mhurhangee/patent-ind-claim-en huggingface dataset:
A container comprising; a plurality of sidewalls connected to one another along foldlines ; and a base, wherein the base comprises; a first base flap connected along a foldline to a first one of the sidewalls ; second and third opposed base flaps connected along respective foldlines to respective ones of the sidewalls adjacent the first sidewall on either side thereof, wherein the second and third base flaps are folded over the first base flap ; and a fourth base flap connected along a foldline to a sidewall opposite the first sidewall , wherein the fourth base flap is folded over the second and third base flaps ; wherein the fourth base flap comprises a base panel portion which forms part of the exterior of the base and a locking tab portion connected to a distal end of the base panel portion , wherein the locking tab portion of the fourth base flap is inserted into the interior of the container through a slot defined by the first, second and third base flaps to retain the base in a closed configuration; characterised in that a cutline is provided extending inwardly from the side edge of the fourth base flap on each side of the fourth base flap at a transition between the base panel portion and the locking tab portion of the fourth base flap . a plurality of sidewalls connected to one another along foldlines ; and a base, wherein the base comprises; a first base flap connected along a foldline to a first one of the sidewalls ; second and third opposed base flaps connected along respective foldlines to respective ones of the sidewalls adjacent the first sidewall on either side thereof, wherein the second and third base flaps are folded over the first base flap ; and a fourth base flap connected along a foldline to a sidewall opposite the first sidewall , wherein the fourth base flap is folded over the second and third base flaps ; wherein the fourth base flap comprises a base panel portion which forms part of the exterior of the base and a locking tab portion connected to a distal end of the base panel portion , wherein the locking tab portion of the fourth base flap is inserted into the interior of the container through a slot defined by the first, second and third base flaps to retain the base in a closed configuration; characterised in that a cutline is provided extending inwardly from the side edge of the fourth base flap on each side of the fourth base flap at a transition between the base panel portion and the locking tab portion of the fourth base flap .
A non-transitory machine-readable medium that stores instructions for execution by one or more processors to configure a device to: associate with a Wi-Fi network through a Wi-Fi Hotspot; initiate a Transport Layer Security, TLS, session with an online signup, OSU, server; transmit a device management, DM, package 1 to the OSU server, the DM package 1 including an indication that the device is contacting the OSU server to establish a new subscription; receive a DM package 2 from the OSU server in response to the DM package 1, the DM package 2 including a command to launch a browser to a universal resource indicator, URI, and a key to link an HTTPS session with the TLS session; launch the browser on a touchscreen display to establish a connection to the URI using the key; exchange registration data with the OSU server to establish the new subscription; and receive, from the OSU server outside of the HTTPS session, a Subscription Management Object, MO, if the new subscription is established successfully. associate with a Wi-Fi network through a Wi-Fi Hotspot; initiate a Transport Layer Security, TLS, session with an online signup, OSU, server; transmit a device management, DM, package 1 to the OSU server, the DM package 1 including an indication that the device is contacting the OSU server to establish a new subscription; receive a DM package 2 from the OSU server in response to the DM package 1, the DM package 2 including a command to launch a browser to a universal resource indicator, URI, and a key to link an HTTPS session with the TLS session; launch the browser on a touchscreen display to establish a connection to the URI using the key; exchange registration data with the OSU server to establish the new subscription; and receive, from the OSU server outside of the HTTPS session, a Subscription Management Object, MO, if the new subscription is established successfully.
Lighting arrangement comprising - at least one LED lighting element for directly emitting light along a central geometrical axis (A) extending into a depth direction, said central geometrical axis (A) being defined perpendicular on the center of a light emitting area of said LED lighting element , - and at least one collimator arranged to surround said central geometrical axis (A) for forming an emission pattern of said emitted light, - and a secondary optic arrangement arranged on said central geometrical axis (A) for projecting said emission pattern, - where said collimator comprises - a cutoff reflector surface with a front edge and a back edge , said back edge being located adjacent to said LED lighting element , and said front edge being spaced therefrom in said depth direction (X, A), said front edge being arranged as a shielding edge forming a light/dark cutoff in said emission pattern, - and first and second lateral reflector surfaces arranged opposite to each other adjacent to said LED lighting element , on opposite sides of said central geometrical axis (A), - where said front edge of said cutoff reflector surface is arranged at least substantially within a focal area of said secondary optic arrangement , characterized in that said first and second lateral reflector surfaces extend into said depth direction (X, A), measured from the LED lighting element , by at least 50% further than said cutoff reflector surface , beyond the focal area of the secondary optic arrangement. - at least one LED lighting element for directly emitting light along a central geometrical axis (A) extending into a depth direction, said central geometrical axis (A) being defined perpendicular on the center of a light emitting area of said LED lighting element , - and at least one collimator arranged to surround said central geometrical axis (A) for forming an emission pattern of said emitted light, - and a secondary optic arrangement arranged on said central geometrical axis (A) for projecting said emission pattern, - where said collimator comprises - a cutoff reflector surface with a front edge and a back edge , said back edge being located adjacent to said LED lighting element , and said front edge being spaced therefrom in said depth direction (X, A), said front edge being arranged as a shielding edge forming a light/dark cutoff in said emission pattern, - and first and second lateral reflector surfaces arranged opposite to each other adjacent to said LED lighting element , on opposite sides of said central geometrical axis (A), - where said front edge of said cutoff reflector surface is arranged at least substantially within a focal area of said secondary optic arrangement ,
An electroluminescent display device, comprising: a substrate including an emissive area (EA) and a non-emissive area; a plurality of protrusions (S) over the substrate and in the emissive area (EA), the plurality of protrusions (S) spaced apart from each other; an air gap (AG) between the plurality of protrusions (S); a high-viscosity material layer on the plurality of protrusions (S) and the air gap (AG); a first electrode disposed on the high-viscosity material layer ; an emitting layer on the first electrode ; and a second electrode on the emitting layer , wherein the viscosity of the high-viscosity material layer is chosen such that each of the plurality of protrusions (S) includes a first portion (A1) disposed inside the high-viscosity material layer , a second portion (A2) being in contact with the air gaps (AG), and a first surface (F1), which is a boundary surface between the first portion (A1) and the second portion (A2). a substrate including an emissive area (EA) and a non-emissive area; a plurality of protrusions (S) over the substrate and in the emissive area (EA), the plurality of protrusions (S) spaced apart from each other; an air gap (AG) between the plurality of protrusions (S); a high-viscosity material layer on the plurality of protrusions (S) and the air gap (AG); a first electrode disposed on the high-viscosity material layer ; an emitting layer on the first electrode ; and a second electrode on the emitting layer , wherein the viscosity of the high-viscosity material layer is chosen such that each of the plurality of protrusions (S) includes a first portion (A1) disposed inside the high-viscosity material layer , a second portion (A2) being in contact with the air gaps (AG), and a first surface (F1), which is a boundary surface between the first portion (A1) and the second portion (A2).
An arc-tracking welding method in a consumable electrode type welding device (D) having a weaving function for swinging a torch in a direction crossing a welding direction, the arc-tracking welding method comprising: a first relationship calculation step of obtaining, based on a physical model of an arc welding phenomenon, a first relationship between a weaving position and any one element of three electrical first to third elements related to Ohm's law in association with a deviation amount between a weaving center and a welding line; a second relationship actual measurement step of obtaining a second relationship between the weaving position and the element based on the element in welding power to be supplied to the consumable electrode; and a deviation amount calculation step of obtaining the deviation amount based on the first relationship obtained in the first relationship calculation step and the second relationship obtained in the second relationship actual measurement step, characterized in that the first relationship is rewritable based on another one element of three electrical first to third elements related to Ohm's law, and the arc-tracking welding method is performed with the rewritten first relationship. a first relationship calculation step of obtaining, based on a physical model of an arc welding phenomenon, a first relationship between a weaving position and any one element of three electrical first to third elements related to Ohm's law in association with a deviation amount between a weaving center and a welding line; a second relationship actual measurement step of obtaining a second relationship between the weaving position and the element based on the element in welding power to be supplied to the consumable electrode; and a deviation amount calculation step of obtaining the deviation amount based on the first relationship obtained in the first relationship calculation step and the second relationship obtained in the second relationship actual measurement step,
A geoid measurement method comprising: an inertial measurement data acquiring step (S120) of acquiring data related to velocity, position, and attitude angle as inertially-derived data based on an output of an inertial measurement part having a three-axis gyro and a three-axis accelerometer attached to a moving body; a comparison data acquiring step (S130) of acquiring data related to velocity as comparison data; and a state variable estimating step (S170) of estimating state variables including a plumb line deviation by applying a Kalman filter in which the plumb line deviation is included in the state variables; characterized in that the geoid measurement method further comprises a geoid calculating step (S220) of calculating a change in geoid height based on the estimated plumb line deviation at an estimated position that the estimating applied to; the comparison data is velocity data acquired from a speedometer which is a source other than the inertial measurement part; the state variable estimating step uses the inertially-derived data and the comparison data to apply the Kalman filter; and the state variables in the Kalman filter include velocity. an inertial measurement data acquiring step (S120) of acquiring data related to velocity, position, and attitude angle as inertially-derived data based on an output of an inertial measurement part having a three-axis gyro and a three-axis accelerometer attached to a moving body; a comparison data acquiring step (S130) of acquiring data related to velocity as comparison data; and a state variable estimating step (S170) of estimating state variables including a plumb line deviation by applying a Kalman filter in which the plumb line deviation is included in the state variables; characterized in that the geoid measurement method further comprises a geoid calculating step (S220) of calculating a change in geoid height based on the estimated plumb line deviation at an estimated position that the estimating applied to; the comparison data is velocity data acquired from a speedometer which is a source other than the inertial measurement part; the state variable estimating step uses the inertially-derived data and the comparison data to apply the Kalman filter; and the state variables in the Kalman filter include velocity.
A method of monitoring signal quality of a wearable biometric monitoring device worn at the ear of a subject, wherein the biometric monitoring device includes a physiological sensor configured to detect and/or measure physiological information from the subject, a motion sensor , and at least one processor in communication with the physiological sensor and the motion sensor , wherein the at least one processor is configured to receive and analyze signals produced by the physiological sensor and the motion sensor , the method characterized by : instructing the subject to talk or wiggle their ear while the physiological sensor is detecting and/or measuring physiological information from the subject; and processing, via the at least one processor , signals from the physiological sensor and the motion sensor while the subject talks or wiggles their ear to determine whether the signal quality produced by the physiological sensor is above a minimum acceptable value for producing accurate physiological information. instructing the subject to talk or wiggle their ear while the physiological sensor is detecting and/or measuring physiological information from the subject; and processing, via the at least one processor , signals from the physiological sensor and the motion sensor while the subject talks or wiggles their ear to determine whether the signal quality produced by the physiological sensor is above a minimum acceptable value for producing accurate physiological information.
A transport and/or storage container, comprising a bottom , further comprising front walls and longitudinal walls , which are rotatably connected to the bottom and which, in the collapsed state, are aligned parallel to the bottom, and, in the erected state, largely vertically to the bottom , and comprising a rotary locking assembly (4 to 10) comprising a handle , a connected locking element as well as at least one spring acting on the locking element , wherein - the rotary locking assembly (4 to 10), in the erected state, releasably couples at least one front wall and one longitudinal wall to one another in that - the locking element on the front wall interacts with a counter locking element on the adjacent longitudinal wall , or vice versa, wherein - the handle further acts on the locking element against the force of the spring to assume the collapsed state, in order to release the front wall and the longitudinal wall from one another and in order to disengage the locking element with respect to the counter locking element , and wherein - the locking element is embodied as cavity and the counter locking element as corresponding protrusion, which releasably engages with the locking element for the rotary locking, characterized in that - the locking element is embodied hollow spherically and the counter locking element spherically. - the rotary locking assembly (4 to 10), in the erected state, releasably couples at least one front wall and one longitudinal wall to one another in that - the locking element on the front wall interacts with a counter locking element on the adjacent longitudinal wall , or vice versa, wherein - the handle further acts on the locking element against the force of the spring to assume the collapsed state, in order to release the front wall and the longitudinal wall from one another and in order to disengage the locking element with respect to the counter locking element , and wherein - the locking element is embodied as cavity and the counter locking element as corresponding protrusion, which releasably engages with the locking element for the rotary locking, - the locking element is embodied hollow spherically and the counter locking element spherically.
Jointed strip assembly with at least two jointed parts which can pivot towards one another, which can be pivoted towards one another about a common pivot axis, wherein means for the forming of the pivot axis are provided, and at least two mutually associated support elements provide an axial support for the jointed parts , wherein at least one of the support elements can be adjusted in its position relative to the jointed parts , characterized in that the first jointed part consists of a frame-side bearing block , which has a guide contour , rising in the closing direction, for a carrier arm of a leaf bearing part of the second jointed part, guided in the contour and shaped in accordance with the pivot axis, wherein an alignment element, consisting of the guide contour into which the carrier arm engages, incurs a functional axial alignment of the jointed parts , and in this situation a relief device takes effect as an alignment element between the bearing block and the leaf bearing part , wherein the relief device is a draw cable , which takes effect between the bearing block and the leaf bearing part , and at least one of the support elements automatically compensates for a distance interval between the support elements caused by the alignment element, and the support elements comprise two wedge surfaces , which can be displaced horizontally against one another.
A fuel tank inerting system for an aircraft, the system comprising: a fuel tank ; a first reactant source fluidly connected to the fuel tank, the first source arranged to receive fuel from the fuel tank; a second reactant source ; a catalytic reactor arranged to receive a first reactant from the first source and a second reactant from the second source to generate an inert gas that is supplied to the fuel tank to fill a ullage space of the fuel tank ; and an inert gas recycling system located downstream of the catalytic reactor and upstream of the fuel tank , wherein the inert gas recycling system is arranged to direct a first portion of the inert gas to the catalytic reactor , and characterized in that a second portion of that inert gas is recycled to the first reactant source to act as a sparge gas to deliver the first reactant to the catalytic reactor. a fuel tank ; a first reactant source fluidly connected to the fuel tank, the first source arranged to receive fuel from the fuel tank; a second reactant source ; a catalytic reactor arranged to receive a first reactant from the first source and a second reactant from the second source to generate an inert gas that is supplied to the fuel tank to fill a ullage space of the fuel tank ; and an inert gas recycling system located downstream of the catalytic reactor and upstream of the fuel tank , wherein the inert gas recycling system is arranged to direct a first portion of the inert gas to the catalytic reactor , and characterized in that a second portion of that inert gas is recycled to the first reactant
A method of operating a two-stroke, cross-head slow-speed compression-ignited engine comprising (i) fuelling the engine with a diesel fuel, as a pilot fuel, and with a fuel having a sulphur level of 0.5% or less, preferably a gaseous fuel having a sulphur level of 0.5% or less, as a main fuel; and (ii) lubricating the cylinder(s) of the engine with a cylinder lubricant having a base number (BN) of 20 mg KOH/g or less, preferably 19 or less, and even more preferably 18 or less, as determined by ASTM D2896-98, and having a detergent additive system comprising: - at least two different metal detergents each having one surfactant group selected from phenate, salicylate and sulphonate; the combinations being: - phenate plus sulphonate plus salicylate; - phenate plus salicylate; - low base number salicylate having a TBN of <100 and low base number sulphonate having a TBN of <100; - low base number sulphonate having a TBN of <100 and a high base number sulphonate having a TBN of >400; - high base number phenate having a TBN >200, medium base number sulphonate having a TBN >100 and <400, and low base number sulphonate having a TBN of <100; - low base number salicylate having a TBN of <100 and medium base number sulphonate having a TBN of >100 and <400. (i) fuelling the engine with a diesel fuel, as a pilot fuel, and with a fuel having a sulphur level of 0.5% or less, preferably a gaseous fuel having a sulphur level of 0.5% or less, as a main fuel; and (ii) lubricating the cylinder(s) of the engine with a cylinder lubricant having a base number (BN) of 20 mg KOH/g or less, preferably 19 or less, and even more preferably 18 or less, as determined by ASTM D2896-98, and having a detergent additive system comprising: - at least two different metal detergents each having one surfactant group selected from phenate, salicylate and sulphonate; the combinations being: - phenate plus sulphonate plus salicylate; - phenate plus salicylate; - low base number salicylate having a TBN of <100 and low base number sulphonate having a TBN of <100; - low base number sulphonate having a TBN of <100 and a high base number sulphonate having a TBN of >400; - high base number phenate having a TBN >200, medium base number sulphonate having a TBN >100 and <400, and low base number sulphonate having a TBN of <100; - low base number salicylate having a TBN of <100 and medium base number sulphonate having a TBN of >100 and <400. - at least two different metal detergents each having one surfactant group selected from phenate, salicylate and sulphonate; the combinations being: - phenate plus sulphonate plus salicylate; - phenate plus salicylate; - low base number salicylate having a TBN of <100 and low base number sulphonate having a TBN of <100; - low base number sulphonate having a TBN of <100 and a high base number sulphonate having a TBN of >400; - high base number phenate having a TBN >200, medium base number sulphonate having a TBN >100 and <400, and low base number sulphonate having a TBN of <100; - low base number salicylate having a TBN of <100 and medium base number sulphonate having a TBN of >100 and <400.