mhurhangee/ep-ind-claims huggingface dataset:
A valve for use in an endoscope, the valve comprising: a proximal valve stem member having a first lumen extending from a proximal opening at a proximalmost end of the proximal valve stem member to a distal opening at a distalmost end of the proximal valve stem member; and a distal valve stem member having a second lumen with a proximal opening at a proximalmost end of the distal valve stem member; wherein the proximalmost end of distal valve stem member is received within the distal opening of the first lumen, and wherein the distal valve stem is movable relative to the proximal valve stem, characterized in that: the proximal valve stem member includes a membrane within the first lumen that forms a fluid tight barrier between the proximal opening and the distal opening; in a first configuration, the proximalmost end of the distal valve stem member is distal to an original location of the membrane so that the first lumen is not in fluid communication with the second lumen; and in a second configuration, the membrane is punctured and the proximalmost end of the distal valve stem is proximal to the original location of the membrane so that the first lumen is in fluid communication with the second lumen. a proximal valve stem member having a first lumen extending from a proximal opening at a proximalmost end of the proximal valve stem member to a distal opening at a distalmost end of the proximal valve stem member; and a distal valve stem member having a second lumen with a proximal opening at a proximalmost end of the distal valve stem member; wherein the proximalmost end of distal valve stem member is received within the distal opening of the first lumen, and wherein the distal valve stem is movable relative to the proximal valve stem, characterized in that: the proximal valve stem member includes a membrane within the first lumen that forms a fluid tight barrier between the proximal opening and the distal opening; in a first configuration, the proximalmost end of the distal valve stem member is distal to an original location of the membrane so that the first lumen is not in fluid communication with the second lumen; and in a second configuration, the membrane is punctured and the proximalmost end of the distal valve stem is proximal to the original location of the membrane so that the first lumen is in fluid communication with the second lumen. the proximal valve stem member includes a membrane within the first lumen that forms a fluid tight barrier between the proximal opening and the distal opening; in a first configuration, the proximalmost end of the distal valve stem member is distal to an original location of the membrane so that the first lumen is not in fluid communication with the second lumen; and in a second configuration, the membrane is punctured and the proximalmost end of the distal valve stem is proximal to the original location of the membrane so that the first lumen is in fluid communication with the second lumen.
A metallurgical assembly comprising: a refractory vessel including sides and a base, wherein the base defines a plurality of apertures centrally located within the base, wherein the sides and the base at least partially define an interior volume of the refractory vessel, wherein the refractory vessel comprises at least two layers of material, wherein an exterior layer comprises an insulating material, and wherein an interior layer comprises a material configured to be chemically compatible with an electrolyte contained within the interior volume of the refractory vessel; a lid removably coupled with the refractory vessel and configured to form a seal with the refractory vessel, wherein the lid defines a plurality of apertures through the lid; and a current collector proximate the base of the refractory vessel, wherein the current collector includes conductive extensions positioned within the plurality of apertures centrally located within the base. a refractory vessel including sides and a base, wherein the base defines a plurality of apertures centrally located within the base, wherein the sides and the base at least partially define an interior volume of the refractory vessel, wherein the refractory vessel comprises at least two layers of material, wherein an exterior layer comprises an insulating material, and wherein an interior layer comprises a material configured to be chemically compatible with an electrolyte contained within the interior volume of the refractory vessel; a lid removably coupled with the refractory vessel and configured to form a seal with the refractory vessel, wherein the lid defines a plurality of apertures through the lid; and a current collector proximate the base of the refractory vessel, wherein the current collector includes conductive extensions positioned within the plurality of apertures centrally located within the base.
Steam cooker accessory for heating and/or steaming food contained in a container, the steam cooker accessory comprising an enclosure having an outer side wall and a bottom wall, a steam generator configured to supply steam to the enclosure, the steam generator having a steam-generating chamber connected to a steam distribution outlet provided in a lower portion of the steam generator, the enclosure including a water reservoir surrounding and supplying water to the steam-generating chamber through at least one water supply inlet, the steam-generating chamber communicating with a steam discharge outlet arranged higher than the water supply inlet, the steam-generating chamber comprising a heating device, the enclosure comprising a first side wall surrounding the heating device and at least partially delimiting the steam-generating chamber, characterised in that the enclosure comprises a second side wall surrounding the first side wall at a distance from the outer side wall, the steam-generating chamber communicating with the steam discharge outlet via a steam diffusion chamber arranged around the steam-generating chamber, the steam diffusion chamber being delimited by the first side wall and the second side wall.
Method for operating a converter system, the current fed into the 3-phase AC voltage supply grid by a regenerative inverter, in particular the current fed to the rectifier that backfeeds into the AC voltage supply grid, being controlled towards a setpoint characteristic by means of a DC-to-DC converter, characterised in that the setpoint characteristic passes through a zero point in a continuously differentiable manner at the zero crossing times of a particular conductor voltage of the 3-phase AC voltage supply grid and at each intersection time of the phase voltages.
A low emissivity glass comprising: a low emissivity layer containing electrically conductive metal; wherein a first dielectric layer is formed on the lower surface of the low emissivity layer and a second dielectric layer is formed on the upper surface of the low emissivity layer, wherein the first and second dielectric layers comprise a composite metal oxide expressed by the following chemical formula 1: TiCeO X wherein Ti is titanium element, Ce is cerium element, and Ox is an oxide; wherein the composite metal oxide comprises 80 to 90% by weight of titanium oxide and 10 to 20% by weight of cerium oxide; wherein the first dielectric layer and the second dielectric layer, respectively have a thickness of 10 nm to 100 nm; and wherein visible light transmissivity of the low emissivity glass is 75% or more. a low emissivity layer containing electrically conductive metal; wherein a first dielectric layer is formed on the lower surface of the low emissivity layer and a second dielectric layer is formed on the upper surface of the low emissivity layer, wherein the first and second dielectric layers comprise a composite metal oxide expressed by the following chemical formula 1: TiCeO X wherein Ti is titanium element, Ce is cerium element, and Ox is an oxide; wherein the composite metal oxide comprises 80 to 90% by weight of titanium oxide and 10 to 20% by weight of cerium oxide; wherein the first dielectric layer and the second dielectric layer, respectively have a thickness of 10 nm to 100 nm; and wherein visible light transmissivity of the low emissivity glass is 75% or more. wherein Ti is titanium element, Ce is cerium element, and Ox is an oxide; wherein the composite metal oxide comprises 80 to 90% by weight of titanium oxide and 10 to 20% by weight of cerium oxide; wherein the first dielectric layer and the second dielectric layer, respectively have a thickness of 10 nm to 100 nm; and wherein visible light transmissivity of the low emissivity glass is 75% or more.
A cooktop comprising: - a support having a suction opening; a top surface, a bottom surface and a connecting edge between the top surface and the bottom surface; said connecting edge having a front surface and a rear surface opposite to said front surface; - one or more heating elements arranged on said support in proximity to said top surface; - suction means connected in fluid communication with said suction opening and configured to draw in cooking fumes, in proximity to said heating elements, said suction means comprising first and second filter; - said first filter having a first seat and comprising a first filter element in said first seat, said first seat being accessible through said suction opening to allow the extraction and/or insertion of said first filtering element; - said second filter, located downstream from said first filter, having a second seat, separate from said first seat, and comprising a plurality of second filter elements of different types with respect to said first filter element and inserted in said second seat; characterized in that - said second seat is located at the rear surface of the edge and said first seat is interposed between said suction opening and said second seat; - said second seat is accessible through said first seat, to allow the extraction and/or insertion of said second filter elements through said suction opening, passing through said first seat. - a support having a suction opening; a top surface, a bottom surface and a connecting edge between the top surface and the bottom surface; said connecting edge having a front surface and a rear surface opposite to said front surface; - one or more heating elements arranged on said support in proximity to said top surface; - suction means connected in fluid communication with said suction opening and configured to draw in cooking fumes, in proximity to said heating elements, said suction means comprising first and second filter; - said first filter having a first seat and comprising a first filter element in said first seat, said first seat being accessible through said suction opening to allow the extraction and/or insertion of said first filtering element; - said second filter, located downstream from said first filter, having a second seat, separate from said first seat, and comprising a plurality of second filter elements of different types with respect to said first filter element and inserted in said second seat; - said second seat is located at the rear surface of the edge and said first seat is interposed between said suction opening and said second seat; - said second seat is accessible through said first seat, to allow the extraction and/or insertion of said second filter elements through said suction opening, passing through said first seat.
Safety chair with an ISOFIX anti-return mechanism, comprising a base, a seat part and an ISOFIX connector, wherein the base and the seat part are separably connected, the ISOFIX connector is slidably disposed on the base, characterized in that the safety chair further comprises an anti-return assembly unit which is rotatably mounted in the base, an elastic element mounted between the anti-return assembly unit and the base, one end of the anti-return assembly unit extends towards the seat part to form a seat end and the other end extends towards the ISOFIX connector to form a connector end, so as to make the anti-return assembly unit rotate between an anti-return position and a non anti-return position by means of the self-weight of the seat part and the effect of the elastic element, when the anti-return assembly unit rotates to the anti-return position, the connector end rests against back end of the ISOFIX connector which thus cannot retract; a front end of the ISOFIX connector is adapted to connect to a socket of car seat, the back end of the ISOFIX connector is provided with a shift rod which can move up and down, the shift rod is held in an upper position by the elastic element, so that the connector end of the anti-return assembly unit can rest against a back end of the shift rod after that the ISOFIX connector is pulled out from the base, the safety chair further comprising a belt, one end of the belt connected to the shift rod, the other end extending outside the base.
An apparatus for use in a wireless communication system comprising: a processor for generating a list comprising at least one identifier, the list associated with a mobile station, each identifier identifying one of a plurality of base stations in a subset of the mobile station's active set from which a first message may be received at the mobile station; a transmitter for transmitting a second message to the mobile station, wherein the processor further generates the second message comprising one or more of the identifiers from the list, wherein the second message directs the mobile station to add an identifier to a list of base stations identifiers stored in the mobile station. a processor for generating a list comprising at least one identifier, the list associated with a mobile station, each identifier identifying one of a plurality of base stations in a subset of the mobile station's active set from which a first message may be received at the mobile station; a transmitter for transmitting a second message to the mobile station, wherein the processor further generates the second message comprising one or more of the identifiers from the list, wherein the second message directs the mobile station to add an identifier to a list of base stations identifiers stored in the mobile station.
A method performed by a base station in a wireless communication system, the method comprising: receiving, from an access and mobility management function, AMF, a first message including first information indicating that a mobile initiated communication only, MICO, mode is used by a terminal; identifying whether the first message further includes second information on a time to maintain the terminal of the MICO mode in a connected state; maintaining the terminal in the connected state for the time based on the second information, in case that the first message further includes the second information; determining whether to release the connection of the terminal of the MICO mode based on the second information; and, in case that it is determined to release the connection of the terminal of the MICO mode, transmitting, to the AMF, a second message making a request for releasing the connection. receiving, from an access and mobility management function, AMF, a first message including first information indicating that a mobile initiated communication only, MICO, mode is used by a terminal; identifying whether the first message further includes second information on a time to maintain the terminal of the MICO mode in a connected state; maintaining the terminal in the connected state for the time based on the second information, in case that the first message further includes the second information; determining whether to release the connection of the terminal of the MICO mode based on the second information; and, in case that it is determined to release the connection of the terminal of the MICO mode, transmitting, to the AMF, a second message making a request for releasing the connection.
Method for producing a composite structure comprising a thin layer which is made of monocrystalline silicon carbide and arranged on a support substrate made of silicon carbide, the method comprising: a) a step of providing a donor substrate made of monocrystalline silicon carbide, b) a step of implanting ions of light species into the donor substrate to form a buried brittle plane which delimits the thin layer between the buried brittle plane and a free surface of the donor substrate, c) a succession of n steps of forming crystallized support layers (20"), with n being greater than or equal to 2; the n crystallized support layers (20") being arranged on the front face of the donor substrate successively one on top of the other, and forming the support substrate; each forming step comprising: - chemical vapor deposition assisted by direct liquid injection, at a temperature of less than 900°C, to form a support layer, said support layer being formed by an at least partially amorphous SiC matrix, and having a thickness less than or equal to 200 microns; - a heat treatment for crystallizing the support layer, at a temperature less than or equal to 1000°C, to form a crystallized support layer (20"), d) a step of separating along the buried brittle plane to form a composite structure which comprises the thin layer on the support substrate on one side and the remainder of the donor substrate on the other. a) a step of providing a donor substrate made of monocrystalline silicon carbide, b) a step of implanting ions of light species into the donor substrate to form a buried brittle plane which delimits the thin layer between the buried brittle plane and a free surface of the donor substrate, c) a succession of n steps of forming crystallized support layers (20"), with n being greater than or equal to 2; the n crystallized support layers (20") being arranged on the front face of the donor substrate successively one on top of the other, and forming the support substrate; each forming step comprising: - chemical vapor deposition assisted by direct liquid injection, at a temperature of less than 900°C, to form a support layer, said support layer being formed by an at least partially amorphous SiC matrix, and having a thickness less than or equal to 200 microns; - a heat treatment for crystallizing the support layer, at a temperature less than or equal to 1000°C, to form a crystallized support layer (20"), - chemical vapor deposition assisted by direct liquid injection, at a temperature of less than 900°C, to form a support layer, said support layer being formed by an at least partially amorphous SiC matrix, and having a thickness less than or equal to 200 microns; - a heat treatment for crystallizing the support layer, at a temperature less than or equal to 1000°C, to form a crystallized support layer (20"), d) a step of separating along the buried brittle plane to form a composite structure which comprises the thin layer on the support substrate on one side and the remainder of the donor substrate on the other.
Wall duct for laying long-form-parts, tubes, wires and/or cables through walls of devices, housings or components provided with walls, whereby the wall has a through-hole and whereby the wall duct comprises a flange which can be attached to the wall by attachment means and which has a hole that is coaxial with the through-hole, whereby the flange comprises two semi-flange parts crossing its hole centrally with a parting plane, whereby the semi-flange parts are joined or can be joined with each other by way of moulded-on joining means and the semi-flange parts are identical in shape, whereby each semi-flange part has a first joining means at one separating point and a second joining means at a second separating point and the joining means are different from each other but are compatible with each other at the target mounting position of the semi-flange parts characterized by, that the joining means are formed in the manner of a hinge joint, whereby each semi-flange part has a hinge pin at a first separating point of its two separating points and a flap hinge at a second separating point, whereby in the target mounting point the hinge pin of the respective one semi-flange part grasps into the flap hinge of the respective other semi-flange part so that the two parts are thus locked.
An external device for temporarily treating the heart rate, comprising means for stimulating the heart rate, a circuit connected to the stimulation means to actuate them, and a system for supplying the circuit, comprising: a main battery connectable to the circuit to supply it; a photovoltaic panel connectable to the main battery to supply the main battery during the operation of the device itself; an auxiliary battery (B') connectable to the circuit to supply it and to the photovoltaic panel to be supplied by the photovoltaic panel; and a control unit; wherein the control unit is configured to ensure the circuit is supplied alternately by the main battery or by the auxiliary battery, on the basis of the charge level of each of the batteries. a main battery connectable to the circuit to supply it; a photovoltaic panel connectable to the main battery to supply the main battery during the operation of the device itself; an auxiliary battery (B') connectable to the circuit to supply it and to the photovoltaic panel to be supplied by the photovoltaic panel; and a control unit; wherein the control unit is configured to ensure the circuit is supplied alternately by the main battery or by the auxiliary battery, on the basis of the charge level of each of the batteries.
A method for teaching a welding robot, in which a position is determined and stored by way of a manually implemented positioning process, comprising the steps: - feeding a movably mounted welding wire (9, 30) out of a welding head, in particular a welding torch, to a length and - moving the welding head to a position at a workpiece (14, 31), preferably when the power supply of the welding head is deactivated, characterized in that - after positioning at the position, a so-called wire-touch sensing process is started in the welding device, wherein - a test voltage is applied between the welding wire (9, 30) and the workpiece (14, 31) and - subsequently, the manual positioning process is continued with the welding head, - characterized in that when a current flow between the welding wire (9, 30) and the workpiece (14, 31) or a drop of the test voltage is detected, the welding wire (9, 30) is retracted to interrupt the current flow. - feeding a movably mounted welding wire (9, 30) out of a welding head, in particular a welding torch, to a length and - moving the welding head to a position at a workpiece (14, 31), preferably when the power supply of the welding head is deactivated, - after positioning at the position, a so-called wire-touch sensing process is started in the welding device, wherein - a test voltage is applied between the welding wire (9, 30) and the workpiece (14, 31) and - subsequently, the manual positioning process is continued with the welding head, - characterized in that