mhurhangee/ep-ind-claims huggingface dataset:
A web manufacturing system comprising: a frame comprising multiple separate supports (202a-202b) and multiple flexible rails (206a-206b, 208a-208b), each support configured to be secured in a position apart from another support, each flexible rail configured to be coupled to the supports and placed under tension; and a sensor head (204a, 204b) configured to be mounted on or to the rails and to move back and forth along the rails, the sensor head being substantially self-contained and comprising a motor configured to receive operating power over the rails as the sensor head moves back and forth along the rails, the motor configured to move the sensor head back and forth along the rails using the operating power, the frame comprises a tensioned member (210a, 210b) configured to be coupled to the supports and the sensor head is configured to move back and forth using the tensioned member, the tensioned member passes across the frame a single time and is secured at opposite ends to the supports. a frame comprising multiple separate supports (202a-202b) and multiple flexible rails (206a-206b, 208a-208b), each support configured to be secured in a position apart from another support, each flexible rail configured to be coupled to the supports and placed under tension; and a sensor head (204a, 204b) configured to be mounted on or to the rails and to move back and forth along the rails, the sensor head being substantially self-contained and comprising a motor configured to receive operating power over the rails as the sensor head moves back and forth along the rails, the motor configured to move the sensor head back and forth along the rails using the operating power, the frame comprises a tensioned member (210a, 210b) configured to be coupled to the supports and the sensor head is configured to move back and forth using the tensioned member, the tensioned member passes across the frame a single time and is secured at opposite ends to the supports.
A personal monitoring apparatus, comprising: an earpiece module housing configured to be attached to an ear of a person; an optical emitter (624, 724), optical detector (625, 725), and acoustical sensor (402, 403, 404, 501, 502, 601, 602) supported by the housing, wherein the optical emitter (624, 724) is configured to direct optical energy towards the tympanic membrane through the ear canal, wherein the optical detector (625, 725) is configured to detect secondary optical energy emanating from the tympanic membrane, wherein the acoustical sensor (402, 403, 404, 501, 502, 601, 602) is configured to detect acoustical energy emanating from the ear canal; at least one environmental sensor supported by the housing, wherein each environmental sensor is configured to detect and/or measure environmental conditions in a vicinity of the person; a signal processor (103, 405) supported by the housing and configured to receive and process signals produced by the optical detector (625, 725), acoustical sensor (402, 403, 404, 501, 502, 601, 602), and at least one environmental sensor wherein the signal processor (103, 405) is configured to process time-synchronized signals produced by the optical detector (625, 725), acoustical sensor (402, 403, 404, 501, 502, 601, 602), and at least one environmental sensor and selectively remove unwanted signals to produce a final processed signal containing cleaner physiological information from the person; and a transmitter responsive to the signal processor (103, 405) that is configured to transmit the final processed signal to a remote terminal. an earpiece module housing configured to be attached to an ear of a person; an optical emitter (624, 724), optical detector (625, 725), and acoustical sensor (402, 403, 404, 501, 502, 601, 602) supported by the housing, wherein the optical emitter (624, 724) is configured to direct optical energy towards the tympanic membrane through the ear canal, wherein the optical detector (625, 725) is configured to detect secondary optical energy emanating from the tympanic membrane, wherein the acoustical sensor (402, 403, 404, 501, 502, 601, 602) is configured to detect acoustical energy emanating from the ear canal; at least one environmental sensor supported by the housing, wherein each environmental sensor is configured to detect and/or measure environmental conditions in a vicinity of the person; a signal processor (103, 405) supported by the housing and configured to receive and process signals produced by the optical detector (625, 725), acoustical sensor (402, 403, 404, 501, 502, 601, 602), and at least one environmental sensor wherein the signal processor (103, 405) is configured to process time-synchronized signals produced by the optical detector (625, 725), acoustical sensor (402, 403, 404, 501, 502, 601, 602), and at least one environmental sensor and selectively remove unwanted signals to produce a final processed signal containing cleaner physiological information from the person; and a transmitter responsive to the signal processor (103, 405) that is configured to transmit the final processed signal to a remote terminal.
A balloon for a balloon catheter, the balloon comprising an inflatable, single-layer balloon envelope, which surrounds an interior and is dilatable by filling the interior with a fluid, wherein the balloon envelope consists of polyamide 6.12 or comprises polyamide 6.12, characterized in that the balloon envelope has a ratio of the thickness of the balloon envelope to the nominal balloon diameter in the range from 5.0 μm/mm to 7.5 μm/mm.
A method for controlling pressure in a micro- or mesofluidic channel by means of a first and at least a second valve, wherein the first valve has a first adjustable valve opening degree and at least the second valve has at least a second adjustable valve opening degree, comprising the steps: - control of the first valve to adjust the first valve opening degree, - control of at least the second valve to adjust at least the second valve opening degree, and is characterised in that the control of one of the valves (10, 20) is automated and dependent on the control of another valve (10, 20), wherein the dependence of the control of one of the valves (10, 20) on the control of the other valve (10, 20) comprises coupling of the control of one of the valves (10, 20) and the control of the other valve (10, 20), i.e. closing of one of the valves and opening of the other valve when the pressure is too high and opening of one of the valves and closing of the other valve when the pressure is too low, wherein the pressure is controlled by PID control or PD control or PI control or P control and a pressure sensor is adjusted to measure pressure between valves (10, 20), wherein one of the valves (10, 20) is connected to positive and another valve to negative pressure, wherein between one of the valves and the other valve there is a section, with which a micro-or mesofluidic channel is in pneumatic or hydraulic connection. - control of the first valve to adjust the first valve opening degree, - control of at least the second valve to adjust at least the second valve opening degree, and is characterised in that the control of one of the valves (10, 20) is automated and dependent on the control of another valve (10, 20), wherein the dependence of the control of one of the valves (10, 20) on the control of the other valve (10, 20) comprises coupling of the control of one of the valves (10, 20) and the control of the other valve (10, 20),
Air filter element, in particular round filter element, for being used in an intake section of an internal combustion engine, with an annularly closed filter medium body designed as folded filter and the wall of which can be flowed through in the radial direction by the fluid to be cleaned relative to the longitudinal axis of the filter medium body, wherein the filter medium body features a longitudinally extended cross-sectional shape with two mutually opposite narrow sides and two mutually opposite long sides connecting the narrow sides, wherein the cross-sectional area of the filter medium body tapers from one front face to the opposite front face and the filter medium body features a radially inwardly directed constriction in the region of the tapered front face on each of its two longitudinal sides, wherein the two long sides of the filter medium body are designed without or at least approximately without radial constriction in the region of the opposite, larger front face, characterized in that the filter medium body features a cross-sectional shape with semicircular narrow sides and straight long sides, wherein the long sides feature the radially inwardly directed concave constriction in the region of the tapered front face of the filter medium body.
A capsule for delivery of a secreted biologically active compound to a subject, the capsule comprising a. a biocompatible outer membrane and an inner core, b. said inner core comprising human monoclonal, contact inhibited cells, c. said cells comprising a heterologous expression construct comprising a structural gene either i. coding for a secreted biologically active polypeptide or, ii. coding for a polypeptide or a siRNA contributing to the generation in the cells of a biologically active secreted compound, d. said gene being located between two inverted repeats which are substrates for a Sleeping Beauty transposase, and said gene being inserted into the genome of the cells using a Sleeping Beauty transposase. a. a biocompatible outer membrane and an inner core, b. said inner core comprising human monoclonal, contact inhibited cells, c. said cells comprising a heterologous expression construct comprising a structural gene either i. coding for a secreted biologically active polypeptide or, ii. coding for a polypeptide or a siRNA contributing to the generation in the cells of a biologically active secreted compound, i. coding for a secreted biologically active polypeptide or, ii. coding for a polypeptide or a siRNA contributing to the generation in the cells of a biologically active secreted compound, d. said gene being located between two inverted repeats which are substrates for a Sleeping Beauty transposase, and said gene being inserted into the genome of the cells using a Sleeping Beauty transposase.
Mobile support usable for executing at least one installation operation of a mobile device adapted to execute land maintenance operations, wherein said mobile support comprises: - at least one gripping portion configured to allow an operator to grip and/or push or drag said mobile support, - movement means configured to allow an advancement of said mobile support keeping in contact with the ground, and - at least one constraining portion configured to carry an antenna module, characterized b y further comprising means for defining and/or simulating at least one encumbrance, said means for defining and/or simulating being configured to define and/or simulate at least one encumbrance related to the encumbrance of said mobile device and/or related to the encumbrance of at least one payload of said mobile device. - at least one gripping portion configured to allow an operator to grip and/or push or drag said mobile support, - movement means configured to allow an advancement of said mobile support keeping in contact with the ground, and - at least one constraining portion configured to carry an antenna module,
Ultrasonic sensor arrangement for a motor vehicle, comprising a trim part and an ultrasonic sensor, which comprises a pot-shaped membrane for emitting and/or receiving ultrasonic signals, and comprising a stiffening element arranged around the membrane and having a passage opening, through which the membrane extends, wherein the ultrasonic sensor and the stiffening element are arranged on a rear side of the trim part so that the ultrasonic sensor is configured for emitting and/or receiving the ultrasonic signals through the trim part, characterized in that between the rear side of the trim part and a front side of the stiffening element, which faces the trim part, a plate-shaped intermediate element made of metal is arranged, which contacts the rear side of the trim part, on the one hand, and the front side of the stiffening element, on the other hand, and is formed from a different material than the stiffening element and the trim part, wherein the material of the intermediate element has a longitudinal expansion coefficient, which lies between the coefficients of the respective materials of the stiffening element and the trim part, wherein the intermediate element is glued together with the rear side of the trim part, on the one hand, and with the front side of the stiffening element, on the other hand.
A microtome chuck comprising: a mounting portion having a mating surface operable to removably attach the mounting portion to a sample sectioning device, and an electrical contact operable to electrically connect the mounting portion to a power source; a sample receiving portion coupled to the mounting portion, the sample receiving portion having a sample receiving surface dimensioned to receive a sample, being a biological sample contained within a carrier, the sample receiving surface having a cavity open to receiving surface, and formed by a sidewall and a bottom wall which are formed behind the sample receiving surface; a light source coupled to the sample receiving portion and positioned in the cavity such that the light source is positioned between the bottom wall of the cavity and the sample (314, 316) when the sample is in use positioned along the sample receiving surface, the light source operable to emit a light from the sample receiving surface directly through the sample (314, 316) when positioned along the sample receiving surface; and circuitry electrically connecting the light source to the electrical contact of the mounting portion. a mounting portion having a mating surface operable to removably attach the mounting portion to a sample sectioning device, and an electrical contact operable to electrically connect the mounting portion to a power source; a sample receiving portion coupled to the mounting portion, the sample receiving portion having a sample receiving surface dimensioned to receive a sample, being a biological sample contained within a carrier, the sample receiving surface having a cavity open to receiving surface, and formed by a sidewall and a bottom wall which are formed behind the sample receiving surface; a light source coupled to the sample receiving portion and positioned in the cavity such that the light source is positioned between the bottom wall of the cavity and the sample (314, 316) when the sample is in use positioned along the sample receiving surface, the light source operable to emit a light from the sample receiving surface directly through the sample (314, 316) when positioned along the sample receiving surface; and circuitry electrically connecting the light source to the electrical contact of the mounting portion.
Electronic system for a fluid property sensor being a urea sensor for installation in a urea tank of a vehicle, comprising: a printed circuit board for analyzing a property of a fluid and a connector for connecting the fluid property sensor and a separate intermediate printed circuit board electrically connected between the printed circuit board and the connector; characterized in that the intermediate printed circuit board comprises circuit protection components, comprising one or more electrostatic discharge protection and/or one or more overvoltage and/or one or more filter circuits. a printed circuit board for analyzing a property of a fluid and a connector for connecting the fluid property sensor and a separate intermediate printed circuit board electrically connected between the printed circuit board and the connector; characterized in that the intermediate printed circuit board comprises circuit protection components, comprising one or more electrostatic discharge protection and/or one or more overvoltage and/or one or more filter circuits.
A rotatable reduced pressure adapter for connecting a reduced pressure source to a porous pad, the adapter comprising: a perimeter ring configured to come in contact with the base of the reduced pressure adapter or with the wound dressing itself; a first insert ring within the perimeter ring; an o-ring within the first insert ring; a swivelable second insert ring within the o-ring; and a housing covering the second insert ring. a perimeter ring configured to come in contact with the base of the reduced pressure adapter or with the wound dressing itself; a first insert ring within the perimeter ring; an o-ring within the first insert ring; a swivelable second insert ring within the o-ring; and a housing covering the second insert ring.
Closure of a driving rod fitting of a casement of a window, a French window or the like which may be pivoted against a frame, with a longitudinally-displaceable driving rod with a locking element which is drivable by the longitudinally-displaceable driving rod, with a counter bearing lying opposite the locking element in the protruding position, wherein the locking element is designed to be fastened to the frame or the casement and the counter bearing to the respective component lying opposite, wherein a hook is arranged on the frame to engage behind a protrusion on the casement in the closed state of the window, characterized in that the locking element may be pivoted from a recessed position to a protruding position about a pivot axis arranged parallel to the intended sliding direction of the driving rod, wherein an overlap region of hook and protrusion is greater than the clearance of the locking element in the protruding position in the direction of the drive rod in the direction opposite the counter bearing, so that, upon an attempt to lift, the hook is supported by the counter bearing in the longitudinal direction of the drive rod.
A composite metal oxide which is represented by Formula and has an α-NaFeO 2 type crystal structure, wherein a peak half value width of a plane to be measured by powder X-ray diffraction is 0.250° or less at 2θ Na x M 1 r (Fe y Ni z Mn w M 1-y-z-w)O 2±δ... wherein, in Formula, M represents any one or more elements selected from the group consisting of B, Si, V, Ti, Co, Mo, Pd, Re, Pb, and Bi, M 1 represents any one or more elements selected from the group consisting of Mg and Ca, and relations 0 <_ r ≤ 0.1, 0.5 ≤ x ≤ 1.0, 0.1 ≤ y ≤ 0.5, 0 < z < 0.4, 0 < w < 0.4, 0 < δ < 0.05, and y + z + w ≤ 1 are satisfied. wherein a peak half value width of a plane to be measured by powder X-ray diffraction is 0.250° or less at 2θ Na x M 1 r (Fe y Ni z Mn w M 1-y-z-w)O 2±δ... wherein, in Formula, M represents any one or more elements selected from the group consisting of B, Si, V, Ti, Co, Mo, Pd, Re, Pb, and Bi, M 1 represents any one or more elements selected from the group consisting of Mg and Ca, and relations 0 <_ r ≤ 0.1, 0.5 ≤ x ≤ 1.0, 0.1 ≤ y ≤ 0.5, 0 < z < 0.4, 0 < w < 0.4, 0 < δ < 0.05, and y + z + w ≤ 1 are satisfied.
A method, comprising: intercepting, at a firewall, a network flow from a source node; characterized by when the firewall is unable to retrieve metadata for the network flow, sending a discovery redirect to the source node to update a firewall cache to identify the firewall; receiving the metadata associated with the network flow at the firewall; and correlating, at the firewall, the metadata with the network flow to apply a network policy to the network flow. intercepting, at a firewall, a network flow from a source node; characterized by when the firewall is unable to retrieve metadata for the network flow, sending a discovery redirect to the source node to update a firewall cache to identify the firewall; receiving the metadata associated with the network flow at the firewall; and correlating, at the firewall, the metadata with the network flow to apply a network policy to the network flow.
A flight control system that is adapted for controlling movements of a rotary wing aircraft, comprising: sensors that are configured to generate sensor data based on captured motions of the rotary wing aircraft; motion actuators that are adapted for inducing a translational and/or a rotational movement of the rotary wing aircraft about at least one of a yaw axis, a roll axis, or a pitch axis; and a passenger discomfort-aware control unit that is configured to receive the sensor data from the sensors and to generate, based on the sensor data, passenger discomfort-aware actuator control signals for controlling the motion actuators of the rotary wing aircraft, wherein the passenger discomfort-aware actuator control signals are at least suitable for kinetosis reduction or for whole-body vibration reduction in passengers of the rotary-wing aircraft when being applied to the motion actuators, wherein the passenger discomfort-aware control unit generates the passenger discomfort-aware actuator control signals based on a linear feedback function that minimizes a transfer from the sensor data to control signals that increase a difference of a passenger discomfort index from a reference value, wherein the reference value is indicative of an absence of passenger discomfort, and wherein the linear feedback function is determined with a feedback controller that is adjusted based on an application of a predetermined filter signal in a passenger discomfort weighting filter. sensors that are configured to generate sensor data based on captured motions of the rotary wing aircraft; motion actuators that are adapted for inducing a translational and/or a rotational movement of the rotary wing aircraft about at least one of a yaw axis, a roll axis, or a pitch axis; and a passenger discomfort-aware control unit that is configured to receive the sensor data from the sensors and to generate, based on the sensor data, passenger discomfort-aware actuator control signals for controlling the motion actuators of the rotary wing aircraft, wherein the passenger discomfort-aware actuator control signals are at least suitable for kinetosis reduction or for whole-body vibration reduction in passengers of the rotary-wing aircraft when being applied to the motion actuators, wherein the passenger discomfort-aware control unit generates the passenger discomfort-aware actuator control signals based on a linear feedback function that minimizes a transfer from the sensor data to control signals that increase a difference of a passenger discomfort index from a reference value, wherein the reference value is indicative of an absence of passenger discomfort, and wherein the linear feedback function is determined with a feedback controller that is adjusted based on an application of a predetermined filter signal in a passenger discomfort weighting filter.