain a reinforced ply.
A light collector configured to collect light emitted by a light source and converting said collected light into a light beam, wherein said light collector comprises: ∘ a central lens part aligned along an optical axis of said light source, wherein said central lens part comprises a central entrance surface and a central exit surface ; a central part of said light emitted by said light source enters said central lens part through said central entrance surface and leaves said central lens part through said central exit surface whereby said central part of said emitted light is converted into a first light beam part ; ∘ a peripheral lens part surrounding at least a part of said central lens part , wherein said peripheral lens part comprises a peripheral entrance surface , a peripheral reflection surface and a peripheral exit surface ; a peripheral part of said light emitted by said light source enters said peripheral lens part through said peripheral entrance surface and is reflected by said peripheral reflection surface before leaving said peripheral lens part through said peripheral exit surface whereby said peripheral part of said emitted light is converted into a second light beam part ; wherein said central lens part comprises an extension part positioned between said central entrance surface and said central exit surface , said extension part protrudes from said peripheral exit surface and elevates said central exit surface a distance above said peripheral exit surface, characterized in that said central lens part is adapted to image said light source a distance along said optical axis and the image of the light source is inscribed by the second light beam part in such a way that the second light beam part fills out missing parts of the image of the light source with respect to the shape of an aperture along said optical axis. ∘ a central lens part aligned along an optical axis of said light source, wherein said central lens part comprises a central entrance surface and a central exit surface ; a central part of said light emitted by said light source enters said central lens part through said central entrance surface and leaves said central lens part through said central exit surface whereby said central part of said emitted light is converted into a first light beam part ; ∘ a peripheral lens part surrounding at least a part of said central lens part , wherein said peripheral lens part comprises a peripheral entrance surface , a peripheral reflection surface and a peripheral exit surface ; a peripheral part of said light emitted by said light source enters said peripheral lens part through said peripheral entrance surface and is reflected by said peripheral reflection surface before leaving said peripheral lens part through said peripheral exit surface whereby said peripheral part of said emitted light is converted into a second light beam part ;
A vision system for a motor vehicle, comprising an imaging apparatus adapted to capture images from a region surrounding the motor vehicle, a data processing device comprising an object detector adapted to detect and classify objects in the vehicle surrounding by processing images captured by said imaging apparatus , and a decision module adapted to estimate a collision probability of a detected object with the motor vehicle, and to make an intervention decision in case the detected object has a non-tolerable collision probability, wherein object candidates are classified by an object classifier contained in the object detector , wherein the decision module is adapted to identify, among all detected objects, a sub-group of critical objects having a high potential of causing an intervention based on collision probability and/or time to collision, wherein the system is characterized in that critical object classifier is connected to the decision module in a feedback loop , and the decision module is adapted to feed information regarding identified critical objects to the critical object classifier for verification, wherein the critical object classifier is adapted to verify the classification of the object detector , and to feed back a result of the verification to the decision module , wherein the critical object classifier uses image data provided by the imaging apparatus for verification processing and has higher classification capabilities than the object classifier in the object detector, wherein the decision module bases an intervention decision regarding a critical object on the feedback provided by the critical object classifier regarding said critical object, wherein the critical object classifier is not involved if the confidence level of a critical object classification by the object detector and classifier exceeds a predefined threshold.
A computer-implemented method , comprising: receiving seismic attributes obtained through seismic inversion of seismic data for a region of interest in a subsurface of the earth ; receiving electrical attributes obtained through an electromagnetic inversion of electromagnetic survey data for the region of interest ; receiving a selection of an isotropic or anisotropic rock physics model for the region of interest, wherein the region of interest is represented by multi-dimensional cells ; calculating values of rock parameters for the selected rock physics model, individually for each of a plurality of the multi-dimensional cells, at least in part by linearizing a nonlinear relation that links cross-properties between the seismic attributes and the electrical attributes for the region of interest ; and determining the presence of hydrocarbon deposits in the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells ; or determining a petrophysical model for the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells . receiving seismic attributes obtained through seismic inversion of seismic data for a region of interest in a subsurface of the earth ; receiving electrical attributes obtained through an electromagnetic inversion of electromagnetic survey data for the region of interest ; receiving a selection of an isotropic or anisotropic rock physics model for the region of interest, wherein the region of interest is represented by multi-dimensional cells ; calculating values of rock parameters for the selected rock physics model, individually for each of a plurality of the multi-dimensional cells, at least in part by linearizing a nonlinear relation that links cross-properties between the seismic attributes and the electrical attributes for the region of interest ; and determining the presence of hydrocarbon deposits in the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells ; or determining a petrophysical model for the region of interest using the calculated values of at least a portion of the plurality of the multi-dimensional cells .
A communication system, comprising: - an analog front end comprising: at least one amplifier for amplifying a received analog signal; and an analog to digital converter that is configured to convert the analog signal to digital samples; - an automatic gain controller comprising: first comparator circuitry that is configured to compare each of the digital samples with an upper threshold and a lower threshold; counter circuitry that is configured to count a high-count number of the digital samples having magnitudes that are greater than the upper threshold during each count window and that is configured to count a low count number of the digital samples having magnitudes that are less than the lower threshold during the count window; and a gain controller that is configured to adjust a gain of the at least one amplifier of the analog front end by an amount based on the high-count number and the low count number; characterized in that the communication system further comprises second comparator circuitry that is configured to compare the high-count number of digital samples with a plurality of high-count thresholds for reducing gain by a corresponding plurality of different gain adjust amounts. - an analog front end comprising: at least one amplifier for amplifying a received analog signal; and an analog to digital converter that is configured to convert the analog signal to digital samples; at least one amplifier for amplifying a received analog signal; and an analog to digital converter that is configured to convert the analog signal to digital samples; - an automatic gain controller comprising: first comparator circuitry that is configured to compare each of the digital samples with an upper threshold and a lower threshold; counter circuitry that is configured to count a high-count number of the digital samples having magnitudes that are greater than the upper threshold during each count window and that is configured to count a low count number of the digital samples having magnitudes that are less than the lower threshold during the count window; and a gain controller that is configured to adjust a gain of the at least one amplifier of the analog front end by an amount based on the high-count number and the low count number; first comparator circuitry that is configured to compare each of the digital samples with an upper threshold and a lower threshold; counter circuitry that is configured to count a high-count number of the digital samples having magnitudes that are greater than the upper threshold during each count window and that is configured to count a low count number of the digital samples having magnitudes that are less than the lower threshold during the count window; and a gain controller that is configured to adjust a gain of the at least one amplifier of the analog front end by an amount based on the high-count number and the low count number;
A blood separation device adapted to receive a blood sample having a first phase and a second phase, the blood separation device comprising: a sample collection module having a housing defining a collection chamber , characterized in that the collection chamber includes an inlet end or inlet and an exit end or exit and defines a plurality of interconnected parallel sequential flow direction alternating collection channels ; an activation module , wherein the activation module comprises a first seal and a second seal for sealing the housing , the first seal transitionable from a closed position in which the collection chamber has a first pressure (P1) to an open position, by actuation of a portion of the activation module , in which the collection chamber is in fluid communication with a second pressure (P2) greater than the first pressure (P1); and a separation module wherein the separation module is in fluid communication with the collection chamber of the sample collection module . a sample collection module having a housing defining a collection chamber , characterized in that the collection chamber includes an inlet end or inlet and an exit end or exit and defines a plurality of interconnected parallel sequential flow direction alternating collection channels ; an activation module , wherein the activation module comprises a first seal and a second seal for sealing the housing , the first seal transitionable from a closed position in which the collection chamber has a first pressure (P1) to an open position, by actuation of a portion of the activation module , in which the collection chamber is in fluid communication with a second pressure (P2) greater than the first pressure (P1); and a separation module wherein the separation module is in fluid communication with the collection chamber of the sample collection module .
A dual-band antenna, comprising a first antenna arranged on a first printed circuit board, PCB, a second antenna arranged on a second PCB , and a reflection panel , wherein an operating frequency band of the first antenna is a first frequency band, an operating frequency band of the second antenna is a second frequency band, and the first frequency band is higher than the second frequency band; the second PCB is disposed between the first PCB and the reflection panel ; the first PCB , the second PCB , and the reflection panel are parallel to each other and characterized in that the reflection panel comprises an artificial magnetic conductor, wherein a resonant frequency band of the artificial magnetic conductor comprises the second frequency band, and the first frequency band is outside the resonant frequency band.
A tank unit into which liquid supplied from a closed containing chamber of a liquid container is configured to flow and out of which the liquid is configured to flow toward a liquid ejecting head configured to eject the liquid, the tank unit comprising: a first inlet portion via which the liquid supplied from the liquid container flows in; a first chamber configured to store the liquid that flows in via the first inlet portion; a first opening-to-atmosphere portion configured to open an inside of the first chamber to atmosphere; an outlet flow passage to which one end is connected to the first chamber; a second chamber connected to an other end of the outlet flow passage and configured to store the liquid supplied from the first chamber; a second opening-to-atmosphere portion configured to open an inside of the second chamber to atmosphere; and an on-off valve configured to open and close the outlet flow passage, wherein the first inlet portion is connected to the first chamber via an opening portion at some midpoint in a vertical direction of the first chamber, and the opening portion is oriented downward. a first inlet portion via which the liquid supplied from the liquid container flows in; a first chamber configured to store the liquid that flows in via the first inlet portion; a first opening-to-atmosphere portion configured to open an inside of the first chamber to atmosphere; an outlet flow passage to which one end is connected to the first chamber; a second chamber connected to an other end of the outlet flow passage and configured to store the liquid supplied from the first chamber; a second opening-to-atmosphere portion configured to open an inside of the second chamber to atmosphere; and an on-off valve configured to open and close the outlet flow passage, wherein the first inlet portion is connected to the first chamber via an opening portion at some midpoint in a vertical direction of the first chamber, and the opening portion is oriented downward.
A system including a work machine , comprising: the work machine , which has a body of the work machine and a work implement attached to the body of the work machine; and a computer , wherein the computer includes a posture data generation unit configured to estimate a posture of the work implement with respect to the body of the work machine in a captured image displaying the work machine , a motion state image generation unit configured to create a three-dimensional model representing a stereoscopic shape of the work machine based on the posture, and a specific viewpoint image generation unit configured to create image data including a two-dimensional image of the three-dimensional model as viewed at a viewpoint position indicating a position of a viewpoint at which the three-dimensional model is virtually viewed, wherein the viewpoint position is set at a position allowing the work implement to be generally viewed. the work machine , which has a body of the work machine and a work implement attached to the body of the work machine; and a computer , wherein the computer includes a posture data generation unit configured to estimate a posture of the work implement with respect to the body of the work machine in a captured image displaying the work machine , a motion state image generation unit configured to create a three-dimensional model representing a stereoscopic shape of the work machine based on the posture, and a specific viewpoint image generation unit configured to create image data including a two-dimensional image of the three-dimensional model as viewed at a viewpoint position indicating a position of a viewpoint at which the three-dimensional model is virtually viewed, wherein the viewpoint position is set at a position allowing the work implement to be generally viewed.
A numbering printer for printing a security document with a character sequence , in particular for printing banknotes and/or securities, comprising a plurality of, but at least three, daisywheels arranged adjacent to each other, each of the daisywheels having printing surfaces spaced apart from each other in the circumferential direction, wherein engravings are arranged on the printing surfaces for producing a character, the engravings being positioned such that the characters of the character sequence are printable below each other onto the security document, and the positioning of the engravings on the printing surfaces differs for at least two of the daisywheels , so that the character sequence is printable on the security document in a manner which is different from a linear alignment, wherein in each of the daisywheels the engravings are positioned on the printing surfaces such that the course of the character sequence has a defined geometry and extends in a curve-like manner, characterized in that the course of the character sequence corresponds to a sinus or cosinus function which is rotated by 90°.
A method for refining a provided construction plate made of a wood-based material, in particular MDF, HDF or a wood-based material/plastic mix with an upper side and a lower side , wherein a relief is embossed at least into the upper side , said relief being composed of at least a first strip-shaped depression extending in a longitudinal direction (L) and/or in a transverse direction (Q) with a depth (T), the depression being embossed to the depth (T) of at least 0.5mm by means of at least one calendar roller , the calendar roller comprising structural elements that correspond to the desired relief, characterised in that , in order to create the relief, the construction plate is heated to a temperature of 80 to 100°C and the depression is subsequently embossed, wherein the at least one calendar roller is heated to a temperature of 100 to maximum 150°C
An additive material for an electrode (1; 2) of an electrochemical cell, containing electrically conductive additive particles composed of carbon, characterized in that the carbon additive particles have an average particle diameter in the range of 1 to 20 μm and contain mesopores and macropores, said mesopores and macropores form a three-dimensional pore structure of interconnected pores, wherein for pores with a pore diameter of 10 to 1000 nm the cumulative pore volume is more than 0.2 cm 3 /g.
A rotorcraft comprising: tail rotor blades ; a tail rotor actuator coupled to the tail rotor blades such that the pitch of the tail rotor blades varies according to a current extension of the tail rotor actuator ; pilot flight controls electrically coupled to the tail rotor actuator such that the current extension of the tail rotor actuator varies according to input from the pilot flight controls; and a flight control computer electrically coupled to the tail rotor actuator and the pilot flight controls, the flight control computer configured to: generate a control signal to change the current extension of the tail rotor actuator independent of the input from the pilot flight controls; determine the current extension of the tail rotor actuator in response to the control signal being generated; determine whether the current extension of the tail rotor actuator is within a margin of a maximum extension of the tail rotor actuator; and indicate a first warning to a pilot in response to the current extension of the tail rotor actuator being within the margin of the maximum extension of the tail rotor actuator. tail rotor blades ; a tail rotor actuator coupled to the tail rotor blades such that the pitch of the tail rotor blades varies according to a current extension of the tail rotor actuator ; pilot flight controls electrically coupled to the tail rotor actuator such that the current extension of the tail rotor actuator varies according to input from the pilot flight controls; and a flight control computer electrically coupled to the tail rotor actuator and the pilot flight controls, the flight control computer configured to: generate a control signal to change the current extension of the tail rotor actuator independent of the input from the pilot flight controls; determine the current extension of the tail rotor actuator in response to the control signal being generated; determine whether the current extension of the tail rotor actuator is within a margin of a maximum extension of the tail rotor actuator; and indicate a first warning to a pilot in response to the current extension of the tail rotor actuator being within the margin of the maximum extension of the tail rotor actuator. generate a control signal to change the current extension of the tail rotor actuator independent of the input from the pilot flight controls; determine the current extension of the tail rotor actuator in response to the control signal being generated; determine whether the current extension of the tail rotor actuator is within a margin of a maximum extension of the tail rotor actuator; and indicate a first warning to a pilot in response to the current extension of the tail rotor actuator being within the margin of the maximum extension of the tail rotor actuator.