mhurhangee/ep-ind-claims huggingface dataset:
A fiber-reinforced resin composite material comprising: a first member including a first fiber and a first matrix resin, the first fiber including a reinforcing fiber and having a sheet shape and being impregnated with the first matrix resin, the reinforcing fiber having a melting point and a tensile strength that are higher than a melting point and a tensile strength of an aliphatic polyamide fiber, the first matrix resin being cured; and a second member including a stack and a second matrix resin, and provided on a surface of the first member, the stack including a second fiber and a third fiber that are stacked alternately and that are filled with the second matrix resin, the second fiber including the reinforcing fiber and having a sheet shape, the third fiber having a sheet shape, the second matrix resin being cured, wherein the second matrix resin includes a component common to a component of the first matrix resin, and includes a first polyamide resin that comprises an aliphatic polyamide resin, and characterized in that the third fiber includes a second polyamide resin, the second polyamide resin comprising an aliphatic polyamide resin and having a melting point higher than a melting point of the first polyamide resin by 7 degrees centigrade to 50 degrees centigrade, and the second member includes a yarn that penetrates the second fiber and the third fiber in a direction in which the second fiber and the third fiber are stacked. a first member including a first fiber and a first matrix resin, the first fiber including a reinforcing fiber and having a sheet shape and being impregnated with the first matrix resin, the reinforcing fiber having a melting point and a tensile strength that are higher than a melting point and a tensile strength of an aliphatic polyamide fiber, the first matrix resin being cured; and a second member including a stack and a second matrix resin, and provided on a surface of the first member, the stack including a second fiber and a third fiber that are stacked alternately and that are filled with the second matrix resin, the second fiber including the reinforcing fiber and having a sheet shape, the third fiber having a sheet shape, the second matrix resin being cured, wherein the second matrix resin includes a component common to a component of the first matrix resin, and includes a first polyamide resin that comprises an aliphatic polyamide resin, and characterized in that the third fiber includes a second polyamide resin, the second polyamide resin comprising an aliphatic polyamide resin and having a melting point higher than a melting point of the first polyamide resin by 7 degrees centigrade to 50 degrees centigrade, and the second member includes a yarn that penetrates the second fiber and the third fiber in a direction in which the second fiber and the third fiber are stacked.
A packaging unit for hygiene articles (1, 301), the unit being formed from a sheet of material having a longitudinal direction and a transverse direction, said sheet having an inner surface (2, 302) and an outer surface (3, 303), said inner surface (2, 302) comprising an edge zone that comprises an edge portion (4', 4", 6, 8, 304, 304', 306, 305', 307) being provided with a resealable adhesive for closure of the packaging unit (1, 301), said sheet having at least one transversely extending folding axis (9, 309, 309'), said folding axis (9, 309, 309') dividing said sheet into a first region (10, 310) and a second region (11, 311), said sheet is provided with at least one sync mark (13, 313), such as a printed mark, for indication of a positioning of the sheet of material during manufacturing of the packaging unit (1, 301), said sync mark (13, 313) being provided on the outer surface (3, 303), characterized in that said sheet of material is of substantially rectangular shape and comprises longitudinal edges (14, 15; 314, 315) and transverse edges (16, 17; 314, 315), the sync mark (13, 313) being provided at a longitudinal edge portion and/or at a transversal edge portion.
Magnetic resonance imaging installation comprising a radio-frequency shielding cabin and at least one basic field magnet, characterized by: - a first circuit device, which is arranged outside the radio-frequency shielding cabin and which is designed to generate a DC link voltage (U Z) from a grid voltage (U L), and - a second circuit device, which is arranged within the radio-frequency shielding cabin and connected to the basic field magnet and which is designed to generate a magnetization current (I M) for the basic field magnet from the DC link voltage (U Z). - a first circuit device, which is arranged outside the radio-frequency shielding cabin and which is designed to generate a DC link voltage (U Z) from a grid voltage (U L), and - a second circuit device, which is arranged within the radio-frequency shielding cabin and connected to the basic field magnet and which is designed to generate a magnetization current (I M) for the basic field magnet from the DC link voltage (U Z).
A tamper responsive sensor (100, 110, 200) comprising: - a carrier printed circuit board, carrier PCB (101, 201), holding a mesh (504, 704, 904, 1104) of one or more electrically conductive tracks, - a pressure or force sensitive switch contact (103, 203) having first and second electrical contact connections, - tamper detecting circuitry arranged at the carrier PCB (101, 201) and being powered via two electrical power lines and connected to one or more electrically conductive signal lines, wherein one of said power lines or one of said signal lines is electrically connected to the tamper detecting circuitry via a first tamper line holding the switch contact (103, 203), and wherein one of said power lines or one of said signal lines is electrically connected to the tamper detecting circuitry via a second tamper line holding a conductive track of the carrier PCB mesh (504, 704, 904, 1104), thereby enabling the tamper detecting circuitry to detect an interruption of the signal path through the first tamper line and/or an interruption of the of signal path through the second tamper line, and wherein the carrier PCB (103, 203) is arranged on top of a spacer board (105, 205) and the tamper detecting circuitry is arranged at the bottom of the carrier PCB (103, 203), with the spacer board (105, 205) fully encircling or surrounding the tamper detecting circuitry, and with the wall height of the spacer board (105, 205) being higher than the height of the tamper detecting circuitry, characterized in that the pressure or force sensitive switch contact (103, 203) is arranged on top of the carrier PCB (101, 201). - a carrier printed circuit board, carrier PCB (101, 201), holding a mesh (504, 704, 904, 1104) of one or more electrically conductive tracks, - a pressure or force sensitive switch contact (103, 203) having first and second electrical contact connections, - tamper detecting circuitry arranged at the carrier PCB (101, 201) and being powered via two electrical power lines and connected to one or more electrically conductive signal lines,
A method of controlling a vehicle and trailer assembly comprising: initiating an input mode for a trailer backing system; inputting a first set of data points inputting at least one data point relating to a current position of at least one of a vehicle and a trailer of the vehicle and trailer assembly using an electronic input device; inputting a second set of data points inputting at least one data point relating to a final position of at least one of a vehicle and a trailer of the vehicle and trailer assembly using the electronic input device; inputting a third set of data points inputting at least one data point for each obstacle proximate to a current vehicle and trailer assembly position and the final vehicle and trailer assembly position using the electronic input device; ending the input mode; and determining an intended backing path based upon the first, second, and third set of data points; characterized in that inputting the second set of data points further comprises calculating the remaining data points in the second set of data points based upon the at least one data point and data relating to the vehicle and trailer assembly configuration previously stored in the trailer backing system. initiating an input mode for a trailer backing system; inputting a first set of data points inputting at least one data point relating to a current position of at least one of a vehicle and a trailer of the vehicle and trailer assembly using an electronic input device; inputting a second set of data points inputting at least one data point relating to a final position of at least one of a vehicle and a trailer of the vehicle and trailer assembly using the electronic input device; inputting a third set of data points inputting at least one data point for each obstacle proximate to a current vehicle and trailer assembly position and the final vehicle and trailer assembly position using the electronic input device; ending the input mode; and determining an intended backing path based upon the first, second, and third set of data points; inputting the second set of data points further comprises calculating the remaining data points in the second set of data points based upon the at least one data point and data relating to the vehicle and trailer assembly configuration previously stored in the trailer backing system.
A wireless charging receive antenna (802, 118), comprising: a first loop having an energy receiving conductor and configured to resonate at a wireless charging frequency, the first loop further coupling with an electronic device and for providing wirelessly received power to the electronic device, the first loop being formed on or embedded in a housing of the electronic device,; and at least another loop of said energy receiving conductor electrically coupled to the first loop to form a multi-loop antenna (802, 822); characterized in that the multi-loop antenna is integrated into or over edges of the housing hugging the device's internal circuitry. a first loop having an energy receiving conductor and configured to resonate at a wireless charging frequency, the first loop further coupling with an electronic device and for providing wirelessly received power to the electronic device, the first loop being formed on or embedded in a housing of the electronic device,; and at least another loop of said energy receiving conductor electrically coupled to the first loop to form a multi-loop antenna (802, 822); characterized in that the multi-loop antenna is integrated into or over edges of the housing hugging the device's internal circuitry.
An integrated circuit, comprising: a current-sensing device driver circuit configured to drive first and second control terminals of respective first and second parallel switching devices of different type within a hybrid switch with respective first and second periodic control signals that establish a first on-off switching pattern within the hybrid switch, in response to estimating a forward on-state current in the hybrid switch from a measurement of a first voltage associated with at least a first terminal of the hybrid switch, wherein a duty cycle associated with the first periodic control signal is greater than a duty cycle associated with the second periodic control signal; characterized by said current-sensing device driver circuit being further configured to drive the first and second control terminals with respective third and fourth periodic control signals that establish a second on-off switching pattern within the hybrid switch that is unequal to the first on-off switching pattern, wherein a duty cycle associated with the third periodic control signal is less than a duty cycle associated with the fourth periodic control signal, in response to estimating an updated forward on-state current in the hybrid switch from an updated first voltage associated with the first terminal. a current-sensing device driver circuit configured to drive first and second control terminals of respective first and second parallel switching devices of different type within a hybrid switch with respective first and second periodic control signals that establish a first on-off switching pattern within the hybrid switch, in response to estimating a forward on-state current in the hybrid switch from a measurement of a first voltage associated with at least a first terminal of the hybrid switch, wherein a duty cycle associated with the first periodic control signal is greater than a duty cycle associated with the second periodic control signal; characterized by said current-sensing device driver circuit being further configured to drive the first and second control terminals with respective third and fourth periodic control signals that establish a second on-off switching pattern within the hybrid switch that is unequal to the first on-off switching pattern, wherein a duty cycle associated with the third periodic control signal is less than a duty cycle associated with the fourth periodic control signal, in response to estimating an updated forward on-state current in the hybrid switch from an updated first voltage associated with the first terminal.
Process for the preparation of a procatalyst suitable for preparing a catalyst composition for olefin polymerization, said process comprising the steps of providing a magnesium-based support, contacting said magnesium-based support with a Ziegler-Natta type catalytic species, an internal donor, and an activator, to yield a procatalyst, wherein the activator is a benzamide according to formula X: wherein R 70 and R 71 are each independently selected from hydrogen or an alkyl, and R 72, R 73, R 74, R 75, R 76 are each independently selected from hydrogen, a heteroatom or a hydrocarbyl group, preferably selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof; and wherein the internal donor is selected from the group consisting of 1,3-diethers represented by the Formula VII, wherein R 51 and R 52 are each independently selected from a hydrogen or a hydrocarbyl group selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof and wherein R 53 and R 54 are each independently selected from a hydrocarbyl group, preferably selected from alkyl, alkenyl, aryl, aralkyl, alkoxycarbonyl or alkylaryl groups, and one or more combinations thereof.
A method for synthesizing long-chain nucleic acid molecules through assembling short-chain oligonucleotides, the method comprising: phosphorylating a set of short-chain oligonucleotides; modifying at least one of the short-chain oligonucleotides in the set with a first chemical group; annealing the set of short-chain oligonucleotides to form double stranded sticky end nucleic acid molecules; ligating the set of short-chain oligonucleotides in the presence of a ligase, wherein the ligation produces at least one double-stranded long-chain nucleotide sequence; immobilizing the at least one double-stranded long-chain nucleotide sequence on solid particles modified with a second chemical group, wherein the first chemical group and second chemical group have an affinity for one another; purifying the at least one double-stranded long-chain nucleotide sequence, said purifying step including a transcription step followed by a subsequent reverse-transcription step; after purification, amplifying the at least one double-stranded long-chain nucleotide sequence. phosphorylating a set of short-chain oligonucleotides; modifying at least one of the short-chain oligonucleotides in the set with a first chemical group; annealing the set of short-chain oligonucleotides to form double stranded sticky end nucleic acid molecules; ligating the set of short-chain oligonucleotides in the presence of a ligase, wherein the ligation produces at least one double-stranded long-chain nucleotide sequence; immobilizing the at least one double-stranded long-chain nucleotide sequence on solid particles modified with a second chemical group, wherein the first chemical group and second chemical group have an affinity for one another; purifying the at least one double-stranded long-chain nucleotide sequence, said purifying step including a transcription step followed by a subsequent reverse-transcription step; after purification, amplifying the at least one double-stranded long-chain nucleotide sequence.
Moulding apparatus for the thermal shaping of components, the apparatus comprising, in the region of a machine frame, a moulding device and a tray which can be heated in a use position on the frame in order to preheat the semi-finished products, which tray can be moved into a removal position (arrow B) which can be accessed at least in regions next to the machine frame in order to remove preheated semi-finished products, the moulding apparatus being provided with at least one heating chamber which receives the tray, and at least one heating apparatus (R, R') which emits an orientable heating air flow (S, S') in the region of at least one convection heater (8, 9) interacting with said heating chamber, at least one upper and one lower partial chamber (10, 10') being provided in the region of the tray arranged substantially horizontally in the heating chamber and at least the one convection heater (8, 9) being associated with these partial chambers as the heating apparatus (R, R'), and, in order to achieve an optimal heating circuit (S, S') of the circulated warm air, the at least one convection heater (8, 9) being provided in each case with at least one supply channel (12, 12') opening into the upper or the lower partial chamber (10, 10') and with a respectively opening return channel (13, 13'), one of the convection heaters (8, 9) which open into the respective partial chambers (10, 10') being provided in the region of lateral surfaces (6, 7) of the heating chamber that are each adjacent to the machine frame, characterised in that the two convection heaters (8, 9) comprise, offset in height with respect to a support surface of the tray, supply channels (12, 12') which open towards the relevant partial chamber (10, 10') below and above the tray, it being possible to specify a relevant flow direction by means of said supply channels as guide channels and it thereby being possible to suck in the heating air flow guided in the circuit via respective return channels (13, 13').
A method of producing a three-dimensional solid component, and comprising the steps of: providing a bath of first fluid base material; dispensing a second fluid material in said bath in a pattern defined by a digital record, contact between the first and second fluid materials converting one of said materials to a solid in the vicinity thereof; and removing the solid component from said bath when complete, wherein one of said first and second materials comprises a cross-linked or actively cross-linking polymer in the form of fluid silicone and the other of said first and second materials comprises a catalyst, the catalyst causing an acceleration of the cross-linking to convert the material to a solid. providing a bath of first fluid base material; dispensing a second fluid material in said bath in a pattern defined by a digital record, contact between the first and second fluid materials converting one of said materials to a solid in the vicinity thereof; and removing the solid component from said bath when complete, wherein one of said first and second materials comprises a cross-linked or actively cross-linking polymer in the form of fluid silicone and the other of said first and second materials comprises a catalyst, the catalyst causing an acceleration of the cross-linking to convert the material to a solid.
A liquid composition for producing a reflective coating, the composition comprising; diamond particles, and a binder which, when the liquid composition dries to form a solid coating, is transparent, characterised in that substantially all of the diamond particles have a largest dimension in the range of 35-175 μm and said diamond particles are visible and reflective in the solid coating. diamond particles, and a binder which, when the liquid composition dries to form a solid coating, is transparent, characterised in that substantially all of the diamond particles have a largest dimension in the range of 35-175 μm and said diamond particles are visible and reflective in the solid coating.
A system comprising a computing device wherein the system is configured to carry out the steps of - receiving with the computing device a blood glucose measurement of the patient; - determining hypoglycemia, if the blood glucose measurement is below a predetermined threshold; - computing a recommended carbohydrate amount to ingest by the patient with the computing device, wherein the recommended carbohydrate amount is based at least in part on the blood glucose measurement of the patient; - outputting the recommended carbohydrate amount with the computing device; characterized in: - starting a surveillance phase, the surveillance phase including - receiving with the computing device a second blood glucose measurement of the patient after said computing of the recommended carbohydrate amount; - ending the surveillance phase when the second blood glucose measurement exceeds a relative threshold that varies based on the amount of carbohydrates previously consumed; wherein the computing device is configured to calculate the relative threshold using the following formula BG end, relative = γ t − t 1 ⋅ BG hypo, end + 1 − γ t − t 1 ⋅ BG 1 wherein: BG end,relative = Relative threshold for ending the surveillance phase; BG hypo,end = Threshold where hypoglycemia is considered ended; γ ( x) = Carbohydrate absorption function for time interval x, being initially zero and monotonically increasing towards one; t = Current time when relative threshold is being calculated; t 1 = Time when first carbohydrate recommended or consumed; and BG 1 = First blood glucose measurement. - receiving with the computing device a blood glucose measurement of the patient; - determining hypoglycemia, if the blood glucose measurement is below a predetermined threshold; - computing a recommended carbohydrate amount to ingest by the patient with the computing device, wherein the recommended carbohydrate amount is based at least in part on the blood glucose measurement of the patient; - outputting the recommended carbohydrate amount with the computing device; characterized in: - starting a surveillance phase, the surveillance phase including - receiving with the computing device a second blood glucose measurement of the patient after said computing of the recommended carbohydrate amount; - starting a surveillance phase, the surveillance phase including - receiving with the computing device a second blood glucose measurement of the patient after said computing of the recommended carbohydrate amount; - ending the surveillance phase when the second blood glucose measurement exceeds a relative threshold that varies based on the amount of carbohydrates previously consumed; BG end,relative = Relative threshold for ending the surveillance phase; BG hypo,end = Threshold where hypoglycemia is considered ended; γ ( x) = Carbohydrate absorption function for time interval x, being initially zero and monotonically increasing towards one; t = Current time when relative threshold is being calculated; t 1 = Time when first carbohydrate recommended or consumed; and BG 1 = First blood glucose measurement.