mhurhangee/ep-ind-claims huggingface dataset:
An optical system, comprising: a tunable filter having a filtering spectrum with an adjustable peak wavelength and increasing attenuation at wavelengths away from the adjustable peak wavelength, the tunable filter configured to receive a light from a first input, having a first wavelength, and spectrally filter the first input light to form a light at a first output; a detector configured to detect at least a fraction of the first output light; and circuitry coupled to the detector and the tunable filter, the circuitry being configured to tune the tunable filter to maximize a signal from the detector and adjust the peak wavelength to match the first wavelength, the tunable filter further configured to receive a light from a second input and spectrally filter the second input light to form a light at a second output, the second output light being spectrally filtered with a peak at the first wavelength and increasing attenuation at wavelengths away from the first wavelength. a tunable filter having a filtering spectrum with an adjustable peak wavelength and increasing attenuation at wavelengths away from the adjustable peak wavelength, the tunable filter configured to receive a light from a first input, having a first wavelength, and spectrally filter the first input light to form a light at a first output; a detector configured to detect at least a fraction of the first output light; and circuitry coupled to the detector and the tunable filter, the circuitry being configured to tune the tunable filter to maximize a signal from the detector and adjust the peak wavelength to match the first wavelength, the tunable filter further configured to receive a light from a second input and spectrally filter the second input light to form a light at a second output, the second output light being spectrally filtered with a peak at the first wavelength and increasing attenuation at wavelengths away from the first wavelength.
A substrate suitable for incorporation into an absorbent article for monitoring and detecting the presence of wetness therein and/or risk of exudate leakage therefrom, said substrate comprising a conductive pattern disposed on a first surface capable of being arranged proximal to a body facing side of the absorbent article, wherein said conductive pattern can be brought in electrical communication with a clip-on data processing module, said conductive pattern comprising a plurality of connection tracks (1',2',3',4',5'); and a plurality of sensing tracks connected to said connection tracks (1',2',3',4',5'), characterized in that the conductive pattern is configured in a manner that addressing multiple combinations of said plurality of connection tracks (1',2',3',4',5') with corresponding terminals (1,2,3,4,5) of the clip-on data processing module result in multiple electrical circuit configurations for measuring resistance, impedance and/or capacitance therethrough, and wherein the plurality of circuits defined by the conductive pattern comprise circuits with an open configuration, and wherein the conductive pattern extends symmetrically in a direction substantially parallel to the length of the substrate and a direction substantially perpendicular thereto, defining a plurality of independent electrical circuits, and wherein combinations of said electrical circuits are in electrical communication by selectively addressing at least two of the connection tracks (1',2',3',4',5') with at least two corresponding terminals (1,2,3,4,5) of the clip-on data processing module, and wherein resistance, impedance and/or capacitance measured through said plurality of circuits determines the wetness through corresponding sensing zones that are further directly related to body position of the wearer, and wherein the substrate comprises at least one insulating layer adhered thereto and sized to cover at least a portion of the conductive pattern, said at least one insulating layer adapted to provide a seal and/or barrier to liquid and/or exudates from coming into contact with said portion of the conductive pattern, and wherein the sensing tracks remain exposed to liquids and/or exudates and are not covered by said at least one insulating layer.
A method for forming a semiconductor structure, comprising: providing a substrate, wherein a sacrificial layer and an active layer located on the sacrificial layer are formed on the substrate; patterning the active layer and the sacrificial layer to form a groove, wherein the active layer and the sacrificial layer are divided into a plurality of active regions by the groove; filling the groove to form a first isolation layer surrounding the active regions; patterning the active layer in the active regions to form a plurality of separate active patterns, wherein at least one of side walls or ends of the active patterns is connected to the first isolation layer; removing the sacrificial layer along an opening located between two adjacent ones of the active patterns to form a gap between a bottom of the active patterns and the substrate; and forming a bit line in the gap, characterized in that the active patterns are active lines arranged in parallel and extending along a first direction (y), and at least one end side wall of the active lines is connected to the first isolation layer, wherein the method, after forming the bit lines, further comprises: patterning the active lines to form a plurality of active pillars arrayed along the first direction (y) and a second direction (x). providing a substrate, wherein a sacrificial layer and an active layer located on the sacrificial layer are formed on the substrate; patterning the active layer and the sacrificial layer to form a groove, wherein the active layer and the sacrificial layer are divided into a plurality of active regions by the groove; filling the groove to form a first isolation layer surrounding the active regions; patterning the active layer in the active regions to form a plurality of separate active patterns, wherein at least one of side walls or ends of the active patterns is connected to the first isolation layer; removing the sacrificial layer along an opening located between two adjacent ones of the active patterns to form a gap between a bottom of the active patterns and the substrate; and forming a bit line in the gap, characterized in that the active patterns are active lines arranged in parallel and extending along a first direction (y), and at least one end side wall of the active lines is connected to the first isolation layer, wherein the method, after forming the bit lines, further comprises: patterning the active lines to form a plurality of active pillars arrayed along the first direction (y) and a second direction (x).
An apparatus comprising: a moveable platform; a housing connected to the moveable platform; a power supply located inside of the housing; an x-ray tube located inside of the housing, the x-ray tube comprising a vacuum tube having a first window and a second window; a rotatable wheel having a number of apertures, wherein the rotatable wheel is connected to the moveable platform and is configured to rotate while the x-ray tube generates an x-ray beam such that the number of apertures allows at least a portion of the x-ray beam to pass through the rotatable wheel; and a detector configured to detect a backscatter in response to the at least the portion of the x-ray beam encountering an object; and wherein: the x-ray beam is a first x-ray beam that passes through the first window of the vacuum tube of the x-ray tube and wherein the x-ray tube is configured to generate a second x-ray beam that passes through the second window of the vacuum tube, the first window arranged so that, in use, the first x-ray beam travels towards a first location on a surface of the object and the second window arranged so that, in use, the second x-ray beam travels towards a second location on the surface of the object. a moveable platform; a housing connected to the moveable platform; a power supply located inside of the housing; an x-ray tube located inside of the housing, the x-ray tube comprising a vacuum tube having a first window and a second window; a rotatable wheel having a number of apertures, wherein the rotatable wheel is connected to the moveable platform and is configured to rotate while the x-ray tube generates an x-ray beam such that the number of apertures allows at least a portion of the x-ray beam to pass through the rotatable wheel; and a detector configured to detect a backscatter in response to the at least the portion of the x-ray beam encountering an object; and wherein: the x-ray beam is a first x-ray beam that passes through the first window of the vacuum tube of the x-ray tube and wherein the x-ray tube is configured to generate a second x-ray beam that passes through the second window of the vacuum tube, the first window arranged so that, in use, the first x-ray beam travels towards a first location on a surface of the object and the second window arranged so that, in use, the second x-ray beam travels towards a second location on the surface of the object.
A method for producing a locking system at edges of building panels (1, 1'), said locking system comprising a tongue, at first edge of a first building panel, cooperating with a tongue groove, at a second edge of an adjacent second building panel, for vertical locking of the building panels, wherein the method comprises the steps of: • forming material of the first edge to obtain at least parts of the outer shape of the tongue in a production line comprising mechanical cutting devices; • forming an insertion groove at the first edge in said production line, wherein said insertion groove is sidewardly open and extends in the horizontal direction; and • displacing the tongue in said production line at least partly into the insertion groove. • forming material of the first edge to obtain at least parts of the outer shape of the tongue in a production line comprising mechanical cutting devices; • forming an insertion groove at the first edge in said production line, wherein said insertion groove is sidewardly open and extends in the horizontal direction; and • displacing the tongue in said production line at least partly into the insertion groove.
An electrophoretic display, comprising electrodes and cells containing at least one kind of ionic, monochrome particles, a non-polar liquid and a dispersant, the dispersant being selected from the group consisting of polyacrylates, polyesters, polyurethanes and copolymers, characterized in that the ionic, monochrome particles of at least one kind are aggregates consisting of a carbon containing pigment and an anionic pigment or anionic pigment derivative.
A method for wireless communication performed by a user equipment, the method comprising the steps of: receiving protocol data units, PDUs, at a network layer from one or more transmitting nodes using a link associated with each respective transmitting node; detecting one or more missing PDUs based, at least in part, on sequence numbers of the received PDUs; starting a timer based on the detection of the one or more missing PDUs, characterized by: in response to expiration of the timer, and without receiving the one or more missing PDUs before the expiration of the timer, notifying a lower network layer that the one or more missing PDUs are received. receiving protocol data units, PDUs, at a network layer from one or more transmitting nodes using a link associated with each respective transmitting node; detecting one or more missing PDUs based, at least in part, on sequence numbers of the received PDUs; starting a timer based on the detection of the one or more missing PDUs, characterized by: in response to expiration of the timer, and without receiving the one or more missing PDUs before the expiration of the timer, notifying a lower network layer that the one or more missing PDUs are received.
Thermodynamic cycle process system, comprising a, to an AC voltage source (15a, 15b) connectable, central supply electronics (5a, 5b) having an EMC filter (9a, 9b) and an input current limiter (8a, 8b), a central regulator unit which is connected to a central supply electronics (5a, 5b), wherein the central supply electronics (5a, 5b) is producing the supply voltage required for the central regulator unit, at least two heat exchangers, an electronically commutated compressor and a combination of electronic components comprising electronically commutated fans, electronic regulator valves and/or electronically commutated pumps, characterised in that the electronic components (1, 2, 3, 4) each have an integrated power electronics (6a, 6b, 6c, 6d) with a driver, a power output stage as an IGBT switch and a current sensing resistor, which produces the PWM operating voltage required for the electronic components (1, 2, 3, 4), and wherein the central supply electronics (5a, 5b) is connected to the individual integrated power electronics (6a, 6b, 6c, 6d) of the electronic components (1, 2, 3, 4) and produces the supply voltages required for the respective power electronics (6a, 6b, 6c, 6d), wherein the central supply electronics (5a, 5b) comprises an intermediate circuit for providing a first supply voltage and two different DC/DC voltage transformers (11a, 16) for providing a second and a third supply voltage, and wherein each electronic component (1, 2, 3, 4) comprises an integrated control unit (7a, 7b, 7c, 7d) and the central regulator unit is connected to the integrated control units (7a, 7b, 7c, 7d) of the electronic components (1, 2, 3, 4).
A method for receiving transmissions on an enhanced random-access channel, RACH, from a device such that an initial access burst is received in a single time slot from the device comprising: receiving the initial access burst from the device on an enhanced random access channel, RACH, the initial access burst sent by the device using a timing advance determined at the device, wherein the initial access burst includes at least one of an identifier or user data, the enhanced RACH being a contention-based uplink-only channel requiring use of timing advances for transmissions thereon. receiving the initial access burst from the device on an enhanced random access channel, RACH, the initial access burst sent by the device using a timing advance determined at the device, wherein the initial access burst includes at least one of an identifier or user data, the enhanced RACH being a contention-based uplink-only channel requiring use of timing advances for transmissions thereon.
A method of producing a heterogeneously dense continuous one-piece insoluble reticulated foam material, consisting of a low temperature alloy selected from aluminum, copper, zinc and other refractory materials, and comprising: cells ranging in size and having a maximum diameter of 4mm and a minimum diameter of 0.35mm; ligaments having a width of 0.025mm to 0.7mm; pores formed by the ligaments; and a relative density gradient within the foam material ranging from at least 3% at a least dense point to 85% dense at a most dense point; wherein the relative density gradient is continuous across the one-piece insoluble reticulated foam material; and wherein the continuous gradient in relative density is formed from the collapsing of the cells; wherein the method comprises the steps of: (a) placing a single piece of homogenously dense insoluble reticulated foam material of less than 6mm thick in a press and die; (b) applying different amounts of pressure to the press ranging from 6,895 kPa to 275,790 kPa (1,000 psi to 40,000 psi) to create a heterogeneous relative density gradient within the single piece of reticulated foam material. comprising: cells ranging in size and having a maximum diameter of 4mm and a minimum diameter of 0.35mm; ligaments having a width of 0.025mm to 0.7mm; pores formed by the ligaments; and a relative density gradient within the foam material ranging from at least 3% at a least dense point to 85% dense at a most dense point; wherein the relative density gradient is continuous across the one-piece insoluble reticulated foam material; and wherein the continuous gradient in relative density is formed from the collapsing of the cells; wherein the method comprises the steps of: (a) placing a single piece of homogenously dense insoluble reticulated foam material of less than 6mm thick in a press and die; (b) applying different amounts of pressure to the press ranging from 6,895 kPa to 275,790 kPa (1,000 psi to 40,000 psi) to create a heterogeneous relative density gradient within the single piece of reticulated foam material. (a) placing a single piece of homogenously dense insoluble reticulated foam material of less than 6mm thick in a press and die; (b) applying different amounts of pressure to the press ranging from 6,895 kPa to 275,790 kPa (1,000 psi to 40,000 psi) to create a heterogeneous relative density gradient within the single piece of reticulated foam material.
An isolated or purified antibody that specifically binds to an epitope in an amino acid sequence of OX40 extracellular domain, wherein the antibody is produced by a hybridoma cell line denoted as 112V8, deposited as ATCC No. PTA-7219, or 112Y131, deposited as ATCC No. PTA-7218, or 112Y55, deposited as ATCC No. PTA-7220, or a fragment thereof selected from Fab, Fab', F(ab') 2, Fv, Fd, single-chain Fvs (scFv), or disulfide-linked Fvs (sdFv). 112V8, deposited as ATCC No. PTA-7219, or 112Y131, deposited as ATCC No. PTA-7218, or 112Y55, deposited as ATCC No. PTA-7220,
An adjuvant composition, comprising, based on 100 parts by weight of the composition: (a) from 15 to 100 parts by weight of a combined amount of one or more betaine surfactants and one or more glycoside surfactants, comprising, based on 100 parts by weight of the combined amount: (i) from 75 to less than 100 parts by weight of the one or more betaine surfactants, and (ii) from greater than 0 to 25 parts by weight of one or more glycoside surfactants, and (b) from 0 to 85 parts by weight water, wherein: the betaine surfactant comprises one or more compounds according to formula: wherein: R is methylene, R 1 and R 2 are each independently (C 1 -C 6)alkyl, and R 3 is (C 6 -C 30)alkyl, and the glycoside surfactant comprises one or more compounds according to formula: R 4 O(R 5) m R 6 (II wherein: R 4 is (C 8 -C 22)alkyl, each R 5 and R 6 is a glucose residue, and m is an integer of from 0 to 5. (a) from 15 to 100 parts by weight of a combined amount of one or more betaine surfactants and one or more glycoside surfactants, comprising, based on 100 parts by weight of the combined amount: (i) from 75 to less than 100 parts by weight of the one or more betaine surfactants, and (ii) from greater than 0 to 25 parts by weight of one or more glycoside surfactants, and (i) from 75 to less than 100 parts by weight of the one or more betaine surfactants, and (ii) from greater than 0 to 25 parts by weight of one or more glycoside surfactants, and (b) from 0 to 85 parts by weight water, wherein: the betaine surfactant comprises one or more compounds according to formula: wherein: R is methylene, R 1 and R 2 are each independently (C 1 -C 6)alkyl, and R 3 is (C 6 -C 30)alkyl, and the glycoside surfactant comprises one or more compounds according to formula: R 4 O(R 5) m R 6 (II wherein: R 4 is (C 8 -C 22)alkyl, each R 5 and R 6 is a glucose residue, and m is an integer of from 0 to 5. the betaine surfactant comprises one or more compounds according to formula: wherein: R is methylene, R 1 and R 2 are each independently (C 1 -C 6)alkyl, and R 3 is (C 6 -C 30)alkyl, and R is methylene, R 1 and R 2 are each independently (C 1 -C 6)alkyl, and R 3 is (C 6 -C 30)alkyl, and the glycoside surfactant comprises one or more compounds according to formula: R 4 O(R 5) m R 6 (II wherein: R 4 is (C 8 -C 22)alkyl, each R 5 and R 6 is a glucose residue, and m is an integer of from 0 to 5. R 4 is (C 8 -C 22)alkyl, each R 5 and R 6 is a glucose residue, and m is an integer of from 0 to 5.
A method to be executed by a server, for supporting calling of call-target persons within a list in which candidates for a person who is to handle a failure are defined as call-target persons, upon occurrence of a failure, the method comprising: a step of transmitting notification content to a client of a call-target person selected from the list via the Internet to call the client, the notification content including a maximum calling period during which the client is caused to continuously ring or vibrate; and a step of receiving a response result indicating a result of operation in response to the calling from the client of the selected call-target person. a step of transmitting notification content to a client of a call-target person selected from the list via the Internet to call the client, the notification content including a maximum calling period during which the client is caused to continuously ring or vibrate; and a step of receiving a response result indicating a result of operation in response to the calling from the client of the selected call-target person.
A switched reluctance motor comprising: a sealed rotor (100, 1305, 1700, 1715) with at least one salient rotor pole (105, 1515, 1710); wherein the sealed rotor (100, 1305, 1700) is environmentally sealed from a stator by an isolation wall disposed between the sealed rotor (100, 1305, 1700) and stator; and the stator comprises at least one salient stator pole (1015, 1315, 1510) that includes end members (1025, 1030) connected by a connecting member where the stator pole end members (1025, 1030) extend radially toward the sealed rotor (100, 1305, 1700) from the connecting member, the stator is sealed from the at least one salient rotor pole (105, 1515, 1710) by the isolation wall and the stator pole end members (1025, 1030) extend radially toward the sealed rotor (100, 1305, 1700) so as to axially overlap, in an axial cross-section, at least axially opposite sides of a portion of the at least one salient rotor pole (105, 1515, 1710), the at least one salient stator pole (1015, 1315, 1510) having an excitation winding associated therewith and interacting magnetically with the at least one salient rotor pole (105, 1515, 1710) through the overlap between the at least one salient stator pole (1015, 1315, 1510) and axially opposite sides of the portion of the at least one salient rotor pole (105, 1515, 1710) to effect an axial flux circuit between the at least one salient stator pole (1015, 1315, 1510) and the at least one salient rotor pole (105, 1515, 1710). a sealed rotor (100, 1305, 1700, 1715) with at least one salient rotor pole (105, 1515, 1710); wherein the sealed rotor (100, 1305, 1700) is environmentally sealed from a stator by an isolation wall disposed between the sealed rotor (100, 1305, 1700) and stator; and the stator comprises at least one salient stator pole (1015, 1315, 1510) that includes end members (1025, 1030) connected by a connecting member where the stator pole end members (1025, 1030) extend radially toward the sealed rotor (100, 1305, 1700) from the connecting member, the stator is sealed from the at least one salient rotor pole (105, 1515, 1710) by the isolation wall and the stator pole end members (1025, 1030) extend radially toward the sealed rotor (100, 1305, 1700) so as to axially overlap, in an axial cross-section, at least axially opposite sides of a portion of the at least one salient rotor pole (105, 1515, 1710), the at least one salient stator pole (1015, 1315, 1510) having an excitation winding associated therewith and interacting magnetically with the at least one salient rotor pole (105, 1515, 1710) through the overlap between the at least one salient stator pole (1015, 1315, 1510) and axially opposite sides of the portion of the at least one salient rotor pole (105, 1515, 1710) to effect an axial flux circuit between the at least one salient stator pole (1015, 1315, 1510) and the at least one salient rotor pole (105, 1515, 1710).