mhurhangee/ep-ind-claims huggingface dataset:
A battery cell assembly, comprising: a cooling fin (40, 42) having a tube and a flexible thermally conductive sheet disposed on the tube; the tube having first, second, and third tube portions (90, 92, 94) fluidly communicating with one another, the first and second tube portions (90, 92) being parallel to one another, the third tube portion being perpendicular to the first and second tube portions (90, 92) and extending between the first and second tube portions (90, 92); the flexible thermally conductive sheet being coupled to at least the first and second tube portions (90, 92) and having a first sheet portion extending between the first and second tube portions (90, 92); and a battery cell (30, 32) disposed against the first sheet portion of the flexible thermally conductive sheet of the cooling fin (40, 42), wherein the flexible thermally conductive sheet includes an adhesive layer disposed thereon, and is disposed around an outer surface of the first tube portion and is coupled to the first tube portion utilizing the adhesive layer, the flexible thermally conductive sheet is further disposed around an outer surface of the second tube portion and is coupled to the second tube portion utilizing the adhesive layer, characterised in that the flexible thermally conductive sheet further includes second and third sheet portions (152, 154) extending from the first and second tube portions (90, 92), respectively, that are coupled to the first sheet portion utilizing the adhesive layer, the flexible thermally conductive sheet is further disposed around an outer surface of the third tube portion and is coupled to the third tube portion utilizing the adhesive layer, and the flexible thermally conductive sheet further includes a fourth sheet portion that extends from the third tube portion and is coupled to the first sheet portion utilizing the adhesive layer. a cooling fin (40, 42) having a tube and a flexible thermally conductive sheet disposed on the tube; the tube having first, second, and third tube portions (90, 92, 94) fluidly communicating with one another, the first and second tube portions (90, 92) being parallel to one another, the third tube portion being perpendicular to the first and second tube portions (90, 92) and extending between the first and second tube portions (90, 92); the flexible thermally conductive sheet being coupled to at least the first and second tube portions (90, 92) and having a first sheet portion extending between the first and second tube portions (90, 92); and a battery cell (30, 32) disposed against the first sheet portion of the flexible thermally conductive sheet of the cooling fin (40, 42),
A method for an adaptive transmission time interval, TTI, coexistence mechanism, the method comprising: allocating, by a network controller, a long term evolution, LTE, TTI at a first bandwidth, wherein the first bandwidth is smaller than an available system bandwidth and is centered around a carrier frequency at a center of the available system bandwidth; allocating adaptive TTIs in the available system bandwidth outside the first bandwidth; generating adaptive TTI bandwidth partitioning information describing the allocation of adaptive TTIs in the available system bandwidth outside the first bandwidth; and broadcasting the adaptive TTI bandwidth partitioning information to adaptive TTI-capable terminals; wherein the method further comprises: communicating, by the network controller, first control information using the LTE TTI at the first bandwidth; communicating, by the network controller, second control information using the adaptive TTIs at the second bandwidth partition. allocating, by a network controller, a long term evolution, LTE, TTI at a first bandwidth, wherein the first bandwidth is smaller than an available system bandwidth and is centered around a carrier frequency at a center of the available system bandwidth; allocating adaptive TTIs in the available system bandwidth outside the first bandwidth; generating adaptive TTI bandwidth partitioning information describing the allocation of adaptive TTIs in the available system bandwidth outside the first bandwidth; and broadcasting the adaptive TTI bandwidth partitioning information to adaptive TTI-capable terminals; wherein the method further comprises: communicating, by the network controller, first control information using the LTE TTI at the first bandwidth; communicating, by the network controller, second control information using the adaptive TTIs at the second bandwidth partition. communicating, by the network controller, first control information using the LTE TTI at the first bandwidth; communicating, by the network controller, second control information using the adaptive TTIs at the second bandwidth partition.
A transportation refrigeration system comprising: a heat rejection heat exchanger; a subcooler comprising a plurality of flow paths (82a, 82b), the subcooler operably coupled to the heat rejection heat exchanger; and a heat transfer apparatus consisting of a first portion, a second portion, and optionally a heat sink, wherein the first portion is operably coupled to at least one of the plurality of flow paths (82a, 82b) and the second portion is operably coupled to a heat source; characterized in that the plurality of flow paths comprises a first flow path and at least a second flow path; and the first portion of the heat transfer apparatus is disposed between the first flow path and the at least second flow path. a heat rejection heat exchanger; a subcooler comprising a plurality of flow paths (82a, 82b), the subcooler operably coupled to the heat rejection heat exchanger; and a heat transfer apparatus consisting of a first portion, a second portion, and optionally a heat sink, wherein the first portion is operably coupled to at least one of the plurality of flow paths (82a, 82b) and the second portion is operably coupled to a heat source; characterized in that the plurality of flow paths comprises a first flow path and at least a second flow path; and the first portion of the heat transfer apparatus is disposed between the first flow path and the at least second flow path.
A computer-implemented method comprising: receiving (204, 510) information defining a training module; capturing (211, 530) a plurality of screenshots corresponding to different permutations of the training module; processing (212, 535) the plurality of screenshots, wherein processing (212, 535) the plurality of screenshots comprises redacting one or more of: text, images, or template components from each of the plurality of screenshots; inputting (213, 540), into an auto-encoder, the plurality of processed screenshots, wherein inputting (213, 540) the plurality of processed screenshots causes the auto-encoder to output (214, 545) a reconstruction error value; executing, on the reconstruction error value, an outlier detection algorithm, wherein executing the outlier detection algorithm identifies (215, 550) an outlier permutation of the training module; generating (216, 555) a user interface comprising information identifying the outlier permutation of the training module; and sending the user interface to at least one user device. receiving (204, 510) information defining a training module; capturing (211, 530) a plurality of screenshots corresponding to different permutations of the training module; processing (212, 535) the plurality of screenshots, wherein processing (212, 535) the plurality of screenshots comprises redacting one or more of: text, images, or template components from each of the plurality of screenshots; inputting (213, 540), into an auto-encoder, the plurality of processed screenshots, wherein inputting (213, 540) the plurality of processed screenshots causes the auto-encoder to output (214, 545) a reconstruction error value; executing, on the reconstruction error value, an outlier detection algorithm, wherein executing the outlier detection algorithm identifies (215, 550) an outlier permutation of the training module; generating (216, 555) a user interface comprising information identifying the outlier permutation of the training module; and sending the user interface to at least one user device.
Device carrier (10, 82) for mounting electrical installation devices (13, 84) next to cable ducts which are in particular realized as a skirting-board duct, said device carrier (10, 82) comprising a carrier base (27, 83) for receiving at least one electrical installation device, a carrier housing (14, 85) for receiving the carrier base and a duct adapter (15, 24, 88, 89) for connecting the carrier housing to the cable duct, the duct adapter being realized independently of the carrier housing, and the carrier housing having at a connection side for the connection to the duct adapter a clearance (57, 58, 86) in a housing wall for receiving a connection element (53, 54, 87) realized at a connection side (51, 52) of the duct adapter, both a longitudinal side (56, 90) and a transverse side (55, 91) of the carrier housing being realized as a connection side, the longitudinal side (56, 90) and the transverse side (55, 91) each having a housing wall insert (59, 60, 97) disposed in the clearance of the housing wall, characterized in that the clearance realized at the connection side of the carrier housing being provided with the housing wall insert which is interchangeable with the connection element realized at the connection side of the duct adapter, and in that both a longitudinal side (34, 92) and a transverse side (35, 93) of the carrier base are provided with a positioning aid (36, 37, 94, 95) which is separably connected to the longitudinal side and the transverse side via a predetermined breaking element, said positioning aid (36, 37, 94, 95) having a parallel stop for coming into contact with the cable duct at a defined distance from the longitudinal side and the transverse side.
An actuator for controlling a wheelset of a rail vehicle comprising: an axle casing for fastening to an undercarriage; a synchronized cylinder that is formed in the axle casing and that comprises a piston surface that has a piston rod passing through the axle casing at each of its two areal sides; and a housing that is movable in accordance with a movement of the synchronized cylinder with respect to the axle casing, characterized in that a piston spring element that connects a respective piston rod to the housing is preferably arranged at the end of the respective piston rod remote from the piston surface. an axle casing for fastening to an undercarriage; a synchronized cylinder that is formed in the axle casing and that comprises a piston surface that has a piston rod passing through the axle casing at each of its two areal sides; and a housing that is movable in accordance with a movement of the synchronized cylinder with respect to the axle casing,
A high-strength hot-rolled steel sheet having a tensile strength of 540 to 780 MPa comprising, on a mass percent basis, 0.05%-0.12% C, 0.5% or less Si, 0.8%-1.8% Mn, 0.030% or less P, 0.01% or less S, 0.005%-0.1% Al, 0.01% or less N, 0.030%-0.080% Ti, the balance being Fe and incidental impurities, and metal microstructures whose bainitic ferrite area fraction is 70% or more, wherein the amount of Ti present in a precipitate comprising a Ti-containing carbide and having a size of less than 20 nm is 50% or more of the value of Ti* calculated using formula: Ti * = Ti − 48 / 14 × N where [Ti] and represent a Ti content (percent by mass) and a N content (percent by mass), respectively, of the steel sheet.
Push bar for actuating a door lock of a door, in particular a door latch, comprising a main profile used for fastening to the door and a cover profile that can move preferably in parallel with the main profile, acts as an actuating element for the door lock and is movable between an unactuated start position and a fully actuated end position, wherein the cover profile can be secured relative to the main profile in or near its end position by means of at least one securing element such that the door lock is fixed in the actuated state when the cover profile is secured, wherein the securing element is movably arranged on the main profile and can be engaged with a locking element arranged on the cover profile, wherein the securing element is designed as a push button that has a cylindrical shaft and can be moved into the main profile and the cover profile, and wherein the locking element is designed as a recess or passage in the cover profile with which the push button can be engaged by means of its cylindrical shaft, thus preventing the cover profile from being displaced.
An electric appliance for personal care, in particular electric shaver, comprising a magnetic linear drive unit having first and second drive components (6, 7) supported on a drive carrier for linear oscillation relative to each other and adapted to magnetically interact with each other, wherein a drive support is provided for supporting the drive unit onto a mounting structure, wherein said drive support provides for at least one axis of rotation for the drive carrier of the drive unit, thereby allowing said drive components (6, 7) to rotate relative to the mounting structure, wherein said drive support includes a pair of leaf springs supporting said drive carrier relative to said mounting structure, said pair of leaf springs defining a four point joint supporting said drive unit rotatable about said at least one axis of rotation, wherein said four point joint includes two connection points fixed with the mounting structure and two connection points fixed with the drive carrier, characterized in that said pair of leaf springs on opposite sides of the drive unit are arranged at an obtuse angle relative to each other and define, with their longitudinal axes, a virtual intersection point in a center region of the drive unit.
A method of reducing the pour points of either vegetable fats and oils or animal fats and oils, by adding a flow improver, characterised in that the flow improver comprises a polymer including constitutional units,, and, and having a weight-average molecular weight in the range of 5,000 to 100,000, such that the molar fraction a of the constitutional unit is in the range of 0.4 to 0.8, the molar fraction b of the constitutional unit is in the range of 0.1 to 0.3, and the molar fraction c of the constitutional unit is in the range of 0.1 to 0.3. [In the formula, R 1 represents a straight chain saturated alkyl group having 12 to 16 carbon atoms, R 2 represents a methyl group or hydrogen atom, R 3 represents a straight chain saturated alkyl group having 6 to 18 carbon atoms, and R 4 represents a straight chain saturated alkyl group having 6 to 20 carbon atoms.] [In the formula, R 1 represents a straight chain saturated alkyl group having 12 to 16 carbon atoms, R 2 represents a methyl group or hydrogen atom, R 3 represents a straight chain saturated alkyl group having 6 to 18 carbon atoms, and R 4 represents a straight chain saturated alkyl group having 6 to 20 carbon atoms.]
Facade scaffolding, of the type composed of a plurality of tubular members, interconnected with one another, constituting a scaffold fixed on the facade and arranged parallel thereto, producing different working levels on the facade, determined by service platforms, comprising a plurality of dismantlable portals (2, 12), and non-dismantlable rectangular frameworks (2',2"), in an arrangement transverse to the plane of the facade and linked to one another by means of horizontal and diagonal bars, by way of safety coupling devices, not spontaneously dismantlable (27,28,29,30,56,58), in which the portals (2,12) and rectangular frameworks (2',2") directly support passage platforms (4,4',4") at one or other of the outer or inner sides of the rectangular frameworks (2',2"), vertically adjustable brackets (5,6) carrying other service platforms (7,8), which platforms (4,4',4",7,8) carry fixed base plates (36,37) on at least one of their edges, the dismantable portals (2,12) comprise vertical members and the rectangular frameworks (2', 2") comprise vertical members the vertical members of frameworks (2',2") bounding facade openings being associated by means of girders mounted directly thereon, the vertical members of the portals (2,12) being able to receive on their upper ends structures for the service platforms or fixed girders carrying bottom couplings (13,14) for the ends of said vertical members and other top couplings (17,18,19) for receiving another rectangular framework (2',2"), characterised in that the scaffolding also comprises special safety guard rails that can be coupled to two successive frameworks (2'2") of the scaffold in the part which corresponds to upper points of junction of the frameworks (2',2"), providing provisional guard rails on an upper platform, said vertical members of the frameworks (2',2") have a plurality of rings (20, 20') distributed longitudinally, intended to receive brackets (5, 6) carrying service platforms (7,8) which are equipped on their vertical side with hooks (21,22) for suspending them in the rings (20, 20') of the vertical members of the frameworks (2',2"), said brackets (5,6) also having on the same vertical side a clamp for securing them to the corresponding framework,(2"), and in that the spacing of the hooks (21,22) is half the spacing of the rings (20,20') of the frameworks,(2").
A method for separating HCFC-244bb from a binary azeotropic or azeotrope-like mixture with HCFO-1233xf comprising: adding hydrogen fluoride to the binary azeotropic or azeotrope-like mixture such that HCFC-244bb, HCFO-1233xf and hydrogen fluoride form a ternary azeotropic or azeotrope-like mixture; and distilling the ternary azeotrope or azeotrope-like mixture from the solution such that a portion of HCFC-244bb remains in solution and substantially all of the HCFO-1233xf is removed, wherein the ternary azeotrope or azeotrope-like mixture comprises 10.0 - 18.0 wt% HCFC-244bb, 51.0 - 64.0 wt% HCFO-1233xf and 23 - 35 wt% hydrogen fluoride. adding hydrogen fluoride to the binary azeotropic or azeotrope-like mixture such that HCFC-244bb, HCFO-1233xf and hydrogen fluoride form a ternary azeotropic or azeotrope-like mixture; and distilling the ternary azeotrope or azeotrope-like mixture from the solution such that a portion of HCFC-244bb remains in solution and substantially all of the HCFO-1233xf is removed, wherein the ternary azeotrope or azeotrope-like mixture comprises 10.0 - 18.0 wt% HCFC-244bb, 51.0 - 64.0 wt% HCFO-1233xf and 23 - 35 wt% hydrogen fluoride.
A battery module, comprising: a plurality of mono-batteries arranged side by side, each mono-battery having electrode terminals which are opposite in electrical polarity; and an electrical connection sheet connecting at least two corresponding electrode terminals, the electrical connection sheet being formed with at least one fusing portion, each fusing portion being positioned between two adjacent electrode terminals connected by the electrical connection sheet; wherein the battery module further comprises: an insulating sheet supported on the fusing portion which is positioned between the two adjacent electrode terminals connected by the electrical connection sheet, when the fusing portion supporting the insulating sheet is fused and in turn a fracturing slit is formed, the insulating sheet drops into the fracturing slit to electrically isolate two facing sides of the electrical connection sheet which are at the fracturing slit. a plurality of mono-batteries arranged side by side, each mono-battery having electrode terminals which are opposite in electrical polarity; and an electrical connection sheet connecting at least two corresponding electrode terminals, the electrical connection sheet being formed with at least one fusing portion, each fusing portion being positioned between two adjacent electrode terminals connected by the electrical connection sheet; wherein the battery module further comprises: an insulating sheet supported on the fusing portion which is positioned between the two adjacent electrode terminals connected by the electrical connection sheet, when the fusing portion supporting the insulating sheet is fused and in turn a fracturing slit is formed, the insulating sheet drops into the fracturing slit to electrically isolate two facing sides of the electrical connection sheet which are at the fracturing slit.
A process for the oxidative conversion of at least one gaseous alkane, preferably of a C1-C4 alkane, in particular preferably of methane, in at least one fluidized-bed membrane reactor which comprises at least one first inlet line, more than one second inlet line, which at least sectionally each are arranged parallel to each other within the reactor in the form of a membrane with at least one active membrane surface, and at least one catalyst bed, characterized by the following steps: - introducing at least one first stream containing the at least one gaseous alkane into the at least one catalyst bed in the reactor via the at least one first inlet line, wherein the introduction of the first alkane-containing stream (1 a) into the at least one catalyst bed leads to the formation of at least one fluidized catalyst bed in the fluidized-bed membrane reactor, and - introducing at least one second stream containing oxygen or an oxygen-containing gas into the reactor via the more than one second inlet line, wherein the second stream is introduced into the at least one fluidized catalyst bed of the reactor via the respective at least one active membrane surface. - introducing at least one first stream containing the at least one gaseous alkane into the at least one catalyst bed in the reactor via the at least one first inlet line, wherein the introduction of the first alkane-containing stream (1 a) into the at least one catalyst bed leads to the formation of at least one fluidized catalyst bed in the fluidized-bed membrane reactor, and - introducing at least one second stream containing oxygen or an oxygen-containing gas into the reactor via the more than one second inlet line, wherein the second stream is introduced into the at least one fluidized catalyst bed of the reactor via the respective at least one active membrane surface.