mhurhangee/patent-ind-claim-en huggingface dataset:
A method for localizing an emitter (F) in a sample (S) comprising - illuminating the sample (S) with a stationary donut-shaped excitation beam (E), and - acquiring fluorescence photons, characterized in that the donut-shaped excitation beam (E) is stationary with respect to the sample (S) during the acquisition of the fluorescence photons, and wherein the fluorescence photons are acquired in a position-specific manner, wherein the position-specific acquisition of the fluorescence photons is performed in an image plane (IP) arranged confocally with respect to a plane of an excitation focus (EF) of the excitation beam (E), wherein the position of the emitter (F) is estimated from a plurality of fluorescence photon counts detected in the position-specific manner while keeping the position of the excitation beam (E) constant with respect to the sample (S), wherein the position specificity of detection is achieved by sampling or measuring a spatial distribution of the light emitted by the emitter (F), which is achieved by altering the position of a pinhole projection in the focal plane in the sample or by directly measuring the spatial distribution of the emitted light by an array detector comprising several detector elements arranged in a two-dimensional pattern in the detector plane; and - a position of the emitter (F) in the sample (S) is estimated from the acquired plurality of fluorescence photon counts. - illuminating the sample (S) with a stationary donut-shaped excitation beam (E), and - acquiring fluorescence photons, characterized in that the donut-shaped excitation beam (E) is stationary with respect to the sample (S) during the acquisition of the fluorescence photons, and wherein the fluorescence photons are acquired in a position-specific manner, wherein the position-specific acquisition of the fluorescence photons is performed in an image plane (IP) arranged confocally with respect to a plane of an excitation focus (EF) of the excitation beam (E), wherein the position of the emitter (F) is estimated from a plurality of fluorescence photon counts detected in the position-specific manner while keeping the position of the excitation beam (E) constant with respect to the sample (S), wherein the position specificity of detection is achieved by sampling or measuring a spatial distribution of the light emitted by the emitter (F), which is achieved by altering the position of a pinhole projection in the focal plane in the sample or by directly measuring the spatial distribution of the emitted light by an array detector comprising several detector elements arranged in a two-dimensional pattern in the detector plane; and - a position of the emitter (F) in the sample (S) is estimated from the acquired plurality of fluorescence photon counts. - a position of the emitter (F) in the sample (S) is estimated from the acquired plurality of fluorescence photon counts.
A laminate comprising: a first retarder; a three-quarter wave plate ; and a positive C plate provided between the first retarder and the three-quarter wave plate, wherein the first retarder comprises a first quarter wave plate . a first retarder; a three-quarter wave plate ; and a positive C plate provided between the first retarder and the three-quarter wave plate, wherein the first retarder comprises a first quarter wave plate .
A free radical curable liquid having a specific weight after curing measured at 25°C of less than 1.00 g/cm 3 including: a) one or more photoinitiators; b) one or more free radical polymerizable monomers or oligomers; and c) hollow particles and/or a free radical crosslinkable polymer; wherein at least the free radical crosslinkable polymer or at least one of the one or more free radical polymerizable monomers or oligomers includes one or more hydrolyzable groups which upon hydrolyzation form an acid group or salt thereof; wherein the free radical crosslinkable polymer is a maleinised polybutadiene; wherein the free radical curable liquid contains no more than 10 wt% of organic solvent; and wherein a specific weight after curing measured at 25°C of the free radical curable liquid is less than 1.00 g/cm 3 if at least one of the following two criteria is fulfilled: 1) A cured layer of the free radical curable liquid is submersed in water at 25°C. If the cured layer floats on the surface of the water, then the specific weight after curing measured at 25°C of the free radical curable liquid is less than 1.00 g/cm 3 ; and 2) The specific weight after curing was determined on a cured layer of the free radical curable liquid using an AccuPyc II 1340 Gas Displacement Density Analyzer from MICROMETRICS; wherein the cured layer is considered as cured at the moment scratching with a Q-tip caused no visual damage. a) one or more photoinitiators; b) one or more free radical polymerizable monomers or oligomers; and c) hollow particles and/or a free radical crosslinkable polymer; 1) A cured layer of the free radical curable liquid is submersed in water at 25°C. If the cured layer floats on the surface of the water, then the specific weight after curing measured at 25°C of the free radical curable liquid is less than 1.00 g/cm 3 ; and 2) The specific weight after curing was determined on a cured layer of the free radical curable liquid using an AccuPyc II 1340 Gas Displacement Density Analyzer from MICROMETRICS; wherein the cured layer is considered as cured at the moment scratching with a Q-tip caused no visual damage.
Hitching system for an agricultural or industrial vehicle, comprising: - at least one lifting arm provided with one end that can be connected in a swivel manner to the agricultural or industrial vehicle (V) and with an opposite end associable with an auxiliary equipment; - at least one lifting rod provided with one end connectable to an actuator device and with an opposite end kinematically connected to said lifting arm , said lifting rod comprising a pair of jaw elements arranged facing each other and adapted to receive said lifting arm by interposition, wherein each of said jaw elements comprises at least one slot of elongated shape, and wherein at least one of said jaw elements comprises at least one pair of stop elements arranged alongside said slot and extending parallel thereto; - connecting means between said lifting rod and said lifting arm comprising at least one pin insertable through the slots of said jaw elements and in at least one hole defined on said lifting arm , and comprising at least one ending plate having an elongated shape and associated with at least one end of said pin ; characterized in that said ending plate comprises at least one main body and at least one pair of protrusions arranged at one end of said main body and adapted to abut against said stop elements , and wherein the hitching system is configured such that said ending plate is alternatively positionable in a lower clamping configuration, wherein the lateral edge of said main body abuts against the lower end of said stop elements , in a floating configuration, wherein said ending plate is rotated with respect to said lower clamping configuration and wherein said main body is interposed between said stop elements and said pin is movable along said slots , and in an upper clamping configuration, wherein said ending plate is rotated with respect to said lower clamping configuration and with respect to said floating configuration and wherein said protrusions rest against the upper end of said stop elements . - at least one lifting arm provided with one end that can be connected in a swivel manner to the agricultural or industrial vehicle (V) and with an opposite end associable with an auxiliary equipment; - at least one lifting rod provided with one end connectable to an actuator device and with an opposite end kinematically connected to said lifting arm , said lifting rod comprising a pair of jaw elements arranged facing each other and adapted to receive said lifting arm by interposition, wherein each of said jaw elements comprises at least one slot of elongated shape, and wherein at least one of said jaw elements comprises at least one pair of stop elements arranged alongside said slot and extending parallel thereto; - connecting means between said lifting rod and said lifting arm comprising at least one pin insertable through the slots of said jaw elements and in at least one hole defined on said lifting arm , and comprising at least one ending plate having an elongated shape and associated with at least one end of said pin ;
A tape cassette , comprising: a housing having a top surface , a bottom surface , a front surface and a pair of side surfaces ; a tape that is a print medium mounted in the housing ; a tape exit that discharges, from the housing , the tape guided in the housing along a predetermined feed path, at least a part of the feed path extending parallel to the front surface ; and a type indicator portion provided adjacent to the tape exit and in a specified area (R2) of the front surface on an upstream side of the tape exit in a feed direction of the tape , the type indicator portion indicating a type of the tape and including a plurality of vertical information sections (X1 to X5), and an indentation portion being formed on at least one of the plurality of vertical information sections (X1 to X5), the plurality of vertical information sections (X1 to X5) being a plurality of strip-shaped sections extending along a direction orthogonal to the feed path; and a latching recess portion provided in another area (R1) of the front surface , the another area being an area formed in the front surface that is different to the specified area (R2), wherein the indentation portion and the latching recess portion are arranged continuously to form a groove . a housing having a top surface , a bottom surface , a front surface and a pair of side surfaces ; a tape that is a print medium mounted in the housing ; a tape exit that discharges, from the housing , the tape guided in the housing along a predetermined feed path, at least a part of the feed path extending parallel to the front surface ; and a type indicator portion provided adjacent to the tape exit and in a specified area (R2) of the front surface on an upstream side of the tape exit in a feed direction of the tape , the type indicator portion indicating a type of the tape and including a plurality of vertical information sections (X1 to X5), and an indentation portion being formed on at least one of the plurality of vertical information sections (X1 to X5), the plurality of vertical information sections (X1 to X5) being a plurality of strip-shaped sections extending along a direction orthogonal to the feed path; and a latching recess portion provided in another area (R1) of the front surface , the another area being an area formed in the front surface that is different to the specified area (R2), wherein the indentation portion and the latching recess portion are arranged continuously to form a groove .
A method of receiving a Reference Signal, RS, by a User Equipment , UE, in a wireless communication system, the method comprising: receiving Quasi Co-Location, QCL, configuration information that relates to a QCL parameter, wherein the QCL configuration information configures a QCL relationship, with respect to the QCL parameter, between (i) a first antenna port for receiving a first RS and (ii) a second antenna port for receiving a second RS; receiving (S1410) the first RS through the first antenna port; and receiving (S1420) the second RS through the second antenna port based on the QCL relationship, wherein the QCL parameter is a spatial reception parameter related to a spatial property of a signal received by the UE , wherein the spatial property of the signal received by the UE is based on a direction of a beam related to the reception of the signal. receiving Quasi Co-Location, QCL, configuration information that relates to a QCL parameter, wherein the QCL configuration information configures a QCL relationship, with respect to the QCL parameter, between (i) a first antenna port for receiving a first RS and (ii) a second antenna port for receiving a second RS; receiving (S1410) the first RS through the first antenna port; and receiving (S1420) the second RS through the second antenna port based on the QCL relationship, wherein the QCL parameter is a spatial reception parameter related to a spatial property of a signal received by the UE , wherein the spatial property of the signal received by the UE is based on a direction of a beam related to the reception of the signal.
A secondary battery comprising: an electrode assembly comprising first electrode plates and second electrode plates , alternately stacked with a separator therebetween, and first electrode tabs overlapping one another at a same position and outwardly protruding, the first electrode tabs being uncoated portions of the first electrode plates , and a fixing tape adhered between the separator positioned at each of opposite long side surfaces and outer surfaces of the first electrode tabs ; a first collector portion welded to the first electrode tabs of the electrode assembly ; and a case accommodating the electrode assembly and the first collector portion . an electrode assembly comprising first electrode plates and second electrode plates , alternately stacked with a separator therebetween, and first electrode tabs overlapping one another at a same position and outwardly protruding, the first electrode tabs being uncoated portions of the first electrode plates , and a fixing tape adhered between the separator positioned at each of opposite long side surfaces and outer surfaces of the first electrode tabs ; a first collector portion welded to the first electrode tabs of the electrode assembly ; and a case accommodating the electrode assembly and the first collector portion .
A catheter for applying energy to an object , the catheter comprising: - a plurality of energy application elements for applying energy to the object at different locations, - a plurality of ultrasound elements for generating ultrasound signals being indicative of a property of the object at the different locations, wherein to a respective energy application element of the plurality of energy application elements one or more ultrasound elements are assigned, wherein the ultrasound elements are integrated in the energy application elements or the ultrasound elements and the energy application elements are alternately arranged, wherein the catheter is adapted to cooperate with: - an energy application influence determining unit for determining an energy application influence of the applied energy to the different locations from the generated ultrasound signals, - a control unit for individually controlling at least one energy application element depending on the energy application influence determined for the location at which the at least one energy application element applies energy, wherein the control unit is adapted to control a respective energy application element depending on one or several energy application influences determined from one or several ultrasound signals of one or several ultrasound elements assigned to the respective energy application element . - a plurality of energy application elements for applying energy to the object at different locations, - a plurality of ultrasound elements for generating ultrasound signals being indicative of a property of the object at the different locations, wherein to a respective energy application element of the plurality of energy application elements one or more ultrasound elements are assigned, wherein the ultrasound elements are integrated in the energy application elements or the ultrasound elements and the energy application elements are alternately arranged, - an energy application influence determining unit for determining an energy application influence of the applied energy to the different locations from the generated ultrasound signals, - a control unit for individually controlling at least one energy application element depending on the energy application influence determined for the location at which the at least one energy application element applies energy, wherein the control unit is adapted to control a respective energy application element depending on one or several energy application influences determined from one or several ultrasound signals of one or several ultrasound elements assigned to the respective energy application element .
A circuit comprising: a rectifying bridge having at least one first thyristor (T1, T2) in series with a first rectifying element (D3, D4) between a first terminal and a second rectified output terminal of the bridge, characterized in that the circuit comprises at least one diode (D5) in series with a DC voltage source between a gate of the thyristor and said second terminal . a rectifying bridge having at least one first thyristor (T1, T2) in series with a first rectifying element (D3, D4) between a first terminal and a second rectified output terminal of the bridge, characterized in that the circuit comprises at least one diode (D5) in series with a DC voltage source between a gate of the thyristor and said second terminal .
A system for launching an Unmanned Aerial Vehicle (UAV), comprising: a capsule comprising at least two parts; a UAV configured to be encapsulated inside said capsule in a folded configuration; and an aerial carrier comprising a release mechanism, said carrier configured to carry said capsule said carrier further configured to be launched and eject said capsule upon arrival at a desired aerial location, using said release mechanism; wherein prior to said ejection, said carrier is further configured to execute vertical maneuvers upwards in order to reduce said carrier's speed and change said carrier's angle thereby creating suitable conditions for said ejection; said capsule is configured to split and release said UAV upon being ejected; wherein upon ejection from said carrier said UAV is being released from said capsule to allow its unfolding; characterised in that said release mechanism is a pyrotechnic mechanism; and in that said capsule further comprises a sealing layer configured to create a sealed cavity between said pyrotechnic mechanism and said capsule thereby enabling pressure created by said pyrotechnic mechanism to eject said capsule. a capsule comprising at least two parts; a UAV configured to be encapsulated inside said capsule in a folded configuration; and an aerial carrier comprising a release mechanism, said carrier configured to carry said capsule said carrier further configured to be launched and eject said capsule upon arrival at a desired aerial location, using said release mechanism; wherein prior to said ejection, said carrier is further configured to execute vertical maneuvers upwards in order to reduce said carrier's speed and change said carrier's angle thereby creating suitable conditions for said ejection; said capsule is configured to split and release said UAV upon being ejected; wherein upon ejection from said carrier said UAV is being released from said capsule to allow its unfolding; characterised in that said release mechanism is a pyrotechnic mechanism; and in that said capsule further comprises a sealing layer configured to create a sealed cavity between said pyrotechnic mechanism and said capsule thereby enabling pressure created by said pyrotechnic mechanism to eject said capsule.
Drive system for a movable roof part of a motor vehicle roof module, with at least one support bar which is fastened laterally to the roof part , with at least one control carriage which is movable linearly via a drive means in a guide track running laterally along the roof part , with at least one deployment mechanism which pivots, raises and lowers the support bar and therefore the roof part , and with a stationary roof region arranged behind the movable roof part in the longitudinal direction of the vehicle, wherein the movable roof part is pivotable from a closed position into a ventilation position and is lowerable into an open position and is movable rearward under the roof region , wherein the support bar at the front end region thereof is mounted so as to be pivotable about a pivot joint on a compensating element which, depending on the movement position of the roof part , is shiftable relative to a front guide arrangement of the deployment mechanism into different positions, wherein the compensating element is designed as a compensating lever which is mounted on the guide arrangement so as to be pivotable about a pivot axis (S), and which comprises a control section and a compensating extension , which protrude on opposite sides relative to the pivot axis (S), wherein the compensating extension bears the pivot joint of the support bar and the control section is coupled mechanically to the control carriage , that the control carriage and the front guide arrangement are movable in a common guide track , that the front guide arrangement is assigned a latching arrangement which, depending on a movement position of the roof part and of the support bar relative to the guide track , blocks the guide arrangement or releases same for longitudinal shifting, characterized in that the latching arrangement has a latching lever which, in the locking position thereof, is supported in a form-fitting manner in a latching receptacle of the guide track , and in that the control carriage has a driver arrangement which, depending on the movement position of the roof part and of the support bar , lifts the latching lever out of the latching receptacle and carries along the latching lever , and in that the latching lever is articulated to the front guide arrangement so as to be pivotable about the pivot axis (S) of the compensating lever .
A stacked-chip image sensor , comprising: a semiconductor substrate having opposing first and second surfaces ; an array of image sensor pixels in the semiconductor substrate that are configured to receive image light through the first surface ; and control circuitry coupled to the array of image sensor pixels by a plurality of vertical conductive column interconnects that extend through the second surface , wherein the array of image sensor pixels comprises a plurality of pixel blocks , the plurality of vertical conductive interconnects comprises a plurality of vertical block interconnects , the control circuitry comprises a plurality of analog-to-digital conversion circuits, and each of the plurality of vertical block interconnects couples the image sensor pixels of a respective one of the plurality of pixel blocks to the control circuitry through the second surface , and wherein the control circuitry includes: a pixel power supply terminal ; and a plurality of switches each interposed between the pixel power supply terminal and a respective one of the vertical column interconnects . a semiconductor substrate having opposing first and second surfaces ; an array of image sensor pixels in the semiconductor substrate that are configured to receive image light through the first surface ; and control circuitry coupled to the array of image sensor pixels by a plurality of vertical conductive column interconnects that extend through the second surface , wherein the array of image sensor pixels comprises a plurality of pixel blocks , the plurality of vertical conductive interconnects comprises a plurality of vertical block interconnects , the control circuitry comprises a plurality of analog-to-digital conversion circuits, and each of the plurality of vertical block interconnects couples the image sensor pixels of a respective one of the plurality of pixel blocks to the control circuitry through the second surface , and wherein the control circuitry includes: a pixel power supply terminal ; and a plurality of switches each interposed between the pixel power supply terminal and a respective one of the vertical column interconnects . a pixel power supply terminal ; and a plurality of switches each interposed between the pixel power supply terminal and a respective one of the vertical column interconnects .