mhurhangee/ep-ind-claims huggingface dataset:
An imaging device comprising a plurality of unit pixel cells and a voltage control circuit, wherein a unit pixel cell included in the plurality of unit pixel cells captures first data in a first exposure period and captures second data in a second exposure period different from the first exposure period, the imaging device outputs multiple-exposure image data including at least the first data and the second data, the unit pixel cell includes - a photoelectric converter including a first electrode, a second electrode facing the first electrode, and a photoelectric conversion film between the first electrode and the second electrode, the photoelectric conversion film generating a first signal charge in the first exposure period and a second signal charge in the second exposure period through photoelectric conversion, and - a signal detection circuit electrically connected to the second electrode; the voltage control circuit is configured to supply a voltage to the first electrode such that a potential difference between the first electrode and the second electrode in the first exposure period is different from a potential difference between the first electrode and the second electrode in the second exposure period, the first and second exposure period being included in a frame period; and the signal detection circuit is configured to detect the first signal charge and the second signal charge together to superimpose the first data and the second data. - a photoelectric converter including a first electrode, a second electrode facing the first electrode, and a photoelectric conversion film between the first electrode and the second electrode, the photoelectric conversion film generating a first signal charge in the first exposure period and a second signal charge in the second exposure period through photoelectric conversion, and - a signal detection circuit electrically connected to the second electrode;
A process for preparing phospholipid compositions from krill comprising phospholipids and proteins comprising: mixing said krill with water to increase the temperature of said krill to 60 to 75°C to form a first solid phase and a first aqueous phase comprising said phospholipids and proteins; separating said first solid phase from said first aqueous phase; and separating a protein and phospholipid fraction from said first aqueous phase by heating said first aqueous phase at a temperature sufficient to form a phospholipid-protein coagulate and separating said phospholipid-protein coagulate from said aqueous phase. mixing said krill with water to increase the temperature of said krill to 60 to 75°C to form a first solid phase and a first aqueous phase comprising said phospholipids and proteins; separating said first solid phase from said first aqueous phase; and separating a protein and phospholipid fraction from said first aqueous phase by heating said first aqueous phase at a temperature sufficient to form a phospholipid-protein coagulate and separating said phospholipid-protein coagulate from said aqueous phase.
Hand-held device for inserting a needle into a non-homogeneous material, such as a blood vessel, comprising: a casing adapted to be hand-held by an operator; a shaft extending along a longitudinal axis (x) and carrying at a distal end thereof the needle, the shaft being fitted in the casing and being normally coupled to the casing so as to move as a single piece therewith along the longitudinal axis (x); and decoupling means operable to decouple the shaft from the casing so that the shaft is freely movable relative to the casing along said longitudinal axis (x); characterized in that it further comprises: detection means arranged to provide signals indicative of at least one physical characteristic of the material into which the needle tip has to be inserted; and control means operatively connected with said decoupling means and said detection means and configured to determine, based on the signals received from said detection means, whether the needle tip has reached said target position and to operate said decoupling means to decouple the shaft, and hence the needle, from the casing; wherein said decoupling means are configured to normally clamp the shaft to couple it to the casing and are operable to unclamp the shaft to allow it to free move relative to the casing along the longitudinal axis (x). a casing adapted to be hand-held by an operator; a shaft extending along a longitudinal axis (x) and carrying at a distal end thereof the needle, the shaft being fitted in the casing and being normally coupled to the casing so as to move as a single piece therewith along the longitudinal axis (x); and decoupling means operable to decouple the shaft from the casing so that the shaft is freely movable relative to the casing along said longitudinal axis (x); characterized in that it further comprises: detection means arranged to provide signals indicative of at least one physical characteristic of the material into which the needle tip has to be inserted; and control means operatively connected with said decoupling means and said detection means and configured to determine, based on the signals received from said detection means, whether the needle tip has reached said target position and to operate said decoupling means to decouple the shaft, and hence the needle, from the casing; wherein said decoupling means are configured to normally clamp the shaft to couple it to the casing and are operable to unclamp the shaft to allow it to free move relative to the casing along the longitudinal axis (x).
A method, comprising: at an electronic device with a touch display and at least one user feedback mechanism: - displaying, on the touch display, a user interface comprising at least one user interface object; - receiving a touch input applied on the touch display, on one user interface object of the at least one user interface objects; - continuing to receive the touch input applied on the touch display, for a first time period; - providing, in response to the continuing to receive, a first user feedback, facilitated by one of the at least one of the user feedback mechanisms; - continuing to receive the touch input applied on the touch display, for a second time period; - increasing the intensity of the first user feedback until a second user feedback associated with deletion of the object is provided; - providing, in response to the continuing to receive the touch input for the second time period, the second user feedback, using one of the at least one of the user feedback mechanisms; and - removing, in response to the continuing to receive, the one user interface object from the user interface. - displaying, on the touch display, a user interface comprising at least one user interface object; - receiving a touch input applied on the touch display, on one user interface object of the at least one user interface objects; - continuing to receive the touch input applied on the touch display, for a first time period; - providing, in response to the continuing to receive, a first user feedback, facilitated by one of the at least one of the user feedback mechanisms; - continuing to receive the touch input applied on the touch display, for a second time period; - increasing the intensity of the first user feedback until a second user feedback associated with deletion of the object is provided; - providing, in response to the continuing to receive the touch input for the second time period, the second user feedback, using one of the at least one of the user feedback mechanisms; and - removing, in response to the continuing to receive, the one user interface object from the user interface.
A respiratory interface system for use in delivering a flow of a positive pressure breathing gas to an airway of a patient, the respiratory interface system comprising a patient interface device comprising: a tubing assembly structured to be disposed on the head of the patient; a mask having a sealing element structured to sealingly engage about the airway of the patient; and an adaptor (22, 40), wherein the mask is coupled to the tubing assembly via the adaptor, and wherein the tubing assembly, the mask, and the adaptor define a pathway structured to conduct the flow of the positive pressure breathing gas to the airway of the patient, and characterized in that the adaptor comprises: a first hollow male connector and a second hollow male connector for insertion respectively in correspondingly-shaped female connectors (18A, 116A) of the tubing assembly and the mask; or a first female connector and a second female connector for receipt respectively of correspondingly-shaped male connectors (58, 218A) of the tubing assembly and the mask. a tubing assembly structured to be disposed on the head of the patient; a mask having a sealing element structured to sealingly engage about the airway of the patient; and an adaptor (22, 40), wherein the mask is coupled to the tubing assembly via the adaptor, and wherein the tubing assembly, the mask, and the adaptor define a pathway structured to conduct the flow of the positive pressure breathing gas to the airway of the patient, and characterized in that the adaptor comprises: a first hollow male connector and a second hollow male connector for insertion respectively in correspondingly-shaped female connectors (18A, 116A) of the tubing assembly and the mask; or a first female connector and a second female connector for receipt respectively of correspondingly-shaped male connectors (58, 218A) of the tubing assembly and the mask. a first hollow male connector and a second hollow male connector for insertion respectively in correspondingly-shaped female connectors (18A, 116A) of the tubing assembly and the mask; or a first female connector and a second female connector for receipt respectively of correspondingly-shaped male connectors (58, 218A) of the tubing assembly and the mask.
Coating apparatus being configured for reactive vapor deposition under vacuum on a substrate, comprising: - an evacuable vacuum chamber, - an evaporator device being adapted to provide evaporation material in vapor phase, and - a substrate holder being adapted to receive the substrate, characterized in that - a temperature-controllable inner chamber is arranged in the vacuum chamber, which inner chamber surrounds a vapour section between the evaporator device and the substrate holder and is arranged for setting an inner chamber temperature equal to or lower than 25°C, wherein - the inner chamber is coupled to a cooling device by which the inner chamber temperature is adjustable. - an evacuable vacuum chamber, - an evaporator device being adapted to provide evaporation material in vapor phase, and - a substrate holder being adapted to receive the substrate, characterized in that - a temperature-controllable inner chamber is arranged in the vacuum chamber, which inner chamber surrounds a vapour section between the evaporator device and the substrate holder and is arranged for setting an inner chamber temperature equal to or lower than 25°C, wherein - the inner chamber is coupled to a cooling device by which the inner chamber temperature is adjustable.
An apparatus, comprising: a processor and a memory communicatively connected to the processor, the processor configured to: receive a set of problem prediction rules and information indicative of a length of an observation window to be used by the apparatus when observing generated machine data, wherein the information indicative of the length of the observation window is based on a length of an analysis time period used to create at least one of the problem prediction rules based on analysis of historical problem data and historical machine data; receive machine data generated by a device within the observation window; and identify a predicted problem event associated with the device based on a determination that the machine data matches one of the problem prediction rules.
A compound represented by: a first moiety chemically connected to a second moiety, or a pharmaceutically acceptable salt, hydrate, solvate, crystal form, N-oxide, or individual diastereomer thereof, wherein the first moiety is selected from the group consisting of: and wherein the second moiety is selected from the group consisting of:
A tool for immobilising a first shaft of a gas turbine engine in relation to a second shaft of the gas turbine engine, the tool comprising: a cylindrical body having a first end and a second end opposite the first end; the cylindrical body having an inner surface with one or more interior protrusions formed therein for engaging with the first shaft, and an outer surface having one or more exterior protrusions formed thereon for engaging with the second shaft; the tool being configured to immobilise the first shaft in relation to the second shaft such that at least part of the tool is insertable within and held fixed relative to a first section of the second shaft via the exterior protrusions, and a first section of the first shaft can be inserted within and held fixed relative to the interior of the cylindrical body via the interior protrusions. a cylindrical body having a first end and a second end opposite the first end; the cylindrical body having an inner surface with one or more interior protrusions formed therein for engaging with the first shaft, and an outer surface having one or more exterior protrusions formed thereon for engaging with the second shaft; the tool being configured to immobilise the first shaft in relation to the second shaft such that at least part of the tool is insertable within and held fixed relative to a first section of the second shaft via the exterior protrusions, and a first section of the first shaft can be inserted within and held fixed relative to the interior of the cylindrical body via the interior protrusions.
A power semiconductor module (100, 200) comprising a plurality of insulating substrates mounted on a base plate onto which are mounted, in one plane, Si semiconductor elements and wide-bandgap semiconductor elements, wherein said plurality of insulating substrates is arranged in a regular 2D array having two rows and two columns, two insulating substrates being in each row and two insulating substrates being in each column of said regular 2D array, wherein a plurality of the Si semiconductor elements and a plurality of the wide-bandgap semiconductor elements are mounted on each of the insulating substrates and are arranged such that, for each insulating substrate, the plurality of wide-bandgap semiconductor elements is disposed adjacent one edge of the insulating substrate, wherein the insulating substrates are disposed adjacent each other in such a manner that the wide-bandgap semiconductor elements are arranged so as to be sandwiched or surrounded by the Si semiconductor elements, wherein the Si semiconductor elements are electrically connected in anti-parallel with their respective wide-bandgap semiconductor elements, and wherein the Si semiconductor elements are Si switching elements and the wide-bandgap semiconductor elements are wide-bandgap diodes. wherein said plurality of insulating substrates is arranged in a regular 2D array having two rows and two columns, two insulating substrates being in each row and two insulating substrates being in each column of said regular 2D array, wherein a plurality of the Si semiconductor elements and a plurality of the wide-bandgap semiconductor elements are mounted on each of the insulating substrates and are arranged such that, for each insulating substrate, the plurality of wide-bandgap semiconductor elements is disposed adjacent one edge of the insulating substrate, wherein the insulating substrates are disposed adjacent each other in such a manner that the wide-bandgap semiconductor elements are arranged so as to be sandwiched or surrounded by the Si semiconductor elements, wherein the Si semiconductor elements are electrically connected in anti-parallel with their respective wide-bandgap semiconductor elements, and wherein the Si semiconductor elements are Si switching elements and the wide-bandgap semiconductor elements are wide-bandgap diodes.
A method for processing an enhanced physical downlink control channel EPDCCH, comprising: acquiring, from a network-side device, M physical resource block PRB sets used for EPDCCH transmission, N reference signal RS configurations used for EPDCCH downlink control information DCI rate matching and/or EPDCCH resource mapping, and correspondence between the M PRB sets and the N RS configurations, wherein N is a positive integer greater than 1, and M is a positive integer; and performing EPDCCH detection on the M PRB sets respectively according to each PRB set of the M PRB sets and an RS configuration corresponding to each PRB set; wherein each RS configuration of the N RS configurations comprises one or more of the following: a cell identifier, an RS configuration index, a CRS configuration, an NZP CSIRS configuration, a ZP CSI-RS configuration, an EPDCCH start time, a multimedia broadcast multicast service single frequency network MBSFN subframe configuration, and a carrier index. acquiring, from a network-side device, M physical resource block PRB sets used for EPDCCH transmission, N reference signal RS configurations used for EPDCCH downlink control information DCI rate matching and/or EPDCCH resource mapping, and correspondence between the M PRB sets and the N RS configurations, wherein N is a positive integer greater than 1, and M is a positive integer; and performing EPDCCH detection on the M PRB sets respectively according to each PRB set of the M PRB sets and an RS configuration corresponding to each PRB set; wherein each RS configuration of the N RS configurations comprises one or more of the following: a cell identifier, an RS configuration index, a CRS configuration, an NZP CSIRS configuration, a ZP CSI-RS configuration, an EPDCCH start time, a multimedia broadcast multicast service single frequency network MBSFN subframe configuration, and a carrier index.
An injection quill for injecting a first fluid into a second fluid, said injection quill comprising: a hollow stem having a closed end and a sidewall, the stem having a curved cross-section defined by a major axis A, and a minor axis B, and at least one orifice for injecting the first fluid into the second fluid, wherein A > B, characterized in that the orifice has an internal chamfer with a chamfer angle α ranging from 0° < α < 90°. a hollow stem having a closed end and a sidewall, the stem having a curved cross-section defined by a major axis A, and a minor axis B, and at least one orifice for injecting the first fluid into the second fluid, wherein A > B, characterized in that the orifice has an internal chamfer with a chamfer angle α ranging from 0° < α < 90°.
A pipeline inspection system comprising: an ultrasonic transducer system configured to emit ultrasonic energy pulses in response to electrical pulses and convert received ultrasonic energy into electrical signals; an inline inspection tool carrying the ultrasonic transducer system; and control circuitry coupled to the ultrasonic transducer system wherein the control circuitry is configured to control the ultrasonic transducer system and process signals received from the ultrasonic transducer system; and characterized by a gelled mass configured to form an elongated body surrounding the inline inspection tool during pipeline inspection, wherein the gelled mass is further configured to constitute a self-sustaining body during pipeline inspection having its peripheral surfaces contiguous with the inner surfaces of the inspected pipeline, the gelled mass comprising a leading portion, a middle portion in which the inline inspection tool is located during pipeline inspection, and a trailing portion. an ultrasonic transducer system configured to emit ultrasonic energy pulses in response to electrical pulses and convert received ultrasonic energy into electrical signals; an inline inspection tool carrying the ultrasonic transducer system; and control circuitry coupled to the ultrasonic transducer system wherein the control circuitry is configured to control the ultrasonic transducer system and process signals received from the ultrasonic transducer system; and characterized by a gelled mass configured to form an elongated body surrounding the inline inspection tool during pipeline inspection, wherein the gelled mass is further configured to constitute a self-sustaining body during pipeline inspection having its peripheral surfaces contiguous with the inner surfaces of the inspected pipeline, the gelled mass comprising a leading portion, a middle portion in which the inline inspection tool is located during pipeline inspection, and a trailing portion.
A method for predicting indoor three-dimensional space signal field strength using an outdoor-to-indoor propagation model comprising the steps of: establishing a three-dimensional space scene model from a transmitting base station to a target building; predicting space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model; generating, on the outer envelope of the target building, a series of outdoor-to-indoor virtual rays in accordance with a certain resolution; and simulating a propagation procedure of the virtual rays using a ray tracing propagation model algorithm, and predicting three-dimensional space signal field strength within the target building; wherein predicting the space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model comprises: calculating an error between a measured value and a predicted value Δ= M rx - T rx according to an actually measured field strength M rx and a calculated field strength T rx for a test point, to correct the calculation formula of the COST-231-Walfisch-lkegami propagation model for the test point. establishing a three-dimensional space scene model from a transmitting base station to a target building; predicting space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model; generating, on the outer envelope of the target building, a series of outdoor-to-indoor virtual rays in accordance with a certain resolution; and simulating a propagation procedure of the virtual rays using a ray tracing propagation model algorithm, and predicting three-dimensional space signal field strength within the target building; wherein predicting the space field strength of an outer envelope of the target building according to an extended COST-231-Walfisch-lkegami propagation model comprises: calculating an error between a measured value and a predicted value Δ= M rx - T rx according to an actually measured field strength M rx and a calculated field strength T rx for a test point, to correct the calculation formula of the COST-231-Walfisch-lkegami propagation model for the test point.