mhurhangee/ep-ind-claims huggingface dataset:
A method of software deployment, comprising: configuring a first service processing engine and a second service processing engine, wherein each of the first and the second service processing engine is configured to perform a service; setting the first service processing engine into an operation status and the second service processing engine into a wait status, wherein the second service processing engine being in the wait status is configured to not receive the service request and to scan for a change that is to affect the performance of the service; detecting the change that is to affect the performance of the service using the second service processing engine being in the wait status; updating the second service processing engine in the wait status based at least in part on the detected change; and setting the updated second service processing engine into the operation status and the first service processing engine into the wait status. configuring a first service processing engine and a second service processing engine, wherein each of the first and the second service processing engine is configured to perform a service; setting the first service processing engine into an operation status and the second service processing engine into a wait status, wherein the second service processing engine being in the wait status is configured to not receive the service request and to scan for a change that is to affect the performance of the service; detecting the change that is to affect the performance of the service using the second service processing engine being in the wait status; updating the second service processing engine in the wait status based at least in part on the detected change; and setting the updated second service processing engine into the operation status and the first service processing engine into the wait status.
A clothes care apparatus comprising: a body comprising a clothes care compartment and a machine room arranged under the clothes care compartment; a steam generation device configured to generate steam; a steam injector comprising: a bottom surface (111c, 211c) inclined downward toward the clothes care compartment, a steam injection port configured to receive the steam from the steam generation device and inject the steam into an inside of the clothes care compartment, and a condensed water outlet inclined downward toward the clothes care compartment and configured to discharge condensed water from the steam into the inside of the clothes care compartment, wherein the steam injection port is arranged above the condensed water outlet; and a drain hole provided in the clothes care compartment below the condensed water outlet to connect the clothes care compartment to the machine room to allow the condensed water discharged from the condensed water outlet to flow into the machine room. a body comprising a clothes care compartment and a machine room arranged under the clothes care compartment; a steam generation device configured to generate steam; a steam injector comprising: a bottom surface (111c, 211c) inclined downward toward the clothes care compartment, a steam injection port configured to receive the steam from the steam generation device and inject the steam into an inside of the clothes care compartment, and a condensed water outlet inclined downward toward the clothes care compartment and configured to discharge condensed water from the steam into the inside of the clothes care compartment, wherein the steam injection port is arranged above the condensed water outlet; and a bottom surface (111c, 211c) inclined downward toward the clothes care compartment, a steam injection port configured to receive the steam from the steam generation device and inject the steam into an inside of the clothes care compartment, and a condensed water outlet inclined downward toward the clothes care compartment and configured to discharge condensed water from the steam into the inside of the clothes care compartment, wherein the steam injection port is arranged above the condensed water outlet; and a drain hole provided in the clothes care compartment below the condensed water outlet to connect the clothes care compartment to the machine room to allow the condensed water discharged from the condensed water outlet to flow into the machine room.
Container having a lid and a container inner space, which has a vertical height, wherein in said container inner space an insert is arranged which is adapted with its rim portion to the peripheral contour of the container inner space and separates the container inner space in a sealing manner between a lower and an upper part, and which can (i) be vertically displaced by a certain amount to a second, lower position in the container, in which position the insert also fully bears against the container inner wall and permanently seals against the container inner wall in the first and the second vertical positions and during the displacement between the same, and/or that (ii) the insert is fixed or can be fixed to the container wall at a predefined level in the container inner space, characterized in that sealing means (81 a) are provided on the container inner wall or on the lid inner face which cooperate with a fixing area of the insert while securing the position of this fixing area radially inwardly.
Method for operating an electric motor using phase gating, said method comprising the following steps: - applying an AC voltage (U w) to a series circuit comprising the electric motor and a triac, wherein the triac turns on by application of an ignition signal and suppresses the flow of a motor current (i) when the magnitude of the motor current (i) falls below a holding current; - determining a time of a virtual zero crossing of the motor current (i) that would flow if the triac were turned on such that, during a half-cycle of a voltage drop (U k) across the triac, a switch-off time (t A) of the triac is detected by means of a sudden voltage change in the voltage (U k) when the triac switches off; - switching on the switching element at a switch-on time (t Z), which is dependent on the time of the virtual zero crossing of the motor current (i) such that a dead time is added to the detected switch-off time (t A), up until which dead time the motor current (i) corresponds to a current value which is greater than the holding current of the triac. - applying an AC voltage (U w) to a series circuit comprising the electric motor and a triac, wherein the triac turns on by application of an ignition signal and suppresses the flow of a motor current (i) when the magnitude of the motor current (i) falls below a holding current; - determining a time of a virtual zero crossing of the motor current (i) that would flow if the triac were turned on such that, during a half-cycle of a voltage drop (U k) across the triac, a switch-off time (t A) of the triac is detected by means of a sudden voltage change in the voltage (U k) when the triac switches off; - switching on the switching element at a switch-on time (t Z), which is dependent on the time of the virtual zero crossing of the motor current (i) such that a dead time is added to the detected switch-off time (t A), up until which dead time the motor current (i) corresponds to a current value which is greater than the holding current of the triac.
Magnetic resonance tomography system comprising a basic field magnet arrangement for generating a basic magnetic field and a plurality of spatially separated measurement stations (Mp, Ms), wherein the magnetic resonance tomography system is configured to use the intended basic magnetic field collectively for the measurement stations (Mp, Ms), wherein the plurality of measurement stations consists of a primary measurement station (Mp) arranged in the main field of the basic magnetic field and at least one secondary measurement station (Ms) to perform a measurement of raw data in the area of the stray field of the basic magnetic field, characterised in that the resulting field vectors of the intended magnetic field profiles at the at least one secondary measuring station (Ms) are inclined by at least 30° to the field vector of the intended basic magnet main field profile at the position of the primary measurement station (Mp).
A method for managing the orientation of a mobile device comprising: determining, by the mobile device, that an object is proximate the mobile device using a proximity sensor of the mobile device; determining, by the mobile device, that an orientation of the mobile device is a first orientation; in response to determining that the object is proximate the mobile device and that the orientation of the mobile device is the first orientation, automatically turning off a display of the mobile device; while the display of the mobile device is turned off, receiving, one or more voice signals based on audible input received by a microphone of the mobile device, determining, by the mobile device, that the orientation of the mobile device is a second orientation, the second orientation being different from the first orientation; and in response to at least one of (a) determining that the object is not proximate the mobile device using the proximity sensor or (b) determining that the orientation of the mobile device is the second orientation, automatically turning on the display of the mobile device. determining, by the mobile device, that an object is proximate the mobile device using a proximity sensor of the mobile device; determining, by the mobile device, that an orientation of the mobile device is a first orientation; in response to determining that the object is proximate the mobile device and that the orientation of the mobile device is the first orientation, automatically turning off a display of the mobile device; while the display of the mobile device is turned off, receiving, one or more voice signals based on audible input received by a microphone of the mobile device, determining, by the mobile device, that the orientation of the mobile device is a second orientation, the second orientation being different from the first orientation; and receiving, one or more voice signals based on audible input received by a microphone of the mobile device, determining, by the mobile device, that the orientation of the mobile device is a second orientation, the second orientation being different from the first orientation; and in response to at least one of (a) determining that the object is not proximate the mobile device using the proximity sensor or (b) determining that the orientation of the mobile device is the second orientation, automatically turning on the display of the mobile device.
Helical drill bit for an auger of a ground excavation assembly, in particular for building excavated piles; said excavation assembly including said auger and an external casing pipe defining an internal axial cavity such as to allow the auger to pass through it, wherein said auger and casing pipe are capable of sliding axially with respect to one another; said auger forming at its periphery a helical or Archimedean screw-type structure and having a support portion defining a proximal section of said helical structure, the extension of which is substantially centred around a longitudinal axis (X-X); said helical drill bit defining at least one helical end section of said helical structure, being associated or associable with said support portion, and being arranged to rotate about said longitudinal axis (X-X) together with said support portion so as to drill a hole into a ground; said helical drill bit being characterized in that said helical end section extends around an axis of extremity (Y-Y; ψ-ψ) which is not aligned relative to said longitudinal axis (X-X).
An exhaust gas cooling system comprising: an exhaust gas-processing tower (3;23) including a spray member (4, 24) disposed at an upper portion of the exhaust gas-processing tower (3;23) for spraying cooling water into an exhaust gas introduced into the exhaust gas-processing tower (3;23) through an inlet (1;21) provided at a lower portion thereof to condense moisture present in the exhaust gas and collecting it as condensed water at a bottom of the exhaust gas-processing tower (3;23) together with exhaust gas processing water; a cooling tower (9;26); and a passageway (13;28) that fluidly connects the exhaust gas-processing tower (3;23) and the cooling tower (9;26)for supplying at least a portion of the condensed water collected at the bottom of the exhaust gas-processing tower (3;23) to the cooling tower (9;26) through said passageway (13;28) in order to make up water lost by the evaporation; whereby said cooling tower (9;26) includes a fan (8;25) and a spray member (10;27) both provided at an upper portion of the cooling tower (9;26) said spray member for spraying cooling water into an air stream in a space inside the cooling tower (9;26) to cool the sprayed cooling water by using heat of evaporation. an exhaust gas-processing tower (3;23) including a spray member (4, 24) disposed at an upper portion of the exhaust gas-processing tower (3;23) for spraying cooling water into an exhaust gas introduced into the exhaust gas-processing tower (3;23) through an inlet (1;21) provided at a lower portion thereof to condense moisture present in the exhaust gas and collecting it as condensed water at a bottom of the exhaust gas-processing tower (3;23) together with exhaust gas processing water; a cooling tower (9;26); and a passageway (13;28) that fluidly connects the exhaust gas-processing tower (3;23) and the cooling tower (9;26)for supplying at least a portion of the condensed water collected at the bottom of the exhaust gas-processing tower (3;23) to the cooling tower (9;26) through said passageway (13;28) in order to make up water lost by the evaporation; whereby said cooling tower (9;26) includes a fan (8;25) and a spray member (10;27) both provided at an upper portion of the cooling tower (9;26) said spray member for spraying cooling water into an air stream in a space inside the cooling tower (9;26) to cool the sprayed cooling water by using heat of evaporation.
An isolated antibody or antigen-binding fragment thereof, wherein the antibody or antigen-binding fragment thereof has specificity to a human CD73 protein and comprises a heavy chain variable region that comprises VH CDR1 comprising the amino acid sequence of SEQ ID NO: 1, a VH CDR2 comprising the amino acid sequence of SEQ ID NO: 2, and a VH CDR3 comprising the amino acid sequence of SEQ ID NO: 3, and (b) a light chain variable region that comprises a VL CDR1 comprising the amino acid sequence of SEQ ID NO: 4, a VL CDR2 comprising the amino acid sequence of SEQ ID NO: 5, and a VL CDR3 comprising the amino acid sequence of SEQ ID NO: 6.
A system for rehabilitation of a limb of a patient, the system comprising: an activity monitor; a robotic exoskeleton unit to assist a movement of the limb of the patient; a brain stimulation unit; and a controller communicatively coupled to the activity monitor and operatively coupled to the robotic exoskeleton unit and the brain stimulation unit, wherein the activity monitor is configured to: in a first pre-specified time frame, detect an activity of the limb of the patient by a voluntary attempt of the patient and generate an effort signal based on the detection; and upon expiry of the first pre-specified time frame, communicate the effort signal to the controller over a second pre-specified time frame, wherein the controller is configured to, upon expiry of the first pre-specified time frame, simultaneously activate the robotic exoskeleton unit and the brain stimulation unit over the initiation of second pre-specified time frame, wherein the robotic exoskeleton unit is configured to complete the movement of the limb of the patient, according to pre-defined set of parameters by the user, over the second pre-specified time frame, and wherein the brain stimulation unit is configured to externally stimulate a local motor region of a brain of the patient to complete a sensorimotor loop over the second pre-specified time frame, wherein the local motor region of the brain of the patient controls the movement of the limb of the patient. an activity monitor; a robotic exoskeleton unit to assist a movement of the limb of the patient; a brain stimulation unit; and a controller communicatively coupled to the activity monitor and operatively coupled to the robotic exoskeleton unit and the brain stimulation unit, wherein the activity monitor is configured to: in a first pre-specified time frame, detect an activity of the limb of the patient by a voluntary attempt of the patient and generate an effort signal based on the detection; and upon expiry of the first pre-specified time frame, communicate the effort signal to the controller over a second pre-specified time frame, in a first pre-specified time frame, detect an activity of the limb of the patient by a voluntary attempt of the patient and generate an effort signal based on the detection; and upon expiry of the first pre-specified time frame, communicate the effort signal to the controller over a second pre-specified time frame, wherein the controller is configured to, upon expiry of the first pre-specified time frame, simultaneously activate the robotic exoskeleton unit and the brain stimulation unit over the initiation of second pre-specified time frame, wherein the robotic exoskeleton unit is configured to complete the movement of the limb of the patient, according to pre-defined set of parameters by the user, over the second pre-specified time frame, and wherein the brain stimulation unit is configured to externally stimulate a local motor region of a brain of the patient to complete a sensorimotor loop over the second pre-specified time frame, wherein the local motor region of the brain of the patient controls the movement of the limb of the patient.
A method for forming a lignin fraction from crude lignin which has been formed by processing by means of a treatment step selected from enzymatic treatment, treatment with ionic liquid and their combinations, wherein the method comprises - treating the crude lignin by a lignin liberation in at least one lignin liberation step in which the crude lignin is treated such that the lignin is liberated by means of a hydrothermal treatment or a dilute acid hydrolysis, and - separating a lignin fraction in at least one solid-solid separation step. - treating the crude lignin by a lignin liberation in at least one lignin liberation step in which the crude lignin is treated such that the lignin is liberated by means of a hydrothermal treatment or a dilute acid hydrolysis, and - separating a lignin fraction in at least one solid-solid separation step.
Method for armouring a window of an existing object comprising - applying a transparent polymer layer to a surface of the window, wherein the strength of the polymer layer is at least 2 MPa and the thickness of the polymer layer is at least 5 mm, wherein the transparent polymer layer is applied while the material for forming the layer is fluid, after which the material is allowed to solidify; and - optionally providing the side of the polymer layer opposite to the window to which it is attached with a transparent plastic sheet having a thickness of less than 1 mm, wherein the polymeric layer is applied without detaching the window from the object and whilst the window remains part of the object, wherein the object is selected from buildings, counters and transports. - applying a transparent polymer layer to a surface of the window, wherein the strength of the polymer layer is at least 2 MPa and the thickness of the polymer layer is at least 5 mm, wherein the transparent polymer layer is applied while the material for forming the layer is fluid, after which the material is allowed to solidify; and - optionally providing the side of the polymer layer opposite to the window to which it is attached with a transparent plastic sheet having a thickness of less than 1 mm,
A method implemented at a satellite terminal for use in a satellite communication system, the method comprising: generating a power margin associated with motion of an antenna of a satellite terminal; and generating a first power limit representing a maximum transmit power for the antenna based, at least in part, on the power margin. generating a power margin associated with motion of an antenna of a satellite terminal; and generating a first power limit representing a maximum transmit power for the antenna based, at least in part, on the power margin.
A method for selecting a sound input, the method comprising: determining a spectral standard deviation value for each of multiple microphones (205a, 205b, 205c, 205d, 205e, 205f); determining a microphone (205a, 205b, 205c, 205d, 205c, 205f) with a lowest spectral standard deviation value at least partially based on a comparison of the spectral standard deviation values for the multiple microphones (205a, 205b, 205c, 205d, 205e, 205f); and selecting the microphone (205a, 205b, 205c, 205d, 205c, 205f) with the lowest spectral standard deviation value as an input for providing sound to a user. determining a spectral standard deviation value for each of multiple microphones (205a, 205b, 205c, 205d, 205e, 205f); determining a microphone (205a, 205b, 205c, 205d, 205c, 205f) with a lowest spectral standard deviation value at least partially based on a comparison of the spectral standard deviation values for the multiple microphones (205a, 205b, 205c, 205d, 205e, 205f); and selecting the microphone (205a, 205b, 205c, 205d, 205c, 205f) with the lowest spectral standard deviation value as an input for providing sound to a user.
Injector for a fuel injection system of an internal combustion engine, in particular in a motor vehicle, - having an injector body which has at least one spray hole, - having a nozzle needle which is arranged with an adjustable stroke in the injector body in order to control an injection of fuel through the at least one spray hole, - having a piezoelectric actuator which is arranged in the injector body in order to generate an actuator stroke, - having a coupler device which is arranged in the injector body in order to transmit the stroke between the piezoelectric actuator and the nozzle needle, - the nozzle needle being arranged with an adjustable stroke relative to the coupler device, - an electromagnetic linear drive being provided for driving the nozzle needle in its stroke direction, and - the linear drive having an electromagnetic coil which is stationary relative to the injector body and an armature which is stationary relative to the nozzle needle, characterized - in that the armature is integrated into the nozzle needle, or - in that a constituent part of the nozzle needle is configured as an armature, or - in that the nozzle needle itself forms the armature. - having an injector body which has at least one spray hole, - having a nozzle needle which is arranged with an adjustable stroke in the injector body in order to control an injection of fuel through the at least one spray hole, - having a piezoelectric actuator which is arranged in the injector body in order to generate an actuator stroke, - having a coupler device which is arranged in the injector body in order to transmit the stroke between the piezoelectric actuator and the nozzle needle, - the nozzle needle being arranged with an adjustable stroke relative to the coupler device, - an electromagnetic linear drive being provided for driving the nozzle needle in its stroke direction, and - the linear drive having an electromagnetic coil which is stationary relative to the injector body and an armature which is stationary relative to the nozzle needle, - in that the armature is integrated into the nozzle needle, or - in that a constituent part of the nozzle needle is configured as an armature, or - in that the nozzle needle itself forms the armature.