mhurhangee/ep-ind-claims huggingface dataset:
Lid, comprising a downwardly open lid body and a downwardly open rotary slide, the lid body having an annular flange with a circumferential annular sliding surface and starting from the sliding surface a raised, steep peripheral wall, which merges into an upper flatter top wall, wherein the rotary slide also has a raised, steep peripheral wall, which merges into an upper flatter top wall and wherein the rotary slide rests on the outside of the lid body, characterised in that in the lid body and in the rotary slide each have an opening surface which extends over one part each of the peripheral wall (3, 14) and top wall (2, 13) of the respective body (1,9), wherein the opening surfaces extend at their greatest expansion each around a peripheral region of at least 110° and wherein the closed peripheral region of the rotary slide is greater than the peripheral region, which is occupied by the opening surface in the lid body, so that the rotary slide can completely cover the opening area of the lid body, while overlapping the lid body on its outside on both sides of its opening surface, wherein the rotary slide rests on the circumferential annular sliding surface of the lid body and the perpendicular distance between the underside of the top wall of the lid body and the sliding surface is at least 5 cm.
A wireless power transmitter for detecting placement of a wireless power receiver in a charging region of the wireless power transmitter, comprising: a transmit circuit comprising a transmit coil and configured to wirelessly transmit power via a wireless field applied to the charging region to a receive coil of the receiver; and a detection circuit configured to detect a characteristic of a waveform resulting from the field that is applied or changed between the transmit and receive coils, in response to the receiver being placed in the charging region; characterized in that the characteristic of the waveform is a measurable effect of a transient or short term impedance change pattern within a time interval associated with a charging of a capacitor of the receiver during initial application of the field. a transmit circuit comprising a transmit coil and configured to wirelessly transmit power via a wireless field applied to the charging region to a receive coil of the receiver; and a detection circuit configured to detect a characteristic of a waveform resulting from the field that is applied or changed between the transmit and receive coils, in response to the receiver being placed in the charging region; characterized in that the characteristic of the waveform is a measurable effect of a transient or short term impedance change pattern within a time interval associated with a charging of a capacitor of the receiver during initial application of the field.
An in-vitro method for inhibiting growth and reducing number of contaminating and/or pathogenic agents, the method comprising the step of: exposing the contaminating and/or pathogenic agents with a light source device comprising a light emitting element for emitting a blue light having a wavelength ranging from 435 to 520 nm, having a power density greater than 20 mW/cm 2 and the light source device being configured to provide an effective fluence to the contaminating agent and/or pathogenic agents greater than 11 J/cm 2, wherein the light is sequentially emitted and disrupted according to a frequency comprised between 0,001 and 10 Hz, and the ratio between the duration of light emission and the duration of light disruption being comprised between 45 and 80. exposing the contaminating and/or pathogenic agents with a light source device comprising a light emitting element for emitting a blue light having a wavelength ranging from 435 to 520 nm, having a power density greater than 20 mW/cm 2 and the light source device being configured to provide an effective fluence to the contaminating agent and/or pathogenic agents greater than 11 J/cm 2, wherein the light is sequentially emitted and disrupted according to a frequency comprised between 0,001 and 10 Hz, and the ratio between the duration of light emission and the duration of light disruption being comprised between 45 and 80.
A foreign substance removing device arranged to remove a foreign substance on an object (1, 51), the device comprising: a vibrator (3, 53) comprising the object (1, 51), a first electromechanical energy conversion element (2a, 52) and a second electromechanical energy conversion element (2b, 54); power supplies (5a, 5b) configured to apply alternating voltages to said first and second electromechanical energy conversion elements (2a, 2b), respectively; and a control circuit configured to control the alternating voltages respectively applied by said power supplies (5a, 5b), wherein, in order to concurrently generate a first standing wave and a second standing wave different in order, said control circuit is arranged to set a frequency of the alternating voltages, and to make respective phases of the alternating voltages applied to said first and second electromechanical energy conversion elements different from each others, wherein said first electromechanical energy conversion element (2a, 52) and said second electromechanical energy conversion element (2b, 54) are disposed such that a plurality of nodes of the first standing wave, a plurality of nodes of the second standing wave, and an edge of the object are arranged in a same direction, and wherein the vibrator is adapted so that the object has the edge in a direction in which a wave crest of a vibration obtained by concurrently generating the first standing wave and the second standing wave travels. a vibrator (3, 53) comprising the object (1, 51), a first electromechanical energy conversion element (2a, 52) and a second electromechanical energy conversion element (2b, 54); power supplies (5a, 5b) configured to apply alternating voltages to said first and second electromechanical energy conversion elements (2a, 2b), respectively; and a control circuit configured to control the alternating voltages respectively applied by said power supplies (5a, 5b),
A catalyst composition for the oligomerization of ethylene to produce 1-hexene or 1-octene, the catalyst composition comprising: a chromium compound; an NPNPN ligand of the formula (R 1)(R 2)N-P(R 3)-N(R 4)-P(R 5)-N(R 6)(R 7) wherein R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are each independently hydrogen, halogen, amino, trimethylsilyl, C 1 -C 20 hydrocarbyl, preferably straight-chain or branched C 1 -C 10 alkyl, phenyl, C 6 -C 20 aryl, C 6 -C 20 alkyl-substituted phenyl, optionally wherein the ligand is a cyclic derivative wherein at least one of the P or N atoms of the ligand is a member of a ring system, or a cyclic derivative thereof wherein at least one of the P or N atoms of the NPNPN ligand is a member of a ring system, the ring system being formed from one or more constituent compounds of the ligand by substitution; and an activator or co-catalyst. a chromium compound; an NPNPN ligand of the formula (R 1)(R 2)N-P(R 3)-N(R 4)-P(R 5)-N(R 6)(R 7) wherein R 1, R 2, R 3, R 4, R 5, R 6, and R 7 are each independently hydrogen, halogen, amino, trimethylsilyl, C 1 -C 20 hydrocarbyl, preferably straight-chain or branched C 1 -C 10 alkyl, phenyl, C 6 -C 20 aryl, C 6 -C 20 alkyl-substituted phenyl, optionally wherein the ligand is a cyclic derivative wherein at least one of the P or N atoms of the ligand is a member of a ring system, or a cyclic derivative thereof wherein at least one of the P or N atoms of the NPNPN ligand is a member of a ring system, the ring system being formed from one or more constituent compounds of the ligand by substitution; and an activator or co-catalyst.
A compound that is 1'-{[5-(trifluoromethyl)-2-furyl]methyl}spiro[furo[2,3- f][1,3]benzodioxole-7,3'-indol]-2'(1' H)-one, as a stereoisomer, enantiomer, tautomer thereof or mixtures thereof, or a pharmaceutically acceptable salt thereof.
An ultrasonic flaw detecting apparatus comprising: an array probe comprising a plurality of piezoelectric elements, each of the plurality of piezoelectric elements being configured to transmit and receive an ultrasonic wave to and from an inspection object; an element-group defining circuit configured to select, as an element group, plural consecutive piezoelectric elements from the plurality of piezoelectric elements, set a reference position of the element group based on array arrangement information of the plurality of piezoelectric elements in the element group and based on a weighting value of each of the plurality of piezoelectric elements in the element group, and calculate a propagation path of an ultrasonic beam from the element group based on the reference position and a predetermined refraction angle; a calculator configured to calculate a delay time of each of the plurality of piezoelectric elements in the element group in such a manner that the ultrasonic beam is configured to propagate along the propagation path; a signal receiver configured to receive respective ultrasonic waves received with the plurality of piezoelectric elements as detection signals; and a generator configured to generate at least one composite signal for the ultrasonic beam having the propagation path based on the detection signals and the delay time. an array probe comprising a plurality of piezoelectric elements, each of the plurality of piezoelectric elements being configured to transmit and receive an ultrasonic wave to and from an inspection object; an element-group defining circuit configured to select, as an element group, plural consecutive piezoelectric elements from the plurality of piezoelectric elements, set a reference position of the element group based on array arrangement information of the plurality of piezoelectric elements in the element group and based on a weighting value of each of the plurality of piezoelectric elements in the element group, and calculate a propagation path of an ultrasonic beam from the element group based on the reference position and a predetermined refraction angle; select, as an element group, plural consecutive piezoelectric elements from the plurality of piezoelectric elements, set a reference position of the element group based on array arrangement information of the plurality of piezoelectric elements in the element group and based on a weighting value of each of the plurality of piezoelectric elements in the element group, and calculate a propagation path of an ultrasonic beam from the element group based on the reference position and a predetermined refraction angle; a calculator configured to calculate a delay time of each of the plurality of piezoelectric elements in the element group in such a manner that the ultrasonic beam is configured to propagate along the propagation path; a signal receiver configured to receive respective ultrasonic waves received with the plurality of piezoelectric elements as detection signals; and a generator configured to generate at least one composite signal for the ultrasonic beam having the propagation path based on the detection signals and the delay time.
A device for the treatment and separation of inorganic solid waste, the device comprising: - a grinding chamber for obtaining waste fragments from a group of inorganic waste; - a sieving assembly for the waste fragments generated in said grinding chamber; characterized in that it comprises: - a recognition assembly comprising a recognition plate defining a plurality of analysis seats, each for accommodating a single fragment generated in said grinding chamber, and sensor means configured to recognize the type of waste of said single fragment; - a distribution assembly operatively interposed between said sieving assembly and said recognition assembly and configured to place each single fragment in a corresponding one of said analysis seats of said recognition plate; - and a monitoring and drive unit configured to act on the recognition plate so as to deposit each waste fragment analyzed in a respective collection bin. - a grinding chamber for obtaining waste fragments from a group of inorganic waste; - a sieving assembly for the waste fragments generated in said grinding chamber; characterized in that it comprises: - a recognition assembly comprising a recognition plate defining a plurality of analysis seats, each for accommodating a single fragment generated in said grinding chamber, and sensor means configured to recognize the type of waste of said single fragment; - a distribution assembly operatively interposed between said sieving assembly and said recognition assembly and configured to place each single fragment in a corresponding one of said analysis seats of said recognition plate; - and a monitoring and drive unit configured to act on the recognition plate so as to deposit each waste fragment analyzed in a respective collection bin. - a recognition assembly comprising a recognition plate defining a plurality of analysis seats, each for accommodating a single fragment generated in said grinding chamber, and sensor means configured to recognize the type of waste of said single fragment; - a distribution assembly operatively interposed between said sieving assembly and said recognition assembly and configured to place each single fragment in a corresponding one of said analysis seats of said recognition plate; - and a monitoring and drive unit configured to act on the recognition plate so as to deposit each waste fragment analyzed in a respective collection bin.
A method of inspecting a reticle defining a circuit layer pattern that is used within a corresponding semiconductor process to generate corresponding patterns on a semiconductor wafer, the method comprising: (a) providing a test image of the reticle, the test image having a plurality of test characteristic values; (b) providing a baseline image containing an expected pattern of the test image, the baseline image having a plurality of baseline characteristic values that correspond to the test characteristic values; (c) comparing the test characteristic values to the baseline characteristic values such that a plurality of difference values are calculated for each pair of test and baseline characteristic values; and (d) collecting statistical information characterised in that: the statistical information is collected as the test characteristic values are compared to the baseline characteristic values for the plurality of test characteristic values, wherein the statistical information includes an average or median value of the plurality of test characteristic values or of the difference values. (a) providing a test image of the reticle, the test image having a plurality of test characteristic values; (b) providing a baseline image containing an expected pattern of the test image, the baseline image having a plurality of baseline characteristic values that correspond to the test characteristic values; (c) comparing the test characteristic values to the baseline characteristic values such that a plurality of difference values are calculated for each pair of test and baseline characteristic values; and (d) collecting statistical information the statistical information is collected as the test characteristic values are compared to the baseline characteristic values for the plurality of test characteristic values, wherein the statistical information includes an average or median value of the plurality of test characteristic values or of the difference values.
A filter element, comprising: a substantially cylindrical center tube having a first end, a second end opposite the first end, and a central longitudinal axis; filter media extending circumferentially around and longitudinally along the center tube; a plate connected to the center tube proximate the first end, the plate including an orifice and a cap, the orifice having a pilot feature configured to locate the filter element at a single circumferential position relative to the longitudinal axis, the cap extending from a top surface of the plate toward the second end and having an inner wall configured to mate with a drain plug, wherein the orifice and the cap are disposed radially inward of an inner circumference of the center tube, and at least one of the orifice and the cap extends circumferentially around an additional longitudinal axis spaced radially from the central longitudinal axis of the center tube, and wherein a central longitudinal axis of the orifice and a central longitudinal axis of the cap extend substantially parallel to, and are spaced radially from, the central longitudinal axis of the center tube. a substantially cylindrical center tube having a first end, a second end opposite the first end, and a central longitudinal axis; filter media extending circumferentially around and longitudinally along the center tube; a plate connected to the center tube proximate the first end, the plate including an orifice and a cap, the orifice having a pilot feature configured to locate the filter element at a single circumferential position relative to the longitudinal axis, the cap extending from a top surface of the plate toward the second end and having an inner wall configured to mate with a drain plug, wherein the orifice and the cap are disposed radially inward of an inner circumference of the center tube, and at least one of the orifice and the cap extends circumferentially around an additional longitudinal axis spaced radially from the central longitudinal axis of the center tube, and wherein a central longitudinal axis of the orifice and a central longitudinal axis of the cap extend substantially parallel to, and are spaced radially from, the central longitudinal axis of the center tube. the orifice and the cap are disposed radially inward of an inner circumference of the center tube, and at least one of the orifice and the cap extends circumferentially around an additional longitudinal axis spaced radially from the central longitudinal axis of the center tube, and wherein a central longitudinal axis of the orifice and a central longitudinal axis of the cap extend substantially parallel to, and are spaced radially from, the central longitudinal axis of the center tube.
Method of producing a metallic strip in a continuous casting and rolling process, in which initially a slab is cast in a casting machine and fed to a finishing rolling mill, which is downstream in conveying direction of the strip, and rolled there, wherein in the event of a planned or unplanned interruption in production in the finishing rolling mill the following steps are carried out: a) cutting through the strip at a location between the casting machine and the finishing rolling mill by means of a separating device; b) conveying the part, which is downstream of the cut in conveying direction, of the strip into a strip store by means of a driver, the driver being arranged behind the separating device in conveying direction; and c) repeated cutting through of the strip by means of the separating device and chopping up the part, which is downstream in conveying direction, of the strip by means of the separating device into parts preferably with a defined length; characterised in that the method comprises the further step: d) chopping up the stored strip section into parts preferably with a defined length, wherein in that case return conveying of the strip present in the strip store is carried out by means of the driver, opposite to the conveying direction, to the separating device, where chopping up of the stored strip section by means of the separating device takes place. a) cutting through the strip at a location between the casting machine and the finishing rolling mill by means of a separating device; b) conveying the part, which is downstream of the cut in conveying direction, of the strip into a strip store by means of a driver, the driver being arranged behind the separating device in conveying direction; and c) repeated cutting through of the strip by means of the separating device and chopping up the part, which is downstream in conveying direction, of the strip by means of the separating device into parts preferably with a defined length; d) chopping up the stored strip section into parts preferably with a defined length, wherein in that case return conveying of the strip present in the strip store is carried out by means of the driver, opposite to the conveying direction, to the separating device, where chopping up of the stored strip section by means of the separating device takes place.
A method of fabricating a three dimensional object comprising: forming a build layer comprising an area of solidified build material and an area of non-solidified build material, wherein forming said build layer comprises depositing a layer of non-solidified build material and treating the build material to form the area of solidified build material; characterized by determining an edge profile for the build layer, wherein determining the edge profile comprises measuring a variation in height of the build layer across a transition between the area of solidified build material and the area of non-solidified build material. forming a build layer comprising an area of solidified build material and an area of non-solidified build material, wherein forming said build layer comprises depositing a layer of non-solidified build material and treating the build material to form the area of solidified build material; characterized by determining an edge profile for the build layer, wherein determining the edge profile comprises measuring a variation in height of the build layer across a transition between the area of solidified build material and the area of non-solidified build material.
A computer-implemented method comprising: receiving optical data (201, 813) relating to an object associated with a path, measured in three-dimensional co-ordinates and corresponding to opposite sides of the object; projecting the optical data onto an intermediate curved surface; generating path side data (231, 233, 816) by projecting the projected optical data onto a two-dimensional plane; receiving map data from a map database, wherein the map data includes a plurality of nodes and a plurality of segments (243, 244); rotating, using a processor, the generated path side data based on a segment selected from the plurality of segments (243, 244) in the map data so that the path side data and the map data are substantially coplanar; and outputting the rotated path side data and a portion of the map data including the selected segment. receiving optical data (201, 813) relating to an object associated with a path, measured in three-dimensional co-ordinates and corresponding to opposite sides of the object; projecting the optical data onto an intermediate curved surface; generating path side data (231, 233, 816) by projecting the projected optical data onto a two-dimensional plane; receiving map data from a map database, wherein the map data includes a plurality of nodes and a plurality of segments (243, 244); rotating, using a processor, the generated path side data based on a segment selected from the plurality of segments (243, 244) in the map data so that the path side data and the map data are substantially coplanar; and outputting the rotated path side data and a portion of the map data including the selected segment.