mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an eye tracker configured to capture a first plurality of images of an eye; and a control processor configured to: detect an eye position and orientation in each of the first plurality of images; determine an eye fixation position and orientation relative to an optical axis of the eye tracker; estimate eye fixation parameters based at least in part on the determined eye fixation position and orientation; and track the eye position and orientation by analyzing one or more images from the first plurality of images to determine the eye position and orientation relative to the eye fixation parameters, characterised in that the control processor is further configured to detect the fixation position relative to the optical axis of the eye tracker by constructing and analyzing a histogram of detected eye positions and orientations, wherein analyzing the histogram further comprises determining a relative maximum value and determining whether coordinates of the relative maximum value comprise a fixation position and orientation, and wherein determining whether coordinates of the relative maximum value comprise a fixation position and orientation further comprise comparing the relative maximum value with a threshold and/or an average coordinate value of the histogram. an eye tracker configured to capture a first plurality of images of an eye; and a control processor configured to: detect an eye position and orientation in each of the first plurality of images; determine an eye fixation position and orientation relative to an optical axis of the eye tracker; estimate eye fixation parameters based at least in part on the determined eye fixation position and orientation; and track the eye position and orientation by analyzing one or more images from the first plurality of images to determine the eye position and orientation relative to the eye fixation parameters, detect an eye position and orientation in each of the first plurality of images; determine an eye fixation position and orientation relative to an optical axis of the eye tracker; estimate eye fixation parameters based at least in part on the determined eye fixation position and orientation; and track the eye position and orientation by analyzing one or more images from the first plurality of images to determine the eye position and orientation relative to the eye fixation parameters, characterised in that the control processor is further configured to detect the fixation position relative to the optical axis of the eye tracker by constructing and analyzing a histogram of detected eye positions and orientations, wherein analyzing the histogram further comprises determining a relative maximum value and determining whether coordinates of the relative maximum value comprise a fixation position and orientation, and wherein determining whether coordinates of the relative maximum value comprise a fixation position and orientation further comprise comparing the relative maximum value with a threshold and/or an average coordinate value of the histogram.
A power transmission belt (10, 26, 32) comprising an elastomeric belt body, said elastomeric belt body comprising an elastomeric composition comprising aramid fiber characterized in that the elastomeric composition further comprises kenaf fiber.
A wideband balun structure comprising: a first signal path for a positive going differential signal and a second signal path for the negative going differential signal; and a ninety-degree hybrid comprising: a first port coupled to the first signal path for receiving the positive going differential signal; a second port coupled to the first port and operable to function as an output port; a third port coupled to the second signal path for receiving the negative going differential signal; and a fourth port coupled to the third port and coupled to signal ground via a termination resistor; and a signal cable coupled to the output port; wherein the first signal path comprises a first order phase shifter having a non-linear phase response variation with frequency with a same periodicity as the ninety-degree hybrid and the second signal path comprises a second order phase shifter having a non-linear phase response variation with frequency with twice the periodicity of the ninety-degree hybrid in order to compensate for a roll-off in a frequency response of the signal cable with increasing frequency due to signal losses of the signal cable and extend a bandwidth of the wideband balun structure. a first signal path for a positive going differential signal and a second signal path for the negative going differential signal; and a ninety-degree hybrid comprising: a first port coupled to the first signal path for receiving the positive going differential signal; a second port coupled to the first port and operable to function as an output port; a third port coupled to the second signal path for receiving the negative going differential signal; and a fourth port coupled to the third port and coupled to signal ground via a termination resistor; and a first port coupled to the first signal path for receiving the positive going differential signal; a second port coupled to the first port and operable to function as an output port; a third port coupled to the second signal path for receiving the negative going differential signal; and a fourth port coupled to the third port and coupled to signal ground via a termination resistor; and a signal cable coupled to the output port;
A Danshen (salvia miltiorrhiza) extract, characterized in that said extract comprises following components by weight part: Danshensu: rosmarinic acid: lithospermic acid: salvianolic acid B: cryptotanshinone: tanshinone IIA: stachyose=(0.5-16): (0.5-15): (0.5-15):: (0.5-25)::; preferably said components by weight part:::::::; more preferably said components by weight part:::::::; further more preferably said components by weight part:::::::; most preferably said components by weight part: 3: 3: 3: 28: 4: 7: 370.
Stainless steel alloy with a base consisting of iron and chromium, characterized in that the alloy includes less than 0.5% by mass of nickel and is arranged in an austenitic face-centred cubic structure and comprises, in mass percent: - chromium: minimum value 16%, maximum value 20%; - at least one additional metal, the total value of said at least one additional metal or of said additional metals being comprised between: minimum value 30% and maximum value 40%, said at least one additional metal being selected from among a first group comprising copper, ruthenium, rhodium, palladium, rhenium, osmium, iridium, platinum and gold: - the copper value being comprised between: minimum value 0% and maximum value 2%; - the gold value being comprised between: minimum value 0% and maximum value 2%; - carbon: minimum value 0%, maximum value 0.03%; - molybdenum: minimum value 0%, maximum value 2%; - manganese: minimum value 0%, maximum value 2%; - silicon: minimum value 0%, maximum value 1%; - nitrogen: minimum value 0%, maximum value 0.1 %; - tungsten: minimum value 0%, maximum value 0.5%; - vanadium: minimum value 0%, maximum value 0.5%; - niobium: minimum value 0%, maximum value 0.5%; - zirconium: minimum value 0%, maximum value 0.5%; - titanium: minimum value 0%, maximum value 0.5%; - iron and inevitable impurities: the complement to 100%. - chromium: minimum value 16%, maximum value 20%; - at least one additional metal, the total value of said at least one additional metal or of said additional metals being comprised between: minimum value 30% and maximum value 40%, said at least one additional metal being selected from among a first group comprising copper, ruthenium, rhodium, palladium, rhenium, osmium, iridium, platinum and gold: - the copper value being comprised between: minimum value 0% and maximum value 2%; - the gold value being comprised between: minimum value 0% and maximum value 2%; - the copper value being comprised between: minimum value 0% and maximum value 2%; - the gold value being comprised between: minimum value 0% and maximum value 2%; - carbon: minimum value 0%, maximum value 0.03%; - molybdenum: minimum value 0%, maximum value 2%; - manganese: minimum value 0%, maximum value 2%; - silicon: minimum value 0%, maximum value 1%; - nitrogen: minimum value 0%, maximum value 0.1 %; - tungsten: minimum value 0%, maximum value 0.5%; - vanadium: minimum value 0%, maximum value 0.5%; - niobium: minimum value 0%, maximum value 0.5%; - zirconium: minimum value 0%, maximum value 0.5%; - titanium: minimum value 0%, maximum value 0.5%; - iron and inevitable impurities: the complement to 100%.
A method of distinguishing neurons in a cell culture, the method comprising: contacting the cell culture with a first antibody that binds specifically to CD200 and at least a second antibody that specifically binds to a protein selected from the group consisting of HLA-A, HLA-B, HLA-C, CD49f, CD151 and CD340; and detecting cells that are CD200 + cells and also exhibit low to negative expression of one or more of HLA-A, HLA-B, HLA-C, CD49f, CD151 and CD340. contacting the cell culture with a first antibody that binds specifically to CD200 and at least a second antibody that specifically binds to a protein selected from the group consisting of HLA-A, HLA-B, HLA-C, CD49f, CD151 and CD340; and detecting cells that are CD200 + cells and also exhibit low to negative expression of one or more of HLA-A, HLA-B, HLA-C, CD49f, CD151 and CD340.
Apparatus, comprising base station means adapted to provide a base station functionality for a plurality of public land mobile networks; and characterized by: access barring broadcasting means adapted to broadcast, via the base station means, in a single system information block extended access barring parameters for the plurality of public land mobile networks in the order in which the public land mobile networks are listed in a second system information block indicating the public land mobile networks sharing the base station means; wherein the extended access barring parameters comprise category indications.
A method for recycling energy in process of butadiene preparation using oxidative dehydrogenation reaction, the method comprising steps of: a) supplying part or all of light gas discharged from a solvent absorption tower to a turbine to produce electricity; b) passing the light gas passed through the turbine to one or more device units equipped with a heat exchanger; and c) introducing the light gas, which is passed through the device unit equipped with the heat exchanger, into a reactor, wherein a pressure of the light gas supplied to the turbine ranges from 0.5 to 2.0 MPa (5 to 20 KCG), and wherein a pressure of the light gas discharged from the turbine ranges from 0.1 to 0.5 MPa (1 to 5 KCG). a) supplying part or all of light gas discharged from a solvent absorption tower to a turbine to produce electricity; b) passing the light gas passed through the turbine to one or more device units equipped with a heat exchanger; and c) introducing the light gas, which is passed through the device unit equipped with the heat exchanger, into a reactor, wherein a pressure of the light gas supplied to the turbine ranges from 0.5 to 2.0 MPa (5 to 20 KCG), and wherein a pressure of the light gas discharged from the turbine ranges from 0.1 to 0.5 MPa (1 to 5 KCG).
A process for the preparation of bio-organic coated gold and silver nanoparticles using blue light, comprising the steps of: (a) preparing a solution of AgNO 3 or HAuCl 4 in the range of 60-300 μM, optionally in a buffer having pH of 5 to 8 or in water having 0.1 to 300 mM NaCl; (b) adding pure biomolecules to the solution prepared in step (a), wherein the molar ratio of AgNO 3 to biomolecule is 50:1 and the molar ratio of HAuCl 4 to biomolecule is 300:1; (c) exposing the mixture of step (b) to blue light having a wattage in the range of 40W to 200W for 0.1 to 60 hours at a temperature of 30°C to obtain the bio-organic coated gold and silver nanoparticles. (a) preparing a solution of AgNO 3 or HAuCl 4 in the range of 60-300 μM, optionally in a buffer having pH of 5 to 8 or in water having 0.1 to 300 mM NaCl; (b) adding pure biomolecules to the solution prepared in step (a), wherein the molar ratio of AgNO 3 to biomolecule is 50:1 and the molar ratio of HAuCl 4 to biomolecule is 300:1; (c) exposing the mixture of step (b) to blue light having a wattage in the range of 40W to 200W for 0.1 to 60 hours at a temperature of 30°C to obtain the bio-organic coated gold and silver nanoparticles.
Housing element for a control device housing, comprising one or more first edge sections for contact in each case with a second edge section of a second housing element, which is assigned to the control device housing, with the interposition of a sealant which is curable by means of air moisture, characterized in that at least one of the first edge sections has at least one recess in order, when the housing elements (10, 20) are in contact, for the sealant to communicate with air containing the air moisture, wherein the recess is configured as an open passage which connects at least two surface sides, pointing in different directions, of the housing element to each other.
Fastening element for fixing an attachment element on the extension piece of a syringe or carpule, said extension piece having, on its outer face, at least one projection, wherein the fastening element has an annular main body on which a ring element is articulated such that it engages around the extension piece in the mounted state, wherein the ring element - has an annular first wall portion, which is articulated on the main body via a first bearing area, and - has an annular second wall portion, which is articulated on the first wall portion via a second bearing area, wherein - the two wall areas (15; 17) are preferably connected to each other resiliently and enclose between them a free space, and wherein - the first wall area is connected resiliently to the main body. - has an annular first wall portion, which is articulated on the main body via a first bearing area, and - has an annular second wall portion, which is articulated on the first wall portion via a second bearing area, wherein - the two wall areas (15; 17) are preferably connected to each other resiliently and enclose between them a free space, and wherein - the first wall area is connected resiliently to the main body.
A recording method, comprising: obtaining (S101; S201a), by a mobile terminal, recording data input by at least three microphones, wherein the at least three microphones are pre-installed in the mobile terminal; generating, by the mobile terminal, a recording file according to the obtained recording data, wherein the recording file saves the recording data in all sound source directions input by the at least three microphones, wherein a positioning of the all sound source directions is implemented by using a combination of the at least three microphones to calculate differences between time at which a sound reaches the at least three microphones and relative locations between the at least three microphones, so that an azimuth of a sound source relative to a plane on which the at least three microphones are located is determined, wherein the all sound source directions are in 360° azimuths relative to the plane on which the microphones are located, and wherein the recording file includes more than one piece of recording data, and each piece of recording data includes one of said all sound source directions that matches the recording data; obtaining (S201b), by the mobile terminal, a recording direction that is set by a user, wherein the recording direction is one of said all sound source directions, and said all sound source directions are obtained by the at least three microphones at a same time point; and saving, by the mobile terminal, the recording direction in the recording file. obtaining (S101; S201a), by a mobile terminal, recording data input by at least three microphones, wherein the at least three microphones are pre-installed in the mobile terminal; generating, by the mobile terminal, a recording file according to the obtained recording data, wherein the recording file saves the recording data in all sound source directions input by the at least three microphones, wherein a positioning of the all sound source directions is implemented by using a combination of the at least three microphones to calculate differences between time at which a sound reaches the at least three microphones and relative locations between the at least three microphones, so that an azimuth of a sound source relative to a plane on which the at least three microphones are located is determined, wherein the all sound source directions are in 360° azimuths relative to the plane on which the microphones are located, and wherein the recording file includes more than one piece of recording data, and each piece of recording data includes one of said all sound source directions that matches the recording data; obtaining (S201b), by the mobile terminal, a recording direction that is set by a user, wherein the recording direction is one of said all sound source directions, and said all sound source directions are obtained by the at least three microphones at a same time point; and saving, by the mobile terminal, the recording direction in the recording file.
Device for establishing a bonded connection comprising a bonding head held rotatably around a rotational axis and a transducer held on the bonding head, wherein the transducer exhibits a ceramic actuator for exciting an ultrasonic natural vibration, a fixing portion for fixing the transducer to the bonding head, and a tool holder for a bonding tool, wherein a longitudinal direction of the transducer and/or a direction of elongation of the same towards an axis of a minimum moment of inertia is aligned parallel to the rotational axis of the bonding head, characterised in that electrodes are provided on the ceramic actuator such that the ceramic actuator is excitable by means of an electrical field in a field direction transversely to a polarisation direction of said ceramic actuator and in that as a result of the excitation and a connection of the ceramic actuator to the fixing portion and to the tool holder said ceramic actuator executes a shearing motion on a shearing plane formed by means of the polarisation direction and the field direction.
A compound optical coupler assembly for use in a gamma detector, comprising: a load ring having an opening therein; a compound optical pad inside said opening, wherein said compound optical pad comprises a self-wetting optical gel and a stiffening agent; and characterised in that said self-wetting optical gel is Wacker ® 612 and said stiffening agent is Sylgard ® 186. a load ring having an opening therein; a compound optical pad inside said opening, wherein said compound optical pad comprises a self-wetting optical gel and a stiffening agent; and characterised in that said self-wetting optical gel is Wacker ® 612 and said stiffening agent is Sylgard ® 186.
Transmitter for wireless energy transmission, comprising: - a transmitting device having a resonant transformer for generating an alternating magnetic field; - a determination device for determining a signal on the basis of a current or a voltage at the resonant transformer, - wherein the signal indicates a Q factor of the resonant transformer and an object in the area of influence of the resonant transformer in such a manner that the strength of the signal is dependent on a power taken by the object from the magnetic area of influence of the resonant transformer, - a control device for controlling the alternating field on the basis of the signal, - wherein the control device is set up to determine a maximum strength of the alternating field in at least three different stages on the basis of the signal; characterized in that - the control device is set up to control the resonant transformer in such a manner that the magnetic field provided does not exceed the predetermined strength. - a transmitting device having a resonant transformer for generating an alternating magnetic field; - a determination device for determining a signal on the basis of a current or a voltage at the resonant transformer, - wherein the signal indicates a Q factor of the resonant transformer and an object in the area of influence of the resonant transformer in such a manner that the strength of the signal is dependent on a power taken by the object from the magnetic area of influence of the resonant transformer, - a control device for controlling the alternating field on the basis of the signal, - wherein the control device is set up to determine a maximum strength of the alternating field in at least three different stages on the basis of the signal; - the control device is set up to control the resonant transformer in such a manner that the magnetic field provided does not exceed the predetermined strength.
A latch for a door leaf of a motor vehicle, including a housing constituted by one single part made of a flexible plastic material and into which the mechanism of the latch is inserted according to a so-called direction of insertion, this housing having at least one slot for the passage of a transmission arrangement of the mechanism according to a so-called exit plane, said housing and said transmission arrangement (5, 8) each include a sealing interface cooperating together by translation during the insertion of said mechanism into the housing, characterized in that said interfaces (6, 7), (9, 10A) constitute a rail and slide arrangement with sealing baffles, having a direction parallel to said direction of insertion.
A cooling system comprising: a cooling loop including a reservoir, the reservoir having a level sensor configured to provide a level signal indicative of a coolant level within the reservoir; a temperature sensor (32,34) in communication with the cooling loop and configured to provide a temperature signal; and a controller in communication with the level sensor and the temperature sensor, the controller having coolant density data, characterized in that: the controller configured to correct the level signal based upon the temperature signal and the coolant density data in order to detect a leakage condition of the cooling system by comparing the corrected level signal to a desired coolant amount. a cooling loop including a reservoir, the reservoir having a level sensor configured to provide a level signal indicative of a coolant level within the reservoir; a temperature sensor (32,34) in communication with the cooling loop and configured to provide a temperature signal; and a controller in communication with the level sensor and the temperature sensor, the controller having coolant density data, the controller configured to correct the level signal based upon the temperature signal and the coolant density data in order to detect a leakage condition of the cooling system by comparing the corrected level signal to a desired coolant amount.
A compound represented by Formula below: M a X b Y c, where M represents metal other than alkali metal and includes a group 2 metal in the periodic table, X represents -N(SO 2 F) 2, Y represents a coordinating solvent which includes at least one type selected from a nitrile-based solvent, a carbonate-based solvent, an ether-based solvent, an ester-based solvent, and a sulfone-based solvent, and a, b, and c are positive numbers.