mhurhangee/ep-ind-claims huggingface dataset:
A Sagnac interferometer-type fiber-optic sensor, comprising: a phase modulator; a synchronous detection circuit to carry out synchronous detection of detected light signal with a phase modulation angular frequency of the phase modulator; a signal processing circuit to calculate and output the magnitude of current to be measured using the signal detected in the synchronous detection circuit; and a phase modulator driving circuit to control the driving of the phase modulator; wherein the signal processing circuit includes: a normalization means to calculate a reference value by dividing the amplitude of the third-order harmonics with any one amplitude of the second-, fourth- and sixth-order harmonics or the sum of amplitudes of the second- and fourth-order harmonics, in which the harmonics are obtained by carrying out the synchronous detection of the detected light signal with the phase modulation angular frequency, a compensation means to compensate the normalized reference value with a ratio between any two amplitudes of the second-, fourth- and sixth-order harmonics, and the compensated value by the compensating means is outputted as an output signal proportional to the magnitude of the current to be measured. a phase modulator; a synchronous detection circuit to carry out synchronous detection of detected light signal with a phase modulation angular frequency of the phase modulator; a signal processing circuit to calculate and output the magnitude of current to be measured using the signal detected in the synchronous detection circuit; and a phase modulator driving circuit to control the driving of the phase modulator; wherein the signal processing circuit includes: a normalization means to calculate a reference value by dividing the amplitude of the third-order harmonics with any one amplitude of the second-, fourth- and sixth-order harmonics or the sum of amplitudes of the second- and fourth-order harmonics, in which the harmonics are obtained by carrying out the synchronous detection of the detected light signal with the phase modulation angular frequency, a compensation means to compensate the normalized reference value with a ratio between any two amplitudes of the second-, fourth- and sixth-order harmonics, and the compensated value by the compensating means is outputted as an output signal proportional to the magnitude of the current to be measured. a normalization means to calculate a reference value by dividing the amplitude of the third-order harmonics with any one amplitude of the second-, fourth- and sixth-order harmonics or the sum of amplitudes of the second- and fourth-order harmonics, in which the harmonics are obtained by carrying out the synchronous detection of the detected light signal with the phase modulation angular frequency, a compensation means to compensate the normalized reference value with a ratio between any two amplitudes of the second-, fourth- and sixth-order harmonics, and the compensated value by the compensating means is outputted as an output signal proportional to the magnitude of the current to be measured.
A light-emitting device comprising: a transparent conductive oxide layer; an active layer making contact with a bottom surface of the transparent conductive oxide layer; a first conductivity type semiconductor layer making contact with a bottom surface of the active layer; a reflective electrode electrically connected to the first conductivity type semiconductor layer; and a first electrode electrically connected to the transparent conductive oxide layer, wherein the active layer has a Multiple Quantum Well structure, and is formed by stacking a plurality of well layers and a plurality of barrier layers, wherein the active layer is directly in contact with the bottom surface of the transparent conductive oxide layer, wherein a first barrier layer that constitutes the active layer is directly in contact with the bottom surface of the transparent conductive oxide layer, and characterized in that the reflective electrode is disposed under the first conductivity type semiconductor layer. a transparent conductive oxide layer; an active layer making contact with a bottom surface of the transparent conductive oxide layer; a first conductivity type semiconductor layer making contact with a bottom surface of the active layer; a reflective electrode electrically connected to the first conductivity type semiconductor layer; and a first electrode electrically connected to the transparent conductive oxide layer, wherein the active layer has a Multiple Quantum Well structure, and is formed by stacking a plurality of well layers and a plurality of barrier layers, wherein the active layer is directly in contact with the bottom surface of the transparent conductive oxide layer, wherein a first barrier layer that constitutes the active layer is directly in contact with the bottom surface of the transparent conductive oxide layer, and characterized in that the reflective electrode is disposed under the first conductivity type semiconductor layer.
A method of preparing zeolite SSZ-98, comprising: (a) preparing a reaction mixture containing: at least one source of silicon oxide; at least one source of aluminum oxide at least one source of a metal selected from Groups 1 and 2 of the Periodic Table; 1,3-dicyclohexylimidazolium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization condition sufficient to form crystals of the zeolite; wherein the at least one source of silicon oxide and aluminum oxide is zeolite Y, and wherein the zeolite is prepared from a reaction mixture comprising, in terms of mole ratios, the following: SiO 2 /Al 2 O 3 10 to 100 M/SiO 2 0.05 to 0.45 Q/SiO 2 0.10 to 0.80 OH/SiO 2 0.20 to 1.00 H 2 O/SiO 2 10 to 80 (a) preparing a reaction mixture containing: at least one source of silicon oxide; at least one source of aluminum oxide at least one source of a metal selected from Groups 1 and 2 of the Periodic Table; 1,3-dicyclohexylimidazolium cations; hydroxide ions; and water; and at least one source of silicon oxide; at least one source of aluminum oxide at least one source of a metal selected from Groups 1 and 2 of the Periodic Table; 1,3-dicyclohexylimidazolium cations; hydroxide ions; and water; and (b) subjecting the reaction mixture to crystallization condition sufficient to form crystals of the zeolite; wherein the at least one source of silicon oxide and aluminum oxide is zeolite Y, and wherein the zeolite is prepared from a reaction mixture comprising, in terms of mole ratios, the following: SiO 2 /Al 2 O 3 10 to 100 M/SiO 2 0.05 to 0.45 Q/SiO 2 0.10 to 0.80 OH/SiO 2 0.20 to 1.00 H 2 O/SiO 2 10 to 80
A method of cultivating a plant comprising a step of irradiating a plant with a red light and a step of irradiating a plant with a blue light, wherein the red light irradiation step and the blue light irradiation step are independently and separately carried out for a predetermined period of time under cultivation conditions such that far-red light is additionally irradiated concurrently either with red light at the red light irradiation step; or with blue light at the blue light irradiation step; or with red light at the red light irradiation step and blue light at the blue light irradiation step.
A computer-implemented method for displaying panoramic imagery, comprising: presenting a first view of at least a portion of the panoramic imagery at a first view angle on a viewport of a display device; receiving a user input to rotate the view of the panoramic imagery to a second view angle, wherein the second view angle is beyond one or more of a plurality of threshold view angles, wherein each of the plurality of threshold view angles is associated with a different angle of view of the panoramic imagery and is defined based on a predominate feature of interest depicted in the panoramic imagery; rotating, on the viewport of the display device, the presented view of the panoramic imagery from the first view angle to the second view angle; determining that the second view angle deviates beyond the one or more of the plurality of threshold view angles; and in response to determining that the second view angle deviates beyond the threshold view angle, and upon cessation of the user input to rotate the panoramic imagery, automatically adjusting the presented view of the panoramic imagery from the second view angle to the closest one of the one or more threshold view angles by drifting the presented view of the panoramic imagery from the second view angle back to the closest one of the one or more threshold view angles, wherein said closest one of the one or more threshold view angles provides a view of the predominate feature of interest upon which said threshold view angle is defined. presenting a first view of at least a portion of the panoramic imagery at a first view angle on a viewport of a display device; receiving a user input to rotate the view of the panoramic imagery to a second view angle, wherein the second view angle is beyond one or more of a plurality of threshold view angles, wherein each of the plurality of threshold view angles is associated with a different angle of view of the panoramic imagery and is defined based on a predominate feature of interest depicted in the panoramic imagery; rotating, on the viewport of the display device, the presented view of the panoramic imagery from the first view angle to the second view angle; determining that the second view angle deviates beyond the one or more of the plurality of threshold view angles; and in response to determining that the second view angle deviates beyond the threshold view angle, and upon cessation of the user input to rotate the panoramic imagery, automatically adjusting the presented view of the panoramic imagery from the second view angle to the closest one of the one or more threshold view angles by drifting the presented view of the panoramic imagery from the second view angle back to the closest one of the one or more threshold view angles, wherein said closest one of the one or more threshold view angles provides a view of the predominate feature of interest upon which said threshold view angle is defined.
Transponder arrangement comprising at least one first transponder with a first transponder antenna (3.1) and one second transponder with a second transponder antenna (4.1), the first transponder being fastened to a first object by a material bond, in a form-fitting and/or force-fitting manner, the second transponder being arranged on the first object so close to the first transponder that a wireless communication connection from a reading device to the two transponders (3, 4) is possible without changing the position of the reading device, characterized in that the transponder antennas (3.1, 4.1) of the two transponders (3, 4) each run in a plane in one or more turns and are oriented coaxially with respect to one another, an areal extent, a diameter and/or a longitudinal and transverse extent of one of the transponder antennas (3.4, 4.1) being 1.5 to 10 times greater than an areal extent, a diameter and/or a longitudinal and transverse extent of the other transponder antenna (4.1, 3.1).
A host device comprising at least one processor configured to implement: in a host operating system, OS, space; a teamed network interface card, NIC, software program that provides a unified interface to host OS space upper layer protocols including at least a remote direct memory access, RDMA, protocol and an Ethernet protocol, the teamed NIC software program provides multiplexing for at least two data pathways including: an RDMA data pathway that transmits communications to and from an RDMA interface of a physical NIC, the RDMA data pathway being within the host OS space; and an Ethernet data pathway that transmits communications to and from an Ethernet interface of the physical NIC through a virtual switch that is implemented in a host user space and a virtual NIC that is implemented in the host OS space, wherein the unified interface provided to the host OS space upper layer protocols by the teamed NIC software program includes a single unified media access control, MAC, address and internet protocol, IP, address that is used to transmit data with the physical NIC, and wherein the teamed NIC software program aggregates data traffic from both the RDMA data pathway and the Ethernet data pathway, and provides the aggregated traffic to the host OS space upper layer protocols through the unified interface such that the aggregated traffic appears to be originating from a same device. an RDMA data pathway that transmits communications to and from an RDMA interface of a physical NIC, the RDMA data pathway being within the host OS space; and an Ethernet data pathway that transmits communications to and from an Ethernet interface of the physical NIC through a virtual switch that is implemented in a host user space and a virtual NIC that is implemented in the host OS space, wherein the unified interface provided to the host OS space upper layer protocols by the teamed NIC software program includes a single unified media access control, MAC, address and internet protocol, IP, address that is used to transmit data with the physical NIC, and wherein the teamed NIC software program aggregates data traffic from both the RDMA data pathway and the Ethernet data pathway, and provides the aggregated traffic to the host OS space upper layer protocols through the unified interface such that the aggregated traffic appears to be originating from a same device. wherein the unified interface provided to the host OS space upper layer protocols by the teamed NIC software program includes a single unified media access control, MAC, address and internet protocol, IP, address that is used to transmit data with the physical NIC, and wherein the teamed NIC software program aggregates data traffic from both the RDMA data pathway and the Ethernet data pathway, and provides the aggregated traffic to the host OS space upper layer protocols through the unified interface such that the aggregated traffic appears to be originating from a same device.
A system (115, 118; 125, 128; 135, 138; 200) enabling alignment of a terminal truck (110; 120; 130) relative to a gantry crane (101-108, 150, 151), said terminal truck (110; 120; 130) comprising a tractor (111; 121; 131) and a trailer (112; 122; 132) holding at least one container (113; 123, 124; 133) to be picked up by said crane (101-108, 150, 151), said system (115, 118; 125, 128; 135, 138; 200) comprising: - a position determination unit (211, 212) configured to determine a tractor position for said tractor (111; 121; 131) relative to said crane (101-108, 150, 151); characterised by: - a receiver (221, 222) with connectivity to an external system, said receiver (221, 222) being configured to receive from said external system container information indicative for the size of said at least one container (113; 123, 124; 133); - a distance measurement unit (213, 214) configured to measure a distance (117; 127; 137) between a reference point, line or plane (116; 126; 136) at said tractor (111; 121; 131) and a front surface of said at least one container (113; 123, 124; 133) based on reflective technology; and - a computing unit coupled to said position determination unit (211, 212), said receiver (221, 222) and said distance measurement unit (213, 214), said computing unit being configured to collect said tractor position, said container information, and said distance, and further being configured to generate therefrom driving instructions to enable positioning said at least one container (113; 123, 124; 133) in a predetermined aligned position relative to said crane (101-108, 150, 151). - a position determination unit (211, 212) configured to determine a tractor position for said tractor (111; 121; 131) relative to said crane (101-108, 150, 151); characterised by: - a receiver (221, 222) with connectivity to an external system, said receiver (221, 222) being configured to receive from said external system container information indicative for the size of said at least one container (113; 123, 124; 133); - a distance measurement unit (213, 214) configured to measure a distance (117; 127; 137) between a reference point, line or plane (116; 126; 136) at said tractor (111; 121; 131) and a front surface of said at least one container (113; 123, 124; 133) based on reflective technology; and - a computing unit coupled to said position determination unit (211, 212), said receiver (221, 222) and said distance measurement unit (213, 214), said computing unit being configured to collect said tractor position, said container information, and said distance, and further being configured to generate therefrom driving instructions to enable positioning said at least one container (113; 123, 124; 133) in a predetermined aligned position relative to said crane (101-108, 150, 151).
A security document having at least one security element comprising a structuring, said security document comprising a support on which a fluid layer is applied for at least smoothing the surface of the support in at least the surface extension of said security element, such that at least on portions thereof an adhesive layer and a metallic layer applied thereon are provided together with a protective layer covering said metallic layer, with the structuring being added at least to the metallic layer and the structuring forming the security element, with the protective layer extending at least over said structuring, characterised in that said protective layer is applied in the form of a varnish layer.
A temperature control device, comprising: a temperature estimation component configured tc estimate the temperature of a temperature controlled target to which heat is propagated by supplying power to a heater; a duty generation component configured to generate a duty value based on a temperature estimation result by the temperature estimation component, a temperature detection result of the temperature controlled target by a temperature sensor, and a target temperature; and a signal generation component configured to output an energization pulse to control the power supplied to the heater based on the duty value, characterised in that the temperature estimation component is further configured to estimate the temperature of the temperature controlled target based on the duty value. a temperature estimation component configured tc estimate the temperature of a temperature controlled target to which heat is propagated by supplying power to a heater; a duty generation component configured to generate a duty value based on a temperature estimation result by the temperature estimation component, a temperature detection result of the temperature controlled target by a temperature sensor, and a target temperature; and a signal generation component configured to output an energization pulse to control the power supplied to the heater based on the duty value, characterised in that the temperature estimation component is further configured to estimate the temperature of the temperature controlled target based on the duty value.
A method of forming a silicon nitride film onto at least a surface of a substrate, the method comprising a. providing a substrate in a reactor; b. introducing into the reactor a cyclodisilazane precursor selected from1,3-bis(tert-butyl)cyclodisilazane and 1,3-bis(tert-butyl)-2-methylcyclodisilazane and combinations thereof, wherein the at least one cyclodisilazane reacts on at least a portion of the surface of the substrate to provide a chemisorbed layer; c. purging the reactor with a purge gas; d. introducing a plasma containing source and an inert gas into the reactor to react with at least a portion of the chemisorbed layer and provide at least one reactive site wherein the plasma is generated at a power density ranging from 0.01 to 1.5 W/cm 2; and e. optionally purging the reactor with an inert gas; and wherein the steps b through e are repeated until a desired thickness of the silicon nitride film is obtained. a. providing a substrate in a reactor; b. introducing into the reactor a cyclodisilazane precursor selected from1,3-bis(tert-butyl)cyclodisilazane and 1,3-bis(tert-butyl)-2-methylcyclodisilazane and combinations thereof, wherein the at least one cyclodisilazane reacts on at least a portion of the surface of the substrate to provide a chemisorbed layer; c. purging the reactor with a purge gas; d. introducing a plasma containing source and an inert gas into the reactor to react with at least a portion of the chemisorbed layer and provide at least one reactive site wherein the plasma is generated at a power density ranging from 0.01 to 1.5 W/cm 2; and e. optionally purging the reactor with an inert gas; and wherein the steps b through e are repeated until a desired thickness of the silicon nitride film is obtained.
Antenna assembly comprising: - an insulating support comprising a first side and a second side facing away from said first side; - a first antenna comprising a first layer arranged on said first side and a second layer arranged on said second side, at least one of said first layer and said second layer comprising a first feed connection for connecting said first antenna to a first signal source, at least one of said first layer and said second layer comprising a short connection for connecting said first antenna to a reference potential, said first layer and said second layer being conductively connected to each other; - a second antenna comprising a second feed connection; and - a transmission line arranged at least partly on said first side across said first layer for connecting said second feed connection of said second antenna to a second signal source, said transmission line extending across said short connection of said first antenna, wherein said first layer comprises a first portion and a second portion separated from said first portion and wherein said transmission line extends between said first portion and said second portion. - an insulating support comprising a first side and a second side facing away from said first side; - a first antenna comprising a first layer arranged on said first side and a second layer arranged on said second side, at least one of said first layer and said second layer comprising a first feed connection for connecting said first antenna to a first signal source, at least one of said first layer and said second layer comprising a short connection for connecting said first antenna to a reference potential, said first layer and said second layer being conductively connected to each other; - a second antenna comprising a second feed connection; and - a transmission line arranged at least partly on said first side across said first layer for connecting said second feed connection of said second antenna to a second signal source, said transmission line extending across said short connection of said first antenna, wherein said first layer comprises a first portion and a second portion separated from said first portion and wherein said transmission line extends between said first portion and said second portion.
Connecting means (2, 9) for providing a form-fitting and/or a force-fitting connection between at least two connecting partners (3, 4), wherein the connecting means (2, 9) has at least one first region which is designed to engage with the first connecting partner by way of a form fit and/or a force fit, and at least one second region is provided which is designed to engage with the at least second connecting partner by way of a form fit and/or a force fit, characterized in that at least the second region of the connecting means has a region which is formed from an at least partially flat material composed of an iron alloy with shape memory characteristics and which, when activated, ensures the form fit and/or force fit with the second connecting partner by way of a change in shape, the second region has a shaped metal sheet with a longitudinal slot and composed of a shape-memory alloy and the shaped metal sheet is at least partially slotted in the transverse direction.