mhurhangee/patent-ind-claim-en huggingface dataset:
An imaging system , comprising: a light source configured to produce a plurality of spatially separated light beams corresponding to a respective sub-light source of a plurality of sub-light sources ; an injection optical system configured to modify the plurality of beams, such that respective pupils formed by beams of the plurality of beams exiting from the injection optical system are spatially separated from each other in the X, Y and Z directions; a plurality of light-guiding optical elements each having a respective in-coupling grating ; and a first spatial light modulator configured to encode a first beam of the plurality with image data, wherein the light source , the injection optical system , and the plurality of light-guiding optical elements are arranged such that each of the respective pupils addresses a respective in-coupling grating of a distinct light-guiding optical element of the plurality of light guiding optical elements , characterized in that the plurality of sub-light sources and the plurality of in-coupling gratings are rotated around an optical axis relative to the first spatial light modulator , such that diffractive cross-talk generated at a pixel structure of the first spatial light modulator is reduced. a light source configured to produce a plurality of spatially separated light beams corresponding to a respective sub-light source of a plurality of sub-light sources ; an injection optical system configured to modify the plurality of beams, such that respective pupils formed by beams of the plurality of beams exiting from the injection optical system are spatially separated from each other in the X, Y and Z directions; a plurality of light-guiding optical elements each having a respective in-coupling grating ; and a first spatial light modulator configured to encode a first beam of the plurality with image data, wherein the light source , the injection optical system , and the plurality of light-guiding optical elements are arranged such that each of the respective pupils addresses a respective in-coupling grating of a distinct light-guiding optical element of the plurality of light guiding optical elements , characterized in that the plurality of sub-light sources and the plurality of in-coupling gratings are rotated around an optical axis relative to the first spatial light modulator , such that diffractive cross-talk generated at a pixel structure of the first spatial light modulator is reduced.
A tire which has a tread having a contact surface intended to come into contact with ground during rolling, the tread comprising one or more of main grooves circumferentially extending, a plurality of sub grooves axially extending, and a plurality of blocks delimited by the main grooves and the sub grooves ; the blocks respectively having a top face forming the contact surface of the tread , two frontal faces axially extending and respectively facing to one of the sub grooves , and two lateral faces circumferentially extending and respectively facing to one of the main grooves , the blocks also having a block width (BW), a block length (BL) and a block height (BH), the blocks respectively provided with one or more of incisions , the tire, being characterized in that : - each of the blocks comprises surface layer A extending along the top face , and surface layer B extending along at least a wall face laterally facing to each of the incisions ; - each of the atomic percentages of nitrogen, oxygen and sulphur in the surface layer B is higher than those in the surface layer A, as measured by XPS (X-ray photoelectron spectroscopy), the atomic percentages being based on the total amount of carbon, nitrogen, oxygen, sulphur and silica atoms; wherein a water contact angle on the wall face of each of the incisions is lower than that on the top face by more than 30° ; wherein the water contact angle on the wall face of each of the incisions is lower than 80° . - each of the blocks comprises surface layer A extending along the top face , and surface layer B extending along at least a wall face laterally facing to each of the incisions ; - each of the atomic percentages of nitrogen, oxygen and sulphur in the surface layer B is higher than those in the surface layer A, as measured by XPS (X-ray photoelectron spectroscopy), the atomic percentages being based on the total amount of carbon, nitrogen, oxygen, sulphur and silica atoms;
Hydrogenated linear copolymer, obtainable by polymerizing a monomer composition consisting of: a) at least 10 mol-% of 1,3-butadiene monomer, b) at least 40 mol-% of isoprene, c) 1 to 30 mol-% of one or more C 1 -C 6 alkyl(meth)acrylates, and d) 0 to 30 mol-% of one or more C 7 -C 24 alkyl(meth)acrylates, based on the total amount of monomers in the monomer composition, wherein the total amount of monomers a) and b) sum up to at least 60 mol-% of the total amount of the monomer composition, and wherein the hydrogenated copolymer has a weight-average molecular weight comprised in the range between 2,000 g/mol and 30,000 g/mol and has a degree of hydrogenation of more than 95%. a) at least 10 mol-% of 1,3-butadiene monomer, b) at least 40 mol-% of isoprene, c) 1 to 30 mol-% of one or more C 1 -C 6 alkyl(meth)acrylates, and d) 0 to 30 mol-% of one or more C 7 -C 24 alkyl(meth)acrylates, based on the total amount of monomers in the monomer composition, wherein the total amount of monomers a) and b) sum up to at least 60 mol-% of the total amount of the monomer composition, and wherein the hydrogenated copolymer has a weight-average molecular weight comprised in the range between 2,000 g/mol and 30,000 g/mol and has a degree of hydrogenation of more than 95%.
An electronic functional member comprising: a flexible substrate ; a fiber mesh comprising a fibrous resin composition ; and a patterned conductive coating portion that coats one surface of a portion of the fiber mesh, the fiber mesh extends onto and is connected to the substrate , the patterned conductive coating portion extends onto the substrate , characterized in that : the substrate has an aperture portion ; the fiber mesh is suspended over the aperture portion of the substrate around the aperture portion as an outer frame; the patterned conductive coating portion that coats one surface of a portion of the fiber mesh is located over the aperture portion (A). a flexible substrate ; a fiber mesh comprising a fibrous resin composition ; and a patterned conductive coating portion that coats one surface of a portion of the fiber mesh, the fiber mesh extends onto and is connected to the substrate , the patterned conductive coating portion extends onto the substrate , characterized in that : the substrate has an aperture portion ; the fiber mesh is suspended over the aperture portion of the substrate around the aperture portion as an outer frame; the patterned conductive coating portion that coats one surface of a portion of the fiber mesh is located over the aperture portion (A).
A polymer dispersion obtainable by at least one two-stage emulsion polymerization, by 1) preparing a polymer A by a radical polymerization from a 1 st composition comprising A) at least one monomer, B) at least one anionic copolymerizable emulsifier, 2) admixing the polymer A prepared at 1) with a base where the weight-average molecular weight of the polymers of the polymerization of the first stage is between 5 and 25 kDa, and the monomers of the polymerization of the first stage are selected such that the glass transition temperature calculated for a polymer prepared from the monomers of the first stage is in the range from 70°C to 125°C, 3) in the presence of the polymer A treated at 2), preparing a polymer B by radical polymerization from a 2 nd composition comprising A) at least one monomer, B) at least one anionic copolymerizable emulsifier where the monomers of the polymerization of the second stage are selected such that the glass transition temperature calculated for a polymer prepared from the monomers of the second stage is in the range from 0°C to -80°C, where at least one chain transfer agent is used in the polymerization of the first stage. 1) preparing a polymer A by a radical polymerization from a 1 st composition comprising A) at least one monomer, B) at least one anionic copolymerizable emulsifier, A) at least one monomer, B) at least one anionic copolymerizable emulsifier, 2) admixing the polymer A prepared at 1) with a base where the weight-average molecular weight of the polymers of the polymerization of the first stage is between 5 and 25 kDa, and the monomers of the polymerization of the first stage are selected such that the glass transition temperature calculated for a polymer prepared from the monomers of the first stage is in the range from 70°C to 125°C, 3) in the presence of the polymer A treated at 2), preparing a polymer B by radical polymerization from a 2 nd composition comprising A) at least one monomer, B) at least one anionic copolymerizable emulsifier where the monomers of the polymerization of the second stage are selected such that the glass transition temperature calculated for a polymer prepared from the monomers of the second stage is in the range from 0°C to -80°C, where at least one chain transfer agent is used in the polymerization of the first stage. A) at least one monomer, B) at least one anionic copolymerizable emulsifier where the monomers of the polymerization of the second stage are selected such that the glass transition temperature calculated for a polymer prepared from the monomers of the second stage is in the range from 0°C to -80°C, where at least one chain transfer agent is used in the polymerization of the first stage.
Device for supplying coolant to a processing device which is intended to be supplied with a fluid coolant, in particular with water, for example, a welding device , a welding robot, etc., wherein the region which is intended to be cooled or the tool which is intended to be cooled, for example, a welding cap, is incorporated in an open or closed coolant circuit with a feed line and a return line , having a conveying device which operates in the coolant circuit for conveying the coolant in the coolant circuit, and a control device for deactivating the conveying device and/or closing the feed line and/or return line , characterised in that the control device further serves to drain the feed line and/or return line in such a manner that, in the region of the tool which is intended to be cooled, there is an at least slight reduced pressure in the feed line and/or in the return line , wherein there is opened via a signal of a main valve a bypass via which the return line and where applicable the feed line is emptied into the return line or wherein in the return line without provision of a bypass a pump through which fluid flows and a non-return valve are provided, and wherein the valve prevents the return flow of the coolant in the return line .
A computer-implemented method for computing a denoised physiological signal from an input signal including a desired physiological signal and noise, the method comprising: decomposing the input signal from a first domain into subcomponents of the input signal in a second domain ; identifying target subcomponents of the input signal that are associated with the desired physiological signal based upon a time-based spatial distribution of the subcomponents ; and constructing a denoised physiological signal in the first domain from at least one of the identified target subcomponents . decomposing the input signal from a first domain into subcomponents of the input signal in a second domain ; identifying target subcomponents of the input signal that are associated with the desired physiological signal based upon a time-based spatial distribution of the subcomponents ; and constructing a denoised physiological signal in the first domain from at least one of the identified target subcomponents .
A method comprising: receiving, by a network device and from an ingress network device of a ring network, a resource reservation request message to establish a point-to-multipoint, P2MP, ring label switched path, LSP, wherein the resource reservation request message includes a leaf identification object for identifying one or more leaf network devices of the P2MP ring LSP; determining, by the network device and based on the leaf identification object, that the network device is one of the one or more leaf network devices of the P2MP ring LSP; sending, by the network device and in response to determining that the network device is one of the one or more leaf network devices of the P2MP ring LSP and reserving resources according to the resource reservation request message, a resource reservation response message towards the ingress network device; modifying, by the network device and based on the resource reservation request message, forwarding information of the network device to forward network traffic received on the P2MP ring LSP off of the P2MP ring LSP; and sending, by the network device and to a next hop network device along the P2MP ring LSP, the resource reservation request message or a modified resource reservation request message including a modified leaf identification object. receiving, by a network device and from an ingress network device of a ring network, a resource reservation request message to establish a point-to-multipoint, P2MP, ring label switched path, LSP, wherein the resource reservation request message includes a leaf identification object for identifying one or more leaf network devices of the P2MP ring LSP; determining, by the network device and based on the leaf identification object, that the network device is one of the one or more leaf network devices of the P2MP ring LSP; sending, by the network device and in response to determining that the network device is one of the one or more leaf network devices of the P2MP ring LSP and reserving resources according to the resource reservation request message, a resource reservation response message towards the ingress network device; modifying, by the network device and based on the resource reservation request message, forwarding information of the network device to forward network traffic received on the P2MP ring LSP off of the P2MP ring LSP; and sending, by the network device and to a next hop network device along the P2MP ring LSP, the resource reservation request message or a modified resource reservation request message including a modified leaf identification object.
System of a frame for presses, comprising as a press frame structural units comprising uprights , an upper cross connection with a head piece and a lower cross connection with a press table and forms a closed and releasably joined frame that receives static and dynamic forces of the presses, wherein a) the uprights having a length (L) can be manufactured as a structural unit and joined in abutment laterally or longitudinally to the cross connections by way of non-positive or non-positive and positive joining geometries and releasable connecting means (5.1) without tie rods, b) the uprights are subjected to tensile stress under an operating force (Fp) of the presses, and c) at least one of the uprights - has a structure designed different from that of the other uprights such that it deforms symmetrically under the operating force introduced asymmetrically into the uprights , and - has cross-sectional regions differentiated commensurate with the acting press forces such that at least one typical cross section of the upright is constructed in sections in an open or closed and/or asymmetrical shape, so that the press frame has a reduced vertical deflection (v2). a) the uprights having a length (L) can be manufactured as a structural unit and joined in abutment laterally or longitudinally to the cross connections by way of non-positive or non-positive and positive joining geometries and releasable connecting means (5.1) without tie rods, b) the uprights are subjected to tensile stress under an operating force (Fp) of the presses, and c) at least one of the uprights - has a structure designed different from that of the other uprights such that it deforms symmetrically under the operating force introduced asymmetrically into the uprights , and - has cross-sectional regions differentiated commensurate with the acting press forces such that at least one typical cross section of the upright is constructed in sections in an open or closed and/or asymmetrical shape, so that the press frame has a reduced vertical deflection (v2). - has a structure designed different from that of the other uprights such that it deforms symmetrically under the operating force introduced asymmetrically into the uprights , and - has cross-sectional regions differentiated commensurate with the acting press forces such that at least one typical cross section of the upright is constructed in sections in an open or closed and/or asymmetrical shape, so that the press frame has a reduced vertical deflection (v2).
Key with a key head and with a key shank for actuating a locking cylinder , in particular for a mechatronic lock-key system, comprising key electronics which transmit a coded opening signal to a locking cylinder and a generator arranged in the key head for supplying the key electronics and/or locking cylinder electronics with electrical energy, the generator being driven by a movable component , wherein the movable component comes into contact with the locking cylinder when the key shank is inserted into a locking cylinder and drives the generator when the key shank is further inserted into the locking cylinder , characterized in that a freewheel clutch is provided, so that the movable component is only engaged with the generator when the key is inserted into a locking channel of a locking cylinder , while the freewheel clutch disengages the movable component when it is pulled out, so that the generator can only be driven in one rotation direction. comprising key electronics which transmit a coded opening signal to a locking cylinder and a generator arranged in the key head for supplying the key electronics and/or locking cylinder electronics with electrical energy, the generator being driven by a movable component , wherein the movable component comes into contact with the locking cylinder when the key shank is inserted into a locking cylinder and drives the generator when the key shank is further inserted into the locking cylinder , characterized in that a freewheel clutch is provided, so that the movable component is only engaged with the generator when the key is inserted into a locking channel of a locking cylinder , while the freewheel clutch disengages the movable component when it is pulled out, so that the generator can only be driven in one rotation direction.
A personal care composition comprising a sodium lauryl ether sulfate 1EO surfactant and 0.1 to 0.8 wt percent of an insoluble manganese and/or copper piroctone complex, the insoluble manganese and/or copper piroctone complex having a solubility of 2wt percent or less in a 5wt percent aqueous sodium lauryl ether sulfate 1EO surfactant solution at 20 degrees centigrade.
A system for providing high flow vacuum control to an end effector of an articulated arm , said system comprising: a cover at a distal end of the end effector, said cover allowing air to flow through one or more openings defined therein; a vacuum source that provides a high flow vacuum at the end effector such that an object is engaged and lifted with a high flow grasp at the one or more openings defined in the cover of the end effector, wherein the one or more openings allow more air to flow near the center of the cover than near the periphery of the cover and further characterized by : a controller ; a load detection device attached to the end effector , the load detection device including a magnetic field sensor that senses a magnet mounted on the articulated arm to determine a position of the load detection device responsive to movements of the end effector; and a flow monitor that monitors changes in air flow within the end effector, wherein the controller communicates with the load detection device and the flow monitor to determine whether the high flow grasp of the end effector on the object is sufficient for transport based on the position of the load detection device and the changes in air flow within the end effector. a cover at a distal end of the end effector, said cover allowing air to flow through one or more openings defined therein; a vacuum source that provides a high flow vacuum at the end effector such that an object is engaged and lifted with a high flow grasp at the one or more openings defined in the cover of the end effector, wherein the one or more openings allow more air to flow near the center of the cover than near the periphery of the cover and further characterized by : a controller ; a load detection device attached to the end effector , the load detection device including a magnetic field sensor that senses a magnet mounted on the articulated arm to determine a position of the load detection device responsive to movements of the end effector; and a flow monitor that monitors changes in air flow within the end effector, wherein the controller communicates with the load detection device and the flow monitor to determine whether the high flow grasp of the end effector on the object is sufficient for transport based on the position of the load detection device and the changes in air flow within the end effector. a controller ; a load detection device attached to the end effector , the load detection device including a magnetic field sensor that senses a magnet mounted on the articulated arm to determine a position of the load detection device responsive to movements of the end effector; and a flow monitor that monitors changes in air flow within the end effector, wherein the controller communicates with the load detection device and the flow monitor to determine whether the high flow grasp of the end effector on the object is sufficient for transport based on the position of the load detection device and the changes in air flow within the end effector.
A system for improving a person's sleep, the system comprises a bedding layer comprising a plurality of thermally adjustable zones, a plurality of temperature sensors, wherein at least one temperature sensor per thermally adjustable zone is dispersed throughout the bedding layer, the temperature of each thermally adjustable zone can be controlled separately, and the system comprises means for controlling the heating or cooling power of each of said thermally adjustable zone, wherein the system is configured such that the position of the body of the person on or underneath the bedding layer can be detected by using the plurality of temperature sensors for identifying those thermally adjustable zones selected from the group of zones, where the temperature increases faster than in other zones, where the power needed for maintaining a set temperature is less, and where the actual temperature is above the set temperature, any one of the temperature, the heating rate and the cooling rate of each individual thermally adjustable zone can be controlled, and wherein the system is configured to automatically switch-off the heating after a preset period of time after the person got out of the bed.