mhurhangee/patent-ind-claim-en huggingface dataset:
A titanium alloy comprised of: aluminum from 5.0 to 6.0% by weight; zirconium from 3.75 to 4.75% by weight; vanadium from 5.2 to 6.2% by weight; molybdenum from 1.0 to 1.7% by weight; iron from 0.10 to 0.25% by weight; one of palladium from 0.04 to 0.20% by weight and ruthenium from 0.06 to 0.20% by weight; by weight no more than 0.13% oxygen, 0.05% nitrogen, 0.03% carbon, 0.015% hydrogen, and 0.015% boron; by weight 0-2.0% tantalum; by weight 0-2.0% niobium; by weight 0-1.0% tin; by weight 0-1.0 % hafnium; by weight 0-0.50% tungsten; by weight 0-0.25% chromium and/or manganese; by weight 0-0.20% yttrium; by weight 0-0.20% zinc; by weight 0-0.20% copper; by weight 0-0.20% nickel; by weight 0-0.20% cobalt; by weight 0-0.20% cerium; by weight 0-0.10% Si; by weight no more than 1.0% of total amount of any single element other than titanium, aluminum, zirconium, vanadium, molybdenum, iron, oxygen, nitrogen, carbon, hydrogen, palladium, and/or ruthenium, and the balance to 100% of the total by weight being titanium, wherein the titanium alloy has a molybdenum equivalency in a range of 5.0 to 5.9, wherein the molybdenum equivalency = molybdenum weight % in the alloy + (0.67)(vanadium weight % in the alloy) + (2.5)(iron weight % in the alloy); the titanium alloy has an aluminum equivalency in a range of 6.5 to 7.5, wherein the aluminum equivalency = aluminum weight % in the alloy + (0.33)(tin weight % in the alloy) + (0.17)(zirconium weight % in the alloy) + (10.0)(oxygen weight % in the alloy). aluminum from 5.0 to 6.0% by weight; zirconium from 3.75 to 4.75% by weight; vanadium from 5.2 to 6.2% by weight; molybdenum from 1.0 to 1.7% by weight; iron from 0.10 to 0.25% by weight; one of palladium from 0.04 to 0.20% by weight and ruthenium from 0.06 to 0.20% by weight; by weight no more than 0.13% oxygen, 0.05% nitrogen, 0.03% carbon, 0.015% hydrogen, and 0.015% boron; by weight 0-2.0% tantalum; by weight 0-2.0% niobium; by weight 0-1.0% tin; by weight 0-1.0 % hafnium; by weight 0-0.50% tungsten; by weight 0-0.25% chromium and/or manganese; by weight 0-0.20% yttrium; by weight 0-0.20% zinc; by weight 0-0.20% copper; by weight 0-0.20% nickel; by weight 0-0.20% cobalt; by weight 0-0.20% cerium; by weight 0-0.10% Si; by weight no more than 1.0% of total amount of any single element other than titanium, aluminum, zirconium, vanadium, molybdenum, iron, oxygen, nitrogen, carbon, hydrogen, palladium, and/or ruthenium, and the balance to 100% of the total by weight being titanium, wherein the titanium alloy has a molybdenum equivalency in a range of 5.0 to 5.9, wherein the molybdenum equivalency = molybdenum weight % in the alloy + (0.67)(vanadium weight % in the alloy) + (2.5)(iron weight % in the alloy); the titanium alloy has an aluminum equivalency in a range of 6.5 to 7.5, wherein the aluminum equivalency = aluminum weight % in the alloy + (0.33)(tin weight % in the alloy) + (0.17)(zirconium weight % in the alloy) + (10.0)(oxygen weight % in the alloy).
Multilayer film comprising: - an adhesive layer A having a thickness ranging from 7 to 50 μm and consisting of an extrudable hot-melt pressure-sensitive adhesive composition a which has a melt flow index (or MFI), measured for a temperature of 190°C and a total weight of 2.16 kg, ranging from 0.01 to 200 g/10 minutes; - a heat-sealable and splittable layer B consisting of a composition b; - a complexable layer C consisting of a composition c; the layers B and C being linked to one another by the layer A; and said film being characterized in that one of the compositions b and c is a composition f based on a thermoplastic material P, said composition f comprising, on the basis of its total weight, from 0.005 to 1% by weight of a thermoplastic fluorinated (co)polymer F. - an adhesive layer A having a thickness ranging from 7 to 50 μm and consisting of an extrudable hot-melt pressure-sensitive adhesive composition a which has a melt flow index (or MFI), measured for a temperature of 190°C and a total weight of 2.16 kg, ranging from 0.01 to 200 g/10 minutes; - a heat-sealable and splittable layer B consisting of a composition b; - a complexable layer C consisting of a composition c;
A light emitting device, comprising a first electrode and a second electrode facing each other, an emission layer disposed between the first electrode and the second electrode, the emission layer comprising quantum dots, and an electron auxiliary layer disposed between the emission layer and the second electrode, the electron auxiliary layer comprising nanoparticles and a small molecule organic compound, wherein the nanoparticles comprise a metal oxide comprising zinc, and an electron mobility of the small molecule organic compound is less than an electron mobility of the nanoparticles.
A trailer (2; 102; 202), comprising: - at least one axle , by means of which the trailer (2; 102; 202) is configured to rest on the ground (S); - a chassis , supported by said at least one axle ; and - a load , supported by the chassis ; said at least one axle comprising a load axle , the load axle and the load being movable relative to one another along a longitudinal direction (X2) of the trailer (2; 102; 202), characterized in that the trailer (2; 102; 202): - is configured to switch between an autonomous movement mode and a towed movement mode; - comprises means allowing the trailer (2; 102; 202), when it is in the autonomous movement mode, to move autonomously over the surface of the ground (S); and - is configured such that the load axle and the load assume, relative to one another along the longitudinal direction (X2), two distinct longitudinal positions (Fig. 1, Fig. 2), depending on whether the trailer (2; 102; 202) is in the autonomous movement mode or in the towed movement mode. - at least one axle , by means of which the trailer (2; 102; 202) is configured to rest on the ground (S); - a chassis , supported by said at least one axle ; and - a load , supported by the chassis ; said at least one axle comprising a load axle , the load axle and the load being movable relative to one another along a longitudinal direction (X2) of the trailer (2; 102; 202), characterized in that the trailer (2; 102; 202): - is configured to switch between an autonomous movement mode and a towed movement mode; - comprises means allowing the trailer (2; 102; 202), when it is in the autonomous movement mode, to move autonomously over the surface of the ground (S); and - is configured such that the load axle and the load assume, relative to one another along the longitudinal direction (X2), two distinct longitudinal positions (Fig. 1, Fig. 2), depending on whether the trailer (2; 102; 202) is in the autonomous movement mode or in the towed movement mode. - is configured to switch between an autonomous movement mode and a towed movement mode; - comprises means allowing the trailer (2; 102; 202), when it is in the autonomous movement mode, to move autonomously over the surface of the ground (S); and - is configured such that the load axle and the load assume, relative to one another along the longitudinal direction (X2), two distinct longitudinal positions (Fig. 1, Fig. 2), depending on whether the trailer (2; 102; 202) is in the autonomous movement mode or in the towed movement mode.
Glass sheet having a composition that comprises the following in a content expressed in percentages of the total weight of glass: 55 ≤ SiO 2 ≤ 85% 0 ≤ Al 2 O 3 ≤ 30% 0 ≤ B 2 O 3 ≤ 20% 0 ≤ Na 2 O < 5% 0 ≤ CaO ≤ 20% 0 ≤ MgO ≤ 15% 0 ≤ K 2 O ≤ 20% 0 ≤ BaO ≤ 20% 0.002 ≤ total iron (expressed in the form of Fe 2 O 3 ) ≤ 0.02%, characterised in that said composition comprises a chromium content such as : 0.0001% ≤ Cr 2 O 3 ≤ 0.06%, expressed in a percentage of the total weight of glass and has an absorption coefficient at wavelength 1050 nm of less than or equal to 5 m -1 . 55 ≤ SiO 2 ≤ 85% 0 ≤ Al 2 O 3 ≤ 30% 0 ≤ B 2 O 3 ≤ 20% 0 ≤ Na 2 O < 5% 0 ≤ CaO ≤ 20% 0 ≤ MgO ≤ 15% 0 ≤ K 2 O ≤ 20% 0 ≤ BaO ≤ 20% 0.002 ≤ total iron (expressed in the form of Fe 2 O 3 ) ≤ 0.02%,
A laser welding method for welding a material containing copper as a main component, the laser welding method comprising: heating the material by irradiation with a first laser light (L1) and welding the material by irradiation of a portion, which has been irradiated with the first laser light (L1), of the material with a second laser light (L2) with which an energy absorption rate of the copper contained in the material increases by an increase in a temperature of the material , wherein a wavelength of the first laser light (L1) is 400 nm or more and 470 nm or less, the method being characterised in that : the first laser light (L1) and the second laser light (L2) are superimposed on each other, and in that : the second laser light (L2) is contained in the first laser light (L1). heating the material by irradiation with a first laser light (L1) and welding the material by irradiation of a portion, which has been irradiated with the first laser light (L1), of the material with a second laser light (L2) with which an energy absorption rate of the copper contained in the material increases by an increase in a temperature of the material , wherein a wavelength of the first laser light (L1) is 400 nm or more and 470 nm or less, the method being characterised in that : the first laser light (L1) and the second laser light (L2) are superimposed on each other, and in that : the second laser light (L2) is contained in the first laser light (L1).
A tape feeder for conveying carrier tape containing electronic components to supply the electronic components to an electronic component mounting machine , the tape feeder comprising: a feeder main body ; a sprocket rotatably provided on the feeder main body and arranged with multiple engagement protrusions configured to engage with multiple engagement holes formed on the carrier tape ; a magnetic body configured to rotate in conjunction with rotation of the sprocket ; a magnetic sensor configured to output a detection signal corresponding to an angle of the magnetic body with respect to the feeder main body ; an angle calculating section configured to perform offset processing for adjusting an origin of the detection signal using a preset offset value, gain processing for adjusting a magnitude of the detection signal using a preset gain value, and calculation of an angle of the magnetic body based on the adjusted detection signal; and a control device configured to control rotation of the sprocket based on an angle of the magnet body calculated by the angle calculating section characterized in that: the control device is configured to perform the correction processing for correcting the offset value when the offset value calculated based on the detection signal outputted from the magnetic sensor is out of an allowable range with respect to the offset value used by the angle calculating section for adjusting the detection signal. a feeder main body ; a sprocket rotatably provided on the feeder main body and arranged with multiple engagement protrusions configured to engage with multiple engagement holes formed on the carrier tape ; a magnetic body configured to rotate in conjunction with rotation of the sprocket ; a magnetic sensor configured to output a detection signal corresponding to an angle of the magnetic body with respect to the feeder main body ; an angle calculating section configured to perform offset processing for adjusting an origin of the detection signal using a preset offset value, gain processing for adjusting a magnitude of the detection signal using a preset gain value, and calculation of an angle of the magnetic body based on the adjusted detection signal; and a control device configured to control rotation of the sprocket based on an angle of the magnet body calculated by the angle calculating section characterized in that: the control device is configured to perform the correction processing for correcting the offset value when the offset value calculated based on the detection signal outputted from the magnetic sensor is out of an allowable range with respect to the offset value used by the angle calculating section for adjusting the detection signal.
A molding element for a mold used for manufacturing a tread of a tire having a plurality of contacting elements delimited by a plurality of grooves and a connecting member connecting two side faces of adjacent contacting elements , the molding element having a molding surface for forming a contact face of the contacting elements intended to come into contact with ground during rolling and a rib for forming the groove between adjacent contacting elements , at least two rib side faces forming the side faces of the contacting element , the rib having a notching portion , characterized in that a guiding member made of a material different from a material of the molding element is received in the notching portion and has two opposite side faces configured to form a part of the side faces of the contacting element and a top face configured to form a part of a bottom of the groove , said material of the guiding member having a modulus at 10% elongation lower than that of the molding element , the guiding member having a guiding slit extending from one of the two opposite side faces to the other of the two opposite side faces through the guiding member and radially from the top face , at least one of faces of the notching portion being provided with a means for keeping the guiding member in place in the notching portion .
Device connection unit for an electrical device having at least two device supply elements for supplying electrical components of the electrical device with electrical energy, wherein there is associated the device supply elements a contacting element which, when actuated, respectively imparts to an arranged supply conductor a defined contacting force by means of a loading element, so that electrical contact between the respective device supply element and the supply conductor is achieved, characterised in that the contacting elements have an actuating element so that, by actuation of the actuating element, the contacting force is increased or reduced, and the loading elements have a spring element , a clamping element and/or a latching element , each of which imparts the defined contacting force.
A flipping installation device for LED strip lighting, comprising: an installation frame ; a house received in the installation frame; at least one link mechanism disposed in one of two jointing edges of the installation frame and the house , each of the at least one link mechanism comprising a first link mounted on the installation frame and being disposed on a first free edge of the installation frame, a second link disposed on an upper base of the house , and a third link rotatably connected between the first and second links , and two bearings configured for connecting the first link and the second link and connecting the second link and the third link , respectively, the first and second and third links being perpendicular to each other in a cross section perpendicular to an axial direction of the house when the house has been installed into the installation frame ; and at least one clamping mechanism disposed in the other jointing edge of the installation frame and the house , each of the at least one clamping mechanism comprising a catch head disposed on the installation frame , and a resilient lock disposed on the house and coupled to the catch head , the link mechanism and the clamping mechanism being located on the opposite side of the house . an installation frame ; a house received in the installation frame; at least one link mechanism disposed in one of two jointing edges of the installation frame and the house , each of the at least one link mechanism comprising a first link mounted on the installation frame and being disposed on a first free edge of the installation frame, a second link disposed on an upper base of the house , and a third link rotatably connected between the first and second links , and two bearings configured for connecting the first link and the second link and connecting the second link and the third link , respectively, the first and second and third links being perpendicular to each other in a cross section perpendicular to an axial direction of the house when the house has been installed into the installation frame ; and at least one clamping mechanism disposed in the other jointing edge of the installation frame and the house , each of the at least one clamping mechanism comprising a catch head disposed on the installation frame , and a resilient lock disposed on the house and coupled to the catch head , the link mechanism and the clamping mechanism being located on the opposite side of the house .
Use of a mineral binder composition for jointing and/or grouting of porous materials, cementing, levelling, repairing cementitious materials, or as a render, said mineral binder composition comprising a) a mineral binder B, b) at least one free-radical initiator I, c) at least one catalyst C for the at least one free-radical initiator I, d) optionally aggregates, e) optionally further additives selected from the groups of plasticizers, superplasticizers, rheology modifiers, accelerators, retarders, air-entrainers, de-aerating agents, corrosion inhibitors, fibers, synthetic organic polymers, expansion producing additives, pigments, strength enhancers, waterproofing additives, alkali-aggregate reaction inhibitors, chromate reducers, anti-freeze agents, and/or anti-microbial agents, and wherein the composition comprises < 5.0 w%, preferably < 4.0 w%, more preferably < 1.0 w%, still more preferably < 0.3 w%, especially < 0.1 w%, each based on the total dry weight of the mineral binder composition, of radically polymerizable monomers or polyisocyanates, characterized in that the setting and/or curing of said mineral binder composition takes place at temperatures <15°C, preferably <5°C, more preferred <0°C. a) a mineral binder B, b) at least one free-radical initiator I, c) at least one catalyst C for the at least one free-radical initiator I, d) optionally aggregates, e) optionally further additives selected from the groups of plasticizers, superplasticizers, rheology modifiers, accelerators, retarders, air-entrainers, de-aerating agents, corrosion inhibitors, fibers, synthetic organic polymers, expansion producing additives, pigments, strength enhancers, waterproofing additives, alkali-aggregate reaction inhibitors, chromate reducers, anti-freeze agents, and/or anti-microbial agents, and
Door arrester, in particular for a door of a motor vehicle, comprising a door retainer rod which can be mounted on one of a door and a body so as to be pivotable and having a first side , and a guide pin which can be arranged on the other of the door and the body , wherein the door retainer rod has an elongate through-hole , wherein the guide pin passes through the elongate through-hole , wherein the door retainer rod can be pivoted about the guide pin , wherein the elongate through-hole of the door retainer rod has a clamping region , wherein the guide pin generates a braking torque in the clamping region of the elongate through-hole , wherein a profiling is formed on the first side , and wherein a first braking element is arranged on the guide pin , which bears in sections against the first side of the door retainer rod under the effect of a preload, and which, with the profiling of the first side , defines at least one retaining position. a door retainer rod which can be mounted on one of a door and a body so as to be pivotable and having a first side , and a guide pin which can be arranged on the other of the door and the body , wherein the door retainer rod has an elongate through-hole , wherein the guide pin passes through the elongate through-hole , wherein the door retainer rod can be pivoted about the guide pin , wherein the elongate through-hole of the door retainer rod has a clamping region , wherein the guide pin generates a braking torque in the clamping region of the elongate through-hole , wherein a profiling is formed on the first side , and wherein a first braking element is arranged on the guide pin , which bears in sections against the first side of the door retainer rod under the effect of a preload, and which, with the profiling of the first side , defines at least one retaining position. wherein the door retainer rod has an elongate through-hole , wherein the guide pin passes through the elongate through-hole , wherein the door retainer rod can be pivoted about the guide pin , wherein the elongate through-hole of the door retainer rod has a clamping region , wherein the guide pin generates a braking torque in the clamping region of the elongate through-hole , wherein a profiling is formed on the first side , and wherein a first braking element is arranged on the guide pin , which bears in sections against the first side of the door retainer rod under the effect of a preload, and which, with the profiling of the first side , defines at least one retaining position.
A network apparatus comprising means for: receiving (502; 802) a handover/cell change request with change of routing area code from a user equipment engaged in a packet switched connection; examining conditions associated with the handover/cell change request to determine if the packet switched connection should not be released, wherein conditions indicating that the packet switched connection should not be released comprise the presence of a packet switched radio access bearer in a radio resource control connection; and if conditions associated with the handover/cell change request indicate that the packet switched connection should not be released, inhibiting (506; 806) release of the packet switched connection, wherein inhibiting (506; 806) release of the packet switched connection comprises setting a follow-on proceed flag in a ROUTING AREA UPDATE ACCEPT message to the user equipment . receiving (502; 802) a handover/cell change request with change of routing area code from a user equipment engaged in a packet switched connection; examining conditions associated with the handover/cell change request to determine if the packet switched connection should not be released, wherein conditions indicating that the packet switched connection should not be released comprise the presence of a packet switched radio access bearer in a radio resource control connection; and if conditions associated with the handover/cell change request indicate that the packet switched connection should not be released, inhibiting (506; 806) release of the packet switched connection, wherein inhibiting (506; 806) release of the packet switched connection comprises setting a follow-on proceed flag in a ROUTING AREA UPDATE ACCEPT message to the user equipment .
A sneeze guard particularly for use in exhibition/service equipments and having two sneeze guard profiles positioned mutually and at least one cover element extending between said sneeze guard profiles , each of said sneeze guard profiles have at least one second part , and at least one first part which can be connected to the exhibition/service equipment in order to provide holding of said second part , said first part and said second part have at least one outer profile , at least one carcass profile is provided in the inner vicinity of the outer profile provided at the first part , at least one inner profile is positioned in the inner vicinity of the outer profile provided at the second part and at least one cover housing is provided where said cover element can be positioned in a manner contacting the inner profile on the second part and at least one strip element is provided on the sneeze guard profile where the cover element is configured to be fixed in the cover housing .