mhurhangee/ep-ind-claims huggingface dataset:
Flow generator (1, 30) for the mixing and/or separating of media, with - a rotary chamber (5, 34) which is formed such that a first medium flowing into the rotary chamber (5, 34) is set in a rotary motion, wherein the rotary chamber guides the first medium on a rotating track, characterised by - a flow channel (10a, 10b, 39), which is formed as a hose or drilled hole or milled hole in a component, connecting the rotary chamber (5, 34) to a working space (11, 38, 52) which is arranged and formed such that, at the inlet into the working space (11, 38, 52), it provides an orientation of the medium exiting from the flow channel (10a, 10b, 39) into the working space (11, 38, 52) when it enters the working space (11, 38, 52), wherein the medium rotating on a track flows out of the flow channel into the working space (11, 38, 52) in bundled form, i.e. enters the working space (11, 38, 52) as a jet rotating around its own axis, and - an outlet opening of the flow channel (10a, 10b, 39), facing the working space (11, 38, 52), is arranged and formed such that the exiting medium is directed against an inner surface of a restricting wall of the working space (11, 38, 52), - and a connecting channel (12, 13, 36) opening into the flowing medium, which has one opening on the side of the flowing medium and one on the opposite side of the flowing medium, - wherein the connecting channel with the opening on the side of the flowing medium opens into the flow channel or into the working space. - a rotary chamber (5, 34) which is formed such that a first medium flowing into the rotary chamber (5, 34) is set in a rotary motion, wherein the rotary chamber guides the first medium on a rotating track, characterised by - a flow channel (10a, 10b, 39), which is formed as a hose or drilled hole or milled hole in a component, connecting the rotary chamber (5, 34) to a working space (11, 38, 52) which is arranged and formed such that, at the inlet into the working space (11, 38, 52), it provides an orientation of the medium exiting from the flow channel (10a, 10b, 39) into the working space (11, 38, 52) when it enters the working space (11, 38, 52), wherein the medium rotating on a track flows out of the flow channel into the working space (11, 38, 52) in bundled form, i.e. enters the working space (11, 38, 52) as a jet rotating around its own axis, and - an outlet opening of the flow channel (10a, 10b, 39), facing the working space (11, 38, 52), is arranged and formed such that the exiting medium is directed against an inner surface of a restricting wall of the working space (11, 38, 52), - and a connecting channel (12, 13, 36) opening into the flowing medium, which has one opening on the side of the flowing medium and one on the opposite side of the flowing medium, - wherein the connecting channel with the opening on the side of the flowing medium opens into the flow channel or into the working space.
Patient monitoring device comprising sensor elements for continuously detecting measurements reflecting the surroundings of the patient monitoring device and a communication module to transmit the measured values to a central evaluation unit, wherein the sensor elements comprise - an accelerometer; - a noise detector; - a C02 sensor element; - a light sensor element - a far infrared sensor element, to identify the presence of a patient in the surroundings of the patient monitoring device and to detect body temperature from at least 7 meters away; - wherein the sensor elements further comprise an ambient temperature sensor element, to calibrate the far infrared sensor element to provide the absolute body temperature of the patient, wherein the patient monitoring device comprises attachment means suitable for mounting the device to an external surface so that the accelerometer detects vibrations of said external surface, wherein the external surface is a wall of a room in a patient's home or a piece of furniture within the room. - an accelerometer; - a noise detector; - a C02 sensor element; - a light sensor element - a far infrared sensor element, to identify the presence of a patient in the surroundings of the patient monitoring device and to detect body temperature from at least 7 meters away; - wherein the sensor elements further comprise an ambient temperature sensor element, to calibrate the far infrared sensor element to provide the absolute body temperature of the patient,
A pre-mounted groove sliding closure system for windowsills and other breastwork, parapet and wall coverings, comprising two groove sliding closures, a cover element and at least two seal strips, each groove sliding closure having at least one support leg (1.1), one side end of each cover element being supported on a support leg (1.1) of one groove sliding closure and at least one seal strip being located between each support leg (1.1) and the cover element, wherein the groove sliding closures are fixed to the cover element with an adhesive bond, wherein the adhesive bond is formed by at least one elastic seal strip per groove sliding closure, wherein the seal strip is provided with adhesive material on its bottom and top sides or is itself made of adhesive elastic sealing material and the respective seal strip is inserted into a notch of the support leg (1.1) that is wider than the seal strip.
A dishwasher basket, comprising: a substantially grid-like structure having a bottom wall, a front wall, a back wall and two side walls, defining a load volume of the basket; said grid-like structure comprising a plurality of rigid wires joined together, at least the wires of the bottom wall extending in such an arrangement as to define shoulders and/or abutments for receiving plates; said basket further comprising a plurality of prongs extending in a substantially vertical direction, having one end that is secured or securable to the bottom wall and a free end opposite to the secured or securable end, which are designed to define supports for the received plates; at least some of said prongs having respective resilient portions, each having a first end secured to the free end of its prong, and a second free, unsecured end, said resilient portions being made of an elastically deformable polymeric material; characterized in that said prongs with the resilient portion and said prongs without the resilient portion alternate along an ordered row of prongs and in that the height reached by the prongs with the relating resilient portion is substantially equal to the level reached by the prongs without the resilient portion. a substantially grid-like structure having a bottom wall, a front wall, a back wall and two side walls, defining a load volume of the basket; said grid-like structure comprising a plurality of rigid wires joined together, at least the wires of the bottom wall extending in such an arrangement as to define shoulders and/or abutments for receiving plates; said basket further comprising a plurality of prongs extending in a substantially vertical direction, having one end that is secured or securable to the bottom wall and a free end opposite to the secured or securable end, which are designed to define supports for the received plates; at least some of said prongs having respective resilient portions, each having a first end secured to the free end of its prong, and a second free, unsecured end, said resilient portions being made of an elastically deformable polymeric material; characterized in that said prongs with the resilient portion and said prongs without the resilient portion alternate along an ordered row of prongs and in that the height reached by the prongs with the relating resilient portion is substantially equal to the level reached by the prongs without the resilient portion.
An optical position sensor for a servo moving a load comprising: a light source configured to produce a light with an intensity dependent upon a control signal; a first light sensor and a second light sensor positioned adjacent to one another, each light sensor configured to produce a current based upon an amount of light incident upon a light detector in each light sensor; and a slotted device adapted to be coupled to the load and positioned between the light source and the first light sensor and the second light sensor, the slotted device configured to regulate an amount of light produced by the light source that strikes the first light sensor and the second light sensor based upon a position of the load, wherein the slotted device further regulates a position where light from the light source strikes the first light sensor and the second light sensor (306, wherein the slotted device regulates the light via a slot in the slotted device, wherein the slot has a radius that varies linearly with a rotation of the slotted device, and wherein as the load moves through a full range of motion, the position where the light from the light source strikes the first light sensor and the second light sensor pans across the first light sensor and the second light sensor, wherein a width of the slot in the slotted device remains constant for an entire length of the slot, and wherein the width of the slot is substantially equal to a center-to-center spacing of the first light sensor and the second light sensor. a light source configured to produce a light with an intensity dependent upon a control signal; a first light sensor and a second light sensor positioned adjacent to one another, each light sensor configured to produce a current based upon an amount of light incident upon a light detector in each light sensor; and a slotted device adapted to be coupled to the load and positioned between the light source and the first light sensor and the second light sensor, the slotted device configured to regulate an amount of light produced by the light source that strikes the first light sensor and the second light sensor based upon a position of the load, wherein the slotted device further regulates a position where light from the light source strikes the first light sensor and the second light sensor (306, wherein the slotted device regulates the light via a slot in the slotted device, wherein the slot has a radius that varies linearly with a rotation of the slotted device, and wherein as the load moves through a full range of motion, the position where the light from the light source strikes the first light sensor and the second light sensor pans across the first light sensor and the second light sensor, wherein a width of the slot in the slotted device remains constant for an entire length of the slot, and wherein the width of the slot is substantially equal to a center-to-center spacing of the first light sensor and the second light sensor.
A power supply system (10#) capable of exchanging electric power with a load device, comprising: a power storage device for supplying electric power to said load device and charged by regenerative power generated by said load device; an excessive power consuming circuit for consuming, when driven on, excess power not charged to said storage device of said regenerative power; and a controller for controlling said excessive power consuming circuit; wherein said controller determines whether or not said regenerative power is acceptable to said power storage device when said excessive power consuming circuit is on, and drives off said excessive power consuming circuit, if said regenerative power is determined to be acceptable to said power storage device; said load device includes a driving force generating unit receiving electric power supplied from said power supply system (10#) and generating driving force of a vehicle; characterised in that said controller counts elapsed time from a time point when said excessive power consuming circuit is driven on, and when counted elapsed time exceeds a prescribed time, determines that said regenerative power is acceptable to said power storage device; and said prescribed time is set to include a time period in which generation of said excess power is expected in accordance with change in running status of said vehicle. a power storage device for supplying electric power to said load device and charged by regenerative power generated by said load device; an excessive power consuming circuit for consuming, when driven on, excess power not charged to said storage device of said regenerative power; and a controller for controlling said excessive power consuming circuit; wherein said controller determines whether or not said regenerative power is acceptable to said power storage device when said excessive power consuming circuit is on, and drives off said excessive power consuming circuit, if said regenerative power is determined to be acceptable to said power storage device; said load device includes a driving force generating unit receiving electric power supplied from said power supply system (10#) and generating driving force of a vehicle; characterised in that said controller counts elapsed time from a time point when said excessive power consuming circuit is driven on, and when counted elapsed time exceeds a prescribed time, determines that said regenerative power is acceptable to said power storage device; and said prescribed time is set to include a time period in which generation of said excess power is expected in accordance with change in running status of said vehicle.
A lubricating resin composition for personal care, wherein the composition comprises 100 parts by mass of a thermoplastic elastomer having durometer A hardness of 10 to 40 measured according to Japanese Industrial Standard JIS K 7215, 10 to 40 parts by mass of a water-soluble polyethylene oxide, and 20 to 60 parts by mass of a water-absorbent modified polyalkylene oxide.
A Power over Ethernet method, comprising: determining, by power sourcing equipment, PSE, a maximum power of a Powered Device, PD, according to a classification class of the powered device, PD; obtaining, by the PSE, a length of a network cable between the PSE and the PD; determining, by the PSE, a type of the network cable; calculating, by the PSE, a loss power of the network cable according to the length of the network cable and the type of the network cable; and using, by the PSE, a sum of the maximum power of the PD and the loss power of the network cable as a supply power, to supply power to the PD; wherein the obtaining, by the PSE, a length of a network cable between the PSE and the PD comprises: reading, by the PSE, n measured lengths of the network cable by using a physical layer PHY chip, wherein n is a positive integer greater than or equal to 1; the Power over Ethernet method being characterized in that the obtaining, by the PSE, the length of the network cable, further comprises: calculating, by the PSE, an optimal value of each measured length of the network cable by using a Kalman filtering algorithm; obtaining, by the PSE, a convergence length of the network cable from the optimal values of the n measured lengths of the network cable by using a convergence algorithm; and using, by the PSE, the convergence length of the network cable as the length of the network cable. determining, by power sourcing equipment, PSE, a maximum power of a Powered Device, PD, according to a classification class of the powered device, PD; obtaining, by the PSE, a length of a network cable between the PSE and the PD; determining, by the PSE, a type of the network cable; calculating, by the PSE, a loss power of the network cable according to the length of the network cable and the type of the network cable; and using, by the PSE, a sum of the maximum power of the PD and the loss power of the network cable as a supply power, to supply power to the PD; wherein the obtaining, by the PSE, a length of a network cable between the PSE and the PD comprises: reading, by the PSE, n measured lengths of the network cable by using a physical layer PHY chip, wherein n is a positive integer greater than or equal to 1; the Power over Ethernet method being characterized in that the obtaining, by the PSE, the length of the network cable, further comprises: calculating, by the PSE, an optimal value of each measured length of the network cable by using a Kalman filtering algorithm; reading, by the PSE, n measured lengths of the network cable by using a physical layer PHY chip, wherein n is a positive integer greater than or equal to 1; the Power over Ethernet method being characterized in that the obtaining, by the PSE, the length of the network cable, further comprises: calculating, by the PSE, an optimal value of each measured length of the network cable by using a Kalman filtering algorithm; obtaining, by the PSE, a convergence length of the network cable from the optimal values of the n measured lengths of the network cable by using a convergence algorithm; and using, by the PSE, the convergence length of the network cable as the length of the network cable.
An ophthalmic surgical device comprising: a housing having a distal end and a proximal end; a cannula (18, 130) attached to the housing distal end and having a distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134) with at least one port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) in communication with a lumen extending through the cannula (18, 130) and in communication with an aspiration path in the housing and wherein a cross-sectional area of the port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) is less than a cross-sectional area of the lumen; a vibration source held within the housing for vibrating the distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134) of the cannula (18, 130) for assisting in vitreous and other tissue removal from a patient's eye; an aspiration source connected to the aspiration path for applying a negative pressure to the lumen and the at least one port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) for removing fluids and the vitreous and other tissue from the eye; and wherein the vibration source and the aspiration source are configured to together create a periodic bi-directional flow of tissue through the port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) by driving the tip at a velocity sufficient to cause said periodic bi-directional flow of tissue with an aspiration vacuum applied without creating cavitation externally of the distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134). a housing having a distal end and a proximal end; a cannula (18, 130) attached to the housing distal end and having a distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134) with at least one port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) in communication with a lumen extending through the cannula (18, 130) and in communication with an aspiration path in the housing and wherein a cross-sectional area of the port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) is less than a cross-sectional area of the lumen; a vibration source held within the housing for vibrating the distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134) of the cannula (18, 130) for assisting in vitreous and other tissue removal from a patient's eye; an aspiration source connected to the aspiration path for applying a negative pressure to the lumen and the at least one port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) for removing fluids and the vitreous and other tissue from the eye; and wherein the vibration source and the aspiration source are configured to together create a periodic bi-directional flow of tissue through the port (22, 32, 42, 52, 62, 82, 92, 112, 124, 132) by driving the tip at a velocity sufficient to cause said periodic bi-directional flow of tissue with an aspiration vacuum applied without creating cavitation externally of the distal tip (20, 30, 40, 50, 60, 80, 90, 110, 122, 134).
A method comprising: by a computing device, determining one or more motions of a camera, where the motions correspond to movements of the camera during recording of a multimedia clip; by the computing device, determining one or more amounts of light present during the recording; by the computing device, from the determined motions and amounts of light, determining a motion-blur metric for the multimedia clip, wherein determining the motion-blur metric for the multimedia clip comprises determining a product of an exposure time and a camera orientation change for a plurality of frames of the multimedia clip; characterized in that determining the motion-blur metric for the multimedia clip further comprises determining an average value of the product of the exposure time and the camera orientation change for the plurality of frames; and by the computing device, determining whether to apply a video-stabilization routine to the multimedia clip based on the motion-blur metric, wherein determining whether to apply the video-stabilization routine comprises determining whether the motion-blur metric is less than a predetermined threshold value. by a computing device, determining one or more motions of a camera, where the motions correspond to movements of the camera during recording of a multimedia clip; by the computing device, determining one or more amounts of light present during the recording; by the computing device, from the determined motions and amounts of light, determining a motion-blur metric for the multimedia clip, wherein determining the motion-blur metric for the multimedia clip comprises determining a product of an exposure time and a camera orientation change for a plurality of frames of the multimedia clip; characterized in that determining the motion-blur metric for the multimedia clip further comprises determining an average value of the product of the exposure time and the camera orientation change for the plurality of frames; and by the computing device, determining whether to apply a video-stabilization routine to the multimedia clip based on the motion-blur metric, wherein determining whether to apply the video-stabilization routine comprises determining whether the motion-blur metric is less than a predetermined threshold value.
A method for protecting a rupturable component (535a, 535b) adjacent to a structure having one or more structure openings (505, 510, 515) comprising: positioning a sheet of puncture resistant, flexible material comprising one or more sheet openings (615a, 615b) at or about one of the one or more structure openings (505, 510, 515); permanently or semi-permanently attaching the sheet to the structure at a first portion of an area (605, 610) of the sheet; placing a grommet in the one or more sheet openings (615a, 615b) and the structure opening (505, 510, 515), thereby deflecting one or more portions of the sheet into the structure opening (505, 510, 515) to protect one or more portions of the rupturable component (535a, 535b) near the structure opening (505, 510, 515) if the structure becomes frayed or fractured at or about the structure opening (505, 510, 515); and positioning the rupturable component (535a, 535b) through the grommet, the one or more sheet openings (615a, 615b) and the structure opening (505, 510, 515). positioning a sheet of puncture resistant, flexible material comprising one or more sheet openings (615a, 615b) at or about one of the one or more structure openings (505, 510, 515); permanently or semi-permanently attaching the sheet to the structure at a first portion of an area (605, 610) of the sheet; placing a grommet in the one or more sheet openings (615a, 615b) and the structure opening (505, 510, 515), thereby deflecting one or more portions of the sheet into the structure opening (505, 510, 515) to protect one or more portions of the rupturable component (535a, 535b) near the structure opening (505, 510, 515) if the structure becomes frayed or fractured at or about the structure opening (505, 510, 515); and positioning the rupturable component (535a, 535b) through the grommet, the one or more sheet openings (615a, 615b) and the structure opening (505, 510, 515).