mhurhangee/ep-ind-claims huggingface dataset:
An encapsulating material for solar cell comprising an ethylene/α-olefin copolymer satisfying the following requirements to: the content ratio of structural units derived from ethylene is from 80 to 90 mol% and the content ratio of structural units derived from α-olefin having 3 to 20 carbon atoms is from 10 to 20 mol%; MFR is equal to or more than 2 g/10 minutes and less than 10 g/10 minutes as measured under the conditions of a temperature of 190 degrees centigrade and a load of 2.16 kg in accordance with ASTM D1238; the density is from 0.865 to 0.884 g/cm 3 as measured in accordance with ASTM D1505; the shore A hardness is from 60 to 85 as measured in accordance with ASTM D2240; and the volume resistivity is from 1.0×10 13 to 1.0×10 18 Ω·cm as measured at a temperature of 100 degrees centigrade with an applied voltage of 500V in accordance with JIS K6911. the content ratio of structural units derived from ethylene is from 80 to 90 mol% and the content ratio of structural units derived from α-olefin having 3 to 20 carbon atoms is from 10 to 20 mol%; MFR is equal to or more than 2 g/10 minutes and less than 10 g/10 minutes as measured under the conditions of a temperature of 190 degrees centigrade and a load of 2.16 kg in accordance with ASTM D1238; the density is from 0.865 to 0.884 g/cm 3 as measured in accordance with ASTM D1505; the shore A hardness is from 60 to 85 as measured in accordance with ASTM D2240; and the volume resistivity is from 1.0×10 13 to 1.0×10 18 Ω·cm as measured at a temperature of 100 degrees centigrade with an applied voltage of 500V in accordance with JIS K6911.
Multi-barrel weapon with at least one ammunition feed (30, 40) by means of a sectional belt strip (13, 20) or interconnected belt sections (13.1, 20.1), wherein the multi-barrel weapon features at least two oppositely rotating sprockets (5, 6, 24) with symmetrically arranged half chambers and one sprocket is functionally linked to a barrel cluster of the multi-barrel weapon, characterized by at least one guide, which is rigidly held on the weapon, for transporting the sectional belt strip (13, 20) or the belt sections (13.1, 20.1), wherein radial slots (14, 15, 25) are provided in the circumference of the sprockets (5, 6, 24) in order to receive the at least one belt guide, and wherein the belt guide is connected to and held on the weapon in such a way that it can be removed from the slot of the sprocket, which directly interacts with the barrel cluster, and reinserted therein.
Tool for machining a work piece in a machine tool, comprising: a preferably standardised connection portion for connecting the tool with a numerically controlled machine tool, the connection portion being positioned on the machine side when in operation, a plasma duct for conducting a plasma, and an outlet portion located at the end of the duct, being positioned on the work piece side when in operation, and comprising one or more outlets for supplying the plasma to the surface of a work piece, a process gas port provided in the connection portion, a plasma generator connected to the process gas port and the plasma duct, and an energy source (14, 43) providing electric energy for the plasma generator, the energy source comprising an energy receiving coil arranged for inductive interaction with an energy transmitter coil. a preferably standardised connection portion for connecting the tool with a numerically controlled machine tool, the connection portion being positioned on the machine side when in operation, a plasma duct for conducting a plasma, and an outlet portion located at the end of the duct, being positioned on the work piece side when in operation, and comprising one or more outlets for supplying the plasma to the surface of a work piece, a process gas port provided in the connection portion, a plasma generator connected to the process gas port and the plasma duct, and an energy source (14, 43) providing electric energy for the plasma generator, the energy source comprising an energy receiving coil arranged for inductive interaction with an energy transmitter coil.
A process for treating pigments, fillers or minerals, in aqueous suspension, containing a natural carbonate for reducing constant surface paper weight, characterized in that: - said pigment is treated by a combination of one or more moderately strong to strong H 3 O + ion donors and CO 2 gas and in that - it comprises the 3 following steps: a) treatment with the moderately strong to strong H 3 O + ion donor(s), - said moderately strong H 3 O + ion donors being selected from acids having a pKa between 0 and 2.5 inclusive at 22°C, and - said strong H 3 O + ion donors being selected from acids having a pKa of less than or equal to zero at 22°C, b) treatment with CO 2 gas, whether this treatment is an integral part of step a), is performed in parallel with step a) or is carried out after step a) - and in that the CO 2 gas concentration in the suspension is, by volume, such that the ratio (volume of the suspension: volume of CO 2 gas) is between 1:0.05 and 1:20 with said ratio between 1:1 and 1:20 in step a) and between 1:0.05 and 1:1 in step b), c) the raising of pH, measured at 20°C, beyond 7.5, in a time interval at the end of steps a) and b) of between 1 hour and 10 hours, preferably between 1 hour and 5 hours without addition of a base, or immediately after steps a) and b) with the addition of a base, wherein step c) is the final step of the process. - said pigment is treated by a combination of one or more moderately strong to strong H 3 O + ion donors and CO 2 gas and in that - it comprises the 3 following steps: a) treatment with the moderately strong to strong H 3 O + ion donor(s), a) treatment with the moderately strong to strong H 3 O + ion donor(s), - said moderately strong H 3 O + ion donors being selected from acids having a pKa between 0 and 2.5 inclusive at 22°C, and - said strong H 3 O + ion donors being selected from acids having a pKa of less than or equal to zero at 22°C, b) treatment with CO 2 gas, whether this treatment is an integral part of step a), is performed in parallel with step a) or is carried out after step a) b) treatment with CO 2 gas, whether this treatment is an integral part of step a), is performed in parallel with step a) or is carried out after step a) - and in that the CO 2 gas concentration in the suspension is, by volume, such that the ratio (volume of the suspension: volume of CO 2 gas) is between 1:0.05 and 1:20 with said ratio between 1:1 and 1:20 in step a) and between 1:0.05 and 1:1 in step b), c) the raising of pH, measured at 20°C, beyond 7.5, in a time interval at the end of steps a) and b) of between 1 hour and 10 hours, preferably between 1 hour and 5 hours without addition of a base, or immediately after steps a) and b) with the addition of a base, wherein step c) is the final step of the process. c) the raising of pH, measured at 20°C, beyond 7.5, in a time interval at the end of steps a) and b) of between 1 hour and 10 hours, preferably between 1 hour and 5 hours without addition of a base, or immediately after steps a) and b) with the addition of a base, wherein step c) is the final step of the process.
A method for determining a cyclic prefix, CP, comprising: performing, by a station, STA, associated with an access point, AP, channel estimation; determining, by the STA, a CP value according to the result of channel estimation; and sending, by the STA, indication information to the AP, wherein the indication information is used for indicating the CP value. performing, by a station, STA, associated with an access point, AP, channel estimation; determining, by the STA, a CP value according to the result of channel estimation; and sending, by the STA, indication information to the AP, wherein the indication information is used for indicating the CP value.
A multijunction solar cell comprising: an upper first solar subcell having a first band gap; a second solar subcell adjacent to said first solar subcell and having a second band gap smaller than said first band gap; a first graded interlayer adjacent to said second solar subcell; said first graded interlayer having a third band gap greater than said second band gap; and a third solar subcell adjacent to said first graded interlayer, said third subcell having a fourth band gap smaller than said second band gap such that said third subcell is lattice mismatched with respect to said second subcell, a second graded interlayer adjacent to said third solar subcell; said second graded interlayer having a fifth band gap greater than said fourth band gap; and a lower fourth solar subcell adjacent to said second graded interlayer, said lower fourth subcell having a sixth band gap smaller than said fourth band gap such that said fourth subcell is lattice mismatched with respect to said third subcell, and wherein the first graded interlayer is compositionally graded to lattice match the second subcell on one side and the third subcell on the other side, and wherein the second graded interlayer is compositionally graded to lattice match the third subcell on one side and the bottom fourth subcell on the other side, and wherein the first graded interlayer is composed of (InxGa1-x)y Al1-yAs with x and y selected such that the band gap of the first graded interlayer remains constant at 1.5 eV throughout its thickness; and wherein the second graded interlayer is composed of (InxGa1-x)y Al1-yAs with x and y selected such that the band gap of the second graded interlayer remains constant at 1.1 eV throughout its thickness. an upper first solar subcell having a first band gap; a second solar subcell adjacent to said first solar subcell and having a second band gap smaller than said first band gap; a first graded interlayer adjacent to said second solar subcell; said first graded interlayer having a third band gap greater than said second band gap; and a third solar subcell adjacent to said first graded interlayer, said third subcell having a fourth band gap smaller than said second band gap such that said third subcell is lattice mismatched with respect to said second subcell, a second graded interlayer adjacent to said third solar subcell; said second graded interlayer having a fifth band gap greater than said fourth band gap; and a lower fourth solar subcell adjacent to said second graded interlayer, said lower fourth subcell having a sixth band gap smaller than said fourth band gap such that said fourth subcell is lattice mismatched with respect to said third subcell, and
Method for the safe deactivation of a high voltage network of a motor vehicle during a diagnosis procedure and/or repair procedure, characterised in that by means of a first operating action at an external testing device connected with a bus system of the motor vehicle a first trigger signal is given to the bus system of the motor vehicle, wherein at the reception of the trigger signal by at least one control device of the motor vehicle the high-voltage network is deactivated such that it can only be reactivated by a second trigger signal generated by a defined second operating action.
A transfer device comprising: a housing comprising: first and second opposing sides (108, 110) coupled to first and second opposing ends (112, 114), the ends dimensioned for the housing to span a distance between a first surface proximate the first side and a second surface proximate the second side; and a panel attached to the first and second opposing sides and the first and second opposing ends, the panel having a circumferential reinforcement providing structural stiffness to the housing; and a deck positioned at least partially within and coupled to the housing; and a continuous belt disposed for motion about the deck, the continuous belt configured to transfer a body from a first surface at the first side of the housing to a second surface at the second side of the housing; wherein the panel comprises a base structure defining a horizontal base disposed on a bottom of the housing, wherein: the circumferential reinforcement comprises an integrated vertical side wall extending about a perimeter of the base of the housing, and the integrated vertical side wall is attached to the first and second opposing sides (108, 110) and the first and second opposing ends of the housing. a housing comprising: first and second opposing sides (108, 110) coupled to first and second opposing ends (112, 114), the ends dimensioned for the housing to span a distance between a first surface proximate the first side and a second surface proximate the second side; and a panel attached to the first and second opposing sides and the first and second opposing ends, the panel having a circumferential reinforcement providing structural stiffness to the housing; and first and second opposing sides (108, 110) coupled to first and second opposing ends (112, 114), the ends dimensioned for the housing to span a distance between a first surface proximate the first side and a second surface proximate the second side; and a panel attached to the first and second opposing sides and the first and second opposing ends, the panel having a circumferential reinforcement providing structural stiffness to the housing; and a deck positioned at least partially within and coupled to the housing; and a continuous belt disposed for motion about the deck, the continuous belt configured to transfer a body from a first surface at the first side of the housing to a second surface at the second side of the housing; wherein the panel comprises a base structure defining a horizontal base disposed on a bottom of the housing, wherein: the circumferential reinforcement comprises an integrated vertical side wall extending about a perimeter of the base of the housing, and the integrated vertical side wall is attached to the first and second opposing sides (108, 110) and the first and second opposing ends of the housing. the circumferential reinforcement comprises an integrated vertical side wall extending about a perimeter of the base of the housing, and the integrated vertical side wall is attached to the first and second opposing sides (108, 110) and the first and second opposing ends of the housing.
A vegetation cutting device, comprising: a housing containing a motor; a blade assembly extending out from the housing, the blade assembly having a support bar and a pair of blades (24, 26) for cutting vegetation, the motor operatively connected to at least one blade to move it in a reciprocal motion, the support bar being made up of a plurality of support links (28, 29); and a switch assembly capable of moving the blade assembly between a curved configuration and a straight configuration. a housing containing a motor; a blade assembly extending out from the housing, the blade assembly having a support bar and a pair of blades (24, 26) for cutting vegetation, the motor operatively connected to at least one blade to move it in a reciprocal motion, the support bar being made up of a plurality of support links (28, 29); and a switch assembly capable of moving the blade assembly between a curved configuration and a straight configuration.
A spraying assembly comprising at least one nozzle for liquid that is to be sprayed, and at least one active substance injector (21a-21d; 221a-221d) into the liquid that is to be sprayed, the injector (21a-21d; 221a-221d) being situated directly upstream from at least one nozzle and supplied with active substance to be sprayed by means of a pump (33a-33d) or a pressurized reservoir (25a-25d), with interposition of an obturator (24a-24d; 224a-224d) on a conduit (23a-23d) connecting the pump or the pressurized reservoir to the injector, characterized in that it additionally comprises, for each injector (21a-21d; 221a-221d), an outlet valve (22a-22d; 222a-222d) designed to close the or each outlet orifice (26a-26d; 226a-226d).
Long-chain branched polypropylene composition (b-PPC) comprising: a) at least one long-chain branched propylene homopolymer or copolymer (b-PP) having: i. a melt flow rate MFR 2 in the range of 1.5 to 3.5 g/10min as measured at 230 °C under a load of 2.16 kg according to ISO 1133 and ii. a F30 melt strength in the range of 10.0 to 40.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005, b) at least one linear propylene homopolymer or copolymer (1-PP) having: i. a melt flow rate MFR 2 of ≤ 1.5 g/10min as measured at 230 °C under a load of 2.16 kg according to ISO 1133 and ii. a F30 melt strength > 40.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005 wherein the long-chain branched polypropylene composition (b-PPC) has a F30 melt strength of ≥10.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005 and wherein the long-chain branched polypropylene composition (b-PPC) comprises 10.0 to 50.0 wt% of the at least one linear propylene homopolymer or copolymer (1-PP), relative to the total amount of long-chain branched polypropylene composition (b-PPC). a) at least one long-chain branched propylene homopolymer or copolymer (b-PP) having: i. a melt flow rate MFR 2 in the range of 1.5 to 3.5 g/10min as measured at 230 °C under a load of 2.16 kg according to ISO 1133 and ii. a F30 melt strength in the range of 10.0 to 40.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005, i. a melt flow rate MFR 2 in the range of 1.5 to 3.5 g/10min as measured at 230 °C under a load of 2.16 kg according to ISO 1133 and ii. a F30 melt strength in the range of 10.0 to 40.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005, b) at least one linear propylene homopolymer or copolymer (1-PP) having: i. a melt flow rate MFR 2 of ≤ 1.5 g/10min as measured at 230 °C under a load of 2.16 kg according to ISO 1133 and ii. a F30 melt strength > 40.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005 wherein the long-chain branched polypropylene composition (b-PPC) has a F30 melt strength of ≥10.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005 and wherein the long-chain branched polypropylene composition (b-PPC) comprises 10.0 to 50.0 wt% of the at least one linear propylene homopolymer or copolymer (1-PP), relative to the total amount of long-chain branched polypropylene composition (b-PPC). i. a melt flow rate MFR 2 of ≤ 1.5 g/10min as measured at 230 °C under a load of 2.16 kg according to ISO 1133 and ii. a F30 melt strength > 40.0 cN as measured at a die pressure of 30 bar according to ISO 16790:2005
A system (100; 800), comprising: a belt assembly (8; 13-17; 104; 840) configured to be secured to a user's body; an energy storage apparatus (110; 810) coupled to the belt assembly (8; 13-17; 104; 840) and including an exotendon (5; 130a; 130b; 830); and an articulatable leg frame (1-4; 112) including an upper end (1; 113a; 113b) rotatably coupled to the belt assembly (8; 13-17; 104; 840) and a lower end (4; 115a; 115b) coupleable to a lower portion of a leg of a user, the exotendon (5; 130a; 130b; 830a) is coupled to the adjustment device (9; 149a; 289a; 290a) and to the lower end (4; 115a; 115b) such that the exotendon (5; 130a; 130b; 830a) stores energy as the leg moves posteriorly and the exotendon (5; 130a; 130b; 830a) releases stored energy to help move the leg move anteriorly; characterised in that said energy storage apparatus (110; 810) further comprises an adjustment device (9; 149a; 289a; 290a) configured to selectively adjust pretension in said exotendon (5: 130a; 130b; 830a). a belt assembly (8; 13-17; 104; 840) configured to be secured to a user's body; an energy storage apparatus (110; 810) coupled to the belt assembly (8; 13-17; 104; 840) and including an exotendon (5; 130a; 130b; 830); and an articulatable leg frame (1-4; 112) including an upper end (1; 113a; 113b) rotatably coupled to the belt assembly (8; 13-17; 104; 840) and a lower end (4; 115a; 115b) coupleable to a lower portion of a leg of a user, the exotendon (5; 130a; 130b; 830a) is coupled to the adjustment device (9; 149a; 289a; 290a) and to the lower end (4; 115a; 115b) such that the exotendon (5; 130a; 130b; 830a) stores energy as the leg moves posteriorly and the exotendon (5; 130a; 130b; 830a) releases stored energy to help move the leg move anteriorly;
Electronic domestic appliance, comprising a housing in which at least one internal chamber is arranged, the said internal chamber being accessible from outside the housing through at least one access opening; a door apparatus for selectively opening or closing the access opening of the internal chamber; a control device for controlling the operation of the domestic appliance; and an input apparatus (20; 22) for a user to input operating parameters, the said input apparatus being connected to the control device, characterized in that the input apparatus (20; 22) is arranged on the door apparatus or on the housing in such a way that it is situated directly opposite an identification section (21a, 21b; 23a, 23b) of the housing or of the door apparatus in the closed state of the door apparatus; and the input apparatus (20; 22) is configured in such a way that it can be operated in an input mode, in which it can identify an input of operating parameters by a user, and a door identification mode, in which it can identify its position directly opposite the identification section (21a, 21b; 23a, 23b) of the housing or of the door apparatus.
Molding compound based upon polyether materials that can be vulcanized, characterized in that the completely mixed compound contains a) approximately 30 to 70 wt% aziridino polyether; b) approximately 5 to 20 wt% of a triacylglyceride of non-animal origin, which has a stearoyl content ≥ 70 wt%, based upon the acyl content of the triacylglyceride; and c) ca. 10 to 65 wt% customary catalysts, adjuvants, and additives; each based upon the total weight of the compound. a) approximately 30 to 70 wt% aziridino polyether; b) approximately 5 to 20 wt% of a triacylglyceride of non-animal origin, which has a stearoyl content ≥ 70 wt%, based upon the acyl content of the triacylglyceride; and c) ca. 10 to 65 wt% customary catalysts, adjuvants, and additives; each based upon the total weight of the compound.
A device for the in situ analysis of batteries by means of X-ray, synchrotron or another radiation, having a sample support, which is embodied as a sample wheel rotatably mounted about the centre axis, which sample wheel has a plurality of sample holders, the centre points of which are arranged on a common circular line around the centre point of the sample support, wherein each sample holder can be repeatedly opened and closed individually by an arrestable cover, and the sample holder has in its interior a cavity which receives the battery, which is to be examined, in a manner ideal in shape with regard to circumference, wherein the cover and the cavity have an unclosed or covered opening for the passage of the beam, and a spring, engaging in the edge region of the battery, presses the battery against the cover, wherein the spring and the edge region of the cover are embodied so as to be electrically conducting but insulated with respect to one another, characterized in that there are directed from each sample holder an electrically conductive connection from the edge region of the cover, and an electrically conductive connection by means of the spring onto the face of the sample support facing away from the cover and from there into the vicinity of the centre point of the sample support, and the lines of all sample holders are combined there to form a line bundle or a plug connector.