mhurhangee/ep-ind-claims huggingface dataset:
A variable displacement pump for fluids, comprising: - a movable regulation ring arranged to perform, as operating conditions of the pump vary, a rotational movement about a rotation axis between two extreme positions corresponding to a maximum displacement and a minimum displacement of the pump, respectively; - a helical spring opposing the movement of the regulation ring, wherein - the rotation axis is internal to the movable regulation ring, characterised in that - the helical spring has opposite end loops (23A, 23B) arranged to cooperate with centring and transversally retaining projections or recesses (26, 27) associated with said movable regulation ring and with a body of the pump, respectively, said opposite end loops (23A, 23B) resting on planes (24A, 25) forming an angle of about 10° to about 30° in a condition of maximum deformation of the helical spring, in that - the helical spring has an intermediate portion freely deformable during said movement, and in that - the helical spring is built and mounted so that: - a longitudinal axis thereof does not cross said rotation axis and, in a deformed condition of said helical spring, forms a curve lying on a plane perpendicular to the rotation axis. - a movable regulation ring arranged to perform, as operating conditions of the pump vary, a rotational movement about a rotation axis between two extreme positions corresponding to a maximum displacement and a minimum displacement of the pump, respectively; - a helical spring opposing the movement of the regulation ring, wherein - the rotation axis is internal to the movable regulation ring, characterised in that - the helical spring has opposite end loops (23A, 23B) arranged to cooperate with centring and transversally retaining projections or recesses (26, 27) associated with said movable regulation ring and with a body of the pump, respectively, said opposite end loops (23A, 23B) resting on planes (24A, 25) forming an angle of about 10° to about 30° in a condition of maximum deformation of the helical spring, in that - the helical spring has an intermediate portion freely deformable during said movement, and in that - the helical spring is built and mounted so that: - a longitudinal axis thereof does not cross said rotation axis and, in a deformed condition of said helical spring, forms a curve lying on a plane perpendicular to the rotation axis. - a longitudinal axis thereof does not cross said rotation axis and, in a deformed condition of said helical spring, forms a curve lying on a plane perpendicular to the rotation axis.
A mobile terminal, comprising: a display; and a controller configured to cause the display to: display first screen information of a first application; display notification information for notifying occurrence of an event related to a second application; receive a predetermined type of touch input applied to the notification information; execute the second application in response to the predetermined type of touch input; display the first screen information and second screen information of the second application concurrently in a first display format when the predetermined type of touch input is a first type of touch input, wherein the second screen information overlaps with at least part of the first screen information in the first display format; and display the first screen information and the second screen information concurrently in a second display format when the predetermined type of touch input is a second type of touch input, wherein the first screen information and the second screen information do not overlap in the second display format. a display; and a controller configured to cause the display to: display first screen information of a first application; display notification information for notifying occurrence of an event related to a second application; receive a predetermined type of touch input applied to the notification information; execute the second application in response to the predetermined type of touch input; display the first screen information and second screen information of the second application concurrently in a first display format when the predetermined type of touch input is a first type of touch input, wherein the second screen information overlaps with at least part of the first screen information in the first display format; and display the first screen information and the second screen information concurrently in a second display format when the predetermined type of touch input is a second type of touch input, wherein the first screen information and the second screen information do not overlap in the second display format. display first screen information of a first application; display notification information for notifying occurrence of an event related to a second application; receive a predetermined type of touch input applied to the notification information; execute the second application in response to the predetermined type of touch input; display the first screen information and second screen information of the second application concurrently in a first display format when the predetermined type of touch input is a first type of touch input, wherein the second screen information overlaps with at least part of the first screen information in the first display format; and display the first screen information and the second screen information concurrently in a second display format when the predetermined type of touch input is a second type of touch input, wherein the first screen information and the second screen information do not overlap in the second display format.
Venetian blind comprising a blind consisting of blind slats which is raisable and lowerable by means of a certain number of pull up cords, and a lower bottom rail, with the number of pull up cords acting on said bottom rail, further comprising another certain number of reversal cords acting on at least one of the two longitudinal sides of the curtain slats, by which the curtain slats, at least when the curtain is lowered, are tiltable between an opened position, where the curtain slats are spaced from each other, and a closed position where the curtain slats are in contact with each other, and further comprising a guide rail each on either side of the curtain, with a guide element (7, 8) being attached to both narrow sides of the bottom rail and at least part of the curtain slats protruding to the outside, and extending into a guide groove of the associated guide rail in order to guide the bottom rail and the curtain slats, characterized in that the guide rails arranged on either side of the curtain protrude, with a leg arranged on the side of the curtain slats facing the inside of the building, over the narrow sides of the curtain slats in the direction of the slats towards the inside, with each of the curtain slats exhibiting a slats profile extending between two parallel longitudinal sides with a defined outline spaced in the transverse direction of the slats, on which narrow sides of the slats profile the two guiding elements are attached by means of pin sections whose distance in the transverse direction of the slats to the one longitudinal side of the respective curtain slat is smaller than the distance to the other longitudinal side, and with the guide elements being located on the side of the curtain slat facing the L-leg.
A robotic system comprising: a first input device adapted to be operated by a first person; a first manipulator (8, 32) adapted to hold and manipulate a first tool, the first manipulator (8, 32) having a first activatable indicator disposed so as to be sensed by a second person; a second input device adapted to be operated by the first person; a second manipulator (8, 32) adapted to hold and manipulate a second tool, the second manipulator (8, 32) having a second activatable indicator disposed so as to be sensed by the second person; and a processor adapted to: command operation of the first manipulator (8, 32) to manipulate the first tool in response to an input received from the first input device; and command operation of the second manipulator (8, 32) to manipulate the second tool in response to an input received from the second input device; characterized by the processor further adapted to: control activation by the first person of one of the first activatable indicator and the second activatable indicator, so as to indicate to the second person which of the first tool and the second tool is to be replaced by a replacement tool. a first input device adapted to be operated by a first person; a first manipulator (8, 32) adapted to hold and manipulate a first tool, the first manipulator (8, 32) having a first activatable indicator disposed so as to be sensed by a second person; a second input device adapted to be operated by the first person; a second manipulator (8, 32) adapted to hold and manipulate a second tool, the second manipulator (8, 32) having a second activatable indicator disposed so as to be sensed by the second person; and a processor adapted to: command operation of the first manipulator (8, 32) to manipulate the first tool in response to an input received from the first input device; and command operation of the second manipulator (8, 32) to manipulate the second tool in response to an input received from the second input device; characterized by the processor further adapted to: control activation by the first person of one of the first activatable indicator and the second activatable indicator, so as to indicate to the second person which of the first tool and the second tool is to be replaced by a replacement tool. command operation of the first manipulator (8, 32) to manipulate the first tool in response to an input received from the first input device; and command operation of the second manipulator (8, 32) to manipulate the second tool in response to an input received from the second input device; characterized by the processor further adapted to: control activation by the first person of one of the first activatable indicator and the second activatable indicator, so as to indicate to the second person which of the first tool and the second tool is to be replaced by a replacement tool.
A lithium-ion battery module, comprising: - a housing; and - a plurality of lithium-ion battery cells disposed in the housing, wherein each of the plurality of lithium-ion battery cells comprises: - a casing having an electrically conductive material; - a first terminal with a first polarity, the first terminal electrically coupled to the casing; - a second terminal with a second polarity opposite to the first polarity; and - an overcharge protection assembly, wherein the overcharge protection assembly comprises: - a vent flap comprising a dual door configuration such that the vent flap is configured to open down a crease of the vent flap when a pressure in the casing is equal to or exceeds a threshold value; - a conductive spring electrically coupled to the second terminal; and - an insulative component disposed between the conductive spring and the casing when the pressure in the casing is below the threshold value; wherein the vent flap is configured to vent a gas from the casing into the housing and to urge the insulative component from between the conductive spring and the casing such that the conductive spring electrically contacts the casing when the pressure in the casing is equal to or exceeds the threshold value by moving from a closed position of the vent flap to an open position of the vent flap. - a housing; and - a plurality of lithium-ion battery cells disposed in the housing, wherein each of the plurality of lithium-ion battery cells comprises: - a casing having an electrically conductive material; - a first terminal with a first polarity, the first terminal electrically coupled to the casing; - a second terminal with a second polarity opposite to the first polarity; and - an overcharge protection assembly, wherein the overcharge protection assembly comprises: - a vent flap comprising a dual door configuration such that the vent flap is configured to open down a crease of the vent flap when a pressure in the casing is equal to or exceeds a threshold value; - a conductive spring electrically coupled to the second terminal; and - an insulative component disposed between the conductive spring and the casing when the pressure in the casing is below the threshold value; - a casing having an electrically conductive material; - a first terminal with a first polarity, the first terminal electrically coupled to the casing; - a second terminal with a second polarity opposite to the first polarity; and - an overcharge protection assembly, - a vent flap comprising a dual door configuration such that the vent flap is configured to open down a crease of the vent flap when a pressure in the casing is equal to or exceeds a threshold value; - a conductive spring electrically coupled to the second terminal; and - an insulative component disposed between the conductive spring and the casing when the pressure in the casing is below the threshold value;
A system (100, 200) for pacing a heart, comprising: an electrostimulation circuit configured to generate a His-bundle pacing pulse for delivery at or near a His bundle of the heart; a sensing circuit configured to sense, in response to the delivery of the HBP pulse at or near the His bundle, a near-field para-Hisian electrical signal and a far-field cardiac electrical signal representing a ventricular response to the delivery of HBP pulse at or near the His bundle; and a control circuit coupled to the sensing circuit and configured to control the delivery of the HBP pulse according to one or more pacing parameters, the control circuit including a capture verification circuit configured to: detect, from the sensed far-field cardiac electrical signal, a His-bundle response representative of excitation of the His bundle directly resulting from the delivery of the HBP pulse; and detect, from the sensed near-field para-Hisian electrical signal, a para-Hisian myocardial response representative of excitation of a para-Hisian myocardial tissue of the heart directly resulting from the delivery of the HBP pulse; wherein the control circuit includes a parameter adjuster circuit configured to adjust at least one of the one or more pacing parameters based on the detected His-bundle response and the detected para-Hisian myocardial response. an electrostimulation circuit configured to generate a His-bundle pacing pulse for delivery at or near a His bundle of the heart; a sensing circuit configured to sense, in response to the delivery of the HBP pulse at or near the His bundle, a near-field para-Hisian electrical signal and a far-field cardiac electrical signal representing a ventricular response to the delivery of HBP pulse at or near the His bundle; and a control circuit coupled to the sensing circuit and configured to control the delivery of the HBP pulse according to one or more pacing parameters, the control circuit including a capture verification circuit configured to: detect, from the sensed far-field cardiac electrical signal, a His-bundle response representative of excitation of the His bundle directly resulting from the delivery of the HBP pulse; and detect, from the sensed near-field para-Hisian electrical signal, a para-Hisian myocardial response representative of excitation of a para-Hisian myocardial tissue of the heart directly resulting from the delivery of the HBP pulse; detect, from the sensed far-field cardiac electrical signal, a His-bundle response representative of excitation of the His bundle directly resulting from the delivery of the HBP pulse; and detect, from the sensed near-field para-Hisian electrical signal, a para-Hisian myocardial response representative of excitation of a para-Hisian myocardial tissue of the heart directly resulting from the delivery of the HBP pulse; wherein the control circuit includes a parameter adjuster circuit configured to adjust at least one of the one or more pacing parameters based on the detected His-bundle response and the detected para-Hisian myocardial response.
A method, comprising:controlling or setting a transmit power of a femto cell depending on the received power of at least one neighbouring macro cell, the controlling or setting comprising: comparing one of a reception quality of the macro cell and a reception power of the macro cell to a threshold value; and refraining from reducing the transmit power of the femto cell if the one of the reception quality and reception power of the macro cell is below the threshold value. comparing one of a reception quality of the macro cell and a reception power of the macro cell to a threshold value; and refraining from reducing the transmit power of the femto cell if the one of the reception quality and reception power of the macro cell is below the threshold value.
A process for controlling carbon dioxide exhaust from combustion of a gaseous fuel comprising: (a) performing a combustion process by combusting a mixture comprising a gaseous fuel and air, oxygen-enriched air, or oxygen, thereby creating an exhaust stream comprising carbon dioxide and nitrogen; (b) performing a carbon dioxide capture step to remove a portion of carbon dioxide in concentrated form from a first portion of the exhaust stream, thereby creating a concentrated carbon dioxide product stream containing greater than 60 vol% carbon dioxide and an off-gas stream from the capture step that is less concentrated in carbon dioxide than the exhaust stream; (c) providing a membrane having a feed side and a permeate side, and being selectively permeable to carbon dioxide over nitrogen and to carbon dioxide over oxygen; (d) passing concurrently with step (b) a second portion of the exhaust stream across the feed side; (e) passing air, oxygen-enriched air, or oxygen as a sweep stream across the permeate side; (f) withdrawing from the feed side a carbon dioxide-depleted vent stream; (g) withdrawing from the permeate side a permeate stream comprising oxygen and carbon dioxide; (h) passing the permeate stream to step (a) as at least part of the air, oxygen-enriched air, or oxygen used in step (a). (a) performing a combustion process by combusting a mixture comprising a gaseous fuel and air, oxygen-enriched air, or oxygen, thereby creating an exhaust stream comprising carbon dioxide and nitrogen; (b) performing a carbon dioxide capture step to remove a portion of carbon dioxide in concentrated form from a first portion of the exhaust stream, thereby creating a concentrated carbon dioxide product stream containing greater than 60 vol% carbon dioxide and an off-gas stream from the capture step that is less concentrated in carbon dioxide than the exhaust stream; (c) providing a membrane having a feed side and a permeate side, and being selectively permeable to carbon dioxide over nitrogen and to carbon dioxide over oxygen; (d) passing concurrently with step (b) a second portion of the exhaust stream across the feed side; (e) passing air, oxygen-enriched air, or oxygen as a sweep stream across the permeate side; (f) withdrawing from the feed side a carbon dioxide-depleted vent stream; (g) withdrawing from the permeate side a permeate stream comprising oxygen and carbon dioxide; (h) passing the permeate stream to step (a) as at least part of the air, oxygen-enriched air, or oxygen used in step (a).
A process for incorporating decellularized and deantigenated bone tissue on the surface of implants, plates, screws or prostheses made of titanium and its alloys, comprising preparing the bone tissue according to known methods until obtaining a powder that is suspended in an aqueous solution at 10-35% by volume of hydrogen peroxide, at a temperature ranging from 10 to 30°C, for a contact time ranging from 10 minutes to 4 hours, in a ratio of 1:1 by weight and characterized in that the titanium metal substrate is subsequently introduced into this solution for a maximum time of 5 minutes.
An antibacterial supplement comprising a fraction having a molecular weight of 5000 or less obtained from a kombu extract for use in an antibacterial composition with lactoperoxidase system for securing the sanitary conditions in a body.
A method for accessing a service, comprising: identifying, by a user equipment, UE, a network through which an application service provider server enables access to the service; sending, from the UE, an attach request to the network with a client token based on a pre-existing credential associated with the UE and established with the application service provider server, the client token being unrecognizable as a cellular access credential to the network; and authenticating, by the UE, to the network via the application service provider server for sponsored access to the service based on the pre-existing credential. identifying, by a user equipment, UE, a network through which an application service provider server enables access to the service; sending, from the UE, an attach request to the network with a client token based on a pre-existing credential associated with the UE and established with the application service provider server, the client token being unrecognizable as a cellular access credential to the network; and authenticating, by the UE, to the network via the application service provider server for sponsored access to the service based on the pre-existing credential.
A spacecraft comprising: a bus having a nadir side and a zenith side opposite the nadir side; a momentum subsystem configured to store angular momentum relative to a center of mass of the spacecraft; a propulsion subsystem that includes a plurality of electric thrusters installed on the zenith side of the bus to produce a change in velocity (delta-V) on the spacecraft, wherein each of the electric thrusters is coupled to the bus by a two-axis gimbal assembly; and a controller configured to: identify a target spin axis for the spacecraft about which the spacecraft is configured to spin in at least a portion of a transfer orbit; to determine gimbal angles for at least one of the electric thrusters so that thrust forces from the at least one electric thruster are parallel to the target spin axis; and to initiate a burn of the at least one electric thruster at the gimbal angles, the controller being configured to control the momentum subsystem to compensate for a thruster torque produced by the burn of the at least one electric thruster at the gimbal angles. a bus having a nadir side and a zenith side opposite the nadir side; a momentum subsystem configured to store angular momentum relative to a center of mass of the spacecraft; a propulsion subsystem that includes a plurality of electric thrusters installed on the zenith side of the bus to produce a change in velocity (delta-V) on the spacecraft, wherein each of the electric thrusters is coupled to the bus by a two-axis gimbal assembly; and a controller configured to: identify a target spin axis for the spacecraft about which the spacecraft is configured to spin in at least a portion of a transfer orbit; to determine gimbal angles for at least one of the electric thrusters so that thrust forces from the at least one electric thruster are parallel to the target spin axis; and to initiate a burn of the at least one electric thruster at the gimbal angles, the controller being configured to control the momentum subsystem to compensate for a thruster torque produced by the burn of the at least one electric thruster at the gimbal angles.