mhurhangee/patent-ind-claim-en huggingface dataset:
Method for managing power on board a vehicle comprising a power management system , said system comprising a first electrical network , a second electrical network and at least one piece of electrical equipment , said first electrical network comprising at least one module for generating electrical current that is configured to produce and/or store electrical power, said second electrical network comprising at least one electrochemical generator unit and at least one module for storing electrical power, the method being characterised in that , the first electrical network and the second electrical network being galvanically isolated from one another and the electrical equipment being connected to the second electrical network , it comprises: - a step (E10) of determining a level of electrical power produced by the module for generating electrical current, - when the level of electrical power produced and/or stored by the module for generating electrical current is above a first threshold, a step (E11a) of generating hydrogen by means of the electrochemical generator unit from electrical power produced by the module for generating electrical current and, when the electrical power of the second network is above a second threshold, a step (E12) of providing electrical power to the electrical equipment by means of the second network , - when the level of electrical power produced and/or stored by the module for generating electrical current is below the first threshold and when the electrical power of the second network is above the second threshold, a step (E13) of providing electrical power to the electrical equipment by means of the second network . - a step (E10) of determining a level of electrical power produced by the module for generating electrical current, - when the level of electrical power produced and/or stored by the module for generating electrical current is above a first threshold, a step (E11a) of generating hydrogen by means of the electrochemical generator unit from electrical power produced by the module for generating electrical current and, when the electrical power of the second network is above a second threshold, a step (E12) of providing electrical power to the electrical equipment by means of the second network , - when the level of electrical power produced and/or stored by the module for generating electrical current is below the first threshold and when the electrical power of the second network is above the second threshold, a step (E13) of providing electrical power to the electrical equipment by means of the second network .
A method implemented in a wireless device for improving measurement of a reference signal parameter measured by a wireless device in a wireless communication network, the reference signal parameter being a parameter of a reference signal transmitted by a radio network node in the wireless communication network, the method comprising: determining (S305) that the wireless device is operating with a low measurement accuracy condition that affects measurement of the reference signal parameter, wherein a severity of the low measurement accuracy condition has a positive correlation with the quality of a channel over which the reference signal is received; adapting (S310) a first measurement bandwidth in response to determining that the wireless device has the low measurement accuracy condition that is positively correlated with the quality of the channel; measuring (S320) a first reference signal parameter using the adapted first measurement bandwidth; and modifying (S325) the measured first reference signal parameter to compensate for the low measurement accuracy condition by adding a compensation value to the measurement of the first reference signal parameter.
A method for producing the titanium oxide fine particles having a BET diameter of 1 to 50 nm, an agglomerated particle of 1 to 200 nm as diameter of an agglomerated particle formed by the titanium oxide fine particles, a value of 1 to 40 as a ratio therebetween, namely, a ratio of the agglomerated particle diameter/the BET diameter, and a crystallite diameter from 20 to 100 Å, wherein the diameter of the agglomerated particle is determined by using a laser diffraction/scattering particle size distribution analyzer, the method comprising the steps of: a first step of adjusting a pH of an aqueous solution including a titanium(oxy)chloride to a range of 1 or less, followed by heating the aqueous solution to a temperature of 50 to 110°C, and thereby conducting a hydrolysis of the titanium(oxy)chloride as a first hydrolysis; and a second step of subsequently mixing a titanium(oxy)chloride into the aqueous solution including a product from the first hydrolysis and mixing an alkali into the aqueous solution to have a pH of the aqueous solution within a range of 0 to 9, followed by adjusting a temperature of the aqueous solution to a range of 50 to 110°C, and thereby conducting a hydrolysis of the titanium(oxy)chloride present in the second step as a second hydrolysis. a first step of adjusting a pH of an aqueous solution including a titanium(oxy)chloride to a range of 1 or less, followed by heating the aqueous solution to a temperature of 50 to 110°C, and thereby conducting a hydrolysis of the titanium(oxy)chloride as a first hydrolysis; and a second step of subsequently mixing a titanium(oxy)chloride into the aqueous solution including a product from the first hydrolysis and mixing an alkali into the aqueous solution to have a pH of the aqueous solution within a range of 0 to 9, followed by adjusting a temperature of the aqueous solution to a range of 50 to 110°C, and thereby conducting a hydrolysis of the titanium(oxy)chloride present in the second step as a second hydrolysis.
A method for confirming the presence or absence of closures in a closure nest inside an aseptic chamber , the method comprising: disposing the closure nest in a monitored area inside the aseptic chamber, the nest having a surface; operating a topographical profiler to obtain a topographical profile map of the closure nest comprising vertical displacement data versus two mutually perpendicular directions in the plane of the surface; comparing the vertical displacement data with a predetermined range of vertical displacements having a lower bound and an upper bound in areas of the closure nest where closures are expected to be present; deeming a closure to be present if the vertical displacement data is between the lower and upper bounds; and deeming a closure to be absent if the vertical displacement data is not between the lower and upper bounds. disposing the closure nest in a monitored area inside the aseptic chamber, the nest having a surface; operating a topographical profiler to obtain a topographical profile map of the closure nest comprising vertical displacement data versus two mutually perpendicular directions in the plane of the surface; comparing the vertical displacement data with a predetermined range of vertical displacements having a lower bound and an upper bound in areas of the closure nest where closures are expected to be present; deeming a closure to be present if the vertical displacement data is between the lower and upper bounds; and deeming a closure to be absent if the vertical displacement data is not between the lower and upper bounds.
A shock pad comprising: (i) a coherent plate having upper and lower major surfaces, wherein the coherent plate comprises at least one coherent layer comprising man-made vitreous fibres (MMVF) bonded with a cured binder composition; (ii) an upper membrane layer bonded to the upper major surface of the coherent plate ; (iii) a lower membrane layer bonded to the lower major surface of the coherent plate ; wherein the at least one coherent layer has a thickness in the range of 12 mm to 40 mm and a density in the range of 175 kg/m 3 to 300 kg/m 3 . (i) a coherent plate having upper and lower major surfaces, wherein the coherent plate comprises at least one coherent layer comprising man-made vitreous fibres (MMVF) bonded with a cured binder composition; (ii) an upper membrane layer bonded to the upper major surface of the coherent plate ; (iii) a lower membrane layer bonded to the lower major surface of the coherent plate ;
A polymer P comprising at least one segment S1 and at least one segment S2 covalently linked to each other, wherein i) at least one segment S1 has a number average molecular weight in the range of 6,000 - 25,000 g/mol and consists of ether repeating units, and for at least 75 % by weight of repeating units of the formula -[CH 2 -CH 2 -O-]- , ii) at least one segment S2 has a number average molecular weight of at most 10,000 g/mol and consists of ether repeating units, and for at most 25 % by weight of repeating units of the formula -[CH 2 -CH 2 -O-]- , iii) polymer P comprises terminal groups comprising at least one of hydroxyl, primary amine or salts thereof, secondary amine or salts thereof, carboxylic acid or salts thereof. i) at least one segment S1 has a number average molecular weight in the range of 6,000 - 25,000 g/mol and consists of ether repeating units, and for at least 75 % by weight of repeating units of the formula -[CH 2 -CH 2 -O-]- , ii) at least one segment S2 has a number average molecular weight of at most 10,000 g/mol and consists of ether repeating units, and for at most 25 % by weight of repeating units of the formula -[CH 2 -CH 2 -O-]- , iii) polymer P comprises terminal groups comprising at least one of hydroxyl, primary amine or salts thereof, secondary amine or salts thereof, carboxylic acid or salts thereof.
A method for producing perfumed particles, powder or granules comprising the steps of: I) providing particles, powder or granules, which comprises washing and cleaning, respectively detergent ingredients; II) obtaining or preparing a dispersion; III) spraying the dispersion of step II) onto the detergent composition of step a), wherein the temperature during the spraying is from 15°C to 120°C, wherein said dispersion comprises A) 0.1 wt.% to 80 wt.% encapsulated fragrances; B) 0.001 wt.% to 10 wt.% viscosity modifiers, C) 0.001 wt.% to 80 wt.% non-encapsulated fragrances, D) 0.001 wt.% to 99 wt.% additives, and E) 30 wt.% to 99 wt.% water; all weight percent of the compounds A) to E) are referred to the total amount of the dispersion and with the proviso that the components add to 100 wt.%, and wherein the particle size of the encapsulated fragrances have a d v value from 5 μm to 60 μm and a d v value from 140 μm to 180 μm and wherein the viscosity of the dispersion is adjusted to 5 mPas to 400 mPas, determined by using a cone - plate system with 60 mm cone diameter and 2 degree cone angle at a shear stress of 6.4 Pa at a temperature of 23°C and measured before the dispersion is sprayed onto the particles, powder or granules of step I). I) providing particles, powder or granules, which comprises washing and cleaning, respectively detergent ingredients; II) obtaining or preparing a dispersion; III) spraying the dispersion of step II) onto the detergent composition of step a), wherein the temperature during the spraying is from 15°C to 120°C, A) 0.1 wt.% to 80 wt.% encapsulated fragrances; B) 0.001 wt.% to 10 wt.% viscosity modifiers, C) 0.001 wt.% to 80 wt.% non-encapsulated fragrances, D) 0.001 wt.% to 99 wt.% additives, and E) 30 wt.% to 99 wt.% water;
Filling head for a fuel tank, particularly of a vehicle, the head comprising a tubular sleeve of which a first longitudinal end defines a filling opening and of which a second longitudinal end is intended to be fixed to one end of a fuel pipe , the head further comprising a ring mounted in the said sleeve and comprising a passage orifice for a filling nozzle, the said sleeve being made of HDPE and its second end being intended to be fixed by welding to the said end of the said fuel pipe, the filling head being characterized in that at least one annular sealing gasket is mounted between the said ring and the said sleeve near the said second end.
An optical inspection system for optically characterizing a sample , the optical inspection system comprising: one or more illumination sources configured to deliver incident light to a sampling interface; a collector configured to collect reflected light returning from the sample to form collected return light; a sensor with a plurality of regions configured to measure the collected return light, wherein the sensor is configured to generate a plurality of signals from measured ray intensities as a function of ray positions and ray angles of the measured collected return light, wherein the ray positions are locations of the collected return light at the sensor , and the ray angles are angles of the collected return light at the sensor ; and a computer including a characterizer configured to: assign weights to the plurality of signals when determining a physical property of the sample, wherein some of the assigned weights are different from one another and correspond to different regions of the sensor ; and determine a physical property of the sample based on the measured ray intensities as a function of ray positions and ray angles. one or more illumination sources configured to deliver incident light to a sampling interface; a collector configured to collect reflected light returning from the sample to form collected return light; a sensor with a plurality of regions configured to measure the collected return light, wherein the sensor is configured to generate a plurality of signals from measured ray intensities as a function of ray positions and ray angles of the measured collected return light, wherein the ray positions are locations of the collected return light at the sensor , and the ray angles are angles of the collected return light at the sensor ; and a computer including a characterizer configured to: assign weights to the plurality of signals when determining a physical property of the sample, wherein some of the assigned weights are different from one another and correspond to different regions of the sensor ; and determine a physical property of the sample based on the measured ray intensities as a function of ray positions and ray angles. assign weights to the plurality of signals when determining a physical property of the sample, wherein some of the assigned weights are different from one another and correspond to different regions of the sensor ; and determine a physical property of the sample based on the measured ray intensities as a function of ray positions and ray angles.
A method performed by a multi-cell/multicast coordination entity, MCE, in a wireless communication system, the method comprising: receiving (S100) information on resource allocation for a downlink, DL, vehicle-to-everything, V2X, message from a V2X application server, wherein the information on resource allocation is determined by the V2X application server based on an uplink, UL, V2X message, which is transmitted from a vehicle user equipment, UE, or a road side unit, RSU, UE; allocating (S110) resources for the DL V2X message based on the received information on resource allocation; characterised in that said method further comprises: transmitting (S120) a multimedia broadcast multicast services, MBMS, scheduling information message to an eNodeB, eNB, supporting V2X communication or a RSU supporting V2X communication, wherein the MBMS scheduling information message includes at least one of a physical multicast channel, PMCH, configuration, a MBMS session list per PMCH, a multicast-broadcast single-frequency network, MBSFN, subframe configuration, or a MBSFN area ID, wherein the PMCH configuration, the MBMS session list per PMCH, and the MBSFN subframe configuration are an updated PMCH configuration, an updated MBMS session list per PMCH, and an updated MBSFN subframe configuration, respectively. receiving (S100) information on resource allocation for a downlink, DL, vehicle-to-everything, V2X, message from a V2X application server, wherein the information on resource allocation is determined by the V2X application server based on an uplink, UL, V2X message, which is transmitted from a vehicle user equipment, UE, or a road side unit, RSU, UE; allocating (S110) resources for the DL V2X message based on the received information on resource allocation; characterised in that said method further comprises: transmitting (S120) a multimedia broadcast multicast services, MBMS, scheduling information message to an eNodeB, eNB, supporting V2X communication or a RSU supporting V2X communication, wherein the MBMS scheduling information message includes at least one of a physical multicast channel, PMCH, configuration, a MBMS session list per PMCH, a multicast-broadcast single-frequency network, MBSFN, subframe configuration, or a MBSFN area ID, wherein the PMCH configuration, the MBMS session list per PMCH, and the MBSFN subframe configuration are an updated PMCH configuration, an updated MBMS session list per PMCH, and an updated MBSFN subframe configuration, respectively. transmitting (S120) a multimedia broadcast multicast services, MBMS, scheduling information message to an eNodeB, eNB, supporting V2X communication or a RSU supporting V2X communication, wherein the MBMS scheduling information message includes at least one of a physical multicast channel, PMCH, configuration, a MBMS session list per PMCH, a multicast-broadcast single-frequency network, MBSFN, subframe configuration, or a MBSFN area ID, wherein the PMCH configuration, the MBMS session list per PMCH, and the MBSFN subframe configuration are an updated PMCH configuration, an updated MBMS session list per PMCH, and an updated MBSFN subframe configuration, respectively.
An operating table for securing and holding breasts of a patient (P), the operating table comprising: a patient placement table configured to place and secure the patient (P) at a supine position and to hold the secured state of the patient (P) also in a state where the patient (P) is rotated such that breasts of the patient (P) droop; a main body configured to support the patient placement table from below; a coupling unit configured to removably couple the patient placement table to the main body ; and a rotation mechanism configured to rotate the patient placement table with a hand-feet direction as the rotation axis and to hold the patient placement table at any given rotation angle, wherein the patient placement table includes a mounting member configured to mount a securing unit so that the mounted securing unit can secure and hold the breasts of the patient (P) to allow an irradiation of a proton beam on the breasts while keeping the breasts away from the chest wall; and wherein while the patient placement table on which the patient (P) is placed at a supine position is coupled to the main body using the coupling unit , the patient placement table is configured to rotate about the rotation axis by the rotation mechanism, and the securing unit is configured to secure the drooping breast of the patient (P), the securing unit being mounted to the mounting member . a patient placement table configured to place and secure the patient (P) at a supine position and to hold the secured state of the patient (P) also in a state where the patient (P) is rotated such that breasts of the patient (P) droop; a main body configured to support the patient placement table from below; a coupling unit configured to removably couple the patient placement table to the main body ; and a rotation mechanism configured to rotate the patient placement table with a hand-feet direction as the rotation axis and to hold the patient placement table at any given rotation angle, wherein the patient placement table includes a mounting member configured to mount a securing unit so that the mounted securing unit can secure and hold the breasts of the patient (P) to allow an irradiation of a proton beam on the breasts while keeping the breasts away from the chest wall; and wherein while the patient placement table on which the patient (P) is placed at a supine position is coupled to the main body using the coupling unit , the patient placement table is configured to rotate about the rotation axis by the rotation mechanism, and the securing unit is configured to secure the drooping breast of the patient (P), the securing unit being mounted to the mounting member .
A dental mirror system, comprising: a dental instrument , comprising: an image sensor , a handle that enables a health care provider to grasp the dental instrument, a mirror surface affixed to the handle and configured to reflect light into the health care provider's field of view, wherein the mirror surface comprises a pass-through surface configured such that at least one side is transparent to the image sensor, a base station connector , and an orientation measuring device including a gyroscope and configured to: (i) collect data to determine an orientation of the dental instrument; (ii) receive a signal from the base station connector when the dental instrument is docked in a known orientation; and an image orientation module configured to reorient an image captured by the image sensor according to the determined orientation of the dental instrument; characterised in that the orientation measuring device further configured to (iii) when the dental instrument is docked in the known orientation, calibrate such that a future calculation of the orientation of the dental instrument is relative to the known orientation. a dental instrument , comprising: an image sensor , a handle that enables a health care provider to grasp the dental instrument, a mirror surface affixed to the handle and configured to reflect light into the health care provider's field of view, wherein the mirror surface comprises a pass-through surface configured such that at least one side is transparent to the image sensor, a base station connector , and an orientation measuring device including a gyroscope and configured to: (i) collect data to determine an orientation of the dental instrument; (ii) receive a signal from the base station connector when the dental instrument is docked in a known orientation; and an image sensor , a handle that enables a health care provider to grasp the dental instrument, a mirror surface affixed to the handle and configured to reflect light into the health care provider's field of view, wherein the mirror surface comprises a pass-through surface configured such that at least one side is transparent to the image sensor, a base station connector , and an orientation measuring device including a gyroscope and configured to: (i) collect data to determine an orientation of the dental instrument; (ii) receive a signal from the base station connector when the dental instrument is docked in a known orientation; and an image orientation module configured to reorient an image captured by the image sensor according to the determined orientation of the dental instrument;
An oil cooling structure of an engine in which a transmission case is attached to one end wall of an engine body , and a transmission mechanism for accessory drive is provided in the transmission case , characterised in that the transmission case comprises a cover partitioned by a plurality of rib walls (9B to 9H), and case inner chamber portions formed by the rib walls (9B to 9H) in the transmission case are configured as a transporting passage (W) of oil circulated by an oil pump (P), wherein the oil pump (P), driven by the transmission mechanism , is provided in the transmission case , and the case inner chamber portions formed by the rib walls (9B to 9H) are set as the transporting passage (W) of discharged oil and the transporting passage (W) of return oil with respect to the oil pump (P).