mhurhangee/patent-ind-claim-en huggingface dataset:
A process for preparing C 2 to C 3 hydrocarbons comprising: introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings, wherein: the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream. introducing a feed stream comprising hydrogen gas and a carbon-containing gas selected from the group consisting of carbon monoxide, carbon dioxide, and mixtures thereof into a reaction zone of a reactor; and converting the feed stream into a product stream comprising C 2 to C 3 hydrocarbons in the reaction zone in the presence of a hybrid catalyst, the hybrid catalyst comprising: a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings, wherein: the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream. a mixed metal oxide catalyst component; and a microporous catalyst component comprising 8-MR pore openings, wherein: the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream. the microporous catalyst component is derived from a natural mineral; and the product stream comprises a combined C 2 and C 3 selectivity greater than 40 C mol% in the product stream.
A method of communications by a node, comprising: communicating with a remote node using a timeslot structure having a plurality of data channels and a plurality of control channels, wherein each of the control channels comprises a plurality of control units and each of the control units is capable of carrying any one of a plurality of control messages for the data channels, wherein the node is originally configured to transmit during odd numbered timeslots and receive during even numbered timeslots; assigning one of the control messages to one of the control units; and initiating a swap of one or more timeslots by sending a request to transmit on one of the plurality of control channels during an even numbered timeslot, wherein the request includes an inherent timeslot swap request or the request is a dedicated request to swap. communicating with a remote node using a timeslot structure having a plurality of data channels and a plurality of control channels, wherein each of the control channels comprises a plurality of control units and each of the control units is capable of carrying any one of a plurality of control messages for the data channels, wherein the node is originally configured to transmit during odd numbered timeslots and receive during even numbered timeslots; assigning one of the control messages to one of the control units; and initiating a swap of one or more timeslots by sending a request to transmit on one of the plurality of control channels during an even numbered timeslot, wherein the request includes an inherent timeslot swap request or the request is a dedicated request to swap.
A semiconductor device comprising: a normally off transistor including a first source , a first drain , a first gate connected to a common gate terminal , and a body diode ; a normally on transistor including a second source connected to the first drain , a second drain , and a second gate ; a capacitor provided between the common gate terminal and the second gate ; a first diode including a first anode connected to a portion between the capacitor and the second gate and a first cathode connected to the first source ; and being characterised by a second diode including a second anode connected to the first source and a second cathode connected to the second drain ; a first resistance element whose one end is connected to between the common gate terminal and the capacitor and whose other end is connected to the first gate ; and a third diode including a third anode connected to the common gate terminal and a third cathode connected to the first gate and provided between the common gate terminal and the first gate in parallel with the first resistance element . a normally off transistor including a first source , a first drain , a first gate connected to a common gate terminal , and a body diode ; a normally on transistor including a second source connected to the first drain , a second drain , and a second gate ; a capacitor provided between the common gate terminal and the second gate ; a first diode including a first anode connected to a portion between the capacitor and the second gate and a first cathode connected to the first source ; and being characterised by a second diode including a second anode connected to the first source and a second cathode connected to the second drain ; a first resistance element whose one end is connected to between the common gate terminal and the capacitor and whose other end is connected to the first gate ; and a third diode including a third anode connected to the common gate terminal and a third cathode connected to the first gate and provided between the common gate terminal and the first gate in parallel with the first resistance element .
A plate-type refrigerant pipe comprising: a first plate ; and a second plate joined to the first plate and forming a refrigerant flow path (F) together with the first plate , wherein the first plate includes a first connection portion to which a first refrigerant pipe is connected to cause the refrigerant flow path (F) and the first refrigerant pipe to communicate with each other, the second plate includes a second connection portion to which a second refrigerant pipe is connected to cause the refrigerant flow path (F) and the second refrigerant pipe to communicate with each other, the first plate and/or the second plate includes a third connection portion to which a third refrigerant pipe is connected to cause the refrigerant flow path (F) and the third refrigerant pipe to communicate with each other, and the first connection portion and the second connection portion overlap each other in a first direction perpendicular to a joining surface of the first plate and the second plate , the first connection portion includes a first opening (43a1) to which the first refrigerant pipe is connected, the second connection portion includes a second opening (43a2) to which the second refrigerant pipe is connected, the first opening (43a1) and the second opening (43a2) overlap each other in the first direction, the first opening (43a1) and the second opening (43a2) differ in diameter, the first refrigerant pipe is connected inside the first opening (43a1), and characterised in that the second refrigerant pipe is connected inside the second opening (43a2). a first plate ; and a second plate joined to the first plate and forming a refrigerant flow path (F) together with the first plate , wherein the first plate includes a first connection portion to which a first refrigerant pipe is connected to cause the refrigerant flow path (F) and the first refrigerant pipe to communicate with each other, the second plate includes a second connection portion to which a second refrigerant pipe is connected to cause the refrigerant flow path (F) and the second refrigerant pipe to communicate with each other, the first plate and/or the second plate includes a third connection portion to which a third refrigerant pipe is connected to cause the refrigerant flow path (F) and the third refrigerant pipe to communicate with each other, and the first connection portion and the second connection portion overlap each other in a first direction perpendicular to a joining surface of the first plate and the second plate , the first connection portion includes a first opening (43a1) to which the first refrigerant pipe is connected, the second connection portion includes a second opening (43a2) to which the second refrigerant pipe is connected, the first opening (43a1) and the second opening (43a2) overlap each other in the first direction, the first opening (43a1) and the second opening (43a2) differ in diameter, the first refrigerant pipe is connected inside the first opening (43a1), and characterised in that the second refrigerant pipe is connected inside the second opening (43a2).
A refrigerator comprising: a first storage compartment positioned at an upper side of a cabinet ; a second storage compartment positioned below the first storage compartment ; a partition wall configured to isolate the first storage compartment from the second storage compartment upwards and downwards and to have a horizontal upper surface; a receiver including a receiving space depressed downwards from the upper surface of the partition wall and an introduction port formed in an upper portion thereof so as to allow storage objects to be introduced into the receiving space therethrough; and a receiver door configured to be moved in a direction parallel to the upper surface of the partition wall so as to selectively open or close the introduction port , characterized by an elastic-force provider for providing the receiver door with restoring force when the receiver door is moved in order to open the receiver ; and a transfer unit including a speed controller for reducing a moving speed of the receiver door when the receiver door is moved to close the receiver . a first storage compartment positioned at an upper side of a cabinet ; a second storage compartment positioned below the first storage compartment ; a partition wall configured to isolate the first storage compartment from the second storage compartment upwards and downwards and to have a horizontal upper surface; a receiver including a receiving space depressed downwards from the upper surface of the partition wall and an introduction port formed in an upper portion thereof so as to allow storage objects to be introduced into the receiving space therethrough; and a receiver door configured to be moved in a direction parallel to the upper surface of the partition wall so as to selectively open or close the introduction port , characterized by an elastic-force provider for providing the receiver door with restoring force when the receiver door is moved in order to open the receiver ; and a transfer unit including a speed controller for reducing a moving speed of the receiver door when the receiver door is moved to close the receiver .
An energy harvesting apparatus comprising: a housing configured to have an internal portion filled with dielectric liquid in a vacuum state and formed to a preset length; first and second electrode portions configured to be disposed to face each other to be spaced apart from each other in the housing and polarized with different polarities; wherein the apparatus comprises a first layer configured to form a path along the internal portion of the housing so as to allow the dielectric liquid and bubbles generated in the dielectric liquid to flow between the first and second electrode portions ; and a second layer configured to insulate the first and second electrode portions from the housing , wherein: the housing comprises a heat inputter for generating the bubbles from the dielectric liquid when thermal energy is applied to the heat inputter; and as the bubbles are moved between the first and second electrode portions , a dielectric constant of the dielectric liquid between the first and second electrode portions is changed to generate current. a housing configured to have an internal portion filled with dielectric liquid in a vacuum state and formed to a preset length; first and second electrode portions configured to be disposed to face each other to be spaced apart from each other in the housing and polarized with different polarities; wherein the apparatus comprises a first layer configured to form a path along the internal portion of the housing so as to allow the dielectric liquid and bubbles generated in the dielectric liquid to flow between the first and second electrode portions ; and a second layer configured to insulate the first and second electrode portions from the housing , wherein: the housing comprises a heat inputter for generating the bubbles from the dielectric liquid when thermal energy is applied to the heat inputter; and as the bubbles are moved between the first and second electrode portions , a dielectric constant of the dielectric liquid between the first and second electrode portions is changed to generate current. the housing comprises a heat inputter for generating the bubbles from the dielectric liquid when thermal energy is applied to the heat inputter; and as the bubbles are moved between the first and second electrode portions , a dielectric constant of the dielectric liquid between the first and second electrode portions is changed to generate current.
A noise filter comprising:at least one conductor including a wound portion ; and an annular core formed of a magnetic material, wherein the annular core passes through the wound portion in a first direction, wherein the annular core includes a first split core and a second split core , wherein the first split core includes a first joining surface in one end of the first direction and a second joining surface in the other end of the first direction, wherein the second split core includes a third joining surface in the one end of the first direction and a fourth joining surface in the other end of the first direction, wherein the first split core and the second split core are assembled together by joining the first joining surface and the third joining surface to each other and joining the second joining surface and the fourth joining surface to each other, wherein the first joining surface includes one of a recess portion and a projection portion and the third joining surface includes the other of the recess portion and the projection portion, and the one of the recess portion and the projection portion of the first joining surface and the other of the recess portion and the projection portion of the third joining surface engage with each other, and wherein the second joining surface includes one of a recess portion and a projection portion and the fourth joining surface includes the other of the recess portion and the projection portion, and the one of the recess portion and the projection portion of the second joining surface and the other of the recess portion and the projection portion of the fourth joining surface engage with each other, whereby at least one of the first split core and the second split core has a linear shape, and wherein the plurality of conductors are aligned in the first direction, while the one of the first split core and the second split core having the linear shape passes through the wound portions of the conductors .
Method for roasting a food product, comprising the steps of: - loading a batch of a predetermined food product type in a roasting device; - setting operating parameters of the roasting device according to initial reference values for said predetermined food product type, so as to start a heating of the product, which is adapted to bring the product to roasting; - performing a feedback control for the operation of the roasting device during the heating of the product, by means of the steps of: * obtaining, instant by instant, a value for a sound quantity which is relative to a sound emitted by the product, wherein said sound is detected in a frequency range comprising both human ear audible frequencies and ultrasound frequencies; * comparing the sound quantity's value, which is obtained at each instant, to a value taken by the sound quantity, at said instant, in a roasting curve of said sound quantity versus time, which is associated with said predetermined food product type; * adjusting, instant by instant, the operating parameters of the roasting device depending on the result of said comparison. - loading a batch of a predetermined food product type in a roasting device; - setting operating parameters of the roasting device according to initial reference values for said predetermined food product type, so as to start a heating of the product, which is adapted to bring the product to roasting; - performing a feedback control for the operation of the roasting device during the heating of the product, by means of the steps of: * obtaining, instant by instant, a value for a sound quantity which is relative to a sound emitted by the product, wherein said sound is detected in a frequency range comprising both human ear audible frequencies and ultrasound frequencies; * comparing the sound quantity's value, which is obtained at each instant, to a value taken by the sound quantity, at said instant, in a roasting curve of said sound quantity versus time, which is associated with said predetermined food product type; * adjusting, instant by instant, the operating parameters of the roasting device depending on the result of said comparison. * obtaining, instant by instant, a value for a sound quantity which is relative to a sound emitted by the product, wherein said sound is detected in a frequency range comprising both human ear audible frequencies and ultrasound frequencies; * comparing the sound quantity's value, which is obtained at each instant, to a value taken by the sound quantity, at said instant, in a roasting curve of said sound quantity versus time, which is associated with said predetermined food product type; * adjusting, instant by instant, the operating parameters of the roasting device depending on the result of said comparison.
Electrosurgical instrument comprising: - a connection device configured for a connection with a supply apparatus , - a liner having an end opening at the distal end of the liner , - at least one electrode electrically connected with the connection device that is arranged adjacent to the end opening or that extends beyond the end opening in a longitudinal direction (L), - a flushing channel fluidically connected with the connection device that comprises an exit opening that opens out into a flow chamber limited by the liner and that is arranged with distance to the distally arranged end opening in longitudinal direction (L), such that a flushing fluid (F) flowing through the flushing channel flows out of the exit opening and creates a flushing fluid flow (SF) in the flow chamber from the exit opening in direction toward the end opening , and - a suction channel fluidically connected with the connection device that comprises an inlet opening opening out into the flow chamber and that is configured to receive at least a portion of the flushing fluid (F) of the flushing fluid flow (SF) via the inlet opening and to discharge it from the flow chamber , - a light conducting device that comprises a light inlet surface , characterized in that the light inlet surface is arranged inside the liner , wherein at least the distal end section of the light conducting device adjoining the light inlet surface is arranged inside the flushing channel . - a connection device configured for a connection with a supply apparatus , - a liner having an end opening at the distal end of the liner , - at least one electrode electrically connected with the connection device that is arranged adjacent to the end opening or that extends beyond the end opening in a longitudinal direction (L), - a flushing channel fluidically connected with the connection device that comprises an exit opening that opens out into a flow chamber limited by the liner and that is arranged with distance to the distally arranged end opening in longitudinal direction (L), such that a flushing fluid (F) flowing through the flushing channel flows out of the exit opening and creates a flushing fluid flow (SF) in the flow chamber from the exit opening in direction toward the end opening , and - a suction channel fluidically connected with the connection device that comprises an inlet opening opening out into the flow chamber and that is configured to receive at least a portion of the flushing fluid (F) of the flushing fluid flow (SF) via the inlet opening and to discharge it from the flow chamber , - a light conducting device that comprises a light inlet surface ,
A solid oral composition comprising maraviroc, a diluent, a disintegrant, and colloidal silicon dioxide as a dispersing agent, wherein the solid oral composition is prepared either by direct compression or dry granulation.
A washing machine comprising: a washing tub for accommodating laundry; an additive supplying part connected to the washing tub for supplying an additive to the washing tub ; a concentration sensor configured to sense a scent concentration of an additive in air of the washing tub ; and a controller configured to switch the washing machine to an additional laundry cycle mode according to the scent concentration sensed by the concentration sensor ; characterized in that the washing machine comprises: an information input interface configured to receive an input from a user for inputting setting information regarding the scent concentration of an additive. a washing tub for accommodating laundry; an additive supplying part connected to the washing tub for supplying an additive to the washing tub ; a concentration sensor configured to sense a scent concentration of an additive in air of the washing tub ; and a controller configured to switch the washing machine to an additional laundry cycle mode according to the scent concentration sensed by the concentration sensor ; characterized in that the washing machine comprises: an information input interface configured to receive an input from a user for inputting setting information regarding the scent concentration of an additive.
A method of fabricating a three-dimensional part comprising a metallic material utilizing wire produced by a process comprising (i) compacting powder to form a feed electrode, the powder comprising the metallic material, (ii) arc-melting the feed electrode in a processing ambient comprising a vacuum or one or more inert gases, thereby forming a billet, and (iii) mechanically deforming the billet into wire having a diameter less than a diameter of the billet, the method comprising: (a) translating a tip of the wire relative to a platform; (b) while the tip of the wire is being translated, melting the tip of the wire with an energy source to form a molten bead, whereby the bead cools to form at least a portion of a layer of a three-dimensional part; and (c) repeating steps (a) and (b) one or more times to produce the three-dimensional part, wherein the three-dimensional part comprises the metallic material, the metallic material comprises at least one of niobium, tantalum, rhenium, tungsten, or molybdenum, and wherein a concentration within the wire of each of sodium, calcium, antimony, magnesium, phosphorous, and potassium is less than 1 ppm by weight and at least 0.001 ppm by weight. (a) translating a tip of the wire relative to a platform; (b) while the tip of the wire is being translated, melting the tip of the wire with an energy source to form a molten bead, whereby the bead cools to form at least a portion of a layer of a three-dimensional part; and (c) repeating steps (a) and (b) one or more times to produce the three-dimensional part,