mhurhangee/ep-ind-claims huggingface dataset:
Electromechanical locking unit for the vehicle sector, having, an electric motor, and a locking mechanism which has a locking member and a gear train for transmitting a driving force from the electric motor to the locking member in order to move the latter between a locking position and an unlocking position, wherein at least one toothed wheel in the gear train of the locking mechanism is assigned a mechanical stop which blocks its rotation at a defined end position, wherein the toothed wheel has a bending or spiral spring which is arranged such that, before reaching the defined end position, it is mechanically deformed in order to decelerate the rotation of the toothed wheel, wherein the bending or spiral spring is arranged around an axis of rotation (4.2) of the toothed wheel in such a way that, before reaching the end position of the toothed wheel, it comes into engagement with the stop and is elastically deformed in the process, and wherein the bending or spiral spring is arranged on the toothed wheel in such a way that, under a defined deformation, it comes into frictional contact with a fixed surface, with the result that an additional deceleration is applied to the toothed wheel.
An article comprising: a. a water-soluble film comprising: a polyvinyl alcohol (PVOH) resin blend b. a household care composition proximal to the water-soluble film. characterised in that the polyvinyl alcohol (PVOH) resin blend comprises; a first PVOH copolymer comprising a first anionic monomer unit, the first PVOH copolymer having a first level of incorporation (a 1) of the first anionic monomer unit; and a second PVOH copolymer comprising a second anionic monomer unit, the second PVOH copolymer having a second level of incorporation (a 2) of the second anionic monomer unit; wherein a 1 - a 2 is greater than zero, and the first anionic monomer unit and the second anionic monomer unit are the same or different, preferably different. a. a water-soluble film comprising: a polyvinyl alcohol (PVOH) resin blend b. a household care composition proximal to the water-soluble film. characterised in that the polyvinyl alcohol (PVOH) resin blend comprises; a first PVOH copolymer comprising a first anionic monomer unit, the first PVOH copolymer having a first level of incorporation (a 1) of the first anionic monomer unit; and a second PVOH copolymer comprising a second anionic monomer unit, the second PVOH copolymer having a second level of incorporation (a 2) of the second anionic monomer unit; wherein a 1 - a 2 is greater than zero, and the first anionic monomer unit and the second anionic monomer unit are the same or different, preferably different. characterised in that the polyvinyl alcohol (PVOH) resin blend comprises; a first PVOH copolymer comprising a first anionic monomer unit, the first PVOH copolymer having a first level of incorporation (a 1) of the first anionic monomer unit; and a second PVOH copolymer comprising a second anionic monomer unit, the second PVOH copolymer having a second level of incorporation (a 2) of the second anionic monomer unit; a first PVOH copolymer comprising a first anionic monomer unit, the first PVOH copolymer having a first level of incorporation (a 1) of the first anionic monomer unit; and a second PVOH copolymer comprising a second anionic monomer unit, the second PVOH copolymer having a second level of incorporation (a 2) of the second anionic monomer unit; wherein a 1 - a 2 is greater than zero, and the first anionic monomer unit and the second anionic monomer unit are the same or different, preferably different.
A method of reporting channel quality information for three-dimensional, 3D, multiple input multiple output, MIMO, transmission to a base station at a user equipment, UE, in a wireless communication system, the method comprising: receiving information for vertical cycling beamforming from the base station; calculating the channel quality information using the information for the vertical cycling beamforming, on an assumption that different vertical beamforming is cyclically applied per a predetermined resource unit; and reporting the calculated channel quality information to the base station, wherein, when a size of resources allocated to the UE is equal to or greater than two resource blocks, a size of the predetermined resource unit is one resource block, and wherein, when the size of resources allocated to the UE is equal to one resource block, the size of the predetermined resource unit is a specific number of resource elements, wherein resource element is smaller than resource block. receiving information for vertical cycling beamforming from the base station; calculating the channel quality information using the information for the vertical cycling beamforming, on an assumption that different vertical beamforming is cyclically applied per a predetermined resource unit; and reporting the calculated channel quality information to the base station, wherein, when a size of resources allocated to the UE is equal to or greater than two resource blocks, a size of the predetermined resource unit is one resource block, and wherein, when the size of resources allocated to the UE is equal to one resource block, the size of the predetermined resource unit is a specific number of resource elements, wherein resource element is smaller than resource block.
A sapphire structure with a metal body, comprising: a sapphire structure that includes a flat surface and is provided with a concave portion on the flat surface; and a metal body that is disposed in the concave portion and bonded to an inner surface of the concave portion, wherein the metal body includes a surface portion that is substantially flush with the flat surface, the sapphire structure being characterized in that: the inner surface of the concave portion includes a bottom surface (13α), a side surface (13β), and an inclined surface (13γ) being located between the bottom surface (13α) and the side surface (13β), wherein the inclined surface (13γ) inclines to the bottom surface (13α) and the side surface (13β), wherein the inclined surface (13γ) has an arithmetic average surface roughness greater than that of the bottom surface (13α) and the side surface (13β). a sapphire structure that includes a flat surface and is provided with a concave portion on the flat surface; and a metal body that is disposed in the concave portion and bonded to an inner surface of the concave portion, wherein the metal body includes a surface portion that is substantially flush with the flat surface, the sapphire structure being characterized in that: the inner surface of the concave portion includes a bottom surface (13α), a side surface (13β), and an inclined surface (13γ) being located between the bottom surface (13α) and the side surface (13β), wherein the inclined surface (13γ) inclines to the bottom surface (13α) and the side surface (13β), wherein the inclined surface (13γ) has an arithmetic average surface roughness greater than that of the bottom surface (13α) and the side surface (13β).
Compressed gas cylinder comprising a cylinder neck, a valve for extraction of a stored compressed gas from the compressed gas cylinder, wherein the valve is arranged in the cylinder neck, and a filter for filtering contaminants from the compressed gas, wherein a support sleeve for supporting the cylinder neck is arranged in the cylinder neck radially at the inside, and wherein the filter is fastened to the support sleeve radially at the inside, characterized in that the compressed gas cylinder consists of fibre composite material and has an inner liner, wherein the support sleeve supports the open end of the inner liner against the cylinder neck, wherein the valve is fastened in a valve receptacle, wherein the valve receptacle is fastened to the inner liner of the compressed gas cylinder.
A light emitting device comprising: a light emitting structure comprising a first semiconductor layer, an active layer and a second semiconductor layer; a phosphor plate disposed on the second semiconductor layer; a pad portion disposed on an upper surface of the phosphor plate and having a connection portion passing through the phosphor plate and exposed to a lower surface of the phosphor plate; an extension electrode (224, 226) disposed on the second semiconductor layer; at least one first bonding portion (230-1-230-m) bonding the phosphor plate to the extension electrode (224, 226); and at least one second bonding portion (240-1-240-n) disposed between the lower surface of the phosphor plate and the second semiconductor layer, wherein the at least one first bonding portion (230-1 ∼ 230-m) comprises third bonding electrodes disposed on the lower surface of the phosphor plate and bonded to the extension electrode (224, 226), wherein the third bonding electrodes include a third bonding electrode bonding the connection portion of the pad portion to the extension electrode (224, 226) by contacting the connection portion and at least one other third bonding electrode (286-1-286-3, 286-5, 286-6) spaced from the connection portion, and wherein an upper surface of the at least one second bonding portion (240-1∼240-n) contacts the lower surface of the phosphor plate and the at least one second bonding portion (240-1∼240-n) is spaced from the connection portion. a light emitting structure comprising a first semiconductor layer, an active layer and a second semiconductor layer; a phosphor plate disposed on the second semiconductor layer; a pad portion disposed on an upper surface of the phosphor plate and having a connection portion passing through the phosphor plate and exposed to a lower surface of the phosphor plate; an extension electrode (224, 226) disposed on the second semiconductor layer; at least one first bonding portion (230-1-230-m) bonding the phosphor plate to the extension electrode (224, 226); and at least one second bonding portion (240-1-240-n) disposed between the lower surface of the phosphor plate and the second semiconductor layer, wherein the at least one first bonding portion (230-1 ∼ 230-m) comprises third bonding electrodes disposed on the lower surface of the phosphor plate and bonded to the extension electrode (224, 226), wherein the third bonding electrodes include a third bonding electrode bonding the connection portion of the pad portion to the extension electrode (224, 226) by contacting the connection portion and at least one other third bonding electrode (286-1-286-3, 286-5, 286-6) spaced from the connection portion, and wherein an upper surface of the at least one second bonding portion (240-1∼240-n) contacts the lower surface of the phosphor plate and the at least one second bonding portion (240-1∼240-n) is spaced from the connection portion.
An intraocular implant for insertion into a lens capsule of the eye through a capsulotomy previously made in the eye, the implant comprising a main portion, which is a lamina, and a peripheral portion peripheral to the main portion, the implant having at least two lugs extending from the peripheral portion in a direction substantially perpendicular to a plane of the lamina, characterized in that the lugs are structured for fixed engagement with corresponding voids provided in the capsule of the eye using a femtosecond pulsed laser technique, the lugs being structured to be secured in the voids to secure the implant in a fixed position in the capsule, wherein the at least two lugs each comprise a neck portion, which extends from the peripheral portion in the direction substantially perpendicular to the plane of the lamina, and a head portion extending from the neck portion, a surface of the head adjacent the neck and behind an upper surface of the head being linear and substantially parallel to the plane of the lamina; the neck portion has a diameter in a range of 100-500 micrometres; and the neck portion has a length in a range 30 to 50 micrometres.
A pre-compression system for pre-compressing a structure, which, in turn, comprises a construction material, said system comprising a first tubular element that is expandable in a longitudinal direction, said first tubular element being movable between a longitudinally elongated configuration, in which a pressurized fluid is placed inside the first tubular element, and a contracted configuration, in which said fluid is at least partly removed, the passage from the elongated configuration to the contracted configuration bringing about a compression on the construction material which at least partly envelops the first tubular element; characterized in that: - said first tubular element comprises a composite material with a resistance to radial expansion that is greater than its resistance to longitudinal elongation, the composite material comprises a matrix and fibres located in the matrix; said fibres comprising fibres that are wrapped around a longitudinal axis and that extend helically; or - the first tubular element comprise impregnated fibres helically wrapped around the longitudinal axis in a right-handed and/or left-handed manner and being responsible for the contraction of the tubular element passing from the longitudinally elongated configuration to the contracted configuration. - said first tubular element comprises a composite material with a resistance to radial expansion that is greater than its resistance to longitudinal elongation, the composite material comprises a matrix and fibres located in the matrix; said fibres comprising fibres that are wrapped around a longitudinal axis and that extend helically; - the first tubular element comprise impregnated fibres helically wrapped around the longitudinal axis in a right-handed and/or left-handed manner and being responsible for the contraction of the tubular element passing from the longitudinally elongated configuration to the contracted configuration.
An image acquisition device, comprising: a stage on which a sample is placed; a light emitting means for emitting light; a light guiding optical system including an objective lens arranged to face the sample on the stage; a driving unit for moving a focal position of the objective lens relative to the sample in an optical axis direction of the objective lens; an imaging element for capturing an optical image of the sample guided by the light guiding optical system; an image processing unit for processing an image data output from the imaging element; and a control unit for controlling the light emitting means, wherein the imaging element is a two-dimensional imaging element that includes 1,...,N pixel rows and is capable of rolling reading in which reading is performed sequentially in each pixel row in the imaging element, the control unit is adapted to cause the light to be emitted from the light emitting means during a period of time from a start (T 1) of exposure of the N-th pixel row to a start (T 2) of the reading of the first pixel row, and the image processing unit is adapted to sequentially acquire image data from the imaging element, and combine the acquired image data to form combined image data, wherein the driving unit is adapted to move a focal position of the objective lens to a focusing position during a period of time from the start (T 2) of reading of the first pixel row to the start (T 1) of exposure of the N-th pixel row. a stage on which a sample is placed; a light emitting means for emitting light; a light guiding optical system including an objective lens arranged to face the sample on the stage; a driving unit for moving a focal position of the objective lens relative to the sample in an optical axis direction of the objective lens; an imaging element for capturing an optical image of the sample guided by the light guiding optical system; an image processing unit for processing an image data output from the imaging element; and a control unit for controlling the light emitting means, the imaging element is a two-dimensional imaging element that includes 1,...,N pixel rows and is capable of rolling reading in which reading is performed sequentially in each pixel row in the imaging element, the control unit is adapted to cause the light to be emitted from the light emitting means during a period of time from a start (T 1) of exposure of the N-th pixel row to a start (T 2) of the reading of the first pixel row, and the image processing unit is adapted to sequentially acquire image data from the imaging element, and combine the acquired image data to form combined image data, wherein the driving unit is adapted to move a focal position of the objective lens to a focusing position during a period of time from the start (T 2) of reading of the first pixel row to the start (T 1) of exposure of the N-th pixel row.
An apparatus for laser projection of a marking on a vehicle exterior, the apparatus comprising: a plurality of laser projectors (14, 14A, 14B) configured to project an image (16, 116) on a vehicle exterior; a central workstation configured to communicate with the plurality of laser projectors (14, 14A, 14B) and configured to coordinate the image projected by the plurality of laser projectors (14, 14A, 14); a computer network (18, 118) for providing communication between the central workstation and the plurality of laser projectors (14, 14A, 14B); and characterized by a plurality of purge chambers, each purge chamber having a substantially optically transparent wall formed along the purge chamber, wherein each laser projector (14, 14A, 14B) is mounted within one of the purge chambers and positioned to project a laser beam through the substantially optically transparent wall, each purge chamber being configured to maintain a safe operating environment within the purge chamber for the laser projector (14, 14A, 14B). a plurality of laser projectors (14, 14A, 14B) configured to project an image (16, 116) on a vehicle exterior; a central workstation configured to communicate with the plurality of laser projectors (14, 14A, 14B) and configured to coordinate the image projected by the plurality of laser projectors (14, 14A, 14); a computer network (18, 118) for providing communication between the central workstation and the plurality of laser projectors (14, 14A, 14B); and characterized by a plurality of purge chambers, each purge chamber having a substantially optically transparent wall formed along the purge chamber, wherein each laser projector (14, 14A, 14B) is mounted within one of the purge chambers and positioned to project a laser beam through the substantially optically transparent wall, each purge chamber being configured to maintain a safe operating environment within the purge chamber for the laser projector (14, 14A, 14B).
Device for manufacturing co-extruded food products, in particular, sausage products coated with an outer mass, comprising an inner mass filling machine containing a first pump for an inner mass that is coupled to a first drive, and a control unit for at least said first drive, a coextrusion unit disposed on the outside and connected via an inner mass supply to said inner mass filling machine, and at least one pump delivering said outer mass to said coextrusion unit and is coupled to a drive and connected to said coextrusion unit, characterized in that also said drive of said pump for said outer mass is integrated into said inner mass filling machine.
An exchange comprising: one or more network devices located in a colocation facility, wherein the one or more network devices are configured to: provide a first virtual network for switching mixed traffic from one or more customer networks colocated within a colocation facility to one or more Distributed Denial of Service, DDoS, scrubbing centers, wherein the mixed traffic includes dirty traffic that represents DDoS traffic and clean traffic that represents non-DDoS traffic; and provide a second virtual network for switching the clean traffic from the one or more DDoS scrubbing centers to the one or more customer networks, wherein the second virtual network is isolated from the first virtual network; receive the mixed traffic from the one or more customer networks and switch, using the first virtual network, the mixed traffic to a selected DDoS scrubbing center of the one or more DDoS scrubbing centers, and receive the clean traffic from the selected DDoS scrubbing center and switch, using the second virtual network, the clean traffic to the one or more customer networks. provide a first virtual network for switching mixed traffic from one or more customer networks colocated within a colocation facility to one or more Distributed Denial of Service, DDoS, scrubbing centers, wherein the mixed traffic includes dirty traffic that represents DDoS traffic and clean traffic that represents non-DDoS traffic; and provide a second virtual network for switching the clean traffic from the one or more DDoS scrubbing centers to the one or more customer networks, wherein the second virtual network is isolated from the first virtual network; receive the mixed traffic from the one or more customer networks and switch, using the first virtual network, the mixed traffic to a selected DDoS scrubbing center of the one or more DDoS scrubbing centers, and receive the clean traffic from the selected DDoS scrubbing center and switch, using the second virtual network, the clean traffic to the one or more customer networks.
A device for removing negatively charged noxae from blood, which comprises plasma and cellular components, in an extracorporeal perfusion system, comprising: a housing and a plurality of hollow fibers provided inside the housing and configured to be perfused by the blood, wherein the hollow fibers each have a plurality of pores configured such that the plasma of the blood can flow through the pores from an inside of the hollow fibers to an outside of the hollow fibers, and wherein the hollow fibers are modified or pretreated chemically in such a way that they have a functionalized, positively charged surface which binds the negatively charged noxae to itself and removes them from the blood, wherein exclusively an inside surface of the hollow fibers is further provided with a hemocompatible and anticoagulant coating to prevent damage of the cellular components of the blood when the blood flows through the hollow fibers, so that merely the pores and an outside surface of the hollow fibers have the functionalized surface and on an inside surface of the hollow fibers, a functionalized surface is no longer provided. a housing and a plurality of hollow fibers provided inside the housing and configured to be perfused by the blood, wherein the hollow fibers each have a plurality of pores configured such that the plasma of the blood can flow through the pores from an inside of the hollow fibers to an outside of the hollow fibers, and wherein the hollow fibers are modified or pretreated chemically in such a way that they have a functionalized, positively charged surface which binds the negatively charged noxae to itself and removes them from the blood, wherein exclusively an inside surface of the hollow fibers is further provided with a hemocompatible and anticoagulant coating to prevent damage of the cellular components of the blood when the blood flows through the hollow fibers, so that merely the pores and an outside surface of the hollow fibers have the functionalized surface and on an inside surface of the hollow fibers, a functionalized surface is no longer provided.