mhurhangee/ep-ind-claims huggingface dataset:
Method of thermomechanical shaping a final product with very high strength comprising the steps of: - providing a coated hot-rolled and/or cold-rolled steel strip or sheet comprising (all percentages in wt.%): ∘ 0.04%<carbon<0.5% ∘ 0.5%<manganese<3.5% ∘ silicon<1.0% ∘ 0.01%<chromium<1% ∘ titanium<0.2% ∘ aluminium<2.0% ∘ phosphorus<0.1 % ∘ nitrogen < 0.015% ∘ sulphur<0.05% ∘ boron<0.015% ∘ wherein 0<Ti - 3.4N < 0.05%, ∘ unavoidable impurities, ∘ balance iron, ∘ the steel being coated with a zinc alloy coating layer, wherein the zinc alloy consists of 0.3 - 2.3 %_Mg and 0.6 - 2.3 % Al; optionally at most 0.2 % of one or more of the additional elements Pb, Sb, Ti, Ca, Mn, Sn, La, Ce, Cr, Ni, Zr or Bi; unavoidable impurities; the remainder being zinc; - cutting the steel sheet to obtain a steel sheet blank; - thermomechanical shaping of the steel sheet blank to a final product with its final properties, comprising heating the blank to a temperature above Ac1 so as to at least partially austenitise the blank, shaping the blank into a product at elevated temperature and rapid cooling the product so as to obtain the final product with its final properties. - providing a coated hot-rolled and/or cold-rolled steel strip or sheet comprising (all percentages in wt.%): ∘ 0.04%<carbon<0.5% ∘ 0.5%<manganese<3.5% ∘ silicon<1.0% ∘ 0.01%<chromium<1% ∘ titanium<0.2% ∘ aluminium<2.0% ∘ phosphorus<0.1 % ∘ nitrogen < 0.015% ∘ sulphur<0.05% ∘ boron<0.015% ∘ wherein 0<Ti - 3.4N < 0.05%, ∘ unavoidable impurities, ∘ balance iron, ∘ the steel being coated with a zinc alloy coating layer, wherein the zinc alloy consists of 0.3 - 2.3 %_Mg and 0.6 - 2.3 % Al; optionally at most 0.2 % of one or more of the additional elements Pb, Sb, Ti, Ca, Mn, Sn, La, Ce, Cr, Ni, Zr or Bi; unavoidable impurities; the remainder being zinc; ∘ 0.04%<carbon<0.5% ∘ 0.5%<manganese<3.5% ∘ silicon<1.0% ∘ 0.01%<chromium<1% ∘ titanium<0.2% ∘ aluminium<2.0% ∘ phosphorus<0.1 % ∘ nitrogen < 0.015% ∘ sulphur<0.05% ∘ boron<0.015% ∘ wherein 0<Ti - 3.4N < 0.05%, ∘ unavoidable impurities, ∘ balance iron, ∘ the steel being coated with a zinc alloy coating layer, wherein the zinc alloy consists of 0.3 - 2.3 %_Mg and 0.6 - 2.3 % Al; optionally at most 0.2 % of one or more of the additional elements Pb, Sb, Ti, Ca, Mn, Sn, La, Ce, Cr, Ni, Zr or Bi; unavoidable impurities; the remainder being zinc; - cutting the steel sheet to obtain a steel sheet blank; - thermomechanical shaping of the steel sheet blank to a final product with its final properties, comprising heating the blank to a temperature above Ac1 so as to at least partially austenitise the blank, shaping the blank into a product at elevated temperature and rapid cooling the product so as to obtain the final product with its final properties.
Joint mechanism of an application device of a cosmetic product, comprising a first part having a rib and a second part carrying a bracket receiving the rib, said first part being mobile in rotation with respect to said second part about an axis (A-A'), wherein one among the first part and the second part comprises at least one protruding pin, and in that the other among the first part and the second part defines a path for guiding the pin, the pin being inserted into the path for guiding, characterised in that the pin and the path for guiding are off-centered with respect to the axis (A-A').
A three-ring seal assembly comprising: a seal having an upper and a lower end; a first ring adjacent the lower end of the seal, wherein the first ring is a non-extrusion ring comprising a scarf cut and having an upper and lower end; a second ring adjacent the lower end of the non-extrusion first ring, the second ring having an upper and lower end; and a third ring adjacent the lower end of the second ring.
A magnetic tunneling junction device comprising: a free layer having a first surface and a second surface opposite the first surface; a pinned layer facing the first surface of the free layer; a first oxide layer between the pinned layer and the free layer; and a second oxide layer on the second surface of the free layer, wherein the free layer comprises a first free layer adjacent to the first oxide layer and a second free layer adjacent to the second oxide layer, and the first free layer comprises a magnetic material not having a non-magnetic metal incorporated into the magnetic material of the first free layer, and the second free layer comprises a magnetic material including the non-magnetic metal incorporated into the magnetic material of the second free layer; characterized in that the first free layer further comprises a non-magnetic metal diffused from the second free layer, and in that a concentration of the non-magnetic metal in the first free layer gradually increases in a direction from the first oxide layer to an interface with the second free layer. a free layer having a first surface and a second surface opposite the first surface; a pinned layer facing the first surface of the free layer; a first oxide layer between the pinned layer and the free layer; and a second oxide layer on the second surface of the free layer, wherein the free layer comprises a first free layer adjacent to the first oxide layer and a second free layer adjacent to the second oxide layer, and the first free layer comprises a magnetic material not having a non-magnetic metal incorporated into the magnetic material of the first free layer, and the second free layer comprises a magnetic material including the non-magnetic metal incorporated into the magnetic material of the second free layer; characterized in that the first free layer further comprises a non-magnetic metal diffused from the second free layer, and in that a concentration of the non-magnetic metal in the first free layer gradually increases in a direction from the first oxide layer to an interface with the second free layer.
Coil arrangement for a linear electric motor, comprising - a number of individual coils, - a number of housing modules, of which each is configured to enclose the same proportion of the number of individual coils, each of the housing modules having been manufactured separately from the coil arrangement as a plastic part, and all the housing modules having in each case at least one coupling element which is configured for the mutual coupling of two of the housing modules and configuring at least partially a snap-in joint; characterized in that the at least one coupling element has a cut-out which is configured to make a flow of an insulating filler possible between the interior spaces of the two housing modules which are coupled to one another by way of the at least one coupling element. - a number of individual coils, - a number of housing modules, of which each is configured to enclose the same proportion of the number of individual coils, each of the housing modules having been manufactured separately from the coil arrangement as a plastic part, and all the housing modules having in each case at least one coupling element which is configured for the mutual coupling of two of the housing modules and configuring at least partially a snap-in joint; characterized in that the at least one coupling element has a cut-out which is configured to make a flow of an insulating filler possible between the interior spaces of the two housing modules which are coupled to one another by way of the at least one coupling element.
A system for transmitting a low code rate spatially multiplexed channel on multiple antennas in a multi-antenna transmission mode, comprising: a processor configured such that the processor encodes a block of information bits to form a first set of channel coded bits comprising a first number of channel coded bits, wherein the ratio of the first number of channel coded bits to the number of information bits is R2; and the processor maps the channel coded bits to modulation symbols, and each channel coded bit is mapped once to a modulation symbol; and a transmitter configured to transmit a first portion of the modulation symbols in a time-frequency resource on a first antenna of the multiple antennas and to transmit a second portion of the modulation symbols in the time-frequency resource on a second antenna of the multiple antennas, wherein in a single antenna transmission mode the processor is configured to produce a second set of channel coded bits, comprising a second number of channel coded bits, wherein a second number of information bits in the single antenna transmission mode is the same as the number of information bits, and the ratio of the second number of channel coded bits to the number of information bits is R1, and the ratio of R2 to R1 is greater that one, and all of the second set of channel coded bits are the same as a portion of the first set of channel coded bits, and the transmitter is configured to transmit the second set of channel coded bits on one antenna in the single antenna transmission mode, and wherein the number of information bits is always less than or equal to a number of bits mapped to the modulation symbols transmitted on an antenna of the multiple antennas. a processor configured such that the processor encodes a block of information bits to form a first set of channel coded bits comprising a first number of channel coded bits, wherein the ratio of the first number of channel coded bits to the number of information bits is R2; and the processor maps the channel coded bits to modulation symbols, and each channel coded bit is mapped once to a modulation symbol; and a transmitter configured to transmit a first portion of the modulation symbols in a time-frequency resource on a first antenna of the multiple antennas and to transmit a second portion of the modulation symbols in the time-frequency resource on a second antenna of the multiple antennas,
A wireless communications device comprising: a receiver; and a decoder coupled downstream from said receiver and configured to decode a first signal using a first trellis state transition map comprising first valid transitions, the first signal having a first modulation order, and a plurality of second signals using a plurality of second trellis state transition maps (51, 52) comprising a plurality of respective second valid transitions computed by reusing the first valid transitions, the plurality of second signals having respective modulation orders less than the first modulation order. a receiver; and a decoder coupled downstream from said receiver and configured to decode a first signal using a first trellis state transition map comprising first valid transitions, the first signal having a first modulation order, and a plurality of second signals using a plurality of second trellis state transition maps (51, 52) comprising a plurality of respective second valid transitions computed by reusing the first valid transitions, the plurality of second signals having respective modulation orders less than the first modulation order. a first signal using a first trellis state transition map comprising first valid transitions, the first signal having a first modulation order, and a plurality of second signals using a plurality of second trellis state transition maps (51, 52) comprising a plurality of respective second valid transitions computed by reusing the first valid transitions, the plurality of second signals having respective modulation orders less than the first modulation order.
A rotor blade, comprising: a blade portion; a tip cap formed to define a dimple; a fastener including a flat-headed shaft and being disposed such that the flat-headed shaft extends through a flange (410, 420) of the blade portion and a lower surface of the tip cap at the dimple, the fastener being configured to urge the blade portion toward the tip cap; the rotor blade being characterised in further comprising a doubler including a dimpled portion disposed between the tip cap and a portion of the flat-headed shaft at the dimple and an exterior portion, which is disposed flush with respective exterior surfaces (42, 712, 713) of the blade portion and the flat-headed shaft. a blade portion; a tip cap formed to define a dimple; a fastener including a flat-headed shaft and being disposed such that the flat-headed shaft extends through a flange (410, 420) of the blade portion and a lower surface of the tip cap at the dimple, the fastener being configured to urge the blade portion toward the tip cap; the rotor blade being characterised in further comprising a doubler including a dimpled portion disposed between the tip cap and a portion of the flat-headed shaft at the dimple and an exterior portion, which is disposed flush with respective exterior surfaces (42, 712, 713) of the blade portion and the flat-headed shaft.
A conveyor belt module comprising: a module body; a first hinge element extending from a first end of the module body, the first hinge element having a first hinge opening bounded by a first distal bearing surface that extends along a first axis; a second hinge element extending from the first end of the module body, the second hinge element having a second hinge opening bounded by a second distal bearing surface that extends along a second axis; a third hinge element extending from the first end of the module body, the third hinge element having a third hinge opening bounded by a third distal bearing surface that extends along a third axis; wherein the distal ends of each hinge opening is bounded by a wall forming an outer bearing surface that engages a hinge rod and through which belt pull is transmitted as the belt operates and wherein the third hinge element is adjacent the second hinge element and the second hinge element is adjacent the first hinge element, and characterised in that the first axis, the second axis and the third axis are all different from one another. a module body; a first hinge element extending from a first end of the module body, the first hinge element having a first hinge opening bounded by a first distal bearing surface that extends along a first axis; a second hinge element extending from the first end of the module body, the second hinge element having a second hinge opening bounded by a second distal bearing surface that extends along a second axis; a third hinge element extending from the first end of the module body, the third hinge element having a third hinge opening bounded by a third distal bearing surface that extends along a third axis; wherein the distal ends of each hinge opening is bounded by a wall forming an outer bearing surface that engages a hinge rod and through which belt pull is transmitted as the belt operates and wherein the third hinge element is adjacent the second hinge element and the second hinge element is adjacent the first hinge element, and characterised in that the first axis, the second axis and the third axis are all different from one another.
A base sequence for protein expression comprising: a gene encoding protein; a promoter of the gene, the promoter being linked upstream of the gene; and a cis element whose activity is improved by an artificial transcription factor, the cis element being linked further upstream of the promoter, wherein the cis element is represented by SEQ ID NO: 1, and wherein the artificial transcription factor comprises a DNA binding domain comprising a base sequence of upstream 1 to 118 aa of a transcription factor KojR and an active domain comprising a base sequence of downstream 150 to 604 aa of a transcription factor AmyR, and the active domain is linked downstream of the DNA binding domain, and is represented by SEQ ID NO: 2. a gene encoding protein; a promoter of the gene, the promoter being linked upstream of the gene; and a cis element whose activity is improved by an artificial transcription factor, the cis element being linked further upstream of the promoter, wherein the cis element is represented by SEQ ID NO: 1, and wherein the artificial transcription factor comprises a DNA binding domain comprising a base sequence of upstream 1 to 118 aa of a transcription factor KojR and an active domain comprising a base sequence of downstream 150 to 604 aa of a transcription factor AmyR, and the active domain is linked downstream of the DNA binding domain, and is represented by SEQ ID NO: 2.
A method for producing a plurality of cost values associated with operating a genset at respective operating points, the genset comprising an engine coupled to an electrical power generator, the genset having a plurality of operating points each comprising an engine speed value and a generator electrical power output value, the method comprising: assigning weights (ai) to each of a plurality of operating conditions associated with operating the genset, said weights (ai) representing a desired trade-off between said plurality of operating conditions; receiving operating condition values corresponding to each of said plurality of operating conditions, said operating condition values associated with operating the genset at each of the plurality of operating points; producing the cost values for each operating point by combining said operating condition values in accordance with said weights (ai) for each respective operating point; characterized in assigning a weight (ai) to each operating point such that operating points having a power output that is more frequently demanded have greater assigned weight (ai) than operating points having a power output that is less frequently demanded. assigning weights (ai) to each of a plurality of operating conditions associated with operating the genset, said weights (ai) representing a desired trade-off between said plurality of operating conditions; receiving operating condition values corresponding to each of said plurality of operating conditions, said operating condition values associated with operating the genset at each of the plurality of operating points; producing the cost values for each operating point by combining said operating condition values in accordance with said weights (ai) for each respective operating point; characterized in assigning a weight (ai) to each operating point such that operating points having a power output that is more frequently demanded have greater assigned weight (ai) than operating points having a power output that is less frequently demanded.
A modified mRNA comprising at least one open reading frame and comprising at least one modification, which increases the expression of the encoded peptide or protein, wherein the at least one modification comprises a modification of the G/C content in its coding region compared to its wild-type coding region, wherein the translated amino acid sequence of the wild-type coding region is retained, for use in medical treatment, wherein the modified mRNA is administered by jet injection.
A method for detecting HPV-induced high-grade precancerous lesions and HPV-induced invasive cancers and nonHPV-induced gynaecological and anogenital cancers, said method comprising detection of a methylation classifier consisting of LHX8, ASCL1 and ST6GALNAC5 sequences in a cell whereby such hypermethylation indicates the presence of HPV-induced precursor lesions with invasive potential, HPV-induced invasive cancers and nonHPV-induced gynaecological and anogenital cancers.
An electrical connection device for use in a cooking oven comprising: a housing which comprises a cavity for cooking food; and an electrical resistance heater for heating the cavity, wherein the electrical resistance heater comprises one or more electric wires, the electrical connection device further comprising: a socket which comprises two or more stationary terminals for the electrical connection through welding with the ends of the electric wires of the electrical resistance heater respectively; and a plug which comprises two or more releasable terminals for releasable connection with the stationary terminals of the socket, wherein each one of the stationary terminals comprises: a flat blade section which is flexible and adapted for spot welding to the respective ends of the electric wires of the electrical resistance heater, and a z-shaped section; and the socket comprises a holder which comprises a z-shaped slot for each one of the z-shaped sections, said z-shaped slots being adapted to receive the z-shaped sections of the stationary terminals and to secure them against forward/rearward movement when plugging/unplugging the plug into or out of the socket respectively.
A catalyst for purifying an exhaust gas comprising: an oxygen storing material comprising a ceria-zirconia composite oxide having a pyrochlore structure; and a ceria-zirconia composite oxide having a cubic crystal structure, and characterized in that at least part of the ceria-zirconia composite oxide is coated with the ceria-zirconia composite oxide. an oxygen storing material comprising a ceria-zirconia composite oxide having a pyrochlore structure; and a ceria-zirconia composite oxide having a cubic crystal structure, and characterized in that at least part of the ceria-zirconia composite oxide is coated with the ceria-zirconia composite oxide.
A method, comprising: generating, using a plurality of magnetic transmitters, a magnetic field in a region; introducing a plurality of field perturbing elements (62, 64) into the region; calculating a reaction magnetic field in the region generated by a plurality of point sources in the field perturbing elements; positioning a probe in the region and measuring a perturbed magnetic field at the probe; and determining a location of the probe in response to the measured perturbed magnetic field and the calculated reaction magnetic field, characterized in that introducing the field perturbing elements into the region comprises measuring in sets a location and an orientation of the field perturbing elements with respect to axes defined by the magnetic transmitters, wherein in each set one of the field perturbing elements is the only field perturbing element. generating, using a plurality of magnetic transmitters, a magnetic field in a region; introducing a plurality of field perturbing elements (62, 64) into the region; calculating a reaction magnetic field in the region generated by a plurality of point sources in the field perturbing elements; positioning a probe in the region and measuring a perturbed magnetic field at the probe; and determining a location of the probe in response to the measured perturbed magnetic field and the calculated reaction magnetic field, characterized in that introducing the field perturbing elements into the region comprises measuring in sets a location and an orientation of the field perturbing elements with respect to axes defined by the magnetic transmitters, wherein in each set one of the field perturbing elements is the only field perturbing element.