mhurhangee/patent-ind-claim-en huggingface dataset:
A combination of an L-shaped connector and a cover for L-shaped connector , the L-shaped connector having a connector section serving as a portion to be inserted into a connection port and a cable holding section that is configured to guide a cable from the connector section in a feeding direction (F) orthogonal to the connector section, wherein the connector section and the cable holding section are formed of cylindrical members made of metal, and a male screw on the cable holding section side is screwed into and integrated with a coupling section provided with a female screw formed on the connector section side, and the cover for L-shaped connector comprising: a cover main body configured to integrally cover the connector section and the cable holding section ; a connector cover section that is included in the cover main body and configured to cover the connector section ; and a finger hold section provided on the connector cover section and protruding outward in a direction orthogonal to a center line (O) of the connector section , wherein the connector cover section has a cylindrical shape, and further provided is a cable holding cover section configured to cover the cable holding section and having a U-shaped groove shape covering a front surface side with regard to an insertion direction (E) of the L-shaped connector , the insertion direction being parallel to the center line (O), and open on a back surface side that is opposite to the front side, such that the L-shaped connector can be fitted from the back surface side of the cover. a cover main body configured to integrally cover the connector section and the cable holding section ; a connector cover section that is included in the cover main body and configured to cover the connector section ; and a finger hold section provided on the connector cover section and protruding outward in a direction orthogonal to a center line (O) of the connector section ,
A method for manufacturing a three-dimensional object with an additive manufacturing system, comprising: - providing a support material comprising more than 50 % wt. of at least one semi-crystalline polyamide having a melting point (T m ), as determined according to ASTM D3418, of from 100 °C up to less than 250 °C, wherein the polyamide, when immersed in water at a concentration of 250 g/l, is soluble in water, is dispersed in water or is swollen by water with a water uptake at saturation of at least 25 % by weight, based on the initial weight of the polyamide; - providing a part material; - printing layers of a support structure from the provided support material, and printing layers of the three-dimensional object from the provided part material in coordination with the printing of the layers of the support structure to provide an assembly of support structure and three-dimensional object, wherein at least a portion of the printed layers of the support structure support the printed layers of the three-dimensional object; and - removing at least a portion of the support structure from the assembly so as to obtain the three-dimensional object. - providing a support material comprising more than 50 % wt. of at least one semi-crystalline polyamide having a melting point (T m ), as determined according to ASTM D3418, of from 100 °C up to less than 250 °C, wherein the polyamide, when immersed in water at a concentration of 250 g/l, is soluble in water, is dispersed in water or is swollen by water with a water uptake at saturation of at least 25 % by weight, based on the initial weight of the polyamide; - providing a part material; - printing layers of a support structure from the provided support material, and printing layers of the three-dimensional object from the provided part material in coordination with the printing of the layers of the support structure to provide an assembly of support structure and three-dimensional object, wherein at least a portion of the printed layers of the support structure support the printed layers of the three-dimensional object; and - removing at least a portion of the support structure from the assembly so as to obtain the three-dimensional object.
Method for monitoring performance of a radar sensor , the method comprising: monitoring (S1) by a range monitor of a monitoring unit the range of visibility of the radar sensor , calculating (S2) by a calculation unit of the monitoring unit a most recent gradient of the range of visibility of the radar sensor by multiplying the former value of the gradient with one minus alpha and adding a new value of the gradient multiplied by alpha, wherein alpha is a filter parameter between 0 and 1, and wherein the new value of the gradient is calculated in every cycle of the radar sensor by subtracting the range of visibility of the former cycle of the radar sensor from the range of visibility of the radar sensor in the recent cycle and dividing the result by the cycle time, wherein the range of visibility and the most recent gradient of the range of visibility are calculated every cycle of the radar sensor , wherein the cycle of the radar sensor is a working cycle of the radar sensor in which the radar sensor provides an updated information about detected objects and reporting (S3) by the calculation unit a degradation of the performance of the radar sensor , if the most recent gradient is below a predetermined threshold value . monitoring (S1) by a range monitor of a monitoring unit the range of visibility of the radar sensor , calculating (S2) by a calculation unit of the monitoring unit a most recent gradient of the range of visibility of the radar sensor by multiplying the former value of the gradient with one minus alpha and adding a new value of the gradient multiplied by alpha, wherein alpha is a filter parameter between 0 and 1, and wherein the new value of the gradient is calculated in every cycle of the radar sensor by subtracting the range of visibility of the former cycle of the radar sensor from the range of visibility of the radar sensor in the recent cycle and dividing the result by the cycle time, wherein the range of visibility and the most recent gradient of the range of visibility are calculated every cycle of the radar sensor , wherein the cycle of the radar sensor is a working cycle of the radar sensor in which the radar sensor provides an updated information about detected objects and reporting (S3) by the calculation unit a degradation of the performance of the radar sensor , if the most recent gradient is below a predetermined threshold value .
A method for tuning IGP metrics for a network domain, comprising: receiving, by one or more processors , a topology , G, of a network and a set of flows, F, wherein the topology G equals V, E, where V is a set of nodes on the domain network and E is the set of edges between each node in the set of nodes on the domain network; receiving, by the one or more processors , an objective function ; optimizing, by the one or more processors using reinforcement learning, the objective function based on the received topology and the one or more flows F; and being characterized by : determining, by a routing simulator , a network utility for each failure state in the set of edges E; wherein optimizing the objective function is further based on the network utility of each failure state determined by the routing simulator. receiving, by one or more processors , a topology , G, of a network and a set of flows, F, wherein the topology G equals V, E, where V is a set of nodes on the domain network and E is the set of edges between each node in the set of nodes on the domain network; receiving, by the one or more processors , an objective function ; optimizing, by the one or more processors using reinforcement learning, the objective function based on the received topology and the one or more flows F; and being characterized by : determining, by a routing simulator , a network utility for each failure state in the set of edges E; wherein optimizing the objective function is further based on the network utility of each failure state determined by the routing simulator. determining, by a routing simulator , a network utility for each failure state in the set of edges E; wherein optimizing the objective function is further based on the network utility of each failure state determined by the routing simulator.
A system for monitoring a water collecting container characterized in that the system comprises: a first sensor operable to detect if water is present within the water collecting container ; a second sensor operable to determine a level of water within the water collecting container ; and a processing device operably coupled to the first sensor and the second sensor ; wherein both the first sensor and the second sensor are mounted to the water collecting container ; wherein the water collecting container is mounted within a cabinet of a refrigerated sales cabinet ; and the system is configured such that operation of the second sensor is initiated in response to detecting water within the water collecting container by the first sensor . a first sensor operable to detect if water is present within the water collecting container ; a second sensor operable to determine a level of water within the water collecting container ; and a processing device operably coupled to the first sensor and the second sensor ; wherein both the first sensor and the second sensor are mounted to the water collecting container ; wherein the water collecting container is mounted within a cabinet of a refrigerated sales cabinet ; and the system is configured such that operation of the second sensor is initiated in response to detecting water within the water collecting container by the first sensor .
A measurement device comprising: a device main unit being a microplate including a plurality of cavities arranged in an array, the cavities being wells adapted to accommodate an analyte containing a specimen, said cavities including a bottom section and an upper section, the device main unit including a first member comprising an array of wells forming closed bottom sections of the cavities and a second member comprising an array of through-holes corresponding to the wells of the first member , said through-holes forming the upper sections of the cavities ; and a flat or film-like aperture array structure disposed between the first member and the second member , the aperture array structure including a plurality of apertures extending therethrough in a direction perpendicular to a principal surface thereof, the aperture array structure being a single aperture array structure including a plurality of effective regions arranged in the plurality of cavities , respectively, wherein the aperture array structure is sandwiched between the first member and the second member and thereby fixed to the device main unit such that the plurality of effective regions are positioned in the plurality of cavities , respectively, wherein the aperture array structure is arranged in an intermediate position in the cavities between the bottom and upper sections thereof and detachable from and attachable to the device main unit . a device main unit being a microplate including a plurality of cavities arranged in an array, the cavities being wells adapted to accommodate an analyte containing a specimen, said cavities including a bottom section and an upper section, the device main unit including a first member comprising an array of wells forming closed bottom sections of the cavities and a second member comprising an array of through-holes corresponding to the wells of the first member , said through-holes forming the upper sections of the cavities ; and a flat or film-like aperture array structure disposed between the first member and the second member , the aperture array structure including a plurality of apertures extending therethrough in a direction perpendicular to a principal surface thereof, the aperture array structure being a single aperture array structure including a plurality of effective regions arranged in the plurality of cavities , respectively, wherein the aperture array structure is sandwiched between the first member and the second member and thereby fixed to the device main unit such that the plurality of effective regions are positioned in the plurality of cavities , respectively, wherein the aperture array structure is arranged in an intermediate position in the cavities between the bottom and upper sections thereof and detachable from and attachable to the device main unit .
A method for wireless communications, communications performed by a base station , comprising: determining whether to include a wideband reference signal for a subframe based on a presence or absence of downlink data scheduled in the subframe; associating the wideband reference signal with a narrowband demodulation reference signal, DMRS , in a data channel based on the determining, wherein the associating the wideband reference signal with the DMRS comprises attaching the wideband reference signal in a control channel region or a data channel region if the downlink data is present in the subframe, or omitting the wideband reference signal in the control channel region or the data channel region based on a determination that the downlink data is absent in the subframe; and transmitting a notification to a receiving device that indicates whether the wideband reference signal can be used for data channel demodulation based on the association. determining whether to include a wideband reference signal for a subframe based on a presence or absence of downlink data scheduled in the subframe; associating the wideband reference signal with a narrowband demodulation reference signal, DMRS , in a data channel based on the determining, wherein the associating the wideband reference signal with the DMRS comprises attaching the wideband reference signal in a control channel region or a data channel region if the downlink data is present in the subframe, or omitting the wideband reference signal in the control channel region or the data channel region based on a determination that the downlink data is absent in the subframe; and transmitting a notification to a receiving device that indicates whether the wideband reference signal can be used for data channel demodulation based on the association.
An electronic device comprising: a basic member (B) disposed on an outside of the electronic device ; at least a portion of a periphery of the basic member formed in a curved shape; a glass film (G); a reinforcement film (S), wherein the reinforcement film (S) is interposed between the glass film (G) and the basic member (B), and wherein the glass film (G) and the reinforcement film (S) have been laminated together prior to being at least partially laminated, by at least one of a roll laminating method and a pressing method, to the outer surface of the basic member (B), and wherein a curved shape of the glass film (G) and the curved shape of the basic member (B) correspond to each other. a basic member (B) disposed on an outside of the electronic device ; at least a portion of a periphery of the basic member formed in a curved shape; a glass film (G); a reinforcement film (S), wherein the reinforcement film (S) is interposed between the glass film (G) and the basic member (B), and wherein the glass film (G) and the reinforcement film (S) have been laminated together prior to being at least partially laminated, by at least one of a roll laminating method and a pressing method, to the outer surface of the basic member (B), and wherein a curved shape of the glass film (G) and the curved shape of the basic member (B) correspond to each other.
A system for acquiring information from an environment of an interior of a vehicle cabin comprising: (a) a light source for generating at least one beam ; (b) a first optical setup having at least one lens for converting the at least one light beam into a structured light pattern and distorting said structured light pattern into a radially distorted light pattern projectable onto the environment, said at least one lens is selected to have an angle of view required for covering, by said distorted light pattern , the interior of the vehicle cabin, when projected inside said vehicle cabin and to generate a pre-determined shape of distorted light pattern , wherein said at least one lens includes a first fisheye lens ; and (c) a second optical setup for converting an original view returned from said environment completely covering said angle of view in the vehicle cabin and comprising said distorted light pattern deformed by at least one surface of said environment into a corrected image in which said shape of the radially distorted light pattern is corrected to a non-distorted corrected pattern. (a) a light source for generating at least one beam ; (b) a first optical setup having at least one lens for converting the at least one light beam into a structured light pattern and distorting said structured light pattern into a radially distorted light pattern projectable onto the environment, said at least one lens is selected to have an angle of view required for covering, by said distorted light pattern , the interior of the vehicle cabin, when projected inside said vehicle cabin and to generate a pre-determined shape of distorted light pattern , wherein said at least one lens includes a first fisheye lens ; and (c) a second optical setup for converting an original view returned from said environment completely covering said angle of view in the vehicle cabin and comprising said distorted light pattern deformed by at least one surface of said environment into a corrected image in which said shape of the radially distorted light pattern is corrected to a non-distorted corrected pattern.
A set of linearity control slides for verifying the analytical measuring interval or reportable range, or both, of an image-based hematology analyzer comprising at least one, e.g., at least two, three, four, or all five, of: a first set of slides for combined red blood cell, RBC, hemoglobin, HGB, and hematocrit, HCT, components; a second set of slides for a white blood cell, WBC, component; a third set of slides for a platelet, PLT, component; a fourth set of slides for a reticulocyte, RET, component; and a fifth set of slides for a nucleated red blood cell, NRBC, component; wherein each set of slides includes three or more slides, wherein each slide in the set contains one of a series of equidistant dilutions within a range of concentrations of the blood component of that set, and wherein each set of slides is fixed and stained, by a hematology analyzer, e.g., an image-based hematology analyzer. a first set of slides for combined red blood cell, RBC, hemoglobin, HGB, and hematocrit, HCT, components; a second set of slides for a white blood cell, WBC, component; a third set of slides for a platelet, PLT, component; a fourth set of slides for a reticulocyte, RET, component; and a fifth set of slides for a nucleated red blood cell, NRBC, component; wherein each set of slides includes three or more slides, wherein each slide in the set contains one of a series of equidistant dilutions within a range of concentrations of the blood component of that set, and wherein each set of slides is fixed and stained, by a hematology analyzer, e.g., an image-based hematology analyzer.
An exhaust gas purifying composition comprising BEA zeolite which has an SiO 2 /Al 2 O 3 molar ratio of greater than 25 and 600 or less and which contains phosphorus and zirconium, wherein an amount of the phosphorus contained in the zeolite is such that a molar ratio (P/Al) thereof with respect to Al in the BEA zeolite is 0.5 or greater, and an amount of the zirconium contained in the zeolite is such that a molar ratio (Zr/Al) thereof with respect to Al in the zeolite is from 0.25 to 1.
A method of making a silylamine, the method comprising: combining ammonia and a compound comprising aminosilane functionality, where the compound comprising aminosilane functionality is according to formula (I) R 1 N(R 2 ) a (SiH 3 ) 2-a (I), where R 1 is an organic polymer, a C 1-20 hydrocarbyl group or -SiR 3 3 , where R 3 is C 1-6 hydrocarbyl, R 2 is a C 1-20 hydrocarbyl group, H, or -SiR 3 3 , where R 3 is as defined above, subscript a is 0 or 1, provided that R 1 and R 2 may be the same or different except if R 1 is phenyl, R 2 is not phenyl, under sufficient conditions to cause a reaction to form a silylamine and a byproduct.
A laser system with optical feedback comprising: - a laser (110; 510A; 610A; 710A) that is sensitive to optical feedback and intended to emit, via an output optical fiber (111; 511A; 611A; 711A), a continuous-waveform forward-propagating source optical wave (L0p; L50Ap, L60Ap, L70Ap) called the source wave, the frequency of which is adjustable; - a resonant optical cavity that is coupled by optical feedback to the laser and that is configured to generate an intra-cavity wave (L5) a fraction of which is returned to the laser in the form of a back-propagating optical wave (L1c; L51Ac, L61Ac, L71Ac); - a fiber-based electro-optical modulator (115; 615A; 715A) placed on the optical path between the laser and the resonant optical cavity, the electro-optical modulator being configured to generate a phase-shifted source wave (L1p; L51Ap, L61Ap, L71Ap) by phase shifting the source wave and to generate, by phase shifting the back-propagating optical wave, a phase-shifted back-propagating wave (L0c; L50Ac, L60Ac, L70Ac), called the feedback wave, which reaches the laser; - a phase-controlling device (130; 230A; 230B; 230C; 230D; 230E; 530; 630; 730A) for generating a signal (SC; SC6A, SC7A) for controlling the electro-optical modulator from an error signal (SE) representative of the relative phase between the source wave (L0p; L50Ap, L60Ap, L70Ap) and the feedback wave (L0c; L50Ac, L60Ac, L70Ac), so as to cancel out the relative phase between the source wave and the feedback wave. - a laser (110; 510A; 610A; 710A) that is sensitive to optical feedback and intended to emit, via an output optical fiber (111; 511A; 611A; 711A), a continuous-waveform forward-propagating source optical wave (L0p; L50Ap, L60Ap, L70Ap) called the source wave, the frequency of which is adjustable; - a resonant optical cavity that is coupled by optical feedback to the laser and that is configured to generate an intra-cavity wave (L5) a fraction of which is returned to the laser in the form of a back-propagating optical wave (L1c; L51Ac, L61Ac, L71Ac); - a fiber-based electro-optical modulator (115; 615A; 715A) placed on the optical path between the laser and the resonant optical cavity, the electro-optical modulator being configured to generate a phase-shifted source wave (L1p; L51Ap, L61Ap, L71Ap) by phase shifting the source wave and to generate, by phase shifting the back-propagating optical wave, a phase-shifted back-propagating wave (L0c; L50Ac, L60Ac, L70Ac), called the feedback wave, which reaches the laser; - a phase-controlling device (130; 230A; 230B; 230C; 230D; 230E; 530; 630; 730A) for generating a signal (SC; SC6A, SC7A) for controlling the electro-optical modulator from an error signal (SE) representative of the relative phase between the source wave (L0p; L50Ap, L60Ap, L70Ap) and the feedback wave (L0c; L50Ac, L60Ac, L70Ac), so as to cancel out the relative phase between the source wave and the feedback wave.