mhurhangee/patent-ind-claim-en huggingface dataset:
Passenger service unit for installation in a ceiling area of a passenger seat area of a vehicle , wherein the passenger service unit comprises: - a carrier element that can be extended in a longitudinal direction, wherein the carrier element comprises a first portion and a second portion , wherein the first portion and the second portion of the carrier element are linearly movably coupled to each other via at least one rail; and - a cover , in which at least one electrical and/or electronic element (210 - 216) is integrated, wherein the cover covers at least a section of the carrier element . - a carrier element that can be extended in a longitudinal direction, wherein the carrier element comprises a first portion and a second portion , wherein the first portion and the second portion of the carrier element are linearly movably coupled to each other via at least one rail; and - a cover , in which at least one electrical and/or electronic element (210 - 216) is integrated, wherein the cover covers at least a section of the carrier element .
A user device comprising: a memory device; and a processor subsystem , which when configured by instructions stored on the memory device, is operable to perform operations comprising: receiving, from a verifier device , an indication of supported unclonable functions and a challenge value, optionally wherein the indication of supported unclonable functions is included in a field of a message structure, and optionally wherein the challenge value is a random value; identifying an unclonable function from the supported unclonable functions, to obtain a selected unclonable function; executing the selected unclonable function based on the challenge value, to obtain a result; and transmitting the indication of supported unclonable functions, the selected unclonable function, and the result to the verifier device to authenticate the user device . a memory device; and a processor subsystem , which when configured by instructions stored on the memory device, is operable to perform operations comprising: receiving, from a verifier device , an indication of supported unclonable functions and a challenge value, optionally wherein the indication of supported unclonable functions is included in a field of a message structure, and optionally wherein the challenge value is a random value; identifying an unclonable function from the supported unclonable functions, to obtain a selected unclonable function; executing the selected unclonable function based on the challenge value, to obtain a result; and transmitting the indication of supported unclonable functions, the selected unclonable function, and the result to the verifier device to authenticate the user device . receiving, from a verifier device , an indication of supported unclonable functions and a challenge value, optionally wherein the indication of supported unclonable functions is included in a field of a message structure, and optionally wherein the challenge value is a random value; identifying an unclonable function from the supported unclonable functions, to obtain a selected unclonable function; executing the selected unclonable function based on the challenge value, to obtain a result; and transmitting the indication of supported unclonable functions, the selected unclonable function, and the result to the verifier device to authenticate the user device .
A static electric induction system comprising: - a heat generating electric component ; - a dielectric cooling fluid ; - a cooling passage structure along the electric component ; and - a pump arrangement arranged to alternatingly be controlled in a first mode and in a second mode , wherein in the first mode , the pump arrangement pumps the cooling fluid to be driven through the cooling passage structure in a forward direction to cool the electric component , and wherein in the second mode , the pump arrangement pumps the cooling fluid to be driven through the cooling passage structure in a reverse direction , opposite to the forward direction , to cool the electric component ; characterized in that the cooling fluid is a dielectric liquid with Prandtl number above 20 in a temperature range of operation of the electric component and the static electric induction system further comprising a winding , wherein the electric component is a cable turn of the winding , and wherein the cooling passage structure is arranged along the winding from a bottom part of winding to a top part of the winding . - a heat generating electric component ; - a dielectric cooling fluid ; - a cooling passage structure along the electric component ; and - a pump arrangement arranged to alternatingly be controlled in a first mode and in a second mode , wherein in the first mode , the pump arrangement pumps the cooling fluid to be driven through the cooling passage structure in a forward direction to cool the electric component , and wherein in the second mode , the pump arrangement pumps the cooling fluid to be driven through the cooling passage structure in a reverse direction , opposite to the forward direction , to cool the electric component ;
A device for leveling a column (C) made in a ground (S), the device comprising: • an arm having a longitudinal direction (Y); and • a weakening member configured to be introduced into the column in order to create a material discontinuity making it possible to separate said column into two distinct parts (C1, C2), the weakening member being mounted at a distal end of the arm and being stationary relative to said arm, the weakening member extending in a plane (P) transverse to the longitudinal direction of said arm, the weakening member comprising at least one first branch extending radially from the arm, the arm comprising a proximal end , opposite to said distal end and provided with a gripping element, the weakening member comprising an upper surface directed towards the proximal end of the arm and a lower surface opposite to the upper surface, said device for leveling a column being characterized in that said lower surface is covered with a non-stick layer . • an arm having a longitudinal direction (Y); and • a weakening member configured to be introduced into the column in order to create a material discontinuity making it possible to separate said column into two distinct parts (C1, C2), the weakening member being mounted at a distal end of the arm and being stationary relative to said arm, the weakening member extending in a plane (P) transverse to the longitudinal direction of said arm, the weakening member comprising at least one first branch extending radially from the arm, the arm comprising a proximal end , opposite to said distal end and provided with a gripping element, the weakening member comprising an upper surface directed towards the proximal end of the arm and a lower surface opposite to the upper surface,
A method comprising: receiving (S301) a target DNS response message that is directed to an internal network device and sent from an external network device , the target DNS response message including a source address of the external network device ; determining (S302) whether the target DNS response message satisfies predetermined conditions under a circumstance that a dynamic white list includes the source address included in the target DNS response message; and discarding (S304) the target DNS response message if the target DNS response message satisfies the predetermined conditions, wherein the predetermined conditions include at least a target domain in the target DNS response message not being included in a historical domain name record, each historical domain name in the historical domain name record being extracted from historical DNS response messages sent by the external network device . receiving (S301) a target DNS response message that is directed to an internal network device and sent from an external network device , the target DNS response message including a source address of the external network device ; determining (S302) whether the target DNS response message satisfies predetermined conditions under a circumstance that a dynamic white list includes the source address included in the target DNS response message; and discarding (S304) the target DNS response message if the target DNS response message satisfies the predetermined conditions, wherein the predetermined conditions include at least a target domain in the target DNS response message not being included in a historical domain name record, each historical domain name in the historical domain name record being extracted from historical DNS response messages sent by the external network device .
A drive assembly for a walk-behind, powered device , the drive assembly operably coupling an engine of the powered device to a mobility assembly to provide mobility of the powered device responsive at least in part to operation of the engine , the drive assembly comprising: a transmission shaft selectively receiving drive power operably coupled from the engine to drive a first drivable component and a second drivable component of the mobility assembly , the first and second drivable components being disposed substantially at opposite sides of the powered device ; and a short turning assembly configured to cause both disengagement of drive power and activation of braking to the first drivable component while drive power is provided to the second drivable component , wherein the short turning assembly comprises a first engagement assembly and a first braking assembly , and wherein a single component of the short turning assembly operates to: disengage the first engagement assembly to cause the disengagement of the drive power to the first drivable component , and actuate the first braking assembly to activate the braking of the first drivable component while a second braking assembly is disengaged and a second engagement assembly provides the drive power to the second drivable component characterised in that the single component comprises a pivot arm , the pivot arm being operably coupled to both a brake band of the first braking assembly and a pawl that engages or disengages the first engagement assembly based on a position of the pivot arm . a transmission shaft selectively receiving drive power operably coupled from the engine to drive a first drivable component and a second drivable component of the mobility assembly , the first and second drivable components being disposed substantially at opposite sides of the powered device ; and a short turning assembly configured to cause both disengagement of drive power and activation of braking to the first drivable component while drive power is provided to the second drivable component , wherein the short turning assembly comprises a first engagement assembly and a first braking assembly , and wherein a single component of the short turning assembly operates to: disengage the first engagement assembly to cause the disengagement of the drive power to the first drivable component , and actuate the first braking assembly to activate the braking of the first drivable component while a second braking assembly is disengaged and a second engagement assembly provides the drive power to the second drivable component characterised in that the single component comprises a pivot arm , the pivot arm being operably coupled to both a brake band of the first braking assembly and a pawl that engages or disengages the first engagement assembly based on a position of the pivot arm .
A gas turbine engine component comprising: spaced apart walls extending in a load direction and providing a cooling passage , the cooling passage providing a tortuous passage having a generally straight portion extending in the load direction and a bend transverse to the load direction (L); and elongated turbulators (92; 192) protruding from at least one of the walls and extending substantially in the load direction (L), wherein greater than 50% of the elongated turbulators (92; 192) are within the generally straight portion and outside of the bend , wherein the component is a turbine blade, the spaced apart walls provide an airfoil that includes a trailing edge portion , the load direction (L) is a radial direction, characterised in that : the component further comprises a secondary turbulator arranged transverse to and intersecting the elongated turbulators , the secondary turbulator extending a height from at least one of the walls that is less than the height of the elongated turbulators ; the elongated turbulators are arranged in the trailing edge portion , the elongated turbulators (92; 192) are discrete, generally linear structures that extend in the radial direction a length and include a width , a ratio of the length to the width being at least 4:1; and the elongated turbulators (92; 192) are oriented along their lengths at an angle relative to the radial direction (L) within +/- 15°. spaced apart walls extending in a load direction and providing a cooling passage , the cooling passage providing a tortuous passage having a generally straight portion extending in the load direction and a bend transverse to the load direction (L); and elongated turbulators (92; 192) protruding from at least one of the walls and extending substantially in the load direction (L), wherein greater than 50% of the elongated turbulators (92; 192) are within the generally straight portion and outside of the bend , wherein the component is a turbine blade, the spaced apart walls provide an airfoil that includes a trailing edge portion , the load direction (L) is a radial direction, the component further comprises a secondary turbulator arranged transverse to and intersecting the elongated turbulators , the secondary turbulator extending a height from at least one of the walls that is less than the height of the elongated turbulators ; the elongated turbulators are arranged in the trailing edge portion , the elongated turbulators (92; 192) are discrete, generally linear structures that extend in the radial direction a length and include a width , a ratio of the length to the width being at least 4:1; and the elongated turbulators (92; 192) are oriented along their lengths at an angle relative to the radial direction (L) within +/- 15°.
A powder material suitable for fabrication of a three-dimensional object by selectively irradiating a thin layer of a powder material containing powder particles with a laser beam to form an object layer through fusing of the powder particles, and laminating the object layer, wherein: the powder particles each include a core resin and a shell resin that covers the core resin; and a temperature TS at which a storage modulus G' of a material for the shell resin becomes 1 × 10 6,5 Pa is higher than a temperature TC (6.5) at which a storage modulus G' of a material for the core resin becomes 1 × 10 6,5 Pa, wherein a difference between the temperature TS (6.5) at which a storage modulus G' of a material for the shell resin becomes 1 × 10 6,5 Pa and the temperature TC ( 6 . 5 ) at which a storage modulus G' of a material for the core resin becomes 1 × 10 6,5 Pa is 5°C or more and 70°C or less, and wherein measurement conditions for the storage modulus G' comprise: a measurement frequency of 6.28 rad/s; setting of a measurement strain to an initial value of 0.1%; gradual cooling from 250°C to 100°C at 5°C/min; and measurement of viscoelasticity data every 1°C. the powder particles each include a core resin and a shell resin that covers the core resin; and a temperature TS at which a storage modulus G' of a material for the shell resin becomes 1 × 10 6,5 Pa is higher than a temperature TC (6.5) at which a storage modulus G' of a material for the core resin becomes 1 × 10 6,5 Pa, wherein a difference between the temperature TS (6.5) at which a storage modulus G' of a material for the shell resin becomes 1 × 10 6,5 Pa and the temperature TC ( 6 . 5 ) at which a storage modulus G' of a material for the core resin becomes 1 × 10 6,5 Pa is 5°C or more and 70°C or less, and wherein measurement conditions for the storage modulus G' comprise: a measurement frequency of 6.28 rad/s; setting of a measurement strain to an initial value of 0.1%; gradual cooling from 250°C to 100°C at 5°C/min; and measurement of viscoelasticity data every 1°C. a measurement frequency of 6.28 rad/s; setting of a measurement strain to an initial value of 0.1%; gradual cooling from 250°C to 100°C at 5°C/min; and measurement of viscoelasticity data every 1°C.
A head-up-display , HUD, arranged to project an image to at least one eye of a user of the HUD, comprising: - an image source ; - an optical component , comprising at least one free-form surface , wherein the optical component is arranged in an optical path between the image source and the intended position of said at least one eye of the user of the HUD; - a flat lens comprising a structured lens pattern on at least one of its surfaces , wherein the structured lens pattern has features (511, 512, 513, ...) with heights in the order of 10 μm up to 10 mm, wherein the flat lens is arranged in the optical path between the image source and the intended position of said at least one eye of the user of the HUD; - a combiner , wherein at least one surface of the combiner is a free-form surface, and wherein the combiner is arranged in the optical path between the optical component and the intended position of said at least one eye of the user of the HUD; - wherein said image source is arranged to provide the image to be projected via a curved image plane in the optical path before said optical component and said flat lens . - an image source ; - an optical component , comprising at least one free-form surface , wherein the optical component is arranged in an optical path between the image source and the intended position of said at least one eye of the user of the HUD; - a flat lens comprising a structured lens pattern on at least one of its surfaces , wherein the structured lens pattern has features (511, 512, 513, ...) with heights in the order of 10 μm up to 10 mm, wherein the flat lens is arranged in the optical path between the image source and the intended position of said at least one eye of the user of the HUD; - a combiner , wherein at least one surface of the combiner is a free-form surface, and wherein the combiner is arranged in the optical path between the optical component and the intended position of said at least one eye of the user of the HUD; - wherein said image source is arranged to provide the image to be projected via a curved image plane in the optical path before said optical component and said flat lens .
A tool radius adjusting system for a boring holder, comprising: a boring holder provided with a tool tip and also provided with a fine motion adjusting mechanism and a coarse motion adjusting mechanism each capable of adjusting the position of the tool tip relative to a rotational axis of the boring holder ; a tool radius measuring device for measuring a tool radius of the boring holder ; and a controller for calculating a compensation amount (ΔD) based on a tool radius measured by the tool radius measuring device and a target tool radius and for operating the fine motion adjusting mechanism and the coarse motion adjusting mechanism based on the compensation amount (ΔD) to make the tool radius agree with the target tool radius. a boring holder provided with a tool tip and also provided with a fine motion adjusting mechanism and a coarse motion adjusting mechanism each capable of adjusting the position of the tool tip relative to a rotational axis of the boring holder ; a tool radius measuring device for measuring a tool radius of the boring holder ; and a controller for calculating a compensation amount (ΔD) based on a tool radius measured by the tool radius measuring device and a target tool radius and for operating the fine motion adjusting mechanism and the coarse motion adjusting mechanism based on the compensation amount (ΔD) to make the tool radius agree with the target tool radius.
A method for use in a network node (160, 412, or 520), the method comprising: transmitting a transmission of system information comprising coded bits obtained by reading from a circular buffer, the transmission transmitted in a first set of subframes corresponding to subframes #4 of a plurality of radio frames; and transmitting an additional transmission of the system information, the additional transmission comprising additional coded bits obtained by continuing reading from the circular buffer, the additional transmission transmitted in a second set of subframes corresponding to subframes of the plurality of radio frames other than subframes #4, wherein the first set of subframes comprises eight subframes transmitted in every other subframe #4, and wherein the second set of subframes comprises L subframes, where L is either four or eight, wherein a starting index for reading from the circular buffer for obtaining the coded bits for an i th subframe, in the first set of eight subframes, is iN modulo the size of the circular buffer, for i = 0, 1, ..., 7, wherein N is the number of coded bits that can be mapped to one subframe, and wherein a starting index for reading from the circular buffer for obtaining the additional coded bits for an i th subframe, in the second set of L subframes, is (iN+8N) modulo the size of the circular buffer, for i = 0, 1, ..., L-1. transmitting a transmission of system information comprising coded bits obtained by reading from a circular buffer, the transmission transmitted in a first set of subframes corresponding to subframes #4 of a plurality of radio frames; and transmitting an additional transmission of the system information, the additional transmission comprising additional coded bits obtained by continuing reading from the circular buffer, the additional transmission transmitted in a second set of subframes corresponding to subframes of the plurality of radio frames other than subframes #4, wherein the first set of subframes comprises eight subframes transmitted in every other subframe #4, and wherein the second set of subframes comprises L subframes, where L is either four or eight, wherein a starting index for reading from the circular buffer for obtaining the coded bits for an i th subframe, in the first set of eight subframes, is iN modulo the size of the circular buffer, for i = 0, 1, ..., 7, wherein N is the number of coded bits that can be mapped to one subframe, and wherein a starting index for reading from the circular buffer for obtaining the additional coded bits for an i th subframe, in the second set of L subframes, is (iN+8N) modulo the size of the circular buffer, for i = 0, 1, ..., L-1.