mhurhangee/ep-ind-claims huggingface dataset:
A transfer film comprising at least a substrate, a release layer provided on the substrate, an intermediate layer provided on the release layer, and a protective layer provided on the intermediate layer, wherein the intermediate layer comprises a wax component and a rubber component, and the protective layer comprises an active light curing resin.
Interconnect module between an electrical circuit breaker and an electrical contactor, the interconnect module comprising a housing and a plurality of electrical power conductors (31, 32, 33) housed inside the housing, each of the electrical power conductors being adapted to electrically connect an electrical output of a circuit breaker to an electrical input of a contactor in order to allow an electric supply current to flow from the circuit breaker to the contactor, the interconnect module further comprising a voltage sensor adapted to detect the presence of an electrical voltage (Vp) between at least two of the electrical power conductors (31, 32, 33), characterised in that two of the electrical power conductors (31, 33) are each provided with a first electrically conductive plate (316, 336), and in that the voltage sensor comprises: - two second electrically conductive plates (81, 83) each arranged at a distance from and opposite one of the first electrically conductive plates (316, 336), and - a measuring circuit for measuring an electrical measurement voltage (Vm) between the two second electrically conductive plates (81, 83), the presence of the electrical voltage (Vp) being detected as a function of the value of the electrical measurement voltage (Vm), the electrical measurement voltage (Vm) depending on the value of the electrical capacitances (C1, C2) between each second electrically conductive plate (81, 83) and the first electrical plate (313, 336) of the corresponding electrical power conductor. - two second electrically conductive plates (81, 83) each arranged at a distance from and opposite one of the first electrically conductive plates (316, 336), and - a measuring circuit for measuring an electrical measurement voltage (Vm) between the two second electrically conductive plates (81, 83), the presence of the electrical voltage (Vp) being detected as a function of the value of the electrical measurement voltage (Vm), the electrical measurement voltage (Vm) depending on the value of the electrical capacitances (C1, C2) between each second electrically conductive plate (81, 83) and the first electrical plate (313, 336) of the corresponding electrical power conductor.
A lawn mower comprising: a frame; a cutting deck comprising an underside that can be directed downwardly toward the ground for mowing, the cutting deck further comprising a pivot point and a cutting deck attachment mechanism separated from each other; an arm connected to a lifting mechanism and connecting the cutting deck with the frame so that the arm is configured to lift the cutting deck from a lower position to an upper position; and a stay comprising a first end and a second end, the first end of the stay being configured to connect to the cutting deck attachment mechanism, and the second end being configured to connect to a frame attachment mechanism of the frame so that, while the cutting deck is lifted at the pivot point, the stay maintains at least a predetermined distance between the cutting deck attachment mechanism of the cutting deck and the frame, thereby tilting the cutting deck, characterized in that the arm comprises a distal end and a proximate end, the proximate end being pivotably attached to the frame while the distal end is pivotably connected to the pivot point on the cutting deck. a frame; a cutting deck comprising an underside that can be directed downwardly toward the ground for mowing, the cutting deck further comprising a pivot point and a cutting deck attachment mechanism separated from each other; an arm connected to a lifting mechanism and connecting the cutting deck with the frame so that the arm is configured to lift the cutting deck from a lower position to an upper position; and a stay comprising a first end and a second end, the first end of the stay being configured to connect to the cutting deck attachment mechanism, and the second end being configured to connect to a frame attachment mechanism of the frame so that, while the cutting deck is lifted at the pivot point, the stay maintains at least a predetermined distance between the cutting deck attachment mechanism of the cutting deck and the frame, thereby tilting the cutting deck, characterized in that the arm comprises a distal end and a proximate end, the proximate end being pivotably attached to the frame while the distal end is pivotably connected to the pivot point on the cutting deck.
A method for producing a feeder configured for use in a casting mold used for casting metals, wherein the feeder has a feeder body enclosing a feeder cavity and a through opening in its base region for connecting the feeder cavity to the casting mold and the feeder body consists of an exothermic material and is enclosed on its outer side at least in regions by an external shell consisting of insulating refractory material, and wherein the feeder is provided with a feeder foot arranged externally in its base region and having an opening flush with the through opening, characterized in that the feeder body produced in a first step from an exothermic material is used together with the feeder foot associated with the base region to form the external shell into an injection mold having a mold cavity and feeder body and feeder foot are shot simultaneously with the insulating material, wherein the feeder body including the feeder foot is positioned in such a manner that the insulating material shot into the mold cavity of the injection mold fills in a gap left between the feeder foot and the base of the mold cavity at least one part of the circumference of the feeder foot and extending over at least a part of the height of the feeder foot, and the shot external shell thereby extends at least partially under the feeder foot with the exception of its opening and is attached to the base region of the feeder body without the use of auxiliary means.
A N pulse variable frequency drive for driving first and second motors (14, 16) on a common bus characterized in that: (a) a M1 pulse variable frequency drive is connected to drive the first motor; (b) a M2 pulse variable frequency drive is connected to drive the second motor; (c) the common DC bus is connected to said M1 and M2 pulse variable frequency drives; and (d) a N pulse shifting transformer is connected to said M1 and M2 pulse variable frequency drives; wherein M1 + M2 = N. (a) a M1 pulse variable frequency drive is connected to drive the first motor; (b) a M2 pulse variable frequency drive is connected to drive the second motor; (c) the common DC bus is connected to said M1 and M2 pulse variable frequency drives; and (d) a N pulse shifting transformer is connected to said M1 and M2 pulse variable frequency drives; wherein M1 + M2 = N.
A nanoparticle comprising: a) a silica core comprising a plurality of a fluorescently responsive material covalently bound to the silica network of the core; b) 1 to 100 FRM-containing silica layers, each layer comprising a plurality of the FRM covalently bound to the silica network of the FRM-containing silica layer; c) one or more FRM-free silica layers, wherein one of the FRM-free silica layers separates the silica core from one of the FRM-containing silica layers and, if present, each adjacent pair of the FRM-containing silica layers is separated by one of the FRM-free silica layers; d) an outermost FRM-free silica layer disposed on the outermost FRM-containing silica layer; and e) a plurality of poly(ethylene glycol) molecules covalently bound to the outer surface of the outermost FRM-free silica layer; wherein each FRM-free silica layer has a thickness of 1 nm to 20 nm. a) a silica core comprising a plurality of a fluorescently responsive material covalently bound to the silica network of the core; b) 1 to 100 FRM-containing silica layers, each layer comprising a plurality of the FRM covalently bound to the silica network of the FRM-containing silica layer; c) one or more FRM-free silica layers, wherein one of the FRM-free silica layers separates the silica core from one of the FRM-containing silica layers and, if present, each adjacent pair of the FRM-containing silica layers is separated by one of the FRM-free silica layers; d) an outermost FRM-free silica layer disposed on the outermost FRM-containing silica layer; and e) a plurality of poly(ethylene glycol) molecules covalently bound to the outer surface of the outermost FRM-free silica layer;
An apparatus for envelope detection, the apparatus being configured for exchanging timing information between a transmission end and a reception end of a resonator isolation, RI, system using wireless power transmission, the apparatus comprising: a controller (420, 520) configured to eliminate a carrier component (720, 920) from a modulated signal transmitted from the transmission end by performing a square-sum operation between two adjacent signals in time sampled from the modulated signal; an envelope detector configured to detect an envelope (710, 910) of the modulated signal in which the carrier component (720, 920) is eliminated; an estimator configured to estimate a starting point for a mutual resonance between a source resonator at the transmission end and a target resonator at the reception end based on the detected envelope; and a sampling unit (410, 510) configured to sample the modulated signal so that a sampling time interval between the two adjacent signals sampled satisfies (1/2 + n) ∗ (π/ω), wherein n corresponds to an integer and ω corresponds to an angular frequency, wherein the sampling unit (410, 510) is configured to compare a bandwidth of the modulated signal with a carrier frequency of the modulated signal and to increase the value of n if the bandwidth of the modulated signal is smaller than a predetermined value to the carrier frequency of the modulated signal. a controller (420, 520) configured to eliminate a carrier component (720, 920) from a modulated signal transmitted from the transmission end by performing a square-sum operation between two adjacent signals in time sampled from the modulated signal; an envelope detector configured to detect an envelope (710, 910) of the modulated signal in which the carrier component (720, 920) is eliminated; an estimator configured to estimate a starting point for a mutual resonance between a source resonator at the transmission end and a target resonator at the reception end based on the detected envelope; and a sampling unit (410, 510) configured to sample the modulated signal so that a sampling time interval between the two adjacent signals sampled satisfies (1/2 + n) ∗ (π/ω), wherein n corresponds to an integer and ω corresponds to an angular frequency, wherein the sampling unit (410, 510) is configured to compare a bandwidth of the modulated signal with a carrier frequency of the modulated signal and to increase the value of n if the bandwidth of the modulated signal is smaller than a predetermined value to the carrier frequency of the modulated signal.
A photometric device, comprising: a subject region discrimination unit (11, 31) configured to discriminate a desired subject region comprising subject corresponding pixels from a non-subject region comprising subject non-corresponding pixels, for each of a plurality of ranging regions within an image on a basis of ranging information, wherein the plurality of ranging regions are dispersedly provided in the image; a subject photometric region setting unit (12, 32, 32a) configured to set a continuous subject photometric region comprising consecutive subject corresponding pixels by performing image signal processing of the desired subject region and the non-subject region to replace selected subject non-corresponding pixels of the non-subject region with subject corresponding pixels to form the continuous subject photometric region, wherein the selected subject non-corresponding pixels are selected in dependence on a number of subject corresponding pixels positioned around each subject non-corresponding pixel in the non-subject region; and a photometric value calculation unit (13, 33, 33a) configured to calculate a photometric value of the desired subject region by using a photometric value of the subject photometric region set by the subject photometric region setting unit. a subject region discrimination unit (11, 31) configured to discriminate a desired subject region comprising subject corresponding pixels from a non-subject region comprising subject non-corresponding pixels, for each of a plurality of ranging regions within an image on a basis of ranging information, wherein the plurality of ranging regions are dispersedly provided in the image; a subject photometric region setting unit (12, 32, 32a) configured to set a continuous subject photometric region comprising consecutive subject corresponding pixels by performing image signal processing of the desired subject region and the non-subject region to replace selected subject non-corresponding pixels of the non-subject region with subject corresponding pixels to form the continuous subject photometric region, wherein the selected subject non-corresponding pixels are selected in dependence on a number of subject corresponding pixels positioned around each subject non-corresponding pixel in the non-subject region; and a photometric value calculation unit (13, 33, 33a) configured to calculate a photometric value of the desired subject region by using a photometric value of the subject photometric region set by the subject photometric region setting unit.
A connector, wherein the connector is connectable to a power conversion device of a power conversion system through a cable and is configured to be detachably attached to a connection port of an electric vehicle equipped with a storage battery so as to form a power supply path between the power conversion device and the storage battery; the connector including: a detection circuit configured to determine whether a malfunction in an in-vehicle switch interposed in part, inside the electric vehicle, of the power supply path has occurred; a notification unit configured to give a notification of a detection result of the detection circuit; and a disconnection detection unit configured to determine whether disconnection in the cable has occurred, the detection circuit including: a measurement unit configured to measure a voltage at a measurement point which is set in part, inside the connector, of the power supply path; a determination unit configured to determine that the malfunction in the in-vehicle switch has occurred, when the voltage measured with the measurement unit exceeds a threshold, and the detection circuit being configured to determine whether the malfunction has occurred, based on a determination result of the determination unit, and the notification unit being configured to give the notification when the disconnection detection unit determines that the disconnection in the cable has occurred and the detection circuit determines that the malfunction in the in-vehicle switch has occurred. a detection circuit configured to determine whether a malfunction in an in-vehicle switch interposed in part, inside the electric vehicle, of the power supply path has occurred; a notification unit configured to give a notification of a detection result of the detection circuit; and a disconnection detection unit configured to determine whether disconnection in the cable has occurred, the detection circuit including: a measurement unit configured to measure a voltage at a measurement point which is set in part, inside the connector, of the power supply path; a determination unit configured to determine that the malfunction in the in-vehicle switch has occurred, when the voltage measured with the measurement unit exceeds a threshold, and the detection circuit being configured to determine whether the malfunction has occurred, based on a determination result of the determination unit, and a measurement unit configured to measure a voltage at a measurement point which is set in part, inside the connector, of the power supply path; a determination unit configured to determine that the malfunction in the in-vehicle switch has occurred, when the voltage measured with the measurement unit exceeds a threshold, and the detection circuit being configured to determine whether the malfunction has occurred, based on a determination result of the determination unit, and the notification unit being configured to give the notification when the disconnection detection unit determines that the disconnection in the cable has occurred and the detection circuit determines that the malfunction in the in-vehicle switch has occurred.
A sensing system that detects touch, comprising: - at least an intermediate layer; - at least an upper layer located on the intermediate layer; - at least one light source located under the intermediate layer; - at least one image sensor located under the intermediate layer; - at least a first fiber optic bundle which comprises a plurality of fiber optic cables positioned such that a tips of which is facing to the light source and other tips of which is facing to the said intermediate layer, and which transmits the light obtained from the light source to the upper layer located on the intermediate layer; - at least a second fiber optic bundle which comprises a plurality of fiber optic cables, a tips of which is paired with at least one pixel of the image sensor and other tips of which is positioned facing to the said intermediate layer, and which transmits the image of the upper layer located on the intermediate layer to the image sensor; - at least one control unit which analyzes the image captured by the image sensor using image processing techniques so as to calculate a force applied on the intermediate layer; and - at least a data link for data communication between the image sensor and the control unit characterized in that the said upper layer comprises a polarized film or a piezochromic material as a material that changes color with force. - at least an intermediate layer; - at least an upper layer located on the intermediate layer; - at least one light source located under the intermediate layer; - at least one image sensor located under the intermediate layer; - at least a first fiber optic bundle which comprises a plurality of fiber optic cables positioned such that a tips of which is facing to the light source and other tips of which is facing to the said intermediate layer, and which transmits the light obtained from the light source to the upper layer located on the intermediate layer; - at least a second fiber optic bundle which comprises a plurality of fiber optic cables, a tips of which is paired with at least one pixel of the image sensor and other tips of which is positioned facing to the said intermediate layer, and which transmits the image of the upper layer located on the intermediate layer to the image sensor; - at least one control unit which analyzes the image captured by the image sensor using image processing techniques so as to calculate a force applied on the intermediate layer; and - at least a data link for data communication between the image sensor and the control unit
An optical measuring apparatus for measuring optical data of specimens (S, SR), which are objects to be measured, dispersed in a sample fluid flowing within a flow passage by irradiating light to said specimens (S, SR), comprising: a plurality of measuring sections each having a light irradiating section (113, 112) for irradiating light to said specimens (S, SR) and a light receiving section (111, 114) for receiving the optical data acquired by irradiating the light to said specimens (S, SR); a flow rate calculating section for calculating values of a flow rate of said specimens (S, SR) based on a difference of measured times of said optical data measured by said plurality of measuring sections with respect to said specimens (S, SR) and a distance between said plurality of measuring sections; a display section; a flow rate graph generating section for generating flow rate graph data in which the values of the flow rate of said specimens (S, SR) calculated by said flow rate calculating section are arrayed in order of calculation in a time-series manner, and for outputting said generated flow rate graph data to the display section, wherein said flow rate graph generating section comprises an area range specifying section for specifying a subset graph area range within said entire flow rate graph data and for acquiring a plurality of values of the flow rate of said specimens (S, SR) only within said specified subset graph area range. a plurality of measuring sections each having a light irradiating section (113, 112) for irradiating light to said specimens (S, SR) and a light receiving section (111, 114) for receiving the optical data acquired by irradiating the light to said specimens (S, SR); a flow rate calculating section for calculating values of a flow rate of said specimens (S, SR) based on a difference of measured times of said optical data measured by said plurality of measuring sections with respect to said specimens (S, SR) and a distance between said plurality of measuring sections; a display section; a flow rate graph generating section for generating flow rate graph data in which the values of the flow rate of said specimens (S, SR) calculated by said flow rate calculating section are arrayed in order of calculation in a time-series manner, and for outputting said generated flow rate graph data to the display section, wherein said flow rate graph generating section comprises an area range specifying section for specifying a subset graph area range within said entire flow rate graph data and for acquiring a plurality of values of the flow rate of said specimens (S, SR) only within said specified subset graph area range.