mhurhangee/ep-ind-claims huggingface dataset:
A low profile temperature transducer having a working surface for placement against a body surface to pick up thermal emissions at depth and produce a corresponding first transducer output, characterized by said transducer comprising a flat laminate composed of alternating conductive (1, 3, 5, 7, 9) and dielectric (2, 4, 6, 8) layers which define at least one slotline antenna having at least one slot formed in at least one conductive layer (3, 7) adapted to receive thermal radiation emanating from said body surface and produce a corresponding antenna output, a feed network having a characteristic impedance connected to said first transducer output and a slotline-to-stripline transition (5a, 5b, 38) connected between the at least one antenna and the feed network, said transition (5a, 5b, 38) providing a match between the impedance at the at least one antenna and said characteristic impedance, wherein - a first metal layer at the working surface defines an antenna aperture; - a second metal layer beyond the first metal layer is slotted to form the at least one slotline antenna, said first and second layers (1, 3) being grounded, and - a third metal layer beyond the second metal layer includes said feed network and said transition (5a, 5b, 38), and wherein - said transition (5a, 5b, 38) comprises a pair of stripline traces (5a, 5b) which bridge each slotline antenna at selected spaced-apart locations along the length thereof, one end of each stripline trace (5a, 5b) being connected to the second metal layer, and a stub trace (5c, 5d) connected to the other end of each stripline trace (5a, 5b) to provide said impedance match, and - said feed network comprises electrical connections between the stub traces (5c, 5d) associated with each pair of stripline traces (5a, 5b) and said first transducer output. - a first metal layer at the working surface defines an antenna aperture; - a second metal layer beyond the first metal layer is slotted to form the at least one slotline antenna, said first and second layers (1, 3) being grounded, and - a third metal layer beyond the second metal layer includes said feed network and said transition (5a, 5b, 38), - said transition (5a, 5b, 38) comprises a pair of stripline traces (5a, 5b) which bridge each slotline antenna at selected spaced-apart locations along the length thereof, one end of each stripline trace (5a, 5b) being connected to the second metal layer, and a stub trace (5c, 5d) connected to the other end of each stripline trace (5a, 5b) to provide said impedance match, and - said feed network comprises electrical connections between the stub traces (5c, 5d) associated with each pair of stripline traces (5a, 5b) and said first transducer output.
A method for monitoring a state of a transformer, wherein an actual winding current (I 1, I 2, I 3, I 4, I 5) of at least one winding to be monitored, an actual winding current change of the at least one winding to be monitored, and an actual winding voltage (U 1, U 2, U 3, U 4, U 5) of the at least one winding to be monitored is determined, the actual winding current (I 1, I 2, I 3, I 4, I 5), the actual winding current change, and the actual winding voltage arising physically in/at the at least one winding to be monitored, wherein a plurality of parameters of the transformer to be monitored is determined, characterized in that the transformer comprises a primary winding and a plurality of secondary windings (3, 4, 5, 6), wherein, as a function of a dynamic current-voltage model of the transformer, at least one parameter that is dependent on a winding resistance of the at least one winding to be monitored and at least one parameter that is dependent on a self-inductance and a mutual inductance of the at least one winding to be monitored are determined as parameters to be monitored, wherein the monitoring is carried out depending on the parameters to be monitored.
A method, said method comprising the steps of: (705, 708) performing carrier sensing to determine if a communications medium is idle; determining a time interval for a reservation of said communications medium; multicasting a message for reserving said communications medium; receiving responses to said message for reserving said communications medium; and comparing a ratio of a number of said received responses to an expected number of responses with a threshold; performing one of initiating pending frame exchanges and multicasting data or management frames during said time interval for said reservation of said communications medium if said comparison exceeds said threshold; repeating the above steps (705,708) to if said comparison does not exceed said threshold. (705, 708) performing carrier sensing to determine if a communications medium is idle; determining a time interval for a reservation of said communications medium; multicasting a message for reserving said communications medium; receiving responses to said message for reserving said communications medium; and comparing a ratio of a number of said received responses to an expected number of responses with a threshold; performing one of initiating pending frame exchanges and multicasting data or management frames during said time interval for said reservation of said communications medium if said comparison exceeds said threshold; repeating the above steps (705,708) to if said comparison does not exceed said threshold.
A resource negotiation method, performed by a first network device, comprising: receiving transmission time domain information from a second network device; and characterized in that: the transmission time domain information comprises time domain resources to be occupied by transmission between the second network device and a user terminal; and performing transmission with the user terminal according to the transmission time domain information; wherein the transmission time domain information comprises location information of the time domain resources; the location information comprises bitmap information of the time domain resources and an identification of the user terminal; the bitmap information comprises one or more of the following: start time, end time and duration. the transmission time domain information comprises time domain resources to be occupied by transmission between the second network device and a user terminal; and performing transmission with the user terminal according to the transmission time domain information; wherein the transmission time domain information comprises location information of the time domain resources; the location information comprises bitmap information of the time domain resources and an identification of the user terminal; the bitmap information comprises one or more of the following: start time, end time and duration.
Filling device for a packaging machine for automatically filling bulk material into packages, comprising a housing and a filling channel configured therein and a controlled channel shutter for controlling the filling of bulk material into packages, wherein the channel shutter comprises a closing head that is pivotable and when mounted is accommodated in a sealing socket in the housing, wherein the sealing socket extends in a transverse direction transversely through the filling channel, the closing head comprising a drive shaft extending on the drive side of the housing outwardly from the housing, and via which the closing head is controlled to be pivotable to close the filling channel in a closed position, and to clear it completely in an open position at least in a central region, wherein a wall of the housing shows a feeding mouth for the closing head to insert and/or remove the closing head during assembly or maintenance through the feeding mouth into and out of the sealing socket, wherein the closing head is supported on one side of the filling channel on the drive side and is sealed on the drive side relative to the housing by means of a round head portion, characterized in that an aeration nozzle is disposed in a wall of the housing in the flow direction upstream of the closing head with which to aerate the filling channel. wherein the channel shutter comprises a closing head that is pivotable and when mounted is accommodated in a sealing socket in the housing, wherein the sealing socket extends in a transverse direction transversely through the filling channel, the closing head comprising a drive shaft extending on the drive side of the housing outwardly from the housing, and via which the closing head is controlled to be pivotable to close the filling channel in a closed position, and to clear it completely in an open position at least in a central region, wherein a wall of the housing shows a feeding mouth for the closing head to insert and/or remove the closing head during assembly or maintenance through the feeding mouth into and out of the sealing socket, wherein the closing head is supported on one side of the filling channel on the drive side and is sealed on the drive side relative to the housing by means of a round head portion, characterized in that an aeration nozzle is disposed in a wall of the housing in the flow direction upstream of the closing head with which to aerate the filling channel.
A device for determining the CO 2 content of flowing air in medical devices, characterized by a flow line containing at least two flow resistors having one differential pressure sensor each connected in series, the at least two flow resistors having different characteristic curves.
A delivery device comprising: an inserter attachment comprising a tip; handpiece with a housing, engagement means for affixing said inserter attachment to said handpiece and a lever; and a spring, wherein the tip comprises a flexible envelope said envelope defining a lumen and further comprising an internal sliding member movably disposed within lumen, wherein said internal sliding member capable of moving in a longitudinal direction along the length of the lumen, characterized in that the spring is configured to serve as an actuation means, said actuation means being configured to translate actuation from the lever to the internal sliding member and further characterized in that the spring is configured to hold the internal sliding member in a retracted position in a relaxed state of the spring and to push the internal sliding member in the longitudinal direction along the lumen in a compressed state of the spring. an inserter attachment comprising a tip; handpiece with a housing, engagement means for affixing said inserter attachment to said handpiece and a lever; and a spring, wherein the tip comprises a flexible envelope said envelope defining a lumen and further comprising an internal sliding member movably disposed within lumen, wherein said internal sliding member capable of moving in a longitudinal direction along the length of the lumen, characterized in that the spring is configured to serve as an actuation means, said actuation means being configured to translate actuation from the lever to the internal sliding member and further characterized in that the spring is configured to hold the internal sliding member in a retracted position in a relaxed state of the spring and to push the internal sliding member in the longitudinal direction along the lumen in a compressed state of the spring.
Socket for circuit boards, comprising 1.1 an attachment means for mechanical and electrical connection of the socket to the circuit board, 1.2 a plurality of contact blades, which 1.3 are separated from each other by slots, 1.4 surround a passage, and 1.5 are essentially continuously converging in the direction towards their free ends, and comprising 1.6 an outer sleeve surrounding the contact blades, which sleeve 1.7 is produced from a sheet metal blank and deformed by punching and bending, and 1.8 has on its interior side at least one inwardly directed projection for engagement on an end of a slot between the contact blades. 1.1 an attachment means for mechanical and electrical connection of the socket to the circuit board, 1.2 a plurality of contact blades, which 1.3 are separated from each other by slots, 1.4 surround a passage, and 1.5 are essentially continuously converging in the direction towards their free ends, and comprising 1.6 an outer sleeve surrounding the contact blades, which sleeve 1.7 is produced from a sheet metal blank and deformed by punching and bending, and 1.8 has on its interior side at least one inwardly directed projection for engagement on an end of a slot between the contact blades.
An article with an electronic component inclusion, the article comprising at least one structural element, the structural element including a material and at least one electronic component being incorporated into the material as an inclusion, the electronic component including an integrated circuit and at least one sensor in electronic communication with the integrated circuit, characterized in that the electronic component has a diameter of up to 2 millimeters and in that the material is a first material and the electronic component is encapsulated in a second material that is softer than the first material.
A method for use with a laboratory information system, LIS, comprising: receiving sample data at the LIS from a database, wherein the sample data originates from at least one sample processing unit, SPU, at a physical location remote from a physical location of the LIS and wherein the database is resident on a computing device at a location remote from the LIS, wherein the sample data traverses at least one data pathway through one or more wide area networks before reaching a data network comprising the LIS; characterized in that the method comprises: receiving comprises retrieving data from an intermediate device having a database, wherein the intermediate device receives the sample data from said at least one sample processing unit; wherein said at least one sample processing unit is associated on-demand with a health plan laboratory. receiving sample data at the LIS from a database, wherein the sample data originates from at least one sample processing unit, SPU, at a physical location remote from a physical location of the LIS and wherein the database is resident on a computing device at a location remote from the LIS, wherein the sample data traverses at least one data pathway through one or more wide area networks before reaching a data network comprising the LIS; characterized in that the method comprises: receiving comprises retrieving data from an intermediate device having a database, wherein the intermediate device receives the sample data from said at least one sample processing unit; wherein said at least one sample processing unit is associated on-demand with a health plan laboratory. receiving comprises retrieving data from an intermediate device having a database, wherein the intermediate device receives the sample data from said at least one sample processing unit; wherein said at least one sample processing unit is associated on-demand with a health plan laboratory.
A process for producing a crystalline material having the MFI framework-type or the MFI and MEL framework-type, the process comprising: (i) preparing a synthesis mixture capable of forming the crystalline material, the mixture comprising a source of an oxide of a tetravalent element Y, a source of a trivalent element X, a source of an alkali and/or alkaline earth metal M, water, and a directing agent (Q 1) comprising tetrabutylammonium cations and/or tetrabutylphosphonium cations, wherein X includes aluminum, and Y includes silicon, and wherein the synthesis mixture has a composition comprising: (a) H 2 O/YO 2 molar ratio of 10 or less; and (b) YO 2 /X 2 O 3 molar ratio of at least 20 and less than 150; and (c) M/YO 2 molar ratio of 0.04 or less; (ii) heating the mixture under crystallization conditions including a temperature from 80°C to 220°C and a time from 4 hours to 28 days until crystals of the crystalline material are formed; and (iii) recovering the crystalline material from step (ii). (i) preparing a synthesis mixture capable of forming the crystalline material, the mixture comprising a source of an oxide of a tetravalent element Y, a source of a trivalent element X, a source of an alkali and/or alkaline earth metal M, water, and a directing agent (Q 1) comprising tetrabutylammonium cations and/or tetrabutylphosphonium cations, wherein X includes aluminum, and Y includes silicon, and wherein the synthesis mixture has a composition comprising: (a) H 2 O/YO 2 molar ratio of 10 or less; and (b) YO 2 /X 2 O 3 molar ratio of at least 20 and less than 150; and (c) M/YO 2 molar ratio of 0.04 or less; (a) H 2 O/YO 2 molar ratio of 10 or less; and (b) YO 2 /X 2 O 3 molar ratio of at least 20 and less than 150; and (c) M/YO 2 molar ratio of 0.04 or less; (ii) heating the mixture under crystallization conditions including a temperature from 80°C to 220°C and a time from 4 hours to 28 days until crystals of the crystalline material are formed; and (iii) recovering the crystalline material from step (ii).
A method of controlling access to a cellular network, the method comprising: an access node (111, 112, 113, 114, 115; 800; 1100) of the cellular network transmitting an identifier enabling selection of access information from an access information table, the access information being applicable by radio devices (10; 1000; 1200) for accessing the cellular network; and the access node (111, 112, 113, 114, 115; 800; 1100) transmitting timing information indicating a time of a next transmission of the access information table, wherein the timing information indicates a remaining time until a next transmission of the access information table. an access node (111, 112, 113, 114, 115; 800; 1100) of the cellular network transmitting an identifier enabling selection of access information from an access information table, the access information being applicable by radio devices (10; 1000; 1200) for accessing the cellular network; and the access node (111, 112, 113, 114, 115; 800; 1100) transmitting timing information indicating a time of a next transmission of the access information table, wherein the timing information indicates a remaining time until a next transmission of the access information table.
An in vitro method for the diagnosis of a lysosomal storage disease in a subject, comprising the steps of: (a) providing a blood sample of the subject; (b) incubating the blood sample in the presence of more than one 4-alkyl umbelliferyl derivatives according to formula: wherein: R is selected from the group consisting of H, methyl, ethyl, propyl, isopropyl, tert.-butyl, pentyl, hexyl, and octyl; X is sulfate or a sugar moiety that is specifically recognized by a lysosomal enzyme, deficiency of which is the cause of an LSD; and Y and Z are independently H, -OCH 3, -CH 3, -C 2 H 5, -C 3 H 7, -OC 2 H 5, or -NH-CO-(CH 2) n -CH 3, wherein n is 1, 3, 5, 7, 9, 11, 13 or 15; and wherein said 4-alkyl umbelliferyl derivatives all differ from each other in both substituents R and X, but are identical in both substituents Y and Z; (c) determining the amount of more than one 4-alkyl umbelliferones corresponding in the substituent R, Y, and Z to the 4-alkyl umbelliferyl derivative used in step (b) in the sample by mass spectrometry; and (d) assessing the activity of the more than one lysosomal enzymes specifically recognizing the sugar moiety or sulfate X based on the amounts of 4-alkyl umbelliferone determined in step (c). (a) providing a blood sample of the subject; (b) incubating the blood sample in the presence of more than one 4-alkyl umbelliferyl derivatives according to formula: wherein: R is selected from the group consisting of H, methyl, ethyl, propyl, isopropyl, tert.-butyl, pentyl, hexyl, and octyl; X is sulfate or a sugar moiety that is specifically recognized by a lysosomal enzyme, deficiency of which is the cause of an LSD; and Y and Z are independently H, -OCH 3, -CH 3, -C 2 H 5, -C 3 H 7, -OC 2 H 5, or -NH-CO-(CH 2) n -CH 3, wherein n is 1, 3, 5, 7, 9, 11, 13 or 15; and wherein said 4-alkyl umbelliferyl derivatives all differ from each other in both substituents R and X, but are identical in both substituents Y and Z; R is selected from the group consisting of H, methyl, ethyl, propyl, isopropyl, tert.-butyl, pentyl, hexyl, and octyl; X is sulfate or a sugar moiety that is specifically recognized by a lysosomal enzyme, deficiency of which is the cause of an LSD; and Y and Z are independently H, -OCH 3, -CH 3, -C 2 H 5, -C 3 H 7, -OC 2 H 5, or -NH-CO-(CH 2) n -CH 3, wherein n is 1, 3, 5, 7, 9, 11, 13 or 15; and (c) determining the amount of more than one 4-alkyl umbelliferones corresponding in the substituent R, Y, and Z to the 4-alkyl umbelliferyl derivative used in step (b) in the sample by mass spectrometry; and (d) assessing the activity of the more than one lysosomal enzymes specifically recognizing the sugar moiety or sulfate X based on the amounts of 4-alkyl umbelliferone determined in step (c).
An ink wiping system for an intaglio printing press comprising a wiping tank and a rotatable wiping roller assembly positioned on and partly located in the wiping tank to wipe excess ink from the surface of a rotatable intaglio printing cylinder of the intaglio printing press, characterized in that: the ink wiping system comprises a supporting mechanism coupled to the wiping roller assembly and designed to move the wiping roller assembly with respect to the wiping tank between a working position where the wiping roller assembly is positioned on and partly located in the wiping tank for cooperation with the intaglio printing cylinder and a maintenance position where the wiping roller assembly is moved out of the wiping tank and away from the intaglio printing cylinder. the ink wiping system comprises a supporting mechanism coupled to the wiping roller assembly and designed to move the wiping roller assembly with respect to the wiping tank between a working position where the wiping roller assembly is positioned on and partly located in the wiping tank for cooperation with the intaglio printing cylinder and a maintenance position where the wiping roller assembly is moved out of the wiping tank and away from the intaglio printing cylinder.
System for monitoring of tools, with at least one tool and with at least one monitoring unit, characterized by the following features: - the tool is provided with at least one detectable element (12, 12', 12") which contains data that individualize said tool and that can be read out by a detection device (13, 14); - the monitoring unit is configured, in order to perform an incoming inspection, to detect and identify said tool by means of the detection device; - the monitoring unit is configured, in order to perform an exit control, to produce an image of said tool in its current state, to compare said current state with a target state, by means of a data processor having stored at least one image of said tool in its target state, and to signalize a deviation of the current state from the target state. - the tool is provided with at least one detectable element (12, 12', 12") which contains data that individualize said tool and that can be read out by a detection device (13, 14); - the monitoring unit is configured, in order to perform an incoming inspection, to detect and identify said tool by means of the detection device; - the monitoring unit is configured, in order to perform an exit control, to produce an image of said tool in its current state, to compare said current state with a target state, by means of a data processor having stored at least one image of said tool in its target state, and to signalize a deviation of the current state from the target state.