mhurhangee/ep-ind-claims huggingface dataset:
A polymer composition comprising a polyaryletherketone, wherein the polyaryletherketone is polyetheretherketone, polyetherketone, polyetherketoneketone, polyetherketoneetherketoneketone, polyetheretherketoneketone, polyether-diphenyl-ether-ether-diphenyl-ether-phenyl-ketone-phenyl, or a blend or copolymer thereof, the polyaryletherketone having a glass transition temperature of from about 110°C to about 200°C as determined by ISO Test No. 11357, the composition further comprising a wholly aromatic thermotropic liquid crystalline polymer that lacks repeating units derived from non-aromatic monomers and that has been blended with the polyaryletherketon, the wholly aromatic thermotropic liquid crystalline polymer including repeating units derived from naphthenic dicarboxylic acids in an amount of about 8 mol.% or less of the polymer, wherein the composition optionally contains reinforcing fibers in an amount of no more than about 10 wt.%, wherein the polymer composition has a notched Charpy impact strength of about 2 kJ/m 2 or more, as determined according to ASTM D256, Method B at 23°C, and wherein the liquid crystalline polymer has a melting temperature of from about 250 °C to about 450 °C.
A capsule for containing beverages in powder form, such as coffee and the like, which comprises a capsule body which is provided in an upward region with a covering membrane and in a downward region with a closed bottom, and a filtering element adapted to be arranged at the bottom of said capsule, said filtering element being provided with one or more holes, said filtering element being adapted to define a pre-infusion ring in which the coffee collects before passing through the holes of said filtering element, characterized in that said filtering element is contoured so as to have inclined portions at the edges and a raised central portion so as to define a sort of convex element, the filtering element being also provided with raised edges which are adapted to abut against the inner surface of the capsule body.
A connector comprising: an inner plate including cavities for holding terminals connected to electric wires, wherein the cavities are arranged in an upper row and a lower row, and a cylindrical housing which accommodates therein the inner plate, said housing comprising a connecting end configured to be connected to a mating connector and a rear end side opposite to said connecting end, wherein said housing is closed with a sealing plug at said rear end side wherein a plurality of air bleeding holes are formed in a portion of the inner plate other than portions where the cavities are provided so as to penetrate from an outside of the housing to an interior of the housing, and wherein a gap is formed between the cylindrical housing and the inner plate so as for a filling material which is filled in the interior of the housing closed by the sealing plug to surround a periphery of the inner plate, characterized in that the plurality of air bleeding holes are arranged between the upper row and the lower row of cavities. an inner plate including cavities for holding terminals connected to electric wires, wherein the cavities are arranged in an upper row and a lower row, and a cylindrical housing which accommodates therein the inner plate, said housing comprising a connecting end configured to be connected to a mating connector and a rear end side opposite to said connecting end, wherein said housing is closed with a sealing plug at said rear end side wherein a plurality of air bleeding holes are formed in a portion of the inner plate other than portions where the cavities are provided so as to penetrate from an outside of the housing to an interior of the housing, and wherein a gap is formed between the cylindrical housing and the inner plate so as for a filling material which is filled in the interior of the housing closed by the sealing plug to surround a periphery of the inner plate, characterized in that the plurality of air bleeding holes are arranged between the upper row and the lower row of cavities.
A walker, comprising: a walker body; a handle unit, connected to the walker body; a first wheel unit, connected to the walker body; a second wheel unit, connected to the walker body, wherein in an auxiliary mode, a first gap is formed between the first wheel unit and the second wheel unit, and in a driving mode, a second gap is formed between the first wheel unit and the second wheel unit, and the first gap is smaller than the second gap, wherein the first wheel unit comprises two first wheels, a wheel unit bracket, and a cushion module, and the first wheels are disposed on the wheel unit bracket, and the cushion module is disposed between the wheel unit bracket and the walker body, wherein the first wheels are disposed on two sides of the wheel unit bracket, wherein the wheel unit bracket is adapted to be rotated in a rotational direction relative to the walker body via the cushion module, and the rotational direction is perpendicular to a movement direction of the walker; and a gear set, wherein the gear set is connected to the walker body, the handle unit is connected to the gear set, and the second wheel unit is connected to the gear set. a walker body; a handle unit, connected to the walker body; a first wheel unit, connected to the walker body; a second wheel unit, connected to the walker body, wherein in an auxiliary mode, a first gap is formed between the first wheel unit and the second wheel unit, and in a driving mode, a second gap is formed between the first wheel unit and the second wheel unit, and the first gap is smaller than the second gap, wherein the first wheel unit comprises two first wheels, a wheel unit bracket, and a cushion module, and the first wheels are disposed on the wheel unit bracket, and the cushion module is disposed between the wheel unit bracket and the walker body, wherein the first wheels are disposed on two sides of the wheel unit bracket, wherein the wheel unit bracket is adapted to be rotated in a rotational direction relative to the walker body via the cushion module, and the rotational direction is perpendicular to a movement direction of the walker; and a gear set, wherein the gear set is connected to the walker body, the handle unit is connected to the gear set, and the second wheel unit is connected to the gear set.
An actuator for a mechanical switch, said actuator comprising at least one armature connected to a rod, a first primary coil with turns wound around a central coil axis defining a center of the coil and a first housing for receiving the rod and provided with a first opening, the actuator being based on a Thomson coil, the first coil being fitted at the first opening and the armature being placed on top of the coil and movable away from the coil in a direction along the central coil axis with the rod provided for movement through the center of the coil, characterised by the armature being placed outside of the housing and said actuator further comprising a magnetic flux concentrator made up of at least a part of the first housing, said magnetic flux concentrator being provided at least around the first opening of the housing and at least around the first primary coil and in physical contact with the first primary coil.
Wedge for tilting a load from forth to back from a loading position, including: - a body having a tread designed to enable said body to roll on a ground; - means (23-25; 33.25) to immobilise the wedge in the position of loading; characterised in that the wedge further comprises: - cleat means integral with the body and arranged so that in the loading position, said cleat means are arranged above a projecting part of the load. - a body having a tread designed to enable said body to roll on a ground; - means (23-25; 33.25) to immobilise the wedge in the position of loading; - cleat means integral with the body and arranged so that in the loading position, said cleat means are arranged above a projecting part of the load.
Prosthetic heart valve, having a prosthetic heart valve leaflet with variable thickness comprising a fixed end and a free end having an edge being thicker than the remaining part of the leaflet characterized by the fact that the thicker part of the free end edge is obtained by a folding of the leaflet.
A phenol-producing transformant constructed by transferring a gene which encodes an enzyme having 4-hydroxybenzoate decarboxylase activity into Corynebacterium glutamicum, in which a gene which encodes an enzyme having phenol 2-monooxygenase activity on the chromosome is disrupted or deleted as a host.
Combustion system, comprising a combustion chamber for burning a fuel, wherein combustion residues of the fuel burnt in the combustion chamber can be fed via an outlet of the combustion chamber to a crusher for comminuting the combustion residues, and wherein at least one impurity removal means is arranged in a conveying path of the combustion residues, by means of which impurities entrained in the combustion residues and not crushable by the crusher can be removed from the conveying path via an impurity removal opening, wherein the at least one impurity removal means includes a first grid at least partially arranged in the conveying path of the combustion residues and wherein the impurities can be separated from the combustion residues by means of the first grid and wherein the first grid can be at least partially tilted or moved through the impurity removal opening for removing the impurities.
An alpha-amylase variant comprising an amino acid sequence at least 95% identical to that of a parent AmyS-like alpha-amylase, wherein the parent AmyS-like alpha-amylase comprises SEQ ID NO: 2, and having a substitution at an amino acid position corresponding to position 242 of a reference alpha-amylase, wherein the reference alpha-amylase used for numbering the amino acid residues is SEQ ID NO: 2, wherein the substitution is S242A, S242D, S242E, S242M or S242Q, and wherein the variant has improved thermostability as compared to the parent AmyS-like alpha-amylase, and wherein the variant has detectable alpha-amylase activity, wherein thermostability is determined for the parent and variant under the same experimental conditions.
A method performed by a wireless communication device, comprising: determining a timing advance, TA, offset for uplink-downlink switching, wherein the TA offset depends on a duplex mode of a cell in which an uplink transmission occurs from the wireless communication device to a network node, and a frequency band of the uplink transmission, wherein the TA offset has a first TA offset value for a first frequency band that is below a frequency threshold for a time division duplex and a second TA offset value for a second frequency band that is greater than or equal to the frequency threshold; and applying the determined TA offset in the uplink transmission. determining a timing advance, TA, offset for uplink-downlink switching, wherein the TA offset depends on a duplex mode of a cell in which an uplink transmission occurs from the wireless communication device to a network node, and a frequency band of the uplink transmission, wherein the TA offset has a first TA offset value for a first frequency band that is below a frequency threshold for a time division duplex and a second TA offset value for a second frequency band that is greater than or equal to the frequency threshold; and applying the determined TA offset in the uplink transmission.
A woven base fabric, having a coefficient of variation CV1, which is 100 × standard deviation/average value, of 3.0% or less in a length direction of a weft-direction disintegrated yarn strength, wherein the coefficient of variation CV1 is measured according to a method in the description, and a coefficient of variation CV2, which is 100 × standard deviation/average value, of 4.0 or less in a length direction of a weft-direction disintegrated yarn elongation, wherein the coefficient of variation CV2 is measured according to a method in the description. a coefficient of variation CV1, which is 100 × standard deviation/average value, of 3.0% or less in a length direction of a weft-direction disintegrated yarn strength, wherein the coefficient of variation CV1 is measured according to a method in the description, and a coefficient of variation CV2, which is 100 × standard deviation/average value, of 4.0 or less in a length direction of a weft-direction disintegrated yarn elongation, wherein the coefficient of variation CV2 is measured according to a method in the description.
A method for executing a work cycle of a high-bay storage unit with a plurality of storage places and at least two rows of racks (12,13,14), with: - creating a picking movement path between a storage place of the high-bay storage unit and a lifting device of a second conveying means (200, 200/1, 200/2) of the high-bay storage unit by means of a picking bridge of the lifting device, - conveying of a goods item stored in the high-bay storage unit along the picking movement path, - bridging over at least one lane of the high-bay storage unit remaining between the at least two rows of racks (12,13,14) of the high-bay storage unit, in which lane the lifting device is moveable, by means of an additional handling bridge displaceable by a third conveying means (300; 300/1; 300/2) for the creation of a movement path, - adjusting the third conveying means (300; 300/1; 300/2) between a working position and a rest position, wherein the rest position has a reduced space requirement for the movement of the second conveying means (200, 200/1, 200/2), wherein the handling bridge bridges over the lane in the working position and in the rest position the third conveying means (300; 300/1; 300/2) is parked and/or held in readiness, - displacing the picking bridge by means of the second conveying means (200; 200/1, 200/2), - conveying the goods item along the movement path including the handling bridge by means of a first conveying means (100; 100/1; 100/2) moveable within at least one rack plane of the high-bay storage unit independently of a storage state of the rack plane. - creating a picking movement path between a storage place of the high-bay storage unit and a lifting device of a second conveying means (200, 200/1, 200/2) of the high-bay storage unit by means of a picking bridge of the lifting device, - conveying of a goods item stored in the high-bay storage unit along the picking movement path, - bridging over at least one lane of the high-bay storage unit remaining between the at least two rows of racks (12,13,14) of the high-bay storage unit, in which lane the lifting device is moveable, by means of an additional handling bridge displaceable by a third conveying means (300; 300/1; 300/2) for the creation of a movement path, - adjusting the third conveying means (300; 300/1; 300/2) between a working position and a rest position, wherein the rest position has a reduced space requirement for the movement of the second conveying means (200, 200/1, 200/2), wherein the handling bridge bridges over the lane in the working position and in the rest position the third conveying means (300; 300/1; 300/2) is parked and/or held in readiness, - displacing the picking bridge by means of the second conveying means (200; 200/1, 200/2), - conveying the goods item along the movement path including the handling bridge by means of a first conveying means (100; 100/1; 100/2) moveable within at least one rack plane of the high-bay storage unit independently of a storage state of the rack plane.
A fuel cell system including a preceding-stage fuel cell and a following-stage fuel cell connected to the preceding-stage fuel cell via a fuel flow path, comprising: a reformer that reforms fuel and supplies reformed gas to the preceding-stage fuel cell that is subjected to internal reforming inside the preceding-stage fuel cell; and a control unit that predicts an amount of heat generation of the preceding-stage fuel cell based on an amount of current of the preceding-stage fuel cell and predicts an amount of heat absorption of the preceding-stage fuel cell based on a flow rate of the fuel to be supplied to the reformer and an operating temperature of the reformer, wherein the control unit controls at least one of the amount of current of the preceding-stage fuel cell, a flow rate of air to be supplied to the reformer, and temperature of the preceding-stage fuel cell if the predicted amount of heat absorption is larger than the predicted amount of heat generation, and the preceding-stage fuel cell and the following-stage cell are each a solid oxide fuel cell. a reformer that reforms fuel and supplies reformed gas to the preceding-stage fuel cell that is subjected to internal reforming inside the preceding-stage fuel cell; and a control unit that predicts an amount of heat generation of the preceding-stage fuel cell based on an amount of current of the preceding-stage fuel cell and predicts an amount of heat absorption of the preceding-stage fuel cell based on a flow rate of the fuel to be supplied to the reformer and an operating temperature of the reformer, wherein the control unit controls at least one of the amount of current of the preceding-stage fuel cell, a flow rate of air to be supplied to the reformer, and temperature of the preceding-stage fuel cell if the predicted amount of heat absorption is larger than the predicted amount of heat generation, and the preceding-stage fuel cell and the following-stage cell are each a solid oxide fuel cell.
A process for production of a covered member having a base material at least a portion of which is covered by a DLC film, characterized by: a pretreatment step which roughens a surface of the base material by applying a negative DC pulse voltage to the base material so as to make ions collide with the surface of the base material, while keeping the temperature of the base material at 300°C or lower; a first intermediate layer formation step which forms a first intermediate layer that covers the surface of the base material while keeping the temperature of the base material at 300°C or lower after the pretreatment step is performed; a roughening step which roughens a surface of the first intermediate layer by applying a negative DC pulse voltage, that is lower than that in the pretreatment step, to the base material so as to make ions collide with the surface of the first intermediate layer while keeping the temperature of the base material at 300°C or lower; and a DLC film formation step which forms a DLC film that covers the roughened surface of the first intermediate layer by a DC plasma CVD method or a DC pulse plasma CVD method while keeping the temperature of the base material at 300°C or lower. a pretreatment step which roughens a surface of the base material by applying a negative DC pulse voltage to the base material so as to make ions collide with the surface of the base material, while keeping the temperature of the base material at 300°C or lower; a first intermediate layer formation step which forms a first intermediate layer that covers the surface of the base material while keeping the temperature of the base material at 300°C or lower after the pretreatment step is performed; a roughening step which roughens a surface of the first intermediate layer by applying a negative DC pulse voltage, that is lower than that in the pretreatment step, to the base material so as to make ions collide with the surface of the first intermediate layer while keeping the temperature of the base material at 300°C or lower; and a DLC film formation step which forms a DLC film that covers the roughened surface of the first intermediate layer by a DC plasma CVD method or a DC pulse plasma CVD method while keeping the temperature of the base material at 300°C or lower.
A method of making the compound of formula the process comprising the following steps 1) reacting the compound of formula with a compound of formula H-N(R 3) 2 and a compound of formula followed by reaction with acetic acid to provide the compound of formula 2) reacting the compound of formula from step 1) above with a reducing reagent to provide the compound of formula 3) reacting the compound of formula from step 2) above with an arylsulfonyl chloride and a deprotonating reagent to provide the compound of formula and 4) reacting the compound of formula from step 3) above with hydrogen gas in the presence of a transition metal catalyst to provide the compound of formula, wherein R 1 is selected from hydrogen, -(C 1 -C 6)alkyl, -CF 3, -(C 3 -C 6)carbocyclyl, and phenyl; R 2 is selected from hydrogen, -(C 1 -C 6)alkyl, -CF 3, -(C 3 -C 6)carbocyclyl, and phenyl; wherein at least one of R 1 and R 2 is hydrogen; and each R 3 is independently selected from phenylmethyl, 4-methoxyphenylmethyl, 1-naphthylmethyl, and diphenylmethyl. 1) reacting the compound of formula with a compound of formula H-N(R 3) 2 and a compound of formula followed by reaction with acetic acid to provide the compound of formula 2) reacting the compound of formula from step 1) above with a reducing reagent to provide the compound of formula 3) reacting the compound of formula from step 2) above with an arylsulfonyl chloride and a deprotonating reagent to provide the compound of formula and 4) reacting the compound of formula from step 3) above with hydrogen gas in the presence of a transition metal catalyst to provide the compound of formula, wherein R 1 is selected from hydrogen, -(C 1 -C 6)alkyl, -CF 3, -(C 3 -C 6)carbocyclyl, and phenyl; R 2 is selected from hydrogen, -(C 1 -C 6)alkyl, -CF 3, -(C 3 -C 6)carbocyclyl, and phenyl; wherein at least one of R 1 and R 2 is hydrogen; and each R 3 is independently selected from phenylmethyl, 4-methoxyphenylmethyl, 1-naphthylmethyl, and diphenylmethyl. R 1 is selected from hydrogen, -(C 1 -C 6)alkyl, -CF 3, -(C 3 -C 6)carbocyclyl, and phenyl; R 2 is selected from hydrogen, -(C 1 -C 6)alkyl, -CF 3, -(C 3 -C 6)carbocyclyl, and phenyl; wherein at least one of R 1 and R 2 is hydrogen; and each R 3 is independently selected from phenylmethyl, 4-methoxyphenylmethyl, 1-naphthylmethyl, and diphenylmethyl.