mhurhangee/ep-ind-claims huggingface dataset:
Expansible anchor made of metal for anchoring in a drilled hole in an anchoring substrate, especially made of concrete, for fixing an article, having - a shank having a load-application means, - an expander body which widens conically in the direction of introduction at a first cone angle (W s) up to a maximum diameter, and - with an expansion sleeve which is expansible by relative displacement of the expander body, and which - has a substantially cylindrical main body having a first wall thickness (t G) and - at its end that is at the front in the direction of introduction a continuation piece having a smaller second wall thickness (t F), - wherein the transition from the main body to the continuation piece is formed by a diameter step on the outer side, characterised in that - neither the expander body nor the expansion sleeve has an anti-friction coating - and in respect of the first wall thickness (t G) of the main body the following applies: 0.08 * D + 0.20 mm ≤ t G ≤ 0.13 * D + 0.25 mm - and in respect of the second wall thickness (t F) of the continuation piece the following applies: 0.26 * t G + 0.03 mm ≤ t F ≤ 0.60 * t G + 0.30 mm - and in respect of the first cone angle (W s) of the expander body the following applies: 0.11° * D/mm + 8.83° ≤ W s ≤ 0.17° * D/mm + 11.50°. - a shank having a load-application means, - an expander body which widens conically in the direction of introduction at a first cone angle (W s) up to a maximum diameter, and - with an expansion sleeve which is expansible by relative displacement of the expander body, and which - has a substantially cylindrical main body having a first wall thickness (t G) and - at its end that is at the front in the direction of introduction a continuation piece having a smaller second wall thickness (t F), - wherein the transition from the main body to the continuation piece is formed by a diameter step on the outer side, - neither the expander body nor the expansion sleeve has an anti-friction coating - and in respect of the first wall thickness (t G) of the main body the following applies: 0.08 * D + 0.20 mm ≤ t G ≤ 0.13 * D + 0.25 mm - and in respect of the second wall thickness (t F) of the continuation piece the following applies: 0.26 * t G + 0.03 mm ≤ t F ≤ 0.60 * t G + 0.30 mm - and in respect of the first cone angle (W s) of the expander body the following applies: 0.11° * D/mm + 8.83° ≤ W s ≤ 0.17° * D/mm + 11.50°.
A yeast cell that is genetically engineered, the yeast cell comprising, an enzyme catalyzing the conversion from acetaldehyde to acetyl-CoA and an enzyme catalyzing the conversion from pyruvate to lactate, of which activities are increased compared to a parent cell of the yeast cell, and a lactate production capacity, wherein the enzyme catalyzing the conversion from acetaldehyde to acetyl-CoA is acetylating acetaldehyde dehydrogenase and wherein the yeast cell comprises an exogenous gene that codes the enzyme catalyzing the conversion from acetaldehyde to acetyl-CoA and an exogenous gene that codes the enzyme catalyzing the conversion from pyruvate to lactate.
A power conversion apparatus, comprising: a power supply phase detecting part (103, 108) for detecting a voltage phase and a current phase of a single-phase alternate current power supply, to output information on the detected voltage phase and the detected current phase as power supply phase information; a waveform generating part, having a plurality of bidirectional switching devices (Q1 - Q6) and configured by connection of a power supply line of the single-phase AC power supply and an output line to a multi-phase load through the bidirectional switching device; and a waveform generation controlling part for drive-controlling the bidirectional switching device based upon the power supply phase information from the power supply phase detecting part (103, 108), and also PWM-controlling the bidirectional switching device based upon a previously set command signal, to make a multi-phase AC with a predetermined frequency outputted from the waveform generating part; wherein the waveform generation controlling part is configured to drive-control the bidirectional switching device to a mode for circulating a current from the multi-phase AC load into the multi-phase AC load based upon the power supply phase information from the power supply phase detecting part (103, 108) during a period of positive and negative regions being different between a power supply voltage waveform and a power supply current waveform. a power supply phase detecting part (103, 108) for detecting a voltage phase and a current phase of a single-phase alternate current power supply, to output information on the detected voltage phase and the detected current phase as power supply phase information; a waveform generating part, having a plurality of bidirectional switching devices (Q1 - Q6) and configured by connection of a power supply line of the single-phase AC power supply and an output line to a multi-phase load through the bidirectional switching device; and a waveform generation controlling part for drive-controlling the bidirectional switching device based upon the power supply phase information from the power supply phase detecting part (103, 108), and also PWM-controlling the bidirectional switching device based upon a previously set command signal, to make a multi-phase AC with a predetermined frequency outputted from the waveform generating part; wherein the waveform generation controlling part is configured to drive-control the bidirectional switching device to a mode for circulating a current from the multi-phase AC load into the multi-phase AC load based upon the power supply phase information from the power supply phase detecting part (103, 108) during a period of positive and negative regions being different between a power supply voltage waveform and a power supply current waveform.
A stock solution comprising: (a) 20 - 70 wt%. of an organic acid selected from the group consisting of acetic, propionic, butyric and mixtures thereof, (b) 1 - 9 wt.% of ethoxylated castor oil surfactant having an HLB from 4 to 18 and a molar ratio of 1 molecule of castor oil to 1 - 200 molecules of ethylene oxide, wherein the ethoxylated castor oil surfactant has 1 to 200 ethylene oxide molecules distributed normally around a mean of 40 to 80, (c) antimicrobial terpenes or essential oils, wherein the antimicrobial terpenes or essential oils are present in an amount of up to 10 % by weight. (a) 20 - 70 wt%. of an organic acid selected from the group consisting of acetic, propionic, butyric and mixtures thereof, (b) 1 - 9 wt.% of ethoxylated castor oil surfactant having an HLB from 4 to 18 and a molar ratio of 1 molecule of castor oil to 1 - 200 molecules of ethylene oxide, wherein the ethoxylated castor oil surfactant has 1 to 200 ethylene oxide molecules distributed normally around a mean of 40 to 80, (c) antimicrobial terpenes or essential oils, wherein the antimicrobial terpenes or essential oils are present in an amount of up to 10 % by weight.
Method for accessing to at least one optical fibre contained in an optical module of an optical fibre transmission cable, the optical module comprising a protective sheath made from polymeric material belonging to the family of thermoplastic polymers in which said at least one optical fibre is housed, said method being characterised in that it comprises the following steps: - extracting said optical module from said transmission cable; - irreversible degrading the polymeric material over a portion to be stripped of the sheath of said optical module by heating to a predetermined temperature comprised between 100°C and 140°C, for a predetermined period; - accessing to said at least one optical fibre by stripping said portion that has been degraded by heating; - cleaning said at least one optical fibre made accessible. - extracting said optical module from said transmission cable; - irreversible degrading the polymeric material over a portion to be stripped of the sheath of said optical module by heating to a predetermined temperature comprised between 100°C and 140°C, for a predetermined period; - accessing to said at least one optical fibre by stripping said portion that has been degraded by heating; - cleaning said at least one optical fibre made accessible.
A first stage gas turbine blade secured to an insertion groove by an axial entry method, the insertion groove being formed on a rotor disk and parallel to the rotor disk rotating shaft, the blade comprising: a platform having a divisional plane which is formed parallel to a direction of turbine rotational axis; and an airfoil profile which is configured so that a peak of the airfoil back-side profile of a blade-root cross-section and a lowest point of an airfoil ventral-side profile of another blade adjacent thereto are formed not to overlap each other, characterized in that the airfoil profile is formed such that a passage width ratio, represented in a dimensionless manner, of an inter-blade passage width of a vane root cross-section to an outlet throat width monotonously decreases toward a blade outlet after monotone increasing from a blade inlet; and the airfoil profile is formed such that a ratio of a peak passage width ratio to a passage width ratio at the blade inlet is set to 1.05 or less. a platform having a divisional plane which is formed parallel to a direction of turbine rotational axis; and an airfoil profile which is configured so that a peak of the airfoil back-side profile of a blade-root cross-section and a lowest point of an airfoil ventral-side profile of another blade adjacent thereto are formed not to overlap each other, characterized in that the airfoil profile is formed such that a passage width ratio, represented in a dimensionless manner, of an inter-blade passage width of a vane root cross-section to an outlet throat width monotonously decreases toward a blade outlet after monotone increasing from a blade inlet; and the airfoil profile is formed such that a ratio of a peak passage width ratio to a passage width ratio at the blade inlet is set to 1.05 or less.
An over torque detection system, the system comprising: a mechanical torque sensor that includes: a first contact element; a moveable element coupled to the first contact element; and a second contact element; wherein in a normal operational state the moveable element is in contact with the second contact element and creates an electrical pathway between the first contact element and second contact element and when in over torque operational state the movable element moves such that it does not contact the second contact element and breaks any electrical pathway between the first contact element and the second contact element; and a radio frequency identification, RFID, tag connected to the first contact element and the second contact element such that when the mechanical torque sensor is in the normal operation state the RFID tag does not transmit information, and when the mechanical torque sensor is in the over torque operation state the RFID tag does transmit information. a mechanical torque sensor that includes: a first contact element; a moveable element coupled to the first contact element; and a second contact element; wherein in a normal operational state the moveable element is in contact with the second contact element and creates an electrical pathway between the first contact element and second contact element and when in over torque operational state the movable element moves such that it does not contact the second contact element and breaks any electrical pathway between the first contact element and the second contact element; and a first contact element; a moveable element coupled to the first contact element; and a second contact element; wherein in a normal operational state the moveable element is in contact with the second contact element and creates an electrical pathway between the first contact element and second contact element and when in over torque operational state the movable element moves such that it does not contact the second contact element and breaks any electrical pathway between the first contact element and the second contact element; and a radio frequency identification, RFID, tag connected to the first contact element and the second contact element such that when the mechanical torque sensor is in the normal operation state the RFID tag does not transmit information, and when the mechanical torque sensor is in the over torque operation state the RFID tag does transmit information.
Sports goal comprising a self-supporting structure having a flat base, a part of the structure, called the "frame part", delimiting an opening on a front face of the structure, the structure integrating means for modifying the dimensions of the opening which comprise: - telescopic elements comprising female parts and male parts slidingly mounted in the female parts; - locking means of a sliding depth of the male parts in the female parts, the locking means, on the frame part, being arranged on a rear face of the structure and comprising for each male part sliding in a female part: - a locking member carried by the female part; - cooperating means with the locking member, the cooperating means being integrated into the male part and extending longitudinally on the male part, at least on the frame part of the structure and for each male part sliding in a female part, the male parts having a tubular profile delimiting an internal space, and the cooperating means comprising a slide rail protruding into the internal space of the male part. - telescopic elements comprising female parts and male parts slidingly mounted in the female parts; - locking means of a sliding depth of the male parts in the female parts, - a locking member carried by the female part; - cooperating means with the locking member, the cooperating means being integrated into the male part and extending longitudinally on the male part,
A method for facilitating visualization of biometric data in conjunction with recordation of such data comprising: receiving a plurality of analog sensor signals and an analog reference signal by an analog-to-digital converter to produce respective digitized versions of the analog sensor signals; digital filtering the respective digitized versions of the analog sensor signals to produce respective filtered digitized versions of the analog sensor signals; outputting the filtered digitized versions of the analog sensor signals to a visualization system to provide real time display thereof; communicating the filtered digitized versions of the analog sensor signals to a digital-to-analog converter to produce an analog version of the filtered digitized versions of the analog sensor signals; and outputting the analog version of the filtered digitized versions of the analog sensor signals along with the analog reference signal to a recordation system to provide supplemental processing and storage of the biometric data. receiving a plurality of analog sensor signals and an analog reference signal by an analog-to-digital converter to produce respective digitized versions of the analog sensor signals; digital filtering the respective digitized versions of the analog sensor signals to produce respective filtered digitized versions of the analog sensor signals; outputting the filtered digitized versions of the analog sensor signals to a visualization system to provide real time display thereof; communicating the filtered digitized versions of the analog sensor signals to a digital-to-analog converter to produce an analog version of the filtered digitized versions of the analog sensor signals; and outputting the analog version of the filtered digitized versions of the analog sensor signals along with the analog reference signal to a recordation system to provide supplemental processing and storage of the biometric data.
A method for calculating the junction temperature of an RF power MOSFET, comprising steps of: establishing a transient thermal impedance model of the RF power MOSFET in analog domain; calculating a transfer function in time domain of the transient thermal impedance model using bilinear transformation; selecting a preferable sampling frequency and a preferable type of 2 nd order IIR filter structure to establish a junction temperature compensation model in digital domain based on the transfer function in time domain of the transient thermal impedance model; and calculating the junction temperature of the RF power MOSFET by inputting an actual input to the junction temperature compensation model. establishing a transient thermal impedance model of the RF power MOSFET in analog domain; calculating a transfer function in time domain of the transient thermal impedance model using bilinear transformation; selecting a preferable sampling frequency and a preferable type of 2 nd order IIR filter structure to establish a junction temperature compensation model in digital domain based on the transfer function in time domain of the transient thermal impedance model; and calculating the junction temperature of the RF power MOSFET by inputting an actual input to the junction temperature compensation model.
A method of controlling uplink resources in a cellular radio communication system comprising a number of base stations communicating with a number of mobile radios where a mobile radio is currently served by a first base station (BS 1) in a first cell, characterised by the steps of: (a) in the mobile radio generating a relative path gain related quantity for an uplink signal transmission from the mobile radio, where the relative path gain related quantity is based on a comparison of a first path gain related quantity for an uplink signal transmission from the mobile radio to a second base station (BS 2) with a second path gain related quantity for the uplink signal transmission from the mobile to the first base station (BS 1), and (b) controlling uplink resources from the mobile radio in the first cell based on the relative path gain related quantity. (a) in the mobile radio generating a relative path gain related quantity for an uplink signal transmission from the mobile radio, where the relative path gain related quantity is based on a comparison of a first path gain related quantity for an uplink signal transmission from the mobile radio to a second base station (BS 2) with a second path gain related quantity for the uplink signal transmission from the mobile to the first base station (BS 1), and (b) controlling uplink resources from the mobile radio in the first cell based on the relative path gain related quantity.
Method for cleaning electrical contacts of an electrical switching device, wherein - at least one electrical contact is cleaned which has at least one first contact element and at least one second contact element, wherein the contact elements (13,15) can be displaced relative to one another into an open position and into a closed position, wherein - the first contact element and the second contact are arranged in the closed position, characterised in that - the first contact element and the second contact element by applying an electrical waveform to the electrical contact are excited to undergo mechanical vibrations relative to each other in the closed position without the closed position being left. - at least one electrical contact is cleaned which has at least one first contact element and at least one second contact element, wherein the contact elements (13,15) can be displaced relative to one another into an open position and into a closed position, wherein - the first contact element and the second contact are arranged in the closed position, - the first contact element and the second contact element by applying an electrical waveform to the electrical contact are excited to undergo mechanical vibrations relative to each other in the closed position without the closed position being left.
A method for detecting the lane configuration of a road, comprising the following steps: receiving activation notices from vehicles; wherein the notices comprise information regarding the location of the vehicle at which the turn signal of the vehicle is activated; calculating spatial distributions for the location information; detecting the end or start of a lane on the basis of the distributions, characterised in that the notices also comprise information regarding the activation direction, specifically the direction in which the turn signal of the vehicle is activated at the location; the spatial distributions are calculated also for the activation directions. receiving activation notices from vehicles; wherein the notices comprise information regarding the location of the vehicle at which the turn signal of the vehicle is activated; calculating spatial distributions for the location information; detecting the end or start of a lane on the basis of the distributions, characterised in that the notices also comprise information regarding the activation direction, specifically the direction in which the turn signal of the vehicle is activated at the location; the spatial distributions are calculated also for the activation directions.
Junction device for conveyor belts comprised of a first series of chain link, or ears, able to be fastened on one of the ends of a conveyor belt, and of a second series of chain links, or ears, able to be fastened on the other end of said conveyor belt, with the chain links of the two series being fastened to the respective ends of the conveyor belt in such a way as to protrude in relation to these ends, with the two series of chain links able to be assembled in an articulated manner by means of a connecting rod and articulation fitted successively into a chain link of the first series, then into a chain link of the second series, and so on, with the chain links of the two series fastened to the respective ends of the conveyor belt have been pre-interleaved by bringing together the two ends of the conveyor belt characterised in that, in each one of the two series of chain links, the chain links connect to fastening plates, with the upper branch of a first chain link connecting to an upper plate and the upper branch of a second chain link, adjacent to the first chain link, being connected to said upper plate, with the lower branch of said second chain link being connected to a lower plate, with the lower branch of a third chain link, adjacent to the second chain link, being connected to said lower plate, and so on, by forming a meandering arrangement able to receive between the upper and lower plates, and end of the conveyor belt, with the upper and respectively lower plates being provided with claws (7a, 7b), or hooks, of which the tips are globally oriented downwards with regards to the upper plates and globally upwards with regards to the lower plates, with these claws (7a, 7b) being arranged on an edge or on the edges of the plates (claws 7a), and/or inside the surface of the plates (claws 7b).