mhurhangee/ep-ind-claims huggingface dataset:
A vehicle-mounted wireless internet access device, comprising a sealed enclosure, a heating element, and a first thermal pad, wherein the heating element and the first thermal pad are arranged inside the sealed enclosure; the top of the sealed enclosure comprises a metal part, and the first thermal pad is arranged between the heating element and the metal part of the sealed enclosure to transfer heat produced by the heating element to the metal part, so that the heating element is cooled; a heat sink, wherein the heat sink is arranged between the first thermal pad and the metal part of the sealed enclosure to absorb the heat transferred by the first thermal pad, so that the heat is transferred to the metal part after the heat is dissipated evenly, and characterised in further comprising a second thermal pad, wherein the second thermal pad is arranged between the heat sink and the metal part of the sealed enclosure to transfer the heat on the heat sink to the metal part.
A sensor management unit comprising: a sensing data acquisition portion configured to acquire sensing data obtained by a sensor observing a target; a metadata generating portion configured to generate, for the acquired sensing data, metadata (123, 124, 125) indicating an attribute of the sensor; an identification code generating portion configured to generate a first identification code for uniquely identifying the sensing data, and a second identification code for identifying the metadata (123, 124, 125); and a communicating portion configured to transmit, to an external device, at least one of the sensing data to which the second identification code is added and the metadata (123, 124, 125) to which the first identification code is added. a sensing data acquisition portion configured to acquire sensing data obtained by a sensor observing a target; a metadata generating portion configured to generate, for the acquired sensing data, metadata (123, 124, 125) indicating an attribute of the sensor; an identification code generating portion configured to generate a first identification code for uniquely identifying the sensing data, and a second identification code for identifying the metadata (123, 124, 125); and a communicating portion configured to transmit, to an external device, at least one of the sensing data to which the second identification code is added and the metadata (123, 124, 125) to which the first identification code is added.
A pneumatic tire, comprising a tread formed from a rubber composition, the rubber composition comprising: a copolymer comprising monomer units derived from 1,3-butadiene and a compound represented by the formula below; and at least one of carbon black or silica, wherein R 11 and R 12 are the same as or different from each other and each represent a hydrogen atom or a C1-C30 hydrocarbon group, wherein the copolymer comprises 5% to 95% by mass of the units derived from 1,3-butadiene and 5% to 95% by mass of the units derived from the compound represented by formula, per 100% by mass of structural units of the copolymer. a copolymer comprising monomer units derived from 1,3-butadiene and a compound represented by the formula below; and at least one of carbon black or silica, wherein R 11 and R 12 are the same as or different from each other and each represent a hydrogen atom or a C1-C30 hydrocarbon group, wherein the copolymer comprises 5% to 95% by mass of the units derived from 1,3-butadiene and 5% to 95% by mass of the units derived from the compound represented by formula, per 100% by mass of structural units of the copolymer.
A computer memory arrangement, comprising a first plurality of input port facilities that are collectively coupled through a first router facility to selectively feed a second plurality of memory modules, and furthermore comprising an output port facility that is fed collectively by said second plurality of memory modules, said computer memory arrangement comprising an access detection facility for detecting simultaneous and conflicting access requests occurring through more than one of said first plurality of input port facilities for a particular memory module, and for thereupon allowing only a single one among said simultaneous and conflicting access requests whilst generating a stall signal for signalling a mandatory stall cycle to any request source pertaining to another request and furthermore comprising request queues, providing an additional slack interval, each request queue comprising a plurality of stages equal to the length of the slack measured in clock cycles, each memory module comprising a respective memory bank and a respective arbiter for upon finding plural concurrent access requests for access to an associated memory bank, generating an arbitrage signal that singles out a particular one among said concurrent access requests for exclusive handling thereof in preference to further access requests, and queuing such further access requests in the request queue in question characterized in that said request queues each couple an associated corresponding input port facility to said first router and in that from every request queue stage, a memory bank request signal may be outputted in parallel, whilst signalling said stall signal exclusively under control of an ORED full signalization of any such request queue.
An acoustic diaphragm comprising: a metal foil; and a thermoplastic resin film laminated on the metal foil, wherein the thermoplastic resin film has a ratio of a coefficient of linear thermal expansion in a thickness-wise direction to a smaller one of a coefficient of linear thermal expansion in an MD-direction and a coefficient of linear thermal expansion in a TD-direction that is between 3.0 and 10.0, and a total weight per unit area of the metal foil and the thermoplastic resin film is between 45 g/m 2 and 150 g/m 2. a metal foil; and a thermoplastic resin film laminated on the metal foil, wherein the thermoplastic resin film has a ratio of a coefficient of linear thermal expansion in a thickness-wise direction to a smaller one of a coefficient of linear thermal expansion in an MD-direction and a coefficient of linear thermal expansion in a TD-direction that is between 3.0 and 10.0, and a total weight per unit area of the metal foil and the thermoplastic resin film is between 45 g/m 2 and 150 g/m 2.
Switch of the type comprising a case for carrying contacts and mechanisms of the switch, an outer protective cover and a base for fixing to a surface, said base comprising at least two protrusions (3,3') positioned opposite each other with which the case for carrying contacts and mechanisms of the switch fits together, allowing the case for carrying contacts and mechanisms to be positioned on the base, wherein the surface contact area of said base comprises an outer frame that receives the outer protective cover, wherein the base is arranged such that the carrier case comprising stops (5,5') that contact the protrusions (3,3') on the base, between which the contact carrier case is positioned by simple manual sliding, so that the case remains in a given position on the base without the need to fix said case by other means, the base comprising a stop for positioning of the carrier case, characterised in that the base is arranged such that, when the base is fixed to the surface, the carrier case slides vertically and downwards to be positioned on the base so that the position of the carrier case is made stable by virtue of its own weight.
A dispersion comprising an encapsulated material dispersed in a medium that is immiscible with the encapsulated material, wherein the encapsulated material is encapsulated by a polymeric membrane and wherein the dispersion does not include a surfactant for dispersing the encapsulated material in the medium wherein a) the encapsulated material is a polyorganosiloxane and the medium is an aqueous medium or b) wherein the encapsulated material is an aqueous composition and the medium includes a polyorganosiloxane and wherein glycerin is included in the aqueous composition or the aqueous medium and wherein the average size of the encapsulated material dispersed in the medium is less than 500 microns. a) the encapsulated material is a polyorganosiloxane and the medium is an aqueous medium or b) wherein the encapsulated material is an aqueous composition and the medium includes a polyorganosiloxane
A pump for transporting particulate material comprising: a passageway defined by a first belt assembly and a second belt assembly, wherein each of the first belt assembly and the second belt assembly has an interior section (36a, 36b) and wherein the first belt assembly and the second belt assembly are opposed to each other; an inlet for introducing the particulate material into the passageway; an outlet for expelling the particulate material from the passageway; a first load beam positioned within the interior section of the first belt assembly; a second load beam positioned within the interior section of the second belt assembly; a first scraper seal and a second scraper seal positioned proximate to the passageway and the outlet; a first drive assembly positioned within the interior section of the first belt assembly for driving the first belt assembly; a second drive assembly positioned within the interior section of the second belt assembly for driving the second belt assembly, wherein each of the first belt assembly and the second belt assembly comprises a plurality of belt links pivotally connected to each other by a plurality of link rotation axles; and characterised by: further comprising a first labyrinth seal at an interface between the first belt assembly and the first scraper seal, and a second labyrinth seal at an interface between the second belt assembly and the second scraper seal. a passageway defined by a first belt assembly and a second belt assembly, wherein each of the first belt assembly and the second belt assembly has an interior section (36a, 36b) and wherein the first belt assembly and the second belt assembly are opposed to each other; an inlet for introducing the particulate material into the passageway; an outlet for expelling the particulate material from the passageway; a first load beam positioned within the interior section of the first belt assembly; a second load beam positioned within the interior section of the second belt assembly; a first scraper seal and a second scraper seal positioned proximate to the passageway and the outlet; a first drive assembly positioned within the interior section of the first belt assembly for driving the first belt assembly; a second drive assembly positioned within the interior section of the second belt assembly for driving the second belt assembly, wherein each of the first belt assembly and the second belt assembly comprises a plurality of belt links pivotally connected to each other by a plurality of link rotation axles; and characterised by: further comprising a first labyrinth seal at an interface between the first belt assembly and the first scraper seal, and a second labyrinth seal at an interface between the second belt assembly and the second scraper seal.
A natural gas combined cycle power plant that generates an exhaust stream comprising CO 2, the plant comprising a semi-open combustion cycle; a closed steam cycle; a CO 2 separator; and at least one first compressor operatively disposed downstream of the open combustion cycle and the closed steam cycle and coupled to (i) a recirculation line that fluidly connects the compressor with the semi-open combustion cycle and (ii) a conduit that fluidly connects the compressor to the CO 2 separator; wherein at least one of the recirculation line and air are introduced into a second compressor before being recycled to a generator, wherein the second compressor is coupled to a turbine.
Method for the detection and/or determination of volatile sulfurs in gases or in matrices that emit volatile sulfurs, comprising the stages of: a) exposing a passive colorimetric solid sensor comprising silver nanoparticles between 10 nm and 40 nm in diameter immobilised in a nylon membrane with a pore size between 0.22 microns and 1 micron, to a gas or matrix that emits volatile sulfurs for between 2 and 60 minutes; b) removing the sensor and determining its colouration by means of visual inspection, diffuse reflectance or RGB colour analysis of a digital image of the sensor; and c) based on the data obtained in stage b), determining the concentration of volatile sulfurs in the gas by means of calibration lines or colour patterns. a) exposing a passive colorimetric solid sensor comprising silver nanoparticles between 10 nm and 40 nm in diameter immobilised in a nylon membrane with a pore size between 0.22 microns and 1 micron, to a gas or matrix that emits volatile sulfurs for between 2 and 60 minutes; b) removing the sensor and determining its colouration by means of visual inspection, diffuse reflectance or RGB colour analysis of a digital image of the sensor; and c) based on the data obtained in stage b), determining the concentration of volatile sulfurs in the gas by means of calibration lines or colour patterns.
A method for wireless communication by a wireless node (120a; 604; 1200), comprising: sending, by the wireless node, a first sidelink power savings configuration to a first UE (120b; 606, 608, 610; 1300); receiving, from the first UE, sidelink information comprising a suggested sidelink power savings configuration, which is based, at least in part, on the first power savings configuration; determining a second sidelink power savings configuration to use for a sidelink (605, 607, 609) between the wireless node and the first UE based, at least in part, on the sidelink information from the first UE; providing the second sidelink power savings configuration to the first UE; and following the second sidelink power savings configuration for the sidelink. sending, by the wireless node, a first sidelink power savings configuration to a first UE (120b; 606, 608, 610; 1300); receiving, from the first UE, sidelink information comprising a suggested sidelink power savings configuration, which is based, at least in part, on the first power savings configuration; determining a second sidelink power savings configuration to use for a sidelink (605, 607, 609) between the wireless node and the first UE based, at least in part, on the sidelink information from the first UE; providing the second sidelink power savings configuration to the first UE; and following the second sidelink power savings configuration for the sidelink.
A method of controlling a prosthetic ankle device comprising a foot unit and a lower limb member configured to move relative to the foot unit and defining an ankle angle therebetween, comprising: at a gait speed less than a first threshold speed, operating the prosthetic ankle device using a neutral ankle angle curve; at a gait speed at or above the first threshold speed and below a second threshold speed, operating the prosthetic ankle device using a first speed adaptive ankle angle curve that is shifted in a first direction relative to the neutral ankle angle curve based on a first speed adaptive ankle angle, so that the prosthetic ankle device is more dorsiflexed than when the prosthetic ankle device is operating using the neutral ankle angle curve; and at a gait speed at or above the second threshold speed, operating the prosthetic ankle device using a second speed adaptive ankle angle curve that is shifted in a second direction relative to the neutral ankle angle curve based on a second speed adaptive ankle angle, so that the prosthetic ankle device is more plantarflexed than when the prosthetic ankle device is operating using the neutral ankle angle curve. at a gait speed less than a first threshold speed, operating the prosthetic ankle device using a neutral ankle angle curve; at a gait speed at or above the first threshold speed and below a second threshold speed, operating the prosthetic ankle device using a first speed adaptive ankle angle curve that is shifted in a first direction relative to the neutral ankle angle curve based on a first speed adaptive ankle angle, so that the prosthetic ankle device is more dorsiflexed than when the prosthetic ankle device is operating using the neutral ankle angle curve; and at a gait speed at or above the second threshold speed, operating the prosthetic ankle device using a second speed adaptive ankle angle curve that is shifted in a second direction relative to the neutral ankle angle curve based on a second speed adaptive ankle angle, so that the prosthetic ankle device is more plantarflexed than when the prosthetic ankle device is operating using the neutral ankle angle curve.
A peptide having a stable, internally-constrained alpha-helix, wherein said alpha helix is constrained by a crosslink formed by a carbon-carbon bond-forming reaction, and further wherein the peptide mimics at least a portion of a class I C-peptide helix from human immunodeficiency virus type 1; wherein the peptide comprises the formula: wherein ------ is a single or double carbon-carbon bond; is a single bond and is cis or trans when ------ is a double bond; n is 1 or 2; m is zero or any positive integer; R is hydrogen, an amino acid side chain, an alkyl group, or an aryl group; R 1 is an amino acid side chain, an alkyl group, or an aryl group; R 2 is an amino acid, second peptide, -OR, -CH 2 NH 2, an alkyl group, an aryl group, hydrogen, or a group having a formula R 3 is a fourth peptide and wherein R 4 is an amino acid, third peptide, -OR, -NH 2, an alkyl group, or an aryl group; and wherein the peptide comprises the amino acid sequence of SEQ ID NO: 9, and has an internally-constrained alpha-helix spanning residues 1-4 of SEQ ID NO: 9. ------ is a single or double carbon-carbon bond; is a single bond and is cis or trans when ------ is a double bond; n is 1 or 2; m is zero or any positive integer; R is hydrogen, an amino acid side chain, an alkyl group, or an aryl group; R 1 is an amino acid side chain, an alkyl group, or an aryl group; R 2 is an amino acid, second peptide, -OR, -CH 2 NH 2, an alkyl group, an aryl group, hydrogen, or a group having a formula R 3 is a fourth peptide and wherein R 4 is an amino acid, third peptide, -OR, -NH 2, an alkyl group, or an aryl group; and
A device for optimizing fruit washing, comprising a conveyor belt onto which fruit to be washed is deposited; the device comprises a controller configured to generate a frequency signal in proportion to the amount of fruit deposited on the conveyor belt, and to apply a proportional volume of water based on the fruit deposited on the conveyor belt; characterized in that the device comprises rinsing means which in turn comprise at least two rinsing pipes, each of which has electronically adjustable nozzles operating in on-off cycles and controlled by the controller, being the nozzles of each of the rinsing pipes arranged in staggered configuration and separated at a distance without overlapping of the water spray that covers the whole width of the conveyor belt; said rinsing pipes also connected to a common water supply at constant pressure, in order to provide said nozzles with a uniform volume of rinsing water which is proportional to the amount of fruit deposited on the conveyor belt.
A medical laser system, comprising: a first laser source comprising first laser resonator, at least a first gain medium for generating a first optical field, the first optical field having a first wavelength; and at least one first Q-switch configured to control a resonance quality of the first laser resonator; a control circuit configured to control the first Q-switch to cause the first laser resonator to generate the first optical field as a first pulse train of laser pulses; a second laser source for generating a second optical field as a second pulse train of laser pulses, wherein the second optical field has a second wavelength; at least one nonlinear medium for generating a third optical field by a nonlinear interaction between the first optical field and the second optical field, wherein the third optical field has a third wavelength different from the first and second wavelengths; a sensor configured to detect a property of at least one of the optical fields; wherein the control circuit is configured to control operation of the first Q-switch so as to adjust a relative timing of the laser pulses of the first pulse train and the laser pulses of the second pulse train responsive to the detected property; wherein the medical laser system comprises an output selector for selectively blocking radiation of the first and/or second and/or third wavelength to be included in the output radiation of the laser system; and wherein the control circuit is configured to selectively activate the output selector in response to a wavelength selection command. a first laser source comprising first laser resonator, at least a first gain medium for generating a first optical field, the first optical field having a first wavelength; and at least one first Q-switch configured to control a resonance quality of the first laser resonator; a control circuit configured to control the first Q-switch to cause the first laser resonator to generate the first optical field as a first pulse train of laser pulses; a second laser source for generating a second optical field as a second pulse train of laser pulses, wherein the second optical field has a second wavelength; at least one nonlinear medium for generating a third optical field by a nonlinear interaction between the first optical field and the second optical field, wherein the third optical field has a third wavelength different from the first and second wavelengths; a sensor configured to detect a property of at least one of the optical fields; wherein the control circuit is configured to control operation of the first Q-switch so as to adjust a relative timing of the laser pulses of the first pulse train and the laser pulses of the second pulse train responsive to the detected property; wherein the medical laser system comprises an output selector for selectively blocking radiation of the first and/or second and/or third wavelength to be included in the output radiation of the laser system; and wherein the control circuit is configured to selectively activate the output selector in response to a wavelength selection command.
A light emitting device comprising: a planar lead frame having a first lead and a second lead; a light emitting element mounted on the first lead; a resin frame surrounding a periphery of the light emitting element; a first sealing resin filled in an inner side of the resin frame and sealing the light emitting element; and a second sealing resin covering the resin frame and the first sealing resin, wherein a lower end of inner surface of the resin frame is arranged only on the first lead, and at an outside of the resin frame, the second resin member covers at least a part of the first lead and the second lead, a region directly under the light emitting element of the back-surface of the first lead is exposed, the light emitting element and the second lead are connected with a bonding wire, and the bonding wire penetrates through the resin frame to be connected at the outside of the resin frame. a planar lead frame having a first lead and a second lead; a light emitting element mounted on the first lead; a resin frame surrounding a periphery of the light emitting element; a first sealing resin filled in an inner side of the resin frame and sealing the light emitting element; and a second sealing resin covering the resin frame and the first sealing resin, wherein a lower end of inner surface of the resin frame is arranged only on the first lead, and at an outside of the resin frame, the second resin member covers at least a part of the first lead and the second lead, a region directly under the light emitting element of the back-surface of the first lead is exposed, the light emitting element and the second lead are connected with a bonding wire, and the bonding wire penetrates through the resin frame to be connected at the outside of the resin frame.