mhurhangee/ep-ind-claims huggingface dataset:
An endoscope objective optical system (1, 20) comprising in order from an object side: a first lens formed of a plano-concave lens having a concave surface facing an image side; a second lens formed of a plano-concave lens having a concave surface facing the object side; an aperture stop; and a third lens formed of a plano-convex lens having a plane surface facing the object side, characterized in that the endoscope objective optical system (1, 20) satisfies the following conditional expressions to: 0.7 ≤ | fab / f | ≤ 0.9 1.7 ≤ | fe / fab | ≤ 2 2 ≤ | fb / fa | ≤ 4 where f represents a focal length of the entire system (1, 20), fa represents a focal length of the first lens, fb represents a focal length of the second lens, fe represents a focal length of the third lens, and fab represents a combined focal length from the first lens to the second lens. a first lens formed of a plano-concave lens having a concave surface facing an image side; a second lens formed of a plano-concave lens having a concave surface facing the object side; an aperture stop; and a third lens formed of a plano-convex lens having a plane surface facing the object side, characterized in that the endoscope objective optical system (1, 20) satisfies the following conditional expressions to: 0.7 ≤ | fab / f | ≤ 0.9 1.7 ≤ | fe / fab | ≤ 2 2 ≤ | fb / fa | ≤ 4 where f represents a focal length of the entire system (1, 20), fa represents a focal length of the first lens, fb represents a focal length of the second lens, fe represents a focal length of the third lens, and fab represents a combined focal length from the first lens to the second lens. where f represents a focal length of the entire system (1, 20), fa represents a focal length of the first lens, fb represents a focal length of the second lens, fe represents a focal length of the third lens, and fab represents a combined focal length from the first lens to the second lens.
Use of a vibrating trough for transporting shingled products, the vibrating trough including: a transporting surface which is set up to carry the products and to be activated to produce a vibration in order to transport the products along the transporting surface from a starting point to an end point of the transporting surface, characterized in that the transporting surface comprises wedge-shaped portions which are arranged on a floor area of the vibrating trough, wherein the wedge-shaped portions comprise in each case: - an ascending region on a side oriented toward the starting point, by means of which the products are raised in relation to the floor area during transport, and - a descending region on a side oriented toward the end point, at which the products fall back onto a lower-lying point of the transporting surface during transport. a transporting surface which is set up to carry the products and to be activated to produce a vibration in order to transport the products along the transporting surface from a starting point to an end point of the transporting surface, characterized in that the transporting surface comprises wedge-shaped portions which are arranged on a floor area of the vibrating trough, wherein the wedge-shaped portions comprise in each case: - an ascending region on a side oriented toward the starting point, by means of which the products are raised in relation to the floor area during transport, and - a descending region on a side oriented toward the end point, at which the products fall back onto a lower-lying point of the transporting surface during transport. - an ascending region on a side oriented toward the starting point, by means of which the products are raised in relation to the floor area during transport, and - a descending region on a side oriented toward the end point, at which the products fall back onto a lower-lying point of the transporting surface during transport.
A valve comprising a body frame defining a generally tubular shape defining a body frame lumen; a leaflet frame having a generally annular shape defining a plurality of U-shaped portions each defining a base and a plurality of posts, the leaflet frame being located coaxial with and at least substantially within the body frame lumen; a first film coupled to the body frame; and a second film coupled to and extending across each of the U-shaped portions defining a leaflet, each leaflet having a leaflet free edge, at least one of the first film and second film at least partially coupling the body frame to the leaflet frame, wherein the leaflet free edges are operable to abut adjacent leaflet free edges and are moveable between an open and closed position, characterised in that the second film comprises a composite material having at least one fluoropolymer membrane layer having a plurality of pores and an elastomer present in substantially all of the pores of at least one layer of fluoropolymer membrane.
A computing device for hybrid sleep power management, the computing device comprising: a security module to: (i) reserve, during a pre-boot firmware environment of the computing device, a reserved memory block and (ii) store, during the pre-boot firmware environment, a wake routine in a secure memory location that is not accessible by an operating system of the computing device; a system management module to: (i) trigger a system management interrupt in response to a request to enter the sleep power management mode generated by the operating system in a first processor mode, (ii) copy, by a system management interrupt handler of the computing device, the wake routine from the secure memory location to the reserved memory block in response to triggering of the system management interrupt; (iii) save a processor state of a processor of the computing device to the secure memory location to generate a saved processor state in response to the triggering of the system management interrupt; (iv) modify, by the system management interrupt handler, the saved processor state to execute in a second processor mode; and (v) resume, by the system management interrupt handler, execution of the computing device in the second processor mode starting at the wake routine stored in the reserved memory block in response to modification of the saved processor state; and a wake code module to enter, by the wake routine of the computing device, a low-power idle state in response to resumption of execution in the second processor mode. a security module to: (i) reserve, during a pre-boot firmware environment of the computing device, a reserved memory block and (ii) store, during the pre-boot firmware environment, a wake routine in a secure memory location that is not accessible by an operating system of the computing device; a system management module to: (i) trigger a system management interrupt in response to a request to enter the sleep power management mode generated by the operating system in a first processor mode, (ii) copy, by a system management interrupt handler of the computing device, the wake routine from the secure memory location to the reserved memory block in response to triggering of the system management interrupt; (iii) save a processor state of a processor of the computing device to the secure memory location to generate a saved processor state in response to the triggering of the system management interrupt; (iv) modify, by the system management interrupt handler, the saved processor state to execute in a second processor mode; and (v) resume, by the system management interrupt handler, execution of the computing device in the second processor mode starting at the wake routine stored in the reserved memory block in response to modification of the saved processor state; and a wake code module to enter, by the wake routine of the computing device, a low-power idle state in response to resumption of execution in the second processor mode.
Household refrigeration device with at least one equipment element (12, 13, 14, 15) comprising at least one shelf, an inner container delimiting a storage space for goods, wherein the inner container comprises a rear wall, two sidewalls (7, 8) with protrusions on which said shelf rests, a top wall and a bottom wall, and with a transport securing element configured to hold the at least one equipment element (12, 13, 14, 15) in place, which is arranged within the inner container, and which transport securing element is fixed to one of the sidewalls of the inner container by means of at least one protrusion of the sidewall which is engaged in a corresponding recess of the transport securing element, characterized in that the transport securing element has a plurality of recesses (18, 19), wherein the at least one protrusion of the sidewall is engaged in at least one of the recesses and a front edge of said shelf arranged within the inner container is engaged in another one of the recesses.
A method for screening compounds, the method comprising: coalescing a first aqueous aliquot containing a first compound and a first aqueous microcapsule containing an enzyme to form a first fused microcapsule that is surrounded by an immiscible fluid in a microfluidic channel of a microfluidic device, wherein the first compound and the enzyme are mixed within the first fused microcapsule; flowing the first fused microcapsule through the microfluidic channel; conducting a first reaction between the enzyme and the first compound while the first fused microcapsule is flowing through the microfluidic channel; coalescing the first fused microcapsule with a second aqueous microcapsule that comprises a second compound to form a second fused microcapsule that is flowing through the microfluidic channel, wherein coalescing the first fused microcapsule and the second aqueous microcapsule causes mixing within the second fused microcapsule; and monitoring for a second reaction between the second compound and a product of the first reaction by flowing the second fused microcapsule past a detection module that comprises a light source coupled to an optical path used to deliver excitation light to the second fused microcapsule as it passes over the optical path, wherein the second reaction generates a unique fluorescence signature comprising a plurality of wavelengths of emitted fluorescent light associated with a product of the second reaction, and wherein the unique fluorescence signature is measured by one or more detectors positioned along the optical path. coalescing a first aqueous aliquot containing a first compound and a first aqueous microcapsule containing an enzyme to form a first fused microcapsule that is surrounded by an immiscible fluid in a microfluidic channel of a microfluidic device, wherein the first compound and the enzyme are mixed within the first fused microcapsule; flowing the first fused microcapsule through the microfluidic channel; conducting a first reaction between the enzyme and the first compound while the first fused microcapsule is flowing through the microfluidic channel; coalescing the first fused microcapsule with a second aqueous microcapsule that comprises a second compound to form a second fused microcapsule that is flowing through the microfluidic channel, wherein coalescing the first fused microcapsule and the second aqueous microcapsule causes mixing within the second fused microcapsule; and monitoring for a second reaction between the second compound and a product of the first reaction by flowing the second fused microcapsule past a detection module that comprises a light source coupled to an optical path used to deliver excitation light to the second fused microcapsule as it passes over the optical path, wherein the second reaction generates a unique fluorescence signature comprising a plurality of wavelengths of emitted fluorescent light associated with a product of the second reaction, and wherein the unique fluorescence signature is measured by one or more detectors positioned along the optical path.
A method for a data processing system of a mobile agricultural machine, comprising: receiving sensor information from a set of agricultural sensors (102 - 104, 164 - 166); generating a first set of machine monitoring data from the received sensor information; transmitting the first set of machine monitoring data to a main control system of a mobile agricultural machine over a first transmission link having a first transmission bandwidth; generating a second set of machine monitoring data from the received sensor information; and transmitting the second set of machine monitoring data to another processing system (136, 142), separate from the main control system, characterized in transmitting the second set of machine monitoring data over a high-bandwidth link having a second transmission bandwidth, the second transmission bandwidth being higher than the first transmission bandwidth, generating the first set of machine monitoring data with a low-resolution processing system, generating the second set of machine monitoring data with a high-resolution processing system, wherein the another processing system (136, 142) is receiving said second set of machine monitoring data over the high-bandwidth link, and wherein a sample rate of the high-resolution processing system is high relative to a sample rate of the low-resolution processing system. receiving sensor information from a set of agricultural sensors (102 - 104, 164 - 166); generating a first set of machine monitoring data from the received sensor information; transmitting the first set of machine monitoring data to a main control system of a mobile agricultural machine over a first transmission link having a first transmission bandwidth; generating a second set of machine monitoring data from the received sensor information; and transmitting the second set of machine monitoring data to another processing system (136, 142), separate from the main control system, characterized in transmitting the second set of machine monitoring data over a high-bandwidth link having a second transmission bandwidth, the second transmission bandwidth being higher than the first transmission bandwidth, generating the first set of machine monitoring data with a low-resolution processing system, generating the second set of machine monitoring data with a high-resolution processing system, wherein the another processing system (136, 142) is receiving said second set of machine monitoring data over the high-bandwidth link, and wherein a sample rate of the high-resolution processing system is high relative to a sample rate of the low-resolution processing system.
Emulsifier-free microgel dispersed in an aqueous phase, obtainable by a) producing a polyacrylate in the presence of at least one compound containing a phosphonic acid group, where the polyacrylate has at least one hydroxyl group and at least one carboxyl group; b) aqueous phase crosslinking of the reaction mixture originating from step a) with an aminoplast resin; c) subsequent emulsion polymerization of the reaction mixture originating from step b) with at least one monomer composition which contains at least one radically polymerizable double bond. a) producing a polyacrylate in the presence of at least one compound containing a phosphonic acid group, where the polyacrylate has at least one hydroxyl group and at least one carboxyl group; b) aqueous phase crosslinking of the reaction mixture originating from step a) with an aminoplast resin; c) subsequent emulsion polymerization of the reaction mixture originating from step b) with at least one monomer composition which contains at least one radically polymerizable double bond.
A high-Cr, high-Ni, heat-resistant, austenitic cast steel consisting, by weight, of: 0.2-1.0% of C, 3% or less of Si, 2% or less of Mn, 0.5% or less of S, 15-30% of Cr, 6-30% of Ni, 0.5-6% of W and Mo in the form W+2Mo or, when only W is added, 0.5-6% of only W or, when only Mo is added, 0.25-3% of only Mo, 0.5-5% of Nb, 0.01-0.5% of N, 0.23% or less of Al and present in the cast steel, 0.07% or less of O and present in the cast steel, and, as optional elements, 20% or less of Co, 7% or less of Cu, 0.1% or less of B, 0.5% or less of Se, 0.1% or less of Ca, 0.5% or less of Bi, 0.5% or less of Te, 0.5% or less of Sb, 0.5% or less of Sn, 0.1% or less of Mg, 5% or less in total of at least one of Ta, V, Ti, Zr and Hf, 1.5% or less of Y, and 0.5% or less of REM, the balance being Fe and inevitable impurities, wherein (C-Nb/8) is 0.05-0.6%, Cr/Ni is 1.0-1.5 and (60+N) is 0.6% or less. 0.2-1.0% of C, 3% or less of Si, 2% or less of Mn, 0.5% or less of S, 15-30% of Cr, 6-30% of Ni, 0.5-6% of W and Mo in the form W+2Mo or, when only W is added, 0.5-6% of only W or, when only Mo is added, 0.25-3% of only Mo, 0.5-5% of Nb, 0.01-0.5% of N, 0.23% or less of Al and present in the cast steel, 0.07% or less of O and present in the cast steel, and, as optional elements, 20% or less of Co, 7% or less of Cu, 0.1% or less of B, 0.5% or less of Se, 0.1% or less of Ca, 0.5% or less of Bi, 0.5% or less of Te, 0.5% or less of Sb, 0.5% or less of Sn, 0.1% or less of Mg, 5% or less in total of at least one of Ta, V, Ti, Zr and Hf, 1.5% or less of Y, and 0.5% or less of REM, the balance being Fe and inevitable impurities, wherein (C-Nb/8) is 0.05-0.6%, Cr/Ni is 1.0-1.5 and (60+N) is 0.6% or less.
Body of a motor vehicle having a front engine compartment, a passenger compartment and two front wheelhouses; the body comprising: - a substantially vertical wall which separates a lower zone of said passenger compartment from said engine compartment; - a structure for receiving and draining water; said structure protruding forward into said engine compartment from an upper end of said substantially vertical wall and comprising an upper crosspiece, which is adapted to be arranged below a windshield of the motor vehicle and is shaped so as to define a first channel, adapted to receive the water which slides down from said windshield towards said engine compartment and elongated in the transversal direction so as to divert the water sideways and outwards; said upper crosspiece comprising an intermediate portion and two opposite end portions; said end portions defining respective openings for draining water into respective drain passages; - a reinforcing crosspiece arranged underneath said upper crosspiece; characterized in that said intermediate portion has at least one hole to allow some of the water to fall from said first channel; and said reinforcing crosspiece forms part of said structure and defines a second channel, which is arranged underneath said hole and is elongated in the transversal direction so as to divert the water sideways and outwards. - a substantially vertical wall which separates a lower zone of said passenger compartment from said engine compartment; - a structure for receiving and draining water; said structure protruding forward into said engine compartment from an upper end of said substantially vertical wall and comprising an upper crosspiece, which is adapted to be arranged below a windshield of the motor vehicle and is shaped so as to define a first channel, adapted to receive the water which slides down from said windshield towards said engine compartment and elongated in the transversal direction so as to divert the water sideways and outwards; said upper crosspiece comprising an intermediate portion and two opposite end portions; said end portions defining respective openings for draining water into respective drain passages; - a reinforcing crosspiece arranged underneath said upper crosspiece;
A method comprising: causing, by a device, a first communication link with a terrestrial mobile network to be established; causing, by the device, a second communication link with a satellite network to be established; transmitting, by the device, a traffic communication through the first communication link while maintaining the second communication link, wherein a first instance of an application that is running on one of the terrestrial mobile network or the satellite network is selected for the first communication link; and switching, by the device, from transmitting the traffic communication through the first communication link to transmitting the traffic communication through the second communication link without interrupting operation of the application, wherein a second instance of the application that is running on the other one of the terrestrial mobile network or the satellite network is selected for the second communication link. causing, by a device, a first communication link with a terrestrial mobile network to be established; causing, by the device, a second communication link with a satellite network to be established; transmitting, by the device, a traffic communication through the first communication link while maintaining the second communication link, wherein a first instance of an application that is running on one of the terrestrial mobile network or the satellite network is selected for the first communication link; and switching, by the device, from transmitting the traffic communication through the first communication link to transmitting the traffic communication through the second communication link without interrupting operation of the application, wherein a second instance of the application that is running on the other one of the terrestrial mobile network or the satellite network is selected for the second communication link.
A system for building a prefab comprising: - at least one first plate provided with a plurality of first holes; - at least one second plate provided with a plurality of second holes, said at least one second plate being connected to and spaced apart from said at least one first plate; each second hole being coaxial to a respective first hole; - a plurality of longitudinal prefabricated elements provided with a respective longitudinal tube defining an inner cavity, and a casing externally covering said longitudinal tube at least along part of the longitudinal extension thereof; wherein the longitudinal tube has a first end which comes out of the casing; wherein the first end is adapted to be inserted into a respective second hole and a respective first hole; and wherein the first end has a length which is at least equal to the sum of the distance between the first plate and the second plate, the thickness of the first plate and the thickness of the second plate; whereby the at least one first plate and the at least one second plate define a base of the prefab, and once the first end of the longitudinal tube is inserted into a respective second hole and into a respective first hole, the longitudinal prefabricated elements define outer walls and possibly inner walls of the prefab. - at least one first plate provided with a plurality of first holes; - at least one second plate provided with a plurality of second holes, said at least one second plate being connected to and spaced apart from said at least one first plate; each second hole being coaxial to a respective first hole; said at least one second plate being connected to and spaced apart from said at least one first plate; each second hole being coaxial to a respective first hole; - a plurality of longitudinal prefabricated elements provided with a respective longitudinal tube defining an inner cavity, and a casing externally covering said longitudinal tube at least along part of the longitudinal extension thereof; wherein the longitudinal tube has a first end which comes out of the casing; wherein the first end is adapted to be inserted into a respective second hole and a respective first hole; and wherein the first end has a length which is at least equal to the sum of the distance between the first plate and the second plate, the thickness of the first plate and the thickness of the second plate; the distance between the first plate and the second plate, the thickness of the first plate and the thickness of the second plate; whereby the at least one first plate and the at least one second plate define a base of the prefab, and once the first end of the longitudinal tube is inserted into a respective second hole and into a respective first hole, the longitudinal prefabricated elements define outer walls and possibly inner walls of the prefab.