mhurhangee/ep-ind-claims huggingface dataset:
Pressure-sensor assembly for a motor vehicle for impact identification, having a pressure-sensor unit in the interior of an assembly housing, wherein the pressure-sensor unit comprises a sensing element which is arranged in the interior of a pressure-sensor housing and which serves for detecting an air pressure, wherein the pressure-sensor housing has a pressure-supply opening for supply of the air pressure from a pressure inlet of the assembly housing to the sensing element, wherein, between the pressure-sensor housing and an assembly-housing wall, a sealing element for sealing off the pressure-supply opening in relation to the interior space of the assembly housing is arranged in such a way that the sealing element encloses the pressure-supply opening and fluidically connects the pressure inlet to the pressure-supply opening, wherein the sealing element has a through-hole, extending in an axial direction, and comprises a main body, having an outer wall and an inner wall which surrounds the through-hole and having a lower axial end and an upper axial end, wherein the inner wall of the main body has a first wall portion which widens in the direction of the lower axial end, characterized in that the lower axial end of the main body is relatively close to the pressure-sensor housing, and in that the first wall portion forms an abutment surface which serves for abutment against the pressure-sensor housing and against which the pressure-sensor housing at least regionally abuts.
A computer-implemented method of sensing a valence response for use in rating media, the method performed by a processing component (108, 1001) of a computer and comprising: collecting, from one or more sensors (106, 1002-1006), first and second signals, respectively, from a right side of a brain, and a left side of the brain, of an individual, while the individual is concurrently stimulated with media; obtaining from the first signal a right alpha wave (α R) and a right theta wave (θ R); obtaining from the second signal a left alpha wave (α L) and a left theta wave (θ L); calculating a valence value using a formula selected from one of the following formulas: θ L / α L − θ R / α R, θ L − α L / θ L + α L / ( θ R − α R / θ R + α R, θ R / α R − θ L / α L, or θ R − α R / θ R + α R / [ θ L − α L / θ L + α L; and rating the media based on a difference between the valence value and the reference value. collecting, from one or more sensors (106, 1002-1006), first and second signals, respectively, from a right side of a brain, and a left side of the brain, of an individual, while the individual is concurrently stimulated with media; obtaining from the first signal a right alpha wave (α R) and a right theta wave (θ R); obtaining from the second signal a left alpha wave (α L) and a left theta wave (θ L); calculating a valence value using a formula selected from one of the following formulas: θ L / α L − θ R / α R, θ L − α L / θ L + α L / ( θ R − α R / θ R + α R, θ R / α R − θ L / α L, or θ R − α R / θ R + α R / [ θ L − α L / θ L + α L; and rating the media based on a difference between the valence value and the reference value.
A replaceable antenna module for attachment to a conforming base of a field device located in a hazardous location, the conforming base capable of conducting radio-frequency signals, said antenna module comprising: a base made at least partially of a conductive material capable of conducting radio-frequency signals, said base configured for mating with said conforming base to conduct radio-frequency signals therebetween; an antenna coupled to the base to send and receive radio-frequency signals; a cap mounted on the base; the cap made of a non-conductive, radio-signal transparent material and defining an interior volume; the antenna arranged in the interior volume of the cap; characterized by a radome made entirely of a static dissipative material, the radome attached to the base, the radome defining an opening and an interior volume, the antenna and the cap in the interior volume of the radome, the base closing the radome opening; and the radome coupled to the base and in electrical contact with the base, wherein the radome is a one-piece, integral member formed from said static dissipative material, and wherein the radome comprises an inner surface and the conductive material defines an outer surface of the base, the inner and outer surfaces cooperatively forming an interference fit therebetween. a base made at least partially of a conductive material capable of conducting radio-frequency signals, said base configured for mating with said conforming base to conduct radio-frequency signals therebetween; an antenna coupled to the base to send and receive radio-frequency signals; a cap mounted on the base; the cap made of a non-conductive, radio-signal transparent material and defining an interior volume; the antenna arranged in the interior volume of the cap; characterized by a radome made entirely of a static dissipative material, the radome attached to the base, the radome defining an opening and an interior volume, the antenna and the cap in the interior volume of the radome, the base closing the radome opening; and the radome coupled to the base and in electrical contact with the base, wherein the radome is a one-piece, integral member formed from said static dissipative material, and wherein the radome comprises an inner surface and the conductive material defines an outer surface of the base, the inner and outer surfaces cooperatively forming an interference fit therebetween.
A composition for use in controlling glycemia in the treatment of diabetes comprising: 3,6-di(fumaryl-4-aminobutyl)-2,5-diketopiperazine and a recombinant human insulin, wherein the composition is manufactured as an ultrarapid acting insulin inhalable composition of up to 12 units of an insulin, said composition is administered in a dose of 60 to 90 units of insulin with a meal.
A dry sprinkler comprising: a fluid conduit that is configured to couple to a fluid supply, the conduit having a first end and a second end; a valve that is positioned proximate to the first end of the conduit, the valve having (i) a closed state that prevents fluid from the fluid supply from flowing through the conduit, and (ii) an open state that allows fluid from the fluid supply to flow through the conduit; a fire sprinkler head positioned proximate to the second end of the conduit, the fire sprinkler head having a thermally responsive element that reacts to an elevated temperature condition; an unbiased tie positioned within the conduit and being operably coupled to the valve and the thermally responsive element, the unbiased tie having at least an unengaged state and an engaged state and; a sheath member that is located within the conduit and surrounds the unbiased tie over most of its length; wherein (i) the unbiased tie is not biased towards the sprinkler head in the unengaged state, (ii) the reaction of the thermally responsive element to the elevated temperature condition causes the tie to change from the unengaged state to the engaged state, and (iii) changing the tie to the engaged state from the unengaged state allows the valve to change from the closed state to the open state; wherein the tie is flexible. a fluid conduit that is configured to couple to a fluid supply, the conduit having a first end and a second end; a valve that is positioned proximate to the first end of the conduit, the valve having (i) a closed state that prevents fluid from the fluid supply from flowing through the conduit, and (ii) an open state that allows fluid from the fluid supply to flow through the conduit; a fire sprinkler head positioned proximate to the second end of the conduit, the fire sprinkler head having a thermally responsive element that reacts to an elevated temperature condition; an unbiased tie positioned within the conduit and being operably coupled to the valve and the thermally responsive element, the unbiased tie having at least an unengaged state and an engaged state and; a sheath member that is located within the conduit and surrounds the unbiased tie over most of its length; wherein (i) the unbiased tie is not biased towards the sprinkler head in the unengaged state, (ii) the reaction of the thermally responsive element to the elevated temperature condition causes the tie to change from the unengaged state to the engaged state, and (iii) changing the tie to the engaged state from the unengaged state allows the valve to change from the closed state to the open state; wherein the tie is flexible.
A vane pump used as a fluid pressure source comprising: a rotor that is rotationally driven by motive power from a motive-power source; a plurality of slits that have openings on an outer circumference of the rotor and that are formed in a radiating pattern, the openings being provided on protruded portions that are protruded from the outer circumference of the rotor; vanes that are respectively received in the slits in a freely slidable manner; a cam ring that has an inner circumferential cam face with which tip portions of the vanes are brought into sliding contact, the tip portions being end portions of the vanes in a direction projecting out from the slits; pump chambers that are defined by the rotor, the cam ring, and the adjacent vanes; a side member that has a sliding contact surface with which the side surface of the rotor is brought into sliding contact; a discharge port that is formed so as to open to the side member, the discharge port being configured to guide working fluid discharged from the pump chamber; a notch that is provided on the side member so as to extend from the opening of the discharge port in a direction opposite to a rotating direction of the rotor; and an inner notch that is formed radially inside of the notch, characterized In that the notch is formed radially outside of the protruded portion of the rotor, the inner notch is formed Inside of a most-outer circumferential portion of the protruded portion of the rotor, and length of the inner notch in rotating direction of the rotor is shorter than that of the notch. a rotor that is rotationally driven by motive power from a motive-power source; a plurality of slits that have openings on an outer circumference of the rotor and that are formed in a radiating pattern, the openings being provided on protruded portions that are protruded from the outer circumference of the rotor; vanes that are respectively received in the slits in a freely slidable manner; a cam ring that has an inner circumferential cam face with which tip portions of the vanes are brought into sliding contact, the tip portions being end portions of the vanes in a direction projecting out from the slits; pump chambers that are defined by the rotor, the cam ring, and the adjacent vanes; a side member that has a sliding contact surface with which the side surface of the rotor is brought into sliding contact; a discharge port that is formed so as to open to the side member, the discharge port being configured to guide working fluid discharged from the pump chamber; a notch that is provided on the side member so as to extend from the opening of the discharge port in a direction opposite to a rotating direction of the rotor; and an inner notch that is formed radially inside of the notch, characterized In that the notch is formed radially outside of the protruded portion of the rotor, the inner notch is formed Inside of a most-outer circumferential portion of the protruded portion of the rotor, and length of the inner notch in rotating direction of the rotor is shorter than that of the notch.
A frame pool, comprising: a pool body defining a space and adapted to contain liquid therein, the pool body including a sleeve extending along an upper edge thereof; a support frame adapted to support the pool body, the support frame including an upper frame extending through the sleeve, the upper frame including a first upper tube a second upper tube, and a connecting tube that couples the first upper tube to the second upper tube; a plurality of support members adapted to support the upper frame in an elevated position; a collar having a generally tubular shape coupled between the connecting tube and one of the first and second upper tubes; characterized in that, the connecting tube is free to move in an axial direction relative to the one of the first and the second upper tubes. a pool body defining a space and adapted to contain liquid therein, the pool body including a sleeve extending along an upper edge thereof; a support frame adapted to support the pool body, the support frame including an upper frame extending through the sleeve, the upper frame including a first upper tube a second upper tube, and a connecting tube that couples the first upper tube to the second upper tube; a plurality of support members adapted to support the upper frame in an elevated position; a collar having a generally tubular shape coupled between the connecting tube and one of the first and second upper tubes; characterized in that, the connecting tube is free to move in an axial direction relative to the one of the first and the second upper tubes.
A sample plate for mass spectrometry, the sample plate including: a target plate, an organic matrix formed on one surface of the target plate, a parylene thin film formed on the target plate having the organic matrix formed thereon and formed to cover the entire organic matrix, the parylene thin film being formed to have a thickness of 10 nm to 100 nm, and characterized by a sample fixing layer formed on the parylene thin film, wherein the sample fixing layer is made of graphene which is different from carbon nano tube and does not constitute CNT. a target plate, an organic matrix formed on one surface of the target plate, a parylene thin film formed on the target plate having the organic matrix formed thereon and formed to cover the entire organic matrix, the parylene thin film being formed to have a thickness of 10 nm to 100 nm, and characterized by a sample fixing layer formed on the parylene thin film, wherein the sample fixing layer is made of graphene which is different from carbon nano tube and does not constitute CNT.
Converter with a DC link for converting an input voltage into an alternating voltage with a pre-determined amplitude and frequency for driving a single or multiple-phase load, comprising - a number of modules (10; 10-1,..., 10-7) which are configured stackable over one another, wherein each module (10; 10-1,..., 10-7) comprises a ceramic cooling body with a receiving surface on which electronic components of one phase are mounted, wherein the ceramic cooling body has one or more channels in the region of the receiving surface through which a coolant can flow during the operation of the converter; - at least one DC link capacitor and input-side and output-side power connections which are arranged on a first carrier, the main level of which is arranged perpendicularly to the plane of the receiving surface; - a control unit for driving the electronic components of the phase, wherein the control unit is arranged on a second carrier, the main plane of which is arranged perpendicularly to the plane of the receiving surface. - a number of modules (10; 10-1,..., 10-7) which are configured stackable over one another, wherein each module (10; 10-1,..., 10-7) comprises a ceramic cooling body with a receiving surface on which electronic components of one phase are mounted, wherein the ceramic cooling body has one or more channels in the region of the receiving surface through which a coolant can flow during the operation of the converter; - at least one DC link capacitor and input-side and output-side power connections which are arranged on a first carrier, the main level of which is arranged perpendicularly to the plane of the receiving surface; - a control unit for driving the electronic components of the phase, wherein the control unit is arranged on a second carrier, the main plane of which is arranged perpendicularly to the plane of the receiving surface.
A steel for high-strength spring characterized by consisting of: C: 0.38 to 0.44%, Si: 2.00 to 2.30%, Mn: 0.79 to 1.25%, Cr: 0.10 to 0.43%, Ni: 0.15 to 0.35%, Cu: 0.15 to 0.35%, Ti:more than 0.07% but not more than 0.13%, P: 0.02% or less (0% is not included), S: 0.02% or less (0% is not included), Al: 0.003 to 0.10%, N: 0.002 to 0.012%, O: 0.002% or less (0% is not included), by mass%, and residue consisting of iron and inevitable impurities, wherein an Ac 3 transformation temperature as an indicator of the decarburization performance, which is calculated by Equation below, is from 859 to 885°C, a maximum hardened diameter DI as an indicator of the hardening performance, which is calculated by Equation below, is from 70 to 238 mm, and a temper hardness HRC as an indicator of the spring performance, which is calculated by Equation below, is from 50 to 55. Ac 3 = 910 − 203 × C − 15.2 Ni + 44.7 Si + 104 V + 31.5 Mo + 13.1 W DI = D O × f Si × f Mn × f P × f S × f Cu × f Ni × f Cr HRC = 38.99 + 17.48 C + 2.55 Si − 2.28 Ni + 2.37 Cr + 8.04 Ti wherein, D 0 = 8.65 × C, f Si =1+0.64×%Si, f Mn =1+4.10×%Mn, f P =1+2.83×%P, f S =1-0.62×%S, f Cu =1+0.27×%Cu, f Ni =1+0.52×%Ni, and f Cr =1+2.33×%Cr.
A method of molding a synthetic resin product from a liquid mixed material using a mold unit having a female mold and a male mold, which are closely engageable with each other in a selective manner to define a cavity having a desired shape, and are disengageable from each other, the method comprising: filling the cavity with the material; simultaneously agitating and degassing the material within the cavity by disposing the mold unit in a mixer while the cavity is filled with the material, and by orbiting the mold unit under a vacuum around an orbital axis while rotating the mold unit about a rotational axis that is eccentric to the orbital axis; and curing the material in the mold unit; wherein during an initial period of the agitating and degassing, the male mold is prevented from coming into contact with the female mold in order to maximize the fluidity of the material in the cavity during this time period, and during a subsequent period of the agitating and degassing, the male mold is allowed to be brought into contact with the female mold. filling the cavity with the material; simultaneously agitating and degassing the material within the cavity by disposing the mold unit in a mixer while the cavity is filled with the material, and by orbiting the mold unit under a vacuum around an orbital axis while rotating the mold unit about a rotational axis that is eccentric to the orbital axis; and curing the material in the mold unit; wherein during an initial period of the agitating and degassing, the male mold is prevented from coming into contact with the female mold in order to maximize the fluidity of the material in the cavity during this time period, and during a subsequent period of the agitating and degassing, the male mold is allowed to be brought into contact with the female mold.
Method for the manufacture of bearing shells for plain bearings, in which the bearing shells are blasted with corundum particles on the bearing metal side in order thus to generate inherent compressive stresses in the blasted side of the bearing shell, characterised in that the bearing metal of the bearing shell is compacted by the impact of the particles.
An electronic booster for use in connection with a blasting machine and for detonation of an explosive material at a blast site, said blasting machine controlling said electronic booster via at least one wireless command signal, the electronic booster comprising: a detonator comprising a detonator shell and a firing circuit and a base charge within the detonator shell; an explosive charge in operative association with and external of said detonator, such that actuation of said base charge via said firing circuit causes actuation of said explosive charge, which causes detonation of said explosive material; an antenna (300, 301, 302, 303) at least for receiving said at least one wireless command signal from said at least one blasting machine; and a transceiver for receiving and processing said at least one wireless command signal from said blasting machine, said transceiver being in signal communication with said firing circuit such that upon receipt of a command signal to FIRE said firing circuit causes actuation of said base charge; characterized in that the electronic booster further comprises a casing containing at least the detonator, the explosive charge, the antenna (300, 301, 302, 303) and the transceiver. a detonator comprising a detonator shell and a firing circuit and a base charge within the detonator shell; an explosive charge in operative association with and external of said detonator, such that actuation of said base charge via said firing circuit causes actuation of said explosive charge, which causes detonation of said explosive material; an antenna (300, 301, 302, 303) at least for receiving said at least one wireless command signal from said at least one blasting machine; and a transceiver for receiving and processing said at least one wireless command signal from said blasting machine, said transceiver being in signal communication with said firing circuit such that upon receipt of a command signal to FIRE said firing circuit causes actuation of said base charge; characterized in that the electronic booster further comprises a casing containing at least the detonator, the explosive charge, the antenna (300, 301, 302, 303) and the transceiver.
A method for separating blood, wherein different blood fractions, specifically erythrocytes, buffy coat, and blood plasma, are obtained, wherein blood is introduced into a separation container and is then centrifuged into different, fluidically connected sections of the separation container arranged above one another, specifically a top section for receiving the blood plasma, a centre section for receiving the buffy coat, and a bottom section for receiving the erythrocytes, • wherein the future packing volume of the erythrocytes to be centrifuged is determined using the haematocrit value of the supplied blood, • wherein the capacity of the bottom section is adapted to the expected packing volume of the erythrocytes after centrifugation such that the phase boundary forming between buffy coat and erythrocytes during centrifugation is positioned in a region of the centre section of the separation container that is adjacent to the bottom section, and • wherein the quantity of supplied blood is introduced into the separation container in an exact volume, taking into account the expected packing volume of the erythrocytes, characterised in that after centrifugation the bottom section is separated from the centre section, and in that the centre section is part of a freezer container that during centrifugation is separated from the other region of the freezer container, and in that after centrifugation the connection to the previously separated region of the freezer container is produced and the buffy coat travels at least into parts of the entire freezer container. • wherein the future packing volume of the erythrocytes to be centrifuged is determined using the haematocrit value of the supplied blood, • wherein the capacity of the bottom section is adapted to the expected packing volume of the erythrocytes after centrifugation such that the phase boundary forming between buffy coat and erythrocytes during centrifugation is positioned in a region of the centre section of the separation container that is adjacent to the bottom section, and • wherein the quantity of supplied blood is introduced into the separation container in an exact volume, taking into account the expected packing volume of the erythrocytes,