mhurhangee/ep-ind-claims huggingface dataset:
A method of transferring electronic information between a lesser trusted network and a trusted network comprising: receiving original electronic information to be transferred from a lesser trusted network in a first electrical zone; permitting the original electronic information to be transferred between the first electrical zone and a second electrical zone in one direction only; verifying the original electronic information content against at least one predetermined characteristic within the second electrical zone so as to provide a verifier output status and verified electronic information; forwarding the verified electronic information to a third electrical zone, wherein the original electronic information at the first electrical zone is always received by the third electrical zone via the second electrical zone 4 as verified electronic information in either a transformed state or an untransformed state, the method being characterised by providing a time delay algorithm to the original electronic information received by the first electrical zone the time delay algorithm being configured to predict the state of the second electrical zone in dependence upon the compute for verifying the original electronic information at the second electrical zone and being configured to provide a time delay to the original electronic information at the first electrical zone. receiving original electronic information to be transferred from a lesser trusted network in a first electrical zone; permitting the original electronic information to be transferred between the first electrical zone and a second electrical zone in one direction only; verifying the original electronic information content against at least one predetermined characteristic within the second electrical zone so as to provide a verifier output status and verified electronic information; forwarding the verified electronic information to a third electrical zone, wherein the original electronic information at the first electrical zone is always received by the third electrical zone via the second electrical zone 4 as verified electronic information in either a transformed state or an untransformed state, the method being characterised by providing a time delay algorithm to the original electronic information received by the first electrical zone the time delay algorithm being configured to predict the state of the second electrical zone in dependence upon the compute for verifying the original electronic information at the second electrical zone and being configured to provide a time delay to the original electronic information at the first electrical zone.
Method for determining estimated real dimensions of an elevator car, the method comprising following steps: (a) acquiring a virtual 2-dimensional map of the elevator car based on data provided by a lidar sensor, the virtual 2-dimensional map representing reflection surfaces from which laser light emitted by the lidar sensor is reflected, (b) defining a starting area as a rectangular area at a position located within the real dimensions of the elevator car, (c) successively extending the rectangular area by one pixel in each of four extension directions orthogonal to edges of the rectangular area, including, in case any pixel in one of the extension directions corresponds to one of the reflection surfaces indicated in the virtual 2-dimensional map, stopping extending the rectangular area in this extension direction and successively extending the rectangular area by one pixel only in each of the remaining extension directions, until having fully extended the rectangular area to a maximum in each of the extension directions, and (d) determining the fully extended rectangular area as the estimated real dimensions of the elevator car. (a) acquiring a virtual 2-dimensional map of the elevator car based on data provided by a lidar sensor, the virtual 2-dimensional map representing reflection surfaces from which laser light emitted by the lidar sensor is reflected, (b) defining a starting area as a rectangular area at a position located within the real dimensions of the elevator car, (c) successively extending the rectangular area by one pixel in each of four extension directions orthogonal to edges of the rectangular area, including, in case any pixel in one of the extension directions corresponds to one of the reflection surfaces indicated in the virtual 2-dimensional map, stopping extending the rectangular area in this extension direction and successively extending the rectangular area by one pixel only in each of the remaining extension directions, until having fully extended the rectangular area to a maximum in each of the extension directions, and (d) determining the fully extended rectangular area as the estimated real dimensions of the elevator car.
Coupling device for a motor vehicle as part of a trailer coupling or a coupling system for a load carrier, with a holder and a coupling arm movably mounted on or releasably attachable to the holder, and with a fixing device for fixing the coupling arm to the holder, wherein the coupling arm is fixed with reference to the holder movably in a release position of the fixing device and immovably in a fixing position on the holder, wherein the fixing device has a first actuating element actuable along a first positioning path, in particular a locking pin, for actuating a first fixing contour out of the release position into the fixing position in which the first fixing contour abuts a first counter-bearing contour, wherein the fixing device has a second actuating element actuable along a second positioning path to actuate a second fixing contour out of the release position into the fixing position in which the second fixing contour abuts a second counter-bearing contour, wherein the actuating elements are movably mounted relative to one another for a change in relative distance from one another and are supported on one another, characterised in that the first counter-bearing contour and the second counter-bearing contour are provided directly on the coupling arm or on a body rigidly connected to the coupling arm or directly on the holder or on a body rigidly connected to the holder.
Nozzle beam for a fluid-jet treatment device, in particular a hydro-jet entanglement device, wherein the nozzle jet has a hollow housing having a housing jacket and a jacket opening, and a nozzle strip that is disposed in the housing, characterized in that the nozzle strip has a trough-shaped cross section and a nozzle body which is disposed so as to be recessed in the jacket opening.
An image processing method, comprising: arranging an imager including an imaging optical system with respect to a carrier carrying cells; changing a set position of a focus position of the imaging optical system in an optical axis direction of the imaging optical system in a multi-stage manner and imaging the cells in a bright field in each stage to obtain a plurality of original images; calculating a contrast value of each of the original images imaged in each stage; and generating a difference image of two of the original images imaged at two set positions at opposite sides of a local minimum value of the contrast value in a profile of the contrast value in relation to the set position, wherein the method further comprises finding one set position corresponding to the local minimum value in the profile, wherein a difference image of two original images respectively imaged at two set positions at opposite sides of the one set position respectively different from the one set position by a predetermined offset amount is generated, characterized in that information in which a plurality of types of cells and offset amounts corresponding to the cell types are associated is prepared in advance and the offset amount corresponding to the cell type is set based on the information. arranging an imager including an imaging optical system with respect to a carrier carrying cells; changing a set position of a focus position of the imaging optical system in an optical axis direction of the imaging optical system in a multi-stage manner and imaging the cells in a bright field in each stage to obtain a plurality of original images; calculating a contrast value of each of the original images imaged in each stage; and generating a difference image of two of the original images imaged at two set positions at opposite sides of a local minimum value of the contrast value in a profile of the contrast value in relation to the set position, wherein the method further comprises finding one set position corresponding to the local minimum value in the profile, wherein a difference image of two original images respectively imaged at two set positions at opposite sides of the one set position respectively different from the one set position by a predetermined offset amount is generated, characterized in that information in which a plurality of types of cells and offset amounts corresponding to the cell types are associated is prepared in advance and the offset amount corresponding to the cell type is set based on the information.
A method of notifying resource allocation for Demodulation Reference Signal, DMRS, comprising: notifying, by a base station, to a user equipment a power offset value between an average EPRE value for data symbols and an average EPRE value for the DMRS at each layer in a semi-static or static manner; calculating, by a base station, an offset parameter ΔR based on ΔR = 101og f (dB), where f is a ratio between a total number of resource elements, RE, occupied by all DMRSs within a bandwidth allocated for the user equipment and a total number of resource elements RE occupied by the DMRS at each layer; obtaining, by a base station, an EPRE for the DMRS at each layer by obtaining a sum of the power offset value, the offset parameter ΔR, and the average EPRE value of the downlink data symbols at each layer; notifying, by the base station, to the user equipment an index number for a current channel rank and a current DMRS distribution pattern for the user equipment dynamically; and determining, by the user equipment, an allocated DMRS antenna port based on a correspondence between the received index number and an allocation of DMRS antenna port, thereby obtaining resource allocation information for the DMRS. notifying, by a base station, to a user equipment a power offset value between an average EPRE value for data symbols and an average EPRE value for the DMRS at each layer in a semi-static or static manner; calculating, by a base station, an offset parameter ΔR based on ΔR = 101og f (dB), where f is a ratio between a total number of resource elements, RE, occupied by all DMRSs within a bandwidth allocated for the user equipment and a total number of resource elements RE occupied by the DMRS at each layer; obtaining, by a base station, an EPRE for the DMRS at each layer by obtaining a sum of the power offset value, the offset parameter ΔR, and the average EPRE value of the downlink data symbols at each layer; notifying, by the base station, to the user equipment an index number for a current channel rank and a current DMRS distribution pattern for the user equipment dynamically; and determining, by the user equipment, an allocated DMRS antenna port based on a correspondence between the received index number and an allocation of DMRS antenna port, thereby obtaining resource allocation information for the DMRS.
A fast-steering, deformable mirror system comprising: a base a deformable mirror assembly comprising a reflective surface and a plurality of deformation actuators configured to controllably deform the reflective surface, wherein the deformable mirror assembly is mounted to the base such that the deformable mirror assembly is movable as a unit with respect to the base with at least two degrees of freedom; a mirror steering assembly, configured to actuate the deformable mirror assembly as a unit with respect to the base; and an electrical mirror interface physically connected to each of the base and the deformable mirror assembly, the electrical mirror interface being configured to convey control signals from a drive circuit to the deformable mirror assembly that drive the deformation actuators, the electrical mirror interface being formed in part from an elastically resilient polymer material characterised in that the electrical mirror interface provides a bias to the deformable mirror assembly, biasing the deformable mirror assembly toward a default position. a base a deformable mirror assembly comprising a reflective surface and a plurality of deformation actuators configured to controllably deform the reflective surface, wherein the deformable mirror assembly is mounted to the base such that the deformable mirror assembly is movable as a unit with respect to the base with at least two degrees of freedom; a mirror steering assembly, configured to actuate the deformable mirror assembly as a unit with respect to the base; and an electrical mirror interface physically connected to each of the base and the deformable mirror assembly, the electrical mirror interface being configured to convey control signals from a drive circuit to the deformable mirror assembly that drive the deformation actuators, the electrical mirror interface being formed in part from an elastically resilient polymer material characterised in that the electrical mirror interface provides a bias to the deformable mirror assembly, biasing the deformable mirror assembly toward a default position.
An ejector pin (5, 5', 5") for ejecting moulded parts from a casting tool, comprising: a shaft, and a head formed thereon, the head being shaped such that the ejector pin (5, 5', 5") can be mounted in a complementary support plate in one unique installation position only, the head, when viewed in the longitudinal direction of the shaft, having at least two opposing straight circumferential sections which serve to prevent rotation when the ejector pin (5, 5', 5") is mounted in a complementary support plate, wherein the head comprises, at its lower side, a bearing surface for bearing against the support plate and, at an upper subsection of its circumferential surface, a contact surface for contacting a complementary recess in the support plate, characterized in that the head comprises, at a lower section of its circumferential surface, a slope for pre-centring, wherein the slope is formed circumferentially around the head and adjacent to the bearing surface, and the slope is at an angle of 3 to 10 degrees to the longitudinal axis of the shaft. a shaft, and a head formed thereon, the head being shaped such that the ejector pin (5, 5', 5") can be mounted in a complementary support plate in one unique installation position only, the head, when viewed in the longitudinal direction of the shaft, having at least two opposing straight circumferential sections which serve to prevent rotation when the ejector pin (5, 5', 5") is mounted in a complementary support plate, wherein the head comprises, at its lower side, a bearing surface for bearing against the support plate and, at an upper subsection of its circumferential surface, a contact surface for contacting a complementary recess in the support plate, characterized in that
Method for detecting malfunctions in inertial measurement units (4, 5, 6) used in a vehicle for measuring angular velocities (ω A, ω B, ω C) and specific forces (f A, f B, f C), wherein at least three inertial measurement units (4, 5, 6) are used, each having multiple sensors, comprising accelerometers and gyroscopic sensors, wherein a first inertial measurement unit is used as the master inertial measurement unit, and wherein a second inertial measurement unit and a third inertial measurement unit, the performance capabilities of which may be lower than those of the first inertial measurement unit, are used as slave inertial measurement units, wherein measurements of the master inertial measurement unit are used as reference values in order to compensate measurements of the slave inertial measurement units (5, 6) by estimation of error model parameters compared with the master inertial measurement unit, in order to detect a malfunction in one of the three sensor signals on the basis of the respective three corresponding sensor signals by way of 2-out-of-3 comparison, wherein that one of the three inertial measurement units (4, 5, 6) whose sensor signal is at a distance from the median (M, D) of the three sensor signals that exceeds a threshold value is detected as faulty, wherein a malfunction of the master inertial measurement unit leads to a changeover to the signals of one of the still functioning slave inertial measurement units (5, 6) in consideration of a previously calculated precompensation, wherein the slave inertial measurement units (5, 6) are precompensated using a master-slave configuration, wherein time delays are applied to estimated sensor outputs (f B_estimated, f C_estimated), wherein if an error of the first inertial measurement unit is detected within the time delay, the estimated sensor errors of the slave inertial measurement units (5, 6) are frozen to the values at the output of the time delay.
A teleoperational surgical system comprising: a manipulator (104, 140, 512) configured to be operatively coupled to a medical instrument, the manipulator adapted to control movement of the medical instrument through a cannula component; and a control system communicatively coupled with the manipulator, wherein the control system is operative to determine an insertion profile associated with at least one of the medical instrument and the cannula component, wherein the insertion profile corresponds to an insertion force that varies along a length of the cannula component, and wherein the control system is configured to modulate the insertion force in accordance with the insertion profile and affect motion of the medical instrument during manual insertion of the medical instrument through the cannula component. a manipulator (104, 140, 512) configured to be operatively coupled to a medical instrument, the manipulator adapted to control movement of the medical instrument through a cannula component; and a control system communicatively coupled with the manipulator, wherein the control system is operative to determine an insertion profile associated with at least one of the medical instrument and the cannula component, wherein the insertion profile corresponds to an insertion force that varies along a length of the cannula component, and wherein the control system is configured to modulate the insertion force in accordance with the insertion profile and affect motion of the medical instrument during manual insertion of the medical instrument through the cannula component.
A manipulation device for laparoscopy, comprising: an insertion portion (2110,8210) having a sharp distal end capable of piercing through bodily tissues and a proximal end, wherein said insertion portion is rigid; a handleld operation (2120,8220) portion having a communication unit (2140,8240) for communicating with an external device; a contact element (2130,8230) for facilitating direct communication to a vision head member 3100,8100 of a visual device; wherein said handheld operation portion is arranged at said proximal end of said insertion portion, characterized in that, said contact element is disposed inside the handheld operation portion and said insertion portion has a lumen, wherein said lumen extends axially at least partially about a length of said insertion portion and an opening arranged at said distal end of said insertion portion for slidably positioning an elongated connector of said visual device inside said lumen of said insertion portion for contacting said contact element. an insertion portion (2110,8210) having a sharp distal end capable of piercing through bodily tissues and a proximal end, wherein said insertion portion is rigid; a handleld operation (2120,8220) portion having a communication unit (2140,8240) for communicating with an external device; a contact element (2130,8230) for facilitating direct communication to a vision head member 3100,8100 of a visual device; wherein said handheld operation portion is arranged at said proximal end of said insertion portion, characterized in that, said contact element is disposed inside the handheld operation portion and said insertion portion has a lumen, wherein said lumen extends axially at least partially about a length of said insertion portion and an opening arranged at said distal end of said insertion portion for slidably positioning an elongated connector of said visual device inside said lumen of said insertion portion for contacting said contact element.
A well flow velocity measurement method, comprising: propagating at least one pressure pulse through multiple fluid compositions (40a, b) in a well; detecting a velocity of the pressure pulse along an optical waveguide in the well, the optical waveguide being included in a distributed acoustic sensing system; and determining an acoustic velocity in the fluid composition based on the velocity of the pressure pulse. propagating at least one pressure pulse through multiple fluid compositions (40a, b) in a well; detecting a velocity of the pressure pulse along an optical waveguide in the well, the optical waveguide being included in a distributed acoustic sensing system; and determining an acoustic velocity in the fluid composition based on the velocity of the pressure pulse.
An absorbent article that contains an absorbent member positioned between a backsheet and a topsheet, wherein the absorbent article comprises a film formed from a thermoplastic composition that contains a continuous phase that includes a polyolefin matrix polymer and a nanoinclusion additive dispersed within the continuous phase in the form of discrete domains, wherein a porous network is defined in the composition that includes a plurality of nanopores having an average cross-sectional dimension of 800 nanometers or less; wherein the nanoinclusion additive is a polymer having a nonpolar component; wherein the composition further comprises a microinclusion additive dispersed within the continuous phase in the form of discrete domains; wherein the microinclusion additive is a styrenic copolymer, a fluoropolymer, a polyvinyl alcohol, a polyvinyl acetate, or a polyester; wherein the continuous phase constitutes from 60 wt.% to 99 wt.% of the thermoplastic composition; and wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase. wherein the nanoinclusion additive is a polymer having a nonpolar component; wherein the composition further comprises a microinclusion additive dispersed within the continuous phase in the form of discrete domains; wherein the microinclusion additive is a styrenic copolymer, a fluoropolymer, a polyvinyl alcohol, a polyvinyl acetate, or a polyester; wherein the continuous phase constitutes from 60 wt.% to 99 wt.% of the thermoplastic composition; and wherein the nanoinclusion additive constitutes from 0.05 wt.% to 20 wt.% of the composition, based on the weight of the continuous phase.