mhurhangee/ep-ind-claims huggingface dataset:
A hernia repair system, comprising: a deployment device adapted to deploy a hernia repair patch within a body of a patient, wherein the deployment device has a reduced configuration for delivering the hernia repair patch to a placement site within the patient and an expanded configuration for deploying the hernia repair patch; and a fixating component extending from the deployment device characterised in, the fixating component having an unretracted configuration adapted for at least one of attaching or detaching the hernia repair patch to the deployment device and a retracted configuration adapted to attach the hernia repair patch to the deployment device, wherein the fixating component is adapted to pass through the hernia repair patch in the unretracted configuration and to remain passed through the hernia repair patch in the retracted configuration to attach the hernia repair patch to the deployment device. a deployment device adapted to deploy a hernia repair patch within a body of a patient, wherein the deployment device has a reduced configuration for delivering the hernia repair patch to a placement site within the patient and an expanded configuration for deploying the hernia repair patch; and a fixating component extending from the deployment device characterised in, the fixating component having an unretracted configuration adapted for at least one of attaching or detaching the hernia repair patch to the deployment device and a retracted configuration adapted to attach the hernia repair patch to the deployment device,
A coupling assembly for coupling a first gas conduit and a second gas conduit for conveying a pressurized gas stream through the first gas conduit and second gas conduit between a floating structure and an other structure, the coupling assembly comprising - a coupling device arranged for coupling the first gas conduit and the second gas conduit, wherein the coupling device is switchable between a closed state and an open state, wherein in the closed state the coupling device couples the first gas conduit and the second gas conduit to create a gas connection to enable conveying a pressurized gas stream, wherein gas present in the gas connection has a gas pressure and wherein in the open state coupling between the first and second gas conduits (1, 2) is released, - a gas actuator comprising an engagement member, wherein the engagement member is moveable between a first position and second position, wherein the first position is associated with the closed state of the coupling device and the second position is associated with the open state of the coupling device, characterised in that the gas actuator is in gas communication with the gas connection and wherein the gas pressure in the gas connection forces the engagement member to the first position. - a coupling device arranged for coupling the first gas conduit and the second gas conduit, wherein the coupling device is switchable between a closed state and an open state, wherein in the closed state the coupling device couples the first gas conduit and the second gas conduit to create a gas connection to enable conveying a pressurized gas stream, wherein gas present in the gas connection has a gas pressure and wherein in the open state coupling between the first and second gas conduits (1, 2) is released, - a gas actuator comprising an engagement member, wherein the engagement member is moveable between a first position and second position, wherein the first position is associated with the closed state of the coupling device and the second position is associated with the open state of the coupling device,
Elevator with a car operating panel, comprising a touch screen characterized in that at least one push button corresponding to a floor of a building is mounted on the surface of the touch screen and that the at least one push button acts on the touch screen to register elevator calls by disturbing an electromagnetic field created by a sensor of the touch screen with an elastic element of the at least one push button.
Apparatus for removing a section of well tubing comprising: a work string; a hydraulic tensioning device having an upper end and a lower end, the upper end being attachable to the work string, the lower end being moveable longitudinally relative to the upper end by a stroke length between a fully extended position and a fully retracted position in response to fluid pressure within the mechanism and a load applied on either end; a section mill attachable to the lower end of the hydraulic tensioning device, the section mill including a plurality of blades, the blades being arranged to move from a first position within the section mill to a second position being extended to contact the well tubing and thereby mill the tubing in an upward direction; characterised in that: the hydraulic tensioning device includes a self-correcting mechanism to maintain the lower end between the fully extended position and the fully retracted position to provide continuous milling of the well tubing by the section mill at a rate of progress matching a rate at which the work string is lifted. a work string; a hydraulic tensioning device having an upper end and a lower end, the upper end being attachable to the work string, the lower end being moveable longitudinally relative to the upper end by a stroke length between a fully extended position and a fully retracted position in response to fluid pressure within the mechanism and a load applied on either end; a section mill attachable to the lower end of the hydraulic tensioning device, the section mill including a plurality of blades, the blades being arranged to move from a first position within the section mill to a second position being extended to contact the well tubing and thereby mill the tubing in an upward direction; characterised in that: the hydraulic tensioning device includes a self-correcting mechanism to maintain the lower end between the fully extended position and the fully retracted position to provide continuous milling of the well tubing by the section mill at a rate of progress matching a rate at which the work string is lifted.
A blade support for a blade for a razor blade cartridge, the blade support comprising: an elongated body having two ends, wherein the elongated body is bent at an angle to form an upper blade attachment portion and a lower portion, and includes a first bevel disposed at a corner of the underside of the upper blade attachment, characterized in that the elongated body includes a second bevel disposed at an opposing corner of the end of the lower portion, and an indentation near a bend portion of the elongated body in the underside of the upper blade attachment portion, wherein the indentation is sized to accept a spring of the razor blade cartridge, or a channel disposed near a bend portion of the elongated body in the underside of the upper blade attachment portion, wherein the channel is sized to accept a spring of the razor blade cartridge. an elongated body having two ends, wherein the elongated body is bent at an angle to form an upper blade attachment portion and a lower portion, and includes a first bevel disposed at a corner of the underside of the upper blade attachment,
Guiding device for the guidance of a furniture part movable relative to a furniture carcass, in particular a drawer, door or flap, with at least one guide unit which has a carcass rail attachable to the furniture carcass and at least one running rail (18, 24), movably mounted relative to the carcass rail via rail guidance means (19a, 19b) movable in a running direction, and connectable to the movable furniture part, wherein the rail guidance means (19a, 19b) in turn are mounted both movably relative to the carcass rail and also movable relative to at least one of the running rails (18, 24), and when moving outwards into an open position on the one hand strike against a stop on the carcass rail and on the other hand strike against a stop on the running rail (18, 24) and with damping means for damping the striking against the rail guidance means (19a, 19b) on at least one of the stops, wherein the rail guidance means (19a, 19b) have at least two guide sections (29a, 29b) arranged consecutively in the running direction and connected to one another, with resilience in the running direction, by a damping section equipped with the damping means, characterised in that locking means are provided which, in a locking position, may be brought into engagement with the rail guidance means (19a, 19b), in which locking of the relative mobility of the guide sections (29a, 29b) towards one another takes place.
A device for managing the thermal energy of a vehicle comprising an electric motor, comprising: - an electric battery configured to store the electric energy of the vehicle, - an electric machine for transforming the electric energy stored in the battery into mechanical energy for the vehicle, - a module for controlling the temperature of the electric machine comprising a first fluid circuit capable of receiving a first intermediate fluid and a first low temperature heat exchanger, - a heat exchanger of an air conditioning unit, - a water/water heat pump comprising a fluid circuit capable of receiving a heat transfer fluid, - a first heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least the first intermediate fluid of the first fluid circuit of the electric machine temperature control module, - a second heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least one second intermediate fluid of the heat exchanger of the air conditioning unit; - a compressor, - the fluid circuit being configured to fluidly connect the first heat exchanger with the compressor, the compressor with the second heat exchanger and the second heat exchanger with the first heat exchanger, characterised in that the device comprises a battery temperature control module comprising a third fluid circuit capable of receiving a third intermediate fluid and a second low temperature heat exchanger, the third fluid circuit comprising a first bypass branch configured to prevent circulation of the third intermediate fluid at the second low temperature heat exchanger, a second bypass branch configured to ensure the circulation of the third intermediate fluid in the first exchanger of the heat pump and a third bypass branch configured to ensure the circulation of the third intermediate fluid in the second exchanger of the heat pump. - an electric battery configured to store the electric energy of the vehicle, - an electric machine for transforming the electric energy stored in the battery into mechanical energy for the vehicle, - a module for controlling the temperature of the electric machine comprising a first fluid circuit capable of receiving a first intermediate fluid and a first low temperature heat exchanger, - a heat exchanger of an air conditioning unit, - a water/water heat pump comprising a fluid circuit capable of receiving a heat transfer fluid, - a first heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least the first intermediate fluid of the first fluid circuit of the electric machine temperature control module, - a second heat exchanger configured to ensure the heat exchange between the heat transfer fluid of the heat pump and at least one second intermediate fluid of the heat exchanger of the air conditioning unit; - a compressor, - the fluid circuit being configured to fluidly connect the first heat exchanger with the compressor, the compressor with the second heat exchanger and the second heat exchanger with the first heat exchanger,
A clock synchronization circuit, comprising: a multi-phase clock generator configured to generate a plurality of delayed clocks from a source clock, each delayed clock having a unique delay with regard to the source clock; and a selector circuit configured to select from the plurality of delayed clocks to provide a selected delayed clock based upon a phase error between a received local clock and a reference clock having a same frequency as the source clock, the selector circuit being further configured to launch the selected delayed clock through a clock path so as to receive the received local clock from the clock path, and wherein the selector circuit includes a multi-phase detector comprising a first plurality of flip-flops corresponding to the plurality of delayed clocks on a one-to-one basis, each flip-flop in the first plurality of flip-flops being clocked by the received local clock to register the corresponding delayed clock to determine a first digital word representing a phase of the received local clock and wherein the selector circuit includes a second plurality of flip-flops corresponding to the plurality of delayed clocks on a one-to-one basis, each flip-flop in the second plurality of flip-flops being clocked by the reference clock to register the corresponding delayed clock to determine a second digital word representing a phase of the reference clock, and wherein the multi-phase detector is further configured to compare the first and second digital words to determine the phase error. a multi-phase clock generator configured to generate a plurality of delayed clocks from a source clock, each delayed clock having a unique delay with regard to the source clock; and a selector circuit configured to select from the plurality of delayed clocks to provide a selected delayed clock based upon a phase error between a received local clock and a reference clock having a same frequency as the source clock, the selector circuit being further configured to launch the selected delayed clock through a clock path so as to receive the received local clock from the clock path, and wherein the selector circuit includes a multi-phase detector comprising a first plurality of flip-flops corresponding to the plurality of delayed clocks on a one-to-one basis, each flip-flop in the first plurality of flip-flops being clocked by the received local clock to register the corresponding delayed clock to determine a first digital word representing a phase of the received local clock and wherein the selector circuit includes a second plurality of flip-flops corresponding to the plurality of delayed clocks on a one-to-one basis, each flip-flop in the second plurality of flip-flops being clocked by the reference clock to register the corresponding delayed clock to determine a second digital word representing a phase of the reference clock, and wherein the multi-phase detector is further configured to compare the first and second digital words to determine the phase error.
A display device (100, 200, 200a, 300, 300a, 400, 500, 500a, 500b, 500c, 500d, 500e), comprising: a plurality of pixels (111a, 111b, 111c) each comprising a lower electrode, a light emitting layer and an upper electrode, arranged with an interval therebetween, an antenna radiator configured with one or more conductors (201, 301, 501) that are arranged between the plurality of pixels (111a, 111b, 111c); characterized in that the display device further comprises: partition walls (212, 312, 412, 512) disposed between the plurality of pixels (111a, 111b, 111c), thus separating the plurality of pixels (111a, 111b, 111c) from each other, and insulating parts disposed adjacent to the one or more conductors (201, 301, 501), to electrically insulate the one or more conductors (201, 301, 501) from the upper electrode of the plurality of pixels (111a, 111b, 111c); wherein each of the one or more conductors (201, 301, 501) is disposed directly on the upper surface of the corresponding partition wall (212, 312, 412, 512). a plurality of pixels (111a, 111b, 111c) each comprising a lower electrode, a light emitting layer and an upper electrode, arranged with an interval therebetween, an antenna radiator configured with one or more conductors (201, 301, 501) that are arranged between the plurality of pixels (111a, 111b, 111c); characterized in that the display device further comprises: partition walls (212, 312, 412, 512) disposed between the plurality of pixels (111a, 111b, 111c), thus separating the plurality of pixels (111a, 111b, 111c) from each other, and insulating parts disposed adjacent to the one or more conductors (201, 301, 501), to electrically insulate the one or more conductors (201, 301, 501) from the upper electrode of the plurality of pixels (111a, 111b, 111c); wherein each of the one or more conductors (201, 301, 501) is disposed directly on the upper surface of the corresponding partition wall (212, 312, 412, 512). partition walls (212, 312, 412, 512) disposed between the plurality of pixels (111a, 111b, 111c), thus separating the plurality of pixels (111a, 111b, 111c) from each other, and insulating parts disposed adjacent to the one or more conductors (201, 301, 501), to electrically insulate the one or more conductors (201, 301, 501) from the upper electrode of the plurality of pixels (111a, 111b, 111c); wherein each of the one or more conductors (201, 301, 501) is disposed directly on the upper surface of the corresponding partition wall (212, 312, 412, 512).
A hood comprising a fume collector, in fluidic connection with a chimney, and air circulating means for drawing air through said fume collector and directing it into said chimney and further comprising an odour filter adapted to filter said air, characterised in that said odour filter comprises at least two filtering layers (401, 402) arranged consecutively along the direction of flow, wherein said odour filter has a substantially cylindrical shape, thus defining a lateral filtering surface, and said filtering layers (401, 402) are arranged concentrically on said lateral surface, being placed one inside the other, wherein a first filtering layer comprises a pleated textile and a second filtering layer comprises activated carbon, said odour filter further comprising at least one inlet for an air flow, said inlet being substantially transversal to said lateral filtering surface on a base of said odour filter.
A method of filtering depth noise, the method comprising: obtaining depth information of a region that constitutes a filtering target frame of a 3D image being one of a plurality of frames; calculating a number of reference frames associated with the region using the depth information; and updating the depth information of the region in the filtering target frame based on the calculated number of reference frames. obtaining depth information of a region that constitutes a filtering target frame of a 3D image being one of a plurality of frames; calculating a number of reference frames associated with the region using the depth information; and updating the depth information of the region in the filtering target frame based on the calculated number of reference frames.
Machine for processing foods and packaging products, comprising control elements for controlling components of the machine and an operating console for operating the machine by means of the control elements, characterized in that the operating console of the machine has an RFID-interface in the form of an NFC-interface and is configured in such a way that an authentication of a user terminal is carried out by means of authentication data received via the RFID-interface, wherein the operating console is configured in such a way that it establishes a data connection in the event of a successful authentication, wherein the operating console has a WLAN function and/or Bluetooth function and the data connection is established via Bluetooth or WLAN, and wherein the establishment of the data connection comprises the establishment of one or more data connections with one or more other devices, in particular with the user terminal, and/or the provision of an, in particular access-protected, network and/or the login in the or an, in particular access-protected, network.
Method for controlling a braking power of an electric or hybrid vehicle with an electric machine operable in the recuperation mode, wherein - a recuperation power, as drag torque, - or a recuperation power by which a braking torque that prevents reverse rolling is generated, - or a recuperation power by which a reverse rolling speed is limited on a slope can be set or is predefined by at least one first means, wherein, by means of an evaluation and control unit, a recuperation power is determined which can currently be generated taking into account at least one parameter, wherein a difference between the currently generatable recuperation power and the set or predefined recuperation power is determined, wherein the evaluation and control unit controls the electric machine for generating the currently possible recuperation power and an electrically-controllable service brake for generating a braking power in such a way that the determined difference in the recuperation powers is completely or partially compensated for by the service brake from a first time point (t 0) up to a second time point (ti), and the braking torque generated by the service brake to compensate for the difference is reduced linearly or exponentially to zero from the second time point (t 1) up to a third time point (t 2). - a recuperation power, as drag torque, - or a recuperation power by which a braking torque that prevents reverse rolling is generated, - or a recuperation power by which a reverse rolling speed is limited on a slope
A method for generating magnetic resonance, MR, images of a subject from MR data obtained by a magnetic resonance imaging, MRI, system, the method comprising: obtaining input MR spatial frequency data obtained by imaging the subject using the MRI system; and generating an MR image of the subject from the input MR spatial frequency data using a neural network model comprising: a pre-reconstruction neural network configured to process the input MR spatial frequency data, wherein the pre-reconstruction neural network comprises a first neural network configured to suppress RF interference, the first neural network comprising one or more convolutional layers and trained using one or more iterative optimization techniques; a reconstruction neural network configured to generate at least one initial image (230-1,...,230-N) of the subject from output of the pre-reconstruction neural network; and a post-reconstruction neural network configured to generate the MR image of the subject from the at least one initial image of the subject. obtaining input MR spatial frequency data obtained by imaging the subject using the MRI system; and generating an MR image of the subject from the input MR spatial frequency data using a neural network model comprising: a pre-reconstruction neural network configured to process the input MR spatial frequency data, wherein the pre-reconstruction neural network comprises a first neural network configured to suppress RF interference, the first neural network comprising one or more convolutional layers and trained using one or more iterative optimization techniques; a reconstruction neural network configured to generate at least one initial image (230-1,...,230-N) of the subject from output of the pre-reconstruction neural network; and a post-reconstruction neural network configured to generate the MR image of the subject from the at least one initial image of the subject. a pre-reconstruction neural network configured to process the input MR spatial frequency data, wherein the pre-reconstruction neural network comprises a first neural network configured to suppress RF interference, the first neural network comprising one or more convolutional layers and trained using one or more iterative optimization techniques; a reconstruction neural network configured to generate at least one initial image (230-1,...,230-N) of the subject from output of the pre-reconstruction neural network; and a post-reconstruction neural network configured to generate the MR image of the subject from the at least one initial image of the subject.