mhurhangee/patent-ind-claim-en huggingface dataset:
A four-port circulator device comprising: a quasi-circulator comprising: a first port , a second port , a third port , and a fourth port , wherein a scattering matrix S1 of said quasi-circulator is represented as: S 1 = 0 0 − 1 / 2 − j / 2 − j 0 0 0 0 − j / 2 − 1 / 2 j / 2 0 − 1 / 2 − j / 2 − 1 / 2 , wherein each entry S 1 xy of the scattering matrix S1 represents a portion of a square root of a power of a signal that is directed by the quasi-circulator from the yth port to the xth port, wherein x and y each can be 1, 2, 3, and 4 and x is not equal to y, and each entry S 1 xx represents a portion of a square root of a power of a signal that is reflected at the xth port; and a quadrature hybrid comprising a first port , a second port , a third port , and a fourth port , wherein a scattering matrix S2 of said quadrature hybrid is represented as: S 2 = 0 − j / 2 − 1 / 2 0 − j / 2 0 0 − 1 / 2 − 1 / 2 0 0 − j / 2 0 − 1 / 2 − j / 2 0 , wherein each entry S 2 xy of the scattering matrix S2 represents a portion of a square root of a power of a signal that is directed by the quadrature hybrid from the yth port to the xth port, wherein x and y each can be 1, 2, 3, and 4 and x is not equal to y, and each entry S 2 xx represents a portion of a square root of a power of a signal that is reflected at the xth port, and wherein said fourth port of said quasi-circulator is connected to said fourth port of said quadrature hybrid and said third port of said quasi-circulator is connected to said first port of said quadrature hybrid . a quasi-circulator comprising: a first port , a second port , a third port , and a fourth port , wherein a scattering matrix S1 of said quasi-circulator is represented as: S 1 = 0 0 − 1 / 2 − j / 2 − j 0 0 0 0 − j / 2 − 1 / 2 j / 2 0 − 1 / 2 − j / 2 − 1 / 2 , wherein each entry S 1 xy of the scattering matrix S1 represents a portion of a square root of a power of a signal that is directed by the quasi-circulator from the yth port to the xth port, wherein x and y each can be 1, 2, 3, and 4 and x is not equal to y, and each entry S 1 xx represents a portion of a square root of a power of a signal that is reflected at the xth port; and a quadrature hybrid comprising a first port , a second port , a third port , and a fourth port , wherein a scattering matrix S2 of said quadrature hybrid is represented as: S 2 = 0 − j / 2 − 1 / 2 0 − j / 2 0 0 − 1 / 2 − 1 / 2 0 0 − j / 2 0 − 1 / 2 − j / 2 0 , wherein each entry S 2 xy of the scattering matrix S2 represents a portion of a square root of a power of a signal that is directed by the quadrature hybrid from the yth port to the xth port, wherein x and y each can be 1, 2, 3, and 4 and x is not equal to y, and each entry S 2 xx represents a portion of a square root of a power of a signal that is reflected at the xth port, and wherein said fourth port of said quasi-circulator is connected to said fourth port of said quadrature hybrid and said third port of said quasi-circulator is connected to said first port of said quadrature hybrid .
An outside air processing device configured to adjust a temperature and humidity of outside air taken into the outside air processing device and to supply the outside air to a target space (SP1, SP2), the outside air processing device comprising: a heating element configured to heat air; a humidifying element configured to humidify air that has passed through the heating element ; and a control unit for outside air processing, the control unit being configured to change a temperature of air at an inlet of the humidifying element in accordance with a humidity in the target space (SP1, SP2), characterized in that the control unit for outside air processing changes a target value of a temperature of supply air to be supplied to the target space (SP1, SP2) to change the temperature of the air at the inlet of the humidifying element . a heating element configured to heat air; a humidifying element configured to humidify air that has passed through the heating element ; and a control unit for outside air processing, the control unit being configured to change a temperature of air at an inlet of the humidifying element in accordance with a humidity in the target space (SP1, SP2), characterized in that the control unit for outside air processing changes a target value of a temperature of supply air to be supplied to the target space (SP1, SP2) to change the temperature of the air at the inlet of the humidifying element .
Device for applying an auxiliary force in a motor vehicle steering system, comprising a driving worm which can be connected to an electric motor and which acts on a worm wheel for applying an auxiliary force into the motor vehicle steering system, wherein the driving worm is mounted in at least one bearing so as to be rotatable about a bearing axis , wherein the bearing is pivotable about a pivot axis (S) which is defined by at least one pivoting element arranged outside the bearing , and wherein the pivot axis (S) formed by the at least one pivoting element is arranged substantially parallel to the axis of rotation of the worm wheel , characterized in that a bearing device inserted into a housing comprises an outer sleeve , wherein the bearing is received in the outer sleeve , which comprises two mutually oppositely arranged and radially inwardly or outwardly extending bearing lugs to form the pivoting element .
A silicone holder provided with a holder plateau on which one or more molds are located, suitable for molding and making a food product, wherein each mold defines an internal volume by means of an upright wall , wherein the upright wall extends in a vertical position with respect to the holder plateau , wherein a longitudinal recess culminates in each mold , suitable for receiving at least a first part of a holder for the food product, wherein the longitudinal recess is defined at least in part by the upright walls on both sides of the recess and wherein the upright wall of the mold is interrupted at the mouth of the longitudinal recess by a vertical opening extending over the full height of the upright wall , characterized in that the upright wall culminates in a free end , wherein the free end of the upright wall defines an opening which is not in the same plane as the holder plateau , and in that the internal volume of the one or more molds is above the plane of the holder plateau .
An apparatus for attaching a first component to a second component , the apparatus comprising: a base element which has a thread which defines a thread axis (A); a connection means for a direct or indirect form-fitting and/or bonded connection of the base element to the second component ; and an adjustment element which is in threaded engagement with the base element , wherein the adjustment element is configured to receive the first component in order to form a construction unit with the first component by receiving the first component such that the position of the first component is adjustable relative to the second component , viewed in the direction of the thread axis (A), by a rotation of the adjustment element relative to the base element , wherein the base element and/or the adjustment element is/are at least partly elastically deformable such that the adjustment element can receive the first component free of clearance and is in threaded engagement free of clearance with the base element . a base element which has a thread which defines a thread axis (A); a connection means for a direct or indirect form-fitting and/or bonded connection of the base element to the second component ; and an adjustment element which is in threaded engagement with the base element , wherein the adjustment element is configured to receive the first component in order to form a construction unit with the first component by receiving the first component such that the position of the first component is adjustable relative to the second component , viewed in the direction of the thread axis (A), by a rotation of the adjustment element relative to the base element , wherein the base element and/or the adjustment element is/are at least partly elastically deformable such that the adjustment element can receive the first component free of clearance and is in threaded engagement free of clearance with the base element .
A foam dispenser comprising a container made from manually deformable material; said container having a head section comprising an air chamber and a mixing chamber , said mixing chamber being positioned in said air chamber , said air chamber being provided with an air tube extending into said container for introducing air from said container in said air chamber , said mixing chamber being provided with at least one first inlet for introducing liquid from said container in said mixing chamber , with at least one second inlet for introducing air from said air chamber in said mixing chamber and with at least one outlet , said at least one outlet comprising a foam conveying tube comprising at least one porous material positioned across the foam conveying tube , wherein said at least one first inlet comprises a tube connecting said container with said mixing chamber and wherein said tube of said first inlet is provided with and extension whereby said extension is extending concentrically over said mixing chamber
A light-directing system, in particular for sunlight, comprising a textile fabric which is positioned or is positionable in a light-incidence region in front of a space to be shielded or to be illuminated, and has a weft-thread layer which is formed from a multiplicity of weft threads , wherein the weft threads are stretched in a substantially linear manner and delimit mesh openings of the textile fabric , wherein the weft threads are disposed in weft-thread groups having thread diameters which vary in a group wise manner, such that a plurality of weft threads which differ from one another in their thread diameter are grouped in every weft-thread group, wherein the lateral portions of the weft-thread groups are uniformly oriented, characterized in that the textile fabric has a dual-layer thread structure of warp threads forming a warp-thread layer and of weft threads forming a weft-thread layer which is parallel with said warp-thread layer , wherein the warp threads and the weft threads are interconnected by binder threads and the weft threads bear on one side of the warp-thread layer .
A construction machine comprising: a hydraulic actuator ; a hydraulic pump that supplies hydraulic fluid to the hydraulic actuator ; a control valve that switchingly supplies the hydraulic fluid from the hydraulic pump to the hydraulic actuator ; an operation lever device that switchingly operates the control valve ; a control valve drive device (5; 37, 38) that supplies pilot secondary hydraulic fluid to the control valve in accordance with an operation of the operation lever device ; a pilot hydraulic pump that supplies pilot primary hydraulic fluid to the control valve drive device (5; 37, 38); a pressure accumulation device that recovers return hydraulic fluid returned from the hydraulic actuator ; a check valve provided in a line between the pilot hydraulic pump and the control valve drive device (5; 37, 38); a flow rate reduction device capable of reducing flow rate of the hydraulic fluid delivered by the pilot hydraulic pump ; a pressure detection device capable of detecting pressure in a line between the check valve and the control valve drive device (5; 37, 38); and a controller that controls the flow rate reduction device in accordance with the pressure detected by the pressure detection device , characterized in that the construction machine further comprises a pressure reducing valve that supplies the hydraulic fluid accumulated in the pressure accumulation device to the line between the check valve and the control valve drive device (5; 37, 38).
Transfer apparatus for transferring one or more plies onto a carcass package on a tire building drum, wherein the transfer apparatus comprises a transfer ring with a plurality of first ring segments and a frame that extends in a circumferential direction (C) about a central axis (S) for holding each of the plurality of first ring segments in a respective first angular position (A1), wherein the first angular positions (A1) of the plurality of first ring segments are distributed in the circumferential direction (C) along the frame , wherein the plurality of first ring segments are movable relative to the frame in a radial direction (R) perpendicular to the central axis (S) from a first radial distance (R1) to a second radial distance (R2) from the central axis (S) that is smaller than the first radial distance (R1), wherein the transfer apparatus further comprises a first rolling device that is positionable in a second angular position (A2) interposed between the plurality of first angular positions (A1) in the circumferential direction (C), characterized in that the transfer apparatus further comprises a second ring segment that is positionable in the second angular position (A2) at the second radial distance (R2) from the central axis (S).
A clock recovery apparatus comprising: three pulse generating circuits , each pulse generating circuit being configured to generate a transition pulse in response to a transition in one of three difference signals representative of a difference in signaling state of a pair of wires in a three-wire bus , wherein transitions in one or more difference signals occur at boundaries between symbols that are sequentially transmitted over the three-wire bus ; a first logic circuit configured to provide a single pulse in a combination signal at each boundary between pairs of sequentially-transmitted symbols by combining one or more transition pulses received from the three pulse generating circuits ; and a delay flipflop configured to respond to each single pulse in the combination signal by changing signaling state of a clock signal that is output by the clock recovery apparatus , wherein to respond to a first single pulse , the delay flipflop is configured to change the signaling state from a logic 0 state to a logic 1 state, and in response to a second single pulse consecutive to the first single pulse , the delay flipflop is configured to change the signaling state from a logic 1 state to a logic 0 state. three pulse generating circuits , each pulse generating circuit being configured to generate a transition pulse in response to a transition in one of three difference signals representative of a difference in signaling state of a pair of wires in a three-wire bus , wherein transitions in one or more difference signals occur at boundaries between symbols that are sequentially transmitted over the three-wire bus ; a first logic circuit configured to provide a single pulse in a combination signal at each boundary between pairs of sequentially-transmitted symbols by combining one or more transition pulses received from the three pulse generating circuits ; and a delay flipflop configured to respond to each single pulse in the combination signal by changing signaling state of a clock signal that is output by the clock recovery apparatus , wherein to respond to a first single pulse , the delay flipflop is configured to change the signaling state from a logic 0 state to a logic 1 state, and in response to a second single pulse consecutive to the first single pulse , the delay flipflop is configured to change the signaling state from a logic 1 state to a logic 0 state.
A movement system of containers to and from a processing unit of said containers, comprising: - a rotating carousel at the perimeter of which a plurality of said processing units are arranged; - a distribution unit of said containers, comprising at least one distribution star placed substantially at a tangent to said carousel and rotating in synchrony but in the opposite direction to said carousel , characterized in that said distribution unit comprises a plurality of upper clamps for the transfer of a container to a respective processing unit and a plurality of lower clamps for the transfer of a container from said processing unit to said distribution unit , and in that said processing unit comprises a clamp movable between an upper position at the level of said upper clamps of the distribution unit , to take a container by a respective upper clamp of the distribution unit , and a lower position at the level of said lower clamps of the distribution unit , for the transfer of said container to said processing unit . - a rotating carousel at the perimeter of which a plurality of said processing units are arranged; - a distribution unit of said containers, comprising at least one distribution star placed substantially at a tangent to said carousel and rotating in synchrony but in the opposite direction to said carousel ,
Kit comprising a tool for use in mounting a vapour barrier collar and a vapour barrier collar, the vapour barrier collar comprising a number of sheet elements including side sheet elements extending substantially along a longitudinal axis (L) and top and bottom sheet elements, respectively, extending substantially along a lateral axis (A) perpendicular to said longitudinal axis (L), each sheet element having two end edges adjacent to a first edge of said sheet element, said sheet elements being mutually joined together in joints extending along said end edges , and mounting means being provided along said first edges of said sheet elements, said mounting means extending uninterruptedly along the entire length of said first edge of each sheet element , said tool comprising insertion means for introducing the mounting means of said vapour barrier collar into a groove adapted to receive said mounting means , and operating means for operating the tool, where said insertion means comprise a face for applying a pressure and gliding on said mounting means and is connected to said operating means in at least one connection point, where said insertion means approach and/or abut said operating means in a distance from said connection point between said insertion means and said operating means thus forming a pen clip-like structure .
Method for producing a first reactor product gas and a second reactor product gas from a carbonaceous material using a first reactor having a first interior and a second reactor having a second interior , the method comprising: (a) combusting a fuel source in a first reactor heat exchanger (HX-A) to form a combustion stream; (b) indirectly heating a particulate heat transfer material present in the first reactor with said combustion stream, to provide at least a portion of the heat required to react carbonaceous material with steam and optionally also with carbon dioxide and/or an oxygen-containing gas, to produce a first reactor product gas containing char; (c) separating char from the first reactor product gas; (d) reacting the separated char with an oxygen-containing gas in a second reactor to produce a second reactor product gas; and (e) transferring heat from the second reactor through a heat exchanger to a heat transfer medium, the heat transfer medium comprising steam; characterized by (f) introducing at least a first portion of the steam that has been heated by the second reactor, into the first reactor, to react with the carbonaceous material; wherein: the first reactor is operated at a first reactor pressure; and the second reactor is operated at a second reactor pressure, the first reactor pressure being greater than the second reactor pressure. (a) combusting a fuel source in a first reactor heat exchanger (HX-A) to form a combustion stream; (b) indirectly heating a particulate heat transfer material present in the first reactor with said combustion stream, to provide at least a portion of the heat required to react carbonaceous material with steam and optionally also with carbon dioxide and/or an oxygen-containing gas, to produce a first reactor product gas containing char; (c) separating char from the first reactor product gas; (d) reacting the separated char with an oxygen-containing gas in a second reactor to produce a second reactor product gas; and (e) transferring heat from the second reactor through a heat exchanger to a heat transfer medium, the heat transfer medium comprising steam; (f) introducing at least a first portion of the steam that has been heated by the second reactor, into the first reactor, to react with the carbonaceous material; wherein: the first reactor is operated at a first reactor pressure; and the second reactor is operated at a second reactor pressure, the first reactor pressure being greater than the second reactor pressure. the first reactor is operated at a first reactor pressure; and the second reactor is operated at a second reactor pressure, the first reactor pressure being greater than the second reactor pressure.
A method for processing data in Ethernet, wherein the Ethernet comprises a first network device and a second network device, the first network device is coupled with the second network device by using the Ethernet, and the method comprises: receiving , by the first network device, plesiochronous digital hierarchy, PDH, frame data; performing , by the first network device, virtual-container mapping processing on the PDH frame data, wherein the virtual-container mapping processing comprises: loading the PDH frame data and a stuffing bit into a virtual container, to obtain the virtual container that comprises the PDH frame data, wherein the stuffing bit carries information about a clock frequency difference between a clock frequency of the Ethernet and a clock frequency of the PDH frame data; performing , by the first network device, virtual-container pseudo-wire emulation edge-to-edge, PWE 3 , encapsulation on the virtual container to obtain virtual-container PWE 3 encapsulated data; and obtaining, by the first network device, the virtual-container PWE 3 packet according to the virtual-container PWE 3 encapsulated data, and sending the virtual-container PWE 3 packet to the second network device by using the Ethernet. receiving , by the first network device, plesiochronous digital hierarchy, PDH, frame data; performing , by the first network device, virtual-container mapping processing on the PDH frame data, wherein the virtual-container mapping processing comprises: loading the PDH frame data and a stuffing bit into a virtual container, to obtain the virtual container that comprises the PDH frame data, wherein the stuffing bit carries information about a clock frequency difference between a clock frequency of the Ethernet and a clock frequency of the PDH frame data; performing , by the first network device, virtual-container pseudo-wire emulation edge-to-edge, PWE 3 , encapsulation on the virtual container to obtain virtual-container PWE 3 encapsulated data; and obtaining, by the first network device, the virtual-container PWE 3 packet according to the virtual-container PWE 3 encapsulated data, and sending the virtual-container PWE 3 packet to the second network device by using the Ethernet.