mhurhangee/ep-ind-claims huggingface dataset:
A method for initial setup of an energy storage system suitable for an installation environment when installing the energy storage system, the method comprising: connecting an energy management system and a user terminal with a USB cable; activating, by the user terminal, a USB network through USB tethering for initial setup; allocating, by the energy management system, a preset static IP to the USB network; accessing, by the user terminal, a setting server of the energy management system using the static IP, wherein the accessing the setting server is a step of accessing the setting server by inputting the static IP to an address bar of a web browser of the user terminal; and performing, by the user terminal, initial setup of the energy storage system in the setting server, further comprising setting, by the energy management system, the static IP differently according to an operating system of the user terminal, wherein the allocating the static IP is a step of selectively allocating, by the energy management system, the different static IPs to the different USB networks. connecting an energy management system and a user terminal with a USB cable; activating, by the user terminal, a USB network through USB tethering for initial setup; allocating, by the energy management system, a preset static IP to the USB network; accessing, by the user terminal, a setting server of the energy management system using the static IP, wherein the accessing the setting server is a step of accessing the setting server by inputting the static IP to an address bar of a web browser of the user terminal; and performing, by the user terminal, initial setup of the energy storage system in the setting server, further comprising setting, by the energy management system, the static IP differently according to an operating system of the user terminal, wherein the allocating the static IP is a step of selectively allocating, by the energy management system, the different static IPs to the different USB networks.
Diagnostic test element for the detection of an analyte comprising an enzyme, wherein the enzyme is incorporated in a nanocapsule having pores with a maximum size which is smaller than the size of the enzyme and which is substantially impermeable for the enzyme but permeable for an enzyme substrate and wherein the nanocapsule is obtainable by polyaddition and/or polycondensation of monomers in a water-in-oil-miniemulsion comprising a continuous oil phase and a discontinuous aqueous phase dispersed therein, wherein the enzyme is present in the aqueous phase.
An endoscope apparatus comprising: an endoscope comprising an imaging device that forms color image signals of a body to be observed; a Y/C signal processing circuit that forms brightness/color difference signals from a color image signal obtained by the imaging device; a first storage portion that stores Y/C matrix data for forming a spectral image based on the brightness/color difference signals; and a Y/C spectral image forming circuit, characterized in that when three wavelength ranges are selected, the Y/C spectral image forming circuit reads Y/C matrix data corresponding to the three wavelength ranges from the first storage portion and conducts matrix calculation based on the read Y/C matrix data and the brightness/color difference signals output from the Y/C signal processing circuit to form a spectral image of the three selected wavelength ranges. an endoscope comprising an imaging device that forms color image signals of a body to be observed; a Y/C signal processing circuit that forms brightness/color difference signals from a color image signal obtained by the imaging device; a first storage portion that stores Y/C matrix data for forming a spectral image based on the brightness/color difference signals; and a Y/C spectral image forming circuit,
A surgical instrument comprising: a longitudinally moveable drive member; and an absolute position sensor system, the absolute position sensor system comprising: a sensor element (7026; 7102) mechanically coupled to the longitudinally movable drive member of the surgical instrument; a gear assembly (7014; 7106) coupling the sensor element (7026; 7100) to the longitudinally movable drive member; a position sensor (7012; 7100) operably coupled to the sensor element (7026; 7100), the position sensor (7012; 7100) configured to sense the absolute position angle of the sensor element (7026; 7102); and a microcontroller operatively coupled to the position sensor (7012; 7100), the microcontroller configured to receive a unique position signal from the position sensor (7012; 7100), wherein the unique position signal represents an absolute position angle of the sensor element (7026; 7102) over one revolution of the sensor element (7026; 7102), corresponding to the position of the longitudinally moveable drive member. a longitudinally moveable drive member; and an absolute position sensor system, the absolute position sensor system comprising: a sensor element (7026; 7102) mechanically coupled to the longitudinally movable drive member of the surgical instrument; a gear assembly (7014; 7106) coupling the sensor element (7026; 7100) to the longitudinally movable drive member; a position sensor (7012; 7100) operably coupled to the sensor element (7026; 7100), the position sensor (7012; 7100) configured to sense the absolute position angle of the sensor element (7026; 7102); and a microcontroller operatively coupled to the position sensor (7012; 7100), the microcontroller configured to receive a unique position signal from the position sensor (7012; 7100), wherein the unique position signal represents an absolute position angle of the sensor element (7026; 7102) over one revolution of the sensor element (7026; 7102), corresponding to the position of the longitudinally moveable drive member. a sensor element (7026; 7102) mechanically coupled to the longitudinally movable drive member of the surgical instrument; a gear assembly (7014; 7106) coupling the sensor element (7026; 7100) to the longitudinally movable drive member; a position sensor (7012; 7100) operably coupled to the sensor element (7026; 7100), the position sensor (7012; 7100) configured to sense the absolute position angle of the sensor element (7026; 7102); and a microcontroller operatively coupled to the position sensor (7012; 7100), the microcontroller configured to receive a unique position signal from the position sensor (7012; 7100), wherein the unique position signal represents an absolute position angle of the sensor element (7026; 7102) over one revolution of the sensor element (7026; 7102), corresponding to the position of the longitudinally moveable drive member.
A battery module comprising: a cooling plate having a plurality of refrigerant channels in which a refrigerant circulates; and a plurality of cells that are thermally conductively coupled onto a surface of the cooling plate, and each the refrigerant channel is formed with a plurality of deceleration parts being adapted to decelerate the refrigerant, and a plurality of acceleration parts being adapted to accelerate the refrigerant, wherein the plurality of refrigerant channels are disposed in parallel to each other, characterized in that: the deceleration parts have a constant diameter between an inlet side and an outlet side thereof, and the accelerations parts have a constant diameter between an inlet side and an outlet side thereof, wherein the diameter of the deceleration parts is larger than the diameter of the acceleration parts, the deceleration parts and the acceleration parts are arranged in an alternating order along the refrigerant channel, wherein the order of arrangement of the deceleration parts and the acceleration parts of a refrigerant channel is opposite to the order of arrangement of the deceleration parts and the acceleration parts of an adjacent refrigerant channel. a cooling plate having a plurality of refrigerant channels in which a refrigerant circulates; and a plurality of cells that are thermally conductively coupled onto a surface of the cooling plate, and each the refrigerant channel is formed with a plurality of deceleration parts being adapted to decelerate the refrigerant, and a plurality of acceleration parts being adapted to accelerate the refrigerant, wherein the plurality of refrigerant channels are disposed in parallel to each other, the deceleration parts have a constant diameter between an inlet side and an outlet side thereof, and the accelerations parts have a constant diameter between an inlet side and an outlet side thereof, wherein the diameter of the deceleration parts is larger than the diameter of the acceleration parts, the deceleration parts and the acceleration parts are arranged in an alternating order along the refrigerant channel, wherein the order of arrangement of the deceleration parts and the acceleration parts of a refrigerant channel is opposite to the order of arrangement of the deceleration parts and the acceleration parts of an adjacent refrigerant channel.
A tape feeder detachably mounted on a component mounting machine configured to mount an electronic component on a circuit board with the use of a suction nozzle, the tape feeder comprising: a main body including a carrier tape in which the electronic component is enclosed; and a tape guide (31c, 50) that is disposed on an upper surface of an end portion of the main body at which a component suction position (Pn) where the electronic component is sucked is provided, and guides the carrier tape, wherein the tape feeder includes an end portion guide (31d, 60) that is formed as a separate member from the main body and the tape guide (31c, 50) and is detachably attached to the main body by a nut to fasten and fix the end portion guide (31c, 50) to a screw configured to fasten a member that is separate from the end portion guide (31c, 50) to the main body, wherein the end portion guide (31d, 60) comprises a guide portion configured to guide waste tape, which is the carrier tape from which the electronic components have been removed at the component suction position (Pn), lower than the plane of the lower surface of the tape guide (31c, 50). a main body including a carrier tape in which the electronic component is enclosed; and a tape guide (31c, 50) that is disposed on an upper surface of an end portion of the main body at which a component suction position (Pn) where the electronic component is sucked is provided, and guides the carrier tape, wherein the tape feeder includes an end portion guide (31d, 60) that is formed as a separate member from the main body and the tape guide (31c, 50) and is detachably attached to the main body by a nut to fasten and fix the end portion guide (31c, 50) to a screw configured to fasten a member that is separate from the end portion guide (31c, 50) to the main body, wherein the end portion guide (31d, 60) comprises a guide portion configured to guide waste tape, which is the carrier tape from which the electronic components have been removed at the component suction position (Pn), lower than the plane of the lower surface of the tape guide (31c, 50).
A device for coordinating an Automatic Protection Switching,APS, operation and a recovery operation, comprising a working channel detection unit, a protection protocol unit and a recovery protocol unit, wherein the working channel detection unit is configured to monitor the working channel failures of services and to report a working channel alarm to the protection protocol unit and the recovery protocol unit in the case of failure occurring in the working channel said device being, characterized in that: the protection protocol unit is configured to receive the working channel alarm and to determine whether a recovery operation needs to be started up immediately according to the working channel alarm, wherein if yes, it notifies the recovery protocol unit to start up the recovery operation immediately, otherwise it starts up a Automatic Protection Switching,APS, operation; the recovery protocol unit is configured to receive the working channel alarm and the notification of immediately starting up the recovery operation, wherein it starts up the recovery operation when the notification of immediately starting up the recovery operation is received, or when the working channel alarm received still exists even if the time limit expires; and in that the device further comprises a protection channel detection unit, which is configured to perform fault monitoring on the protection channel of service and to report a protection channel alarm to the protection protocol unit when the protection channel fails; and the protection protocol unit is further configured to receive the protection channel alarm; and in that the protection protocol unit is further configured to determine the type of received alarm, and to record the alarm information of the protection channel and mark the state of the protection channel "on alarm" when the protection channel alarm is received. the protection protocol unit is configured to receive the working channel alarm and to determine whether a recovery operation needs to be started up immediately according to the working channel alarm, wherein if yes, it notifies the recovery protocol unit to start up the recovery operation immediately, otherwise it starts up a Automatic Protection Switching,APS, operation; the recovery protocol unit is configured to receive the working channel alarm and the notification of immediately starting up the recovery operation, wherein it starts up the recovery operation when the notification of immediately starting up the recovery operation is received, or when the working channel alarm received still exists even if the time limit expires; and in that the device further comprises a protection channel detection unit, which is configured to perform fault monitoring on the protection channel of service and to report a protection channel alarm to the protection protocol unit when the protection channel fails; and the protection protocol unit is further configured to receive the protection channel alarm; and in that
Cosmetic composition for treating keratin fibres, preferably human keratin fibres such as the hair, comprising, in a cosmetically acceptable medium: - one or more chemical oxidizing agents, - one or more scleroglucan gums, - one or more phosphorus-based sequestrants. - one or more chemical oxidizing agents, - one or more scleroglucan gums, - one or more phosphorus-based sequestrants.
A method of detecting a flaw in a stretch wrap packaging material, the method comprising: conveying a web of packaging material from a packaging material roll to a body through a packaging material delivery system; and sensing a flaw in the web of packaging material using an ultrasonic flaw detection sensor disposed adjacent the web of packaging material, wherein sensing the flaw includes: emitting an ultrasonic signal from the ultrasonic flaw detection sensor towards the web of packaging material, wherein the ultrasonic flaw detection sensor includes an array of ultrasonic sensors extending in a direction generally transverse to a direction of conveyance of the web of packaging material for sensing flaws at a plurality of positions across a width of the web of packaging material; attempting to detect a reflected ultrasonic signal reflected off of the web of packaging material in response to the emitted ultrasonic signal with the ultrasonic flaw detection sensor during a time-limited detection window; and sensing the flaw in response to a failure to detect the reflected ultrasonic signal with the ultrasonic flaw detection sensor during the time-limited detection window. conveying a web of packaging material from a packaging material roll to a body through a packaging material delivery system; and sensing a flaw in the web of packaging material using an ultrasonic flaw detection sensor disposed adjacent the web of packaging material, wherein sensing the flaw includes: emitting an ultrasonic signal from the ultrasonic flaw detection sensor towards the web of packaging material, wherein the ultrasonic flaw detection sensor includes an array of ultrasonic sensors extending in a direction generally transverse to a direction of conveyance of the web of packaging material for sensing flaws at a plurality of positions across a width of the web of packaging material; attempting to detect a reflected ultrasonic signal reflected off of the web of packaging material in response to the emitted ultrasonic signal with the ultrasonic flaw detection sensor during a time-limited detection window; and sensing the flaw in response to a failure to detect the reflected ultrasonic signal with the ultrasonic flaw detection sensor during the time-limited detection window. emitting an ultrasonic signal from the ultrasonic flaw detection sensor towards the web of packaging material, wherein the ultrasonic flaw detection sensor includes an array of ultrasonic sensors extending in a direction generally transverse to a direction of conveyance of the web of packaging material for sensing flaws at a plurality of positions across a width of the web of packaging material; attempting to detect a reflected ultrasonic signal reflected off of the web of packaging material in response to the emitted ultrasonic signal with the ultrasonic flaw detection sensor during a time-limited detection window; and sensing the flaw in response to a failure to detect the reflected ultrasonic signal with the ultrasonic flaw detection sensor during the time-limited detection window.
A surgical thread, comprising a surface, a cell-retaining structure and cells, wherein the cell-retaining structure comprises cell-retaining elements which protrude from the surface of the thread, characterized in that the thread is only partially colonized by the cells and the cells are present onto surface areas of the thread, which are underneath the cell-retaining elements, or that the cells only colonize the cell-retaining elements of the cell-retaining structure.
Motor vehicle gearbox with a housing, with a shifting unit having a first coupling element and a second coupling element non-rotatably connectable to the first coupling element, with at least one actuating motor, which is designed as an external rotor motor and provided for an actuation of the shifting unit and which has a rotor and a stator, with at least one induction unit, which is provided for an energy supply of the actuating motor and which has at least one primary coil and at least one secondary coil, with at least one gearbox device, which is provided for converting a torque of the actuating motor acting in the circumferential direction into an axially acting actuating force and which has a gearbox unit with a first ring gear, the first coupling element and the stator being permanently non-rotatably connected by means of a first plate unit, characterised in that the stator is permanently non-rotatably connected to at least one gearbox element of the gearbox unit by means of a second plate unit and in that the stator is axially located between the first plate unit and the second plate unit.
A method for producing an antimicrobial fabric or yarn, said method comprising the steps of: (i) immersing a fabric or yarn in an aqueous solution of a metal salt whilst simultaneously subjecting said solution to ultrasonic radiation; and (ii) removing the fabric or yarn from said solution and subsequently converting the metal salt in situ in the fabric or yarn into metal oxide nanoparticles; wherein step (ii) comprises exposing the fabric or yarn, whilst still damp, to ammonia or a primary amine in gaseous form; and heating the fabric or yarn. (i) immersing a fabric or yarn in an aqueous solution of a metal salt whilst simultaneously subjecting said solution to ultrasonic radiation; and (ii) removing the fabric or yarn from said solution and subsequently converting the metal salt in situ in the fabric or yarn into metal oxide nanoparticles;
Air intake structure for a nacelle of an aircraft, said air intake structure delimiting a flow duct and comprising: - a lip having a rearwardly directed U-shaped section, - a first soundproofing panel fixed to the rear of the lip and delimiting the flow duct, - a second soundproofing panel fixed to the rear of the first soundproofing panel and delimiting the flow duct, wherein each soundproofing panel (28, 30) comprises a cellular core (32, 34) which is fixed between an interior skin (36, 38), facing towards the flow duct and pierced with holes facing towards the flow duct, and an exterior skin facing in the opposite direction, wherein the interior skin of the first soundproofing panel has a thickness greater than the thickness of the interior skin of the second soundproofing panel, and wherein each of the interior skins (36, 38) comprises a heat source (48, 50) which is embedded in the mass of said interior skin (36, 38). - a lip having a rearwardly directed U-shaped section, - a first soundproofing panel fixed to the rear of the lip and delimiting the flow duct, - a second soundproofing panel fixed to the rear of the first soundproofing panel and delimiting the flow duct,
An in-line back pressure regulator, comprising: a regulator body defining a sensing chamber and an outlet of a fluid flow path of the fluid regulator, the outlet being in fluid communication with the sensing chamber via a first flow passageway in the regulator body; a bonnet coupled to the regulator body, the bonnet defining an inlet of the fluid flow path and a loading chamber disposed between the sensing chamber and the inlet, wherein the loading chamber is substantially sealed relative to the fluid flow path of the fluid regulator; and a pressure sensor disposed between the inlet and the sensing chamber, the pressure sensor defining a second flow passageway to fluidly couple the inlet and the sensing chamber; characterized in that the second flow passageway is coaxially aligned with the inlet and the outlet. a regulator body defining a sensing chamber and an outlet of a fluid flow path of the fluid regulator, the outlet being in fluid communication with the sensing chamber via a first flow passageway in the regulator body; a bonnet coupled to the regulator body, the bonnet defining an inlet of the fluid flow path and a loading chamber disposed between the sensing chamber and the inlet, wherein the loading chamber is substantially sealed relative to the fluid flow path of the fluid regulator; and a pressure sensor disposed between the inlet and the sensing chamber, the pressure sensor defining a second flow passageway to fluidly couple the inlet and the sensing chamber;