mhurhangee/ep-ind-claims huggingface dataset:
Composition comprising A) a mixture of surfactants A1, A2 and A3 B) optionally water wherein - the mixture of surfactants comprises A1) one or more biosurfactants(s) A2) one or more sorbitan ester(s) A3) one or more further surfactant(s) different from surfactants A1) and A2) - the biosurfactant(s) used as component A1) is/are glycolipid(s) produced by fermentation - the sorbitan ester(s) used as components A2) is/are characterized by an HLB value below or equal to 11, preferably below or equal to 10, more preferred of from 4 to 10. - the weight ratio of the sum of all biosurfactants A1) to the sum of all sorbitan esters A2) is in a range of from 0.01 to 1.2, preferably 0.1 to 1.1, more preferred 0.1 to 1, even more preferred 0.15 to 0.9 and most preferred 0.2 to 0.8. - the pH value of the cleaning composition is in the range of from 3 to 10, preferably 4 to 9, more preferred 5 to 8, even more preferred 6 to 8 and most preferred 6.5 to 7.5. A) a mixture of surfactants A1, A2 and A3 B) optionally water - the mixture of surfactants comprises A1) one or more biosurfactants(s) A2) one or more sorbitan ester(s) A3) one or more further surfactant(s) different from surfactants A1) and A2) A1) one or more biosurfactants(s) A2) one or more sorbitan ester(s) A3) one or more further surfactant(s) different from surfactants A1) and A2) - the biosurfactant(s) used as component A1) is/are glycolipid(s) produced by fermentation - the sorbitan ester(s) used as components A2) is/are characterized by an HLB value below or equal to 11, preferably below or equal to 10, more preferred of from 4 to 10. - the weight ratio of the sum of all biosurfactants A1) to the sum of all sorbitan esters A2) is in a range of from 0.01 to 1.2, preferably 0.1 to 1.1, more preferred 0.1 to 1, even more preferred 0.15 to 0.9 and most preferred 0.2 to 0.8. - the pH value of the cleaning composition is in the range of from 3 to 10, preferably 4 to 9, more preferred 5 to 8, even more preferred 6 to 8 and most preferred 6.5 to 7.5.
Use of an affinity adsorbent for the separation, removal, isolation, purification, characterisation, identification or quantification of plasminogen or a protein that is a plasminogen analogue, wherein the affinity adsorbent is a compound of formula III, IV or V: wherein A is a support matrix, optionally linked to the triazine ring by a spacer.
A method for the manufacture of cups made of carton having a liquid-impermeable coating on the inside, in which • an annular sector-shaped or circular sector-shaped blank from the carton having the liquid-impermeable coating on the inside is laid around a conical dome so that its two radially extended lateral edge areas (2, 3) overlap one another, • the two radially extended lateral edge areas (2, 3) are sealed to one another, characterized in that • at least one of the two radially extended lateral edge areas (2, 3) is moistened with a liquid over its total longitudinal extension so that the coated carton of the radially extended lateral edge area (2, 3) is made softer and the edge areas are then sealed to one another. • an annular sector-shaped or circular sector-shaped blank from the carton having the liquid-impermeable coating on the inside is laid around a conical dome so that its two radially extended lateral edge areas (2, 3) overlap one another, • the two radially extended lateral edge areas (2, 3) are sealed to one another, characterized in that • at least one of the two radially extended lateral edge areas (2, 3) is moistened with a liquid over its total longitudinal extension so that the coated carton of the radially extended lateral edge area (2, 3) is made softer and the edge areas are then sealed to one another.
Device for blocking and releasing a door, particularly a door of a home appliance provided with a prong, said device comprises an housing, provided with a cover, an electrical module and a mechanical module, said device being characterized in that said housing comprised a fixed cam, in that said electrical module provides an activation and blocking pin, said mechanical module provides a blocking slider, interacting with said activation and blocking pin of said electrical module, so that, when said activation and blocking pin comes out by a control sent to the electrical module, it prevents said blocking slider from translating and rotating, in that said device further comprises a strut having a profile capable to interact with said fixed cam so as to permit to make such a rotation to free said door prong, said strut being movable along a horizontal direction, and connected with said blocking slider, a safety slider, parallel with respect to said strut, that, in case said prong misses or in case of tampering, tends to go back to the position, making eventually entering back said blocking pin, so as to switch off the home appliance, a rotating opening and blocking hook, interacting, with said strut, and with said prong of the door, and an opening lever for manual activation of the opening, by activating said opening lever, said slider being dragged, causing said slider to drags backward said strut, freeing said hook from said strut, the interaction between said opening and said blocking hook and strut is such that when said door of the home appliance is forced from inside, said hook transmits a pushing action to the strut, which, subjected to a set force, can translate and rotate by the displacement created by the contact of said strut profile with said fixed cam of said housing, freeing the dimensions of the hook so as to permit a rotation of the hook to free the door prong.
A silicone oil having a mean molecular weight of 20,000 Daltons or greater, wherein no more than 3% to 4% of the total silicone oil by weight is comprised of components having a molecular weight less than 15,000 Daltons, wherein the mean molecular weight is determined as indicated in the description.
Apparatus for forming plastic preforms into plastic containers, having a movable carrier on which a plurality of blow molding devices are arranged, wherein the blow molding device has at least two blow mold side parts (6a, 6b) and a base part movable in a longitudinal direction of the plastic container, wherein the blow mold side parts (6a, 6b) and the base part form a cavity, within which the plastic preforms can be formed into the plastic containers by applying a flowable medium, wherein the blow mold side parts (6a, 6b) are arranged respectively on a first mold carrier and a second mold carrier, which are movable with respect to a main shaft that is stationary relative to the carrier for opening and/or closing, and the apparatus is arranged within a clean room, wherein an opening and/or closing movement of the first mold carrier takes place by a first angle, and an opening and/or closing movement of the second mold carrier takes place by a second angle, wherein the first angle and the second angle are substantially identical, characterized in that the apparatus has a plurality of guide curves selected from a group of guide curves including a locking curve, a base lifting curve, a main guide curve, a blowing nozzle curve, a guide curve for the opening and closing movement of the mold carriers, and the like, wherein the locking curve and/or the base lifting curve and/or the guide curve for the opening and closing movement of the mold carriers are arranged inside the clean room and the main guide curve and/or the blowing nozzle curve are arranged outside the clean room. an opening and/or closing movement of the first mold carrier takes place by a first angle, and an opening and/or closing movement of the second mold carrier takes place by a second angle, wherein the first angle and the second angle are substantially identical, characterized in that the apparatus has a plurality of guide curves selected from a group of guide curves including a locking curve, a base lifting curve, a main guide curve, a blowing nozzle curve, a guide curve for the opening and closing movement of the mold carriers, and the like, wherein the locking curve and/or the base lifting curve and/or the guide curve for the opening and closing movement of the mold carriers are arranged inside the clean room and the main guide curve and/or the blowing nozzle curve are arranged outside the clean room.
Detachable plug connector having a sleeve-shaped connecting element, a receiving part and a plug-in part, wherein the receiving part, which is likewise sleeve-shaped, is inserted in the sleeve interior of the connecting element, the tubular plug-in part being able to be inserted in turn into the interior of the receiving part, wherein transverse forces acting transverse to the longitudinal extension thereof are effectively absorbed, wherein the plug-in part bears a peripheral holding rib on its outer periphery, and having a securing element which consists of energy-elastic material and comprises inwardly-directed, elastically resilient holding edges for engaging behind the holding rib after pressing in the plug-in part, which holding edges are connected together via spring webs (8, 9) which are fitted together in a V-shaped manner and the spring webs (8, 9) are resilient, by applying pressure to the fitted together web end regions of the spring webs (8, 9), such that the holding edges are disengaged from the holding rib, characterised in that the connecting element and the securing element are connected together in one piece to form a moulded part produced from energy-elastic material, and in that the connecting element and the securing element are connected together via deflectable spring bars, at least one holding edge being provided in the course or extension of the spring bars.
A method to form a three-dimensional image inside transparent stone comprising the process steps of - making at least one filling figure (5.4) onto a surface (5.5) of a three-dimensional object, - making at least one transparent filling layer onto a surface (5.5) of the said three dimensional object, - connecting the three-dimensional object onto an inward facing surface of an outer shell (1.1) which is formed by carving from the said transparent stone's inner side. - making at least one filling figure (5.4) onto a surface (5.5) of a three-dimensional object, - making at least one transparent filling layer onto a surface (5.5) of the said three dimensional object, - connecting the three-dimensional object onto an inward facing surface of an outer shell (1.1) which is formed by carving from the said transparent stone's inner side.
An electric motor (1, 1a, 1b, 1c, 1d, 1e, 1f) comprising: a rotor; a plurality of heat dissipation members (5, 5a, 5b); and a stator assembly including a printed board, a stator, and a resin fixing the plurality of heat dissipation members (5, 5a, 5b), wherein the printed board and the stator are united with the resin, the plurality of heat dissipation members (5, 5a, 5b) are fixed to one end side of the electric motor (1, 1a, 1b, 1c, 1d, 1e, 1f) in an axial direction, each of the plurality of heat dissipation members (5, 5a, 5b) includes a plurality of fins and press fitting portions, and each of the plurality of press fitting portions is engaged with the resin. a rotor; a plurality of heat dissipation members (5, 5a, 5b); and a stator assembly including a printed board, a stator, and a resin fixing the plurality of heat dissipation members (5, 5a, 5b), wherein the printed board and the stator are united with the resin, the plurality of heat dissipation members (5, 5a, 5b) are fixed to one end side of the electric motor (1, 1a, 1b, 1c, 1d, 1e, 1f) in an axial direction, each of the plurality of heat dissipation members (5, 5a, 5b) includes a plurality of fins and press fitting portions, and each of the plurality of press fitting portions is engaged with the resin.
A method for signal transmission over a data link (830; 930; 1030), the method comprising: transmitting a first differential signal (D-, D+) over a first differential communication channel having two signal lines (CL2, CL3); transmitting a second differential signal (CLK-, CLK+) over a second differential communication channel having two signal lines (CL4, CL5), the second differential communication channel being different from the first differential communication channel; and transmitting a third differential signal (CBUS-, CBUS+) concurrently while sending the second (CLK-, CLK+) differential signal, including sending a modal component (CBUS-) of the third differential signal (CBUS-, CBUS+) over one of the signal lines of the second differential communication channel and sending an anti-modal component (CBUS+) of the third differential signal (CBUS-, CBUS+) over the other of the signal lines of the second differential communication channel, where the modal (CBUS-) and anti-modal (CBUS+) components of the third differential signal (CBUS-, CBUS+) are clock edge modulated onto edges of the second differential signal (CLK-, CLK+), wherein the third differential signal is a bidirectional differential signal. transmitting a first differential signal (D-, D+) over a first differential communication channel having two signal lines (CL2, CL3); transmitting a second differential signal (CLK-, CLK+) over a second differential communication channel having two signal lines (CL4, CL5), the second differential communication channel being different from the first differential communication channel; and transmitting a third differential signal (CBUS-, CBUS+) concurrently while sending the second (CLK-, CLK+) differential signal, including sending a modal component (CBUS-) of the third differential signal (CBUS-, CBUS+) over one of the signal lines of the second differential communication channel and sending an anti-modal component (CBUS+) of the third differential signal (CBUS-, CBUS+) over the other of the signal lines of the second differential communication channel, where the modal (CBUS-) and anti-modal (CBUS+) components of the third differential signal (CBUS-, CBUS+) are clock edge modulated onto edges of the second differential signal (CLK-, CLK+), wherein the third differential signal is a bidirectional differential signal.
Method for switching a communication, received by a terminal via a digital video broadcast network, encoded by groups (10, k, k+1, k+2) of data in accordance with a method of the IFEC type, for "Inter-burst Forward Error Correction", using redundancy and interlacing of data such that the terminal can generate lost data packets from correctly received data, characterized in that the terminal performs the following steps: - The step of measuring the losses of groups (k+1, k+2) of data during the communication, and - The step of commanding, via a cellular network, the switching of the communication when the measurement of the losses of the groups (k+1, k+2) of data exceeds a predetermined switching threshold in order for that communication to continue via that cellular network. - The step of measuring the losses of groups (k+1, k+2) of data during the communication, and - The step of commanding, via a cellular network, the switching of the communication when the measurement of the losses of the groups (k+1, k+2) of data exceeds a predetermined switching threshold in order for that communication to continue via that cellular network.
A method for wireless communications, comprising: transmitting or receiving, by a communication apparatus, an 80 MHz frame according to a tone plan for the 80 MHz frame; characterized in that the tone plan comprises 12 guard tones, first 18 26-tone resource units, RUs, first 13 tones of a bifurcated 26-tone RU, 7 DC tones, a remaining 13 tones of the bifurcated 26-tone RU, second 18 26-tone RUs, and 11 guard tones; and the first 18 26-tone RUs are positioned between the 12 guard tones and the first 13 tones of the bifurcated 26-tone RU, the first 13 tones of the bifurcated 26-tone RU are positioned between the first 18 26-tone RUs and the 7 DC tones, the 7 DC tones are positioned between the first 13 tones of the bifurcated 26-tone RU and the remaining 13 tones of the bifurcated 26-tone RU, the remaining 13 tones of the bifurcated 26-tone RU are positioned between the 7 DC tones and second 18 26-tone RUs, and the second 18 26-tone RUs are positioned between the remaining 13 tones of the bifurcated 26-tone RU and the 11 guard tones; wherein the tone plan further comprises 32 leftover tones including a first leftover tone positioned between the 12 guard tones and the first 18 26-tone RUs, a second leftover tone positioned in between the first 18 26-tone RUs, a third leftover tone positioned in between the second 18 26-tone RUs, and a fourth leftover tone positioned between the second 18 26-tone RUs and the 11 guard tones. transmitting or receiving, by a communication apparatus, an 80 MHz frame according to a tone plan for the 80 MHz frame; characterized in that the tone plan comprises 12 guard tones, first 18 26-tone resource units, RUs, first 13 tones of a bifurcated 26-tone RU, 7 DC tones, a remaining 13 tones of the bifurcated 26-tone RU, second 18 26-tone RUs, and 11 guard tones; and the first 18 26-tone RUs are positioned between the 12 guard tones and the first 13 tones of the bifurcated 26-tone RU, the first 13 tones of the bifurcated 26-tone RU are positioned between the first 18 26-tone RUs and the 7 DC tones, the 7 DC tones are positioned between the first 13 tones of the bifurcated 26-tone RU and the remaining 13 tones of the bifurcated 26-tone RU, the remaining 13 tones of the bifurcated 26-tone RU are positioned between the 7 DC tones and second 18 26-tone RUs, and the second 18 26-tone RUs are positioned between the remaining 13 tones of the bifurcated 26-tone RU and the 11 guard tones; wherein the tone plan further comprises 32 leftover tones including a first leftover tone positioned between the 12 guard tones and the first 18 26-tone RUs, a second leftover tone positioned in between the first 18 26-tone RUs, a third leftover tone positioned in between the second 18 26-tone RUs, and a fourth leftover tone positioned between the second 18 26-tone RUs and the 11 guard tones.
The cold rolled and annealed steel sheet with mechanical strength of more than or equal to 900 MPa, an elastic limit of more than 700 MPa and uniform elongation of more than or equal to 12%, whose composition comprises, the contents being expressed in percentage of weight, 0.26% ≤ C ≤ 0.45% 1.0% ≤ Mn ≤ 3.0% 1.0 ≤ Si ≤ 3.0% Al ≤ 0.1% Cr ≤ 1.5% S ≤ 0.005% P ≤ 0.020% Nb ≤ 0.1% Ti ≤ 0.02% V ≤ 0.015% N ≤ 0.01% the rest of the composition consisting of iron and unavoidable impurities resulting from the production, with the proviso that 256xC + 47xMn + 150xCr + 2260xNb > 142, the microstructure consisting of, in surface proportions, 13 to 25% of residual austenite, 13 to 30% of residual martensite and austenite islets, the balance consisting of bainite and optionally ferrite.
An Fθ lens assembly for ultraviolet laser marking, consisting of a first lens, a second lens, a third lens, and a fourth lens, which lenses are coaxially arranged successively along a transmission direction of an incident beam of a laser which has an emission wavelength of 266nm, wherein the lens assembly is configured to focus the incident beam, wherein the first lens is a negative biconcave lens; the second lens is a negative meniscus lens; the third lens is a positive meniscus lens; and the fourth lens is a positive biconvex lens; intermediate parts of the second lens and the third lens protrude towards the transmission direction of the laser; the values of refractive index and Abbe number of the first lens, the second lens, the third lens, and the fourth lens are 1.476 and 68, respectively, with a tolerance of 5%, wherein the first lens comprises a first surface and a second surface; the second lens comprises a third surface and a fourth surface; the third lens comprises a fifth surface and a sixth surface; the fourth lens comprises a seventh surface and an eighth surface; the first to eighth surfaces are arranged successively along the transmission direction of the laser; radiuses of curvature of the first to eighth surfaces are -50mm, 300mm, -28mm, -32mm, - 250mm, -50mm, 250mm, -100mm, respectively, with a tolerance of 5%.
Method for heating a furnace chamber, in which a primary fuel and a primary oxidizing agent and also at least one secondary fuel stream consisting of solid particles are introduced into a furnace chamber by means of a multi-fuel burner, wherein the secondary fuel stream is conducted pneumatically through a feed tube of the multi-fuel burner and, in the region of the burner mouth of the multi-fuel burner, which mouth faces the furnace chamber, is diverted by guiding in a gas stream introduced into a lower region of the feed tube, characterized in that the gas stream introduced into the feed tube consists of an oxygen-rich gas which has an oxygen fraction of over 50 vol% and which at least largely mixes with the secondary fuel stream, and wherein oxygen-rich gas is introduced by means of lances into a region of the furnace chamber through which the secondary fuel passes.
An emergency call placement method for user equipment in idle mode camped on a first cell of a wireless communication network having a first radio access technology comprising the steps of: requesting (213, 216, 316) a radio resource control connection using a firtst establishment request; changing (250, 350) to a new cell (121, 123, 127, 129) in a different location area (166, 172, 176) than the first cell without performing a location area update and without performing a routing area update and requesting again (216, 316) a radio resource control connection using "emergency call" as a second establishment request if the first establishment request is an "emergency call"; and changing (250, 270) to a new cell (121, 123, 127, 129) in a different location area (166, 172, 176) than the first cell and performing a location area update or a routing area update, if the first establishment request is "originating conversation call", and requesting again a radio resource control connection using "registration" as a second establishment request. requesting (213, 216, 316) a radio resource control connection using a firtst establishment request; changing (250, 350) to a new cell (121, 123, 127, 129) in a different location area (166, 172, 176) than the first cell without performing a location area update and without performing a routing area update and requesting again (216, 316) a radio resource control connection using "emergency call" as a second establishment request if the first establishment request is an "emergency call"; and changing (250, 270) to a new cell (121, 123, 127, 129) in a different location area (166, 172, 176) than the first cell and performing a location area update or a routing area update, if the first establishment request is "originating conversation call", and requesting again a radio resource control connection using "registration" as a second establishment request.