mhurhangee/ep-ind-claims huggingface dataset:
An apparatus (10; 100) for illuminating a retina of an eye, the apparatus comprising: an illumination device; a lens system, wherein the illumination device and the lens system combine to provide incident illumination from an apparent point source located within the lens system; and a light transfer device (20; 200, 20) having a first focus point (20a; 200a) where the apparent point source of the lens system is provided, and a second focus point where the eye is located when the apparatus is used to illuminate the retina, wherein the light transfer device (20; 200, 20) is configured to transfer the incident illumination from the apparent point source into the eye to illuminate the retina, characterized in that the lens system is a wide-angle lens system. an illumination device; a lens system, wherein the illumination device and the lens system combine to provide incident illumination from an apparent point source located within the lens system; and a light transfer device (20; 200, 20) having a first focus point (20a; 200a) where the apparent point source of the lens system is provided, and a second focus point where the eye is located when the apparatus is used to illuminate the retina, wherein the light transfer device (20; 200, 20) is configured to transfer the incident illumination from the apparent point source into the eye to illuminate the retina, characterized in that the lens system is a wide-angle lens system.
An ink set for use in combination with a reaction liquid which reacts with and aggregates components of an ink composition, the ink set comprising: a first ink composition which comprises a coloring material, a fixing resin, and a resin-dissolving solvent; and a second ink composition which comprises a coloring material, a fixing resin, and a resin-dissolving solvent; wherein the second ink composition is the same color type ink as the first ink composition; and the content of the coloring material in the second ink composition is smaller than the content of the coloring material in the first ink composition on a mass basis; and the content of the fixing resin in the second ink composition is greater than the content of the fixing resin in the first ink composition on a mass basis; and the content of the resin-dissolving solvent in the second ink composition is greater than the content of the resin-dissolving solvent in the first ink composition on a mass basis. a first ink composition which comprises a coloring material, a fixing resin, and a resin-dissolving solvent; and a second ink composition which comprises a coloring material, a fixing resin, and a resin-dissolving solvent; wherein the second ink composition is the same color type ink as the first ink composition; and the content of the coloring material in the second ink composition is smaller than the content of the coloring material in the first ink composition on a mass basis; and the content of the fixing resin in the second ink composition is greater than the content of the fixing resin in the first ink composition on a mass basis; and the content of the resin-dissolving solvent in the second ink composition is greater than the content of the resin-dissolving solvent in the first ink composition on a mass basis.
Vehicle with an electric motor vehicle drive which comprises drive motors (M1 to M4) with a control device, which during a braking process operates the respective drive motor (M1 to M4) as a generator, i.e. controls the inverter (U1 to U4) of the respective drive motor (M1 to M4) with a braking torque, and an ABS control device, in which during the braking process the braking effect of the drive motors (M1 to M4) operated as generators is limited so that the brake slip is limited on at least one drive wheel (AR1 to AR4) to a predefined threshold, wherein the speed of each drive motor (M1 to M4) is controlled by the controllable inverter (U1 to U4) assigned thereto, characterised in that to limit the brake slip the ABS control device in direct control transmits continuously to each inverter (U1 to U4) a minimum braking speed (n min) which should not be fallen below for the drive motor (M1 to M4) assigned thereto, in that in the ABS control device the individual minimum speed (n min) is defined for each drive wheel (AR1 to AR4) as a function of the current driving speed and additional parameters, and in that the inverters (U1 to U4), on the basis of the continuous transmission of the minimum braking speed (n min), also performed during normal driving operation, can maintain in the braking situation by means of speed threshold monitoring a corresponding adherence to the minimum braking speed (n min), in which during the braking process all braking speeds above the minimum braking speed (n min) are permissible, as it is ensured in this way that the brake slip at the drive wheels (AR1 to AR4) is not impermissibly high, such that the speed of the rotary field produced by the inverter (U1 to U4) in the drive motor (M1 to M4) assigned thereto is controlled so that the specified minimum braking speed (n min) is not fallen below.
A transition metal complex hydroformylation catalytic precursor composition consisting essentially of a solubilized Group VIII transition metal-monophosphite complex, an organic solvent, and free monophosphite ligand, wherein the monophosphite ligand of the metal-monophosphite complex and the free monophosphite ligand are each a compound the following formula: wherein R 1 -R 4 are the same or different and each individually represent an hydrogen, a monovalent hydrocarbyl or substituted hydrocarbyl radical selected from alkyl, arylalkyl, and alicyclic radicals.
A method for simulating sensor data of a continuous wave, CW, Light Detection and Ranging, lidar, sensor, comprising the steps: generating a ray set comprising at least one ray, based on a CW signal, each ray in the ray set having an emission starting time, t_0 and an emission duration, T; propagating, using ray-tracing for each ray in the ray set, the ray through a simulated scene comprising at least one object; computing, for each ray in the ray set, a signal contribution of the propagated ray at a detection location in the simulated scene; generating an output signal, based on mixing the CW signal with the computed signal contributions of the rays in the ray set, wherein the CW signal generally differs from the computed signal contributions of the rays in the ray set by a phase shift corresponding to the travel time of the ray; and at least one of storing and outputting the output signal. generating a ray set comprising at least one ray, based on a CW signal, each ray in the ray set having an emission starting time, t_0 and an emission duration, T; propagating, using ray-tracing for each ray in the ray set, the ray through a simulated scene comprising at least one object; computing, for each ray in the ray set, a signal contribution of the propagated ray at a detection location in the simulated scene; generating an output signal, based on mixing the CW signal with the computed signal contributions of the rays in the ray set, wherein the CW signal generally differs from the computed signal contributions of the rays in the ray set by a phase shift corresponding to the travel time of the ray; and at least one of storing and outputting the output signal.
A construction machine, particularly a slipform paving machine, comprising: a machine frame; first and second swing legs (14A, 14B) pivotally connected to the machine frame; first and second ground engaging units (16A, 16B) steerably connected to the first and second swing legs (14A, 14B), respectively, the ground engaging units including drive motors configured such that the ground engaging units are driven across a ground surface by the drive motors; characterized in that a first lock configured to selectively lock and unlock the first swing leg in pivotal position relative to the machine frame;a second lock configured to selectively lock and unlock the second swing leg in pivotal position relative to the machine frame; and a controller including a swing leg pivot mode configured - to unlock at least the first lock or - to unlock at least the first lock and unlock the second lock to allow each of the first and second swing legs to pivot relative to the machine frame in response to steering of the ground engaging unit connected to each swing leg as the machine is driven across the ground surface by the ground engaging units. a machine frame; first and second swing legs (14A, 14B) pivotally connected to the machine frame; first and second ground engaging units (16A, 16B) steerably connected to the first and second swing legs (14A, 14B), respectively, the ground engaging units including drive motors configured such that the ground engaging units are driven across a ground surface by the drive motors; characterized in that a first lock configured to selectively lock and unlock the first swing leg in pivotal position relative to the machine frame;a second lock configured to selectively lock and unlock the second swing leg in pivotal position relative to the machine frame; and a controller including a swing leg pivot mode configured - to unlock at least the first lock or - to unlock at least the first lock and unlock the second lock - to unlock at least the first lock or - to unlock at least the first lock and unlock the second lock to allow each of the first and second swing legs to pivot relative to the machine frame in response to steering of the ground engaging unit connected to each swing leg as the machine is driven across the ground surface by the ground engaging units.
A method performed by a transmitter for transmitting data, the method comprising: transmitting a first data packet to a receiver; receiving hybrid ARQ, HARQ, feedback information generated based on a decoding result of the first data packet; generating a second data packet based on the HARQ feedback information, wherein the second data packet corresponds to a retransmission of the first data packet; and transmitting the second data packet to the receiver, wherein the HARQ feedback information includes a negative-acknowledgment, NACK, and information indicating that the second data packet is self-decodable or non-self-decodable; and characterized in that the HARQ feedback information is generated based on the number of code blocks satisfying an early stopping criterion among code blocks included in the first data packet, and wherein the early stopping criterion stops decoding using a turbo code or an LDPC code before the decoding is completed and based on a probability of decoding failure. transmitting a first data packet to a receiver; receiving hybrid ARQ, HARQ, feedback information generated based on a decoding result of the first data packet; generating a second data packet based on the HARQ feedback information, wherein the second data packet corresponds to a retransmission of the first data packet; and transmitting the second data packet to the receiver, wherein the HARQ feedback information includes a negative-acknowledgment, NACK, and information indicating that the second data packet is self-decodable or non-self-decodable; and characterized in that the HARQ feedback information is generated based on the number of code blocks satisfying an early stopping criterion among code blocks included in the first data packet, and wherein the early stopping criterion stops decoding using a turbo code or an LDPC code before the decoding is completed and based on a probability of decoding failure.
A lithium ion battery cell having a cathode comprising an active material and 1-5% by weight of single wall carbon nanotubes (SWCNT) as a conductive additive, wherein the active material is an Li metal oxide or Li iron phosphate, and the SWCNT has an inorganic impurity content of less than 5% by weight.
A method for validating an accuracy of radiation treatment plan contour data, the method comprising: (a) accessing with a computer system, previously generated contour data comprising contours associated with a radiation treatment plan for a subject; (b) accessing with the computer system, an image of the subject; (c) generating with the computer system, inner shell data by eroding contours in the contour data by a first margin; (d) generating with the computer system, outer shell data by expanding contours in the contour data by a second margin; (e) computing with the computer system, image feature data from the image; (f) generating with the computer system, an inner shell image feature map from the image feature data over contours in the inner shell data; (g) generating with the computer system, an outer shell image feature map from the image feature data over contours in the outer shell data; and (h) validating the contour data by inputting the inner shell image feature map and the outer shell image feature map to a machine learning algorithm, generating output as labeled contour data, wherein the labeled contour data labels contour data that are validated as accurate contour data and labels contour data that are not validated as inaccurate contour data. (a) accessing with a computer system, previously generated contour data comprising contours associated with a radiation treatment plan for a subject; (b) accessing with the computer system, an image of the subject; (c) generating with the computer system, inner shell data by eroding contours in the contour data by a first margin; (d) generating with the computer system, outer shell data by expanding contours in the contour data by a second margin; (e) computing with the computer system, image feature data from the image; (f) generating with the computer system, an inner shell image feature map from the image feature data over contours in the inner shell data; (g) generating with the computer system, an outer shell image feature map from the image feature data over contours in the outer shell data; and (h) validating the contour data by inputting the inner shell image feature map and the outer shell image feature map to a machine learning algorithm, generating output as labeled contour data, wherein the labeled contour data labels contour data that are validated as accurate contour data and labels contour data that are not validated as inaccurate contour data.
Use of indapamide for the preparation of a medicament for co-administration with an anti-aldosterone agent for treatment of a condition in a subject, wherein the anti-aldosterone agent is spironolactone or epleronone and said condition is proteinuria, albuminuria or hyperuricemia.
A disposable alternating tangential flow unit comprising: a hollow tube of a sterilizable, non-toxic, rigid plastic; a first pump hemisphere secured to an end of the hollow tube, wherein the first pump hemisphere comprises a first circumferential flange; and wherein an opening in the first pump hemisphere enables fluid to flow between the first pump hemisphere and the hollow tube; a second pump hemisphere comprising a second circumferential flange configured to mate with the first circumferential flange; a flexible diaphragm configured to be arranged between the first and second circumferential flanges (26, 27); characterized in either the first circumferential flange or the second circumferential flange comprising an external threading; and a clamp ring having an internal surface comprising an internal threading, wherein the clamp ring is configured to be placed over the pump hemisphere without a threaded circumferential flange and to be secured to the threaded circumferential flange (26,27). a hollow tube of a sterilizable, non-toxic, rigid plastic; a first pump hemisphere secured to an end of the hollow tube, wherein the first pump hemisphere comprises a first circumferential flange; and wherein an opening in the first pump hemisphere enables fluid to flow between the first pump hemisphere and the hollow tube; a second pump hemisphere comprising a second circumferential flange configured to mate with the first circumferential flange; a flexible diaphragm configured to be arranged between the first and second circumferential flanges (26, 27); characterized in either the first circumferential flange or the second circumferential flange comprising an external threading; and a clamp ring having an internal surface comprising an internal threading, wherein the clamp ring is configured to be placed over the pump hemisphere without a threaded circumferential flange and to be secured to the threaded circumferential flange (26,27).
A bone distraction apparatus including a flexible drive assembly, characterised in that the flexible drive assembly comprises a plurality of identical drive elements connected to one another in series, each drive element having a body with a central axis and male and female ends, the male end including a laterally projecting rib of non-circular cross-section and the female end defining a socket with a laterally extending groove therein which is of non-circular cross-section, wherein the drive elements are connected to one another in series by location of the male end of one element in the series in the socket at the female end of a neighbouring element in the series with the rib of the male end received as a snap fit in the groove of the socket, the male ends and sockets being configured to allow limited pivotal movement to take place between adjacent, connected elements, in each case about an axis transverse to the central axes of the elements, while also allowing the elements to transmit rotational torque in either direction from one to the other.
A cutting apparatus for cutting a food object while the food object is conveyed from an inlet conveyor to an outlet conveyor, where the inlet and outlet conveyors are arranged in an end-to-end arrangement, the cutting apparatus comprising: • a moving mechanism for adjusting the relative position between the ends of the inlet and outlet conveyors, • a cutting device having a cutting plane extending between the inlet and outlet conveyors, • a detection mechanism for detecting at least one characteristics related to the food object, and • a control device for controlling the moving mechanism and the cutting device, wherein controlling the moving mechanism includes utilizing the at least one detected characteristics in determining a target width of an opening between the ends of the inlet and outlet conveyors, wherein controlling of the cutting device includes subsequently cutting the food object into smaller food pieces, the target width of the opening being selected such that it allows at least one of the smaller food pieces to fall through the opening, and wherein the target width is a minimum width required to allow said at least one of the smaller food pieces to fall through the opening between the ends of the inlet and outlet conveyors. • a moving mechanism for adjusting the relative position between the ends of the inlet and outlet conveyors, • a cutting device having a cutting plane extending between the inlet and outlet conveyors, • a detection mechanism for detecting at least one characteristics related to the food object, and • a control device for controlling the moving mechanism and the cutting device, wherein controlling the moving mechanism includes utilizing the at least one detected characteristics in determining a target width of an opening between the ends of the inlet and outlet conveyors, wherein controlling of the cutting device includes subsequently cutting the food object into smaller food pieces, the target width of the opening being selected such that it allows at least one of the smaller food pieces to fall through the opening, and wherein the target width is a minimum width required to allow said at least one of the smaller food pieces to fall through the opening between the ends of the inlet and outlet conveyors.
A neural injection system comprising: an at least partially hollow cannula being defined by a first inside diameter, a first outside diameter, and a first length, and a side port located along the cannula for fluid communication from inside said at least partially hollow cannula to outside said at least partially hollow cannula; wherein said cannula has an open distal end; and a stylet, wherein the stylet is capable of being releasably locked in a first position within said cannula; characterized in that a distal portion of the cannula comprises shoulders proximate to the open distal end, the shoulders adapting the cannula for penetrating tissue during an insertion procedure, and further characterized in that the shoulders of the distal end of the cannula are tapered or slanted to enable the cannula to act as an introducer for access across a tissue of a patient, and wherein the system omits an introducer separate from the cannula. an at least partially hollow cannula being defined by a first inside diameter, a first outside diameter, and a first length, and a side port located along the cannula for fluid communication from inside said at least partially hollow cannula to outside said at least partially hollow cannula; wherein said cannula has an open distal end; and a stylet, wherein the stylet is capable of being releasably locked in a first position within said cannula; characterized in that a distal portion of the cannula comprises shoulders proximate to the open distal end, the shoulders adapting the cannula for penetrating tissue during an insertion procedure, and further
Articulated-arm control for the articulated arm of a concrete pump, wherein the articulated arm has a rotary pedestal which is rotatable about a vertical axis and at least two segments (4 - 7) which are pivotable about horizontal axes by means of articulations (B - E), wherein the rotary pedestal is movable about the vertical axis by way of an actuator and the segments (4 - 7) are pivotable about the horizontal axes by way of actuators (14 - 17), wherein preferably sensors (18 - 21) for determining the angle of rotation of the rotary pedestal and for determining the angles of articulation of the articulations (B - E) are provided, wherein the articulated-arm control serves to control the actuators (14 - 17) and comprises a geometry control which from input values for a desired TCP movement generates a trajectory with desired values for the movement of the rotary pedestal and/or of the articulations (B - E), wherein the geometry control determines the trajectory by solving an optimisation problem, wherein the optimisation problem as target function minimises a deviation between the desired TCP movement and a TCP movement yielded by the trajectory in a physical model of the articulated arm, characterised in that in the optimisation problem a deformation of the articulated arm owing to its dead weight is taken into account, the physical model of the articulated arm taking into account a deformation of the articulated arm owing to its dead weight. wherein the articulated-arm control serves to control the actuators (14 - 17) and comprises a geometry control which from input values for a desired TCP movement generates a trajectory with desired values for the movement of the rotary pedestal and/or of the articulations (B - E), wherein the geometry control determines the trajectory by solving an optimisation problem, wherein the optimisation problem as target function minimises a deviation between the desired TCP movement and a TCP movement yielded by the trajectory in a physical model of the articulated arm, characterised in that in the optimisation problem a deformation of the articulated arm owing to its dead weight is taken into account, the physical model of the articulated arm taking into account a deformation of the articulated arm owing to its dead weight.