mhurhangee/ep-ind-claims huggingface dataset:
A method for unlocking an operating system, comprising: when a user fails in unlocking the system via an unlock pattern in an unlocking interface for pattern unlocking, displaying an unlocking interface for personal information authentication, wherein the personal information comprises one piece or a combination of multiple pieces of the following information: contact information of a mobile phone address book, a mobile phone call record, a short message or multimedia message received by the user, and a short message or multimedia message sent by the user; receiving personal information input by the user; and matching the personal information input by the user with personal information pre-stored in a local database; wherein the displaying the unlocking interface for the personal information authentication comprises: when the user fails in unlocking via the pattern, displaying an unlocking interface requiring the user to input two or more pieces of personal information for authentication. when a user fails in unlocking the system via an unlock pattern in an unlocking interface for pattern unlocking, displaying an unlocking interface for personal information authentication, wherein the personal information comprises one piece or a combination of multiple pieces of the following information: contact information of a mobile phone address book, a mobile phone call record, a short message or multimedia message received by the user, and a short message or multimedia message sent by the user; receiving personal information input by the user; and matching the personal information input by the user with personal information pre-stored in a local database; wherein the displaying the unlocking interface for the personal information authentication comprises: when the user fails in unlocking via the pattern, displaying an unlocking interface requiring the user to input two or more pieces of personal information for authentication. when the user fails in unlocking via the pattern, displaying an unlocking interface requiring the user to input two or more pieces of personal information for authentication.
Rotation device of a blade of a wind turbine, comprising: a hydraulic actuator to cause said blade to rotate in relation to a longitudinal axis of rotation, and a hydraulic system to drive the actuator, characterised in that said actuator comprises a hydraulic chamber that is substantially toroidal and concentric with the axis of rotation of the blade, said hydraulic chamber comprising at least one moving piston linked to the blade, and at least one respective fixed stopper. a hydraulic actuator to cause said blade to rotate in relation to a longitudinal axis of rotation, and a hydraulic system to drive the actuator, characterised in that said actuator comprises a hydraulic chamber that is substantially toroidal and concentric with the axis of rotation of the blade, said hydraulic chamber comprising at least one moving piston linked to the blade, and at least one respective fixed stopper.
Vehicle pneumatic tyre for commercial vehicles, having a tread profile, which extends in the axial direction A of the vehicle pneumatic tyre between two tyre shoulders, in each of which a shoulder profile band is formed so as to be extended over the circumference of the vehicle pneumatic tyre, said shoulder profile band being bounded toward the equatorial plane Ä of the tyre in the axial direction A by a groove extended over the circumference of the vehicle pneumatic tyre and, on the side of said band which is remote from the equatorial plane Ä, in each case being bounded by a surface of the tyre side wall, said surface forming the flank of the shoulder profile band remote from the equatorial plane Ä, wherein the tread profile is bounded in the section planes containing the tyre axis by a surface which forms the road contact surface, which, between the shoulder profile bands, forms a surface contour line K that is curved toward the tyre, characterized in that, in at least one shoulder profile band of width B, measured in the axial direction A, the surface forming the road contact surface is formed as the prolongation of the curved surface contour line K into the shoulder profile band in an axial first section of extent of width a adjoining the circumferential groove, up to a point P of inflection, and, in an axial second section of extent of width b, where b < B, starting from the point P of inflection up to the side wall, is formed in a linear fashion with an inward slope in radial direction R enclosing an angle α of inclination with respect to the tangent t to the surface contour line K at the point P of inflection, where 3° ≤ α ≤ 25°.
A liquid supply system for use with an aerosol-generating device, the liquid supply system comprising: a liquid retention material (136, 236); a liquid flow channel extending from the liquid retention material (136, 236); and a barrier (125, 225) disposed in the liquid flow channel, the barrier having a threshold temperature between 60 °C and 120 °C, wherein the barrier (125, 225) is impermeable to liquid below its threshold temperature and the barrier becomes reversibly permeable to liquid above the threshold temperature, wherein the barrier (125, 225) comprises a polymer layer and a temperature reactive material dispersed therein, and wherein the temperature reactive material forms pores in the polymer layer above the threshold temperature. a liquid retention material (136, 236); a liquid flow channel extending from the liquid retention material (136, 236); and a barrier (125, 225) disposed in the liquid flow channel, the barrier having a threshold temperature between 60 °C and 120 °C, wherein the barrier (125, 225) is impermeable to liquid below its threshold temperature and the barrier becomes reversibly permeable to liquid above the threshold temperature, wherein the barrier (125, 225) comprises a polymer layer and a temperature reactive material dispersed therein, and wherein the temperature reactive material forms pores in the polymer layer above the threshold temperature.
A system information updating method, comprising: triggering, by a terminal device, a switch from a first bandwidth part, BWP, to a second BWP; and receiving, by the terminal device, new system information on the first BWP, wherein the first BWP is in an activated state; wherein receiving, by the terminal device, the new system information on the first BWP comprises: if the inactivity timer for the first BWP expires when the terminal device is receiving the new system information, starting or restarting, by the terminal device, the inactivity timer, and receiving the new system information on the first BWP. triggering, by a terminal device, a switch from a first bandwidth part, BWP, to a second BWP; and receiving, by the terminal device, new system information on the first BWP, wherein the first BWP is in an activated state; wherein receiving, by the terminal device, the new system information on the first BWP comprises: if the inactivity timer for the first BWP expires when the terminal device is receiving the new system information, starting or restarting, by the terminal device, the inactivity timer, and receiving the new system information on the first BWP.
A controller area network, CAN, module comprising a driver component controllable to drive a dominant state on a CAN bus and a receiver component arranged to generate a received data signal corresponding to a voltage signal on the CAN bus; wherein the CAN module further comprises a bit duration compensation component arranged to: receive a digital transmit command signal comprising dominant bits having a duration T bit_ Tx; receive the received data signal; and generate a compensated transmit command signal for controlling the driver component to drive a dominant state on the CAN bus, characterized in that the compensated transmit command signal comprising dominant bits of a compensated-bit duration T bit_ cp = T bit_ Tx + tc, wherein tc comprises a compensation offset (tc) derived at least partly from a difference between a transmit-bit duration (T bit_ Tx) of the digital transmit command signal and a receive-bit duration (T bit_ Rx) of the received data signal. receive a digital transmit command signal comprising dominant bits having a duration T bit_ Tx; receive the received data signal; and generate a compensated transmit command signal for controlling the driver component to drive a dominant state on the CAN bus,
A method of transmitting, by a user equipment, an uplink signal using a carrier aggregation in a wireless communication system, the method comprising: transmitting, to a base station, BS, a first uplink signal on a first component carrier, CC, included in a first timing advance group, TAG; and transmitting, to the BS, a second uplink signal on a second CC included in a second TAG, wherein the first TAG and the second TAG apply different timing advances, TAs, wherein a maximum uplink timing difference between the first uplink signal and the second uplink signal is determined based on a maximum subcarrier spacing, characterized in that a TA granularity for the first TAG and the second TAG is configured based on the maximum subcarrier spacing, wherein each of the first TAG and the second TAG is configured with multiple numerologies, wherein if each of the first TAG and the second TAG is configured with the multiple numerologies, a maximum TA in each TAG is configured based on a minimum subcarrier spacing. transmitting, to a base station, BS, a first uplink signal on a first component carrier, CC, included in a first timing advance group, TAG; and transmitting, to the BS, a second uplink signal on a second CC included in a second TAG, wherein the first TAG and the second TAG apply different timing advances, TAs, wherein a maximum uplink timing difference between the first uplink signal and the second uplink signal is determined based on a maximum subcarrier spacing, characterized in that a TA granularity for the first TAG and the second TAG is configured based on the maximum subcarrier spacing, wherein each of the first TAG and the second TAG is configured with multiple numerologies, wherein if each of the first TAG and the second TAG is configured with the multiple numerologies, a maximum TA in each TAG is configured based on a minimum subcarrier spacing.
A display device comprising: a display module; and a window which is disposed on the display module and in which a first non-folding region (NFA1-W), a folding region (FA1-W), and a second non-folding region (NFA2-W) are sequentially defined in a first direction (DR1, DR2), wherein the window includes: a base layer; a first hard coating layer disposed on an upper surface (BL-U) of the base layer; and a second hard coating layer disposed on a lower surface (BL-L) of the base layer, and the second hard coating layer includes: a first portion (HC2-NF) overlapping the first non-folding region (NFA1-W) and the second non-folding region (NFA2-W) of the window; and a second portion (HC2-F) overlapping the folding region (FA1-W) of the window and having a hardness lower than a hardness of the first portion (HC1-NF) characterized in that the second portion (HC2-F) of the second hard coating layer comprises a highly-stretchable polymer material selected from the group consisting of polyurea and polyester. a display module; and a window which is disposed on the display module and in which a first non-folding region (NFA1-W), a folding region (FA1-W), and a second non-folding region (NFA2-W) are sequentially defined in a first direction (DR1, DR2), wherein the window includes: a base layer; a first hard coating layer disposed on an upper surface (BL-U) of the base layer; and a second hard coating layer disposed on a lower surface (BL-L) of the base layer, and a base layer; a first hard coating layer disposed on an upper surface (BL-U) of the base layer; and a second hard coating layer disposed on a lower surface (BL-L) of the base layer, and the second hard coating layer includes: a first portion (HC2-NF) overlapping the first non-folding region (NFA1-W) and the second non-folding region (NFA2-W) of the window; and a second portion (HC2-F) overlapping the folding region (FA1-W) of the window and having a hardness lower than a hardness of the first portion (HC1-NF) characterized in that a first portion (HC2-NF) overlapping the first non-folding region (NFA1-W) and the second non-folding region (NFA2-W) of the window; and a second portion (HC2-F) overlapping the folding region (FA1-W) of the window and having a hardness lower than a hardness of the first portion (HC1-NF) characterized in that the second portion (HC2-F) of the second hard coating layer comprises a highly-stretchable polymer material selected from the group consisting of polyurea and polyester.
A subcutaneous delivery mechanism for a drug delivery device, comprising a housing, a needle holder movably mounted in the housing, a needle fixed to the needle holder, and a needle actuation mechanism configured to move the needle holder between a retracted position and an extended delivery position relative to the housing, the needle actuation mechanism comprising a first lever pivotally mounted relative to the housing and a rotary actuator rotatably mounted relative to the housing configured to engage a distal portion of the first lever to cause the first lever to rotate, characterized in that the needle actuation mechanism further comprises a second lever pivotally mounted relative to the housing and coupled to the first lever such that rotation of the first lever causes rotation of the second lever in an opposite rotation direction, an engagement end of the second lever engaging the needle holder to move the needle between the retracted position and extended delivery position upon rotation of the first lever.
A composition comprising a bovine adrenal medulla peptide 8-22 (BAM8-22) peptide having a PEG-8 linker with a KGG spacer, and a palmitic acid membrane anchor, wherein: the BAM8-22 peptide comprises the amino acid sequence of SEQ ID NO: 1; or the BAM8-22 peptide comprises at least one amino acid modification at position 15 of SEQ ID NO: 1 and is a M to A substitution (M15A), or at position 17 of SEQ ID NO: 1 and is a Y to W substitution (Y17W); the KGG spacer is located at the C-terminus of the BAM8-22 peptide; and the PEG-8 linker and the palmitic acid membrane anchor are coupled to the amino side chain group of the C-terminal lysine in the KGG spacer of the BAM8-22 peptide. the BAM8-22 peptide comprises the amino acid sequence of SEQ ID NO: 1; or the BAM8-22 peptide comprises at least one amino acid modification at position 15 of SEQ ID NO: 1 and is a M to A substitution (M15A), or at position 17 of SEQ ID NO: 1 and is a Y to W substitution (Y17W); the KGG spacer is located at the C-terminus of the BAM8-22 peptide; and the PEG-8 linker and the palmitic acid membrane anchor are coupled to the amino side chain group of the C-terminal lysine in the KGG spacer of the BAM8-22 peptide.
A method of manufacturing a flat panel display device, the method comprising: forming a plurality of light emitting units on a first substrate, each of the plurality of light emitting units including a plurality of light emitting elements, wherein, in the forming of the plurality of light emitting units, m light emitting units are arranged in a first direction, and n light emitting units are arranged in a second direction; providing a second substrate opposite to the first substrate; providing glass frits between the first and second substrates (1, 2) so as to surround each light emitting unit; radiating a first laser beam, having a first intensity, on a first area of one of the first and second substrates (1, 2), so as to melt the glass frits and combine the first and second substrates (1, 2); and radiating a second laser beam, having a second intensity, on the first area where the first laser beam has been radiated on, so as to anneal the first or second substrate (1, 2), wherein the second intensity is different from the first intensity, wherein the melting of the glass frits is performed in the first direction, and the annealing of the first or second substrate (1, 2) is performed in an opposite direction to the first direction, and wherein the method further comprises cutting the first and second substrates (1, 2) so as to separate the light emitting units after the annealing of the first or second substrate (1, 2). forming a plurality of light emitting units on a first substrate, each of the plurality of light emitting units including a plurality of light emitting elements, wherein, in the forming of the plurality of light emitting units, m light emitting units are arranged in a first direction, and n light emitting units are arranged in a second direction; providing a second substrate opposite to the first substrate; providing glass frits between the first and second substrates (1, 2) so as to surround each light emitting unit; radiating a first laser beam, having a first intensity, on a first area of one of the first and second substrates (1, 2), so as to melt the glass frits and combine the first and second substrates (1, 2); and radiating a second laser beam, having a second intensity, on the first area where the first laser beam has been radiated on, so as to anneal the first or second substrate (1, 2), wherein the second intensity is different from the first intensity, wherein the melting of the glass frits is performed in the first direction, and the annealing of the first or second substrate (1, 2) is performed in an opposite direction to the first direction, and wherein the method further comprises cutting the first and second substrates (1, 2) so as to separate the light emitting units after the annealing of the first or second substrate (1, 2).
A take-apart vehicle wheel assembly comprising: an inner wheel part defining an axis and including a generally radially extending annular flange having an outboard surface, the radially extending annular flange of the inner wheel part having a plurality of stud receiving holes formed therein; an outer wheel part configured to be secured to the inner wheel part, the outer wheel part including a generally radially extending annular flange having an inboard surface, the radially extending annular flange of the outer wheel part having a plurality of stud receiving holes formed therein; a gap defined between the outboard surface of the inner wheel part and the inboard surface of the outer wheel part in an area adjacently surrounding each of the plurality of stud receiving holes formed therein; and a seal (16, 16', 160, 202, 302) disposed in the gap whereby when the inner wheel part and the outer wheel part are secured together using studs and nuts the seal is operative to produce a seal between the inner wheel part and the outer wheel part; wherein the gap is formed by providing a recess in at least one of the outboard surface of the inner wheel part and the inboard surface of the outer wheel part in at least a portion of the area adjacently surrounding each of the plurality of stud receiving holes formed therein, characterised in that the seal includes at least two tabs formed thereon for at least one of anti-rotation and positional control thereof during assembly. an inner wheel part defining an axis and including a generally radially extending annular flange having an outboard surface, the radially extending annular flange of the inner wheel part having a plurality of stud receiving holes formed therein; an outer wheel part configured to be secured to the inner wheel part, the outer wheel part including a generally radially extending annular flange having an inboard surface, the radially extending annular flange of the outer wheel part having a plurality of stud receiving holes formed therein; a gap defined between the outboard surface of the inner wheel part and the inboard surface of the outer wheel part in an area adjacently surrounding each of the plurality of stud receiving holes formed therein; and a seal (16, 16', 160, 202, 302) disposed in the gap whereby when the inner wheel part and the outer wheel part are secured together using studs and nuts the seal is operative to produce a seal between the inner wheel part and the outer wheel part; wherein the gap is formed by providing a recess in at least one of the outboard surface of the inner wheel part and the inboard surface of the outer wheel part in at least a portion of the area adjacently surrounding each of the plurality of stud receiving holes formed therein, characterised in that the seal includes at least two tabs formed thereon for at least one of anti-rotation and positional control thereof during assembly.
Method for adjusting an initial starting position of an acquisition trajectory (201, 202, 203) of a mobile X-ray device to perform a portable X-ray tomography acquisition sequence on a region of interest of an object, comprising the steps of: - positioning said mobile X-ray device at said initial starting position such that an estimated acquisition trajectory is aligned with a digital imaging detector by an operator, - receiving X-ray source collimator settings, - calculating said acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position, characterized in that, - the acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position is visualized for each change in position of said mobile X-ray device, - said initial starting position for said acquisition trajectory is adjusted interactively by said operator by moving said mobile X-ray device, such that a trajectory portion of said visualized acquisition trajectory is aligned with said region of interest of said patient. - positioning said mobile X-ray device at said initial starting position such that an estimated acquisition trajectory is aligned with a digital imaging detector by an operator, - receiving X-ray source collimator settings, - calculating said acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position, characterized in that, - the acquisition trajectory of said mobile X-ray device during said portable X-ray tomography acquisition sequence for said initial starting position is visualized for each change in position of said mobile X-ray device, - said initial starting position for said acquisition trajectory is adjusted interactively by said operator by moving said mobile X-ray device, such that a trajectory portion of said visualized acquisition trajectory is aligned with said region of interest of said patient.
A method for producing proppants with a nanocomposite proppant coating, the method comprising: coating proppant particles with a nano-reinforcing agent, a surface modifier, and a resin to produce proppants with nanocomposite proppant coating, in which: the nano-reinforcing agent comprises nano-silica, nano-alumina, nano-zinc oxide, carbon nanotubes, graphene nanotubes, nano-calcium carbonate, mica, vanadium pentoxide, boron nitride nanotubes, nano-zirconium oxide, or combinations of these; and the surface modifier comprises an alkyl fluorosilane solution, a fluorinated surfactant, a fluorinated polymer, a fluorinated polymeric surfactant, or combinations of these. the nano-reinforcing agent comprises nano-silica, nano-alumina, nano-zinc oxide, carbon nanotubes, graphene nanotubes, nano-calcium carbonate, mica, vanadium pentoxide, boron nitride nanotubes, nano-zirconium oxide, or combinations of these; and the surface modifier comprises an alkyl fluorosilane solution, a fluorinated surfactant, a fluorinated polymer, a fluorinated polymeric surfactant, or combinations of these.