mhurhangee/ep-ind-claims huggingface dataset:
An object detection apparatus comprising a radar means (2, 11) that detects a radar object and determines position information of an object based on the detected radar object, an imaging means (3, 12) that detects an image object and determines position and size information based on the detected image object, a fusion processing means that fuses the detected radar object with the detected image object if the detection result of the radar means exists within a search area and the detection result of the imaging means exists within the search area, thereby satisfying a fusion condition, to generate a fusion object having position information and size information, wherein the fusion processing means generates a provisional fusion object, and includes an updating means that reduces the size information of a previously acquired fusion object by multiplying the size information of the previously acquired fusion object by a coefficient, when the previously acquired fusion object is acquired as a result of satisfaction of the fusion condition, and the detection result of the radar means exists within the search area and the detection result of the imaging means does not exist within the search area such that the fusion condition is not satisfied, wherein the reduced size information is set as the size information of the provisional fusion object.
A polycrystalline chemical vapour deposited diamond wafer with: a diameter between 40 mm and 100 mm; a thickness between 1.0 mm and 1.5 mm; an absorption coefficient between 0.03 cm -1 and 0.07 cm -1 at 10.6 μm; and characterised by a black spot microfeature density meeting the following specification: in a central area of the polycrystalline CVD diamond wafer from 0 to 20 mm radius there are no more than 50 black spot microfeatures of a size between 0.002 and 0.008 mm 2, no more than 10 black spot microfeatures of a size between 0.008 and 0.018 mm 2, no more than 5 black spot microfeatures of a size between 0.018 and 0.05 mm 2, and zero black spot microfeatures of a size between 0.05 and 0.1 mm 2, and in an outer region of the polycrystalline CVD diamond wafer from 20 to 40 mm radius there are no more than 100 black spot microfeatures of a size between 0.002 and 0.008 mm 2, no more than 20 black spot microfeatures of a size between 0.008 and 0.018 mm 2, no more than 10 black spot microfeatures of a size between 0.018 and 0.05 mm 2, and zero black spot microfeatures of a size between 0.05 and 0.1 mm 2. a diameter between 40 mm and 100 mm; a thickness between 1.0 mm and 1.5 mm; an absorption coefficient between 0.03 cm -1 and 0.07 cm -1 at 10.6 μm; and characterised by a black spot microfeature density meeting the following specification: in a central area of the polycrystalline CVD diamond wafer from 0 to 20 mm radius there are no more than 50 black spot microfeatures of a size between 0.002 and 0.008 mm 2, no more than 10 black spot microfeatures of a size between 0.008 and 0.018 mm 2, no more than 5 black spot microfeatures of a size between 0.018 and 0.05 mm 2, and zero black spot microfeatures of a size between 0.05 and 0.1 mm 2, and in an outer region of the polycrystalline CVD diamond wafer from 20 to 40 mm radius there are no more than 100 black spot microfeatures of a size between 0.002 and 0.008 mm 2, no more than 20 black spot microfeatures of a size between 0.008 and 0.018 mm 2, no more than 10 black spot microfeatures of a size between 0.018 and 0.05 mm 2, and zero black spot microfeatures of a size between 0.05 and 0.1 mm 2. in a central area of the polycrystalline CVD diamond wafer from 0 to 20 mm radius there are no more than 50 black spot microfeatures of a size between 0.002 and 0.008 mm 2, no more than 10 black spot microfeatures of a size between 0.008 and 0.018 mm 2, no more than 5 black spot microfeatures of a size between 0.018 and 0.05 mm 2, and zero black spot microfeatures of a size between 0.05 and 0.1 mm 2, and in an outer region of the polycrystalline CVD diamond wafer from 20 to 40 mm radius there are no more than 100 black spot microfeatures of a size between 0.002 and 0.008 mm 2, no more than 20 black spot microfeatures of a size between 0.008 and 0.018 mm 2, no more than 10 black spot microfeatures of a size between 0.018 and 0.05 mm 2, and zero black spot microfeatures of a size between 0.05 and 0.1 mm 2.
A conjugate delivery system for delivering an RNA interference polynucleotide to a liver cell in vivo comprising: wherein, P is an amphipathic membrane active polyamine; L 2 is a pH labile linkage; M 1 is a charge neutral masking agent containing a galactose derivative, M 2 is a charge neutral masking agent containing a polyethylene glycol, N is an RNA interference polynucleotide, A is a galactose trimer or a hydrophobic group having at least 20 carbon atoms, y is an integer greater than or equal to 1 and z is an integer greater than or equal to 0 wherein the value of y and z together is greater than 50% of the number of amines of the polyamine P; the positive charge of polyamine P is neutralized and the membrane activity of polyamine P is reversibly inhibited by attachment of M 1 and M 2 through the pH-labile linkage L 2 and cleavage of L 2 in response to a decrease in pH restores membrane activity of the polyamine P; N and A are not, directly or indirectly, covalently linked to P, L 2, M1 or M 2. P is an amphipathic membrane active polyamine; L 2 is a pH labile linkage; M 1 is a charge neutral masking agent containing a galactose derivative, M 2 is a charge neutral masking agent containing a polyethylene glycol, N is an RNA interference polynucleotide, A is a galactose trimer or a hydrophobic group having at least 20 carbon atoms,
A method of using a Temporary Flow Identity, TFI, in a GERAN network, the TFI comprising a first number of bits, said TFI addressing a Temporary Block Flow, TBF, of a RLC/MAC data block or a PAN, the method comprising the step of: - addressing the TBF of said RLC/MAC data block or said Piggy Backed ACK/NACK, PAN, using a TFI having an increased number of bits compared to said first number of bits, characterized in that - a binary XOR operation of the TFI with a CRC sum of a RLC/MAC header of the RLC/MAC data block is performed; or - a XOR operation of a TFI field comprising the TFI with a CRC sum of the PAN is performed, which CRC sum of the PAN is generated using a second CRC polynomial that is different from a first CRC polynomial, wherein a first group of mobile stations are able to decode a CRC sum generated by said first CRC polynomial but not by said second CRC polynomial. - addressing the TBF of said RLC/MAC data block or said Piggy Backed ACK/NACK, PAN, using a TFI having an increased number of bits compared to said first number of bits, characterized in that - a binary XOR operation of the TFI with a CRC sum of a RLC/MAC header of the RLC/MAC data block is performed; or - a XOR operation of a TFI field comprising the TFI with a CRC sum of the PAN is performed, which CRC sum of the PAN is generated using a second CRC polynomial that is different from a first CRC polynomial, wherein a first group of mobile stations are able to decode a CRC sum generated by said first CRC polynomial but not by said second CRC polynomial.
A method of forming an optical substrate comprising a random pattern, wherein the random pattern is made of a conductive material, the method comprising the steps of: supplying a substrate to be used in an optical device, a touch panel or a display to which an optical sheet is applied, delimiting a pattern design region on a surface of the substrate, forming a random pattern in the pattern design region, wherein the step of forming a random pattern comprises: setting a plurality of unit valid pattern regions (a, b) in the pattern design region, creating random point coordinates in order to set a random point in each unit valid pattern region; and connecting the random point comprised in each unit valid pattern region to other random points (10, 30) comprised in adjacent unit valid pattern regions, in a first direction or a second direction, in order to form the random pattern, wherein the distance between the random points in adjacent unit valid pattern regions is in a range of 20μm to 1mm, and wherein the random point comprised in each unit valid pattern region and the other random points comprised in adjacent unit valid pattern regions are connected to each other by spline curves. supplying a substrate to be used in an optical device, a touch panel or a display to which an optical sheet is applied, delimiting a pattern design region on a surface of the substrate, forming a random pattern in the pattern design region, wherein the step of forming a random pattern comprises: setting a plurality of unit valid pattern regions (a, b) in the pattern design region, creating random point coordinates in order to set a random point in each unit valid pattern region; and connecting the random point comprised in each unit valid pattern region to other random points (10, 30) comprised in adjacent unit valid pattern regions, in a first direction or a second direction, in order to form the random pattern, wherein the distance between the random points in adjacent unit valid pattern regions is in a range of 20μm to 1mm, and wherein the random point comprised in each unit valid pattern region and the other random points comprised in adjacent unit valid pattern regions are connected to each other by spline curves. setting a plurality of unit valid pattern regions (a, b) in the pattern design region, creating random point coordinates in order to set a random point in each unit valid pattern region; and connecting the random point comprised in each unit valid pattern region to other random points (10, 30) comprised in adjacent unit valid pattern regions, in a first direction or a second direction, in order to form the random pattern, wherein the distance between the random points in adjacent unit valid pattern regions is in a range of 20μm to 1mm, and wherein the random point comprised in each unit valid pattern region and the other random points comprised in adjacent unit valid pattern regions are connected to each other by spline curves.
A fuel additive concentrate for gasoline comprising an aromatic solvent and from 5 to 50 wt.-% based on a total weight of the additive concentrate, of a mixture consisting of (i) N,N-bis(2-hydroxyethyl)alkylamide, (ii) 2-((2-(bis(2-hydroxyethyl)amino)ethyl)-amino)ethyl alkanoate and N-(2-(bis(2-hydroxyethyl)-amino)ethyl)-N-(2-hydroxyethyl)alkylamide, and (iii) fatty acid ester(s) and amide(s) derived from a self-condensation product of diethanolamine containing at least 3 amino groups, wherein a weight ratio of (i) to (ii) to (iii) ranges from 8:2:0 to 2:5:3 and wherein the fuel additive mixture is substantially devoid of glycerin and remains fluid at a temperature down to -20 °C.
A method of controlling operation of a metal-air battery, the method comprising: controlling a current drawn from the battery and a temperature of the battery by repeatedly setting the current drawn from the battery and repeatedly setting the temperature of the battery until a desired energetic utilization ratio is achieved, wherein the energetic utilization ratio comprises a corrosion rate and an actual cell voltage.
A beam-shaping laser optics with a lens field which comprises a plurality of first lenses, which are arranged next to one another and designed in such that they effect beam-shaping in a first direction (y) normal to an optical axis (x), and an individual second lens, which is designed such that it effects beam-shaping in a second direction (z) normal to the optical axis (x) and the first direction (y), wherein at least one lens or lens group, which collimates the radiation, is positioned upstream of the arrangement of the lens field and the second lens, in such a way that the lens field and the second lens are arranged in a region of a collimated radiation, at least one focusing lens is arranged in the beam path behind the lens field and the second lens, and the lens field and the second lens are arranged behind one another in the beam path along the optical axis (x) in such a way that they only partially overlap the beam path in a transverse direction normal to the optical axis (x). at least one lens or lens group, which collimates the radiation, is positioned upstream of the arrangement of the lens field and the second lens, in such a way that the lens field and the second lens are arranged in a region of a collimated radiation, at least one focusing lens is arranged in the beam path behind the lens field and the second lens, and the lens field and the second lens are arranged behind one another in the beam path along the optical axis (x) in such a way that they only partially overlap the beam path in a transverse direction normal to the optical axis (x).
A device, with - a valve arrangement configured to control the flow of a fluid through a fluid channel, wherein the valve arrangement is designed as an opener or a closer; and - a pressurizing device connected in terms of flow with the fluid channel, which can be used to pressurize the fluid in the fluid channel; characterized by the valve arrangement, comprising: - a hose made of a flexible material, in which a section of a fluid channel is formed; - a valve component (1; 40; 50; 60; 110) allocated to the hose; - a cantilever arm formed on the valve component (1; 40; 50; 60; 110), wherein the cantilever arm is designed so that it can be reversibly displaced against a restoring force at least partially provided by the cantilever arm itself; - a crimping element (10; 41, 51; 62), which is arranged on a distal end of the cantilever arm for mounting the cantilever arm on a valve component (1; 40; 50; 60; 110), wherein the crimping element (10; 41, 51; 62) can be displaced by means of an actuator (11; 44, 45; 54, 55) against the restoring force on the cantilever arm, and wherein the crimping element (10; 41, 51; 62) can be pressed against an outer surface of the hose to control the flow of a fluid through the fluid channel up to closing of the fluid channel; and - the actuator (11; 44, 45; 54, 55) allocated to the crimping element (10; 41, 51; 62), by means of which the crimping element (10; 41; 51; 62) is displaceable into various regulating positions, wherein the pressure of the crimping element (10; 41; 51; 62) on the outer surface of the hose, and thereby the flow through the fluid channel is regulatable. - a valve arrangement configured to control the flow of a fluid through a fluid channel, wherein the valve arrangement is designed as an opener or a closer; and - a pressurizing device connected in terms of flow with the fluid channel, which can be used to pressurize the fluid in the fluid channel; - a hose made of a flexible material, in which a section of a fluid channel is formed; - a valve component (1; 40; 50; 60; 110) allocated to the hose; - a cantilever arm formed on the valve component (1; 40; 50; 60; 110), wherein the cantilever arm is designed so that it can be reversibly displaced against a restoring force at least partially provided by the cantilever arm itself; - a crimping element (10; 41, 51; 62), which is arranged on a distal end of the cantilever arm for mounting the cantilever arm on a valve component (1; 40; 50; 60; 110), wherein the crimping element (10; 41, 51; 62) can be displaced by means of an actuator (11; 44, 45; 54, 55) against the restoring force on the cantilever arm, and wherein the crimping element (10; 41, 51; 62) can be pressed against an outer surface of the hose to control the flow of a fluid through the fluid channel up to closing of the fluid channel; and - the actuator (11; 44, 45; 54, 55) allocated to the crimping element (10; 41, 51; 62), by means of which the crimping element (10; 41; 51; 62) is displaceable into various regulating positions, wherein the pressure of the crimping element (10; 41; 51; 62) on the outer surface of the hose, and thereby the flow through the fluid channel is regulatable.
A thermally-conductive electromagnetic interference absorber comprising a material including thermally-conductive particles, EMI absorbing particles, and silicon carbide, whereby the silicon carbide is present in an amount predetermined to synergistically enhance both thermal conductivity and EMI absorption of the thermally conductive EMI absorber, wherein the material comprises a polymer matrix loaded with the thermally-conductive particles, the EMI absorbing particles, and the silicon carbide such that the thermally-conductive EMI absorber includes at least 6 volume percent of the thermally-conductive particles, at least 8 volume percent of the EMI absorbing particles, and at least 21 volume percent of the silicon carbide; or wherein the material comprises a silicone elastomer matrix that includes magnetic flakes, carbonyl iron powder, alumina, manganese zinc ferrite, and the silicon carbide, such that the thermally-conductive EMI absorber includes 2 to 4 volume percent of the magnetic flakes, 3 to 5 volume percent of carbonyl iron powder, 18 to 23 volume percent of the alumina, 27 to 40 volume percent of the manganese zinc ferrite, and 4 to 10 volume percent of the silicon carbide.
A device for discharging oil from an oil chamber situated in the downstream part of a gas turbine engine, the device comprising: - oil discharge means designed to allow at least some of the oil contained in the chamber to be discharged to outside the engine when the level in said chamber exceeds a threshold level, and - oil entrainment means (11A, 12A) able to allow through a stream of air the flow of which contributes to driving the discharge of oil to outside said engine, characterized in that the entrainment means comprise: - a vent orifice made in the downstream part of said engine so that the oil takes said orifice, and - a guide element arranged so that the oil, having taken said vent orifice, is directed toward the downstream bleed zone of the low-pressure turbine. - oil discharge means designed to allow at least some of the oil contained in the chamber to be discharged to outside the engine when the level in said chamber exceeds a threshold level, and - oil entrainment means (11A, 12A) able to allow through a stream of air the flow of which contributes to driving the discharge of oil to outside said engine, characterized in that the entrainment means comprise: - a vent orifice made in the downstream part of said engine so that the oil takes said orifice, and - a guide element arranged so that the oil, having taken said vent orifice, is directed toward the downstream bleed zone of the low-pressure turbine. - a vent orifice made in the downstream part of said engine so that the oil takes said orifice, and - a guide element arranged so that the oil, having taken said vent orifice, is directed toward the downstream bleed zone of the low-pressure turbine.
A flame resistant fabric comprising a fiber blend comprising at least 40%, and no more than 60%, additive-containing fibers (AC fibers), containing an energy absorbing and/or reflecting additive, wherein the fabric has a weight of no more than 300 grams per square meter (9 ounces per square yard) and an arc rating of at least 33 joules/cm 2 (8 cal/cm 2).
A portable temperature controlled container (1, 61, 81) comprising: a body having an outer shell, an inner shell and an insulation layer therebetween, the body defining a storage compartment and an opening to permit access to the storage compartment; an insulated lid selectively covering the opening in the body; a first thermoelectric device in thermal communication with the storage compartment; a first phase change material in thermal communication with the first thermoelectric device; a rechargeable battery; a temperature sensor operable to measure the temperature inside the storage compartment; a controller in communication with the thermoelectric device and the temperature sensor, the controller being operable to control the thermoelectric device to regulate the temperature inside the storage compartment; and in which the first thermoelectric device is operable to remove energy in the form of heat from the storage compartment and transfer that energy in the form of heat to the first phase change material; wherein there is provided a second thermoelectric device controlled by the controller, a heat sink (21, 63) in thermal communication with the second thermoelectric device, characterized by an air passageway through the body, means to close the air passageway through the body, and a fan (19, 65) operable to deliver airflow through the air passageway over the heat sink. a body having an outer shell, an inner shell and an insulation layer therebetween, the body defining a storage compartment and an opening to permit access to the storage compartment; an insulated lid selectively covering the opening in the body; a first thermoelectric device in thermal communication with the storage compartment; a first phase change material in thermal communication with the first thermoelectric device; a rechargeable battery; a temperature sensor operable to measure the temperature inside the storage compartment; a controller in communication with the thermoelectric device and the temperature sensor, the controller being operable to control the thermoelectric device to regulate the temperature inside the storage compartment; and in which the first thermoelectric device is operable to remove energy in the form of heat from the storage compartment and transfer that energy in the form of heat to the first phase change material; wherein there is provided a second thermoelectric device controlled by the controller, a heat sink (21, 63) in thermal communication with the second thermoelectric device, characterized by an air passageway through the body, means to close the air passageway through the body, and a fan (19, 65) operable to deliver airflow through the air passageway over the heat sink.
A shearing blade for a cutting device, comprising a main body that has a seat and a blade insert that is arranged on the seat and forms a cutting wedge, wherein the cutting wedge forms a cutting edge by means of a flank face and a pressure face at an angle to the flank face, the seat having undercut faces (13, 28) that act in a direction transverse to the flank face, which undercut faces (13, 28), when the blade insert is inserted, interact with form-closure faces (16, 27) formed on the blade insert and thereby a form closure taking effect transversely to the flank face, wherein form-closure faces are arranged in the middle part and form-closure faces are arranged on end faces on end sections of the blade insert and interact with undercut faces (13, 28) in the main body, wherein undercut faces for the end sections of the blade insert and undercut faces for the middle part of the blade insert have the same profile in cross-section, characterized in that the blade insert is fastened to the main body by means of at least one pin-shaped plug-in connection element, which is oriented transverse to the flank face and which is arranged in aligned holes (18, 19) in the main body and in the blade insert.