mhurhangee/patent-ind-claim-en huggingface dataset:
Optical sensor arrangement, comprising: - an optical sensor comprising an integrated circuit arranged in or on a substrate , wherein the substrate comprises a main surface divided into a first surface area and a second surface area , - at least one optically active sensor component arranged on or in the substrate of the first surface area , wherein the optically active sensor component is arranged for emitting and/or detecting light of a desired wavelength range, - optically inactive sensor circuitry arranged on or in the substrate of the second surface area , - a display panel comprising an active display area and a non-active display area , wherein the non-active display area comprises a material which is optically transparent in the desired wavelength range and at least partly frames the active display area ; the sensor arrangement being characterised in that - the optical sensor and the display panel are stacked such that, with respect to a main direction of display emission defined by a surface normal of the display panel and perpendicular to the active display area , in a top view along the direction defined by the surface normal, the optically inactive sensor circuitry component is arranged below the active display area and the optically active sensor component is arranged below the non-active display area. - an optical sensor comprising an integrated circuit arranged in or on a substrate , wherein the substrate comprises a main surface divided into a first surface area and a second surface area , - at least one optically active sensor component arranged on or in the substrate of the first surface area , wherein the optically active sensor component is arranged for emitting and/or detecting light of a desired wavelength range, - optically inactive sensor circuitry arranged on or in the substrate of the second surface area , - a display panel comprising an active display area and a non-active display area , wherein the non-active display area comprises a material which is optically transparent in the desired wavelength range and at least partly frames the active display area ; the sensor arrangement being characterised in that - the optical sensor and the display panel are stacked such that, with respect to a main direction of display emission defined by a surface normal of the display panel and perpendicular to the active display area , in a top view along the direction defined by the surface normal, the optically inactive sensor circuitry component is arranged below the active display area and the optically active sensor component is arranged below the non-active display area.
A composition comprising: at least one PIE12-2 D-peptide comprising SEQ ID NO:3 [Ac-HPCDYPEWQWLCELG-(PEG 4 )-K-NH 2 ], wherein the at least one PIE12-2 D-peptide interacts with the N-trimer pocket of HIV gp41; at least two PIE12-2 D-peptides comprising SEQ ID NO:3 [Ac-HPCDYPEWQWLCELG-(PEG 4 )-K-NH 2 ]; wherein the at least two PIE12-2 D-peptides interact with the N-trimer pocket of HIV gp41; or at least three PIE12-2 D-peptides comprising SEQ ID NO:3 [Ac-HPCDYPEWQWLCELG-(PEG 4 )-K-NH 2 ]; wherein the at least three PIE12-2 D-peptides interact with the N-trimer pocket of HIV gp41. at least one PIE12-2 D-peptide comprising SEQ ID NO:3 [Ac-HPCDYPEWQWLCELG-(PEG 4 )-K-NH 2 ], wherein the at least one PIE12-2 D-peptide interacts with the N-trimer pocket of HIV gp41; at least two PIE12-2 D-peptides comprising SEQ ID NO:3 [Ac-HPCDYPEWQWLCELG-(PEG 4 )-K-NH 2 ]; wherein the at least two PIE12-2 D-peptides interact with the N-trimer pocket of HIV gp41; or at least three PIE12-2 D-peptides comprising SEQ ID NO:3 [Ac-HPCDYPEWQWLCELG-(PEG 4 )-K-NH 2 ]; wherein the at least three PIE12-2 D-peptides interact with the N-trimer pocket of HIV gp41.
Method for preparing a material having a reduced chromium(VI) content, comprising the step consisting in bringing the material into contact with an appropriate quantity of an additive in the form of an aqueous solution having a pH of between 1 and 5, comprising a combination of iron(II) and a polysaccharide or one of the salts thereof, in which the additive in the form of an aqueous solution is obtained by introducing polysaccharide or one of the salts thereof into an iron(II) salt solution.
A high pressure heat treatment apparatus , the apparatus comprising: an internal chamber accommodating an object to be heat-treated; an external chamber including a housing and a partition plate partitioning the housing into a high-temperature zone accommodating the internal chamber and a low-temperature zone having a lower temperature than the high-temperature zone, the partition plate including a discharge hole for allowing the high-temperature zone and the low-temperature zone to communicate with each other; a gas supply module configured to supply a process gas for the heat treatment to the internal chamber at a first pressure higher than that of the atmosphere, and supply a protective gas to the external chamber at a second pressure set in relation to the first pressure; and a discharge module configured to open the discharge hole to discharge the protective gas in the high-temperature zone to the low-temperature zone. an internal chamber accommodating an object to be heat-treated; an external chamber including a housing and a partition plate partitioning the housing into a high-temperature zone accommodating the internal chamber and a low-temperature zone having a lower temperature than the high-temperature zone, the partition plate including a discharge hole for allowing the high-temperature zone and the low-temperature zone to communicate with each other; a gas supply module configured to supply a process gas for the heat treatment to the internal chamber at a first pressure higher than that of the atmosphere, and supply a protective gas to the external chamber at a second pressure set in relation to the first pressure; and a discharge module configured to open the discharge hole to discharge the protective gas in the high-temperature zone to the low-temperature zone.
A method of transmission control at a user equipment, comprising: receiving , at a non-access stratum protocol layer, a packet including a reliability request from an application; determining , at the user equipment, if the application is authorized to make the reliability request; in response to determining the application is authorized to make the reliability request, performing one of: sending the packet including the reliability request to an access stratum protocol layer; or sending the packet with a modified reliability request to a second protocol layer; and transmitting the packet via a vehicle-to-everything, V2X, communication channel. receiving , at a non-access stratum protocol layer, a packet including a reliability request from an application; determining , at the user equipment, if the application is authorized to make the reliability request; in response to determining the application is authorized to make the reliability request, performing one of: sending the packet including the reliability request to an access stratum protocol layer; or sending the packet with a modified reliability request to a second protocol layer; and sending the packet including the reliability request to an access stratum protocol layer; or sending the packet with a modified reliability request to a second protocol layer; and transmitting the packet via a vehicle-to-everything, V2X, communication channel.
A liquid ejection apparatus including a plurality of liquid ejection head units that are configured to eject liquid onto a conveyed object being conveyed, the liquid ejection apparatus comprising: a roller for conveying the conveyed object at a speed (V) in a conveying direction; a plurality of detection units (SENK, SENC, SENM, SENY), wherein each one of the plurality of detection units (SENK, SENC, SENM, SENY) is provided with respect to one of the plurality of liquid ejection head units and is configured to detect a pattern on the object at a sensor installation position; and a control unit configured to control the plurality of liquid ejection head units to eject liquid at a timing based on a plurality of the detection results of a plurality of the detection units (SENK, SENC, SENM, SENY), wherein each of the landing points of the plurality of the liquid ejection head unit is located downstream relative to the sensor installation position of the detection units (SENK, SENC, SENM, SENY) which output the detection result, characterized in that the control unit is configured to determine a position of the conveyed object based on a first detection result of a first detection unit which is one of the plurality of detections units (SENK, SENC, SENM) and a second detection result of a second detection unit (SENC, SENM, SENY) which is located downstream of the first detection unit and to determine the timing of liquid ejection of the liquid ejection head unit corresponding to the second detection unit based on the determined position of the object. a roller for conveying the conveyed object at a speed (V) in a conveying direction; a plurality of detection units (SENK, SENC, SENM, SENY), wherein each one of the plurality of detection units (SENK, SENC, SENM, SENY) is provided with respect to one of the plurality of liquid ejection head units and is configured to detect a pattern on the object at a sensor installation position; and a control unit configured to control the plurality of liquid ejection head units to eject liquid at a timing based on a plurality of the detection results of a plurality of the detection units (SENK, SENC, SENM, SENY), wherein each of the landing points of the plurality of the liquid ejection head unit is located downstream relative to the sensor installation position of the detection units (SENK, SENC, SENM, SENY) which output the detection result, characterized in that the control unit is configured to determine a position of the conveyed object based on a first detection result of a first detection unit which is one of the plurality of detections units (SENK, SENC, SENM) and a second detection result of a second detection unit (SENC, SENM, SENY) which is located downstream of the first detection unit and to determine the timing of liquid ejection of the liquid ejection head unit corresponding to the second detection unit based on the determined position of the object.
Optical fiber connector assembly for a fiber optic cable comprising an optical fiber having an end portion terminated with a ferrule , the optical fiber connector assembly comprising: - a sleeve configured to at least partially house the end portion of the optical fiber terminated with the ferrule ; - a connector comprising a body extending lengthwise and having an internal passageway for the sleeve , the body having a distal portion configured to house the sleeve and to mate with a corresponding receptacle, and a proximal portion configured to be coupled to an end portion of the fiber optic cable , the proximal portion having on its lateral surface at least one aperture ; - a crimping element adapted to be disposed about the proximal portion so as to couple the proximal portion of the body to the end portion of the fiber optic cable at said at least one aperture . - a sleeve configured to at least partially house the end portion of the optical fiber terminated with the ferrule ; - a connector comprising a body extending lengthwise and having an internal passageway for the sleeve , the body having a distal portion configured to house the sleeve and to mate with a corresponding receptacle, and a proximal portion configured to be coupled to an end portion of the fiber optic cable , the proximal portion having on its lateral surface at least one aperture ; - a crimping element adapted to be disposed about the proximal portion so as to couple the proximal portion of the body to the end portion of the fiber optic cable at said at least one aperture .
An article of footwear having an upper and a sole structure secured to the upper, the upper including a knitted component comprising: a knit element including a first yarn , the knit element defining a portion of an exterior surface of the upper and an opposite interior surface of the upper, the interior surface defining a void for receiving a foot, the first yarn being a natural or synthetic twisted fiber yarn; and at least one monofilament area comprised of two knit layers, the two knit layers being overlapping and at least partially coextensive with each other, each knit layer including a monofilament strand ; wherein the at least one monofilament area is formed of unitary knit construction with the knit element such that the knitted component is a one-piece element, wherein at least one course formed of the monofilament strand is substantially continuous with at least one course formed of the first yarn , wherein the article of footwear is characterized in that the first yarn has a smaller stretch-resistance than the monofilament strand , and wherein the at least one monofilament area is surrounded by remaining portions of the knitted component so as to place the at least one monofilament area under tension. a knit element including a first yarn , the knit element defining a portion of an exterior surface of the upper and an opposite interior surface of the upper, the interior surface defining a void for receiving a foot, the first yarn being a natural or synthetic twisted fiber yarn; and at least one monofilament area comprised of two knit layers, the two knit layers being overlapping and at least partially coextensive with each other, each knit layer including a monofilament strand ; wherein the at least one monofilament area is formed of unitary knit construction with the knit element such that the knitted component is a one-piece element, wherein at least one course formed of the monofilament strand is substantially continuous with at least one course formed of the first yarn , wherein the article of footwear is characterized in that the first yarn has a smaller stretch-resistance than the monofilament strand , and wherein the at least one monofilament area is surrounded by remaining portions of the knitted component so as to place the at least one monofilament area under tension.
A valve comprising: a housing provided with a plurality of housing openings ; an actuating device comprising an actuator and an actuating shaft connected to the actuator, so that the actuator can actuate the actuating shaft to rotate; a plurality of groups of valve body elements disposed in the housing and capable of rotating in the housing; a plurality of sealing elements , each of which is disposed between each of the plurality of housing openings and a corresponding one of the one or plurality of valve body elements ; and a plurality of engaging and disengaging structures , the actuating shaft being configured to selectively engage with or disengage from at least one group of valve body elements in the plurality of groups of valve body elements through at least one of the plurality of engaging and disengaging structures; wherein the valve is provided with a plurality of fluid passages therein, and the actuated at least one group of valve body elements can connect or disconnect at least one of the plurality of fluid passages; characterized in that the actuating shaft is configured to selectively actuate a first group of valve body elements in the plurality of groups of valve body elements to rotate about a first rotation axis and a second group of valve body elements in the plurality of groups of valve body elements to rotate about a second rotation axis . a housing provided with a plurality of housing openings ; an actuating device comprising an actuator and an actuating shaft connected to the actuator, so that the actuator can actuate the actuating shaft to rotate; a plurality of groups of valve body elements disposed in the housing and capable of rotating in the housing; a plurality of sealing elements , each of which is disposed between each of the plurality of housing openings and a corresponding one of the one or plurality of valve body elements ; and a plurality of engaging and disengaging structures , the actuating shaft being configured to selectively engage with or disengage from at least one group of valve body elements in the plurality of groups of valve body elements through at least one of the plurality of engaging and disengaging structures; wherein the valve is provided with a plurality of fluid passages therein, and the actuated at least one group of valve body elements can connect or disconnect at least one of the plurality of fluid passages;
Method of performing subsurface imaging of one or more embedded structures in a substrate underneath a substrate surface, the method comprising the steps of: applying, using a signal application actuator, an acoustic input signal to the substrate; detecting, using a vibration sensor, within a detection depth below the substrate surface, a return signal from the substrate; and analyzing the return signal for obtaining information on the embedded structures, for enabling imaging thereof; wherein the step of applying the acoustic input signal comprises applying a discontinuous signal of an acoustic signal component to the substrate, wherein the discontinuous signal is of a limited time duration that is controlled by a controller such that the time duration is shorter than the detection depth divided by a speed of sound of a material of the substrate, and wherein the acoustic signal component has a frequency above 1 gigahertz, such that the return signal includes a scattered fraction of the discontinuous signal scattered from the embedded structures. applying, using a signal application actuator, an acoustic input signal to the substrate; detecting, using a vibration sensor, within a detection depth below the substrate surface, a return signal from the substrate; and analyzing the return signal for obtaining information on the embedded structures, for enabling imaging thereof; wherein the step of applying the acoustic input signal comprises applying a discontinuous signal of an acoustic signal component to the substrate, wherein the discontinuous signal is of a limited time duration that is controlled by a controller such that the time duration is shorter than the detection depth divided by a speed of sound of a material of the substrate, and wherein the acoustic signal component has a frequency above 1 gigahertz, such that the return signal includes a scattered fraction of the discontinuous signal scattered from the embedded structures.
A method for differentiation of pluripotent stem cells into definitive endoderm comprising the steps of: a. first priming step of incubating the pluripotent stem cells in a medium comprising at least 2 μM CHIR, wherein activin A is not present during said priming step; and b. second subsequent step of incubating the pluripotent stem cells in a medium comprising activin A, wherein the concentration of Activin A is at least 25 ng/ml. a. first priming step of incubating the pluripotent stem cells in a medium comprising at least 2 μM CHIR, wherein activin A is not present during said priming step; and b. second subsequent step of incubating the pluripotent stem cells in a medium comprising activin A, wherein the concentration of Activin A is at least 25 ng/ml.
A method for the estimation of subsurface temperature distributions for oil and gas exploration from a 3-dimensional heat conductivity model for a geological formation comprising the following steps: a). obtain measured data corresponding to a geological subsurface formation of interest comprising: seismic survey data; in-well temperature measurements, or seafloor or surface heat flux measurements; and laboratory-based measurements of core porosity, b). provide a heat conductivity model by estimating a relationship between seismic velocity and heat conductivity, wherein seismic velocity is linearly dependent on porosity and heat conductivity is exponentially or linearly dependent on porosity, c). calibrate said heat conductivity model to said measured in-well temperature data, or seafloor or surface heat flux data, and said laboratory-based measurements of core porosity, and d). use said calibrated heat conductivity model to estimate subsurface temperature distributions, and then e). use the estimated subsurface temperature distributions to perform exploration for oil and gas. a). obtain measured data corresponding to a geological subsurface formation of interest comprising: seismic survey data; in-well temperature measurements, or seafloor or surface heat flux measurements; and laboratory-based measurements of core porosity, b). provide a heat conductivity model by estimating a relationship between seismic velocity and heat conductivity, wherein seismic velocity is linearly dependent on porosity and heat conductivity is exponentially or linearly dependent on porosity, c). calibrate said heat conductivity model to said measured in-well temperature data, or seafloor or surface heat flux data, and said laboratory-based measurements of core porosity, and d). use said calibrated heat conductivity model to estimate subsurface temperature distributions, and then e). use the estimated subsurface temperature distributions to perform exploration for oil and gas.
Method for generating a polyphase alternating current, in particular a three-phase alternating current, by interconnecting a plurality of DC voltage sources , having at least the following method steps: - providing a configurable DC voltage string for each phase (L1, L2, L3) of the polyphase alternating current, wherein each configurable DC voltage string is formed from a plurality of the DC voltage sources which can be interconnected in a configurable series circuit; - arranging the configurable DC voltage strings in a polygon circuit, in particular in a delta circuit; - configuring the configurable DC voltage strings such that the polyphase alternating current is provided and a zero phase-sequence system current is also formed for charge equalization between the configurable DC voltage strings , characterized by at least the following further process step: - providing a neutral grounding transformer for the purpose of achieving a common neutral point (N) of all configurable DC voltage strings , wherein a q component of the zero phase-sequence system current is minimized and/or a target value of a d component of the zero phase-sequence system current is determined taking into account a charge difference between the DC voltage sources of the DC voltage strings . - providing a configurable DC voltage string for each phase (L1, L2, L3) of the polyphase alternating current, wherein each configurable DC voltage string is formed from a plurality of the DC voltage sources which can be interconnected in a configurable series circuit; - arranging the configurable DC voltage strings in a polygon circuit, in particular in a delta circuit; - configuring the configurable DC voltage strings such that the polyphase alternating current is provided and a zero phase-sequence system current is also formed for charge equalization between the configurable DC voltage strings , at least the following further process step: - providing a neutral grounding transformer for the purpose of achieving a common neutral point (N) of all configurable DC voltage strings , - providing a neutral grounding transformer for the purpose of achieving a common neutral point (N) of all configurable DC voltage strings , wherein a q component of the zero phase-sequence system current is minimized and/or a target value of a d component of the zero phase-sequence system current is determined taking into account a charge difference between the DC voltage sources of the DC voltage strings .
A composition for use in treating or preventing an infection of an ectoparasitic crustacean on a fish, comprising: an effective concentration of nootkatone; and an additive. an effective concentration of nootkatone; and an additive.