mhurhangee/patent-ind-claim-en huggingface dataset:
An electrical stimulation system, comprising: at least one electrical stimulation lead , each of the at least one electrical stimulation lead comprising a plurality of stimulation electrodes ; and a processor coupled to the at least one electrical stimulation lead and configured to perform actions, comprising: directing delivery of at least one therapeutic waveform through at least one of the stimulation electrodes of the at least one electrical stimulation lead to tissue of a patient during each of a plurality of therapeutic periods ; directing sensing of an electrical signal using at least one of the stimulation electrodes of the at least one electrical stimulation lead during each of a plurality of sensing periods , wherein the therapeutic periods alternate with the sensing periods; and directing delivery of at least one sensing waveform through at least one of the stimulation electrodes of the at least one electrical stimulation lead during at least one of the sensing periods, wherein the at least one sensing waveform is a biphasic waveform comprising a positive phase and a negative phase. at least one electrical stimulation lead , each of the at least one electrical stimulation lead comprising a plurality of stimulation electrodes ; and a processor coupled to the at least one electrical stimulation lead and configured to perform actions, comprising: directing delivery of at least one therapeutic waveform through at least one of the stimulation electrodes of the at least one electrical stimulation lead to tissue of a patient during each of a plurality of therapeutic periods ; directing sensing of an electrical signal using at least one of the stimulation electrodes of the at least one electrical stimulation lead during each of a plurality of sensing periods , wherein the therapeutic periods alternate with the sensing periods; and directing delivery of at least one sensing waveform through at least one of the stimulation electrodes of the at least one electrical stimulation lead during at least one of the sensing periods, wherein the at least one sensing waveform is a biphasic waveform comprising a positive phase and a negative phase. directing delivery of at least one therapeutic waveform through at least one of the stimulation electrodes of the at least one electrical stimulation lead to tissue of a patient during each of a plurality of therapeutic periods ; directing sensing of an electrical signal using at least one of the stimulation electrodes of the at least one electrical stimulation lead during each of a plurality of sensing periods , wherein the therapeutic periods alternate with the sensing periods; and directing delivery of at least one sensing waveform through at least one of the stimulation electrodes of the at least one electrical stimulation lead during at least one of the sensing periods, wherein the at least one sensing waveform is a biphasic waveform comprising a positive phase and a negative phase.
An electric device comprising: a contact unit , an electromagnet unit configured to drive the contact unit , and a main body frame configured to house the contact unit and the electromagnet unit in a housing section, wherein the main body frame includes a first frame including a flexible protruding plate portion protruding from an open end side, wherein a first direction (Z) and a second direction (X) and a third direction (Y) are orthogonal to each other, wherein the flexible protruding plate portion is arranged on each of two side walls of the first frame , the two side walls being located on opposite sides of each other in the third direction (Y), a second frame facing the first frame in the first direction (Z) to form the housing section, and a snap-fit mechanism configured to connect the first frame to the second frame , the snap-fit mechanism including a fitted portion provided on the flexible protruding plate portion and a fitting projection portion provided on a side wall of the second frame and fitting with the fitted portion, in which the fitted portion and the fitting projection portion are adapted to be fitted by bringing the first frame and the second frame into relative proximity in the first direction, and characterized in that the first frame and the second frame are adapted to be released from fitting by relatively displacing the first frame and the second frame in the second direction (X) orthogonal to the first direction (Z) and to the third direction (Y). a contact unit , an electromagnet unit configured to drive the contact unit , and a main body frame configured to house the contact unit and the electromagnet unit in a housing section, wherein the main body frame includes a first frame including a flexible protruding plate portion protruding from an open end side, wherein a first direction (Z) and a second direction (X) and a third direction (Y) are orthogonal to each other, wherein the flexible protruding plate portion is arranged on each of two side walls of the first frame , the two side walls being located on opposite sides of each other in the third direction (Y), a second frame facing the first frame in the first direction (Z) to form the housing section, and a snap-fit mechanism configured to connect the first frame to the second frame ,
An electromagnetic radiation system for directing an electromagnetic radiation beam at a target having a first arrangement in which the radiation beam is directed along a marking beam path (11a-c) that is within a marking range of the electromagnetic radiation system and a second arrangement in which the radiation beam is directed along a different beam path that is not within the marking range of the electromagnetic radiation system , wherein a positional relationship between the marking beam path (11a-c) and the different beam path satisfies a pre-determined condition at the target when the electromagnetic radiation system is at a pre-determined distance from the target , characterised in that the electromagnetic radiation system comprises: a first moveable optical element comprising a first configuration that causes the radiation beam to follow the marking beam path (11a-c) and a second configuration that causes the radiation beam to follow the different beam path , and an actuator (A, B) configured to drive the first optical element between the first and second configurations. a first moveable optical element comprising a first configuration that causes the radiation beam to follow the marking beam path (11a-c) and a second configuration that causes the radiation beam to follow the different beam path , and an actuator (A, B) configured to drive the first optical element between the first and second configurations.
Home vacuum cleaner comprising: - a body comprising a suction motor configured to generate an air flow through a cleaning head , the body comprising at least one air outlet opening through which the air flow is exhausted towards the outside of the body , - a filtration device disposed in the body upstream from the air outlet opening , the filtration device configured to retain dust particles transported by the air flow, - an acoustic absorption element disposed in the body and covering the air outlet opening , the acoustic absorption element being made from a porous material and comprising an external surface (32.1) abutted against the air outlet opening and an internal surface (32.2) oriented towards the interior of the body , and - an air conduit partially delimited by the internal surface (32.2) of the acoustic absorption element and wherein the air flow is intended to circulate, the air conduit extending substantially in parallel to the internal surface (32.2) of the acoustic absorption element so that a major part of the air flow circulates along the internal surface (32.2) of the acoustic absorption element before escaping through the acoustic absorption element towards the air outlet opening , characterised in that the air conduit comprises, upstream from the acoustic absorption element , a flow guide wall which adjoins the acoustic absorption element and which is flush with the internal surface (32.2) of the acoustic absorption element . - a body comprising a suction motor configured to generate an air flow through a cleaning head , the body comprising at least one air outlet opening through which the air flow is exhausted towards the outside of the body , - a filtration device disposed in the body upstream from the air outlet opening , the filtration device configured to retain dust particles transported by the air flow, - an acoustic absorption element disposed in the body and covering the air outlet opening , the acoustic absorption element being made from a porous material and comprising an external surface (32.1) abutted against the air outlet opening and an internal surface (32.2) oriented towards the interior of the body , and - an air conduit partially delimited by the internal surface (32.2) of the acoustic absorption element and wherein the air flow is intended to circulate, the air conduit extending substantially in parallel to the internal surface (32.2) of the acoustic absorption element so that a major part of the air flow circulates along the internal surface (32.2) of the acoustic absorption element before escaping through the acoustic absorption element towards the air outlet opening ,
Inhalation device for generation of an aerosol of a medically active liquid, comprising: a housing , inside this housing a reservoir for storing said medically active liquid, downstream this reservoir a pumping unit for generation of a pressure connected to a means for the delivery of mechanical energy to said pumping unit , and downstream said pumping unit a nozzle ; wherein the pumping unit comprises a hollow cylindrical part and a piston , the cylindrical part having an interior space with a defined first cross section (A1) configured to receive an upstream end portion of said piston , wherein said cylindrical part and said piston are linearly moveable relative to one another such as to form a pumping chamber having a variable volume, wherein the means for the delivery of mechanical energy is a pressurised gas, wherein the inhalation device comprises a pressure chamber having an internal volume for holding said pressurized gas, a wall of said pressure chamber being provided by a plunger which is configured to perform a reciprocating linear movement such as to change the internal volume of the pressure chamber , wherein the plunger is mechanically coupled to the piston or to the cylindrical part of the pumping unit , and wherein the plunger exhibits a cross section (A2) which is larger than the cross section (A1) of the pumping chamber. a housing , inside this housing a reservoir for storing said medically active liquid, downstream this reservoir a pumping unit for generation of a pressure connected to a means for the delivery of mechanical energy to said pumping unit , and downstream said pumping unit a nozzle ; wherein the pumping unit comprises a hollow cylindrical part and a piston , the cylindrical part having an interior space with a defined first cross section (A1) configured to receive an upstream end portion of said piston , wherein said cylindrical part and said piston are linearly moveable relative to one another such as to form a pumping chamber having a variable volume, wherein the means for the delivery of mechanical energy is a pressurised gas, wherein the inhalation device comprises a pressure chamber having an internal volume for holding said pressurized gas, a wall of said pressure chamber being provided by a plunger which is configured to perform a reciprocating linear movement such as to change the internal volume of the pressure chamber , wherein the plunger is mechanically coupled to the piston or to the cylindrical part of the pumping unit , and wherein the plunger exhibits a cross section (A2) which is larger than the cross section (A1) of the pumping chamber.
An organic light emitting display comprising: light emitting elements disposed on an active area (AA) of a substrate ; an encapsulation unit disposed on the light emitting elements and including at least one inorganic encapsulation layer and at least one organic encapsulation layer ; a touch sensor disposed on the encapsulation unit ; dams surrounding the active area (AA) and forming a boundary for the at least one organic encapsulation layer ; a compensation film covering the dams , wherein the compensation film is provided between a touch pad and the at least one organic encapsulation layer and between the touch pad and the at least one inorganic encapsulation layer and have different thicknesses (d1, d2) in a region above the dams and in a boundary region between the dams and the at least one organic encapsulation layer , and routing lines disposed on the compensation film . light emitting elements disposed on an active area (AA) of a substrate ; an encapsulation unit disposed on the light emitting elements and including at least one inorganic encapsulation layer and at least one organic encapsulation layer ; a touch sensor disposed on the encapsulation unit ; dams surrounding the active area (AA) and forming a boundary for the at least one organic encapsulation layer ; a compensation film covering the dams , wherein the compensation film is provided between a touch pad and the at least one organic encapsulation layer and between the touch pad and the at least one inorganic encapsulation layer and have different thicknesses (d1, d2) in a region above the dams and in a boundary region between the dams and the at least one organic encapsulation layer , and routing lines disposed on the compensation film .
A stop device which has a frame comprising: (i) a stop member movable in rotation between a stop position and a retracted position, (ii) a lever movable in rotation between a position for holding the stop member and a position for releasing the stop member allowing the stop member to move into the retracted position, and (iii) a control cam driven in rotation by an electric motor, the control cam being configured to move the lever from the holding position to the release position, the lever comprising a holding portion configured to cooperate with a bearing surface of the stop member , so that in the holding position the holding portion of the lever is engaged against the bearing surface of the stop member outside the plane defined by the axes of rotation of the lever and the stop member , and in the release position the holding portion is spaced from the stop member , characterized in that the lever further comprises a pusher member configured to exert a force on the frame to hold the lever in the position for holding the stop member . (i) a stop member movable in rotation between a stop position and a retracted position, (ii) a lever movable in rotation between a position for holding the stop member and a position for releasing the stop member allowing the stop member to move into the retracted position, and (iii) a control cam driven in rotation by an electric motor, the control cam being configured to move the lever from the holding position to the release position, the lever comprising a holding portion configured to cooperate with a bearing surface of the stop member , so that in the holding position the holding portion of the lever is engaged against the bearing surface of the stop member outside the plane defined by the axes of rotation of the lever and the stop member , and in the release position the holding portion is spaced from the stop member , characterized in that the lever further comprises a pusher member configured to exert a force on the frame to hold the lever in the position for holding the stop member .
A battery system , comprising: a system frame with a pair of first frame beams extending in a first direction and being connected to a pair of second frame beams extending in a second direction substantially perpendicular to the first direction; a plurality of traverses spaced apart in the first direction and assembled to the pair of first frame beams ; a plurality of battery modules , each battery module comprising a first plurality of aligned battery cells stacked in the second direction and a second plurality of aligned battery cells stacked in the second direction, wherein the first and second pluralities of aligned battery cells of each battery module are spaced apart in the first direction and are mechanically and electrically connected to each other via a respective dual module connection unit , wherein each battery module is assembled to one traverse being inserted into a gap between the first and second plurality of aligned battery cells , the width of the gap corresponding to the width of the inserted traverse , wherein thermal pads are disposed between at least one side wall of each battery cell and a traverse , and wherein the first frame beams comprise coolant supply lines and at least one traverse comprises a coolant duct that is fluidly connected to the coolant supply lines . a system frame with a pair of first frame beams extending in a first direction and being connected to a pair of second frame beams extending in a second direction substantially perpendicular to the first direction; a plurality of traverses spaced apart in the first direction and assembled to the pair of first frame beams ; a plurality of battery modules , each battery module comprising a first plurality of aligned battery cells stacked in the second direction and a second plurality of aligned battery cells stacked in the second direction, wherein the first and second pluralities of aligned battery cells of each battery module are spaced apart in the first direction and are mechanically and electrically connected to each other via a respective dual module connection unit , wherein each battery module is assembled to one traverse being inserted into a gap between the first and second plurality of aligned battery cells , the width of the gap corresponding to the width of the inserted traverse , wherein thermal pads are disposed between at least one side wall of each battery cell and a traverse , and wherein the first frame beams comprise coolant supply lines and at least one traverse comprises a coolant duct that is fluidly connected to the coolant supply lines .
A computer-implemented method for detecting vulnerabilities on servers, the method being performed by a computing device comprising at least one processor, the method comprising: sending a set of requests to a set of servers for information about a set of services potentially executing on each server in the set of servers; receiving, in response to the set of requests, a set of messages from the set of servers that comprise the information about the set of services, wherein the set of messages use a plurality of different formats for transmitting the information about different services within the set of services; creating, by analyzing the set of messages, at least one heuristic that is capable of automatically extracting, from a message, an identifier of a service within the set of services that executes on a server that sent the message; extracting, from the message, via the at least one heuristic, the identifier of the service on the server that sent the message; and determining, based on the identifier of the service, that the service contributes to a vulnerability on the server that sent the message. sending a set of requests to a set of servers for information about a set of services potentially executing on each server in the set of servers; receiving, in response to the set of requests, a set of messages from the set of servers that comprise the information about the set of services, wherein the set of messages use a plurality of different formats for transmitting the information about different services within the set of services; creating, by analyzing the set of messages, at least one heuristic that is capable of automatically extracting, from a message, an identifier of a service within the set of services that executes on a server that sent the message; extracting, from the message, via the at least one heuristic, the identifier of the service on the server that sent the message; and determining, based on the identifier of the service, that the service contributes to a vulnerability on the server that sent the message.
An electrochemical energy-storage cell comprising: a flexible positive electrode ; a flexible negative electrode including a gallium-based liquid metal dispersed on a flexible wire mesh , wherein the flexible wire mesh is liquid-metal wettable; and a membrane having one face in contact with the flexible positive electrode and an opposing face in contact with the flexible negative electrode . a flexible positive electrode ; a flexible negative electrode including a gallium-based liquid metal dispersed on a flexible wire mesh , wherein the flexible wire mesh is liquid-metal wettable; and a membrane having one face in contact with the flexible positive electrode and an opposing face in contact with the flexible negative electrode .
The use of a composition comprising a polyalkyleneimine and/or a salt or derivative thereof for the prevention of corrosion of non-metallic inorganic items during a washing or rinsing process, wherein the polyalkyleneimine is used in a washing or rinsing cycle in an automatic dishwasher in an amount of from 0.5 mg up to 100 mg per wash or rinse cycle.
A surgical generator for use with at least one surgical instrument , comprising: a power supply ; an output stage; an ultrasonic generator module configured to provide at the output stage an ultrasonic drive signal for driving an ultrasonic surgical device ; an electrosurgical generator module configured to provide at the output stage an electrosurgical drive signal for driving an electrosurgical device ; a power amplifier in communication with a programmable logic device ; and a power transformer in electrical communication with the power amplifier ; wherein the power transformer comprises a primary winding and a secondary winding isolated from the primary winding , wherein the secondary winding comprises a first end , a second end , and a tap positioned between the first end and the second end ; wherein the ultrasonic drive signal is provided between the first end and the second end of the secondary winding ; and wherein the electrosurgical drive signal is provided between the tap and the second end of the secondary winding . a power supply ; an output stage; an ultrasonic generator module configured to provide at the output stage an ultrasonic drive signal for driving an ultrasonic surgical device ; an electrosurgical generator module configured to provide at the output stage an electrosurgical drive signal for driving an electrosurgical device ; a power amplifier in communication with a programmable logic device ; and a power transformer in electrical communication with the power amplifier ; wherein the power transformer comprises a primary winding and a secondary winding isolated from the primary winding , wherein the secondary winding comprises a first end , a second end , and a tap positioned between the first end and the second end ; wherein the ultrasonic drive signal is provided between the first end and the second end of the secondary winding ; and wherein the electrosurgical drive signal is provided between the tap and the second end of the secondary winding .