mhurhangee/patent-ind-claim-en huggingface dataset:
A system to determine a location of a primary Access Point, AP, , in a Wi-Fi network comprising: an antenna to communicate signals between the primary AP and one or more APs associated with the Wi-Fi network; a memory circuitry to store instructions for a processor ; the processor configured to perform a processing comprising: identifying one or more of a plurality of neighboring APs, receiving from each of the one or more neighboring APs their respective location, measuring a range from the primary AP to each of the one or more neighboring APs using Fine-Time Measurement, FTM, technique, determine the primary APs location as a function of the received location for each of the one or more neighboring APs and the measured range to each respective AP, and characterized in that said processor is further configured to perform a processing comprising the additional step of: estimating the neighboring APs locations based on the determined primary APs location and the measured ranges from the primary AP to each of the one or more neighboring APs. an antenna to communicate signals between the primary AP and one or more APs associated with the Wi-Fi network; a memory circuitry to store instructions for a processor ; the processor configured to perform a processing comprising: identifying one or more of a plurality of neighboring APs, receiving from each of the one or more neighboring APs their respective location, measuring a range from the primary AP to each of the one or more neighboring APs using Fine-Time Measurement, FTM, technique, determine the primary APs location as a function of the received location for each of the one or more neighboring APs and the measured range to each respective AP, and characterized in that said processor is further configured to perform a processing comprising the additional step of: estimating the neighboring APs locations based on the determined primary APs location and the measured ranges from the primary AP to each of the one or more neighboring APs. identifying one or more of a plurality of neighboring APs, receiving from each of the one or more neighboring APs their respective location, measuring a range from the primary AP to each of the one or more neighboring APs using Fine-Time Measurement, FTM, technique, determine the primary APs location as a function of the received location for each of the one or more neighboring APs and the measured range to each respective AP, and characterized in that said processor is further configured to perform a processing comprising the additional step of: estimating the neighboring APs locations based on the determined primary APs location and the measured ranges from the primary AP to each of the one or more neighboring APs.
A compound of formula (I) wherein R 1 is alkoxyazetidinyl, dihaloazetidinyl or pyrrolidinyl; R 2 and R 3 are independently selected from hydrogen and alkyl; A 1 is -CH- or nitrogen; A 2 is -CH 2 - or carbonyl; X is fluorine; n is 0 to 3; and m is 0 or 1; provided that m and n are not both 0 at the same time; or a pharmaceutically acceptable salt thereof. R 1 is alkoxyazetidinyl, dihaloazetidinyl or pyrrolidinyl; R 2 and R 3 are independently selected from hydrogen and alkyl; A 1 is -CH- or nitrogen; A 2 is -CH 2 - or carbonyl; X is fluorine; n is 0 to 3; and m is 0 or 1; provided that m and n are not both 0 at the same time; or a pharmaceutically acceptable salt thereof.
A wavelength conversion element comprising: a substrate ; a wavelength conversion layer , disposed on the substrate , wherein the wavelength conversion layer includes an inorganic adhesive and a wavelength conversion material , and the wavelength conversion material is mixed with the inorganic adhesive , wherein the wavelength conversion layer has a first surface and a second surface relative to the first surface; a first inorganic interstitial layer , disposed between the wavelength conversion layer and the substrate , wherein the first inorganic interstitial layer is formed on the first surface and is configured to fill pores of the wavelength conversion layer ; and a second inorganic interstitial layer , wherein the wavelength conversion layer is disposed between the second inorganic interstitial layer and the first inorganic interstitial layer , and wherein a thickness (T2) of the second inorganic interstitial layer in a direction perpendicular to the substrate increases from a center toward an edge, or decreases from a center toward an edge, and wherein the second inorganic interstitial layer is formed on the second surface and is configured to fill pores of the wavelength conversion layer . a substrate ; a wavelength conversion layer , disposed on the substrate , wherein the wavelength conversion layer includes an inorganic adhesive and a wavelength conversion material , and the wavelength conversion material is mixed with the inorganic adhesive , wherein the wavelength conversion layer has a first surface and a second surface relative to the first surface; a first inorganic interstitial layer , disposed between the wavelength conversion layer and the substrate , wherein the first inorganic interstitial layer is formed on the first surface and is configured to fill pores of the wavelength conversion layer ; and a second inorganic interstitial layer , wherein the wavelength conversion layer is disposed between the second inorganic interstitial layer and the first inorganic interstitial layer , and wherein a thickness (T2) of the second inorganic interstitial layer in a direction perpendicular to the substrate increases from a center toward an edge, or decreases from a center toward an edge, and wherein the second inorganic interstitial layer is formed on the second surface and is configured to fill pores of the wavelength conversion layer .
A felt comprising 10 mass% to 90 mass% of an amorphous polyester fiber having a glass transition point of 60°C to 80°C, and having a thickness of 0.05 mm to 100 mm, and an areal weight of 50 g/m 2 to 2 kg/m 2 , and an inorganic fiber, a crystallized thermoplastic resin fiber, a low-melting-point fiber, or a natural fiber in an amount of 90 mass% or less of the total mass of the felt.
A method for controlling access, comprising: providing a wireless electronic key that is configured to open one or more electronic locks located at one or more locations; receiving, by the electronic key , an opening code that enables the electronic key to open the one or more electronic locks , wherein the opening code is received via an input device integrated into the electronic key ; downloading, by the electronic key , access logs from the one or more electronic locks , wherein the access logs include information pertaining to interactions between the electronic key and the one or more electronic locks ; and transmitting, by the electronic key , data pertaining to the information downloaded to the electronic key , wherein the information can be used to verify engagement of the electronic key with the one or more electronic locks and to verify attendance of an individual at the one or more locations that include the one or more electronic locks . providing a wireless electronic key that is configured to open one or more electronic locks located at one or more locations; receiving, by the electronic key , an opening code that enables the electronic key to open the one or more electronic locks , wherein the opening code is received via an input device integrated into the electronic key ; downloading, by the electronic key , access logs from the one or more electronic locks , wherein the access logs include information pertaining to interactions between the electronic key and the one or more electronic locks ; and transmitting, by the electronic key , data pertaining to the information downloaded to the electronic key , wherein the information can be used to verify engagement of the electronic key with the one or more electronic locks and to verify attendance of an individual at the one or more locations that include the one or more electronic locks .
System for growth and reproduction of microorganisms having a basin system , comprising a number of basins , wherein - each basin has an illuminable vertical meandering system formed by partition walls (3.4), and - each basin is filled with a nutrient suspension (S), - wherein a lighting unit is arranged on a lower end of each partition wall (3.4), characterized in that - at least one outer wall (3.1) of each basin is double-walled to form a cavity, and - a temperature-control medium (T) for temperature-control of the nutrient suspension (S) is flowable through the cavity, - wherein, for fixation of the partition walls (3.4), they are connected by means of holders (3.5) to the outer walls (3.1) by means of a force-fit or form-fit or a combination of a force-fit and form-fit, and the lighting unit is arranged between two holders (3.5) of each partition wall (3.4) on the lower end of said partition wall (3.4), wherein tight thermal coupling between the temperature-control medium (T) and the lighting element is established via the holders (3.5), such that heat loss from the lighting unit is dissipatable by means of the temperature-control medium (T). - each basin has an illuminable vertical meandering system formed by partition walls (3.4), and - each basin is filled with a nutrient suspension (S), - wherein a lighting unit is arranged on a lower end of each partition wall (3.4), - at least one outer wall (3.1) of each basin is double-walled to form a cavity, and - a temperature-control medium (T) for temperature-control of the nutrient suspension (S) is flowable through the cavity, - wherein, for fixation of the partition walls (3.4), they are connected by means of holders (3.5) to the outer walls (3.1) by means of a force-fit or form-fit or a combination of a force-fit and form-fit, and the lighting unit is arranged between two holders (3.5) of each partition wall (3.4) on the lower end of said partition wall (3.4),
Naval platform comprising a handling system, said handling system comprising: - a lifting gantry mounted moving on a naval platform , - a floating dock for placement in the water and/or recovery of an unmanned surface vehicle configured to house the unmanned surface vehicle , the floating dock comprising, in the lower part, a cradle for receiving the unmanned surface vehicle and, in the upper part, a lifting spreader configured to be attached to the lifting gantry , the lifting spreader being detachable from the cradle , characterized in that the gantry and the lifting spreader are secured by at least one rigid link configured to stabilize the spreader in the projecting position, the rigid link being formed at least by a cable and a jack , the spreader being in the projecting position, outside the naval platform on which the lifting gantry is mounted moving. - a lifting gantry mounted moving on a naval platform , - a floating dock for placement in the water and/or recovery of an unmanned surface vehicle configured to house the unmanned surface vehicle , the floating dock comprising, in the lower part, a cradle for receiving the unmanned surface vehicle and, in the upper part, a lifting spreader configured to be attached to the lifting gantry , the lifting spreader being detachable from the cradle , characterized in that the gantry and the lifting spreader are secured by at least one rigid link configured to stabilize the spreader in the projecting position, the rigid link being formed at least by a cable and a jack , the spreader being in the projecting position, outside the naval platform on which the lifting gantry is mounted moving.
A method for determining a next interlace having a next structure to be applied during a next transmission interval for a transmission over a wireless interface in a wireless communications network operating in an unlicensed spectrum, wherein a first interlace is applied during transmission in a first transmission interval and wherein the first interlace has a first interlace structure formed by a plurality of physical resource blocks, PRBs, that are arranged with a given subcarrier spacing in one of a set of interlaces, the method comprising: - defining (S21) a frequency shift based on the number of PRBs per interlace and a maximum allowed power for a single interlace, wherein the defined frequency shift is equal to or exceeds a power spectral density, PSD, measurement bandwidth; - determining (S22) the next interlace structure by shifting the first interlace structure by the defined frequency shift. - defining (S21) a frequency shift based on the number of PRBs per interlace and a maximum allowed power for a single interlace, wherein the defined frequency shift is equal to or exceeds a power spectral density, PSD, measurement bandwidth; - determining (S22) the next interlace structure by shifting the first interlace structure by the defined frequency shift.
A rail comprising, in terms of mass%: C: 0.75% to 0.85%; Si: 0.10% to 1.00%; Mn: 0.30% to 1.20%; Cr: 0.20% to 0.80%; V: 0.01% to 0.20%; N: 0.0040% to 0.0200%; Mo: 0% to 0.50%; Co: 0% to 1.00%; B: 0% to 0.0050%; Cu: 0% to 1.00%; Ni: 0% to 1.00%; Nb: 0% to 0.0500%; Ti: 0% to 0.0500%; Mg: 0% to 0.0200%; Ca: 0% to 0.0200%; REM: 0% to 0.0500%; Zr: 0% to 0.0200%; Al: 0% to 1.00%; P ≤ 0.0250%; S ≤ 0.0250%; and Fe and impurities as a remainder, wherein the following Expressions 1 and 2 are satisfied, a structure of a range between an outer surface of a head portion as an origin and a depth of 25 mm includes 95% or greater of a pearlite structure and a hardness of the structure is Hv 350 to 480, wherein a measurement of the hardness is carried out in conformity with JIS Z 2244, 50 to 500 V carbonitride having an average grain size of 5 to 20 nm are present per 1.0 μm 2 of an area to be inspected in a transverse cross section at a position having the depth of 25 mm from the outer surface of the head portion, and the value obtained by subtracting a hardness of the position having the depth of 25 mm from the outer surface of the head portion from a hardness of a position having a depth of 2 mm from the outer surface of the head portion is Hv 0 to Hv 40, 1.00 < Mn / Cr ≤ 4.00 0.30 ≤ 0.25 × Mn + Cr ≤ 1.00 here, the symbols of elements described in the Expressions 1 and 2 indicate the content of each element in terms of mass%. C: 0.75% to 0.85%; Si: 0.10% to 1.00%; Mn: 0.30% to 1.20%; Cr: 0.20% to 0.80%; V: 0.01% to 0.20%; N: 0.0040% to 0.0200%; Mo: 0% to 0.50%; Co: 0% to 1.00%; B: 0% to 0.0050%; Cu: 0% to 1.00%; Ni: 0% to 1.00%; Nb: 0% to 0.0500%; Ti: 0% to 0.0500%; Mg: 0% to 0.0200%; Ca: 0% to 0.0200%; REM: 0% to 0.0500%; Zr: 0% to 0.0200%; Al: 0% to 1.00%; P ≤ 0.0250%; S ≤ 0.0250%; and Fe and impurities as a remainder, wherein the following Expressions 1 and 2 are satisfied, a structure of a range between an outer surface of a head portion as an origin and a depth of 25 mm includes 95% or greater of a pearlite structure and a hardness of the structure is Hv 350 to 480, wherein a measurement of the hardness is carried out in conformity with JIS Z 2244, 50 to 500 V carbonitride having an average grain size of 5 to 20 nm are present per 1.0 μm 2 of an area to be inspected in a transverse cross section at a position having the depth of 25 mm from the outer surface of the head portion, and the value obtained by subtracting a hardness of the position having the depth of 25 mm from the outer surface of the head portion from a hardness of a position having a depth of 2 mm from the outer surface of the head portion is Hv 0 to Hv 40, 1.00 < Mn / Cr ≤ 4.00 0.30 ≤ 0.25 × Mn + Cr ≤ 1.00 here, the symbols of elements described in the Expressions 1 and 2 indicate the content of each element in terms of mass%.
An insulated pipe, comprising one or more inner pipes surrounded by a discrete first foam layer and a flexible vacuum insulation panel wrapped around said first foam layer .
A rain protection system (RPS) comprising: a pump having a pump housing ; a power source housed within a control housing ; a control unit housed inside the control housing , wherein the control unit is configured to at least partially control the pump ; a cover hingedly coupled to the control housing such that the cover is adapted to move between an open state and a closed state, wherein the cover allows access to the power source in the open state of the cover ; the cover is biased by a biasing means to remain in the closed state; characterized in that: the open state is achieved when the cover is being moved against the force exerted by the biasing means . a pump having a pump housing ; a power source housed within a control housing ; a control unit housed inside the control housing , wherein the control unit is configured to at least partially control the pump ; a cover hingedly coupled to the control housing such that the cover is adapted to move between an open state and a closed state, wherein the cover allows access to the power source in the open state of the cover ; the cover is biased by a biasing means to remain in the closed state; characterized in that: the open state is achieved when the cover is being moved against the force exerted by the biasing means .
A system for controlling delivery of two variable pressure fluids to maintain a pressure bias between the two fluids within an injector, the system comprising: a. a first fluid supply for supplying a first fluid to the injector; b. a second fluid supply for supplying a second fluid to the injector; c. a pressure regulator disposed in a first fluid supply line between the first fluid supply and the injector for controlling a first fluid pressure within the injector as a function of a second fluid pressure within the injector; d. an actively controllable vent valve in fluid communication with the first fluid supply line between the pressure regulator and the injector; e. a first sensor (352 and/or 48) disposed between the pressure regulator and the injector for measuring pressure (P 1 ) in the first fluid supply line ; f. a second sensor (342 and/or 46) for measuring pressure (P 2 ) in a second fluid supply line ; and wherein said actively controllable vent valve is actuatable to an open position to decrease the first fluid pressure (P 1 ) within the injector when a determined pressure differential reversal (PDR = -dP = - (P 2 - P 1 ) when P 2 < P 1 ) exceeds a predetermined threshold pressure differential reversal (PDR th ). a. a first fluid supply for supplying a first fluid to the injector; b. a second fluid supply for supplying a second fluid to the injector; c. a pressure regulator disposed in a first fluid supply line between the first fluid supply and the injector for controlling a first fluid pressure within the injector as a function of a second fluid pressure within the injector; d. an actively controllable vent valve in fluid communication with the first fluid supply line between the pressure regulator and the injector; e. a first sensor (352 and/or 48) disposed between the pressure regulator and the injector for measuring pressure (P 1 ) in the first fluid supply line ; f. a second sensor (342 and/or 46) for measuring pressure (P 2 ) in a second fluid supply line ; and
A generator for a wind turbine , the generator comprising a rotor with an axis of rotation, a stator and a radial locking mechanism, wherein the radial locking mechanism comprises a plurality of radial locks and wherein the radial locks comprise: - a fixed portion coupled to the stator; and - a movable elongate portion configured to move relative to the fixed portion and radially with respect to the axis of the rotation; the radial locks being arranged to shift the generator between a radially locked and a radially unlocked configuration, wherein - in the radially locked configuration, the movable elongate portions of the radial locks contact an exterior surface of the rotor and are coupled to their respective fixed portions such that the movable elongate portions resist radial movement of the rotor ; and - in the radially unlocked configuration, the movable elongate portion of at least one of the radial locks does not contact the exterior surface of the rotor such that the rotor is movable in at least one radial direction. - a fixed portion coupled to the stator; and - a movable elongate portion configured to move relative to the fixed portion and radially with respect to the axis of the rotation; - in the radially locked configuration, the movable elongate portions of the radial locks contact an exterior surface of the rotor and are coupled to their respective fixed portions such that the movable elongate portions resist radial movement of the rotor ; and - in the radially unlocked configuration, the movable elongate portion of at least one of the radial locks does not contact the exterior surface of the rotor such that the rotor is movable in at least one radial direction.
An apparatus comprising: a receiving unit for receiving an image captured by a monitoring camera ; a determination unit for determining, based on the image that was received, a presence or absence of an occurrence of an event that interferes with monitoring performed by the monitoring camera ; and a notification unit for notifying an administrator of the monitoring camera that the presence of the occurrence of the event has been determined, in response to the determination, characterized in that the apparatus further comprises an image management unit configured to associate an image captured by another monitoring camera whose field of view includes the monitoring camera with the determination of the presence of the occurrence of the event, in response to the presence of the occurrence of the event is determined based on the image captured by the monitoring camera , to confirm the factor that caused the monitoring interference event. a receiving unit for receiving an image captured by a monitoring camera ; a determination unit for determining, based on the image that was received, a presence or absence of an occurrence of an event that interferes with monitoring performed by the monitoring camera ; and a notification unit for notifying an administrator of the monitoring camera that the presence of the occurrence of the event has been determined, in response to the determination, characterized in that the apparatus further comprises an image management unit configured to associate an image captured by another monitoring camera whose field of view includes the monitoring camera with the determination of the presence of the occurrence of the event, in response to the presence of the occurrence of the event is determined based on the image captured by the monitoring camera , to confirm the factor that caused the monitoring interference event.