mhurhangee/ep-ind-claims huggingface dataset:
A method for controlling light output emitted by light sources of a set of light sources, wherein the method comprises driving said set of light sources with respective drive signals each of which comprising a respective power signal and a respective individual modulation signal, whereby each of the light sources outputs a respective light output signal carrying respective individual information about the respective light sources in the set of light sources, the method comprising recurrently: - remotely detecting the light output emitted by the light sources of said set of light sources at a remote detection device, characterized in that the method further comprises for each light source in the set of light sources the steps of: - determining at least one quality measure of the respective light output signal from the remotely detected light output emitted by light sources of a set of light sources, wherein the quality measure is a link performance parameter that is related to a number of incorrectly extracted bits in the individual information of the light output signal of the respective light source at the remote detection device; and - adjusting the individual modulation signal of the respective light source on basis of said at least one quality measure, wherein adjusting the individual modulation signal of the respective light source comprises adjusting at least one of a modulation depth, a frequency, an amplitude, and a data rate of the individual modulation signal of the respective light source, and - adjusting the power signal of the respective light source depending on the adjustment of the individual modulation signal so as to maintain a desired light intensity level of the light output as emitted by the light sources of the set of light sources at a position of the remote detection device. - remotely detecting the light output emitted by the light sources of said set of light sources at a remote detection device, - determining at least one quality measure of the respective light output signal from the remotely detected light output emitted by light sources of a set of light sources, wherein the quality measure is a link performance parameter that is related to a number of incorrectly extracted bits in the individual information of the light output signal of the respective light source at the remote detection device; and - adjusting the individual modulation signal of the respective light source on basis of said at least one quality measure, wherein adjusting the individual modulation signal of the respective light source comprises adjusting at least one of a modulation depth, a frequency, an amplitude, and a data rate of the individual modulation signal of the respective light source, and - adjusting the power signal of the respective light source depending on the adjustment of the individual modulation signal so as to maintain a desired light intensity level of the light output as emitted by the light sources of the set of light sources at a position of the remote detection device.
A lighting device comprising: - a wavelength converting layer having a curved shape, and - a light source arranged to emit light towards the wavelength converting layer, characterized in that the wavelength converting layer intersects a plane extending through the light source and being parallel with the optical axis of the light source, at a curve given, in a polar coordinate system centered at the light source, by the equation: R φ = k ⋅ cos φ 1 / 2 ± D, wherein k is a constant, φ is an angle with respect to said optical axis, cos(φ) defines a luminous intensity profile of the light source and D is a deviation ranging from zero to 20% of the maximum value of said curve, R max. - a wavelength converting layer having a curved shape, and - a light source arranged to emit light towards the wavelength converting layer, characterized in that the wavelength converting layer intersects a plane extending through the light source and being parallel with the optical axis of the light source, at a curve given, in a polar coordinate system centered at the light source, by the equation: R φ = k ⋅ cos φ 1 / 2 ± D, wherein k is a constant, φ is an angle with respect to said optical axis, cos(φ) defines a luminous intensity profile of the light source and D is a deviation ranging from zero to 20% of the maximum value of said curve, R max.
A method that causes a terminal to execute a display control process, the method comprising: generating a number of identification information corresponding to a number of object information to be displayed in a display area of a display unit; displaying the object information, and the identification information corresponding to the object information; detecting object information that is selected to be displayed in the display area; and determining whether relationship information is associated with the detected object information by referring to a storage unit, the storage unit storing the relationship information that associates the object information with the identification information; wherein when the relationship information corresponding to the detected object information is stored in the storage unit, the detected object information is displayed in association with the identification information associated with the detected object information; wherein when the relationship information corresponding to the detected object information is not stored in the storage unit, the relationship information that associates the detected object information with the identification information is generated and stored in the storage unit; wherein when the detected object information disappears from the display area, the relationship information corresponding to the detected object information is erased from the storage unit at a predetermined timing after the detected object information disappears from the display area. generating a number of identification information corresponding to a number of object information to be displayed in a display area of a display unit; displaying the object information, and the identification information corresponding to the object information; detecting object information that is selected to be displayed in the display area; and determining whether relationship information is associated with the detected object information by referring to a storage unit, the storage unit storing the relationship information that associates the object information with the identification information; wherein when the relationship information corresponding to the detected object information is stored in the storage unit, the detected object information is displayed in association with the identification information associated with the detected object information; wherein when the relationship information corresponding to the detected object information is not stored in the storage unit, the relationship information that associates the detected object information with the identification information is generated and stored in the storage unit; wherein when the detected object information disappears from the display area, the relationship information corresponding to the detected object information is erased from the storage unit at a predetermined timing after the detected object information disappears from the display area.
A ventilator comprising a gas routing module and a coupler for the gas routing module. the coupler comprising: a coupler body with a plurality of pneumatic channels (2302-1-GC, 2302-2-GC), first and second port connectors (2302-1, 2302-2), the first and second port connectors configured on the coupler body for connection to first and second ports (244, 246) of the ventilator at a ventilator connection end of the coupler body; first and second conduits (2306, 2308) the first and second conduits integrated with the coupler body and configured as the pneumatic channels linked to the first and second port connectors respectively; and an alignment protuberant of the coupler body, the alignment protuberant configured to limit orientation of the first and second port connectors to only one connection configuration with the ventilator; characterized in that the alignment protuberant comprises a connection ring to enforce proper alignment of the first and second port connectors (2302-1, 2302-2) and the first and second ports (244, 246), the connection ring forming an inner cylindrical chamber; and wherein the first port connector is formed in an offset position within an interior portion of the cylindrical chamber. a coupler body with a plurality of pneumatic channels (2302-1-GC, 2302-2-GC), first and second port connectors (2302-1, 2302-2), the first and second port connectors configured on the coupler body for connection to first and second ports (244, 246) of the ventilator at a ventilator connection end of the coupler body; first and second conduits (2306, 2308) the first and second conduits integrated with the coupler body and configured as the pneumatic channels linked to the first and second port connectors respectively; and an alignment protuberant of the coupler body, the alignment protuberant configured to limit orientation of the first and second port connectors to only one connection configuration with the ventilator; characterized in that the alignment protuberant comprises a connection ring to enforce proper alignment of the first and second port connectors (2302-1, 2302-2) and the first and second ports (244, 246), the connection ring forming an inner cylindrical chamber; and wherein the first port connector is formed in an offset position within an interior portion of the cylindrical chamber.
Neural network system, comprising: - a first electronic calculation module for calculating an output from a first neuron by means of an activation function (φ) in a binary data format in the two's complement format having a first bit range having a most significant bit for indicating that the value of the activation function (φ) is zero, and a second bit range for encoding a positive value of the activation function (φ); and - a second electronic calculation module for calculating the output from a second neuron on the basis of the output from the first neuron by omitting a multiplication and accumulation of the output from the first neuron if the data format indicates that the value of the activation function (φ) is zero. - a first electronic calculation module for calculating an output from a first neuron by means of an activation function (φ) in a binary data format in the two's complement format having a first bit range having a most significant bit for indicating that the value of the activation function (φ) is zero, and a second bit range for encoding a positive value of the activation function (φ); and - a second electronic calculation module for calculating the output from a second neuron on the basis of the output from the first neuron by omitting a multiplication and accumulation of the output from the first neuron if the data format indicates that the value of the activation function (φ) is zero.
A method implemented in a base station used in a wireless communications system, comprising: transmitting to a user equipment, UE, one or more channel quality indicator, CQI, reference signals (115, 120) in a subframe comprising OFDM symbols; and receiving from the user equipment a report determined according to said one or more CQI reference signals (115, 120), wherein the CQI reference signal transmission is repeated at a CQI reference signal transmission period, characterized in that a subframe offset relative to subframe 0 is provided within a frame for the CQI reference signal transmission, wherein the CQI reference signal is transmitted in the last OFDM symbol in the subframe to avoid collision with a Cell-specific Reference Signal, CRS, for 3GPP Release 8, a Dedicated Reference Signal, DRS, for 3GPP Release 8, a Physical Broadcast CHannel, PBCH, and a synchronization signal which are located in other OFDM symbols different from the last OFDM symbol in the subframe. transmitting to a user equipment, UE, one or more channel quality indicator, CQI, reference signals (115, 120) in a subframe comprising OFDM symbols; and receiving from the user equipment a report determined according to said one or more CQI reference signals (115, 120), wherein the CQI reference signal transmission is repeated at a CQI reference signal transmission period, characterized in that a subframe offset relative to subframe 0 is provided within a frame for the CQI reference signal transmission, wherein the CQI reference signal is transmitted in the last OFDM symbol in the subframe to avoid collision with a Cell-specific Reference Signal, CRS, for 3GPP Release 8, a Dedicated Reference Signal, DRS, for 3GPP Release 8, a Physical Broadcast CHannel, PBCH, and a synchronization signal which are located in other OFDM symbols different from the last OFDM symbol in the subframe.
A method comprising: determining via a processor whether to reassign a mobile device from a first base station to a second base station, wherein the second base station is one of a plurality of base stations whose operational performance may be impacted by reassigning the mobile device to the second base station, wherein the determining includes: evaluating for each of the plurality of base stations an expected performance that would result from assigning the mobile device to the second base station; and reassigning the mobile device to the second base station in response to the expected performance of each of the plurality of base stations meeting operational performance requirements. determining via a processor whether to reassign a mobile device from a first base station to a second base station, wherein the second base station is one of a plurality of base stations whose operational performance may be impacted by reassigning the mobile device to the second base station, wherein the determining includes: evaluating for each of the plurality of base stations an expected performance that would result from assigning the mobile device to the second base station; and reassigning the mobile device to the second base station in response to the expected performance of each of the plurality of base stations meeting operational performance requirements. evaluating for each of the plurality of base stations an expected performance that would result from assigning the mobile device to the second base station; and reassigning the mobile device to the second base station in response to the expected performance of each of the plurality of base stations meeting operational performance requirements.
A computerized system for mapping an orchard, comprising: a) one or more anchor units comprising a marker; b) a flying unit equipped with a camera adapted for taking a plurality of photographs of a predetermined zone; and c) a mapping unit comprising a processor and memory adapted for receiving said plurality of photographs and: i) adapted for visually identifying one or more markers of anchor units in said photographs and their geographic location; and ii) adapted for mapping trees identified in said photographs in relation to the location of identified one or more anchor units; wherein one or more anchor units are positioned at a specific target point within said predetermined zone, characterized in that each one of said one or more anchor units further comprises a positioning unit. a) one or more anchor units comprising a marker; b) a flying unit equipped with a camera adapted for taking a plurality of photographs of a predetermined zone; and c) a mapping unit comprising a processor and memory adapted for receiving said plurality of photographs and: i) adapted for visually identifying one or more markers of anchor units in said photographs and their geographic location; and ii) adapted for mapping trees identified in said photographs in relation to the location of identified one or more anchor units; i) adapted for visually identifying one or more markers of anchor units in said photographs and their geographic location; and ii) adapted for mapping trees identified in said photographs in relation to the location of identified one or more anchor units;
A golf ball comprising a golf ball body and a paint film formed on a surface of the golf ball body, characterized in that the paint film has a storage modulus (E') in a temperature range from 120°C to 150°C, measured using a dynamic viscoelasticity measuring apparatus, of 1.00 x10 7 dyn/cm 2 or more and 1.00 x 10 8 dyn/cm 2 or less, and a loss tangent (tan δ) at the temperature of 10°C of 0.050 or more, the storage modulus (E') being measured under the following measurement conditions: Measuring mode: tensile mode; Measuring temperature: -50°C to 150°C; Temperature increase rate: 4°C/min; Oscillation frequency: 10 Hz; Measuring strain: 0.1 %. Measuring mode: tensile mode; Measuring temperature: -50°C to 150°C; Temperature increase rate: 4°C/min; Oscillation frequency: 10 Hz; Measuring strain: 0.1 %.
A medical table structure comprising an apparatus for monitoring a load applied to said medical table structure, the medical table structure including a head rest, a patient support and a motor mechanism for positioning the patient support, the apparatus comprising: a base member, said base member being linked to the medical table structure and the patient support, said base member comprising a plate; at least one strain gauge (60, 62, 64, 66) connected to the medical table structure, said one strain gauge detecting a load imposed on the patient support and generating an output signal representing the quantity of said load; a controller, said controller receiving said output signal from said at least one strain gauge (60, 62, 64, 66) and determining the functioning of the motor mechanism thereby; wherein said plate is affixed to said head support. a base member, said base member being linked to the medical table structure and the patient support, said base member comprising a plate; at least one strain gauge (60, 62, 64, 66) connected to the medical table structure, said one strain gauge detecting a load imposed on the patient support and generating an output signal representing the quantity of said load; a controller, said controller receiving said output signal from said at least one strain gauge (60, 62, 64, 66) and determining the functioning of the motor mechanism thereby; wherein said plate is affixed to said head support.
A thermoelectric conversion material comprising: a sintered body comprising: a main phase including a plurality of crystal grains including Ce, Mn, Fe, and Sb, these constitute elements being regulated in the formula of CeMn x Fe 4-x Sb 12, where X = 0.02 to 0.1, and forming a skutterudite structure; and a grain boundary between the crystal grains adjacent to each other, and a sintering aid phase formed discontinuously along the grain boundaries, wherein the sintering aid phase (106, 107) includes at least Mn, Sb, and O. a sintered body comprising: a main phase including a plurality of crystal grains including Ce, Mn, Fe, and Sb, these constitute elements being regulated in the formula of CeMn x Fe 4-x Sb 12, where X = 0.02 to 0.1, and forming a skutterudite structure; and a grain boundary between the crystal grains adjacent to each other, and a sintering aid phase formed discontinuously along the grain boundaries, a main phase including a plurality of crystal grains including Ce, Mn, Fe, and Sb, these constitute elements being regulated in the formula of CeMn x Fe 4-x Sb 12, where X = 0.02 to 0.1, and forming a skutterudite structure; and a grain boundary between the crystal grains adjacent to each other, and a sintering aid phase formed discontinuously along the grain boundaries, wherein the sintering aid phase (106, 107) includes at least Mn, Sb, and O.
A flame-holder device for a reheat channel of a turbojet, the device comprising an arm in the form of a trough defining a cavity and a heat shield fastened in the cavity of the arm, the device further comprisin a fastener plate comprising a second leg removably mounted on said plate, and a first leg, the arm being fastened to the first and second legs (114, 115) via fastener members, characterized in that the first leg is integrally formed with the fastener plate.
A seal, comprising at least one sealing profile (1.1, 1.2, 1.3) with at least one sealing lip (2.1, 2.2, 2.3) and at least one hook-shaped claw connector (3.1, 4.2, 3.3, 4.3), which, when viewed as the cross-section of the sealing profile (1.1, 1.2, 1.3), is adjacent to the sealing lip (2.1, 2.2, 2.3), wherein the sealing profile (1.1, 1.2, 1.3) is designed as one piece and of the same material, characterized in that the material which the sealing profile (1.1, 1.2, 1.3) consists of is a polyurethane and the polyurethane has a shore hardness A of 90 to 95.
Device for connecting a connecting pipeline with a refurbished pipeline, comprising a radially outer old pipeline and a relining pipe made of plastic which is drawn into the old pipe, wherein at least one flange made of steel is provided for the connection and is connected to one end of the old pipeline, and at least one plastic weld fitting is provided, the inner side of which can be welded to an end region of the relining pipe, wherein the relining pipe is a plastic pipe which is drawn into the old pipeline by reduction of its outer diameter by means of a swage, and which has an outward enlargement of diameter in the region thereof which protrudes axially from the old pipeline compared with the diameter of the relining pipeline inside the old pipeline, and wherein the entire length of plastic weld fitting which is positioned axially before the old pipeline is welded radially outwardly onto the relining pipe in the region of the protrusion, characterized in that the plastic weld fitting includes an inner sleeve made of plastic which is surrounded radially outwardly and concentrically by an annular sheath, wherein the annular sheath consists of a high strength plastic material and/or a metallic material.
A curable adhesive composition for anchoring elements in a structural body, comprising: a. at least one reactive resin, wherein the reactive resin is selected from among: allylic resins; bismaleimide resins; epoxy acrylate resins; epoxy methacrylate resins; phenolic-based acrylates; phenolic-based methacrylates; unsaturated polyester resins; urethane acrylate resins; urethane methacrylate resins; and vinyl ester resins; as well as combinations of any of the foregoing; b. at least one acetoacetoxy functional monomer; c. at least one silane monomer; d. a free radical initiator; and e. an accelerant; in which the free radical initiator is dibenzoyl peroxide, and the accelerant is selected from the group consisting of: N,N-diisopropanol-p-toluidine; N,N-dihydroxyethyl-p-toluidine; N,N-methylhydroxyethyl-p-toluidine; and mixtures thereof. a. at least one reactive resin, wherein the reactive resin is selected from among: allylic resins; bismaleimide resins; epoxy acrylate resins; epoxy methacrylate resins; phenolic-based acrylates; phenolic-based methacrylates; unsaturated polyester resins; urethane acrylate resins; urethane methacrylate resins; and vinyl ester resins; as well as combinations of any of the foregoing; b. at least one acetoacetoxy functional monomer; c. at least one silane monomer; d. a free radical initiator; and e. an accelerant;