mhurhangee/patent-ind-claim-en huggingface dataset:
A metal strip (L) for forming an oil-well cleaning pipe, wherein: a thickness of each of a head end portion and a tail end portion , which are longitudinal end portions, is greater than a thickness of an intermediate portion excluding the longitudinal end portions; the metal strip includes the longitudinal end portions , a longitudinal middle portion located between the longitudinal end portions, and two inclined portions connecting the longitudinal end portions to the longitudinal middle portion , thicknesses of the two inclined portions continuously and monotonically decrease from the longitudinal end portions toward the longitudinal middle portion , wherein the metal strip has a thickness along the longitudinal direction such that a ratio ((A-B)/A) is 7% or more and 50% or less, where A is a maximum thickness of the longitudinal end portions and B is a minimum thickness of the longitudinal middle portion , and wherein the metal strip is a metal strip having a thickness in the range of 1.0 to 8.0 mm and a total length in the range of 80 to 1000 m, and wherein a rate of change in the thickness of each of the inclined portions along the longitudinal direction is 0.001 [mm/m] or more and 0.1 [mm/m] or less. a thickness of each of a head end portion and a tail end portion , which are longitudinal end portions, is greater than a thickness of an intermediate portion excluding the longitudinal end portions; the metal strip includes the longitudinal end portions , a longitudinal middle portion located between the longitudinal end portions, and two inclined portions connecting the longitudinal end portions to the longitudinal middle portion , thicknesses of the two inclined portions continuously and monotonically decrease from the longitudinal end portions toward the longitudinal middle portion , wherein the metal strip has a thickness along the longitudinal direction such that a ratio ((A-B)/A) is 7% or more and 50% or less, where A is a maximum thickness of the longitudinal end portions and B is a minimum thickness of the longitudinal middle portion , and wherein the metal strip is a metal strip having a thickness in the range of 1.0 to 8.0 mm and a total length in the range of 80 to 1000 m, and wherein a rate of change in the thickness of each of the inclined portions along the longitudinal direction is 0.001 [mm/m] or more and 0.1 [mm/m] or less.
Electrical bushing comprising: a mounting flange comprising a main flange element having a first bushing contact surface , and a ring element having a second bushing contact surface ; at least one locking element ; a body element comprising a circumferential protrusion having a first flange contact surface for contacting the first bushing contact surface and a second flange contact surface for contacting the second bushing contact surface , wherein at least one first recess is formed in the circumferential protrusion , characterized in that the at least one locking element is formed as a separate element which is configured to engage with the at least one first recess and with the mounting flange for restricting relative rotation of the body element relative to the mounting flange about a longitudinal axis (R) but allowing relative rotation of the body element relative to the mounting flange prior to being locked in place. a mounting flange comprising a main flange element having a first bushing contact surface , and a ring element having a second bushing contact surface ; a main flange element having a first bushing contact surface , and a ring element having a second bushing contact surface ; at least one locking element ; a body element comprising a circumferential protrusion having a first flange contact surface for contacting the first bushing contact surface and a second flange contact surface for contacting the second bushing contact surface , wherein at least one first recess is formed in the circumferential protrusion , characterized in that the at least one locking element is formed as a separate element which is configured to engage with the at least one first recess and with the mounting flange for restricting relative rotation of the body element relative to the mounting flange about a longitudinal axis (R) but allowing relative rotation of the body element relative to the mounting flange prior to being locked in place.
Method for producing an animal feed comprising adding a Bacillus composition to animal feed components comprising non-starch polysaccharides, wherein the method comprises determining the capability of increasing the amount of available sugar by incubating the animal feed components with the Bacillus composition comprising at least one Bacillus strain at 37 °C for 24 hours, measuring the absorbance of dinitrosalicylic acid (DNS) at OD 540 , and calculating the amount of hexose equivalents produced by correlating the measured absorbance to a standard curve, wherein the Bacillus composition is capable of increasing the amount of available sugar from the animal feed components to an amount of at least 120 hexose equivalents expressed as μmol/ml.
A drum for producing vehicle tires, in particular tires for bicycles, motorcycles, scooters or the like, the drum comprising a clamping device having center segments for holding a tire carcass and at least one turning-up device for turning up a sidewall strip of the tire carcass over a bead core of the tire, the turning-up device comprising a lever mechanism , the lever mechanism having a plurality of levers by means of which the sidewall strip is configured to be turned up, the center segments having an axial length A towards a longitudinal axis of the drum, the levers having a length A', the length A' of the levers being greater than or equal to the length A of the center segments characterized in that the sidewall strip is configured to be turned up over the total length A of the center segments by means of the lever, the lever mechanism having a plurality of guide elements , the guide elements being disposed between the levers of the lever mechanism.
An initiator assembly for an automotive safety device comprising: a tubular housing with a first end and a second end ; a cruciform formed in the second end of the tubular housing ; and a pyrotechnic load disposed within the tubular housing at the second end , the pyrotechnic load formed to define a void comprising an open end and a tip , the void further comprising sides that extend from the open end to the tip and angle toward the second end of the tubular housing and toward a longitudinal axis (A1) of the tubular housing , wherein the sides of the void transition into a tip portion of the void that comprises a geometry distinct from the sides. a tubular housing with a first end and a second end ; a cruciform formed in the second end of the tubular housing ; and a pyrotechnic load disposed within the tubular housing at the second end , the pyrotechnic load formed to define a void comprising an open end and a tip , the void further comprising sides that extend from the open end to the tip and angle toward the second end of the tubular housing and toward a longitudinal axis (A1) of the tubular housing , wherein the sides of the void transition into a tip portion of the void that comprises a geometry distinct from the sides.
A vehicle comprising: a passenger compartment , which is designed to accommodate occupants and is provided with at least one support surface on which to place a mobile phone ; and a wireless charger , which is arranged under the support surface and is designed to generate an electromagnetic field in order to charge the mobile phone placed on the support surface ; wherein the wireless charger comprises: at least one coil generating the electromagnetic field, a power supply circuit designed to supply power to the coil , and a heat sink emitting the heat generated by the coil and by the power supply circuit to the outside; the vehicle is characterized in that it comprises at least one Peltier cell having a cool wall facing the support surface , and a hot wall facing the heat sink . a passenger compartment , which is designed to accommodate occupants and is provided with at least one support surface on which to place a mobile phone ; and a wireless charger , which is arranged under the support surface and is designed to generate an electromagnetic field in order to charge the mobile phone placed on the support surface ; wherein the wireless charger comprises: at least one coil generating the electromagnetic field, a power supply circuit designed to supply power to the coil , and a heat sink emitting the heat generated by the coil and by the power supply circuit to the outside; the vehicle is characterized in that it comprises at least one Peltier cell having a cool wall facing the support surface , and a hot wall facing the heat sink .
A flexible radar support for absorbing vibration deviation for an automobile, comprising a support base and a support top cover , the radar being part of a bumper of the automobile, the support top cover being engaged with the support base in an interlocking manner, a housing space for arranging the radar being formed between the support base and the support top cover , the support base comprising: a centrally arranged base center , and a base edge circumferentially arranged around the base center , characterized in that , the base edge and the base center being connected through four flexible structures that form U-shaped cantilever beams protruding towards the support top cover , wherein the four U-shaped cantilever beams are symmetrically arranged in four directions of up, down, left, and right directions, respectively.
A rifle scope with spiral cam mechanism comprising: a scope body ; a movable optical element defining an optical axis connected to the scope body; a turret having a screw operably connected to the optical element for adjusting the optical axis in response to rotation of the screw, the turret further having a knob operably connected to the screw to adjust the position of the screw and having a spiral cam mechanism; the spiral cam mechanism defining a first stop surface positioned for engagement by a cam pin to limit rotation of the turret, such that the position at which the stop element engages the first stop surface defines a zero position of the screw and the movable optical element; the spiral cam mechanism defining a second stop surface positioned for engagement by the cam pin to limit rotation of the turret, such that the position at which the stop element engages the second stop surface defines a maximum point of displacement of the screw and the moveable optical element; wherein the first stop surface and second stop surface are connected by a channel ; wherein the channel overlaps itself at least partially; an elevation indicator connected to the cam pin, wherein the elevation indicator moves outwards or inwards, respectively, from the turret each time the turret undergoes a full revolution between the first stop surface and the second stop surface. a scope body ; a movable optical element defining an optical axis connected to the scope body; a turret having a screw operably connected to the optical element for adjusting the optical axis in response to rotation of the screw, the turret further having a knob operably connected to the screw to adjust the position of the screw and having a spiral cam mechanism; the spiral cam mechanism defining a first stop surface positioned for engagement by a cam pin to limit rotation of the turret, such that the position at which the stop element engages the first stop surface defines a zero position of the screw and the movable optical element; the spiral cam mechanism defining a second stop surface positioned for engagement by the cam pin to limit rotation of the turret, such that the position at which the stop element engages the second stop surface defines a maximum point of displacement of the screw and the moveable optical element; wherein the first stop surface and second stop surface are connected by a channel ; wherein the channel overlaps itself at least partially; an elevation indicator connected to the cam pin, wherein the elevation indicator moves outwards or inwards, respectively, from the turret each time the turret undergoes a full revolution between the first stop surface and the second stop surface.
A circuit arrangement for monitoring a voltage (Vdd), comprising a comparator circuit (CP1, CP2) in the manner of a window comparator, with which two potentials (V+; V-) derived from the voltage (Vdd) to be monitored can be compared to a reference potential (Vref) in order to monitor whether the voltage (Vdd) to be monitored is between a lower and upper limit value (Vdd,L; Vdd,H) and to determine a false voltage, characterized in that the circuit arrangement comprises two voltage dividers, wherein the potentials (V+; V-) derived from the voltage (Vdd) to be monitored are each picked off at one of the two voltage dividers (102; 104), wherein the two voltage dividers (102; 104) are switched in parallel and each of the two voltage dividers (102; 104) comprises a series circuit of at least two resistors (R1, R2; R4, R5), wherein a resistance within each of the two voltage dividers (102;104) can be changed in such a way that a changed upper limit value (Vdd,Htest) results, which also exceeds the voltage (Vdd) to be monitored when no overvoltage above the upper limit value (Vdd,H) is present, and a changed lower limit value (Vdd,Ltest) results, which also falls below the voltage (Vdd) to be monitored when no undervoltage below the lower limit value (Vdd,L) is present and as a result a false voltage can be simulated, and wherein the resistance within each of the two voltage dividers (102; 104) can be changed in that a current path (118; 120) that is switched electrically parallel to a resistor (R1; R5) of the respective voltage divider (102; 104), which current path comprises a further resistor (R3; R6), is closed by a switching element (T1; T2).
A flexible display , comprising: a first layer and a second layer , a bonding layer disposed between the first layer and the second layer , wherein the bonding layer comprises an interlocking device , wherein the interlocking device comprises a first interlocking component attached to or integrated with the first layer and a second interlocking component attached to or integrated with the second layer configured to engage with the first interlocking component such that the engagement prevents the separation of the first layer from the second layer along a direction generally perpendicular to a surface of the second layer , wherein the interlocking device further comprises an optical coupler between the first interlocking component and the second interlocking component and the optical coupler is liquid, gel or a combination thereof. a first layer and a second layer , a bonding layer disposed between the first layer and the second layer , wherein the bonding layer comprises an interlocking device , wherein the interlocking device comprises a first interlocking component attached to or integrated with the first layer and a second interlocking component attached to or integrated with the second layer configured to engage with the first interlocking component such that the engagement prevents the separation of the first layer from the second layer along a direction generally perpendicular to a surface of the second layer , wherein the interlocking device further comprises an optical coupler between the first interlocking component and the second interlocking component and the optical coupler is liquid, gel or a combination thereof.
A telecommunications system comprising: - a chassis defining a first side and an opposite second side ; - a tray pivotally mounted to the chassis between a closed storage position and an open access position relative to the chassis ; - at least one telecommunications component removably mounted to the tray ; - wherein one of an input or output cable from the telecommunications component extends out to an exterior of the chassis from the first side of the chassis ; - and wherein the other of the input or output cables from the telecommunications component follows a cable path across the chassis , positioned above the pivotable tray , and extends out to the exterior of the chassis from the opposite second side of the chassis ; characterised in that - the other of the input or output cables extending across the chassis is positioned within a trough defined by a cover of the chassis , the trough being located at an underside of the cover at a front side of the chassis , the trough extending from the first side toward the second side of the chassis , - the other of the input or output cables is positioned within the trough to keep the other of the input or output cables out of the way of the tray during pivotal movement of the tray and the other of the input of output cables is fixedly attached to the cover via the trough to limit movement of the other of the input or output cables during pivotal movement of the tray . - a chassis defining a first side and an opposite second side ; - a tray pivotally mounted to the chassis between a closed storage position and an open access position relative to the chassis ; - at least one telecommunications component removably mounted to the tray ; - wherein one of an input or output cable from the telecommunications component extends out to an exterior of the chassis from the first side of the chassis ; - and wherein the other of the input or output cables from the telecommunications component follows a cable path across the chassis , positioned above the pivotable tray , and extends out to the exterior of the chassis from the opposite second side of the chassis ; characterised in that - the other of the input or output cables extending across the chassis is positioned within a trough defined by a cover of the chassis , the trough being located at an underside of the cover at a front side of the chassis , the trough extending from the first side toward the second side of the chassis , - the other of the input or output cables is positioned within the trough to keep the other of the input or output cables out of the way of the tray during pivotal movement of the tray and the other of the input of output cables is fixedly attached to the cover via the trough to limit movement of the other of the input or output cables during pivotal movement of the tray .
Lipid nanocapsule containing an oily internal phase which is liquid or semi-liquid at room temperature and a solid or semi-solid non-polymeric shell obtained from at least one surfactant selected from lecithins, characterized in that it contains 3"-tert-butyl-4'-(2-hydroxy-ethoxy)-4"-pyrrolidin-1-yl-[1,1';3',1"] terphenyl-4-carboxylic acid as a solubilized irritant active principle, and in that it does not comprise an alcoholic organic solvent.
A method of drilling a borehole , comprising: generating periodically spaced acoustic pulses at a surface location , wherein the periodically spaced acoustic pulses are generated at times provided by a surface clock at a surface location ; recording arrival times of the acoustic pulses at a downhole end of a drill string in the borehole ; and using a downhole processor to: calculate travel times of the acoustic pulses using the recorded arrival times and without referring to the times from the surface clock ; determine a length of the drill string between the surface location and a drill bit at the downhole end using the calculated travel times; correct the determined length using a known acoustic impedance of the drill string ; obtain an azimuth angle and inclination of the drill bit ; determine a position and orientation of the drill bit from the corrected length, the obtained azimuth angle and inclination of the drill bit ; determine a trajectory for the borehole using in-situ formation measurements obtained downhole; and alter a steering parameter of the drill bit using the determined position and orientation of the drill bit to obtain the determined trajectory of the borehole. generating periodically spaced acoustic pulses at a surface location , wherein the periodically spaced acoustic pulses are generated at times provided by a surface clock at a surface location ; recording arrival times of the acoustic pulses at a downhole end of a drill string in the borehole ; and using a downhole processor to: calculate travel times of the acoustic pulses using the recorded arrival times and without referring to the times from the surface clock ; determine a length of the drill string between the surface location and a drill bit at the downhole end using the calculated travel times; correct the determined length using a known acoustic impedance of the drill string ; obtain an azimuth angle and inclination of the drill bit ; determine a position and orientation of the drill bit from the corrected length, the obtained azimuth angle and inclination of the drill bit ; determine a trajectory for the borehole using in-situ formation measurements obtained downhole; and alter a steering parameter of the drill bit using the determined position and orientation of the drill bit to obtain the determined trajectory of the borehole. calculate travel times of the acoustic pulses using the recorded arrival times and without referring to the times from the surface clock ; determine a length of the drill string between the surface location and a drill bit at the downhole end using the calculated travel times; correct the determined length using a known acoustic impedance of the drill string ; obtain an azimuth angle and inclination of the drill bit ; determine a position and orientation of the drill bit from the corrected length, the obtained azimuth angle and inclination of the drill bit ; determine a trajectory for the borehole using in-situ formation measurements obtained downhole; and alter a steering parameter of the drill bit using the determined position and orientation of the drill bit to obtain the determined trajectory of the borehole.
A motor comprising: a power section stator having a first end, a second end, and an internal cavity passing therethrough; a rotor assembly comprising a bearing set , a drivetrain , and a power section rotor , the rotor assembly being retained in a loadable cartridge; wherein the power section rotor has rotor lobes to cooperate with one or more stator lobes of the power section stator ; the drivetrain is operably coupled to the power section rotor , and the power section rotor positioned at the first end within the internal cavity of the power section stator; and wherein the loadable cartridge is fully encased in the internal cavity of the power section stator . a power section stator having a first end, a second end, and an internal cavity passing therethrough; a rotor assembly comprising a bearing set , a drivetrain , and a power section rotor , the rotor assembly being retained in a loadable cartridge; wherein the power section rotor has rotor lobes to cooperate with one or more stator lobes of the power section stator ; the drivetrain is operably coupled to the power section rotor , and the power section rotor positioned at the first end within the internal cavity of the power section stator; and wherein the loadable cartridge is fully encased in the internal cavity of the power section stator .