mhurhangee/patent-ind-claim-en huggingface dataset:
Exterior aircraft light unit comprising: at least two light sources ; at least two temperature detectors ; and at least one control unit (16; 20); wherein each light source is provided with a variable current bypass component , which is electrically connected in parallel to the respective light source in order to allow bypassing an adjustable electric current by the respective light source ; wherein one of the temperature detectors is associated with each of the light sources , respectively, for detecting the temperature of the respectively associated light source and for providing a corresponding temperature indicating signal; wherein the at least one control unit (16; 20) comprises a comparison unit , which is configured for comparing the temperature indicating signals which each other; and wherein the at least one control unit (16; 20) is configured for after the exterior aircraft light unit has been started, determining the light source having the lowest temperature and setting the light source having the lowest detected temperature as a reference light source ; repeatedly, periodically or constantly setting the momentary operating temperature of the reference light source as an adjusted reference temperature; and controlling the variable current bypass components based on the temperature indicating signals provided by the temperature detectors so that all light sources are operated substantially at the adjusted reference temperature. at least two light sources ; at least two temperature detectors ; and at least one control unit (16; 20); wherein each light source is provided with a variable current bypass component , which is electrically connected in parallel to the respective light source in order to allow bypassing an adjustable electric current by the respective light source ; wherein one of the temperature detectors is associated with each of the light sources , respectively, for detecting the temperature of the respectively associated light source and for providing a corresponding temperature indicating signal; wherein the at least one control unit (16; 20) comprises a comparison unit , which is configured for comparing the temperature indicating signals which each other; and wherein the at least one control unit (16; 20) is configured for after the exterior aircraft light unit has been started, determining the light source having the lowest temperature and setting the light source having the lowest detected temperature as a reference light source ; repeatedly, periodically or constantly setting the momentary operating temperature of the reference light source as an adjusted reference temperature; and controlling the variable current bypass components based on the temperature indicating signals provided by the temperature detectors so that all light sources are operated substantially at the adjusted reference temperature.
A method for providing information in an information processing system, the method comprising: acquiring (S203), via a network (NT), biological gas information; obtaining (S105, S106) reference information, using a memory storing the reference information representing an upper limit (DH) of a normal range; and outputting (S206 or S207) information related to stress of a user to an information terminal; characterized in that the biological gas information represents a concentration of acetophenone of the user detected with a sensor for detecting acetophenone released from a skin surface of the user; the reference information represents the upper limit (DH) of the normal range of the concentration of acetophenone per unit period of time; and the information related to stress is output after it is determined (S204, S205) that a frequency with which the concentration of the acetophenone of the user per unit period of time is more than the upper limit (DH) of the normal range tends to increase, based on the biological gas information acquired in a pregnancy period of the user. acquiring (S203), via a network (NT), biological gas information; obtaining (S105, S106) reference information, using a memory storing the reference information representing an upper limit (DH) of a normal range; and outputting (S206 or S207) information related to stress of a user to an information terminal; characterized in that the biological gas information represents a concentration of acetophenone of the user detected with a sensor for detecting acetophenone released from a skin surface of the user; the reference information represents the upper limit (DH) of the normal range of the concentration of acetophenone per unit period of time; and the information related to stress is output after it is determined (S204, S205) that a frequency with which the concentration of the acetophenone of the user per unit period of time is more than the upper limit (DH) of the normal range tends to increase, based on the biological gas information acquired in a pregnancy period of the user.
A method performed by a base station serving a user equipment , said method comprising: receiving (S501) information from a target base station, said information indicating physical random access channel information and a cell radio network temporary identity predefined to be used by said user equipment, the method being characterized by : deciding (S503) to initiate a fast handover of said user equipment to said target base station using the physical random access channel information and the cell radio network temporary identity; generating (S201) a first message and a second message, each including security information for security communication between the target base station and the user equipment after the fast handover, wherein the second message additionally includes said physical random access channel information and said cell radio network temporary identity for use by the user equipment to access the target base station during the fast handover; and transmitting (S202) simultaneously, from the source base station , the first message to the target base station and the second message to the user equipment . receiving (S501) information from a target base station, said information indicating physical random access channel information and a cell radio network temporary identity predefined to be used by said user equipment, the method being characterized by : deciding (S503) to initiate a fast handover of said user equipment to said target base station using the physical random access channel information and the cell radio network temporary identity; generating (S201) a first message and a second message, each including security information for security communication between the target base station and the user equipment after the fast handover, wherein the second message additionally includes said physical random access channel information and said cell radio network temporary identity for use by the user equipment to access the target base station during the fast handover; and transmitting (S202) simultaneously, from the source base station , the first message to the target base station and the second message to the user equipment . deciding (S503) to initiate a fast handover of said user equipment to said target base station using the physical random access channel information and the cell radio network temporary identity; generating (S201) a first message and a second message, each including security information for security communication between the target base station and the user equipment after the fast handover, wherein the second message additionally includes said physical random access channel information and said cell radio network temporary identity for use by the user equipment to access the target base station during the fast handover; and transmitting (S202) simultaneously, from the source base station , the first message to the target base station and the second message to the user equipment .
Method for determining a balancing removal for a balancing device for balancing a rotationally symmetrical component, in particular a rotor component , in particular a turbomachine, wherein a combination of a machining length (α 1 , α 2 , a) and depth (r 1 , r 2 , r) is calculated (S30-S85) by taking into account a predetermined maximum machining length and minimum machining depth such that, under permissible combinations for compensating for the same imbalance, the machining length of the calculated combination is greater than the machining length of at least one other permissible combination and at the same time the machining depth of the calculated combination is smaller than the machining depth of this other combination.
A method for determining a distance to a passive intermodulation source in a device under test, the method comprising: (i) transmitting at least two signals with respective different frequencies to the device under test; (ii) receiving a complex response signal from the device under test, the complex response signal comprising a passive intermodulation of the at least two signals; (iii) generating an autocorrelation matrix using the complex response signal, the autocorrelation matrix representing power information of the complex response signal; iv) decomposing the complex response signal, using the autocorrelation matrix, into a signal component part and a noise component part; and (iv) determining a distance to the passive intermodulation source in the device under test using the noise and signal component part. (i) transmitting at least two signals with respective different frequencies to the device under test; (ii) receiving a complex response signal from the device under test, the complex response signal comprising a passive intermodulation of the at least two signals; (iii) generating an autocorrelation matrix using the complex response signal, the autocorrelation matrix representing power information of the complex response signal; iv) decomposing the complex response signal, using the autocorrelation matrix, into a signal component part and a noise component part; and (iv) determining a distance to the passive intermodulation source in the device under test using the noise and signal component part.
A sheet feeding apparatus comprising: a conveyance roller configured to convey sheets; a retard roller configured to contact the conveyance roller and separate sheets one by one; a drive input shaft driven by a driving source ; a retard shaft configured to support the retard roller rotatably; a joint configured to transmit rotary drive force of the drive input shaft to the retard shaft ; a first engaging portion provided on either one of the drive input shaft or the joint ; a first engaged portion provided on the other of the drive input shaft or the joint , and configured to engage with the first engaging portion at a first engagement position in response to a rotation of the drive input shaft ; a second engaging portion provided on either one of the retard shaft or the joint ; and a second engaged portion provided on the other of the retard shaft or the joint , and configured to engage with the second engaging portion at a second engagement position in response to a rotation of the joint , characterized in that , viewed in an axial direction of the joint , an angle (θ) formed by a first straight line (L1) and a second straight line (L2) is within a range of 80 degrees or greater and 100 degrees or smaller, the first straight line (L1) passing through the first engagement position and a center of rotation of the drive input shaft , the second straight line (L2) passing through the second engagement position and a center of rotation of the retard shaft . a conveyance roller configured to convey sheets; a retard roller configured to contact the conveyance roller and separate sheets one by one; a drive input shaft driven by a driving source ; a retard shaft configured to support the retard roller rotatably; a joint configured to transmit rotary drive force of the drive input shaft to the retard shaft ; a first engaging portion provided on either one of the drive input shaft or the joint ; a first engaged portion provided on the other of the drive input shaft or the joint , and configured to engage with the first engaging portion at a first engagement position in response to a rotation of the drive input shaft ; a second engaging portion provided on either one of the retard shaft or the joint ; and a second engaged portion provided on the other of the retard shaft or the joint , and configured to engage with the second engaging portion at a second engagement position in response to a rotation of the joint , characterized in that , viewed in an axial direction of the joint , an angle (θ) formed by a first straight line (L1) and a second straight line (L2) is within a range of 80 degrees or greater and 100 degrees or smaller, the first straight line (L1) passing through the first engagement position and a center of rotation of the drive input shaft , the second straight line (L2) passing through the second engagement position and a center of rotation of the retard shaft .
A selective catalytic reduction catalyst composition for converting oxides of nitrogen (NO x ) in an exhaust gas using a nitrogenous reductant, which catalyst composition comprising a mixture of a first component and a second component, wherein the first component is the H-form of an aluminosilicate chabazite zeolite (CHA); or an admixture of the H-form of an aluminosilicate mordenite zeolite (MOR) and the H-form of an aluminosilicate chabazite zeolite (CHA); and the second component is a vanadium oxide supported on a metal oxide support, which is titania, silica-stabilized titania or a mixture of titania and silica-stabilized titania, wherein the metal oxide support may comprise tungsten oxide, molybdenum oxide or both tungsten oxide and molybdenum oxide, and wherein the weight ratio of the first component to the second component is 10:90 to 25:75.
A process for preparing a solid free-flowing particulate laundry detergent composition, wherein the process comprises the steps of: (a) forming a mixture by contacting: (i) molten fatty acid; (ii) liquid alkaline ingredient, and (iii) non-ionic surfactant, to obtain a mixture, wherein the mixture comprises: (i) partially neutralized fatty acid component, wherein the partially neutralized fatty acid component comprises fatty acid and soap; (ii) non-ionic surfactant; and (iii) water, wherein the molar ratio of fatty acid to liquid alkaline ingredient contacted together in step (a) is above 1:1; (b) contacting the mixture obtained in step (a) to a detergent powder to form a solid free-flowing particulate laundry detergent composition, wherein in step (b) the mixture is contacted to the detergent powder by spraying the mixture at a temperature of greater than 50°C onto the detergent powder, wherein the detergent powder comprises a detergent ingredient, wherein the solid free-flowing particulate laundry detergent composition comprises: (i) non-ionic surfactant; (ii) soap; (iii) fatty acid; (iv) water; and (v) detergent ingredient. (a) forming a mixture by contacting: (i) molten fatty acid; (ii) liquid alkaline ingredient, and (iii) non-ionic surfactant, (i) molten fatty acid; (ii) liquid alkaline ingredient, and (iii) non-ionic surfactant, to obtain a mixture, wherein the mixture comprises: (i) partially neutralized fatty acid component, wherein the partially neutralized fatty acid component comprises fatty acid and soap; (ii) non-ionic surfactant; and (iii) water, (i) partially neutralized fatty acid component, wherein the partially neutralized fatty acid component comprises fatty acid and soap; (ii) non-ionic surfactant; and (iii) water, wherein the molar ratio of fatty acid to liquid alkaline ingredient contacted together in step (a) is above 1:1; (b) contacting the mixture obtained in step (a) to a detergent powder to form a solid free-flowing particulate laundry detergent composition, (a) is above 1:1; (b) contacting the mixture obtained in step (a) to a detergent powder to form a solid free-flowing particulate laundry detergent composition, wherein in step (b) the mixture is contacted to the detergent powder by spraying the mixture at a temperature of greater than 50°C onto the detergent powder, wherein the detergent powder comprises a detergent ingredient, wherein the solid free-flowing particulate laundry detergent composition comprises: (i) non-ionic surfactant; (ii) soap; (iii) fatty acid; (iv) water; and (v) detergent ingredient. (i) non-ionic surfactant; (ii) soap; (iii) fatty acid; (iv) water; and (v) detergent ingredient.
A positive electrode active material, comprising: a first compound enabling lithium intercalation/deintercalation; and a coating layer present on at least a part of the surface of the first compound, and comprising a second compound, wherein the second compound is represented by Formula 2 below: [Formula 2] Li a Co b M3 c (P β O γ ) d Here, M3 is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤a≤10, 0≤b≤8, 0≤c≤8, 0<d≤13, 0<β≤4, and 0<γ≤10, and wherein the second compound comprises a first oxide represented by Formula 3 below and a second oxide represented by Formula 4 below: [Formula 3] Li a' CO b' M3' c' (P β' O γ' ) d' Here, M3' is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0<a'≤10, 0≤b'≤8, 0≤c'≤8, 0<d'≤13, 0≤β'≤4, and 0<γ'≤10; and [Formula 4] CO b" M3" c" (P β" O γ" ) d" Here, M3" is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤b"≤8, 0≤c"≤8, 0<d"≤13, 0≤β"≤4, and 0<γ"≤10. a first compound enabling lithium intercalation/deintercalation; and a coating layer present on at least a part of the surface of the first compound, and comprising a second compound, wherein the second compound is represented by Formula 2 below: [Formula 2] Li a Co b M3 c (P β O γ ) d Here, M3 is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤a≤10, 0≤b≤8, 0≤c≤8, 0<d≤13, 0<β≤4, and 0<γ≤10, and M3 is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤a≤10, 0≤b≤8, 0≤c≤8, 0<d≤13, 0<β≤4, and 0<γ≤10, and wherein the second compound comprises a first oxide represented by Formula 3 below and a second oxide represented by Formula 4 below: [Formula 3] Li a' CO b' M3' c' (P β' O γ' ) d' Here, M3' is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0<a'≤10, 0≤b'≤8, 0≤c'≤8, 0<d'≤13, 0≤β'≤4, and 0<γ'≤10; and [Formula 4] CO b" M3" c" (P β" O γ" ) d" Here, M3" is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤b"≤8, 0≤c"≤8, 0<d"≤13, 0≤β"≤4, and 0<γ"≤10. M3' is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0<a'≤10, 0≤b'≤8, 0≤c'≤8, 0<d'≤13, 0≤β'≤4, and 0<γ'≤10; and M3" is at least one selected from Ni, Mn, Fe, Cu, Nb, Mo, Ti, Al, Cr, Zr, Zn, Na, K, Ca, Mg, Pt, Au, B, P, Eu, Sm, W, Ce, V, Ba, Ta, Sn, Hf, Ce, Gd and Nd, 0≤b"≤8, 0≤c"≤8, 0<d"≤13, 0≤β"≤4, and 0<γ"≤10.
An injection molded part for a motor vehicle comprising: • a film layer having a film main portion and a film first side portion that ends in a first film side surface , wherein the film first side portion extends from the film main portion in a direction different than a plane defined by the film main portion , the film layer also having a film outer surface and a film inner surface disposed opposite the film outer surface ; • a first polymer layer in contact with the film inner surface ; and • a second polymer layer or a coating in contact with the film outer surface , the film first side surface and the first polymer layer ; wherein • the second polymer layer or the coating is a transparent polymer; characterized in, that the first polymer layer includes a first side surface which extends past the film first side surface ; wherein a depth (d) of the film layer measured from the film first side surface to a center of the film top surface is less than a depth (D) of the first polymer layer measured from the first side surface to a center of the top surface ; wherein the film layer includes a film second side portion extending from the main portion in a direction different than the plane defined by the film main portion , wherein the film second side portion ends in a film second side surface and wherein the film layer and the first polymer are substantially the same color. • a film layer having a film main portion and a film first side portion that ends in a first film side surface , wherein the film first side portion extends from the film main portion in a direction different than a plane defined by the film main portion , the film layer also having a film outer surface and a film inner surface disposed opposite the film outer surface ; • a first polymer layer in contact with the film inner surface ; and • a second polymer layer or a coating in contact with the film outer surface , the film first side surface and the first polymer layer ; wherein • the second polymer layer or the coating is a transparent polymer; characterized in, that
An apparatus for determining gaze direction information, comprising: a light source for forming illuminating light to an eye region of a user; optical element(s) configured to guide the illuminating light from the light source to the eye region, wherein the illuminating light is dynamically adjustable to generate a dynamic light beam on the eye region; a sensor configured to capture reflected light from the eye region and generate reflection eye data; at least one processor and at least one memory including computer program code; the at least one memory and the computer program code being configured, with the at least one processor, to cause the apparatus to: maintain settings comprising user profile information; adjust spectral power distribution of the light source receive the reflection eye data; and generate the gaze direction information based on the reflection eye data, characterized in that the spectral power distribution is adjusted based on the user profile information. a light source for forming illuminating light to an eye region of a user; optical element(s) configured to guide the illuminating light from the light source to the eye region, wherein the illuminating light is dynamically adjustable to generate a dynamic light beam on the eye region; a sensor configured to capture reflected light from the eye region and generate reflection eye data; at least one processor and at least one memory including computer program code; the at least one memory and the computer program code being configured, with the at least one processor, to cause the apparatus to: maintain settings comprising user profile information; adjust spectral power distribution of the light source receive the reflection eye data; and generate the gaze direction information based on the reflection eye data, characterized in that the spectral power distribution is adjusted based on the user profile information. maintain settings comprising user profile information; adjust spectral power distribution of the light source receive the reflection eye data; and generate the gaze direction information based on the reflection eye data, characterized in that the spectral power distribution is adjusted based on the user profile information.