mhurhangee/patent-ind-claim-en huggingface dataset:
A lamp head assembly (102; 202; 302) comprising: a body portion and thermally coupled thereto a heat exchanger element and a plurality of arrays (1-8) of light producing elements (104; 204; 304) thermally and mechanically coupled to the heat exchanger element ; a driver circuit (222; 322) configured to provide energy to each of the plurality of arrays (1-8); a microprocessor (216; 316) for controlling operation of the driver circuit (222; 322); and a plurality of sensors (208; 308a; 308b; 308c; 308d) in communication with the microprocessor (216; 316) for sensing characteristics of the lamp head assembly (102; 202; 302), wherein the microprocessor (216; 316) is configured to compare values of information sensed by one or more of the sensors (208; 308a; 308b; 308c; 308d) to predetermined values, and the microprocessor (216; 316) is configured to determine as to whether the values fall within at least one of an alarm or interlock range, or exceeds at least one of an alarm or interlock threshold, characterized in that one or more printed circuit board is coupled to the body portion, and in that at least one of the one ore more printed circuit board includes the driver circuit (222; 322), the microprocessor (216; 316) and the plurality of sensors (208; 308a; 308b; 308c; 308d) and is included in the lamp head assembly (102; 202; 302). a body portion and thermally coupled thereto a heat exchanger element and a plurality of arrays (1-8) of light producing elements (104; 204; 304) thermally and mechanically coupled to the heat exchanger element ; a driver circuit (222; 322) configured to provide energy to each of the plurality of arrays (1-8); a microprocessor (216; 316) for controlling operation of the driver circuit (222; 322); and a plurality of sensors (208; 308a; 308b; 308c; 308d) in communication with the microprocessor (216; 316) for sensing characteristics of the lamp head assembly (102; 202; 302), wherein the microprocessor (216; 316) is configured to compare values of information sensed by one or more of the sensors (208; 308a; 308b; 308c; 308d) to predetermined values, and the microprocessor (216; 316) is configured to determine as to whether the values fall within at least one of an alarm or interlock range, or exceeds at least one of an alarm or interlock threshold, characterized in that one or more printed circuit board is coupled to the body portion, and in that at least one of the one ore more printed circuit board includes the driver circuit (222; 322), the microprocessor (216; 316) and the plurality of sensors (208; 308a; 308b; 308c; 308d) and is included in the lamp head assembly (102; 202; 302).
A method of manufacturing a plurality of security sheets for displaying personal data, the method comprising the steps of: inserting a plurality of inserts into a plurality of apertures in at least one plastic layer , each insert comprising a plastic insert substrate and at least one security element located within and/or on the insert substrate , characterised in that the at least one security element is detectable by a naked eye and/or a machine and the insert substrate of each of the plurality of inserts comprises an insert perimeter registered to the at least one security element ; arranging plastic layers over opposing surfaces of the insert ; and fusing at least the insert substrate and plastic layers together to form a plastic substrate . inserting a plurality of inserts into a plurality of apertures in at least one plastic layer , each insert comprising a plastic insert substrate and at least one security element located within and/or on the insert substrate , characterised in that the at least one security element is detectable by a naked eye and/or a machine and the insert substrate of each of the plurality of inserts comprises an insert perimeter registered to the at least one security element ; arranging plastic layers over opposing surfaces of the insert ; and fusing at least the insert substrate and plastic layers together to form a plastic substrate .
Vehicle pneumatic tyre which has at least one rubberized reinforcing ply , which is a carcass and/or a belt bandage and/or a bead reinforcer, and a belt ply composed of rubberized strengthening members, wherein the reinforcing ply has a multiplicity of textile strengthening members which are arranged parallel to and spaced apart from one another, wherein each textile strengthening member is composed of at least one twisted multifilament yarn composed of the material viscose, and the reinforcing ply satisfies the following condition: (D 2 / E 0 ) in mm corresponds to a value in a range from 0.30 mm to 0.45 mm, and in that the reinforcing ply has a strength of 11 kN/dm < x < 20 kN/dm, wherein the strength of the reinforcing ply is the breaking force of the reinforcing ply in kN per dm (decimetre), which is calculated from the breaking force of the individual strengthening members multiplied by the number of strengthening members per dm of this reinforcing ply, with the breaking force being determined in accordance with ASTM D885M, where D is the diameter of the textile strengthening member in mm and lies in a range from 0.38 mm to 0.48 mm, and where E 0 = 100/epdm, characterized in that the belt ply satisfies the following condition: (D 2 / E 0 ) in mm corresponds to a value in a range from 0.07 mm to 0.43 mm, and in that the belt ply has a strength of 16.5 kN/dm < X < 55 kN/dm, where D is the diameter of the strengthening member in mm, and where E 0 = 100/epdm, and the sum of the strengths of the reinforcing ply with textile strengthening members and of the belt ply is ≥ 40 kN/dm. (D 2 / E 0 ) in mm corresponds to a value in a range from 0.30 mm to 0.45 mm, and in that the reinforcing ply has a strength of 11 kN/dm < x < 20 kN/dm, wherein the strength of the reinforcing ply is the breaking force of the reinforcing ply in kN per dm (decimetre), which is calculated from the breaking force of the individual strengthening members multiplied by the number of strengthening members per dm of this reinforcing ply, with the breaking force being determined in accordance with ASTM D885M, where D is the diameter of the textile strengthening member in mm and lies in a range from 0.38 mm to 0.48 mm, and where E 0 = 100/epdm, characterized in that the belt ply satisfies the following condition: (D 2 / E 0 ) in mm corresponds to a value in a range from 0.07 mm to 0.43 mm, and in that the belt ply has a strength of 16.5 kN/dm < X < 55 kN/dm, where D is the diameter of the strengthening member in mm, and where E 0 = 100/epdm, and the sum of the strengths of the reinforcing ply with textile strengthening members and of the belt ply is ≥ 40 kN/dm. (D 2 / E 0 ) in mm corresponds to a value in a range from 0.07 mm to 0.43 mm, and in that the belt ply has a strength of 16.5 kN/dm < X < 55 kN/dm, where D is the diameter of the strengthening member in mm, and where E 0 = 100/epdm, and the sum of the strengths of the reinforcing ply with textile strengthening members and of the belt ply is ≥ 40 kN/dm.
Flexible panel comprising: a plurality of first blades made of semi-rigid material, of rectangular shape, having a pair of long sides and a pair of short sides ; a plurality of pairs of flexible textile membranes , each pair of textile membranes connecting one and respectively the other long sides of a respective pair of said first blades ; each of said plurality of first blades comprises at least one second blade , of quadrilateral shape, connected to- and folding with respect to- one of said short sides , along a line of contact between one of said plurality of first blades and said at least one second blade ; vertical tubular hollow areas laterally delimited by said plurality of first blades and by said plurality of pairs of flexible textile membranes , wherein each of said plurality of first blades comprises a pair of second blades , of quadrilateral shape, connected to- and folding with respect to- each pair of said short sides .
An inner shroud assembly of a variable vane actuation system for a gas turbine engine , comprising: a shroud assembly comprising a multiple of forward shroud segments and a respective multiple of aft shroud segments ; a multiple of variable vanes rotationally retained at an inboard trunion between the forward and aft shroud segments of the shroud assembly ; and a retainer assembly comprising a multiple of retainer ring segments that retain the forward and aft shroud segments together, characterized in that the assembly further comprises: an anti-rotation lug on at least two of the aft shroud segments to receive a recess on an end section of two retainer ring segments . a shroud assembly comprising a multiple of forward shroud segments and a respective multiple of aft shroud segments ; a multiple of variable vanes rotationally retained at an inboard trunion between the forward and aft shroud segments of the shroud assembly ; and a retainer assembly comprising a multiple of retainer ring segments that retain the forward and aft shroud segments together, characterized in that the assembly further comprises: an anti-rotation lug on at least two of the aft shroud segments to receive a recess on an end section of two retainer ring segments .
An optical glass with negative anomalous dispersion, comprising the components by weight percentage as follows: 0-5% of Nb 2 O 5 , 20-40% of SiO 2 , 15-40% of B 2 O 3 , 15-40% of Ta 2 O 5 , and 5-20% of ZrO 2 , 5-15% of R 2 O, wherein the R 2 O includes one or more of K 2 O, Na 2 O and Li 2 O; ZnO+WO 3 +RO is 0-5%, and the RO includes one or more of BaO, SrO, CaO and MgO, exclusive of TiO 2 and F and wherein the relative partial dispersion of the optical glass Pg, F is less than 0.57, and the negative anomalous dispersion ΔPg, F is less than or equal to -0.008.
A process for the preparation of a product comprising one or more nanoparticles of calcium phosphate (CaP-NP) with a negative surface charge having a ζ-potential determined by Electrophoretic Light Scattering (ELS) in the range from - 41.0 mV to -27.0 mV, comprising the steps of: a) maintaining a mixture having a pH in the range from 7 to 10 and comprising an aqueous solution of calcium, an aqueous solution of phosphate and a solution of citrate ions at a temperature in the range from 20°C to 40°C for a time in the range from 30 seconds to 10 minutes; b) removing non-reacted ions from the obtained solution of step a), thus obtaining a suspension of one or more nanoparticles of calcium phosphate (CaP-NP); c) recovering the product of one or more nanoparticles of calcium phosphate (CaP-NP) from the suspension of step b), wherein in the mixture of step a) an aqueous solution of one or more therapeutic/diagnostic compounds is also present and the nanoparticles of calcium phosphate (CaP-NP) have a Z-average determined by Dynamic Light Scattering (DLS) in the range from 150 to 231 nm, or the one or more nanoparticles of calcium phosphate (CaP-NP) recovered from step c) are surface functionalized with one or more therapeutic/diagnostic compounds and have a splitting factor (SF) of at most 1.76 ,calculated from the FT-IR spectra of the NP according to Weiner S. and Bar-Yosef O. , and wherein said diagnostic/therapeutic compounds are selected from the group consisting of: nucleic acids, peptides, synthetic compounds, and diagnostic probes. a) maintaining a mixture having a pH in the range from 7 to 10 and comprising an aqueous solution of calcium, an aqueous solution of phosphate and a solution of citrate ions at a temperature in the range from 20°C to 40°C for a time in the range from 30 seconds to 10 minutes; b) removing non-reacted ions from the obtained solution of step a), thus obtaining a suspension of one or more nanoparticles of calcium phosphate (CaP-NP); c) recovering the product of one or more nanoparticles of calcium phosphate (CaP-NP) from the suspension of step b), wherein in the mixture of step a) an aqueous solution of one or more therapeutic/diagnostic compounds is also present and the nanoparticles of calcium phosphate (CaP-NP) have a Z-average determined by Dynamic Light Scattering (DLS) in the range from 150 to 231 nm, or the one or more nanoparticles of calcium phosphate (CaP-NP) recovered from step c) are surface functionalized with one or more therapeutic/diagnostic compounds and have a splitting factor (SF) of at most 1.76 ,calculated from the FT-IR spectra of the NP according to Weiner S. and Bar-Yosef O. , and wherein said diagnostic/therapeutic compounds are selected from the group consisting of: nucleic acids, peptides, synthetic compounds, and diagnostic probes.
An installation for heating and/or producing domestic hot water in a building, this installation being provided with a primary circuit inside which a technical liquid circulates, such as water, and with a heat pump , the latter comprising a refrigerant circuit on which are mounted in series, a first air/refrigerant heat exchanger , a compressor , a second refrigerant/technical liquid heat exchanger and an expansion device and this heat pump being disposed outside the building so that its refrigerant circuit is entirely outside the building, said primary circuit passing through said second heat exchanger , a third technical liquid/medium to be heated heat exchanger and a circulator , placed inside the building, being mounted on this primary circuit, this installation being characterized in that said primary circuit comprises a frost protection module , placed inside the building and which comprises a fourth technical liquid/air heat exchanger and a three-way valve , the latter being disposed so that its first channel is connected to the outlet of the third exchanger, its second channel is connected to a tapping point on the pipe of the primary circuit connecting said second exchanger to said third exchanger and its third channel is connected to the highest point of said fourth exchanger , in that said fourth exchanger is disposed lower than said second exchanger , and in that said three-way valve can occupy either a first position, called "heating" position, in which its first channel communicates exclusively with its third channel , so as to direct the technical liquid coming from the second exchanger toward the third exchanger and heat said medium to be heated, or a second position called "frost protection" position in which its second channel communicates exclusively with its third channel , so that the technical liquid no longer circulates in the third exchanger , but circulates in a loop, by natural circulation, from the highest point of the fourth exchanger toward said second exchanger then from said second exchanger toward the lowest point of the fourth exchanger.
Encapsulated microbattery comprising a microbattery (B) supported on a substrate , an encapsulation cover, said encapsulation cover (C1, C2, C3, C4) comprising a first face in contact with the microbattery and the substrate , said first face comprising a central zone (Zc) and a peripheral zone (Zp) surrounding the central zone (Zc), the central zone (Zc) being in contact with the microbattery (B) and the peripheral zone (Zp) being in contact with at least the substrate , the encapsulated microbattery comprising at least one cavity configured to collect a gaseous element generated by the microbattery, said at least one cavity being formed: - in the encapsulation cover in fluid communication with the central zone, and/or - in the substrate, and/or - in the microbattery. - in the encapsulation cover in fluid communication with the central zone, and/or - in the substrate, and/or - in the microbattery.
Filter systems for suspended matter (2.3) with a particle size of 400 pm to ≤500 μm in flowing fluids (2.2), the filter systems each comprising at least one device in objects (2.6), through which the fluids (2.2) are flowable and which are fixed in the fluids (2.2), selected from the group consisting of fluid-permeable, vibrating membranes, foams, nets, threads and fabrics, the device comprising at least one flow area (2.1) for the fluids (2.2., 2.2.1) to flow through, wherein - the at least one flow area (2.1) has at least two pairs of mutually associated and opposing piezoelectric ultrasonic transmitters (2.4.1) for generating the at least one standing acoustic ultrasonic field (2.4.2), the piezoelectric ultrasonic transmitters being configured to generate at least one standing acoustic ultrasonic field (2.4.2) having a power level of 40 dB to 250 dB of standing, modulated and non-modulated ultrasonic longitudinal waves (2.4.2) and their harmonics and/or of ultrasonic transverse waves (2.4.2T) and their harmonics (2.4.2) of the frequency of 1 kHz to 800 MHz, - wherein at least one electronic device for generating, monitoring and stabilizing the at least one standing acoustic ultrasonic field (2.4.2) with at least one feedback loop is furthermore present, and the device is configured to supply the piezoelectric ultrasonic transmitters (2.4.1) with an energy input of 0.25 W to 1 kW, - wherein at least one conveyor device (2.5) for a volume flow for the fluids (2.2, 2.2.1) into and through the at least one flow area (2.1) is furthermore present, - wherein at least one fluid connection (2.7) of the at least one flow area (2.1) with at least one filter having a smallest filterable particle size of 50 nm to 1000 nm is permeable for fluids (2.2.1). - the at least one flow area (2.1) has at least two pairs of mutually associated and opposing piezoelectric ultrasonic transmitters (2.4.1) for generating the at least one standing acoustic ultrasonic field (2.4.2), the piezoelectric ultrasonic transmitters being configured to generate at least one standing acoustic ultrasonic field (2.4.2) having a power level of 40 dB to 250 dB of standing, modulated and non-modulated ultrasonic longitudinal waves (2.4.2) and their harmonics and/or of ultrasonic transverse waves (2.4.2T) and their harmonics (2.4.2) of the frequency of 1 kHz to 800 MHz, - wherein at least one electronic device for generating, monitoring and stabilizing the at least one standing acoustic ultrasonic field (2.4.2) with at least one feedback loop is furthermore present, and the device is configured to supply the piezoelectric ultrasonic transmitters (2.4.1) with an energy input of 0.25 W to 1 kW, - wherein at least one conveyor device (2.5) for a volume flow for the fluids (2.2, 2.2.1) into and through the at least one flow area (2.1) is furthermore present, - wherein at least one fluid connection (2.7) of the at least one flow area (2.1) with at least one filter having a smallest filterable particle size of 50 nm to 1000 nm is permeable for fluids (2.2.1).
An aircraft ejection system for an aircraft, comprising: a seat comprising a propulsion system that urges the seat in an upward direction away from the aircraft; two bridles coupled to the seat at a distance from one another to prevent the two bridles from twisting about one another; a plurality of suspension lines coupled to the two bridles; and a drogue canopy coupled to the suspension lines and comprising a first side having a drag coefficient lower than a second side of the canopy opposite the first side of the canopy, wherein a first portion of the first side of the canopy includes a low-resistance structure and wherein the two bridles and the suspension lines are configured to orient the low-resistance structure downward upon a deployment of the drogue parachute, and wherein the low-resistance structure comprises a first vent defined by the drogue canopy and devoid of material, and wherein, upon deployment, the first vent is oriented downward to urge the drogue canopy in the upward direction. a seat comprising a propulsion system that urges the seat in an upward direction away from the aircraft; two bridles coupled to the seat at a distance from one another to prevent the two bridles from twisting about one another; a plurality of suspension lines coupled to the two bridles; and a drogue canopy coupled to the suspension lines and comprising a first side having a drag coefficient lower than a second side of the canopy opposite the first side of the canopy, wherein a first portion of the first side of the canopy includes a low-resistance structure and wherein the two bridles and the suspension lines are configured to orient the low-resistance structure downward upon a deployment of the drogue parachute, and wherein the low-resistance structure comprises a first vent defined by the drogue canopy and devoid of material, and wherein, upon deployment, the first vent is oriented downward to urge the drogue canopy in the upward direction.
A snowmobile comprising: a chassis having a tunnel and a front portion ; an endless track supported within the tunnel ; a plurality of front skis operably coupled to the front portion of the chassis ; a CVT supported by the chassis; and a low-inertia drive assembly , including: a drive shaft having a first open end and a second open end , an interior portion of the drive shaft including a plurality of hollow channels, and an exterior portion of the drive shaft being rotatably coupled to the endless track; a lower sprocket rotatably coupled to the drive shaft ; an upper sprocket ; and characterised in that the low inertia drive assembly further includes a belt extending around the upper and lower sprockets to drive the drive shaft and the endless track ; and a first end cap adhesively coupled to the first open end of the drive shaft and comprised of a first material; and a second end cap adhesively coupled to the second open end of the drive shaft and comprised of a second material; wherein the first material has a mass greater than a mass of the second material. a chassis having a tunnel and a front portion ; an endless track supported within the tunnel ; a plurality of front skis operably coupled to the front portion of the chassis ; a CVT supported by the chassis; and a low-inertia drive assembly , including: a drive shaft having a first open end and a second open end , an interior portion of the drive shaft including a plurality of hollow channels, and an exterior portion of the drive shaft being rotatably coupled to the endless track; a lower sprocket rotatably coupled to the drive shaft ; an upper sprocket ; and characterised in that the low inertia drive assembly further includes a belt extending around the upper and lower sprockets to drive the drive shaft and the endless track ; and a first end cap adhesively coupled to the first open end of the drive shaft and comprised of a first material; and a second end cap adhesively coupled to the second open end of the drive shaft and comprised of a second material; a drive shaft having a first open end and a second open end , an interior portion of the drive shaft including a plurality of hollow channels, and an exterior portion of the drive shaft being rotatably coupled to the endless track; a lower sprocket rotatably coupled to the drive shaft ; an upper sprocket ; and characterised in that the low inertia drive assembly further includes a belt extending around the upper and lower sprockets to drive the drive shaft and the endless track ; and a first end cap adhesively coupled to the first open end of the drive shaft and comprised of a first material; and a second end cap adhesively coupled to the second open end of the drive shaft and comprised of a second material; wherein the first material has a mass greater than a mass of the second material.