mhurhangee/ep-ind-claims huggingface dataset:
A resin composition for resin moldings, comprising: a first resin composition containing a first polyolefin, a polyamide, carbon fibers having an average fiber length of 0.1 mm to 1 mm and a carboxylic anhydride-modified polyolefin as a compatibilizer; and a second resin composition containing a second polyolefin and organic fibers having an average fiber length of 1 mm to 20 mm, wherein of the whole quantity of the resin composition for resin moldings, taking the total contents of the first polyolefin and the second polyolefin as 100 parts by mass, a content of the polyamide accounts for 1 part by mass to 50 parts by mass, a content of the carbon fiber accounts for 1 part by mass to 50 parts by mass, a content of the organic fibers accounts for 1 part by mass to 20 part by mass, and a content of the compatibilizer accounts for 1 part by mass to 10 parts by mass. a first resin composition containing a first polyolefin, a polyamide, carbon fibers having an average fiber length of 0.1 mm to 1 mm and a carboxylic anhydride-modified polyolefin as a compatibilizer; and a second resin composition containing a second polyolefin and organic fibers having an average fiber length of 1 mm to 20 mm, wherein of the whole quantity of the resin composition for resin moldings, taking the total contents of the first polyolefin and the second polyolefin as 100 parts by mass, a content of the polyamide accounts for 1 part by mass to 50 parts by mass, a content of the carbon fiber accounts for 1 part by mass to 50 parts by mass, a content of the organic fibers accounts for 1 part by mass to 20 part by mass, and a content of the compatibilizer accounts for 1 part by mass to 10 parts by mass.
A method for creating a database of sound signatures that are uniquely associated with entities linked to a communication system, comprising the steps of: a) by a person authorized by an entity that is linked to said communication system, recording at least one characteristic sound signature associated with said entity and uploading a profile and said at least one characteristic sound signature to a database, said entity being a physical entity, a user, a point of sale or a service provider; characterized in that said at least one characteristic sound signature is uploaded in conjunction with a dedicated application installed on a cellphone of said authorized person, said method further comprising the steps of: b) submitting an application, by said authorized person, for registering said at least one sound signature with said database; c) allowing or denying the registration of said at least one sound signature as a record in said database by examining said at least one sound signature and determining whether it complies with a set of predefined signature related criteria; and d) storing said at least one sound signature in said database following registration, along with an association with a location of said entity as defined in said profile. a) by a person authorized by an entity that is linked to said communication system, recording at least one characteristic sound signature associated with said entity and uploading a profile and said at least one characteristic sound signature to a database, said entity being a physical entity, a user, a point of sale or a service provider; characterized in that said at least one characteristic sound signature is uploaded in conjunction with a dedicated application installed on a cellphone of said authorized person, said method further comprising the steps of: b) submitting an application, by said authorized person, for registering said at least one sound signature with said database; c) allowing or denying the registration of said at least one sound signature as a record in said database by examining said at least one sound signature and determining whether it complies with a set of predefined signature related criteria; and d) storing said at least one sound signature in said database following registration, along with an association with a location of said entity as defined in said profile.
Unit for detecting occupancy of a vehicle seat, with at least one switch unit which comprises a housing with an upper housing part and a lower housing part and at least one switch element which is arranged in the housing and which can be actuated by a trigger element arranged on one of the housing parts, wherein the housing halves (2, 3) are movable relative to each other and, in a starting position, are held at a distance by a spring such that the trigger element does not actuate the switch element, and such that the housing halves (2, 3), proceeding from this starting position, are movable toward each other counter to the spring force of the spring such that the trigger element actuates the switch element, characterized in that the switch element comprises at least one microswitch, in that the microswitch is supported via a carrier plate which lies on a bottom surface of the lower housing part and which is formed by a printed circuit board which is populated with the microswitch, and in that the spring is formed by a helical spring.
A method of erecting a tower for a wind turbine, the tower comprising a plurality of superposed sections, characterised in that the method comprises the following steps: a. Manufacturing at least two interlocking sections of the tower using an additive manufacturing process, wherein the sections of the tower are manufactured at two or more manufacturing stations, b. Deploying the manufactured sections of the tower to a tower erection site and c. Erecting the tower from the sections provided on the erection site by placing them on top of each other, wherein sections from different manufacturing sites are alternately placed on top of each other when erecting the tower from the sections provided. a. Manufacturing at least two interlocking sections of the tower using an additive manufacturing process, wherein the sections of the tower are manufactured at two or more manufacturing stations, b. Deploying the manufactured sections of the tower to a tower erection site and c. Erecting the tower from the sections provided on the erection site by placing them on top of each other, wherein sections from different manufacturing sites are alternately placed on top of each other when erecting the tower from the sections provided.
An electro-photographic sheet of paper duplex printing machine having a sheet supply section, a sheet positioning section, an electro-photographic printing section, a chain delivery section and a delivery section arranged in order from upstream to downstream in a direction of carriage of sheets of paper, and having a sheet carrying section for turnover disposed above the sheet supply, wherein the sheet supply section is configured to send out sheets one by one onto the sheet positioning section, the sheet positioning section is configured to position the sheets and to send out positioned sheets to a backup roller in the electro-photographic printing section, the electro-photographic printing section is configured to print a toner image, transferred onto a transfer roller, on a sheet, conveyed by the backup roller, the chain delivery section is configured to selectively transfer printed sheets transferred from the backup roller to the delivery section or the sheet carrying section for turnover, and the delivery section has a fixing device for fixing the toner image, characterized in that the sheet carrying section for turnover is configured to be supplied with a one side printed sheet (2b) dropped from the chain delivery section when the sheet carrying section for turnover is at a standstill, and to supply the one side printed sheet (2b) to the sheet positioning section by a suction conveyer which is intermittently driven, at the time of duplex printing, the sheet supply section and the sheet carrying section for turnover are so configured as to send a sheet (2b) from the sheet supply section and a one side printed sheet (2b) from the sheet carrying section for turnover into the sheet positioning section alternately, the chain delivery section being configured to transfer a one side printed sheet (2b) produced by printing one side of a sheet (2b) to the sheet carrying section for turnover and to carry a both side printed sheet (2b) produced by printing one side and the other side of a sheet to the delivery section to pass the sheets (2b, 2b) through the fixing device at regular intervals, and at the time of one side printing, the sheet supply section is configured to send a sheet (2b) to the sheet positioning section, and the chain delivery section is configured to send a one side printed sheet (2b) to the delivery section so that the sheets (2b, 2b) pass through the fixing device at regular intervals.
Method for generating signals for influencing the movement of a vehicle body, whose movement sequences can be open-loop or closed-loop controlled, of a motor vehicle, wherein the movement of the vehicle body relative to at least three wheels (12, 14, 16, 18) of the motor vehicle and the vertical acceleration of the vehicle body are determined by sensor, the sensor signals which correspond to the determined sensor values are fed to a damper controller, and the damper controller supplies at least one control signal for actuating actuators by means of which the movement of the vehicle body can be influenced, wherein the influence of road excitation is taken into account, wherein stochastic events and individual events are detected from the road excitation and evaluated, and the signals corresponding to stochastic events and individual events are included in the determination of the at least one control signal, characterized in that the stochastic and individual event variables (eA_ereign, eA_stoc, eR_ereign, eR_stoc) are determined in the form of energetic state variables for the vehicle body and the respective wheel (12, 14, 16, 18), wherein the stochastic and the individual event variables (eA_ereign, eA_stoc, eR_ereign, eR_stoc) for the vehicle body and wheel (12, 14, 16, 18) are calculated separately, wherein both the kinetic and the potential energy are determined for the energetic state variables.
Low-pressure discharge lamp comprising a discharge vessel and a coating structure formed on an inner side of the discharge vessel, the coating structure comprising first fluorescent particles which comprise at least one red light-emitting fluorescent substance and whose average grain size, determined in terms of the d50 value, lies in a range from 0.5 μm to 1.9 μm, second fluorescent particles which comprise at least one green light-emitting fluorescent substance and whose average grain size, determined in terms of the d50 value, lies in a range from 1 μm to 4 μm, and third fluorescent particles which comprise at least one blue light-emitting fluorescent substance and whose average grain size, determined in terms of the d50 value, lies in a range from 1 μm to 4 μm, where each fluorescent has activators and host lattices doped with the activators, characterized in that a portion of the activators in the green light-emitting fluorescent substance lies in a range from 20 mol% to 50 mol%, a portion of the activators in the red light-emitting fluorescent substance lies in a range of 2.3 mol% to 5.5 mol%, and a portion of the activators in the blue light emitting fluorescent substance lies in a range from 3.0 mol% to 11.0 mol%.
A lightning protection system for a wind turbine blade comprising at least a lightning receptor connected to one or more down conductors of a grounding arrangement of the wind turbine blade and one or two carbon fiber laminates (11, 13); the down conductors being equipotentialized with the carbon fiber laminates (11, 13) by one or more auxiliary cables which are connected to conductive plates embedded in the carbon fiber laminates (11, 13) at various points along the wind turbine blade; further comprising at least one local lightning current injection area in the carbon fiber laminates (11, 13) associated to one auxiliary cable having one or more additional parallel conductive paths comprising at least two secondary cables having different resistances Rcond1, Rcond2 in a the local lightning current injection area derived from said auxiliary cable and connected to conductive devices of different resistances Rpl1, Rpl2 embedded in the carbon fiber laminates (11, 13) which are configured for avoiding overcurrents in the carbon fiber laminates (11, 13)
: A radar system which is installed on a vehicle, the radar system comprising: a pulse signal generator that produces a pulse signal; a transmitter-receiver that emits the pulse signal produced by the pulse signal generator into a space, and receives a scattered wave of the pulse signal reflected from a target and returned; a range Doppler map generator configured to carry out pulse compression of the received signal of the transmitter-receiver using the pulse signal produced by the pulse signal generator, and configured to create a range Doppler map showing correspondence between range and Doppler frequency by integrating the received signal after the pulse compression for each pulse hit; a peak detector that detects a peak with signal power not less than a threshold in the range Doppler map created by the range Doppler map generator; and a stationary object deciding unit characterized in that it is configured to determine a lateral distance (x) from the vehicle to a stationary object, and to recognize, if the Doppler frequency (f d) corresponding to the peaks detected by the peak detector equals the Doppler frequency (f d) computed from the range corresponding to the peaks, from the determined lateral distance (x), and from the velocity (Va) of the vehicle, that the object associated with the peaks is a stationary object. a pulse signal generator that produces a pulse signal; a transmitter-receiver that emits the pulse signal produced by the pulse signal generator into a space, and receives a scattered wave of the pulse signal reflected from a target and returned; a range Doppler map generator configured to carry out pulse compression of the received signal of the transmitter-receiver using the pulse signal produced by the pulse signal generator, and configured to create a range Doppler map showing correspondence between range and Doppler frequency by integrating the received signal after the pulse compression for each pulse hit; a peak detector that detects a peak with signal power not less than a threshold in the range Doppler map created by the range Doppler map generator; and a stationary object deciding unit characterized in that it is configured to determine a lateral distance (x) from the vehicle to a stationary object, and to recognize, if the Doppler frequency (f d) corresponding to the peaks detected by the peak detector equals the Doppler frequency (f d) computed from the range corresponding to the peaks, from the determined lateral distance (x), and from the velocity (Va) of the vehicle, that the object associated with the peaks is a stationary object.
An asymmetrical pigment flake having a first side and an opposite second side, comprising: a magnetic layer having a first major surface and an opposing second major surface, a first thin film structure comprising: a first reflective layer on the first major surface of the magnetic layer and a first dielectric layer on the first reflective layer, and an absorber layer overlying the first dielectric layer, and a second thin film structure comprising a second reflective layer on the second major surface of the magnetic layer, wherein the first and second reflective layers have a physical thickness ranging from 500A to 1000A. a magnetic layer having a first major surface and an opposing second major surface, a first thin film structure comprising: a first reflective layer on the first major surface of the magnetic layer and a first dielectric layer on the first reflective layer, and an absorber layer overlying the first dielectric layer, and a second thin film structure comprising a second reflective layer on the second major surface of the magnetic layer, wherein the first and second reflective layers have a physical thickness ranging from 500A to 1000A.
A flow-control valve for liquid-conveying heating or cooling systems, comprising a housing with at least one inlet and at least one outlet and a connector pipe disposed therebetween, wherein is fitted a pressure regulating device keeping constant the pressure differential between the pressure regions upstream and downstream of a flow-control unit disposed in the connector pipe, as well as a spindle with an actuation part protruding from the housing and a first throttle body located in the housing and acting on the flow-control unit or on parts thereof, characterized by that a valve cartridge is disposed that is insertable or inserted into the connector pipe, with a membrane-controlled pressure regulating device integrated therein, coaxially enclosing the spindle and being axially displaceable thereon, which keeps constant the pressure differential between the pressure regions upstream and downstream of the flow-control unit integrated in the valve cartridge, said flow-control unit being comprised of the valve seat and the throttle body, the spindle integrated in the valve cartridge including an actuation part protruding from the housing and from the valve cartridge and the throttle body fixed thereon, that a setpoint spring of the pressure regulating device is disposed on the side of the membrane facing away from the flow channel or gap and on the side facing the actuation part of the spindle, and that a valve spring coaxially encloses the setpoint spring.
A handling device with a valve line arrangement, in particular for a cell culture installation, for introducing a fluid into a laboratory vessel (22; 12'), in particular a cell culture container, and/or for discharging a fluid from the same, and with a supporting structure (10; 11') receiving the valve line arrangement, the valve line arrangement comprising a line component (12; 14') - with a first coupling formation (44; 30a') for the temporary coupling of a first fluid channel, preferably of a fluid channel of a laboratory vessel (22; 12'), - with a second coupling formation (18, 24; 30d') for the temporary or permanent coupling of a second fluid channel, preferably of a fluid channel of a fluid reservoir, and - with a third coupling formation (18, 24; 30b', 30c') for the temporary or permanent coupling of a third fluid channel (54', 56'), preferably of a discharge channel, wherein each coupling formation (44, 18, 24' 30a'-30d') is penetrated by a fluid line section (at 44, 96; 70a'-70d'), wherein, in the line component (12' 14'), a flow channel arrangement (62, 90; 70') is formed, by means of which each fluid line section (at 44, 96; 70a'- 70d') of the first, of the second and of the third coupling formation (44, 18, 24; 30a'-30d') is or can be connected to at least one, preferably to each, fluid line section (at 44, 96; 70a'-70d') of one, preferably of each, of the other two coupling formations (44, 18, 24; 30a'-30d') for the fluid transport. - with a first coupling formation (44; 30a') for the temporary coupling of a first fluid channel, preferably of a fluid channel of a laboratory vessel (22; 12'), - with a second coupling formation (18, 24; 30d') for the temporary or permanent coupling of a second fluid channel, preferably of a fluid channel of a fluid reservoir, and - with a third coupling formation (18, 24; 30b', 30c') for the temporary or permanent coupling of a third fluid channel (54', 56'), preferably of a discharge channel,
A method of growing group III nitride crystals using a cylindrical reactor having longitudinal dimension more than ten times larger than the inner diameter comprising: (a) placing nutrient which contains group III element along the longitudinal direction of the cylindrical reactor; (b) placing group III nitride seed crystals on or near the wall of the cylindrical reactor so that each seed faces the nutrient; (c) placing a mineralizer which contains either alkali metal or halogen elements inside the cylindrical reactor; (d) filling ammonia in the cylindrical reactor; (e) heating the cylindrical reactor with external heaters to create supercritical ammonia. (a) placing nutrient which contains group III element along the longitudinal direction of the cylindrical reactor; (b) placing group III nitride seed crystals on or near the wall of the cylindrical reactor so that each seed faces the nutrient; (c) placing a mineralizer which contains either alkali metal or halogen elements inside the cylindrical reactor; (d) filling ammonia in the cylindrical reactor; (e) heating the cylindrical reactor with external heaters to create supercritical ammonia.
An ecological tanning and dyeing process of leather, skins, hide or pelts which is chrome-free and combines vegetable and oil tanning, said ecological tanning and dyeing process comprising the following steps: - pre-tanning the skins - placing pre-tanned skins in a drum with a totally biodegradable and environment-friendly tanning composition comprising in percentage of weight of skins to be tanned: ∘ 10 to 20% of glucose ∘ 10 to 30% of a mix of animal or vegetal oils ∘ 2 to 15% of vegetable tannins ∘ and water - drying on air the skins - dyeing the skins in a drum with a totally biodegradable and environment-friendly dyeing composition comprising in percentage of weight of skins to be tanned: ∘ 1 to 10% of natural rubber ∘ 1 to 10% of originally natural pigments ∘ water - drying on air the skins - pre-tanning the skins - placing pre-tanned skins in a drum with a totally biodegradable and environment-friendly tanning composition comprising in percentage of weight of skins to be tanned: ∘ 10 to 20% of glucose ∘ 10 to 30% of a mix of animal or vegetal oils ∘ 2 to 15% of vegetable tannins ∘ and water ∘ 10 to 20% of glucose ∘ 10 to 30% of a mix of animal or vegetal oils ∘ 2 to 15% of vegetable tannins ∘ and water - drying on air the skins - dyeing the skins in a drum with a totally biodegradable and environment-friendly dyeing composition comprising in percentage of weight of skins to be tanned: ∘ 1 to 10% of natural rubber ∘ 1 to 10% of originally natural pigments ∘ water ∘ 1 to 10% of natural rubber ∘ 1 to 10% of originally natural pigments ∘ water - drying on air the skins
A process for the treatment of a silicate mineral comprising: - a first step of preparation of a first product comprising an alkali metal magnesium orthosilicate and a magnesium oxide, which step comprising the reaction, at a temperature from 500 to 1200°C, of an alkali metal carbonate compound, which compound is an alkali metal carbonate, an alkali metal bicarbonate or a mixture thereof, with a magnesium silicate, the molar ratio of alkali metal carbonate compound, expressed as alkali metal oxide of the formula F 2 O, in which R represents an alkali metal, to magnesium silicate, expressed as silicon dioxide, of the formula SiO 2, being from 4:1 to 1:4, - a second step of contacting the first product with water to produce a second product by hydrating the magnesium oxide to magnesium hydroxide and to partially dissolve the alkali metal magnesium orthosilicate, and - a third step of isolating or producing magnesium oxide, magnesium hydroxide from the second product - a first step of preparation of a first product comprising an alkali metal magnesium orthosilicate and a magnesium oxide, which step comprising the reaction, at a temperature from 500 to 1200°C, of an alkali metal carbonate compound, which compound is an alkali metal carbonate, an alkali metal bicarbonate or a mixture thereof, with a magnesium silicate, the molar ratio of alkali metal carbonate compound, expressed as alkali metal oxide of the formula F 2 O, in which R represents an alkali metal, to magnesium silicate, expressed as silicon dioxide, of the formula SiO 2, being from 4:1 to 1:4, - a second step of contacting the first product with water to produce a second product by hydrating the magnesium oxide to magnesium hydroxide and to partially dissolve the alkali metal magnesium orthosilicate, and - a third step of isolating or producing magnesium oxide, magnesium hydroxide from the second product