mhurhangee/ep-ind-claims huggingface dataset:
A system comprising: an optical test device comprising: at least one optical filter coupled with a first optical fiber, the at least one first optical filter configured to selectively allow an optical signal on the first optical fiber to pass from the first optical fiber to a second optical fiber; at least one monitoring device coupled with the at least one optical filter, the at least one monitoring device configured to receive from a said optical filter a portion of the optical signal to test the optical signal and/or to detect a signal; a first switch coupled to the first optical fiber the first switch configured to, dependent on an output of a said monitoring device, switch the first portion of the optical signal on the first optical fiber to a third optical fiber for loop-back testing; and a second optical switch interposed between a fourth optical fiber and the third optical fiber, the second optical switch further configured to receive the optical signal from the first switch and couple the optical signal with the third optical fiber for loop-back testing, the system further comprising a network provider device and a customer network device, wherein the first optical fiber and the third optical fiber are coupled with the network provider device, and wherein the second optical fiber and the fourth optical fiber are coupled with the customer network device. at least one optical filter coupled with a first optical fiber, the at least one first optical filter configured to selectively allow an optical signal on the first optical fiber to pass from the first optical fiber to a second optical fiber; at least one monitoring device coupled with the at least one optical filter, the at least one monitoring device configured to receive from a said optical filter a portion of the optical signal to test the optical signal and/or to detect a signal; a first switch coupled to the first optical fiber the first switch configured to, dependent on an output of a said monitoring device, switch the first portion of the optical signal on the first optical fiber to a third optical fiber for loop-back testing; and a second optical switch interposed between a fourth optical fiber and the third optical fiber, the second optical switch further configured to receive the optical signal from the first switch and couple the optical signal with the third optical fiber for loop-back testing, the system further comprising a network provider device and a customer network device, wherein the first optical fiber and the third optical fiber are coupled with the network provider device, and wherein the second optical fiber and the fourth optical fiber are coupled with the customer network device.
A test bench for a reaction engine having a nozzle having a divergent, the bench comprising means for holding the divergent in position capable of holding the divergent so that its axis is vertical, the bench being characterized in that said means (55, 52, 66) are capable of interacting with a downstream portion of the divergent located in the downstream half thereof, in order to limit distortion and/or displacement of this downstream portion.
A powder coating composition for curing at low temperature between 100°C and 150°C which comprises: a. a carboxylic acid functional resin A which is a polyester resin A having carboxylic acid groups, b. a first glycidyl functional resin B1 which is a bisphenol A based epoxy resin having glycidyl groups, c. a second glycidyl functional resin B2 which is a phenol or cresol epoxy novolac resin having glycidyl groups, and d. at least one thermosetting curing catalyst C; which powder coating composition is mixed in dry-blend with a powder coating comprising: e. at least one carboxylic acid group containing polyester resin D, f. at least one bisphenol A based epoxy resin E1, g. optionally at least one phenol or cresol epoxy novolac resin E2, and h. optionally one thermosetting curing catalyst F. a. a carboxylic acid functional resin A which is a polyester resin A having carboxylic acid groups, b. a first glycidyl functional resin B1 which is a bisphenol A based epoxy resin having glycidyl groups, c. a second glycidyl functional resin B2 which is a phenol or cresol epoxy novolac resin having glycidyl groups, and d. at least one thermosetting curing catalyst C; e. at least one carboxylic acid group containing polyester resin D, f. at least one bisphenol A based epoxy resin E1, g. optionally at least one phenol or cresol epoxy novolac resin E2, and h. optionally one thermosetting curing catalyst F.
A data processing device, wherein the data processing device comprises a control unit, a memory, a first non-volatile storage unit, and a second non-volatile storage unit; a data write speed of the first non-volatile storage unit is higher than a data write speed of the second non-volatile storage unit, wherein the memory stores service data that needs to be stored by the data processing device; and the control unit is configured to write first data into the memory, write the first data into the first non-volatile storage unit in a log file form, wherein the log file of the first data records the changed data of the first data, and write, into the second non-volatile storage unit, the log file of the first data written into the first non-volatile storage unit.
A composition comprising (a) nanoparticles comprising a poorly water soluble pharmaceutical agent and albumin, (b) an edetate, and (c) a sugar, wherein significant microbial growth is inhibited in the composition.
A compressor wheel for a turbocharger, comprising: a hub portion defining a rotational axis; and a plurality of blades (203, 204) extending radially outward from the hub portion, wherein each blade of the plurality of blades comprises a leading edge, the leading edges of each blade of the plurality of blades forming an inducer portion of a compressor wheel, wherein each blade of the plurality of blades comprises a trailing edge, the trailing edges of each blade of the plurality of blades forming an exducer portion of the compressor wheel, the inducer portion being positioned longitudinally forward from the exducer portion along a rotational axis with respect to a flow of air along the compressor wheel, wherein the hub portion and the plurality of blades comprise a substrate metal, wherein the substrate metal of the hub portion and the plurality of blades has coated directly thereon a first coating layer comprising electroless nickel-phosphorous, characterised in that the first coating layer has coated directly thereon a second coating layer comprising hard chrome, and wherein the second coating layer has a thickness that is greatest at the inducer portion, the thickness of the second coating layer decreasing rearward towards the exducer portion such that the thickness of the second coating layer is about zero microns at or longitudinally forward of the trailing edges of each blade of the plurality of blades. a hub portion defining a rotational axis; and a plurality of blades (203, 204) extending radially outward from the hub portion, wherein each blade of the plurality of blades comprises a leading edge, the leading edges of each blade of the plurality of blades forming an inducer portion of a compressor wheel, wherein each blade of the plurality of blades comprises a trailing edge, the trailing edges of each blade of the plurality of blades forming an exducer portion of the compressor wheel, the inducer portion being positioned longitudinally forward from the exducer portion along a rotational axis with respect to a flow of air along the compressor wheel, wherein the hub portion and the plurality of blades comprise a substrate metal, wherein the substrate metal of the hub portion and the plurality of blades has coated directly thereon a first coating layer comprising electroless nickel-phosphorous, characterised in that the first coating layer has coated directly thereon a second coating layer comprising hard chrome, and wherein the second coating layer has a thickness that is greatest at the inducer portion, the thickness of the second coating layer decreasing rearward towards the exducer portion such that the thickness of the second coating layer is about zero microns at or longitudinally forward of the trailing edges of each blade of the plurality of blades.
Method for operating a terminal in a wireless communication network, the terminal being adapted for dual connectivity, the method comprising determining a total configured maximum output power P CMAX of the terminal based on a synchronization level, the terminal being connected to a master network node via a master cell group, MCG, and to a secondary network node via a secondary cell group, SCG, characterised in that, when a subframe p of the MCG overlaps with a subframe q of the SCG such that the first slot of subframe p overlaps with the first slot of subframe q, and subframe p leads in time compared to the subframe q, subframe p of the MCG is defined as reference subframe, and P CMAX for the reference subframe is determined considering the subframes q-1 and q of the SCG.
A cartridge for an aerosol provision system comprising the cartridge and a control unit, wherein the cartridge comprises: a reservoir within a housing part containing liquid for aerosolising; an air channel extending from an air inlet for the cartridge to an outlet via an aerosol generation region; a heating element for heating liquid from the reservoir to generate aerosol in the aerosol generation region; a liquid transport element for transporting liquid from the reservoir to the heating element; and a valve located in the air channel upstream of the aerosol generating region; wherein the cartridge is configured such that air passing through the air channel is configured to pass from the air inlet, past the valve, into the aerosol generating region, and then out from the aerosol outlet; characterised in that the valve projects inside the aerosol generating region and is configured to inhibit aerosol generated inside the aerosol generating region from flowing through the air channel back towards the air inlet. a reservoir within a housing part containing liquid for aerosolising; an air channel extending from an air inlet for the cartridge to an outlet via an aerosol generation region; a heating element for heating liquid from the reservoir to generate aerosol in the aerosol generation region; a liquid transport element for transporting liquid from the reservoir to the heating element; and a valve located in the air channel upstream of the aerosol generating region; wherein the cartridge is configured such that air passing through the air channel is configured to pass from the air inlet, past the valve, into the aerosol generating region, and then out from the aerosol outlet; characterised in that the valve projects inside the aerosol generating region and is configured to inhibit aerosol generated inside the aerosol generating region from flowing through the air channel back towards the air inlet.
A method for wireless communication, comprising: receiving, by a first wireless device, a device-to-device link measurement configuration, wherein the measurement configuration includes a peer UE ID, a sidelink frequency, and a Layer 3, L3, filtering coefficient; and performing, by the first wireless device, a device-to-device link measurement procedure based on the device-to-device link measurement configuration. receiving, by a first wireless device, a device-to-device link measurement configuration, wherein the measurement configuration includes a peer UE ID, a sidelink frequency, and a Layer 3, L3, filtering coefficient; and performing, by the first wireless device, a device-to-device link measurement procedure based on the device-to-device link measurement configuration.
A composition for use in the treatment of osteolysis due to wear debris at a site of an artificial joint implant in a patient, the composition comprising a solution rich in interleukin-1 receptor antagonist, wherein the interleukin-1 receptor antagonist is autologous to the patient, wherein the solution rich in interleukin-1 receptor antagonist is made by: a. contacting a liquid volume with polyacrylamide beads, wherein the liquid volume comprises a member selected from the group consisting of adipose tissue, adipocytes, whole blood, platelet rich plasma, white blood cells, and combinations thereof; and b. separating at least a portion of the liquid volume from the polyacrylamide beads to obtain a solution rich in interleukin-1 receptor antagonist, wherein the solution comprises interleukin-1 receptor antagonist at a concentration of at least 10,000 pg/mL, preferably from 30,000 pg/mL and can be up to 108,000 pg/mL. a. contacting a liquid volume with polyacrylamide beads, wherein the liquid volume comprises a member selected from the group consisting of adipose tissue, adipocytes, whole blood, platelet rich plasma, white blood cells, and combinations thereof; and b. separating at least a portion of the liquid volume from the polyacrylamide beads to obtain a solution rich in interleukin-1 receptor antagonist,
Biodegradable dendritic structure of formula I: wherein n is between 40-350; x is between 0-4; R 1 is selected from NH, O, or S; R 2 is selected from z is between 1-9; R 3 is R 2 with the proviso that at a dendritic structure end R 3 is wherein A is selected from an amine group, an amide group, an azide group, a hydroxyl group, a thiol group, a carboxyl group, an isocyanate, an alkene, or an alkyne group; y is between 1-9; R 4 or R 5 is a C 1 -C 6 alkyl chain; A, R 1, R 2, R 3, R 4, R 5, n, x, y and z are independently selected from each other. n is between 40-350; x is between 0-4; R 1 is selected from NH, O, or S; R 2 is selected from z is between 1-9; R 3 is R 2 with the proviso that at a dendritic structure end R 3 is wherein A is selected from an amine group, an amide group, an azide group, a hydroxyl group, a thiol group, a carboxyl group, an isocyanate, an alkene, or an alkyne group; y is between 1-9; R 4 or R 5 is a C 1 -C 6 alkyl chain; A, R 1, R 2, R 3, R 4, R 5, n, x, y and z are independently selected from each other.
Method for manufacturing a biometric imaging module, the method comprising: providing a carrier tape; forming a sensor opening and at least one contact pad opening in the carrier tape, wherein the sensor opening is adjacent to and separate from the contact pad opening; and from a top side of the carrier tape, arranging a biometric sensor on the carrier tape such that a body of the biometric sensor is arranged in the sensor opening and a conductive contact pad of the biometric sensor is aligned with and accessible through the contact pad opening from a backside of the carrier tape, and such that a sensing surface of the biometric sensor is facing in the same direction as the top side of the carrier tape. providing a carrier tape; forming a sensor opening and at least one contact pad opening in the carrier tape, wherein the sensor opening is adjacent to and separate from the contact pad opening; and from a top side of the carrier tape, arranging a biometric sensor on the carrier tape such that a body of the biometric sensor is arranged in the sensor opening and a conductive contact pad of the biometric sensor is aligned with and accessible through the contact pad opening from a backside of the carrier tape, and such that a sensing surface of the biometric sensor is facing in the same direction as the top side of the carrier tape.
A display device of a mobile crane, the display device comprising: an imaging section attached in the vicinity of an end of a boom; a display section that displays an image picked up by the imaging section; characterised by a communication section for exchanging information with another mobile crane; and an image controller for superimposing and displaying on the image of the display section information about the other mobile crane received from the other mobile crane. an imaging section attached in the vicinity of an end of a boom; a display section that displays an image picked up by the imaging section; characterised by a communication section for exchanging information with another mobile crane; and an image controller for superimposing and displaying on the image of the display section information about the other mobile crane received from the other mobile crane.
Blow moulding arrangement with a blow mould and at least one adapter element for forming plastic parisons into plastic containers, wherein the blow mould comprises a bottom part, a first side part and a second side part, wherein, in the assembled state of the blow mould, this bottom part together with the side parts (4, 6) form a hollow space, within which the plastic parisons can be expanded into the plastic containers, wherein at least one element of the blow mould has a first fastening section to which a first adapter element can be attached, wherein this fastening section is designed in such a way that this adapter element can be releasably attached to this fastening section, characterised in that this fastening section is formed in such a way that the blow mould can be arranged both with this adapter element and also without this adapter element on a forming device for forming plastic parisons into form plastic containers, wherein the blow mould further has one or several fastening devices for fastening the side parts (4, 6) and/or the bottom part on a site part carrier and/or a bottom part carrier, and wherein the blow mould is designed for a manual change of the blow mould without the adapter element and for an automatic change of the blow mould with the adapter element. wherein at least one element of the blow mould has a first fastening section to which a first adapter element can be attached, wherein this fastening section is designed in such a way that this adapter element can be releasably attached to this fastening section, characterised in that this fastening section is formed in such a way that the blow mould can be arranged both with this adapter element and also without this adapter element on a forming device for forming plastic parisons into form plastic containers, wherein the blow mould further has one or several fastening devices for fastening the side parts (4, 6) and/or the bottom part on a site part carrier and/or a bottom part carrier, and wherein the blow mould is designed for a manual change of the blow mould without the adapter element and for an automatic change of the blow mould with the adapter element.
Bar, in particular for a sandwich panel, comprising at least the following components: i. a bar base, ii. at least one tube segment, which comprises a wall that is delimited in the circumferential direction of the respective tube segment by at least two, in particular exactly two, cut ends (8, 9), wherein the wall is delimited in the longitudinal extension direction of the tube segment by two cut surfaces (6, 7) and wherein the at least one tube segment comprises a segment height (h), respectively, which represents the maximum extension of the respective tube segment perpendicular to the bar base, and wherein the at least one tube segment comprises a segment depth (d) running in the longitudinal extension direction, and wherein the bar comprises a bar depth which runs in the longitudinal extension direction of the at least one tube segment, characterized in that the at least one tube segment is mechanically connected to the bar base by means of the at least two cut ends (8, 9), respectively, wherein the bar depth is equal to the segment depth (d) of the at least one tube segment, wherein the at least one tube segment consists of a wood material or comprises a wood material. i. a bar base, ii. at least one tube segment, which comprises a wall that is delimited in the circumferential direction of the respective tube segment by at least two, in particular exactly two, cut ends (8, 9), wherein the wall is delimited in the longitudinal extension direction of the tube segment by two cut surfaces (6, 7) and wherein the at least one tube segment comprises a segment height (h), respectively, which represents the maximum extension of the respective tube segment perpendicular to the bar base, and wherein the at least one tube segment comprises a segment depth (d) running in the longitudinal extension direction, and wherein the bar comprises a bar depth which runs in the longitudinal extension direction of the at least one tube segment, characterized in that the at least one tube segment is mechanically connected to the bar base by means of the at least two cut ends (8, 9), respectively, wherein the bar depth is equal to the segment depth (d) of the at least one tube segment, wherein the at least one tube segment consists of a wood material or comprises a wood material.
A substance detection and identification device comprising a housing, a sample inlet in said housing for passage of a sample material therethrough, a sensing unit located in said housing and comprising an outlet port and an array of sensing elements, each sensing element configured and operable to interact with sample material in the vicinity thereof for detecting one or more specific substances and generating sensing data indicative thereof, a sample path in the housing for flowing the sample material between the sample inlet and the sensing unit, a pressure unit configured for drawing the sample material to the sensing unit, and a heating unit configured to heat said sensing elements, characterized in that: said sensing unit having a vessel comprising the sensing elements arranged in a circular array around an axis and a circular inner array of apertures arranged in alignment with said circular array sensing of elements configured to provide concurrent and uniform distribution of the sample material drawn to the sensing elements; and the heating unit configured and operable to heat said sensing elements to physically separate between the sample material and said sensing elements for discharge of the sample material separated from the sensing elements through the outlet port. said sensing unit having a vessel comprising the sensing elements arranged in a circular array around an axis and a circular inner array of apertures arranged in alignment with said circular array sensing of elements configured to provide concurrent and uniform distribution of the sample material drawn to the sensing elements; and the heating unit configured and operable to heat said sensing elements to physically separate between the sample material and said sensing elements for discharge of the sample material separated from the sensing elements through the outlet port.
A zoom lens comprising, in order from an object side to an image side: a first lens group; a second lens group; a third lens group; a fourth lens group; and a fifth lens group; wherein the zoom lens satisfies the following conditions: − 2.28 ≤ f 2 / f w ′ ≤ − 1.08 0.15 / mm ≤ TTL / BFL ∗ f w ′ ≤ 0.45 / mm and TTL ≤ 160 mm wherein f 2 denotes a focal length of the second lens group, f w' denotes a focal length of the zoom lens at a wide angle end, TTL denotes a total track length of the zoom lens, and BFL denotes a back focal length of the zoom lens. a first lens group; a second lens group; a third lens group; a fourth lens group; and a fifth lens group; wherein the zoom lens satisfies the following conditions: − 2.28 ≤ f 2 / f w ′ ≤ − 1.08 0.15 / mm ≤ TTL / BFL ∗ f w ′ ≤ 0.45 / mm and TTL ≤ 160 mm wherein f 2 denotes a focal length of the second lens group, f w' denotes a focal length of the zoom lens at a wide angle end, TTL denotes a total track length of the zoom lens, and BFL denotes a back focal length of the zoom lens. wherein the zoom lens satisfies the following conditions: − 2.28 ≤ f 2 / f w ′ ≤ − 1.08 0.15 / mm ≤ TTL / BFL ∗ f w ′ ≤ 0.45 / mm and TTL ≤ 160 mm wherein f 2 denotes a focal length of the second lens group, f w' denotes a focal length of the zoom lens at a wide angle end, TTL denotes a total track length of the zoom lens, and BFL denotes a back focal length of the zoom lens.