mhurhangee/patent-ind-claim-en huggingface dataset:
A multi-ply woven gauze fabric comprising: a surface layer formed into a plain weave construction; a middle layer formed into a honeycomb weave construction, the honeycomb weave construction being formed in such a manner that a warp yarn and a weft yarn are elongated and floated to be woven into a concave/convex diamond shape or a concave/convex square shape on both surfaces; and a back layer formed into the plain weave construction; wherein the surface layer and the middle layer are joined together via connection parts, and the back layer and the middle layer are joined together via connection parts, wherein a warp yarn and a weft yarn of the surface layer and the back layer is each a yarn having a fineness of between 9.8 tex and 36.9 tex ( English cotton count of between 16 and 60), wherein a warp yarn and a weft yarn of the middle layer is each a yarn having a fineness of between 14.8 tex and 59.0 tex ( English cotton count of between 10 and 40), and wherein the surface layer, the back layer and the middle layer each have a construction density of equal to or below 15.7 warp yarns per cm and 15.7 wet yarns per cm (40 warp yarns/inch and 40 weft yarns/inch). a surface layer formed into a plain weave construction; a middle layer formed into a honeycomb weave construction, the honeycomb weave construction being formed in such a manner that a warp yarn and a weft yarn are elongated and floated to be woven into a concave/convex diamond shape or a concave/convex square shape on both surfaces; and a back layer formed into the plain weave construction; wherein the surface layer and the middle layer are joined together via connection parts, and the back layer and the middle layer are joined together via connection parts, wherein a warp yarn and a weft yarn of the surface layer and the back layer is each a yarn having a fineness of between 9.8 tex and 36.9 tex ( English cotton count of between 16 and 60), wherein a warp yarn and a weft yarn of the middle layer is each a yarn having a fineness of between 14.8 tex and 59.0 tex ( English cotton count of between 10 and 40), and wherein the surface layer, the back layer and the middle layer each have a construction density of equal to or below 15.7 warp yarns per cm and 15.7 wet yarns per cm (40 warp yarns/inch and 40 weft yarns/inch).
A system for securing information in a computer comprising: a central processing unit (CPU) that includes at least one core that receives and executes instructions and processes data; a cache within the CPU; system memory that has a system memory address space; a software stack that runs on the CPU and is embodied at least partially as instructions and data stored in the system memory; and an agent implemented as software resident in the cache and comprising an encryption/decryption module adapted to: encrypt information comprising code and/or data resident in the cache before it is written to the system memory by the CPU and decrypt the information read from system memory into the cache for, and before, processing by the CPU core as the instructions and data, wherein the system memory address space is organized into memory blocks, characterised in that the system is further configured to: determine a non-cache-conflicting set of the memory blocks; and mark only the system memory associated with the non-cache-conflicting set of memory blocks as cacheable, thereby preventing cache evictions into system memory. a central processing unit (CPU) that includes at least one core that receives and executes instructions and processes data; a cache within the CPU; system memory that has a system memory address space; a software stack that runs on the CPU and is embodied at least partially as instructions and data stored in the system memory; and an agent implemented as software resident in the cache and comprising an encryption/decryption module adapted to: encrypt information comprising code and/or data resident in the cache before it is written to the system memory by the CPU and decrypt the information read from system memory into the cache for, and before, processing by the CPU core as the instructions and data, wherein the system memory address space is organized into memory blocks, characterised in that the system is further configured to: determine a non-cache-conflicting set of the memory blocks; and mark only the system memory associated with the non-cache-conflicting set of memory blocks as cacheable, thereby preventing cache evictions into system memory. determine a non-cache-conflicting set of the memory blocks; and mark only the system memory associated with the non-cache-conflicting set of memory blocks as cacheable, thereby preventing cache evictions into system memory.
An inhalation device comprising: • a channel having an air inlet opening and an aerosol outlet opening , • an aerosol generator comprising a vibrator and a membrane , • a reservoir for liquid to be aerosolized which is fluidically connected to the membrane , • an optical sensor for detecting the presence of aerosol within the channel , • a controller which is configured (i) to provide a driver signal to operate the vibrator so that the membrane vibrates and generates an aerosol in the channel, and to modulate the amplitude of the driver signal at a frequency of from 1 to 100 Hz; (ii) to receive an output signal from the sensor and to demodulate the output signal; (iii) to determine whether aerosol is present in the channel on the basis of the demodulated output signal; and (iv) to stop operating the vibrator if it determines that no aerosol is present. • a channel having an air inlet opening and an aerosol outlet opening , • an aerosol generator comprising a vibrator and a membrane , • a reservoir for liquid to be aerosolized which is fluidically connected to the membrane , • an optical sensor for detecting the presence of aerosol within the channel , • a controller which is configured (i) to provide a driver signal to operate the vibrator so that the membrane vibrates and generates an aerosol in the channel, and to modulate the amplitude of the driver signal at a frequency of from 1 to 100 Hz; (ii) to receive an output signal from the sensor and to demodulate the output signal; (iii) to determine whether aerosol is present in the channel on the basis of the demodulated output signal; and (iv) to stop operating the vibrator if it determines that no aerosol is present.
A distributed electrical generation system comprising a plurality of wind or tidal turbines , a plurality of permanent magnet electrical generators , a plurality of AC to DC converters , a plurality of power electronic switches , a plurality of transformers , a plurality of high voltage diodes , a high voltage direct current cable , a high voltage DC to AC converter , each wind or tidal turbine being arranged to drive a respective one of the plurality of permanent magnet electrical generators , each permanent magnet electrical generator being arranged to produce an alternating current, each permanent magnet electrical generator being electrically connected to a respective one of the AC to DC converters , each AC to DC converter being arranged to rectify the alternating current to a direct current, each AC to DC converter being electrically connected to a fly-back converter, each fly-back converter comprising a respective one of the transformers and a respective one of the power electronic switches , wherein the power electronic switch is arranged to be operated such that its mark-space ratio is varied to affect a desired average current in the permanent magnet electrical generator , hence giving a desired permanent magnet electrical generator torque, and further the mark-space ratio is continuously controlled using a maximum power point tracker algorithm to automatically achieve the maximum available power from the prevailing tide, or wind, conditions; each transformer being arranged as part of a fly-back converter to step up the direct current to a high voltage direct current, each transformer being electrically connected in parallel to the high voltage direct current cable by a respective one of the high voltage diodes , each high voltage diode is arranged to produce a unidirectional current in the high voltage direct current cable , the high voltage direct current cable being electrically connected to the high voltage DC to AC converter , the high voltage DC to AC converter being arranged to convert the direct current to alternating current.
A lead free and cadmium free thick film paste comprising in wt.%: (a) from about 20 to about 49% of a first Cu, (b) from about 20 to about 34% of a second Cu, (c) from about 3 to about 12% Cu 2 O, (d) from about 8 to about 25% Ag, (e) from about 8 to about 25% at least one metal element selected from Ti, V, Zr, Mn, Cr, Co, and Sn, wherein the first Cu has a particle size D50 within the range of 0.1 to 8 microns, and the second Cu has a particle size D50 within the range of 10 to 20 microns. (a) from about 20 to about 49% of a first Cu, (b) from about 20 to about 34% of a second Cu, (c) from about 3 to about 12% Cu 2 O, (d) from about 8 to about 25% Ag, (e) from about 8 to about 25% at least one metal element selected from Ti, V, Zr, Mn, Cr, Co, and Sn,
A communication method, comprising: sending (S201), by an access network device, a request message to a core network device, wherein the request message is used to request to set up a communication connection between the access network device and the core network device, and the communication connection corresponds to a first category, wherein the first category is a first network slice, a first packet data unit PDU session type, or a first access technology; and receiving (S202), by the access network device, a response message sent by the core network device, wherein the response message comprises transport layer information, for uplink transmission, that corresponds to the first category, wherein the transport layer information, for the uplink transmission, comprises an internet protocol address of the core network device and a tunnel identifier used for user plane transmission of the communication resource between the access network device and the core network device for. sending (S201), by an access network device, a request message to a core network device, wherein the request message is used to request to set up a communication connection between the access network device and the core network device, and the communication connection corresponds to a first category, wherein the first category is a first network slice, a first packet data unit PDU session type, or a first access technology; and receiving (S202), by the access network device, a response message sent by the core network device, wherein the response message comprises transport layer information, for uplink transmission, that corresponds to the first category, wherein the transport layer information, for the uplink transmission, comprises an internet protocol address of the core network device and a tunnel identifier used for user plane transmission of the communication resource between the access network device and the core network device for.
A rotating lighting module designed to equip a lighting device for vehicles, comprising at least one first light source , at least one first reflector and at least one first actuator to rotate the first reflector relative to the first light source around a first axis (A); wherein it further comprises: i)- a framed support holding rigid in a fixed position said first light source and bearing in idling manner said first reflector , the framed support also bearing the first actuator ; ii)- a lens placed in front of the first reflector and assembled angularly rigid therewith to rotate rigid with the first reflector and eccentrically to said first axis (A); said lens and said first reflector forming together a rotating unit powered by said first actuator; iii)- said framed support being provided with a hinge connector and being operatively associated with a second actuator designed to tilt the whole framed support and the rotating unit therewith around a second axis (B) substantially perpendicular to the first axis (A) and coaxial with said hinge connector ; iv)- said second axis (B) being always transversal to a middle plane (β) of said rotating unit passing through said lens and said first axis (A) ; whereby said first light source is a LED; characterised in that said lighting module further comprising a couple of second light sources and a third light source , all constituted by different LEDs, said first, second and third light sources being assembled on a printed circuit board which is carried in a fixed manner by said framed support directly above the rotating unit and on the side opposite to said first actuator . i)- a framed support holding rigid in a fixed position said first light source and bearing in idling manner said first reflector , the framed support also bearing the first actuator ; ii)- a lens placed in front of the first reflector and assembled angularly rigid therewith to rotate rigid with the first reflector and eccentrically to said first axis (A); said lens and said first reflector forming together a rotating unit powered by said first actuator; iii)- said framed support being provided with a hinge connector and being operatively associated with a second actuator designed to tilt the whole framed support and the rotating unit therewith around a second axis (B) substantially perpendicular to the first axis (A) and coaxial with said hinge connector ; iv)- said second axis (B) being always transversal to a middle plane (β) of said rotating unit passing through said lens and said first axis (A) ; whereby said first light source is a LED; characterised in that said lighting module further comprising a couple of second light sources and a third light source , all constituted by different LEDs, said first, second and third light sources being assembled on a printed circuit board which is carried in a fixed manner by said framed support directly above the rotating unit and on the side opposite to said first actuator .
A hydraulic damper for a motor vehicle comprising: a damper tube , inside of which a piston assembly is slidably disposed and attached to an internal end of a piston rod , which is led outside said damper tube through a sealed piston rod guide ; a substantially tubular protective cap comprising a cylindrical section surrounding said piston rod guide, an openwork section surrounding a portion of said tube and further having an axial end distant from said piston rod guide ; an at least partially axially elastic protective tube surrounding said piston rod and said openwork section and having a first axial end attached to said axial end of said protective cap that is distant from said piston rod guide ; said protective cap being a unitary plastic component and further having an annular flange provided with a locking means enabling it to attach to said first axial end of said protective tube ; said openwork section comprising a plurality of spaced axial ribs which join said cylindrical section to said annular flange , said axial ribs separated by axial slots , wherein said openwork section further comprises a plurality of auxiliary ribs joining said axial ribs , wherein an annular area of said axial slots is larger than a total annular area of said axial ribs and said auxiliary ribs combined; and said cylindrical section and said openwork section axial ribs and auxiliary ribs adjoined to said damper tube , and wherein the ratio of the internal length (L) of said protective cap to the external diameter (D) of said damper tube is equal to or greater than 3. a damper tube , inside of which a piston assembly is slidably disposed and attached to an internal end of a piston rod , which is led outside said damper tube through a sealed piston rod guide ; a substantially tubular protective cap comprising a cylindrical section surrounding said piston rod guide, an openwork section surrounding a portion of said tube and further having an axial end distant from said piston rod guide ; an at least partially axially elastic protective tube surrounding said piston rod and said openwork section and having a first axial end attached to said axial end of said protective cap that is distant from said piston rod guide ; said protective cap being a unitary plastic component and further having an annular flange provided with a locking means enabling it to attach to said first axial end of said protective tube ; said openwork section comprising a plurality of spaced axial ribs which join said cylindrical section to said annular flange , said axial ribs separated by axial slots , wherein said openwork section further comprises a plurality of auxiliary ribs joining said axial ribs , wherein an annular area of said axial slots is larger than a total annular area of said axial ribs and said auxiliary ribs combined; and said cylindrical section and said openwork section axial ribs and auxiliary ribs adjoined to said damper tube , and wherein the ratio of the internal length (L) of said protective cap to the external diameter (D) of said damper tube is equal to or greater than 3.
A system , comprising: a plurality of printing zones (101-1,101-2,101-N); the system characterized by comprising: a cooperative threading coordination system to coordinate a print job through the plurality of printing zones, the cooperative threading coordination system including a plurality of fibers (103-1, 103-2, 103-M), each fiber among the plurality of fibers assigned to a different printing zone among the plurality of printing zones; wherein each fiber is to move from a ready state to an active state in response to a change in an event flag; and wherein the cooperative threading coordination system is to initiate motors in a particular printing zone (101-2) among the plurality of printing zones in response to receipt of a wake signal from a printing zone (101-1) preceding the particular printing zone, wherein the wake signal comprises setting an event flag to move a fiber (103-2) assigned to the particular printing zone to an active state. a cooperative threading coordination system to coordinate a print job through the plurality of printing zones, the cooperative threading coordination system including a plurality of fibers (103-1, 103-2, 103-M), each fiber among the plurality of fibers assigned to a different printing zone among the plurality of printing zones; wherein each fiber is to move from a ready state to an active state in response to a change in an event flag; and wherein the cooperative threading coordination system is to initiate motors in a particular printing zone (101-2) among the plurality of printing zones in response to receipt of a wake signal from a printing zone (101-1) preceding the particular printing zone, wherein the wake signal comprises setting an event flag to move a fiber (103-2) assigned to the particular printing zone to an active state.
A window, such as a roof window or skylight, comprising a frame , a sash , a cladding (20-25) and a pane , and also comprising interface means (5, 15; 105; 205; 58) for positioning along a circumference of the window, the interface means being adapted to be positioned on the frame, the sash and/or the cladding wherein the interface means (5, 15; 105; 205; 58) are in the form of climate regulating elements that provide sound insulation and/or thermal insulation and/or moisture insulation, and the interface means (5, 15; 105; 205; 58) are immediately interchangeable with other interface means, wherein the frame comprises a top frame member , a bottom frame member and two side frame members , and the interface means (5; 105) are adapted to be positioned on an internal face of the top frame member , said internal face is a face facing another sash face, which interface means (5; 105) comprise ventilation means (7; 107), which ventilation means (7; 107) include at least one ventilation passage (8; 108) extending from a first face (5a; 105a) of the interface means to a second face (5b; 105b) of the interface means, which first and second faces (5a, 5b; 105a, 105b) are adjacent to a third face (5c; 105c) of the interface means (5; 105), which third face (5c; 105c) abuts the internal face of the top frame member in a mounted position of the interface means (5;105), characterized in that the ventilation passage(s) (8; 108) providing an overall cross sectional flow area of 5-35 cm 2 , preferably 15-25 cm 2 and in that the top frame member and the interface means (5; 105) comprise mutually mating mounting means (10, 11;111, 12) for mounting the interface means on an internal face of the top frame member , and wherein other interface means (5; 105) also comprise mounting means (11; 111) adapted to mate with the mounting means of the top frame member so as to provide immediate interchangeability of interface means (5; 105).
A nucleotide-based nanoswitch system for detecting one or more targets in a sample, the system comprising a set of two or more oligonucleotide probes configured to provide a target binding-induced structural change of one or more of the oligonucleotide probes by a proximity-based hybridization reaction triggered by an increase in local concentration of the two or more oligonucleotide probes, wherein, upon contact of said oligonucleotide probes with the one or more targets, hybridization between hybridization sequences of said probes occurs, thereby producing a detectable change in a signal from one of the probes when the one or more of the oligonucleotide probes are contacted by the one or more targets, wherein said one or more targets are protein analytes, in particular an antibody or a protein antigen, wherein said probes comprise: a first probe containing a target binding moiety and a hybridization sequence; a second probe containing a second target binding moiety and at least a hybridization sequence configured to form a duplex with the hybridization sequence of the first probe, said second probe further comprising a first signaling moiety and a second signaling moiety, wherein the first signaling moiety comprises an electrochemical reporter and the second signaling moiety comprises an electrode. a first probe containing a target binding moiety and a hybridization sequence; a second probe containing a second target binding moiety and at least a hybridization sequence configured to form a duplex with the hybridization sequence of the first probe, said second probe further comprising a first signaling moiety and a second signaling moiety, wherein the first signaling moiety comprises an electrochemical reporter and the second signaling moiety comprises an electrode.