mhurhangee/ep-ind-claims huggingface dataset:
Method for automatically controlling a following vehicle, in which a leading vehicle is guided along an actual trajectory, a desired trajectory is produced for the following vehicle by a scheduler of the following vehicle, the actual trajectory of the leading vehicle is captured by the following vehicle, a trajectory similarity is determined by comparing the captured actual trajectory of the leading vehicle and the produced desired trajectory of the following vehicle, and automatic control of the following vehicle along the desired trajectory is activated if the trajectory similarity exceeds a particular value, characterized in that a reliability value is determined by the leading vehicle, the reliability value is transmitted to the following vehicle, and the automatic control of the following vehicle is also activated on the basis of the reliability value, wherein the reliability value quantifies the safety of the actual trajectory travelled on by the leading vehicle.
A system comprising a glass touch screen protector and a portable electronic device with a front face that includes a touch screen portion and a declining outer perimeter, the glass screen protector is adapted for being mountable on the front face of the portable device for protecting the portable electronic device, the glass touch screen protector comprises: a glass sheet having front and back sides, an outer band, and a transparent window portion; a spacer provided along the outer perimeter of the glass sheet, the spacer increasing in thickness toward the periphery of the glass sheet, the spacer having a thickness sufficient to space the glass sheet near but not in contact with the touch screen portion to form a space between the transparent window portion, the spacer and the touch screen portion of the portable device when the glass screen protector is mounted on the portable device, the spacer comprising an exposed adhesive facing the portable device, when the glass screen protector is mounted on the portable device, and having adhesive strength enabling repeated removal and re-attachment of the glass screen protector; and wherein the distance between the glass sheet and the touch screen portion allows a capacitive value on the touch screen portion when pressure is applied against the glass sheet during normal use of the portable device. a glass sheet having front and back sides, an outer band, and a transparent window portion; a spacer provided along the outer perimeter of the glass sheet, the spacer increasing in thickness toward the periphery of the glass sheet, the spacer having a thickness sufficient to space the glass sheet near but not in contact with the touch screen portion to form a space between the transparent window portion, the spacer and the touch screen portion of the portable device when the glass screen protector is mounted on the portable device, the spacer comprising an exposed adhesive facing the portable device, when the glass screen protector is mounted on the portable device, and having adhesive strength enabling repeated removal and re-attachment of the glass screen protector; and wherein the distance between the glass sheet and the touch screen portion allows a capacitive value on the touch screen portion when pressure is applied against the glass sheet during normal use of the portable device.
A combination of a double joining device, suitable for central panels of furniture and furnishing items, with at least three panels (11,12,12') said panels (11,12,12') having seats (S1, S1', S2,S2'), said panels comprising a first panel, forming a shoulder of a piece of furniture, and a pair of second panels (12,12'), forming each a base or shelf of a piece of furniture, positioned on opposite sides of the first panel, which must be moved towards each other according to an approach direction (d,d') in order to bring the edge (B,B') of one panel abutted in a tightening position against a surface (S,S') of the other panel, wherein said joining device comprises at least two blocking groups and one connection group assembled on said panels (11,12), said double joining device comprises two blocking groups inserted inside respective seats (S1,S1'), adjacent and contained in the thickness of the first panel on which said blocking groups are applied, said seats (S1,S1') having a longitudinal axis which is perpendicular to said direction (d,d'), and wherein each of said second panels (12,12') receives a connection group which collaborates with a respective blocking group, seats (S2,S2') of said second panels (12,12') being positioned parallel to each other so as to collaborate with said blocking groups arranged adjacent in said first panel wherein each of the two blocking groups can be actuated from a first hole (37,37') produced in said shoulder and that each of said connection groups can be coupled with said shoulder from a second hole (38,38') produced in said shoulder, said two holes (37,38; 37',38') being spaced from each other and horizontal, wherein each blocking group comprises a pinion-toothed crown bevel (41,43), which is housed in a casing (139,139',140) positioned in a pair of adjacent holes or seats (S1,S1') of said shoulder and which controls the movement of a grub screw suitable for being engaged on a respective pin of each of the two connection groups. wherein each of the two blocking groups can be actuated from a first hole (37,37') produced in said shoulder and that each of said connection groups can be coupled with said shoulder from a second hole (38,38') produced in said shoulder, said two holes (37,38; 37',38') being spaced from each other and horizontal, wherein each blocking group comprises a pinion-toothed crown bevel (41,43), which is housed in a casing (139,139',140) positioned in a pair of adjacent holes or seats (S1,S1') of said shoulder and which controls the movement of a grub screw suitable for being engaged on a respective pin of each of the two connection groups.
A fan control method, applied to an induction cooker with multiple heating zones, where the fan control method comprises: obtaining a working mode of the induction cooker, characterised by obtaining an Insulated Gate Bipolar Transistor (IGBT) temperature and a cooktop temperature of the induction cooker; based on the working mode, the IGBT temperature and the cooktop temperature, controlling a rotation speed of the fan. obtaining a working mode of the induction cooker, characterised by obtaining an Insulated Gate Bipolar Transistor (IGBT) temperature and a cooktop temperature of the induction cooker; based on the working mode, the IGBT temperature and the cooktop temperature, controlling a rotation speed of the fan.
An energy storage module (100, 200) comprising: a cover member (110, 210) comprising an internal receiving space configured to accommodate battery cells each comprising a vent; a top plate (140, 240) coupled to a top of the cover member (110, 210) and comprising ducts (141, 241) respectively corresponding to the vents of the battery cells; a top cover (160, 260) coupled to a top portion of the top plate (140, 240) and comprising discharge holes (161, 261) located in an exhaust area (161a, 262) and respectively corresponding to the ducts (141, 241); and an extinguisher sheet (150, 250) located between the top cover (160, 260) and the top plate (140, 240), and configured to emit a fire extinguishing agent at a temperature exceeding a reference temperature, wherein the top cover (160, 260) comprises protrusion parts (162, 263) located on a bottom surface (160b, 260b) of the top cover (160, 260), covering the exhaust area (161a, 262), and coupled to an exterior of the ducts (141, 241). a cover member (110, 210) comprising an internal receiving space configured to accommodate battery cells each comprising a vent; a top plate (140, 240) coupled to a top of the cover member (110, 210) and comprising ducts (141, 241) respectively corresponding to the vents of the battery cells; a top cover (160, 260) coupled to a top portion of the top plate (140, 240) and comprising discharge holes (161, 261) located in an exhaust area (161a, 262) and respectively corresponding to the ducts (141, 241); and an extinguisher sheet (150, 250) located between the top cover (160, 260) and the top plate (140, 240), and configured to emit a fire extinguishing agent at a temperature exceeding a reference temperature, wherein the top cover (160, 260) comprises protrusion parts (162, 263) located on a bottom surface (160b, 260b) of the top cover (160, 260), covering the exhaust area (161a, 262), and coupled to an exterior of the ducts (141, 241).
A method for producing silver nanowires, comprising depositing a silver linear structure (which is referred to as "silver nanowires") in an alcohol solvent having a silver compound, a halogen compound, and an organic protective agent dissolved therein, a deposition reaction of silver being performed in a state where aluminum nitrate is further dissolved in the solvent, wherein the total amount of aluminum nitrate dissolved in the solvent is from 0.01 to 0.50 in terms of Al/Ag molar ratio with respect to the total amount of the silver compound.
A toy gun comprising: a frame provided in the toy gun and having a recess; a gas cylinder a trigger attached to the toy gun; a sear interlocked with the action of the trigger; a hammer jetting gas out of the gas cylinder to fire a bullet by interlock with the action of the sear; a safety lever installed outside the frame with a gap between the safety lever and the frame and able to be selectively in contact with or out of contact with any member of the trigger to the hammer interlocked with one another; and a biasing means (234, 243) providing bias in such a direction as to maintain the gap between the frame and the safety lever, characterized in that when the safety is on, the safety lever is able to be moved inwards of the toy gun and fitted with the recess in the frame against the biasing means, thereby eliminating the gap, so as not to be turned. a frame provided in the toy gun and having a recess; a gas cylinder a trigger attached to the toy gun; a sear interlocked with the action of the trigger; a hammer jetting gas out of the gas cylinder to fire a bullet by interlock with the action of the sear; a safety lever installed outside the frame with a gap between the safety lever and the frame and able to be selectively in contact with or out of contact with any member of the trigger to the hammer interlocked with one another; and a biasing means (234, 243) providing bias in such a direction as to maintain the gap between the frame and the safety lever, characterized in that when the safety is on, the safety lever is able to be moved inwards of the toy gun and fitted with the recess in the frame against the biasing means, thereby eliminating the gap, so as not to be turned.
A fibroin-derived protein composition that possesses enhanced stability in an aqueous solution, wherein: the primary amino acid sequences of the fibroin-derived protein composition differ from native fibroin by at least 4% with respect to the combined amino acid content of serine, glycine, and alanine; cysteine disulfide bonds between the fibroin heavy and fibroin light protein chains of fibroin are reduced or eliminated; the composition comprises greater than 46.5% glycine amino acids and greater than 30% alanine amino acids; the composition has a serine content that is reduced by greater than 40% compared to native fibroin protein such that the composition comprises less than 8% serine amino acids; and wherein the average molecular weight of the fibroin-derived protein composition is less than about 100 kDa. the primary amino acid sequences of the fibroin-derived protein composition differ from native fibroin by at least 4% with respect to the combined amino acid content of serine, glycine, and alanine; cysteine disulfide bonds between the fibroin heavy and fibroin light protein chains of fibroin are reduced or eliminated; the composition comprises greater than 46.5% glycine amino acids and greater than 30% alanine amino acids; the composition has a serine content that is reduced by greater than 40% compared to native fibroin protein such that the composition comprises less than 8% serine amino acids; and wherein the average molecular weight of the fibroin-derived protein composition is less than about 100 kDa.
A method for equalizing wearing of a plurality of Integrated Drive Generators, IDGs, of an aircraft, the method comprising: detecting a weight-on-wheels, WOW, condition of the aircraft; logging operating conditions of at least a powered subset of the plurality of IDGs only while the WOW condition is detected; comparing the logged operating conditions of each of the plurality of IDGs; recommending, based on the logged operating conditions, one of the plurality of IDGs for use in ground operation by the aircraft; and generating a signal indicative of the recommended one of the IDGs determined. logging operating conditions of at least a powered subset of the plurality of IDGs only while the WOW condition is detected; comparing the logged operating conditions of each of the plurality of IDGs; recommending, based on the logged operating conditions, one of the plurality of IDGs for use in ground operation by the aircraft; and generating a signal indicative of the recommended one of the IDGs determined.
An information transmission method, comprising: configuring, by a base station, at least one first resource for a user equipment, UE, wherein the first resource is used by the UE to transmit a first channel and/or signal, and the first channel and/or signal is a sounding reference signal, SRS; transmitting, by the base station, first indication information to the UE, wherein the first indication information indicates a correspondence between the first resource and a second resource, and the first indication information comprises an identity of each first resource, and an identity of the second resource corresponding to the identity of each first resource; wherein the second resource is a resource used by the UE to transmit a second channel and/or signal to the base station before the transmission of the SRS; the correspondence is used by the UE to determine a beam for transmitting the SRS, and the beam for transmitting the SRS is the same as a beam for transmitting the second channel and/or signal. configuring, by a base station, at least one first resource for a user equipment, UE, wherein the first resource is used by the UE to transmit a first channel and/or signal, and the first channel and/or signal is a sounding reference signal, SRS; transmitting, by the base station, first indication information to the UE, wherein the first indication information indicates a correspondence between the first resource and a second resource, and the first indication information comprises an identity of each first resource, and an identity of the second resource corresponding to the identity of each first resource; wherein the second resource is a resource used by the UE to transmit a second channel and/or signal to the base station before the transmission of the SRS; the correspondence is used by the UE to determine a beam for transmitting the SRS, and the beam for transmitting the SRS is the same as a beam for transmitting the second channel and/or signal.
A PS4 variant polypeptide having non-maltogenic exoamylase activity derivable from a parent polypeptide having non-maltogenic exoamylase activity, wherein the PS4 variant polypeptide is at least 95% identical to SEQ ID No: 13 and comprises the amino acid mutation 121F with reference to the position numbering of a Pseudomonas saccharophilia exoamylase sequence shown as SEQ ID NO: 1, further wherein said PS4 variant polypeptide has a higher thermostability compared to the parent polypeptide when tested under the same conditions; further wherein the parent polypeptide is a non-maltogenic exoamylase from Pseudomonas saccharophilia exoamylase having a sequence shown as SEQ ID NO: 1.
Cooler, with individual cooling elements in a stacked construction with channels running in parallel with one another, each of which delimits a flow chamber for the liquid medium to be cooled to flow through, between which channels at least two layers (3, 5) of individual fin rows of meandering fins extend, which, with one another, in each case delimit a further flow chamber (26, 28) for air to flow through, wherein the respective one flow chamber permits the liquid medium to flow in a laminar manner through the assignable channel in one throughflow direction without any obstacles, in that the height of each fin, viewed across the throughflow direction of the liquid medium, is at least the same height as the free throughflow cross-section of the flow chamber of the adjacently arranged channel, viewed parallel to the extension of the respective fin, and in each layer (3, 5) a plurality of fin rows of a plurality of fins are arranged one behind the other, each having an offset to one another when viewed in the throughflow direction of the channel, wherein the flow chamber of each channel has a free opening cross-section, which is delimited by exclusively rectangular, peripheral channel walls (23, 23', 24), wherein the fin rows and the channels extend between two media-conveying main spars, which form the fluid connections with the channels and span a rectangular end face as a cooler surface, wherein the individual cooling elements are formed in a stacked construction with the channels running in parallel with one another, characterised in that each individual cooling element comprises a composite with two layers (3, 5) of the meandering fins, that the two layers (3, 5) of a cooling element are separated by a separating wall, which in each case runs in a horizontal plane, and in that the channel walls (23, 23', 24) of each channel have a material thickness in the wall thickness of each fin. wherein the flow chamber of each channel has a free opening cross-section, which is delimited by exclusively rectangular, peripheral channel walls (23, 23', 24), wherein the fin rows and the channels extend between two media-conveying main spars, which form the fluid connections with the channels and span a rectangular end face as a cooler surface, wherein the individual cooling elements are formed in a stacked construction with the channels running in parallel with one another, characterised in that each individual cooling element comprises a composite with two layers (3, 5) of the meandering fins, that the two layers (3, 5) of a cooling element are separated by a separating wall, which in each case runs in a horizontal plane, and in that the channel walls (23, 23', 24) of each channel have a material thickness in the wall thickness of each fin.
An adjusting mechanism (10a, 10b) of an adjusting device for coupling an adjustable flap to a main wing of a wing and for adjusting the adjustable flap, the adjusting mechanism (10a, 10b) comprising: • a first adjusting lever (11, 21) articulated to the main wing via a first rotary joint (G11, G21) so as to establish a first axis of rotation (A11, A21), • a second adjusting lever (12, 22), characterized in that the adjusting mechanism (10a, 10b) comprises: • a third adjusting lever coupled in an articulated manner to the second adjusting lever (12, 22) via a second rotary joint so as to establish a second axis of rotation (A12, A22) and coupled in an articulated manner to the adjustable flap via a fourth rotary joint, wherein the first adjusting lever (11, 21) and the second adjusting lever (12, 22) are coupled to each other in an articulated manner via a central joint so as to establish a third axis of rotation (A13, A23), and wherein the first, second and third axes of rotation (A11, A12, A13; A21, A22) pass through a common pole in every position of the adjustable flap, • a pull-push rod connected to the second adjusting lever via a first ball joint and to the adjustable flap via a second ball joint. • a first adjusting lever (11, 21) articulated to the main wing via a first rotary joint (G11, G21) so as to establish a first axis of rotation (A11, A21), • a second adjusting lever (12, 22), • a third adjusting lever coupled in an articulated manner to the second adjusting lever (12, 22) via a second rotary joint so as to establish a second axis of rotation (A12, A22) and coupled in an articulated manner to the adjustable flap via a fourth rotary joint, wherein the first adjusting lever (11, 21) and the second adjusting lever (12, 22) are coupled to each other in an articulated manner via a central joint so as to establish a third axis of rotation (A13, A23), and wherein the first, second and third axes of rotation (A11, A12, A13; A21, A22) pass through a common pole in every position of the adjustable flap, • a pull-push rod connected to the second adjusting lever via a first ball joint and to the adjustable flap via a second ball joint.
A tire puncture sealant, comprising: natural rubber latex, a tackifying resin emulsion, and a disproportionated rosin acid surfactant. natural rubber latex, a tackifying resin emulsion, and a disproportionated rosin acid surfactant.
A regulation system for regulating a physical parameter (y) of a real system F(p) of a turbomachine from a physical parameter set point (yc), the regulation system having a response time and comprising: - a corrector comprising a correction function C1(p) and a parameterization gain K, - a theoretical inverse transfer function F -1 (p) of the real system F(p), and - a system for optimizing (OPTK) the parameterization gain K during regulation, the optimization system (OPTK) being characterized by: i. a stability correction module configured to determine a first gain constant K1, with a positive value, upon detecting an instability of the regulation system upon regulating the physical parameter (y), ii. a module for correcting the response time of the regulation system, configured to determine a second gain constant K2, with a negative value, upon detecting a delay upon regulating the physical parameter (y), the stability correction module being configured to inhibit the response time correction module upon detecting an instability (TopIS) upon regulating the physical parameter (y), and iii. a determination module configured to determine the parameterization gain K as a function of the first gain component K1 and second gain component K2 previously determined. - a corrector comprising a correction function C1(p) and a parameterization gain K, - a theoretical inverse transfer function F -1 (p) of the real system F(p), and - a system for optimizing (OPTK) the parameterization gain K during regulation, the optimization system (OPTK) being characterized by: i. a stability correction module configured to determine a first gain constant K1, with a positive value, upon detecting an instability of the regulation system upon regulating the physical parameter (y), ii. a module for correcting the response time of the regulation system, configured to determine a second gain constant K2, with a negative value, upon detecting a delay upon regulating the physical parameter (y), the stability correction module being configured to inhibit the response time correction module upon detecting an instability (TopIS) upon regulating the physical parameter (y), and iii. a determination module configured to determine the parameterization gain K as a function of the first gain component K1 and second gain component K2 previously determined. i. a stability correction module configured to determine a first gain constant K1, with a positive value, upon detecting an instability of the regulation system upon regulating the physical parameter (y), ii. a module for correcting the response time of the regulation system, configured to determine a second gain constant K2, with a negative value, upon detecting a delay upon regulating the physical parameter (y), the stability correction module being configured to inhibit the response time correction module upon detecting an instability (TopIS) upon regulating the physical parameter (y), and iii. a determination module configured to determine the parameterization gain K as a function of the first gain component K1 and second gain component K2 previously determined.