mhurhangee/patent-ind-claim-en huggingface dataset:
Solar cell module comprising: - a first layer having fields having a photovoltaic layer ; - a second layer arranged above and spaced apart from the first layer , which second layer has a checkered layout of fields having a photovoltaic layer and of openings ; - a lens glass layer to concentrate incident light (L) and directs the light (L) towards the first and second layer , wherein the lens layer is arranged above and spaced apart from the second layer , wherein the fields having a photovoltaic layer of both the first and second layer as well as the fields having at least a reflective layer are facing the lens layer ; and - a third layer arranged between the first and second layer, preferably arranged to the second layer, which third layer has a checkered layout of fields having a photovoltaic layer and of openings, wherein the openings of the third layer coincide with the openings of the second layer in the direction of the incident light (L) and wherein the fields having a photovoltaic layer of the third layer face the first layer characterized in that the first layer has a checkered layout of fields having a photovoltaic layer and fields having at least a reflective layer and wherein the openings of the second layer coincide with the fields having a photovoltaic layer of the first layer in the direction of the incident light (L) . - a first layer having fields having a photovoltaic layer ; - a second layer arranged above and spaced apart from the first layer , which second layer has a checkered layout of fields having a photovoltaic layer and of openings ; - a lens glass layer to concentrate incident light (L) and directs the light (L) towards the first and second layer , wherein the lens layer is arranged above and spaced apart from the second layer , wherein the fields having a photovoltaic layer of both the first and second layer as well as the fields having at least a reflective layer are facing the lens layer ; and - a third layer arranged between the first and second layer, preferably arranged to the second layer, which third layer has a checkered layout of fields having a photovoltaic layer and of openings, wherein the openings of the third layer coincide with the openings of the second layer in the direction of the incident light (L) and wherein the fields having a photovoltaic layer of the third layer face the first layer
Method for producing a media-tight composite material having a metal sleeve and a plastics material which at least partially surrounds the sleeve and which is where applicable electrically insulating, preferably as a component of a preferably shielded electrical plug, wherein surfaces of the components which are contacted by the plastics material are pretreated in order to promote the adhesion of the plastics material to the components, wherein the pretreatment is a mechanical and/or chemical and/or physical pretreatment, characterised in that the sleeve is completely surrounded with a metal surface which has photocatalytic properties, in that the surface is treated photocatalytically over the entire region of the sleeve , at the outer and inner sides, and in that the coated sleeve of a preassembled interface is activated by means of UV radiation. the sleeve is completely surrounded with a metal surface which has photocatalytic properties, in that the surface is treated photocatalytically over the entire region of the sleeve , at the outer and inner sides, and in that the coated sleeve of a preassembled interface is activated by means of UV radiation.
A compound represented by the formula (I): wherein ring A is a benzene ring, a piperidine ring, a thiophene ring or a pyrazole ring, each of which is optionally substituted by 1 to 3 substituents selected from a halogen atom, a mono-C 1-6 alkyl-carbamoyl group, pyrrolyl, pyrazolyl, triazolyl, furyl, isothiazolyl, pyridyl, pyridazinyl or indazolyl, each of which is optionally substituted by 1 to 3 substituents selected from (a) a C 1-6 alkyl group optionally substituted by 1 to 3 halogen atoms, and (b) a C 3-6 cycloalkyl group, a cyano group, a C 1-6 alkoxy-carbonyl group, a C 3-6 cycloalkyl group, a 3- to 8-membered monocyclic nonaromatic heterocyclic group, a C 7-16 aralkyl group, and a carbamoyl group; R is a C 1-6 alkyl group substituted by 1 to 5 halogen atoms; and X is -CH= or -N= or a salt thereof. ring A is a benzene ring, a piperidine ring, a thiophene ring or a pyrazole ring, each of which is optionally substituted by 1 to 3 substituents selected from a halogen atom, a mono-C 1-6 alkyl-carbamoyl group, pyrrolyl, pyrazolyl, triazolyl, furyl, isothiazolyl, pyridyl, pyridazinyl or indazolyl, each of which is optionally substituted by 1 to 3 substituents selected from (a) a C 1-6 alkyl group optionally substituted by 1 to 3 halogen atoms, and (b) a C 3-6 cycloalkyl group, a cyano group, a C 1-6 alkoxy-carbonyl group, a C 3-6 cycloalkyl group, a 3- to 8-membered monocyclic nonaromatic heterocyclic group, a C 7-16 aralkyl group, and a carbamoyl group; a halogen atom, a mono-C 1-6 alkyl-carbamoyl group, pyrrolyl, pyrazolyl, triazolyl, furyl, isothiazolyl, pyridyl, pyridazinyl or indazolyl, each of which is optionally substituted by 1 to 3 substituents selected from (a) a C 1-6 alkyl group optionally substituted by 1 to 3 halogen atoms, and (b) a C 3-6 cycloalkyl group, (a) a C 1-6 alkyl group optionally substituted by 1 to 3 halogen atoms, and (b) a C 3-6 cycloalkyl group, a cyano group, a C 1-6 alkoxy-carbonyl group, a C 3-6 cycloalkyl group, a 3- to 8-membered monocyclic nonaromatic heterocyclic group, a C 7-16 aralkyl group, and a carbamoyl group; R is a C 1-6 alkyl group substituted by 1 to 5 halogen atoms; and X is -CH= or -N= or a salt thereof.
A method in a software-defined networking, SDN, controller that is communicatively coupled with a cloud orchestrator , of enabling a live migration of a virtual machine from a first network device to a second network device , wherein the virtual machine processes one or more flows received at the first network device from a third network device , the method comprising: receiving from the cloud orchestrator 103 an indication that migration of the virtual machine from the first network device to the second network device is to be initiated; in response to receiving the indication, causing the third network device to forward the one or more flows towards the first network device by passing through the second network device ; transmitting to the cloud orchestrator an indication that the migration of the virtual machine can be performed, wherein the indication causes the cloud orchestrator to complete the migration of the virtual machine from the first network device to the second network device ; and in response to the migration of the virtual machine to the second network device , causing the second network device to process the one or more flows locally instead of forwarding the one or more flows to the first network device . receiving from the cloud orchestrator 103 an indication that migration of the virtual machine from the first network device to the second network device is to be initiated; in response to receiving the indication, causing the third network device to forward the one or more flows towards the first network device by passing through the second network device ; transmitting to the cloud orchestrator an indication that the migration of the virtual machine can be performed, wherein the indication causes the cloud orchestrator to complete the migration of the virtual machine from the first network device to the second network device ; and in response to the migration of the virtual machine to the second network device , causing the second network device to process the one or more flows locally instead of forwarding the one or more flows to the first network device .
Electric parking brake (10; 20; 30; 40; 50) for a vehicle, in particular for a utility vehicle, comprising an actuator device which is designed to activate mechanical components of a wheel brake device; and a control device which electrically actuates the actuator device; characterized in that the control device is configured to detect whether an emergency off isolator switch has been activated, and is the emergency off isolator switch has been activated, to initiate within a latency period after the activation of the emergency off isolator switch , during which the actuator device can still be electrically actuated, a partial braking operation by means of the actuator device in such a way that a full braking operation of the electric parking brake occurs in a delayed fashion.
A dermatome comprising at least two oscillating blades (20a-d) arranged parallel to each other and configured to simultaneously cut separate skin grafts (2a-d) at different depths from a donor site .
Compositions consisting of phospholipid-complexed curcumin and an Echinacea angustifolia extract, mixed with acceptable excipients.
Cold applicator assembly, wherein a tubular fabric immersed in liquid composition is contained in an airtight pack, wherein said liquid composition comprises: - Water or distilled water, about 50-60% of the total, - Alcohol denat, about 20-28% of the total, - An anti-freeze agent, about 15-20% of the total, - A detergent, about 1,5-2,5% of the total, - A vasodilator product 0,2-0,7% of the total, - Relaxant products 0,7-1% of the total, and - Preservatives in a proportion of about 0,075-0,090% of the total. - Water or distilled water, about 50-60% of the total, - Alcohol denat, about 20-28% of the total, - An anti-freeze agent, about 15-20% of the total, - A detergent, about 1,5-2,5% of the total, - A vasodilator product 0,2-0,7% of the total, - Relaxant products 0,7-1% of the total, and - Preservatives in a proportion of about 0,075-0,090% of the total.
A passive exhaust valve assembly, comprising: an exhaust conduit having a first pipe section attached in generally axial alignment with a second pipe section ; wherein an end portion of the first pipe section includes a circumferential segment disposed within an end portion of the second pipe section to form an overlapping interface ; wherein the end portions of the first and second pipe sections each include a flange protruding radially outward from the respective first and second pipe section; wherein the flanges engage with each other to form an axle seat therebetween; a support shaft extending laterally across an interior volume of the exhaust conduit and rotatably engaging the axle seat ; and a valve plate coupled to the support shaft within the interior volume of the exhaust conduit for moving relative to the exhaust conduit between open and closed positions; characterized in that an interior surface of one of the first and second pipe sections includes a recessed pocket , and wherein a flexible bumper element is disposed at the recessed pocket in a location that contacts the valve plate and dissipates impact of the valve plate moving to the closed position; and wherein the flexible bumper element is resiliently biased radially inward relative to the exhaust conduit . an exhaust conduit having a first pipe section attached in generally axial alignment with a second pipe section ; wherein an end portion of the first pipe section includes a circumferential segment disposed within an end portion of the second pipe section to form an overlapping interface ; wherein the end portions of the first and second pipe sections each include a flange protruding radially outward from the respective first and second pipe section; wherein the flanges engage with each other to form an axle seat therebetween; a support shaft extending laterally across an interior volume of the exhaust conduit and rotatably engaging the axle seat ; and a valve plate coupled to the support shaft within the interior volume of the exhaust conduit for moving relative to the exhaust conduit between open and closed positions; characterized in that an interior surface of one of the first and second pipe sections includes a recessed pocket , and wherein a flexible bumper element is disposed at the recessed pocket in a location that contacts the valve plate and dissipates impact of the valve plate moving to the closed position; and wherein the flexible bumper element is resiliently biased radially inward relative to the exhaust conduit .
A safety belt retention device comprising a pad adapted to be located on an upper seat surface (US) of a vehicle seat (S), a safety belt receiving means being adapted to retain a transversal belt section of a safety belt , the safety belt receiving means being connected to the pad such that, when in use, the safety belt receiving means is being accessible between the legs of a passenger, characterised in that the safety belt retention device further comprises a fastening means system (F), the fastening means system (F) comprises two Isofix connectors fastened to the pad , arranged with a distance between each other and adapted to cooperate with standard anchorage points in the vehicle seat (S), and a tensioning belt adapted to be connected to the two Isofix connectors and secured around the vehicle seat (S) when there is no anchorage points arranged in the vehicle seat (S).
An apparatus for determining a refractive error of an eye , comprising: a camera configured to capture an image of light from the eye, and an optical power changing device configured to vary an optical power of a light path from the eye to the camera , a computing device which is configured to calculate the refractive error of the eye based on a series of images of light from the eye captured by the camera with varying optical power using the series of images directly as at least approximate point spread functions, wherein the point spread function is an intensity distribution resulting from the eye being illuminated in a single spot, and characterised in that the computing device, for calculating the refractive error, is configured to determine a modulation transfer area as a function of meridian angle and optical power in an angle range from 0° to 180° based on the series of images, and to calculate the refractive error based on the modulation transfer area as a function of angle and optical power. a camera configured to capture an image of light from the eye, and an optical power changing device configured to vary an optical power of a light path from the eye to the camera , a computing device which is configured to calculate the refractive error of the eye based on a series of images of light from the eye captured by the camera with varying optical power using the series of images directly as at least approximate point spread functions, wherein the point spread function is an intensity distribution resulting from the eye being illuminated in a single spot, and characterised in that the computing device, for calculating the refractive error, is configured to determine a modulation transfer area as a function of meridian angle and optical power in an angle range from 0° to 180° based on the series of images, and to calculate the refractive error based on the modulation transfer area as a function of angle and optical power.
Pre-charging circuit for a plurality of sections of a DC voltage network, which sections can be connected together and separated from each other individually or in groups via a respective switch element , - wherein the pre-charging circuit has diode groups , a switch device , an energy transmission path and a controller , - wherein the diode groups are embodied as bridge rectifiers or as a bridge branch of a bridge rectifier, - wherein each of the sections of the DC voltage network is coupled to the energy transmission path via at least one respective diode group , - wherein the energy transmission path is consistently the same for the diode groups , and - wherein the controller transmits a control signal (S) to the switch device in order to pre-charge sections that are separated from the other sections via their respective switch element , such that the switch device switches the energy transmission path so as to be conductive for all of the sections of the DC voltage network that are coupled to the energy transmission path , and - wherein in each case only one (P1) of two potentials (P1, P2) of the section attached to the respective diode group is coupled to the energy transmission path via the diode groups and the switch device is arranged in the energy transmission path or - wherein in each case both potentials (P1, P2) of the section connected to the respective diode group are coupled to the energy transmission path via the diode groups , the energy transmission path is electrically isolated from the diode groups and the switch device has a number of partial switch devices, each of which is assigned to a diode group . - wherein the pre-charging circuit has diode groups , a switch device , an energy transmission path and a controller , - wherein the diode groups are embodied as bridge rectifiers or as a bridge branch of a bridge rectifier, - wherein each of the sections of the DC voltage network is coupled to the energy transmission path via at least one respective diode group , - wherein the energy transmission path is consistently the same for the diode groups , and - wherein the controller transmits a control signal (S) to the switch device in order to pre-charge sections that are separated from the other sections via their respective switch element , such that the switch device switches the energy transmission path so as to be conductive for all of the sections of the DC voltage network that are coupled to the energy transmission path , and - wherein in each case only one (P1) of two potentials (P1, P2) of the section attached to the respective diode group is coupled to the energy transmission path via the diode groups and the switch device is arranged in the energy transmission path or - wherein in each case both potentials (P1, P2) of the section connected to the respective diode group are coupled to the energy transmission path via the diode groups , the energy transmission path is electrically isolated from the diode groups and the switch device has a number of partial switch devices, each of which is assigned to a diode group .
A nucleic acid comprising at least a single-stranded DNA to be delivered to endosomes of dendritic cells, linked to a double-stranded RNA capable of activating TLR3, wherein the double-stranded RNA capable of activating TLR3 has an RNA virus-derived RNA sequence, and wherein the single-stranded DNA is any of the following (a) to (d) : (a) a Class-B or -C CpG-DNA having TLR9 ligand activity, (b) a DNA which is the same as the above (a) except for having GpC instead of CpG, (c) a DNA which is the same as the above (b) except for having TpC instead of GpC, and (d) a DNA which is the same as the above (b) except for having CpC instead of GpC. (a) a Class-B or -C CpG-DNA having TLR9 ligand activity, (b) a DNA which is the same as the above (a) except for having GpC instead of CpG, (c) a DNA which is the same as the above (b) except for having TpC instead of GpC, and (d) a DNA which is the same as the above (b) except for having CpC instead of GpC.
A two-part reactive composition comprising: a) a first part comprising an oxalamido-containing compound and a compound of Formula (IV); wherein the oxalamido-containing compound has at least two groups of the formula -NR 5 -(CO)-(CO)-OR 4 ; wherein the groups of the formula -NR 5 -(CO)-(CO)-OR 4 are the reaction products of a first amine component with a compound of Formula (IV); wherein the first amine component has at least two and at most three primary amino groups, secondary amino groups, or a mixture thereof; wherein the oxalamido-containing compound is free of a siloxane segment; and wherein the compound of Formula (IV) is of the formula: R 4 O-(CO)-(CO)-OR 4 (IV), wherein each R 4 is independently alkyl, substituted alkyl, aralkyl, substituted aralkyl, alkenyl, aryl, or substituted aryl; and wherein each R 5 is independently H, alkyl, substituted alkyl, alkylene, aralkyl, substituted aralkyl, alkenyl, aryl, or substituted aryl; and b) a second part comprising a second amine component having (i) greater than three primary amino groups, or (ii) at least three primary amino groups and a plurality of secondary amino groups, wherein the second amine component is a polymeric material having a carbon backbone or a polymeric material having a carbon backbone with a plurality of catenated nitrogen atoms. a) a first part comprising an oxalamido-containing compound and a compound of Formula (IV); wherein the oxalamido-containing compound has at least two groups of the formula -NR 5 -(CO)-(CO)-OR 4 ; wherein the groups of the formula -NR 5 -(CO)-(CO)-OR 4 are the reaction products of a first amine component with a compound of Formula (IV); wherein the first amine component has at least two and at most three primary amino groups, secondary amino groups, or a mixture thereof; wherein the oxalamido-containing compound is free of a siloxane segment; and wherein the compound of Formula (IV) is of the formula: R 4 O-(CO)-(CO)-OR 4 (IV), wherein each R 4 is independently alkyl, substituted alkyl, aralkyl, substituted aralkyl, alkenyl, aryl, or substituted aryl; and wherein each R 5 is independently H, alkyl, substituted alkyl, alkylene, aralkyl, substituted aralkyl, alkenyl, aryl, or substituted aryl; and b) a second part comprising a second amine component having (i) greater than three primary amino groups, or (ii) at least three primary amino groups and a plurality of secondary amino groups, wherein the second amine component is a polymeric material having a carbon backbone or a polymeric material having a carbon backbone with a plurality of catenated nitrogen atoms.
A method of controlling a heat exchange device structured such that a flow channel in which a heat transfer medium liquid flows is provided, the flow channel is provided with a heat transfer medium liquid circulation flow channel having a first heat exchange unit which exchanges heat in relation to a second heat exchange unit coming to a load side , a fixed amount of first heat transfer medium liquid circulates in the heat transfer medium liquid circulation flow channel , and an amount of heat exchange in the first heat exchange unit fluctuates due to passage of time on the basis of fluctuation of an amount of heat required by the load side , wherein the method comprises the steps of supplying a necessary amount of second heat transfer medium liquid capable of applying the amount of heat required by the first heat exchange unit to the heat transfer medium liquid circulation flow channel by a heat source which holds the second heat transfer medium liquid having a temperature difference from the first heat transfer medium liquid , in such a manner that a detected temperature of the first heat transfer medium liquid in an outlet end of the first heat exchange unit maintains a required set temperature in a side where an inlet end of the first heat exchange unit exists, and discharging the same amount of the first heat transfer medium liquid as that of the supplied second heat transfer medium liquid in a side where the outlet end of the first heat exchange unit exists.