mhurhangee/ep-ind-claims huggingface dataset:
Electromyography system comprising: - a first electrode and a second electrode for contacting a skin of a subject, and - a recorder for recording an electromyogram between the first electrode and the second electrode; - the first electrode comprises a first electrode area and a second electrode area for contacting the skin of the subject, wherein the first electrode area and the second electrode area are insulated from each other; and characterized in that - the recorder is configured to perform a noise measurement between the first electrode area and the second electrode area of the first electrode for determining a contact quality of an electrode-skin contact of the first electrode; wherein the system is adapted to determine the contact quality of the electrode-skin contact of the first electrode based on the noise measurement between the first electrode area and the second electrode area of the first electrode; wherein the system further comprises a switching unit for selectively connecting the first electrode area and the second electrode area to a measurement unit of the recorder for performing the noise measurement; or the first electrode and the second electrode to the measurement unit of the recorder for recording the electromyogram. - a first electrode and a second electrode for contacting a skin of a subject, and - a recorder for recording an electromyogram between the first electrode and the second electrode; - the first electrode comprises a first electrode area and a second electrode area for contacting the skin of the subject, wherein the first electrode area and the second electrode area are insulated from each other; and characterized in that - the recorder is configured to perform a noise measurement between the first electrode area and the second electrode area of the first electrode for determining a contact quality of an electrode-skin contact of the first electrode; - the recorder is configured to perform a noise measurement between the first electrode area and the second electrode area of the first electrode for determining a contact quality of an electrode-skin contact of the first electrode; wherein the system is adapted to determine the contact quality of the electrode-skin contact of the first electrode based on the noise measurement between the first electrode area and the second electrode area of the first electrode; wherein the system further comprises a switching unit for selectively connecting the first electrode area and the second electrode area to a measurement unit of the recorder for performing the noise measurement; or the first electrode and the second electrode to the measurement unit of the recorder for recording the electromyogram.
An engine support system for a vehicle, comprising: a frame mount comprising: a telescoping body comprising at least one inner sleeve and at least one outer sleeve configured to slide relative to the inner sleeve; a first arm at a first end of the telescoping body configured to releasably engage a first side of a frame of a vehicle; and a second arm at a second end of the telescoping body opposite the first end configured to releasably engage a second side of the vehicle frame; a first coupler configured to attach to an engine of the vehicle; and a first jack assembly, characterized by a first collar slidably coupled to the telescoping body and configured to move horizontally along the telescoping body; and a first jack rod coupled to the first collar and configured to move vertically relative to the first collar, the first jack rod comprising a body and a ball mount at an end of the body, the ball mount configured to insert into the first coupler at an underside of an engine block of the vehicle. a telescoping body comprising at least one inner sleeve and at least one outer sleeve configured to slide relative to the inner sleeve; a first arm at a first end of the telescoping body configured to releasably engage a first side of a frame of a vehicle; and a second arm at a second end of the telescoping body opposite the first end configured to releasably engage a second side of the vehicle frame; a first coupler configured to attach to an engine of the vehicle; and a first jack assembly, characterized by a first collar slidably coupled to the telescoping body and configured to move horizontally along the telescoping body; and a first jack rod coupled to the first collar and configured to move vertically relative to the first collar, the first jack rod comprising a body and a ball mount at an end of the body, the ball mount configured to insert into the first coupler at an underside of an engine block of the vehicle.
A method for updating tunnel information, characterized in that the method comprises: receiving, by a Mobility Management Entity, MME, tunnel information from a target Home evolved NodeB, HeNB, to which a User Equipment, UE, is to be handed over through a handover acknowledgement message, a handover notification message or a path converting request message; and notifying, by the MME, a fixed network of the received tunnel information through an Evolved Packet Core gateway, EPC gateway, and a Policy and Charging Rules Function entity, PCRF (312, 312a), wherein when there is no S9* session between the PCRF and a Broadband Policy Control Function entity. BPCF, before the handover, the PCRF selects a BPCF according to the received tunnel information, initiates an S9* session establishing operation, and sends the tunnel information to the selected BPCF; or when there exists an S9* session between the PCRF and a BPCF before the handover, the PCRF verifies whether the BPCF having the S9* session between itself and the PCRF is the one indicated by the tunnel information: if so, the PCRF initiates an S9* session modifying operation, and sends the tunnel information to the BPCF; otherwise the PCRF re-selects a BPCF according to the tunnel information, initiates the S9* session establishing operation, and sends the tunnel information to the re-selected BPCF. receiving, by a Mobility Management Entity, MME, tunnel information from a target Home evolved NodeB, HeNB, to which a User Equipment, UE, is to be handed over through a handover acknowledgement message, a handover notification message or a path converting request message; and notifying, by the MME, a fixed network of the received tunnel information through an Evolved Packet Core gateway, EPC gateway, and a Policy and Charging Rules Function entity, PCRF (312, 312a), wherein when there is no S9* session between the PCRF and a Broadband Policy Control Function entity. BPCF, before the handover, the PCRF selects a BPCF according to the received tunnel information, initiates an S9* session establishing operation, and sends the tunnel information to the selected BPCF; or when there exists an S9* session between the PCRF and a BPCF before the handover, the PCRF verifies whether the BPCF having the S9* session between itself and the PCRF is the one indicated by the tunnel information: if so, the PCRF initiates an S9* session modifying operation, and sends the tunnel information to the BPCF; otherwise the PCRF re-selects a BPCF according to the tunnel information, initiates the S9* session establishing operation, and sends the tunnel information to the re-selected BPCF.
An espresso making device, comprising: a source of water; a portafilter; a water pump; a flow sensor for measuring a flow from the pump; the pump delivering the flow to a heating device; and a microprocessor controlling the pump, characterised in that: the microprocessor receives output of the flow sensor and determines from the output a change in flow rate; and that the microprocessor is adapted to determine a volume delivered by the pump through the portafilter based on changes in the flow rate stability over time and to shut off the pump when a target volume has been discharged from the portafilter. a source of water; a portafilter; a water pump; a flow sensor for measuring a flow from the pump; the pump delivering the flow to a heating device; and a microprocessor controlling the pump, characterised in that: the microprocessor receives output of the flow sensor and determines from the output a change in flow rate; and that the microprocessor is adapted to determine a volume delivered by the pump through the portafilter based on changes in the flow rate stability over time and to shut off the pump when a target volume has been discharged from the portafilter. the microprocessor receives output of the flow sensor and determines from the output a change in flow rate; and that the microprocessor is adapted to determine a volume delivered by the pump through the portafilter based on changes in the flow rate stability over time and to shut off the pump when a target volume has been discharged from the portafilter.
A mobile communication device, comprising: a Universal Integrated Circuit Card, UICC, configured to operate in a first transmission protocol mode and a second transmission protocol mode; a first processor configured to set an operational mode of the UICC to the first transmission protocol mode; a second processor configured to, in response to a user input, enable the UICC to fallback from the first transmission protocol mode to the second transmission protocol mode; a battery configured to provide power for the mobile communication device; and a system power monitor unit configured to monitor a power level of the battery and provide an indication of the battery power level to the second processor, wherein the second processor is configured to cause the UICC to fallback from the first transmission protocol mode to the second transmission protocol mode when the indicated power level of the battery reaches a minimum power threshold level. a Universal Integrated Circuit Card, UICC, configured to operate in a first transmission protocol mode and a second transmission protocol mode; a first processor configured to set an operational mode of the UICC to the first transmission protocol mode; a second processor configured to, in response to a user input, enable the UICC to fallback from the first transmission protocol mode to the second transmission protocol mode; a battery configured to provide power for the mobile communication device; and a system power monitor unit configured to monitor a power level of the battery and provide an indication of the battery power level to the second processor, wherein the second processor is configured to cause the UICC to fallback from the first transmission protocol mode to the second transmission protocol mode when the indicated power level of the battery reaches a minimum power threshold level.
A Karl Fischer titration apparatus having a titration flask provided with an injection nozzle for a volumetric titration, electrolytic electrodes including an anode and a cathode with a membrane therebetween, a detection electrode for detecting a polarization state of a solution in the titration flask, and a reference electrode for detecting a potential between the anode and the reference electrode, the apparatus further comprising a burette control unit, an electrolysis control unit, a calculation unit and a changing control unit, wherein the burette control unit is capable of controlling a volumetric titration through the injection nozzle; the changing control unit is adapted to change from a volumetric titration to a coulometric back titration at a point in time (t 4) where the potential indicated by the detection electrode is lower than the end point potential; the electrolysis control unit is capable of controlling a coulometric back titration by means of the electrolytic electrodes using the potential control method; and the calculation unit is adapted to calculate the water content in the sample based on the amount of reagent added during the volumetric titration and the quantity of electricity consumed during the coulometric back titration.
A method for the preparation of - -1-azabicyclo[2.2.2]oct-3-yl-3, 4-dihydro-l-phenyl-2 -isoquinolinecarboxylate (Solifenacin), of the formula and or its pharmaceutically acceptable salts: said method comprising: a. reacting -quinuclidin-3-ol of formula and bis(aryl)carbonate of the formula (IIIa), to form (3 R)-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa): wherein Ar can be substituted phenyl selected from p-nitro phenyl, 4-(trifluoro methyl) phenyl, 4-cyano phenyl, ethyl benzoate, or benzoic acid; and b. treating the reaction mixture comprising (3 R)-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa) obtained from step (a), with -1-phenyl-1, 2, 3, 4-tetrahydroisoquinoline of formula, to obtain - -1-azabicyclo[2.2.2]oct-3-yl-3,4-dihydro-1-phenyl-2 -isoquinolinecarboxylate (Solifenacin) of the Formula a. reacting -quinuclidin-3-ol of formula and bis(aryl)carbonate of the formula (IIIa), to form (3 R)-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa): wherein Ar can be substituted phenyl selected from p-nitro phenyl, 4-(trifluoro methyl) phenyl, 4-cyano phenyl, ethyl benzoate, or benzoic acid; and b. treating the reaction mixture comprising (3 R)-1-azabicyclo[2.2.2]oct-3-yl-4-aryl carbonate of the formula (IVa) obtained from step (a), with -1-phenyl-1, 2, 3, 4-tetrahydroisoquinoline of formula, to obtain - -1-azabicyclo[2.2.2]oct-3-yl-3,4-dihydro-1-phenyl-2 -isoquinolinecarboxylate (Solifenacin) of the Formula
A method of calibrating antenna-position detection associated with a radar system, the radar system including a first gimbal configured to rotate through a range of angular positions and to which an antenna element is coupled, and a first angle sensor configured to detect an angular position of the first gimbal, the method comprising the steps of: storing a calibration table in a memory device; at a processing device, applying a smoothing operation to at least pieces of data stored in the calibration table, wherein the smoothing operation comprises a polynomial curve fitting or a linear interpolation; receiving a commanded antenna position signal; generating an antenna position signal based on the commanded antenna position signal and the result of the applied smoothing operation; and using the generated antenna position signal for analysis of transmitted and received radar information. storing a calibration table in a memory device; at a processing device, applying a smoothing operation to at least pieces of data stored in the calibration table, wherein the smoothing operation comprises a polynomial curve fitting or a linear interpolation; receiving a commanded antenna position signal; generating an antenna position signal based on the commanded antenna position signal and the result of the applied smoothing operation; and using the generated antenna position signal for analysis of transmitted and received radar information. applying a smoothing operation to at least pieces of data stored in the calibration table, wherein the smoothing operation comprises a polynomial curve fitting or a linear interpolation; receiving a commanded antenna position signal; generating an antenna position signal based on the commanded antenna position signal and the result of the applied smoothing operation; and using the generated antenna position signal for analysis of transmitted and received radar information.
Fastening element for fixation to an upright profile of a dry-built ceiling/wall, wherein in addition to at least two lug ends for final fixing one or more hooks for pre-fixing the fastening element to the respective profile leg of the upright profile are provided, which are provided in addition to at least two lug ends for final fixing, wherein the fastening element is constituted essentially U-shaped with two fastening legs and one fastening base, and wherein the respective fastening leg is equipped with at least one lug end and at least one hook, characterized in that the lug end is connected to the fastening leg with the interposition of a material weakening zone.
A method of inhibiting growth of a microorganism on a surface of a medical device comprising coating the surface of the medical device with: (a) a first layer comprising an antimicrobial composition that includes a polypeptide that generates hydrogen peroxide upon exposure to a ligand of the polypeptide; and (b) a second layer comprising an antimicrobial composition comprising a polymer having a quaternary amine moiety; so that microbial growth is inhibited on the surface of the medical device when the surface is exposed to the microorganism. (a) a first layer comprising an antimicrobial composition that includes a polypeptide that generates hydrogen peroxide upon exposure to a ligand of the polypeptide; and (b) a second layer comprising an antimicrobial composition comprising a polymer having a quaternary amine moiety;
A final fluid product, for medical or pharmaceutical use, identity verifying apparatus, said apparatus comprising at least an optical spectroscopy analysis unit determining at least one property of the final fluid product packaged in a final delivery package and issuing at least a verifying signal corresponding to said property, said unit comprising - a device holding said final delivery package; - a probe associated with a source of light located and emitting and directing light through a wall of the final delivery package and the final product and comprising a light sensor receiving said directed light after the light has passed through the final product, said sensor providing light sensor signals; characterized in that said holding device comprises: - a clamping system comprising a reference platform supporting and positioning the final delivery package in a determined position with respect to the probe and a clamping bar which is moveable with respect to the reference platform for pressing the outer wall of the final delivery package in contact with said reference platform, said reference platform receiving light from said light source, said holding device receiving any form of final delivery packages such as syringes, vials or intravenous bags. - a device holding said final delivery package; - a probe associated with a source of light located and emitting and directing light through a wall of the final delivery package and the final product and comprising a light sensor receiving said directed light after the light has passed through the final product, said sensor providing light sensor signals; - a clamping system comprising a reference platform supporting and positioning the final delivery package in a determined position with respect to the probe and a clamping bar which is moveable with respect to the reference platform for pressing the outer wall of the final delivery package in contact with said reference platform, said reference platform receiving light from said light source, said holding device receiving any form of final delivery packages such as syringes, vials or intravenous bags.
Method for automated design of a control loop for regulating a technical process, wherein the control loop has a control section having physically and/or analytically redundant components and has a fault diagnosis unit, and wherein - in a design phase a first mathematical model of the nominal control section and of nominal dynamics of the process is created on the assumption of fault-free behavior by the control loop, - wherein first model elements of a model library are connected up and parameterized, and - in a second step any faults occurring in the control section and the effects of said faults are defined, - the mathematical model and the associated fault definitions are used to produce an integrated model (M0F) of the control loop that contains both fault-free and faulty behavior by the control loop. - in a design phase a first mathematical model of the nominal control section and of nominal dynamics of the process is created on the assumption of fault-free behavior by the control loop, - wherein first model elements of a model library are connected up and parameterized, and - in a second step any faults occurring in the control section and the effects of said faults are defined, - the mathematical model and the associated fault definitions are used to produce an integrated model (M0F) of the control loop that contains both fault-free and faulty behavior by the control loop.
An optical instrument comprising: a housing having a drop-supporting surface for receiving a droplet of liquid; a cover having outer and inner surfaces, the cover being mounted on the housing such that the inner surface faces the drop-supporting surface of the housing; a connector provided on the cover for receiving a light source and providing communication between the light source and the inner surface of the cover; the cover having a loading aperture extending therethrough, the aperture being spaced apart from said connector; a mounting provided between said cover and said housing permitting relative rotational movement between the cover and the housing about an axis between measurement and loading positions, wherein when in said measurement position the connector is positioned relative to the drop-supporting surface such that a light source received in said connector is positioned to illuminate the drop-supporting surface, and when in said loading position the loading aperture is positioned to provide access to the drop-supporting surface; a positioning mechanism provided between said cover and said housing to engage said cover when it reaches said measurement position and thereby ensure that the light source and drop-supporting surface are maintained in fixed spaced-apart relationship. a housing having a drop-supporting surface for receiving a droplet of liquid; a cover having outer and inner surfaces, the cover being mounted on the housing such that the inner surface faces the drop-supporting surface of the housing; a connector provided on the cover for receiving a light source and providing communication between the light source and the inner surface of the cover; the cover having a loading aperture extending therethrough, the aperture being spaced apart from said connector; a mounting provided between said cover and said housing permitting relative rotational movement between the cover and the housing about an axis between measurement and loading positions, wherein when in said measurement position the connector is positioned relative to the drop-supporting surface such that a light source received in said connector is positioned to illuminate the drop-supporting surface, and when in said loading position the loading aperture is positioned to provide access to the drop-supporting surface; a positioning mechanism provided between said cover and said housing to engage said cover when it reaches said measurement position and thereby ensure that the light source and drop-supporting surface are maintained in fixed spaced-apart relationship.
Water soluble polyurethanes resulting from the condensation: a) of at least one monomer of formula: where R designates an alkyl group with 10 to 15 carbon atoms, b) of at least one polyalkylene glycol, and c) of at least one polyisocyanate. a) of at least one monomer of formula: where R designates an alkyl group with 10 to 15 carbon atoms, b) of at least one polyalkylene glycol, and c) of at least one polyisocyanate.