mhurhangee/ep-ind-claims huggingface dataset:
A light control device comprising: a light source that outputs light; a phase modulating spatial light modulator that is input with light output from the light source is configured to present a phase pattern to modulate the phase of light in each of the pixels, and output light after being phase-modulated by this phase pattern; and a control unit that causes the spatial light modulator to present a phase pattern, and adjusts the light diffraction efficiency in the spatial light modulator by adjusting the blazed grating pattern, characterized in that the phase modulating spatial light modulator is capable of phase modulation in each of a plurality of two-dimensionally arrayed pixels in a range of 4π or more and the control unit is configured to cause the spatial light modulator to present the phase pattern with a phase modulation range of 2π or more produced by superimposing a blazed grating pattern for light diffraction and a phase pattern having a predetermined phase modulation distribution. a light source that outputs light; a phase modulating spatial light modulator that is input with light output from the light source is configured to present a phase pattern to modulate the phase of light in each of the pixels, and output light after being phase-modulated by this phase pattern; and a control unit that causes the spatial light modulator to present a phase pattern, and adjusts the light diffraction efficiency in the spatial light modulator by adjusting the blazed grating pattern, characterized in that the phase modulating spatial light modulator is capable of phase modulation in each of a plurality of two-dimensionally arrayed pixels in a range of 4π or more and the control unit is configured to cause the spatial light modulator to present the phase pattern with a phase modulation range of 2π or more produced by superimposing a blazed grating pattern for light diffraction and a phase pattern having a predetermined phase modulation distribution.
A barrier layer stack (100, 200), comprising: a barrier material including defects which allow transport of gases and/or vapor, wherein said barrier material includes a reactive component designed to react with undesired gases and/or vapor; a polymeric seal covering said defects of said barrier material, wherein, in use, presence of said seal reduces or prevents diffusion of vapor and/or gas molecules through said defects of said barrier material; and wherein the seal does not protrude into and plug up the defects. a barrier material including defects which allow transport of gases and/or vapor, wherein said barrier material includes a reactive component designed to react with undesired gases and/or vapor; a polymeric seal covering said defects of said barrier material, wherein, in use, presence of said seal reduces or prevents diffusion of vapor and/or gas molecules through said defects of said barrier material; and wherein the seal does not protrude into and plug up the defects.
A system for detecting the respiratory effort of a patient, comprising a pressure determination device (61, 62) for determining a pressure (60, 64) at the point in time of the respiratory effort of the patient, wherein the pressure determination device is designed as an esophageal catheter and has a gas-filled balloon, and comprising a respirator for assisted respiration of a patient with a pressure inlet nozzle for the esophageal catheter and a pressure sensor, wherein a respiratory effort of the patient is detected via the gas-filled balloon of the esophageal catheter, wherein the esophageal catheter determines the functional positive end-expiratory pressure, which is referred to as intrinsic PEEP (PEEPi), during spontaneous. respiration, wherein the system additionally comprises an apparatus, for example a control unit, which is configured in such a way that, in order to detect synchronicity, it compares a respiratory gas stroke chronologically specified by the respirator, such as pressure or volume or flow, with the respiratory effort of the patient, characterized in that an index of the failed triggers is determined and constituted with the comparison, which index represents the degree of the synchronization between the inspiration efforts of the patient and the inspiration specification of the respirator.
Surgical assembly for ocular surgery, comprising a pressure transducer for a direct measuring of intraocular pressure, and an endo-illuminator device for illuminating the field of surgery, wherein the pressure transducer is coupled to the endo-illuminator device so that the pressure transducer is insertable in an ocular cavity along with the endo-illuminator device through an accessory ocular incision which is distinct from an incision through which a surgical instrument suitable to perform eye surgery operates, characterised in that the surgical assembly comprises an attachment guide ring; the pressure transducer and the endo-illuminator device are inserted side by side with interference in the attachment guide ring, said attachment guide ring being positioned at a predetermined distance from the distal ends of the pressure transducer and the endo-illuminator device.
An illumination device comprising: a plurality of light-emitting elements, LEEs,; and a light guide extending in a forward direction from a first end of the light guide to a second end of the light guide, the light guide being positioned to receive at the first end light emitted by the LEEs and configured to guide the light to the second end, wherein divergence of the light received at the first end and divergence of the guided light that reaches the second end are substantially the same; a light divergence modifier optically coupled to the light guide at the second end to receive the guided light, the light divergence modifier configured to modify the divergence of the guided light, such that the light provided by the light divergence modifier has a modified divergence different from the divergence of the guided light; and an optical extractor optically coupled to the light divergence modifier, the optical extractor configured to output into the ambient environment light provided by the light divergence modifier as output light in one or more output angular ranges (145', 145", 145"'), characterized in that the optical extractor includes: a first redirecting surface adapted to reflect at least a portion of the light provided by the light divergence modifier in a first direction that has a component orthogonal to the forward direction, and a second redirecting surface adapted to reflect at least a portion of the light provided by the light divergence modifier in a second direction that has a component orthogonal to the forward direction and antiparallel to the orthogonal component of the first direction, and a first curved output surface and/or a second curved output surface (246; 248) positioned in a path(s) of the light reflected from the first redirecting surface and/or the second redirecting surface (242; 244), and the first curved output surface and/or the second curved output surface (246; 248) are configured to transmit light incident thereon to the ambient environment in one or more backward angular ranges. a plurality of light-emitting elements, LEEs,; and a light guide extending in a forward direction from a first end of the light guide to a second end of the light guide, the light guide being positioned to receive at the first end light emitted by the LEEs and configured to guide the light to the second end, a first redirecting surface adapted to reflect at least a portion of the light provided by the light divergence modifier in a first direction that has a component orthogonal to the forward direction, and a second redirecting surface adapted to reflect at least a portion of the light provided by the light divergence modifier in a second direction that has a component orthogonal to the forward direction and antiparallel to the orthogonal component of the first direction, and
A dental scanner, comprising: a body having a head (104, 104', 104*, 304, 304', 304"), the body elongated in a first direction; at least one imager (106, 106', 106*, 316a) configured for imaging in a second direction different from the first direction; and an elongate probe (108, 108', 108", 208, 208', 208", 308) extending in the second direction and within a field of view of said imager, characterized in that the probe comprises an ultrasonic sensor component (212, 312a, 312b); and said dental scanner comprises a processor configured to: receive optical data, from said at least one imager; receive measurements from said ultrasonic sensor component; and augment said optical data using said measurements. a body having a head (104, 104', 104*, 304, 304', 304"), the body elongated in a first direction; at least one imager (106, 106', 106*, 316a) configured for imaging in a second direction different from the first direction; and an elongate probe (108, 108', 108", 208, 208', 208", 308) extending in the second direction and within a field of view of said imager, characterized in that the probe comprises an ultrasonic sensor component (212, 312a, 312b); and said dental scanner comprises a processor configured to: receive optical data, from said at least one imager; receive measurements from said ultrasonic sensor component; and augment said optical data using said measurements. receive optical data, from said at least one imager; receive measurements from said ultrasonic sensor component; and augment said optical data using said measurements.
Device for transporting structures on water, as well as dismounting or installation of the structure(s), the device comprising a water vessel and an elongated tilting frame hingedly connected at a pivoting point to the water vessel, the tilting frame holding one or more support cribs designed for being displaceable relative to the tilting frame and possibly relative to each other, the tilting frame further being designed to be able to assume an essentially horizontal or slightly tilted position, corresponding to a transport position, and being designed to be able to be tilted about the hinge connection to an essentially vertical position by suitable lifting means, the vertical position corresponding to a lifting or operating position, the lifting means for lifting the elongated tilting frame being two stouts rod hinged at one end to the water vessel and extending through sleeves pivotally mounted close to free end of the elongated tilting frame; characterized in that the one or more support cribs are designed so as to be able to slide in grooves in the tilting frame in such a manner that they can not fall out, while at the same time the or each support crib further is designed in such a manner that its longitudinal position relative to the tilting frame is adjustable by suitable means selected from the group including winches, gearwheels and/or hydraulics.
A secondary battery, comprising a positive electrode plate and a negative electrode plate, the positive electrode plate comprising a positive electrode current collector and a positive electrode film disposed on at least one surface of the positive electrode current collector and comprising a positive active material; the negative electrode plate comprising a negative electrode current collector and a negative electrode film disposed on at least one surface of the negative electrode current collector and comprising a negative electrode active material, wherein the positive active material comprises one or more of layered lithium transition metal oxides and modified compounds thereof, and the negative electrode active material comprises a mixture of artificial graphite and natural graphite, and the negative electrode plate satisfies 0.02≤I 3R /I 2H ≤0.18, preferably 0.04≤I 3R /I 2H ≤0.12, in which the I 3R is a peak intensity of an X-ray diffraction peak of a 3R-phase 012 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description and the I 2H is a peak intensity of an X-ray diffraction peak of a 2H-phase 100 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description wherein the natural graphite constitutes ≤50% by mass of the negative electrode active material, and wherein the negative electrode active material has an average particle size Dv50 of from 11μm to 14μm, as measured according to measurement of each parameter in the description. wherein the positive active material comprises one or more of layered lithium transition metal oxides and modified compounds thereof, and the negative electrode active material comprises a mixture of artificial graphite and natural graphite, and the negative electrode plate satisfies 0.02≤I 3R /I 2H ≤0.18, preferably 0.04≤I 3R /I 2H ≤0.12, in which the I 3R is a peak intensity of an X-ray diffraction peak of a 3R-phase 012 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description and the I 2H is a peak intensity of an X-ray diffraction peak of a 2H-phase 100 crystal plane of the negative electrode active material in the negative electrode plate, as measured according to measurement of each parameter in the description wherein the natural graphite constitutes ≤50% by mass of the negative electrode active material, and wherein the negative electrode active material has an average particle size Dv50 of from 11μm to 14μm, as measured according to measurement of each parameter in the description.
A device for locating a fenestration position on a stent graft, the device comprising: a patient-specific fenestration template configured to be coupled to the stent graft, the patient-specific fenestration template representing a portion of a patient's aorta, the portion of the patient's aorta having a first branch blood vessel extending from the aorta and a second branch blood vessel extending from the aorta, the patient-specific fenestration template having a first marker corresponding to a predicted location of the first branch blood vessel, and a second marker corresponding to a predicted location of the second branch blood vessel, wherein the predicted location of the first marker and predicted location of the second marker is determined based on a modified digital representation of the portion of the patient's aorta, and characterised in that the portion of the patient's aorta has a first configuration, and the modified digital representation of the portion of the patient's aorta is associated with a second configuration of the portion of the patient's aorta, the portion of the patient's aorta being transitioned from the first configuration to the second configuration in response to insertion of the stent graft. the patient-specific fenestration template having a first marker corresponding to a predicted location of the first branch blood vessel, and a second marker corresponding to a predicted location of the second branch blood vessel, wherein the predicted location of the first marker and predicted location of the second marker is determined based on a modified digital representation of the portion of the patient's aorta, and characterised in that the portion of the patient's aorta has a first configuration, and the modified digital representation of the portion of the patient's aorta is associated with a second configuration of the portion of the patient's aorta, the portion of the patient's aorta being transitioned from the first configuration to the second configuration in response to insertion of the stent graft.
An apparatus for providing at least one joint outgoing IP data stream (480, 580, 780), the apparatus comprising: a. at least one receiver adapted to receive a stream of digital TV data, the stream simultaneously containing digital data of a plurality of TV channels; b. at least one transceiver adapted to receive a downlink stream of IP data and to transmit an uplink stream of IP data via a satellite link; c. at least one processing unit adapted: to receive a first incoming IP data stream requesting digital data of a selected TV channel and, in response to the request, to generate from the digital TV data received from the receiver a first outgoing IP data stream comprising digital data of the selected TV channel, or to receive the first incoming IP data stream requesting digital data of a further selected TV channel and, in response to the request, to modify an existing first outgoing IP data stream by digital data of the further selected TV channel, and to convert the IP data received from the transceiver into a second outgoing IP data stream; d. at least one switching unit adapted to combine the first outgoing IP data stream and the second outgoing IP data stream in at least one joint outgoing IP data stream (480, 580, 780); and e. a distribution unit adapted to transmit the at least one joint outgoing IP data stream (480, 580, 780) and to receive at least one joint incoming IP data stream by means of a wired link and/or by a wireless link. a. at least one receiver adapted to receive a stream of digital TV data, the stream simultaneously containing digital data of a plurality of TV channels; b. at least one transceiver adapted to receive a downlink stream of IP data and to transmit an uplink stream of IP data via a satellite link; c. at least one processing unit adapted: to receive a first incoming IP data stream requesting digital data of a selected TV channel and, in response to the request, to generate from the digital TV data received from the receiver a first outgoing IP data stream comprising digital data of the selected TV channel, or to receive the first incoming IP data stream requesting digital data of a further selected TV channel and, in response to the request, to modify an existing first outgoing IP data stream by digital data of the further selected TV channel, and to convert the IP data received from the transceiver into a second outgoing IP data stream; d. at least one switching unit adapted to combine the first outgoing IP data stream and the second outgoing IP data stream in at least one joint outgoing IP data stream (480, 580, 780); and e. a distribution unit adapted to transmit the at least one joint outgoing IP data stream (480, 580, 780) and to receive at least one joint incoming IP data stream by means of a wired link and/or by a wireless link.
A vehicle display device comprising: a display unit configured to display at least an image relating to a driving state of a vehicle; and a controller configured to perform processings, the processings including a processing of generating image data of an image to be displayed on the display unit, wherein the image data relates to the driving state; the vehicle display device characterized by further comprising a temperature sensor configured to measure a temperature of the controller, wherein the controller is adapted to reduce an amount of a processing other than a processing having a higher degree of priority, when the temperature of the controller is equal to or higher than a predetermined first value; and the processing of generating the image data relating to the driving state has a higher priority than those of other processings. a display unit configured to display at least an image relating to a driving state of a vehicle; and a controller configured to perform processings, the processings including a processing of generating image data of an image to be displayed on the display unit, wherein the image data relates to the driving state; the vehicle display device characterized by further comprising a temperature sensor configured to measure a temperature of the controller, wherein the controller is adapted to reduce an amount of a processing other than a processing having a higher degree of priority, when the temperature of the controller is equal to or higher than a predetermined first value; and the processing of generating the image data relating to the driving state has a higher priority than those of other processings.
A method of wireless communication performed by a network controller, comprising: determining a first set of spreading sequences and a second set of spreading sequences for non-orthogonal multiple access, NOMA, communication, wherein the first set of spreading sequences is different than the second set of spreading sequences; and configuring a first cell to use the first set of spreading sequences and a second cell to use the second set of spreading sequences; or configuring the first set of spreading sequences to be used for first user equipment associated with a cell center of the first cell and the second set of spreading sequences to be used for second user equipment associated with a cell edge of the first cell or the second cell characterised in that the first set of spreading sequences and the second set of spreading sequences share at least one shared spreading sequence. determining a first set of spreading sequences and a second set of spreading sequences for non-orthogonal multiple access, NOMA, communication, wherein the first set of spreading sequences is different than the second set of spreading sequences; and configuring a first cell to use the first set of spreading sequences and a second cell to use the second set of spreading sequences; or configuring the first set of spreading sequences to be used for first user equipment associated with a cell center of the first cell and the second set of spreading sequences to be used for second user equipment associated with a cell edge of the first cell or the second cell characterised in that the first set of spreading sequences and the second set of spreading sequences share at least one shared spreading sequence.
An apparatus for assisting navigation of an instrument in a vessel, comprising: a sensor probe configured to acquire local images (5, 10) that characterize the vessel at the point where the particular local image is made, which sensor probe can be moved along the vessel, a memory configured to store a sequence of local images that is obtained in the course of the movement of the sensor probe along the vessel, and a data-processing unit that is configured to register a further local image of the vessel acquired by said sensor probe to the sequence that is stored in the memory, wherein the data-processing unit is further configured to determine a current position of the instrument based on the registration of the further local image. a sensor probe configured to acquire local images (5, 10) that characterize the vessel at the point where the particular local image is made, which sensor probe can be moved along the vessel, a memory configured to store a sequence of local images that is obtained in the course of the movement of the sensor probe along the vessel, and a data-processing unit that is configured to register a further local image of the vessel acquired by said sensor probe to the sequence that is stored in the memory, wherein the data-processing unit is further configured to determine a current position of the instrument based on the registration of the further local image.