mhurhangee/ep-ind-claims huggingface dataset:
A coating solution comprising an organic solvent and a polymer obtainable by reacting at least one glycoluril compound with at least one reactive compound containing at least one hydroxy group and/or at least one acid group, and further where the polymer is soluble in the organic solvent, wherein the at least one reactive compound is selected from the group consisting of ethylene glycol, diethylene glycol, propylene glycol, neopentyl glycol, polyethylene glycol, styrene glycol, propylene oxide, ethylene oxide, butylene oxide, hexane diol, butane diol, 1-phenyl-1,2-ethanediol, 2-bromo-2-nitro-1,3-propane diol, 2-methyl-2-nitro-1,3-propanediol, diethylbis(hydroxymethyl)malonate, hydroquinone, and 3,6-dithia-1,8-octanediol, bisphenol A, 2,6-bis(hydroxymethyl)-p-cresol and 2,2'-(1,2-phenylenedioxy)-diethanol, 1,4-benzenedimethanol, 2-benzyloxy-1,3-propanediol, 3-phenoxy-1,2-propanediol, 2,2'-biphenyldimethanol, 4-hydroxybenzyl alcohol, 1,2-benzenedimethanol, 2,2'-(o-phenylenedioxy)diethanol, 1,7-dihydroxynaphthalene, 1,5-naphthalenediol, 9,10-anthracenediol, 9,10-anthracenedimethanol, 2,7,9-anthracenetriol, other naphthyl diols and other anthracyl diols, phenylsuccinic acid, benzylmalonic acid, 3-phenylglutaric acid 1,4-phenyldiacetic acid, oxalic acid, malonic acid, succinic acid, pyromellitic dianhydride, 3,3',4,4'-benzophenone-tetracarboxylic dianhydride, naphthalene dianhydride, 2,3,6,7-naphthalenetetracarboxylic acid dianhydride and 1,4,5,8-naphthalenetetracarboxylic acid dianhydride, anthracene diaacid, and 3-hydroxyphenylacetic acid and 2-(4-hydroxyphenoxy)propionic acid, and where the polymer is a crosslinking compound and the polymer has a molecular weight from 1,000 to 50,000, and further where the coating solution contains none of the monomers used to make the polymer.
A process for removing at least one halogenated ethylene impurity selected from HCO-1140 (CH 2 =CHCl), CH 2 =CFCl and a combination thereof from a fluoroolefin mixture comprised of at least one compound selected from 2,3,3,3-tetrafluoropropene, 1,3,3,3-tetrafluoro-1-propene and 1-chloro-3,3,3-frifluoropropene and said halogenated ethylene impurity, said process comprising: contacting said mixture comprised of said fluoroolefin and at least one halogenated ethylene impurity with at least one adsorbent or at least one chemisorption catalyst to reduce the concentration of said at least one halogenated ethylene impurity.
A failsafe counter evaluator to ensure proper counting, the failsafe counter evaluator comprising: a first microprocessor (205); a first counter (212) configured as a counter in operation and disposed in the first microprocessor to receive externally generated count pulses (210) a second counter (212) is disposed in the first microprocessor and configured to undergo a test; a second microprocessor; and a test channel (210) is configured to send an input test signal to the second counter based on test pulses from the second microprocessor, wherein the second microprocessor is configured to inject the input test signal to the second counter (212) of the first microprocessor (205) being the counter under test such that the first microprocessor and the second microprocessor are synchronized so that to coordinate a start and an end of the test, and wherein the first counter (212) is driven by the externally generated count pulses to be counted while the second counter (212) is sent the test pulses for evaluation such that the second counter is evaluated after the test pulses have been sent to determine if the second counter is operating properly. a first microprocessor (205); a first counter (212) configured as a counter in operation and disposed in the first microprocessor to receive externally generated count pulses (210) a second counter (212) is disposed in the first microprocessor and configured to undergo a test; a second microprocessor; and a test channel (210) is configured to send an input test signal to the second counter based on test pulses from the second microprocessor, wherein the second microprocessor is configured to inject the input test signal to the second counter (212) of the first microprocessor (205) being the counter under test such that the first microprocessor and the second microprocessor are synchronized so that to coordinate a start and an end of the test, and wherein the first counter (212) is driven by the externally generated count pulses to be counted while the second counter (212) is sent the test pulses for evaluation such that the second counter is evaluated after the test pulses have been sent to determine if the second counter is operating properly.
A processing system for controlling a sleep disordered breathing, SDB, therapy device providing therapy to a subject during a sleep session of the subject, the processing system being configured to: receive a first signal responsive to the subject's breathing during the sleep session; receive a second signal responsive to baroreceptor-initiated changes in sympathetic activity of the subject; process the first and second signals to detect a change in sympathetic activity; in response to the detected change in sympathetic activity exceeding a predetermined activity threshold: process the first and second signals to determine whether the detected change in sympathetic activity is chemoreceptor-initiated or baroreceptor-initiated; and generate a control signal (155a, 155b) for controlling the SDB therapy device, based on the determination as to whether the detected change in sympathetic activity is chemoreceptor-initiated or baroreceptor-initiated. receive a first signal responsive to the subject's breathing during the sleep session; receive a second signal responsive to baroreceptor-initiated changes in sympathetic activity of the subject; process the first and second signals to detect a change in sympathetic activity; in response to the detected change in sympathetic activity exceeding a predetermined activity threshold: process the first and second signals to determine whether the detected change in sympathetic activity is chemoreceptor-initiated or baroreceptor-initiated; and generate a control signal (155a, 155b) for controlling the SDB therapy device, based on the determination as to whether the detected change in sympathetic activity is chemoreceptor-initiated or baroreceptor-initiated. process the first and second signals to determine whether the detected change in sympathetic activity is chemoreceptor-initiated or baroreceptor-initiated; and generate a control signal (155a, 155b) for controlling the SDB therapy device, based on the determination as to whether the detected change in sympathetic activity is chemoreceptor-initiated or baroreceptor-initiated.
Method for the siliconization of the inner surface of hollow bodies which have at least one opening, wherein the inner surface is sprayed with a silicone fluid by way of a spray nozzle, characterized by the following method steps, a) the hollow bodies are transported, standing upright one behind the other, under the spray nozzle and are positioned with their upwardly pointing opening centred under the spray nozzle, b) the inner surface of the respective hollow body is sprayed with a spray mist of a silicone fluid from above by way of the spray nozzle in a spraying process, and c) the siliconized hollow bodies, in each case after the spraying process, are transported, standing upright, out of the region of the spray nozzle. a) the hollow bodies are transported, standing upright one behind the other, under the spray nozzle and are positioned with their upwardly pointing opening centred under the spray nozzle, b) the inner surface of the respective hollow body is sprayed with a spray mist of a silicone fluid from above by way of the spray nozzle in a spraying process, and c) the siliconized hollow bodies, in each case after the spraying process, are transported, standing upright, out of the region of the spray nozzle.
A customer service system for a home appliance using a smart grid, the customer service system comprising: an AMI (advanced metering infrastructure) configured to measure and display power information in real time while communicating with a power supply source in two ways; an EMS (energy management system) connected to the AMI for supplying power to the home appliance based on external power information; and a customer service center providing a customer service for the home appliance and communicating with the EMS in two ways; characterized in that the customer service system further comprises: a communication adapter connecting the home appliance and the EMS while allowing power supply and two-way communication, wherein the home appliance comprises a service button (190, 290, 390, 490), and if the service button (190, 290, 390, 490) is manipulated, information for requesting a customer service is transmitted to the customer service center through the communication adapter and the EMS. an AMI (advanced metering infrastructure) configured to measure and display power information in real time while communicating with a power supply source in two ways; an EMS (energy management system) connected to the AMI for supplying power to the home appliance based on external power information; and a customer service center providing a customer service for the home appliance and communicating with the EMS in two ways; characterized in that the customer service system further comprises: a communication adapter connecting the home appliance and the EMS while allowing power supply and two-way communication, wherein the home appliance comprises a service button (190, 290, 390, 490), and if the service button (190, 290, 390, 490) is manipulated, information for requesting a customer service is transmitted to the customer service center through the communication adapter and the EMS. a communication adapter connecting the home appliance and the EMS while allowing power supply and two-way communication, wherein the home appliance comprises a service button (190, 290, 390, 490), and if the service button (190, 290, 390, 490) is manipulated, information for requesting a customer service is transmitted to the customer service center through the communication adapter and the EMS.
A dynamic, reduced-pressure treatment system for treating a tissue site on a patient, the system comprising: a porous and permeable foam manifold adjacent the tissue site for distributing reduced pressure to the tissue site; a sealing member coupled to the patient's epidermis to form a fluid seal over the tissue site; a reduced-pressure source for producing reduced pressure; a reduced-pressure delivery member for delivering reduced pressure from the reduced-pressure source to the manifold; a wave generator associated with the reduced-pressure delivery member, wherein the wave generator imparts a wave to the reduced pressure developed by the reduced-pressure source; and wherein the wave generator is associated with the reduced-pressure delivery member between the reduced-pressure source and the sealing member. a porous and permeable foam manifold adjacent the tissue site for distributing reduced pressure to the tissue site; a sealing member coupled to the patient's epidermis to form a fluid seal over the tissue site; a reduced-pressure source for producing reduced pressure; a reduced-pressure delivery member for delivering reduced pressure from the reduced-pressure source to the manifold; a wave generator associated with the reduced-pressure delivery member, wherein the wave generator imparts a wave to the reduced pressure developed by the reduced-pressure source; and wherein the wave generator is associated with the reduced-pressure delivery member between the reduced-pressure source and the sealing member.
A device for mounting a probe to a scanning probe microscope, comprising: - a retaining member (200; 300) for installation in a measuring assembly of a scanning probe microscope, - a probe, which is a cantilever, - a measuring tip, which is arranged on an end of the cantilever, - a clamping member which is formed as a spring member and which is secured in a self-locking fashion to the retaining member (200; 300), wherein the probe is detachably mounted on the retaining member (200; 300) by the clamping member, wherein the probe is in direct contact with the clamping member and the retaining member (200; 300), characterized in that - the self-locking of the clamping member is realized in a recess (220; 301) formed in the retaining member (200; 300), - for the self-locking the clamping member is held in the recess (220; 301) by a spring force such that sections (204, 205) of the clamping member are pressed against an inner wall of the recess, and - the clamping member is detachable from the retaining member (200; 300) by pressing the sections (204, 205) against the spring force of the clamping member formed as spring member. - a retaining member (200; 300) for installation in a measuring assembly of a scanning probe microscope, - a probe, which is a cantilever, - a measuring tip, which is arranged on an end of the cantilever, - a clamping member which is formed as a spring member and which is secured in a self-locking fashion to the retaining member (200; 300), wherein the probe is detachably mounted on the retaining member (200; 300) by the clamping member, wherein the probe is in direct contact with the clamping member and the retaining member (200; 300), characterized in that - the self-locking of the clamping member is realized in a recess (220; 301) formed in the retaining member (200; 300), - for the self-locking the clamping member is held in the recess (220; 301) by a spring force such that sections (204, 205) of the clamping member are pressed against an inner wall of the recess, and - the clamping member is detachable from the retaining member (200; 300) by pressing the sections (204, 205) against the spring force of the clamping member formed as spring member.
A fault detection device (108, 208) of a local grid station (100, 200) for detecting a grid fault in at least one low-voltage grid (102, 202) connected to the local grid station (100, 200), comprising - at least one detection equipment (110, 210) configured to detect a grid current of the connected low-voltage grid (102, 202) and/or a grid voltage of the connected low-voltage grid (102, 202), - at least one storing equipment (114, 214) configured to store at least one fault criterion, and - at least one detection equipment (112, 212) configured to detect a grid fault based on the at least one stored fault criterion and the detected grid current and/or the detected grid voltage, characterized in that - the at least one fault criterion is configured to represent two or more different fault characteristics for two or more different grid current behaviors or grid voltage behaviors, which are each caused by different grid faults. - at least one detection equipment (110, 210) configured to detect a grid current of the connected low-voltage grid (102, 202) and/or a grid voltage of the connected low-voltage grid (102, 202), - at least one storing equipment (114, 214) configured to store at least one fault criterion, and - at least one detection equipment (112, 212) configured to detect a grid fault based on the at least one stored fault criterion and the detected grid current and/or the detected grid voltage, characterized in that - the at least one fault criterion is configured to represent two or more different fault characteristics for two or more different grid current behaviors or grid voltage behaviors, which are each caused by different grid faults.
Submodule for forming a multi-stage converter for electrical power distribution and transmission having a capacitor unit and a power semiconductor circuit, which has power semiconductors which can be turned off, wherein the capacity unit and the power semiconductor circuit are connected to one another such that at least the voltage which is dropped across the capacitor unit or a zero voltage can be produced at the output terminals (7, 8) of the submodule, depending on the drive of the power semiconductors in the power semiconductor circuit, and having an additional energy store, characterized in that the additional energy store is connected to the capacitor unit via a chopper unit, wherein the chopper unit has means for regulation of the current flow between the capacitor unit and the additional energy store, wherein the chopper unit has an electronic switch and an inductive unit, which is arranged in series with the electronic switch and wherein the electronic switch has two power semiconductors which can be turned off, are arranged in series with one another, have an opposite current flow direction and in each case have a freewheeling diode connected back-to-back in parallel with them, and wherein one of the freewheeling diodes is also connected in parallel with the inductive unit.
A thermal printer, comprising: heating elements each of which is configured to generate heat according to an amount of energy applied thereto; an energy applier (14, 16, ICs, 17) configured to apply energy to each of the heating elements; a memory configured to store a gradation table where energy values are set for gradation levels based on a relationship between reflectances of a printed image and amounts of energy applied to the heating elements; and a controller configured to transfer control data corresponding to gradation levels of image data to the energy applier based on the gradation table to control the amounts of energy to be applied by the energy applier to each of the heating elements. heating elements each of which is configured to generate heat according to an amount of energy applied thereto; an energy applier (14, 16, ICs, 17) configured to apply energy to each of the heating elements; a memory configured to store a gradation table where energy values are set for gradation levels based on a relationship between reflectances of a printed image and amounts of energy applied to the heating elements; and a controller configured to transfer control data corresponding to gradation levels of image data to the energy applier based on the gradation table to control the amounts of energy to be applied by the energy applier to each of the heating elements.
A controlled delivery drive mechanism for a drug container having a plunger seal configured to translate within a barrel, the controlled delivery drive mechanism comprising: a drive housing; a piston (110A, 110B); a biasing member, wherein the biasing member is initially retained in an energized state and is configured to bear upon an interface surface of the piston; a tether connected at one end to the piston (110A, 110B) and at another end to a winch drum of a delivery control mechanism, wherein a tensioning force is applied to the tether to restrain the free expansion of the biasing member from its initial energized state and the free axial translation of the piston (110A, 110B) upon which the biasing member bears upon; characterized in that the controlled delivery drive mechanism further includes a status reader configurable to read or recognize one or more corresponding status triggers incrementally spaced on the tether, wherein, during operation of the drive mechanism, interaction between the status reader and the status triggers transmits a signal to a power and control system to provide feedback to a user.
A preloaded stent graft delivery device, comprising: a guidewire catheter having a proximal end, a distal end, and a guide wire lumen therethrough; a trigger wire release assembly at the distal end of the guidewire catheter, the trigger wire release assembly comprising a rotatable section configured to be rotated about a longitudinal axis of the delivery device, a ratchet assembly within an interior surface of the rotatable section of the trigger wire release assembly; a spool within the interior surface of the rotatable section of the trigger wire release assembly, the spool positioned proximal to the ratchet assembly; and, a sheath at least partially disposed coaxially over the guidewire catheter. a guidewire catheter having a proximal end, a distal end, and a guide wire lumen therethrough; a trigger wire release assembly at the distal end of the guidewire catheter, the trigger wire release assembly comprising a rotatable section configured to be rotated about a longitudinal axis of the delivery device, a ratchet assembly within an interior surface of the rotatable section of the trigger wire release assembly; a spool within the interior surface of the rotatable section of the trigger wire release assembly, the spool positioned proximal to the ratchet assembly; and, a sheath at least partially disposed coaxially over the guidewire catheter.
A driveshaft comprising an elongated monolithic composite tube with a front joint having a tube yoke and a rear joint at a distance from the front joint both are provided at corresponding opposite ends thereof an inner layer is comprising glass fibers which are coaxially wound on top of each other, wherein the inner layer of the composite tube is substantially composed of glass fiber; an outer layer of the composite tube is comprising carbon fiber which is coaxially wound directly on the inner layer wherein the outer layer of the composite tube is substantially composed of carbon fiber, and the ratio h1/h2 between the thickness of carbon fiber winding h1 and glass fiber winding h2 is bigger than 0,1 characterized in that the outer periphery of the composite tube is fully composed of the outer facing side of the outer layer and the ratio h1/h2 between the thickness of carbon fiber winding h1 and the thickness of glass fiber winding h2 is between 0,8-1,2.
A nose landing gear assembly for use with a high wing aircraft that defines a nose gear bay, the nose landing gear assembly comprising: an oleo strut; a forward brace comprising a forward brace first end and a forward brace second end, the forward brace first end pivotably couplable to the nose gear bay about a first pivot axis; an aft brace comprising an aft brace first end and an aft brace second end, the aft brace first end pivotably couplable to the nose gear bay about a second pivot axis, and the aft brace second end pivotably coupled to the oleo strut; a pair of side links coupled to and between forward brace and aft brace; a pair of lower links each including a lower link first end pivotally coupled to the oleo strut and a lower link second end pivotally coupled to the forward brace second end; an actuator comprising an actuator first end and an actuator second end, the actuator second end couplable to the nose gear bay and the actuator first end coupled to the forward brace, wherein the actuator is configured to selectively move the nose landing gear assembly between, inclusively, a retracted position and an extended position. an oleo strut; a forward brace comprising a forward brace first end and a forward brace second end, the forward brace first end pivotably couplable to the nose gear bay about a first pivot axis; an aft brace comprising an aft brace first end and an aft brace second end, the aft brace first end pivotably couplable to the nose gear bay about a second pivot axis, and the aft brace second end pivotably coupled to the oleo strut; a pair of side links coupled to and between forward brace and aft brace; a pair of lower links each including a lower link first end pivotally coupled to the oleo strut and a lower link second end pivotally coupled to the forward brace second end; an actuator comprising an actuator first end and an actuator second end, the actuator second end couplable to the nose gear bay and the actuator first end coupled to the forward brace, wherein the actuator is configured to selectively move the nose landing gear assembly between, inclusively, a retracted position and an extended position.