mhurhangee/patent-ind-claim-en huggingface dataset:
A microelectromechanical systems, MEMS, device comprising: a flexure spaced apart from a surface of a substrate , the flexure including: an elongated beam (68; 122) having a sidewall defining a longitudinal dimension of the elongated beam ; and a protrusion element (74; 132, 134) extending outwardly from the sidewall of the elongated beam (68; 122); the protrusion element (74; 132, 134) is a T-shaped structure having a base and a crossmember , a first end of the base being coupled to the sidewall of the elongated beam and a central portion of the crossmember being coupled to a second end of the base , wherein the crossmember has a length that is greater than a width of the base , wherein the elongated beam (68; 122) comprises a serpentine flexure having a first beam segment , a second beam segment , and at least one interposing beam segment located between the first and second beam segments , the first beam segment , the at least one interposing beam segment , and the second beam segment being interconnected via connectors to form the serpentine flexure; the sidewall of the elongated beam is a first sidewall of the first beam segment; the protrusion element is a first protrusion element outwardly extending from the first side wall of the first beam segment ; and the flexure further comprises a third protrusion element outwardly extending from a second sidewall of the second beam segment . an elongated beam (68; 122) having a sidewall defining a longitudinal dimension of the elongated beam ; and a protrusion element (74; 132, 134) extending outwardly from the sidewall of the elongated beam (68; 122); the protrusion element (74; 132, 134) is a T-shaped structure having a base and a crossmember , a first end of the base being coupled to the sidewall of the elongated beam and a central portion of the crossmember being coupled to a second end of the base , wherein the crossmember has a length that is greater than a width of the base , wherein the elongated beam (68; 122) comprises a serpentine flexure having a first beam segment , a second beam segment , and at least one interposing beam segment located between the first and second beam segments , the first beam segment , the at least one interposing beam segment , and the second beam segment being interconnected via connectors to form the serpentine flexure; the sidewall of the elongated beam is a first sidewall of the first beam segment; the protrusion element is a first protrusion element outwardly extending from the first side wall of the first beam segment ; and the flexure further comprises a third protrusion element outwardly extending from a second sidewall of the second beam segment .
A channel state information, CSI, request method performed by a base station, comprising: identifying state related information, wherein a relationship between at least one downlink, DL, component carrier, CC, and aperiodic CSI request is predefined based on one state of the state related information; transmitting the state related information to a terminal through RRC signaling; setting a field for an aperiodic CSI request in an uplink, UL, grant to a value, wherein the value is associated with at least one DL CC for aperiodic CSI request based on the state related information; transmitting the UL grant to the terminal on a DL CC linked to an UL CC; and receiving at least one aperiodic CSI corresponding to the at least one DL CC for aperiodic CSI request, on the UL CC linked to the DL CC on which the UL grant is transmitted. identifying state related information, wherein a relationship between at least one downlink, DL, component carrier, CC, and aperiodic CSI request is predefined based on one state of the state related information; transmitting the state related information to a terminal through RRC signaling; setting a field for an aperiodic CSI request in an uplink, UL, grant to a value, wherein the value is associated with at least one DL CC for aperiodic CSI request based on the state related information; transmitting the UL grant to the terminal on a DL CC linked to an UL CC; and receiving at least one aperiodic CSI corresponding to the at least one DL CC for aperiodic CSI request, on the UL CC linked to the DL CC on which the UL grant is transmitted.
An in-situ foaming system for forming a flame-retardant polyurethane foam in situ comprising: a first liquid containing a polyisocyanate (A); a second liquid containing a polyol (B); a trimerization catalyst (C); a foaming agent (D); a foam stabilizer (E); and additives (F) comprising red phosphorus and at least one member selected from the group consisting of phosphoric acid esters, phosphate-containing flame retardants, bromine-containing flame retardants, boron-containing flame retardants, antimony-containing flame retardants, metal hydroxides, and needle-shaped fillers wherein the additives (F) are contained in an amount within a range of 4.5 to 70 parts by weight, the red phosphorus is contained in an amount within a range of 3 to 18 parts by weight, the at least one member is selected from the group consisting of phosphoric acid esters, phosphate-containing flame retardants, bromine-containing flame retardants, boron-containing flame retardants, antimony-containing flame retardants, metal hydroxides, contained in an amount within a range of 1.5 to 52 parts by weight, and needle-shaped fillers contained in an amount within a range of 3.0 to 30 parts by weight, based on 100 parts by weight of the urethane resin, and the in-situ foaming system is a two-liquid mixing vessel including a first container containing the first liquid containing a polyisocyanate (A) and a second container containing the second liquid containing a polyol (B). a first liquid containing a polyisocyanate (A); a second liquid containing a polyol (B); a trimerization catalyst (C); a foaming agent (D); a foam stabilizer (E); and additives (F) comprising red phosphorus and at least one member selected from the group consisting of phosphoric acid esters, phosphate-containing flame retardants, bromine-containing flame retardants, boron-containing flame retardants, antimony-containing flame retardants, metal hydroxides, and needle-shaped fillers wherein the additives (F) are contained in an amount within a range of 4.5 to 70 parts by weight, the red phosphorus is contained in an amount within a range of 3 to 18 parts by weight, the at least one member is selected from the group consisting of phosphoric acid esters, phosphate-containing flame retardants, bromine-containing flame retardants, boron-containing flame retardants, antimony-containing flame retardants, metal hydroxides, contained in an amount within a range of 1.5 to 52 parts by weight, and needle-shaped fillers contained in an amount within a range of 3.0 to 30 parts by weight, based on 100 parts by weight of the urethane resin, and the in-situ foaming system is a two-liquid mixing vessel including a first container containing the first liquid containing a polyisocyanate (A) and a second container containing the second liquid containing a polyol (B).
Lubrication arrangement , comprising at least one housing , at least one shaft , at least one bearing system which is designed to hold the shaft in the housing and to permit said shaft to rotate, lubricant which is distributed in the housing with the rotation of the shaft , a lubricant deflector which is provided in a stationary manner relative to the housing above the shaft , wherein lubricant strikes against the lubricant deflector and by the action of gravity the lubricant is conducted to the bearing system of the shaft so that the bearing system is supplied with lubricant, wherein the housing has a bore , the lubricant draining off the lubricant deflector into said bore by the action of gravity, characterized in that the lubricant deflector as a first alternative has an impact surface which is oriented parallel to a longitudinal axis of the shaft so that the lubricant is spun onto the impact surface and runs down the lubricant deflector , or the lubricant deflector as a second alternative is a tube with an opening at an upper end which is provided counter to the rotational direction of the shaft , so that lubricant is conveyed into the opening by the rotation and runs down inside the tube . at least one housing , at least one shaft , at least one bearing system which is designed to hold the shaft in the housing and to permit said shaft to rotate, lubricant which is distributed in the housing with the rotation of the shaft , a lubricant deflector which is provided in a stationary manner relative to the housing above the shaft , wherein lubricant strikes against the lubricant deflector and by the action of gravity the lubricant is conducted to the bearing system of the shaft so that the bearing system is supplied with lubricant, wherein the housing has a bore , the lubricant draining off the lubricant deflector into said bore by the action of gravity, characterized in that the lubricant deflector as a first alternative has an impact surface which is oriented parallel to a longitudinal axis of the shaft so that the lubricant is spun onto the impact surface and runs down the lubricant deflector , or the lubricant deflector as a second alternative is a tube with an opening at an upper end which is provided counter to the rotational direction of the shaft , so that lubricant is conveyed into the opening by the rotation and runs down inside the tube .
A method for estimating the ageing state of fuse elements provided inside a vehicle fuse box, this method comprising steps that consist to: a) measure and monitor the current (I1, I2) flowing through each fuse element ; b) increment a counter each time the current (I1, I2) flowing through the fuse element exceeds fuse rating, said counter corresponding to the number of current peaks supported by the fuse element ; wherein the method is characterised by the following steps that consist to: c) extract from a pre-established model a threshold number of current peaks that the fuse element can withstand; d) determine the ageing state of the fuse element as the quotient between the counter calculated at step b) and the threshold number extracted at step c), the fuse element being considered as worn out when said quotient reaches 100%. a) measure and monitor the current (I1, I2) flowing through each fuse element ; b) increment a counter each time the current (I1, I2) flowing through the fuse element exceeds fuse rating, said counter corresponding to the number of current peaks supported by the fuse element ; c) extract from a pre-established model a threshold number of current peaks that the fuse element can withstand; d) determine the ageing state of the fuse element as the quotient between the counter calculated at step b) and the threshold number extracted at step c), the fuse element being considered as worn out when said quotient reaches 100%.
A method performed by a terminal for performing a handover in a wireless communication system, the method comprising: measuring a first signal quality of a first network; determining whether a handover to a second network from the first network is required based on the first signal quality; when the handover is determined to be required, uploading or downloading data through both a connection with the first network and a connection with the second network; measuring a second signal quality of the first network, wherein measuring the second signal quality of the first network includes converting the second signal quality into a quality value; determining (705, 803~807, 1211) whether to perform the handover based on the second signal quality of the first network and storing a parameter related to the first network, wherein the stored parameter is used for a recovery of the connection with the first network after releasing the connection with the first network, wherein determining whether to perform the handover includes: determining to release the connection with the first network when the second signal quality of the first network is smaller than a first threshold, or when the second signal quality of the first network is larger than the first threshold and smaller than a second threshold, and a first mean value for a number of quality values measured during a predetermined period is smaller than a second mean value for a number of quality values immediately before; and performing the handover based on the determination of whether to perform the handover. measuring a first signal quality of a first network; determining whether a handover to a second network from the first network is required based on the first signal quality; when the handover is determined to be required, uploading or downloading data through both a connection with the first network and a connection with the second network; measuring a second signal quality of the first network, wherein measuring the second signal quality of the first network includes converting the second signal quality into a quality value; determining (705, 803~807, 1211) whether to perform the handover based on the second signal quality of the first network and storing a parameter related to the first network, wherein the stored parameter is used for a recovery of the connection with the first network after releasing the connection with the first network, wherein determining whether to perform the handover includes: determining to release the connection with the first network when the second signal quality of the first network is smaller than a first threshold, or when the second signal quality of the first network is larger than the first threshold and smaller than a second threshold, and a first mean value for a number of quality values measured during a predetermined period is smaller than a second mean value for a number of quality values immediately before; and performing the handover based on the determination of whether to perform the handover.
A method of recovering oil from oil-producing microorganisms comprising (a) culturing the microorganisms in a fermentation medium; (b) contacting the microorganisms in the fermentation medium with an enzyme under conditions that causes enzymatic hydrolysis of the microorganisms, wherein the contacting step is performed in the presence of 0.001% to 0.4% enzyme (volume to volume) for one to twenty hours at a temperature from 45°C to 70°C, and wherein the hydrolyzed microorganisms comprise the oil; (c) concentrating the hydrolyzed microorganisms comprising the oil by removing 50-95% by volume of the fermentation media from the hydrolyzed microorganisms comprising the oil; (d) extracting the oil from the concentrated hydrolyzed microorganisms of step (c) at a temperature of 55°C to 95°C, in the presence of a salt and less than 0.5% of an organic solvent based on the weight of the disrupted microorganisms, wherein extraction separates the oil from the hydrolyzed microorganisms; and (e) recovering the oil of step (d). (a) culturing the microorganisms in a fermentation medium; (b) contacting the microorganisms in the fermentation medium with an enzyme under conditions that causes enzymatic hydrolysis of the microorganisms, wherein the contacting step is performed in the presence of 0.001% to 0.4% enzyme (volume to volume) for one to twenty hours at a temperature from 45°C to 70°C, and wherein the hydrolyzed microorganisms comprise the oil; (c) concentrating the hydrolyzed microorganisms comprising the oil by removing 50-95% by volume of the fermentation media from the hydrolyzed microorganisms comprising the oil; (d) extracting the oil from the concentrated hydrolyzed microorganisms of step (c) at a temperature of 55°C to 95°C, in the presence of a salt and less than 0.5% of an organic solvent based on the weight of the disrupted microorganisms, wherein extraction separates the oil from the hydrolyzed microorganisms; and (e) recovering the oil of step (d).
A computer-implemented method to operate an autonomous driving vehicle, the method comprising: measuring and collecting a first set of driving statistics of an autonomous driving vehicle, ADV, at different points in time in response to various control commands while the ADV is driving; selecting one of a plurality of load calibration tables having a second set of driving statistics similar to the first set of driving statistics, wherein each of the load calibration tables is associated with a particular load; and determining a current load of the ADV based on the selected load calibration table, wherein the current load of the ADV is utilized as an adjustment factor for issuing subsequent control commands for autonomous driving of the ADV. measuring and collecting a first set of driving statistics of an autonomous driving vehicle, ADV, at different points in time in response to various control commands while the ADV is driving; selecting one of a plurality of load calibration tables having a second set of driving statistics similar to the first set of driving statistics, wherein each of the load calibration tables is associated with a particular load; and determining a current load of the ADV based on the selected load calibration table, wherein the current load of the ADV is utilized as an adjustment factor for issuing subsequent control commands for autonomous driving of the ADV.
Computer-implemented method for virtual fitting of spectacles, said method comprising: defining first measurement points on a 3-D model of a head of a person, wherein measurement points are points on a model that can serve subsequent fitting of spectacles, and fitting a model of a spectacle frame to the 3-D model of the head on the basis of the first measurement points, characterized in that defining the first measurement points comprises: fitting a parametric head model to the 3-D model of the head of the person and determining the first measurement points on the basis of second measurement points defined on the parametric head model and the fitting of the parametric head model to the 3-D model of the head. defining first measurement points on a 3-D model of a head of a person, wherein measurement points are points on a model that can serve subsequent fitting of spectacles, and fitting a model of a spectacle frame to the 3-D model of the head on the basis of the first measurement points, characterized in that defining the first measurement points comprises: fitting a parametric head model to the 3-D model of the head of the person and determining the first measurement points on the basis of second measurement points defined on the parametric head model and the fitting of the parametric head model to the 3-D model of the head. fitting a parametric head model to the 3-D model of the head of the person and determining the first measurement points on the basis of second measurement points defined on the parametric head model and the fitting of the parametric head model to the 3-D model of the head.
A method of forming a chemically strengthened glass-based article, the method comprising: ion exchanging a plurality of alkali ions into a glass-based substrate to form a glass-based article with a non-zero alkali metal oxide concentration that varies along at least a substantial portion of a thickness ( t ) of the glass-based substrate, wherein the ion exchanging comprises immersing the glass-based substrate in a molten salt bath at a temperature in a range from 380°C to 450°C for a time in the range of 50% to 130% of the ion exchange time that produces a peak central tension (CT) with the same molten salt bath composition and temperature, wherein the molten salt bath comprises: at least 90% by weight of a potassium salt and 10% by weight or less of a sodium salt, and wherein the glass-based substrate comprises: a lithium aluminosilicate glass, wherein a molar ratio Li 2 O/R 2 O is greater than 0.65, with R 2 O being the total amount of alkali metal oxides in the glass, a first surface and a second surface opposing the first surface defining a thickness ( t ), a length dimension, a width, and a weight. ion exchanging a plurality of alkali ions into a glass-based substrate to form a glass-based article with a non-zero alkali metal oxide concentration that varies along at least a substantial portion of a thickness ( t ) of the glass-based substrate, wherein the ion exchanging comprises immersing the glass-based substrate in a molten salt bath at a temperature in a range from 380°C to 450°C for a time in the range of 50% to 130% of the ion exchange time that produces a peak central tension (CT) with the same molten salt bath composition and temperature, wherein the molten salt bath comprises: at least 90% by weight of a potassium salt and 10% by weight or less of a sodium salt, and wherein the glass-based substrate comprises: a lithium aluminosilicate glass, wherein a molar ratio Li 2 O/R 2 O is greater than 0.65, with R 2 O being the total amount of alkali metal oxides in the glass, a first surface and a second surface opposing the first surface defining a thickness ( t ), a length dimension, a width, and a weight. a lithium aluminosilicate glass, wherein a molar ratio Li 2 O/R 2 O is greater than 0.65, with R 2 O being the total amount of alkali metal oxides in the glass, a first surface and a second surface opposing the first surface defining a thickness ( t ), a length dimension, a width, and a weight.
Furniture component with a driven furniture fitting to movably connect two furniture elements , and with an electric motor , wherein the furniture fitting can be disposed on a first furniture element of the two furniture elements , and is provided to drive the second furniture element by means of the motor , so as to generate motorassisted movement of the second furniture element versus the first furniture element between at least two positions , at least in sections, wherein a first position of the two positions is a farther closed position, in which the second furniture element separates a storage space more strictly than in the second position , which is a farther opened position, wherein the motor is configured substantially disk-shaped, and is configured as an electric, brushless motor with a rotor with magnetic elements , and a stator with current-conductible coils is disposed in the rotor , and a rotational axis of the rotor extends through the stator , and that the rotary motion of the motor is converted to movement between the two positions , and wherein at least three phases are disposed on the stator , characterized in that at least one sensor is comprised to capture or estimate at least one position of the second furniture element , and that the sensor is coupled with a control , and wherein the control and the sensor is configured and set up to avoid experimental starting of the motor in both directions to find out the position of the motor , and the correct current feed to the coils dependent thereon. wherein a first position of the two positions is a farther closed position, in which the second furniture element separates a storage space more strictly than in the second position , which is a farther opened position, wherein the motor is configured substantially disk-shaped, and is configured as an electric, brushless motor with a rotor with magnetic elements , and a stator with current-conductible coils is disposed in the rotor , and a rotational axis of the rotor extends through the stator , and that the rotary motion of the motor is converted to movement between the two positions , and wherein at least three phases are disposed on the stator , characterized in that at least one sensor is comprised to capture or estimate at least one position of the second furniture element , and that the sensor is coupled with a control , and wherein the control and the sensor is configured and set up to avoid experimental starting of the motor in both directions to find out the position of the motor , and the correct current feed to the coils dependent thereon.