mhurhangee/ep-ind-claims huggingface dataset:
A subsampling motion detector (100, 150, 300) configured to detect motion information of an object under measurement, the subsampling motion detector (100, 150, 300) receiving a first wireless radio frequency signal and transmitting a second wireless radio frequency signal, the first wireless radio frequency signal being generated by reflecting the second wireless radio frequency signal from the object, the subsampling motion detector (100, 150, 300) characterized by: a first oscillator generating a low frequency oscillation signal according to a control signal; a second oscillator (110, 210) outputting a high frequency oscillation signal, wherein the first wireless radio frequency signal is injected to the second oscillator (110, 210) for controlling the second oscillator (110, 210) through injecting locking; and a subsampling phase detector receiving the high frequency oscillation signal and the low frequency oscillation signal and detecting a phase difference between the high frequency oscillation signal and the low frequency oscillation signal at time periods indicated by the low frequency oscillation signal, the subsampling phase detector outputting a phase detection output signal according to the detected phase difference, the control signal being generated according to the phase detection output signal output from the subsampling phase detector, and the motion information of the object being calculated according to the phase detection output signal; wherein the high frequency oscillation signal received by the subsampling phase detector is controlled by the first wireless radio frequency signal through injecting locking, and the second wireless radio frequency signal is caused by the high frequency oscillation signal. a first oscillator generating a low frequency oscillation signal according to a control signal; a second oscillator (110, 210) outputting a high frequency oscillation signal, wherein the first wireless radio frequency signal is injected to the second oscillator (110, 210) for controlling the second oscillator (110, 210) through injecting locking; and a subsampling phase detector receiving the high frequency oscillation signal and the low frequency oscillation signal and detecting a phase difference between the high frequency oscillation signal and the low frequency oscillation signal at time periods indicated by the low frequency oscillation signal, the subsampling phase detector outputting a phase detection output signal according to the detected phase difference, the control signal being generated according to the phase detection output signal output from the subsampling phase detector, and the motion information of the object being calculated according to the phase detection output signal; wherein the high frequency oscillation signal received by the subsampling phase detector is controlled by the first wireless radio frequency signal through injecting locking, and the second wireless radio frequency signal is caused by the high frequency oscillation signal.
A eucentric digital microscope, comprising: a stationary stand base body, a pivot unit pivotably mounted on the stand base body, the pivot unit being mounted rotatably around a rotation axis extending in a y direction, the pivot unit comprising at least an optical system having an optical axis extending orthogonally to the rotation axis, and a focal plane, the pivot unit being mounted immovably at least in an x direction and in a z direction relative to the rotation axis, and the optical system comprising at least an objective and an image capturing unit that are each mounted immovably relative to the rotation axis, characterized by an object table which is mounted on the stand base body outside the pivot unit movably at least along the z axis. a stationary stand base body, a pivot unit pivotably mounted on the stand base body, the pivot unit being mounted rotatably around a rotation axis extending in a y direction, the pivot unit comprising at least an optical system having an optical axis extending orthogonally to the rotation axis, and a focal plane, the pivot unit being mounted immovably at least in an x direction and in a z direction relative to the rotation axis, and the optical system comprising at least an objective and an image capturing unit that are each mounted immovably relative to the rotation axis, characterized by an object table which is mounted on the stand base body outside the pivot unit movably at least along the z axis.
An electronic device housing, comprising: a first glass cover member having a first surface that defines a top outer surface of an electronic device; a second glass cover member having a second surface that defines a bottom outer surface of the electronic device; a support structure positioned between the first glass cover member and the second glass cover member and defining a first portion of a side outer surface of the electronic device; a first protective side-member for coupling the first glass cover member to the support structure, the first protective side member positioned along sides of the first glass cover member and coupled to an interior surface of the first glass cover member, opposite the first surface, by a first adhesive layer positioned around the periphery of the interior surface of the first glass cover member, wherein the first protective side member defines a second portion of the side outer surface; and a second protective side-member for coupling the second glass cover member to the support structure, the second protective side member positioned along sides of the second glass cover member and coupled to an interior surface of the second glass cover member, opposite the second surface, by a second adhesive layer positioned around the periphery of the interior surface of the second glass cover member, wherein the second protective side member defines a third portion of the side outer surface. a first glass cover member having a first surface that defines a top outer surface of an electronic device; a second glass cover member having a second surface that defines a bottom outer surface of the electronic device; a support structure positioned between the first glass cover member and the second glass cover member and defining a first portion of a side outer surface of the electronic device; a first protective side-member for coupling the first glass cover member to the support structure, the first protective side member positioned along sides of the first glass cover member and coupled to an interior surface of the first glass cover member, opposite the first surface, by a first adhesive layer positioned around the periphery of the interior surface of the first glass cover member, wherein the first protective side member defines a second portion of the side outer surface; and a second protective side-member for coupling the second glass cover member to the support structure, the second protective side member positioned along sides of the second glass cover member and coupled to an interior surface of the second glass cover member, opposite the second surface, by a second adhesive layer positioned around the periphery of the interior surface of the second glass cover member, wherein the second protective side member defines a third portion of the side outer surface.
Treatment system for making of paper or surface ply of a multi-ply board from a fibre suspension, where at least 90 weight-% of fibres originate from chemical, chemi-thermo mechanical pulping process and/or office waste deinking pulping process, the system comprising - a suspension component, which is incorporated into the fibre suspension, and - a surface component, which is applied on the surface of the paper and which comprises an aqueous surface composition comprising a polymeric binder, characterised in that the suspension component comprises at least the following (a) cationic starch, which is incorporated into the fibre suspension, (b) a cationic copolymer of acrylamide and cationic monomers, and (c) an anionic copolymer of acrylamide and more than 30 mol-% of anionic monomers. - a suspension component, which is incorporated into the fibre suspension, and - a surface component, which is applied on the surface of the paper and which comprises an aqueous surface composition comprising a polymeric binder, characterised in that the suspension component comprises at least the following (a) cationic starch, which is incorporated into the fibre suspension, (b) a cationic copolymer of acrylamide and cationic monomers, and (c) an anionic copolymer of acrylamide and more than 30 mol-% of anionic monomers. (a) cationic starch, which is incorporated into the fibre suspension, (b) a cationic copolymer of acrylamide and cationic monomers, and (c) an anionic copolymer of acrylamide and more than 30 mol-% of anionic monomers.
A method of imaging a marine 3D survey area, comprising: a) obtaining or developing a geology model of a marine survey area; b) determining a bin size and orientation; c) wherein that determination of bin size is based on a smallest feature to be mapped and a shape of said marine geology model; d) determining a compressed seismig imaging source and receiver station and sampling design, CSI design, using compressive sensing concepts and based on the geology model and the determined bin size or orientation; characterized by determining a stability of said CSI design and if unstable modifying said bin size or orientation and re-determining said stability iteratively to produce a stable CSI design; e) establishing a set of sampling rules or criteria for coverage of said marine survey area to assure that appropriate data is recorded so said stable CSI design can be properly reconstructed; f) acquiring 3D seismic data traces over said marine survey area using said stable CSI design until said rules or criteria are met, wherein wind and current are not compensated for but allowed to direct vessel travel; g) reconstructing a wavefield and regularizing the traces using the appropriate reconstruction techniques to produce seismic data; and h) processing the seismic data and imaging the survey area. a) obtaining or developing a geology model of a marine survey area; b) determining a bin size and orientation; c) wherein that determination of bin size is based on a smallest feature to be mapped and a shape of said marine geology model; d) determining a compressed seismig imaging source and receiver station and sampling design, CSI design, using compressive sensing concepts and based on the geology model and the determined bin size or orientation; characterized by determining a stability of said CSI design and if unstable modifying said bin size or orientation and re-determining said stability iteratively to produce a stable CSI design; e) establishing a set of sampling rules or criteria for coverage of said marine survey area to assure that appropriate data is recorded so said stable CSI design can be properly reconstructed; f) acquiring 3D seismic data traces over said marine survey area using said stable CSI design until said rules or criteria are met, wherein wind and current are not compensated for but allowed to direct vessel travel; g) reconstructing a wavefield and regularizing the traces using the appropriate reconstruction techniques to produce seismic data; and h) processing the seismic data and imaging the survey area.
A method of making a touch fastener product, the method comprising distributing a multiplicity of discrete fastening bits (14, 14a, 14b) over a support surface, each bit (14, 14a, 14b) having opposite side surfaces (24, 24b, 26, 26b) forming boundaries of surfaces defining projections extending in different directions from the fastening bits (14, 14a, 14b), at least one of the opposite side surfaces (24, 24b, 26, 26b) being non-planar, and each projection having an overhanging head (18, 18b); and fixing the distributed bits (14, 14a, 14b) to the support surface, with each bit (14, 14a, 14b) oriented with at least one of its projection heads (18, 18b) raised from the support surface to releasably engage fibers.
A lighting strip, comprising: a strip-shaped printed circuit board which includes: a first layer having a first set of conductive tracks; a second layer provided over the first layer, having a second set of conductive tracks corresponding to the first set of conductive tracks; and a third layer provided over the second layer, having an array of contact terminals (60, 62, 64); and a plurality of lighting elements (50, 52) disposed along the lighting strip, each electrically connected to a respective pair of the contact terminals; wherein the lighting strip comprises a set of vias (64, 65) connecting each conductive track of the first set to the corresponding conductive track of the second set, characterized in that the strip-shaped printed circuit board further includes one or more perforated lines at which the printed circuit board length may be adjusted by breaking off an end portion of the printed circuit board, and in that each conductive track of the second set is vertically aligned and positioned over the corresponding conductive track of the first set. a strip-shaped printed circuit board which includes: a first layer having a first set of conductive tracks; a second layer provided over the first layer, having a second set of conductive tracks corresponding to the first set of conductive tracks; and a third layer provided over the second layer, having an array of contact terminals (60, 62, 64); and a first layer having a first set of conductive tracks; a second layer provided over the first layer, having a second set of conductive tracks corresponding to the first set of conductive tracks; and a third layer provided over the second layer, having an array of contact terminals (60, 62, 64); and a plurality of lighting elements (50, 52) disposed along the lighting strip, each electrically connected to a respective pair of the contact terminals; wherein the lighting strip comprises a set of vias (64, 65) connecting each conductive track of the first set to the corresponding conductive track of the second set, characterized in that the strip-shaped printed circuit board further includes one or more perforated lines at which the printed circuit board length may be adjusted by breaking off an end portion of the printed circuit board, and in that each conductive track of the second set is vertically aligned and positioned over the corresponding conductive track of the first set.
A light-emitting unit comprising: a first insulator having light transmissive property; a second insulator arranged opposite to the first insulator; a plurality of conductor patterns(23a-23i) formed on a surface of the first insulator and having transmissive property to light; a plurality of first light-emitting devices having an anode and a cathode on one surface and connected to any two conductor patterns of the plurality of conductor patterns(23a-23i); and a resin layer arranged between the first insulator and the second insulator to hold the first light-emitting devices, wherein the conductor pattern (23a-23i) is a mesh pattern in which an opening allows light to pass through. a first insulator having light transmissive property; a second insulator arranged opposite to the first insulator; a plurality of conductor patterns(23a-23i) formed on a surface of the first insulator and having transmissive property to light; a plurality of first light-emitting devices having an anode and a cathode on one surface and connected to any two conductor patterns of the plurality of conductor patterns(23a-23i); and a resin layer arranged between the first insulator and the second insulator to hold the first light-emitting devices, wherein the conductor pattern (23a-23i) is a mesh pattern in which an opening allows light to pass through.
A roofing system comprising at least two transparent panels and at least one connecting element (30,30'), wherein said at least two panels are connected to said at least one connecting element (30,30'), wherein said connecting element (30,30') comprises a main portion having at its ends two lateral portions (30a,30d), wherein each lateral portion (30a,30d) connects the main portion to a respective supporting portion (30b,30e), and each supporting portion (30b,30e) is spaced out from the main portion and is configured for the connection to one of said two transparent panels, wherein said connecting element (30, 30') is made preferably from a metal plate, wherein said panels comprise at least one constraining end, and where a constraining end of a first transparent panel is connected to a first supporting portion of the connecting element (30,30'), and a constraining end of a second transparent panel is connected to a second supporting portion of the connecting element (30,30'), wherein the connection of the constraining ends of the transparent panels with the respective supporting portions (30b,30e) is carried out by connection means, preferably screws and wherein the connecting element (30, 30') has a complementary shape of the constraining ends of the transparent panels, characterised in that each of the lateral portions (30a, 30d) of the connecting element (30, 30') is connected at an acute or at an obtuse angle (α) to one of the ends of the main portion, and in that in an area of connection between two transparent panels, at least one layer of transparent material positioned underneath the connecting element (30,30') is provided and is constrained to it. wherein said connecting element (30, 30') is made preferably from a metal plate, wherein said panels comprise at least one constraining end, and where a constraining end of a first transparent panel is connected to a first supporting portion of the connecting element (30,30'), and a constraining end of a second transparent panel is connected to a second supporting portion of the connecting element (30,30'), wherein the connection of the constraining ends of the transparent panels with the respective supporting portions (30b,30e) is carried out by connection means, preferably screws and wherein the connecting element (30, 30') has a complementary shape of the constraining ends of the transparent panels, characterised in that each of the lateral portions (30a, 30d) of the connecting element (30, 30') is connected at an acute or at an obtuse angle (α) to one of the ends of the main portion, and in that in an area of connection between two transparent panels, at least one layer of transparent material positioned underneath the connecting element (30,30') is provided and is constrained to it.
Method for operating an apparatus for heat-shrinking a sheet-like material onto a group of individual packs, having at least one heating zone (I, II) with a plurality of electrical heating devices, wherein the method comprises the following method steps: - sensing the actual temperature in the region of the heating zone (I, II) and comparing the actual temperature in the region of the heating zone (I, II) with a desired temperature; - switching into a first operating mode by reducing the number of active heating devices (2, 2', 2") in the heating zone (I, II) to a predefined number of heating devices when the actual temperature in the region of the heating zone (I, II) has exceeded the desired temperature, wherein the predefined number of heating devices was determined by taking at least one operating parameter into consideration; and - switching from the first operating mode into a second operating mode by increasing the number of active heating devices in the heating zone (I, II) in order to increase the actual temperature in the region of the heating zone (I, II) to the desired temperature. - sensing the actual temperature in the region of the heating zone (I, II) and comparing the actual temperature in the region of the heating zone (I, II) with a desired temperature; - switching into a first operating mode by reducing the number of active heating devices (2, 2', 2") in the heating zone (I, II) to a predefined number of heating devices when the actual temperature in the region of the heating zone (I, II) has exceeded the desired temperature, wherein the predefined number of heating devices was determined by taking at least one operating parameter into consideration; and - switching from the first operating mode into a second operating mode by increasing the number of active heating devices in the heating zone (I, II) in order to increase the actual temperature in the region of the heating zone (I, II) to the desired temperature.
A wireless electric power transmission system comprising: two antennas (107, 109) having the ability to transmit electric power by a non-contact method via resonant magnetic coupling, one of the two antennas being a series resonant circuit the other antenna being a parallel resonant circuit; and an oscillator which is connected to one of the two antennas configured to transmit RF power; and; a control section adapted for controlling a transmission frequency; characterized by the control section is adapted for controling a transmission frequency according to the magnitude of the electric power to be transmitted from one of the two antennas to the other, wherein if a coupling coefficient between the two antennas (107, 109) is k, then the resonant frequency fs of the series resonant circuit and the resonant frequency fp of the parallel resonant circuit are set so as to satisfy the inequality fs / fp < − 0.6074 × k 2 + 0.0466 × k + 0.9955. two antennas (107, 109) having the ability to transmit electric power by a non-contact method via resonant magnetic coupling, one of the two antennas being a series resonant circuit the other antenna being a parallel resonant circuit; and an oscillator which is connected to one of the two antennas configured to transmit RF power; and; a control section adapted for controlling a transmission frequency; characterized by the control section is adapted for controling a transmission frequency according to the magnitude of the electric power to be transmitted from one of the two antennas to the other, wherein if a coupling coefficient between the two antennas (107, 109) is k, then the resonant frequency fs of the series resonant circuit and the resonant frequency fp of the parallel resonant circuit are set so as to satisfy the inequality fs / fp < − 0.6074 × k 2 + 0.0466 × k + 0.9955.
A toothbrush comprising: a handle and a head (614, 914) connected to said handle by a neck element, and a mechanical vibratory device which causes the head (614, 914) to vibrate, wherein said head (614, 914) comprises movable elements (618, 626, 818, 826) attached thereto for providing an enhanced cleaning effect upon vibration of said head (614, 914) by said mechanical vibratory element, wherein the head (614, 914) comprises a body portion and a plurality of separate cleaning areas, at least one of said cleaning areas comprising a base (616, 620, 816, 820) with at least one outwardly extending first cleaning element (618, 818), at least one of said cleaning areas being a pod (622, 624, 822, 824) having at least one outwardly extending second cleaning element (626, 826), said pod (622, 624, 822, 824) having a greater degree of movability than said base (616, 620, 816, 820), and said pod (622, 624, 822, 824) being resilient whereby said at least one second cleaning element (626, 826) of said pod (622, 624, 822, 824) is movable from an initial position and being returnable to said initial position, wherein to achieve the resiliency of the pod a thin dimension or thin diameter beam extends from the body portion and is joined into the bottom of a plate (634, 934) providing a support area onto which the at least one second cleaning element (626, 826) is affixed, characterized in that an elastic material encloses the beam.