mhurhangee/ep-ind-claims huggingface dataset:
A method of visually presenting aviation obstacles to an operator of an aircraft by a system controller, the method comprising receiving an electronic departure procedure associated with a runway having a departure end (230, 330); parsing the electronic departure procedure to extract and format obstacle information to determine a presence of an obstacle associated with the runway; determining a location of the obstacle relative to the departure end of the runway from the extracted and formatted obstacle information; and electronically displaying a graphical representation of the runway and a graphical representation of the obstacle in the location relative to the departure end of the runway. receiving an electronic departure procedure associated with a runway having a departure end (230, 330); parsing the electronic departure procedure to extract and format obstacle information to determine a presence of an obstacle associated with the runway; determining a location of the obstacle relative to the departure end of the runway from the extracted and formatted obstacle information; and electronically displaying a graphical representation of the runway and a graphical representation of the obstacle in the location relative to the departure end of the runway.
An adhesive composition comprising a functionalized random propylene polymer (FRPP), where the FRPP has at least 0.1 wt% of a functional group, (preferably maleic anhydride); a heat of fusion (determined using the procedure described herein according to ASTM E794-85) of between 0.5 and 70 J/g; and an mm triad tacticity index (as measured by 13 C NMR) of at least 75%, and wherein the adhesive composition has a T-Peel adhesion (as measured according to a modified ASTM D-1876 described herein) on a polar substrate at 20°C of at least 175 N/m (1 lb/in) and a T-Peel adhesion on a non-polar substrate at 20°C of at least 175 N/m (1 lb/in), and wherein the polarity of the polar substrate is at least 0.10 units higher than the polarity of the non-polar substrate, wherein the polarity is determined according to the method described in the application.
Method of adapting light extraction efficiency LEE from at least one light emitting diode with surface area S and perimeter P, the method comprising a step to encapsulate the light emitting diode with an encapsulation layer with a refraction index N, the refraction index N being determined based on a model taking account of an internal quantum efficiency IQE of the light emitting diode, and such that extraction of light resulting from use of the encapsulation layer is such that the light emitting diode can achieve a predetermined external quantum efficiency EQE K, and wherein the model is a function of the ratio of the perimeter P to the surface area S of the light emitting diode.
A vaporizer configured to be connected to a consumable container for vaporizing a consumable contained in the consumable container, a vaporizer connecting surface of the vaporizer being connected to a consumable container connecting surface of the consumable container when the vaporizer is connected to the consumable container, wherein the vaporizer comprises one or more detecting units comprising a resilient member on the vaporizer connecting surface, on which the resilient member can take a projected or retracted position, configured to detect one or more aspects of the shape of the consumable container connecting surface encoding information about the consumable container by detecting whether or not or to which extent the resilient member is in a projected or retracted position when the vaporizer is connected to the consumable container.
An information processing device comprising: a plurality of processing units (10#0, 10#1) configured to execute software components each having a priority level; an abnormality determination unit configured to determine whether any one of the plurality of processing units (10#0, 10#1) has an abnormality; and a changing unit (11#0, 11#1) configured to, when the abnormality determination unit has determined that any one of the processing units has an abnormality, execute control such that the processing unit not determined to have an abnormality processes the software components supposed to be executed by the processing unit determined to have an abnormality, the changing unit (11#0, 11#1) being configured to process the software component having the priority level higher than or equal to a reference level among the software components supposed to be executed by the processing unit determined to have an abnormality. a plurality of processing units (10#0, 10#1) configured to execute software components each having a priority level; an abnormality determination unit configured to determine whether any one of the plurality of processing units (10#0, 10#1) has an abnormality; and a changing unit (11#0, 11#1) configured to, when the abnormality determination unit has determined that any one of the processing units has an abnormality, execute control such that the processing unit not determined to have an abnormality processes the software components supposed to be executed by the processing unit determined to have an abnormality, the changing unit (11#0, 11#1) being configured to process the software component having the priority level higher than or equal to a reference level among the software components supposed to be executed by the processing unit determined to have an abnormality.
Rail vehicle for a rail transportation system having a running rail along which the rail vehicle is movable in a self-acting manner, said rail vehicle comprising a first axle module (31, 32) having two lateral parts (310, 320) to be disposed on either side of the running rail, wherein at least one lateral part (310, 320) has a drivable running element that interacts with a running track of the running rail, and wherein a drive device for driving the running element is provided, and at least a second axle module (31, 32), wherein the axle modules (31, 32) are connected by means of a mounting plate that is disposable above the running rail, characterized in that the mounting plate at least at one end has an impact protection element which is coupled to the mounting plate so as to be displaceable in the longitudinal direction, and the rail vehicle has at least one emergency braking system, wherein the at least one emergency braking system is activatable both by interrupting a power supply and also by displacement of the impact protection element relative to the mounting plate.
A paint roller system for applying a liquid material to a surface, said paint roller system comprising: (a) a frame devoid of moving parts incorporating a first frame arm and a second frame arm that are connected at one end, a first frame engagement means on the first frame arm and a second frame engagement means on the second frame arm; said frame arms (11,12) being positioned to be virtually parallel to each other; (b) a paint roller having an end piece (22, 23) incorporated in each of two outer roller ends that are positioned virtually parallel to each other, the end pieces (22, 23) being operable to prevent liquid from entering the paint roller, each end piece (22, 23) incorporating an end engagement means connectable to the frame engagement means of at least one of the two frame arms (11, 12), a first end piece incorporating a first end engagement means and a second end piece incorporating a second end engagement means, the paint roller being positionable between the frame arms (11, 12) when the first and second end engagement means are connected to the first and second frame engagement means respectively and are freely rotatable in said position; (c) the first arm including a top edge and a side wall, the side wall having a slit formed therein and a first indentation incorporated therein, the first frame engagement means incorporating said first indentation having a shape and size to receive the first end engagement means; and (d) a handle attachment incorporated in the frame extending from the connection between the frame arms (11, 12). (a) a frame devoid of moving parts incorporating a first frame arm and a second frame arm that are connected at one end, a first frame engagement means on the first frame arm and a second frame engagement means on the second frame arm; said frame arms (11,12) being positioned to be virtually parallel to each other; (b) a paint roller having an end piece (22, 23) incorporated in each of two outer roller ends that are positioned virtually parallel to each other, the end pieces (22, 23) being operable to prevent liquid from entering the paint roller, each end piece (22, 23) incorporating an end engagement means connectable to the frame engagement means of at least one of the two frame arms (11, 12), a first end piece incorporating a first end engagement means and a second end piece incorporating a second end engagement means, the paint roller being positionable between the frame arms (11, 12) when the first and second end engagement means are connected to the first and second frame engagement means respectively and are freely rotatable in said position; (c) the first arm including a top edge and a side wall, the side wall having a slit formed therein and a first indentation incorporated therein, the first frame engagement means incorporating said first indentation having a shape and size to receive the first end engagement means; and (d) a handle attachment incorporated in the frame extending from the connection between the frame arms (11, 12).
A method comprising: generating a voltage on a capacitor of a detector based on illumination received at a pixel; comparing the voltage stored on the capacitor with a reference voltage to produce comparison results; generating an intensity value based on the comparison results, the intensity value generated by integrating the comparison results using a first counter of the detector during a first period of time; integrating the comparison results repeatedly during smaller second periods of time within the first period of time using a second counter of the detector, the second counter having a lower bit resolution than the first counter; resetting the second counter for each of the second periods of time; and generating a pixel event indicator in response to the second counter outputting a specified value. generating a voltage on a capacitor of a detector based on illumination received at a pixel; comparing the voltage stored on the capacitor with a reference voltage to produce comparison results; generating an intensity value based on the comparison results, the intensity value generated by integrating the comparison results using a first counter of the detector during a first period of time; integrating the comparison results repeatedly during smaller second periods of time within the first period of time using a second counter of the detector, the second counter having a lower bit resolution than the first counter; resetting the second counter for each of the second periods of time; and generating a pixel event indicator in response to the second counter outputting a specified value.
Apparatus for detecting ocular defects in a patient comprising: - lighting means configured to project a light (L 1, L 2, L 3) to illuminate the ocular fundus; - imaging means comprising detection means configured to receive light reflected by the ocular fundus, at a receiving surface and configured to acquire images (I 1, I 2, I 3, I 4, I 5) of the ocular fundus, said imaging means comprising an objective group having an optical axis directed towards the patient's eyes and an opening centred on said optical axis; - a control unit configured to control the operation of said lighting means and said imaging means; wherein said lighting means comprise at least a lighting group comprising a plurality of first extended light sources, positioned at the opening of said objective group, in a space region external to said opening, along a reference axis, at different distances with respect to the optical axis of said objective group; wherein said control unit is configured to consecutively activate said first light sources according to at least a first activation time sequence such that the ocular fundus of the patient's eyes is illuminated as if it were illuminated by a same extended light source in movement along the reference axis, according to a predefined direction of movement; wherein said imaging means are configured to acquire first images (I 1) of the ocular fundus, illuminated by the light (L 1) emitted by each of said first light sources, when said first light sources are activated by said control unit according to said first activation time sequence; characterised in that said control unit is configured to: - receive said first images (I 1) from the imaging means; - identify a front-edge of a crescent of light in said first images (I 1); - calculate data related to the position and moving speed of said front-edge of said crescent of light in said first images (I 1); - provide information related to the type and extent of a sight defect on the base of the data calculated at the previous steps. - lighting means configured to project a light (L 1, L 2, L 3) to illuminate the ocular fundus; - imaging means comprising detection means configured to receive light reflected by the ocular fundus, at a receiving surface and configured to acquire images (I 1, I 2, I 3, I 4, I 5) of the ocular fundus, said imaging means comprising an objective group having an optical axis directed towards the patient's eyes and an opening centred on said optical axis; - a control unit configured to control the operation of said lighting means and said imaging means; - receive said first images (I 1) from the imaging means; - identify a front-edge of a crescent of light in said first images (I 1); - calculate data related to the position and moving speed of said front-edge of said crescent of light in said first images (I 1); - provide information related to the type and extent of a sight defect on the base of the data calculated at the previous steps.
A powered toothbrush comprising: a handle having a neck; a head mounted to the neck and having a first surface and an opposed second surface; a first tuft block mounted to the head, the first tuft block having tooth cleaning elements extending outwardly from the first surface; and a tissue cleanser mounted to the head and having a plurality of tissue engaging elements extending outwardly from the second surface; wherein a drive assembly configured to cause the first tuft block and the tissue cleanser to move with respect to the head, wherein the drive assembly comprises a power source, and a motor having a shaft with an offset portion, wherein the first tuft block comprises a tuft block base portion having a first slot formed therein; the tissue cleanser includes a tissue cleanser base portion having a first slot formed therein; and the offset portion extends into the first slots (46, 50) of the tuft block base portion and the tissue cleanser base portion, characterized in that the tuft block base portion has a cylindrical shape and the tissue cleanser base portion has a cylindrical shape, and the tuft block base portion and tissue cleanser base portion are nested together concentrically. a handle having a neck; a head mounted to the neck and having a first surface and an opposed second surface; a first tuft block mounted to the head, the first tuft block having tooth cleaning elements extending outwardly from the first surface; and a tissue cleanser mounted to the head and having a plurality of tissue engaging elements extending outwardly from the second surface; wherein a drive assembly configured to cause the first tuft block and the tissue cleanser to move with respect to the head, wherein the drive assembly comprises a power source, and a motor having a shaft with an offset portion, wherein the first tuft block comprises a tuft block base portion having a first slot formed therein; the tissue cleanser includes a tissue cleanser base portion having a first slot formed therein; and the offset portion extends into the first slots (46, 50) of the tuft block base portion and the tissue cleanser base portion, characterized in that the tuft block base portion has a cylindrical shape and the tissue cleanser base portion has a cylindrical shape, and the tuft block base portion and tissue cleanser base portion are nested together concentrically.
A magnetic anti-counterfeit label, the anti-counterfeit label comprising a substrate, an ink layer, an opaque layer and a protective coating, wherein, the ink layer covers the substrate; a character, bar code, or pattern structure printed using magnetic ink is formed on the magnetic ink layer; characterized in that the ink layer is a superparamagnetic ink layer, the character, bar code, or pattern structure has a superparamagnetic property, an optical property, and a physical shape; the opaque layer covers the superparamagnetic ink layer, and is a print structure or a weak ferromagnet that visually hides the character, bar code, or pattern structure; the protective coating covers the opaque layer, and is composed of a polymer or metal that cannot be magnetized. a substrate, an ink layer, an opaque layer and a protective coating,
A dual phase steel sheet having a tensile strength of 540 MPa or higher consisting of: in mass%, C: 0.01 to 0.1%; Mn: 0.2 to 3%; Al: 0.04 to 1.5%; Ti: 0.015 to 0.2%; Si: 0 to 0.5%; Nb: 0 to 0.06%; Cu: 0 to 1.2%; Ni: 0 to 0.6%; Mo: 0 to 1 %; V: 0 to 0.2%; Cr: 0 to 2%; W: 0 to 0.5%; Mg: 0 to 0.01%; Ca: 0 to 0.01%; REM: 0 to 0.1%; B: 0 to 0.002%; P: 0.01% or less; S: 0.005% or less; N: 0.01% or less, in which [Ti] - 48/14 × - 48/32 × ≥ 0% is satisfied and when Ex.C (%) = - 12/48 × {[Ti] + 48/93 × [Nb] - 48/14 × - 48/32 ×} is set, 0.001 ≤ Ex.C (%)/fsd (%) ≤ 0.01 is satisfied, wherein the area fraction of the second phase is set to fsd (%), and a balance being composed of Fe and impurities, wherein at the position of 1/4 thickness of a sheet thickness, a microstructure is a dual phase with its main phase composed of polygonal ferrite precipitation-strengthened by carbide of Ti and its second phase composed of 1 to 10% in area fraction (fsd (%)) of low-temperature transformation products dispersed plurally, and an average crystal diameter of the low-temperature transformation product is 3 to 15 μm and an average value of a distance of closest approach between the low-temperature transformation products is 10 to 20 μm. in mass%, C: 0.01 to 0.1%; Mn: 0.2 to 3%; Al: 0.04 to 1.5%; Ti: 0.015 to 0.2%; Si: 0 to 0.5%; Nb: 0 to 0.06%; Cu: 0 to 1.2%; Ni: 0 to 0.6%; Mo: 0 to 1 %; V: 0 to 0.2%; Cr: 0 to 2%; W: 0 to 0.5%; Mg: 0 to 0.01%; Ca: 0 to 0.01%; REM: 0 to 0.1%; B: 0 to 0.002%; P: 0.01% or less; S: 0.005% or less; N: 0.01% or less, in which [Ti] - 48/14 × - 48/32 × ≥ 0% is satisfied and when Ex.C (%) = - 12/48 × {[Ti] + 48/93 × [Nb] - 48/14 × - 48/32 ×} is set, 0.001 ≤ Ex.C (%)/fsd (%) ≤ 0.01 is satisfied, wherein the area fraction of the second phase is set to fsd (%), and a balance being composed of Fe and impurities, wherein at the position of 1/4 thickness of a sheet thickness, a microstructure is a dual phase with its main phase composed of polygonal ferrite precipitation-strengthened by carbide of Ti and its second phase composed of 1 to 10% in area fraction (fsd (%)) of low-temperature transformation products dispersed plurally, and an average crystal diameter of the low-temperature transformation product is 3 to 15 μm and an average value of a distance of closest approach between the low-temperature transformation products is 10 to 20 μm.
A method for avoiding undesired identification of a wireless network node, the method comprising: changing an access address of a network interface of the wireless network node (101, 111, 112, 200), characterized by randomly changing a frame sequence number of the network interface of the wireless network node, and performing said changing of the access address and changing of the frame sequence number at the same time or consecutively one in response to the other. changing an access address of a network interface of the wireless network node (101, 111, 112, 200), characterized by randomly changing a frame sequence number of the network interface of the wireless network node, and performing said changing of the access address and changing of the frame sequence number at the same time or consecutively one in response to the other.
A device for wireless communication, comprising: a memory; and one or more processors (258, 264, 280) coupled to the memory, configured to: transmit a first random access channel, RACH, message to a network entity; and receive a second RACH message from the network entity in a set of resource candidates that are outside of a physical downlink control channel, PDCCH, based at least in part on the transmitted first RACH message and based on one or more of: a signal measurement satisfying a threshold, a RACH type, a preamble sequence subset of the first RACH message, RACH occasions, or a subset of RACH occasions associated with the first RACH message. a memory; and one or more processors (258, 264, 280) coupled to the memory, configured to: transmit a first random access channel, RACH, message to a network entity; and receive a second RACH message from the network entity in a set of resource candidates that are outside of a physical downlink control channel, PDCCH, based at least in part on the transmitted first RACH message and based on one or more of: a signal measurement satisfying a threshold, a RACH type, a preamble sequence subset of the first RACH message, RACH occasions, or a subset of RACH occasions associated with the first RACH message. transmit a first random access channel, RACH, message to a network entity; and receive a second RACH message from the network entity in a set of resource candidates that are outside of a physical downlink control channel, PDCCH, based at least in part on the transmitted first RACH message and based on one or more of: a signal measurement satisfying a threshold, a RACH type, a preamble sequence subset of the first RACH message, RACH occasions, or a subset of RACH occasions associated with the first RACH message. a signal measurement satisfying a threshold, a RACH type, a preamble sequence subset of the first RACH message, RACH occasions, or a subset of RACH occasions associated with the first RACH message.
A method for analyzing output of one or more lighting units in a lighting system for fault detection, the method comprising the steps of: simulating, based on data from a photometric database, the output of a lighting unit to provide a simulated output; receiving, from a database of historical information, historical observed data about the output of the lighting unit, the historical observed data comprising illuminance data; receiving observed data about the output of the lighting unit; generating a model of the lighting system based at least in part on the simulated output of the lighting unit and the historical observed data about the output of the lighting unit, wherein the model comprises localization information for the lighting unit; and comparing the received observed data about the output of the lighting unit to the generated model, wherein a fault is detected if the received observed data varies from the generated model by a predetermined amount. simulating, based on data from a photometric database, the output of a lighting unit to provide a simulated output; receiving, from a database of historical information, historical observed data about the output of the lighting unit, the historical observed data comprising illuminance data; receiving observed data about the output of the lighting unit; generating a model of the lighting system based at least in part on the simulated output of the lighting unit and the historical observed data about the output of the lighting unit, wherein the model comprises localization information for the lighting unit; and comparing the received observed data about the output of the lighting unit to the generated model, wherein a fault is detected if the received observed data varies from the generated model by a predetermined amount.