mhurhangee/patent-ind-claim-en huggingface dataset:
A tyre for motor-vehicle wheels, comprising: a carcass structure including a pair of beads having the same radial distance from a rotation axis (X-X) of the tyre ; a tread band disposed at a radially external position with respect to the carcass structure ; wherein, in each radial half-section of the tyre , the tread band is symmetric relative to a symmetry axis (S) thereof; wherein, in each radial half-section, a medium line (lm) of the tread band and the rotation axis (X-X) of the tyre form a predetermined angle (α) different from zero, wherein axial end portions of the tread band have different axial distances (z1, z2) from the mid-line plane (P T ) of the tyre , characterized in that the axial end portion that is axially the farthest from the mid-line plane (P T ) is also the one that is radially the farthest from the rotation axis (X-X). a carcass structure including a pair of beads having the same radial distance from a rotation axis (X-X) of the tyre ; a tread band disposed at a radially external position with respect to the carcass structure ; wherein, in each radial half-section of the tyre , the tread band is symmetric relative to a symmetry axis (S) thereof; wherein, in each radial half-section, a medium line (lm) of the tread band and the rotation axis (X-X) of the tyre form a predetermined angle (α) different from zero, wherein axial end portions of the tread band have different axial distances (z1, z2) from the mid-line plane (P T ) of the tyre , characterized in that the axial end portion that is axially the farthest from the mid-line plane (P T ) is also the one that is radially the farthest from the rotation axis (X-X).
A wireless device comprising: an antenna device ; a transceiver ; a processor ; and memory , wherein the wireless device is configured to: receive, from a base station , system information comprising a parameter, wherein the parameter comprises: a first bitmap indicating a plurality of groups in which at least one synchronization signal, SS, block is transmitted, wherein, when a frequency band used by the wireless device satisfies a threshold frequency, the first bitmap indicates presence of the plurality of groups within an SS burst set, and wherein the first bitmap is present only when the frequency band used by the wireless device satisfies the threshold frequency; and a second bitmap indicating a position of one or more transmission SS blocks in each of the plurality of groups; and detect, based on the parameter and from one or more transmission SS blocks in the plurality of groups, a Physical Broadcast Channel, PBCH, and a synchronization signal. an antenna device ; a transceiver ; a processor ; and memory , receive, from a base station , system information comprising a parameter, wherein the parameter comprises: a first bitmap indicating a plurality of groups in which at least one synchronization signal, SS, block is transmitted, wherein, when a frequency band used by the wireless device satisfies a threshold frequency, the first bitmap indicates presence of the plurality of groups within an SS burst set, and wherein the first bitmap is present only when the frequency band used by the wireless device satisfies the threshold frequency; and a second bitmap indicating a position of one or more transmission SS blocks in each of the plurality of groups; and a first bitmap indicating a plurality of groups in which at least one synchronization signal, SS, block is transmitted, wherein, when a frequency band used by the wireless device satisfies a threshold frequency, the first bitmap indicates presence of the plurality of groups within an SS burst set, and wherein the first bitmap is present only when the frequency band used by the wireless device satisfies the threshold frequency; and a second bitmap indicating a position of one or more transmission SS blocks in each of the plurality of groups; and detect, based on the parameter and from one or more transmission SS blocks in the plurality of groups, a Physical Broadcast Channel, PBCH, and a synchronization signal.
A cooker characterised in that , it comprises: at least one input electric terminal and at least one output electric terminal arranged to be electrically shorted by a heating resistor of a cooking vessel when said cooking vessel is placed on the cooker ; and a control unit configured to adjust a voltage supplied to the at least one input electric terminal and the at least one output electric terminal . at least one input electric terminal and at least one output electric terminal arranged to be electrically shorted by a heating resistor of a cooking vessel when said cooking vessel is placed on the cooker ; and a control unit configured to adjust a voltage supplied to the at least one input electric terminal and the at least one output electric terminal .
A motor vehicle body with an inner body structure and an outer body shell , wherein the body structure has, in the region of a vehicle front section , a left support bracket and a right support bracket and a left shock absorber plate and a right shock absorber plate for holding in each case a shock-absorbing leg belonging to the chassis of the vehicle, wherein the respective shock absorber plate is positioned on the side of the associated support bracket which is situated on the longitudinal median plane (XZ) of the vehicle and wherein the body shell has a left front body side part , a right front body side part and a front flap positioned between these front body side parts in the region of the vehicle front section , characterised in that the left front body side part covers the left shock absorber plate , the right front body side part covers the right shock absorber plate, a left front body shell support element , which supports the left front body side part above the upper side of the left shock absorber plate and determines a vertical distance between the shock absorber plate and the left front body side part , through which the upper side of the left shock absorber plate remains accessible, is attached to the left support bracket , and a right front body shell support element, which supports the right front body side part above the upper side of the right shock absorber plate and determines a vertical distance between the shock absorber plate and the right front body side part, through which the upper side of the right shock absorber plate remains accessible, is attached to the right support bracket.
A digital subscriber line, DSL, central office apparatus operable in an initialization mode to initialize DSL operation and a showtime operation mode to transmit data, characterized by : a controller configured to set a power-saving state of the showtime operation mode; and a transmitter configured to transmit a synchronization signal in the power-saving state of the showtime operation mode, and to transmit a message referring to at least one DSL operation parameter in the power-saving state of the showtime mode. a controller configured to set a power-saving state of the showtime operation mode; and a transmitter configured to transmit a synchronization signal in the power-saving state of the showtime operation mode, and to transmit a message referring to at least one DSL operation parameter in the power-saving state of the showtime mode.
Method for operating an oscillating drive for an oscillating conveyor device , such as a conveyor trough, a screen or a separator, wherein an electromagnet is supplied with a drive voltage with a drive frequency and is thereby set in oscillation relative to an armature coupled via a spring , the drive voltage running at least substantially symmetrically with respect to the zero line, characterized in that the derivative of the drive voltage when passing through or approaching the zero line is at least substantially zero.
A secondary battery comprising: an electrode that includes a strip-shaped metal foil (32c; 45) having both surfaces, mixture layers on both the surfaces, a metal foil exposed portion , and insulating layers , the metal foil exposed portion where the metal foil (32c; 45) is exposed being formed in an end portion on one side in a width direction of the metal foil (32c; 45), the insulating layers being disposed on the mixture layers and on the metal foil exposed portion , wherein the insulating layer includes a window portion at a position corresponding to a boundary part between the mixture layer and the metal foil exposed portion , an end portion of the mixture layer being visually recognizable from the window portion , and wherein the window portion has an opening or a transparent thin film portion, the end portion of the mixture layer being exposed from the opening, the thin film portion having a thickness, t2, thinner than a part laminated on the mixture layer , the end portion of the mixture layer being visually recognizable through the thin film portion. an electrode that includes a strip-shaped metal foil (32c; 45) having both surfaces, mixture layers on both the surfaces, a metal foil exposed portion , and insulating layers , the metal foil exposed portion where the metal foil (32c; 45) is exposed being formed in an end portion on one side in a width direction of the metal foil (32c; 45), the insulating layers being disposed on the mixture layers and on the metal foil exposed portion , wherein the insulating layer includes a window portion at a position corresponding to a boundary part between the mixture layer and the metal foil exposed portion , an end portion of the mixture layer being visually recognizable from the window portion , and wherein the window portion has an opening or a transparent thin film portion, the end portion of the mixture layer being exposed from the opening, the thin film portion having a thickness, t2, thinner than a part laminated on the mixture layer , the end portion of the mixture layer being visually recognizable through the thin film portion.
An air-stable Ni(R) 3 -complex wherein Ni represents Ni and R may be the same or different and represents a trans -stilbene of the Formula (I): wherein R 1 to R 10 may be the same or different and are selected from H, Cl, Br, F, CN, C 1 to C 8 alkyl or C 3 to C 6 cycloalkyl which alkyl or cycloalkyl may optionally be substituted by one or more halogens, wherein R 11 to R 12 may be the same or different and are selected from H, C 1 to C 8 alkyl, C 3 to C 6 cycloalkyl, -O-C 1 to C 8 alkyl, or -O-C 3 to C 6 cycloalkyl, with the proviso that at least one of R 1 to R 12 is not hydrogen. wherein R 1 to R 10 may be the same or different and are selected from H, Cl, Br, F, CN, C 1 to C 8 alkyl or C 3 to C 6 cycloalkyl which alkyl or cycloalkyl may optionally be substituted by one or more halogens, wherein R 11 to R 12 may be the same or different and are selected from H, C 1 to C 8 alkyl, C 3 to C 6 cycloalkyl, -O-C 1 to C 8 alkyl, or -O-C 3 to C 6 cycloalkyl, with the proviso that at least one of R 1 to R 12 is not hydrogen.
An aspirating detector system comprising: a detector including, a chamber having an inlet and an outlet for flow of an analyte (F), a light source adjacent the chamber, the light source, when operated, emitting a laser light beam (B) through the chamber over a range of wavelengths, wherein the light source is aimed at the outlet such that, when operated, the laser light beam exits the chamber through the outlet, and a sensor adjacent the chamber and operable to emit sensor signals responsive to received light from interaction of the laser light beam with the analyte; and a controller connected to receive the sensor signals, the controller configured to determine whether a target substance is present in the analyte based on an intensity of the received light via the sensor signals. a detector including, a chamber having an inlet and an outlet for flow of an analyte (F), a light source adjacent the chamber, the light source, when operated, emitting a laser light beam (B) through the chamber over a range of wavelengths, wherein the light source is aimed at the outlet such that, when operated, the laser light beam exits the chamber through the outlet, and a sensor adjacent the chamber and operable to emit sensor signals responsive to received light from interaction of the laser light beam with the analyte; and a chamber having an inlet and an outlet for flow of an analyte (F), a light source adjacent the chamber, the light source, when operated, emitting a laser light beam (B) through the chamber over a range of wavelengths, wherein the light source is aimed at the outlet such that, when operated, the laser light beam exits the chamber through the outlet, and a sensor adjacent the chamber and operable to emit sensor signals responsive to received light from interaction of the laser light beam with the analyte; and a controller connected to receive the sensor signals, the controller configured to determine whether a target substance is present in the analyte based on an intensity of the received light via the sensor signals.
An aluminum alloy product comprising: a 6xxx series aluminum alloy comprising up to 1.8 wt.% silicon; up to 1.8 wt.% iron; up to 1.5 wt.% copper; up to 0.5 wt.% manganese; from 0.2 wt.% to 3.0 wt.% magnesium; up to 0.25 wt.% titanium; up to 1.5 wt.% zinc; up to 1 wt.% nickel; up to 0.25 wt.% vanadium; up to 0.25 wt.% zirconium; up to 0.5 wt.% chromium; and up to 0.15 wt.% impurities, and the remainder aluminum, wherein a ratio of the total concentration of α-phase-stabilizing alloying elements to an amount of excess silicon in the 6xxx series aluminum alloy is greater than or about 1.0, wherein the α-phase-stabilizing alloying elements comprise one or more of copper, chromium, manganese, zirconium or vanadium; wherein the 6xxx series aluminum alloy includes β-phase intermetallic particles and α-phase intermetallic particles; and wherein a weight percent ratio of the α-phase intermetallic particles to the β-phase intermetallic particles in the aluminum alloy product is greater than 2.0. a 6xxx series aluminum alloy comprising up to 1.8 wt.% silicon; up to 1.8 wt.% iron; up to 1.5 wt.% copper; up to 0.5 wt.% manganese; from 0.2 wt.% to 3.0 wt.% magnesium; up to 0.25 wt.% titanium; up to 1.5 wt.% zinc; up to 1 wt.% nickel; up to 0.25 wt.% vanadium; up to 0.25 wt.% zirconium; up to 0.5 wt.% chromium; and up to 0.15 wt.% impurities, and the remainder aluminum, wherein a ratio of the total concentration of α-phase-stabilizing alloying elements to an amount of excess silicon in the 6xxx series aluminum alloy is greater than or about 1.0, wherein the α-phase-stabilizing alloying elements comprise one or more of copper, chromium, manganese, zirconium or vanadium; wherein the 6xxx series aluminum alloy includes β-phase intermetallic particles and α-phase intermetallic particles; and wherein a weight percent ratio of the α-phase intermetallic particles to the β-phase intermetallic particles in the aluminum alloy product is greater than 2.0.
A method for measuring at least one characteristic of an aqueous sample, comprising: introducing an aqueous sample with a transition metal into a measurement device comprising an anode and a cathode; oxidizing a transition metal to produce a higher valent metal by applying an electrical potential between the anode and the cathode of the measurement device; oxidizing , using the higher valent metal as a catalyst, a material within the aqueous sample; measuring a characteristic of the aqueous sample based upon the oxidized material, using an electrochemical measurement device and an optical measurement device; optimizing the electrical potential and at least one reagent delivered to the measurement device based on the measurement of the characteristic; and wherein the measurement device comprises a membrane disposed between the anode and the cathode, and wherein the position of the membrane can be adjusted between the anode and the cathode. introducing an aqueous sample with a transition metal into a measurement device comprising an anode and a cathode; oxidizing a transition metal to produce a higher valent metal by applying an electrical potential between the anode and the cathode of the measurement device; oxidizing , using the higher valent metal as a catalyst, a material within the aqueous sample; measuring a characteristic of the aqueous sample based upon the oxidized material, using an electrochemical measurement device and an optical measurement device; optimizing the electrical potential and at least one reagent delivered to the measurement device based on the measurement of the characteristic; and wherein the measurement device comprises a membrane disposed between the anode and the cathode, and wherein the position of the membrane can be adjusted between the anode and the cathode.
A method comprising: restarting, by a wireless device , a deactivation timer of a first secondary cell configured with one or more beam failure recovery, BFR, parameters in response to receiving a physical downlink control channel indicating an uplink grant or a downlink assignment for any secondary cell, other than the first secondary cell, in a cell group of secondary cells comprising: the first secondary cell; and one or more further secondary cells configured to use the first secondary cell for a BFR procedure of the cell group; and deactivating the first secondary cell based on an expiry of the deactivation timer. restarting, by a wireless device , a deactivation timer of a first secondary cell configured with one or more beam failure recovery, BFR, parameters in response to receiving a physical downlink control channel indicating an uplink grant or a downlink assignment for any secondary cell, other than the first secondary cell, in a cell group of secondary cells comprising: the first secondary cell; and one or more further secondary cells configured to use the first secondary cell for a BFR procedure of the cell group; and the first secondary cell; and one or more further secondary cells configured to use the first secondary cell for a BFR procedure of the cell group; and deactivating the first secondary cell based on an expiry of the deactivation timer.
A material delivery device for an additive manufacturing device adapted for manufacturing objects through deposition of additive material over a build surface, wherein the additive manufacturing device comprises: - an electric power source; - a material feeding conduit comprising an inner tube and an outer tube , wherein the material feeding conduit feeds the inner tube with the additive material and the inner tube and the outer tube are electrically connected to the electric power source; and wherein the material delivery device is in electrical and mechanical contact with the material feeding conduit , the material delivery device comprising: - an inner funnel having a large aperture and a small aperture whereby the inner funnel is configured to guide the additive material from the large aperture to the small aperture, and - an outer funnel located external to the inner funnel , the outer funnel having a small aperture wherein the outer funnel is joined to the inner funnel about the small aperture of the inner funnel and the small aperture of the outer funnel , the outer funnel having a large aperture which is configured to be in electrical and mechanical contact with the outer tube and wherein the large aperture of the inner funnel is in electrical and mechanical contact with the inner tube ; wherein the inner funnel is electrically conductive and, upon applying an electrical current to the inner funnel , heat is generated thereby heating the additive material travelling in the inner funnel . - an electric power source; - a material feeding conduit comprising an inner tube and an outer tube , wherein the material feeding conduit feeds the inner tube with the additive material and the inner tube and the outer tube are electrically connected to the electric power source; - an inner funnel having a large aperture and a small aperture whereby the inner funnel is configured to guide the additive material from the large aperture to the small aperture, and - an outer funnel located external to the inner funnel , the outer funnel having a small aperture wherein the outer funnel is joined to the inner funnel about the small aperture of the inner funnel and the small aperture of the outer funnel , the outer funnel having a large aperture which is configured to be in electrical and mechanical contact with the outer tube and wherein the large aperture of the inner funnel is in electrical and mechanical contact with the inner tube ; wherein the inner funnel is electrically conductive and, upon applying an electrical current to the inner funnel , heat is generated thereby heating the additive material travelling in the inner funnel .
A method comprising: creating an account with an elevator system ; assigning a primary user to the account; assigning a secondary user to the account; associating elevator access privileges to the secondary user , the elevator access privileges including floors of a building that the secondary user can access via the elevator system ; associating a home floor with the secondary user; receiving a selection of the home floor from a mobile device associated with the secondary user; and initiating elevator service to the home floor for the secondary user. creating an account with an elevator system ; assigning a primary user to the account; assigning a secondary user to the account; associating elevator access privileges to the secondary user , the elevator access privileges including floors of a building that the secondary user can access via the elevator system ; associating a home floor with the secondary user; receiving a selection of the home floor from a mobile device associated with the secondary user; and initiating elevator service to the home floor for the secondary user.