mhurhangee/patent-ind-claim-en huggingface dataset:
A system , comprising: a beam delivery line of charged particles; a gantry body supporting the beam delivery line of charged particles; a first support and a second support rotatably supporting the gantry body, the gantry body being rotatable about a horizontal axis passing through the first and second supports; wherein the gantry body comprises a cantilevered portion configured to support at least a section of the beam delivery line in a cantilevered manner extended beyond the first and second supports; the system being characterised by a structure supporting the second support, wherein the structure is rotatable about a vertical axis passing through the second support, thereby providing clearance for the cantilevered portion of the gantry body when rotating about the horizontal axis. a beam delivery line of charged particles; a gantry body supporting the beam delivery line of charged particles; a first support and a second support rotatably supporting the gantry body, the gantry body being rotatable about a horizontal axis passing through the first and second supports; wherein the gantry body comprises a cantilevered portion configured to support at least a section of the beam delivery line in a cantilevered manner extended beyond the first and second supports; the system being characterised by a structure supporting the second support, wherein the structure is rotatable about a vertical axis passing through the second support, thereby providing clearance for the cantilevered portion of the gantry body when rotating about the horizontal axis.
A fluid working machine comprising a rotatable shaft and a plurality of working chambers having working volumes which vary cyclically with rotation of the rotatable shaft, each working chamber having a valve unit comprising a low pressure valve which regulates the flow of working fluid between the working chamber and a low pressure manifold , and each working chamber having a high pressure valve which regulates the flow of working fluid between the working chamber and a high pressure manifold , each said valve unit comprising: a valve having a valve member, a valve actuator coupled to the valve member, and an electronic actuator controller which is integral to the valve unit and configured to actively control the valve actuator to thereby control the valve member, wherein the actuator controller is configured to receive commands and to determine the timing of changes to the active control of the valve actuator taking into account the received commands, the fluid working machine further comprising a machine controller configured to determine, for each cycle of working chamber volume, whether the respective working chamber should carry out an active cycle in which the working chamber makes a net displacement of working fluid or an inactive cycle in which the working chamber makes no net displacement of working fluid and to transmit command signals to the electronic actuator controllers , wherein the actuator controllers receive the command signals and control the respective valve actuators responsive thereto to thereby determine the net displacement of working fluid by the working chambers. a valve having a valve member, a valve actuator coupled to the valve member, and an electronic actuator controller which is integral to the valve unit and configured to actively control the valve actuator to thereby control the valve member, wherein the actuator controller is configured to receive commands and to determine the timing of changes to the active control of the valve actuator taking into account the received commands, the fluid working machine further comprising a machine controller configured to determine, for each cycle of working chamber volume, whether the respective working chamber should carry out an active cycle in which the working chamber makes a net displacement of working fluid or an inactive cycle in which the working chamber makes no net displacement of working fluid and to transmit command signals to the electronic actuator controllers , wherein the actuator controllers receive the command signals and control the respective valve actuators responsive thereto to thereby determine the net displacement of working fluid by the working chambers.
An apparatus for water spray quenching, comprising - a quenching chamber which has been designed and set up to accommodate metallic workpieces and has a charge volume (5/V 0 ) of 0.045 to 3.5 m 3 ; and - at least one atomizer which is configured for the atomization of water in air or nitrogen and is fluidically connected to the quenching chamber ; characterized in that the at least one atomizer and the apparatus are designed and set up to generate a spray mist having a water content of 2.5 % to 40 % by volume and a Sauter diameter of 20 to 2000 μm and to convey a spray mist flow through the charge volume V 0 of 0.05 to 25 m 3 /s or to recirculate the spray mist in the charge volume V 0 at a spray mist volume flow rate of 0.05 to 25 m 3 /s. - a quenching chamber which has been designed and set up to accommodate metallic workpieces and has a charge volume (5/V 0 ) of 0.045 to 3.5 m 3 ; and - at least one atomizer which is configured for the atomization of water in air or nitrogen and is fluidically connected to the quenching chamber ;
Process for marking an optical eyeglass equipped with a surface coating comprising the following steps: - A step of detreating by means of a laser beam, so as to locally detreat an area of the optical eyeglass by removing the surface coating until a lower layer of the eyeglass is reached, which layer is located under said coating and made of a material that is different from the surface coating , thus forming at least one detreated zone , - A step of depositing an ink in the detreated zone in order to form at least one inked pattern , so that the ink adheres to the lower layer present at the bottom of the detreated zone , characterized in that the optical eyeglass includes an interference stack, of the antireflection or interference-mirror type, located between the surface coating and a substrate and optionally separated from the substrate by one or more varnishes, said at least one detreated zone passing through the surface coating and the interference stack. - A step of detreating by means of a laser beam, so as to locally detreat an area of the optical eyeglass by removing the surface coating until a lower layer of the eyeglass is reached, which layer is located under said coating and made of a material that is different from the surface coating , thus forming at least one detreated zone , - A step of depositing an ink in the detreated zone in order to form at least one inked pattern , so that the ink adheres to the lower layer present at the bottom of the detreated zone ,
Sealing apparatus for a packaging machine, comprising a sealing tool that is movable between an inactive position and a sealing position, the sealing tool comprising two facing actuating elements , each with a respective actuating surface (1.0, 2.0), and both actuating surfaces (1.0, 2.0) facing each other, the actuating elements being configured for allowing the passage of a packaging material therebetween in a forward movement direction (A) when the sealing tool is in the inactive position, and for transversely sealing at least a first portion of the packaging material to a second portion of said packaging material when the sealing tool is in the sealing position, the actuating surfaces (1.0, 2.0) of both actuating elements being configured for cooperating with one another to perform transverse sealing, and the sealing tool being configured for changing position with the movement of at least one of the actuating elements with respect to the other actuating element , the sealing tool being configured so that the actuating surfaces (1.0, 2.0) of both actuating elements retain between them the corresponding portion of the packaging material in the sealing position, and so that said actuating surfaces (1.0, 2.0) furthermore cooperate with one another during the change in position of said sealing tool to the sealing position, and transversely cut said packaging material during said change, with said cooperation, characterized in that each actuating surface (1.0, 2.0) comprises a first sealing surface (1.1, 2.1) and a second sealing surface (1.1, 2.1) that are distributed in the forward movement direction (A), the corresponding sealing surfaces (1.1, 1.2, 2.1, 2,2) of each actuating surface (1.0, 2.0) being arranged one on top of the other in a staggered manner such that the first sealing surfaces (1.1, 2.1) of both actuating surfaces (1.0, 2.0) are complementary to one another and the second sealing surfaces (1.2, 2.2) of both actuating surfaces (1.0, 2.0) are complementary to one another, and each actuating surface (1.0, 2.0) comprising an edge (1.3, 2.3) defined between its two sealing surfaces (1.1, 1.2; 2.1, 2.2), with one of the edges (1.3, 2.3) being arranged downstream in the forward movement direction (A) with respect to the other edge (1.3, 2.3) and with said edges (1.3, 2.3) being configured for cooperating with one another during the change in position of the sealing tool to the sealing position, and for transversely cutting the packaging material with said cooperation during said change.
A bearing system for a gas turbine engine , comprising: an internal compartment ; a bearing housing ; a bearing cover connected to said bearing housing , wherein said bearing cover includes an integral passageway that opens to expose at least a portion of said bearing housing , a radially inner portion , a radially outer portion , and a flange that extends between the radially inner portion and the radially outer portion , wherein the integral passageway includes a first opening extending through the flange and a second opening extending through the radially inner portion ; and wiring routed from a first position (P1) inside of the internal compartment to a second position (P2) that is external from the gas turbine engine , wherein a first portion of said wiring is routed along the radially inner portion of said bearing cover , a second portion of said wiring is routed through said integral passageway via the first opening and the second opening , and a third portion of said wiring is routed along a radially outer portion of said bearing cover . an internal compartment ; a bearing housing ; a bearing cover connected to said bearing housing , wherein said bearing cover includes an integral passageway that opens to expose at least a portion of said bearing housing , a radially inner portion , a radially outer portion , and a flange that extends between the radially inner portion and the radially outer portion , wherein the integral passageway includes a first opening extending through the flange and a second opening extending through the radially inner portion ; and wiring routed from a first position (P1) inside of the internal compartment to a second position (P2) that is external from the gas turbine engine , wherein a first portion of said wiring is routed along the radially inner portion of said bearing cover , a second portion of said wiring is routed through said integral passageway via the first opening and the second opening , and a third portion of said wiring is routed along a radially outer portion of said bearing cover .
A compound having a structure represented by formula III: wherein: A 1 is -COR 2 , -SO 2 R 2 , -CONR 2 R 3 , or -SO 2 NR 2 R 3 ; R 1 , R 2 and R 3 are each independently H, arylalkyl, aryl, or C 1-4 alkyl; X and Y are each independently O or a lone pair of electrons; and each Z is independently O or NH; or a pharmaceutically acceptable salt, or solvate thereof. wherein: A 1 is -COR 2 , -SO 2 R 2 , -CONR 2 R 3 , or -SO 2 NR 2 R 3 ; R 1 , R 2 and R 3 are each independently H, arylalkyl, aryl, or C 1-4 alkyl; X and Y are each independently O or a lone pair of electrons; and each Z is independently O or NH; or
Refrigerant compressor comprising a shaft having an axial direction (A), a hub mounted on the shaft and an inertia disk , the inertia disk being directly connected to the hub in a torque-transmitting manner, wherein a nut is provided to cooperate with a threading on the shaft and is adapted to urge the inertia disk in axial direction (A) against the hub , characterized in that the hub engages with the shaft in a spline connection .
A pellicle for a lithographic apparatus, wherein the pellicle comprises a metal oxysilicide layer.
Bidirectional-heating prefabricated continuous composite flooring (1; 100; 150) which includes a layered artifact comprising: • a flexible and/or elastically yielding base substrate , made of a thermo-conductive material and suitable to be set on a reference surface; • thermo-heating means of the electric type, arranged above said base substrate and using a very low voltage supply in the range of 12 to 48 Volts; • a covering and protection layer (4; 103; 153), made of a thermo-conductive material, arranged above said thermo-heating means in such a way as to form an overall sandwich structure and provided with an outer facing upwardly surface which provides for a heating walkable, bicycle and/or carriageable decking, in such a way that the heat produced by said heating means is irradiated in bidirectional way both upwardly, above said covering and protection layer , and downwardly, below said base substrate . • a flexible and/or elastically yielding base substrate , made of a thermo-conductive material and suitable to be set on a reference surface; • thermo-heating means of the electric type, arranged above said base substrate and using a very low voltage supply in the range of 12 to 48 Volts; • a covering and protection layer (4; 103; 153), made of a thermo-conductive material, arranged above said thermo-heating means in such a way as to form an overall sandwich structure and provided with an outer facing upwardly surface which provides for a heating walkable, bicycle and/or carriageable decking,
An image processing method, configured to process scene data acquired by an imaging device, the scene data comprising a first scene image, and the method comprising: processing the scene data to obtain a scheme of the first scene image (S10) comprising: processing the scene data to obtain a foreground portion of the first scene image (S12); determining the foreground portion as a scheme when an area ratio of the foreground portion to the first scene image falls within a predetermined range (S16); determining a region of the first scene image other than the scheme as a background portion (S40); the method further comprising processing the first scene image according to the scheme to obtain a backlight effect image comprising (S20): processing the first scene image to overexpose the background portion (S22); processing the first scene image to increase a brightness of the scheme (S24); and processing the first scene image to generate a strong light scattering effect for an outline of the scheme (S26). processing the scene data to obtain a foreground portion of the first scene image (S12); determining the foreground portion as a scheme when an area ratio of the foreground portion to the first scene image falls within a predetermined range (S16); determining a region of the first scene image other than the scheme as a background portion (S40); the method further comprising processing the first scene image according to the scheme to obtain a backlight effect image comprising (S20): processing the first scene image to overexpose the background portion (S22); processing the first scene image to increase a brightness of the scheme (S24); and processing the first scene image to generate a strong light scattering effect for an outline of the scheme (S26). processing the first scene image to overexpose the background portion (S22); processing the first scene image to increase a brightness of the scheme (S24); and processing the first scene image to generate a strong light scattering effect for an outline of the scheme (S26).
A storage system , wherein the system comprises: N storage devices , wherein each storage device comprises at least one processing unit , a switch unit , and at least one storage unit , and the switch unit comprises at least two uplink port, U, and at least two downlink ports, D; the at least two uplink ports comprise at least one first uplink port and a second uplink port, and the at least one processing unit is connected to the at least one first uplink port; the at least two downlink ports comprise at least one first downlink port and a second downlink port, and the at least one storage unit is connected to the at least one first downlink port; and the N storage devices are connected in a ring shape, wherein in the N storage devices, a second downlink port of an i th storage device is connected to a second uplink port of an (i+1) th storage device, a second downlink port of an N th storage device is connected to a second uplink port of a first storage device, i=1, ..., and N-1, and N ≥ 2; wherein there is a connection link between any downlink port of the at least two downlink ports and any uplink port of the at least two uplink ports of the switch unit. N storage devices , wherein each storage device comprises at least one processing unit , a switch unit , and at least one storage unit , and the switch unit comprises at least two uplink port, U, and at least two downlink ports, D; the at least two uplink ports comprise at least one first uplink port and a second uplink port, and the at least one processing unit is connected to the at least one first uplink port; the at least two downlink ports comprise at least one first downlink port and a second downlink port, and the at least one storage unit is connected to the at least one first downlink port; and the N storage devices are connected in a ring shape, wherein in the N storage devices, a second downlink port of an i th storage device is connected to a second uplink port of an (i+1) th storage device, a second downlink port of an N th storage device is connected to a second uplink port of a first storage device, i=1, ..., and N-1, and N ≥ 2; wherein there is a connection link between any downlink port of the at least two downlink ports and any uplink port of the at least two uplink ports of the switch unit.
An x-ray housing comprising: a tubular unitary body having an external fin array , the external fin array extending from a first end of the tubular unitary body to a second end of the tubular unitary body; and an internal fluid passageway recess formed into a lumen wall through a heat exchanger portion of the unitary body, the external fin array and internal fluid passageway recess circumferentially extending partially around the tubular unitary body such that corresponding side edges of the external fin array and the internal fluid passageway recess are radially proximal; characterised by : a manifold recess in the lumen wall at the second end of the tubular unitary body; and a manifold in the manifold recess, the manifold having at least one manifold port that fluidly couples the lumen to the internal fluid passageway. a tubular unitary body having an external fin array , the external fin array extending from a first end of the tubular unitary body to a second end of the tubular unitary body; and an internal fluid passageway recess formed into a lumen wall through a heat exchanger portion of the unitary body, the external fin array and internal fluid passageway recess circumferentially extending partially around the tubular unitary body such that corresponding side edges of the external fin array and the internal fluid passageway recess are radially proximal; characterised by : a manifold recess in the lumen wall at the second end of the tubular unitary body; and a manifold in the manifold recess, the manifold having at least one manifold port that fluidly couples the lumen to the internal fluid passageway. a manifold recess in the lumen wall at the second end of the tubular unitary body; and a manifold in the manifold recess, the manifold having at least one manifold port that fluidly couples the lumen to the internal fluid passageway.
A conductor assembly , comprising: one or more conductors formed by a conductive material; and one or more filter cores formed integrally on and at least partially around the one or more conductors , wherein the one or more filter cores are formed of a material different than the conductive material and are configured to reduce electromagnetic emissions from the one or more conductors ; wherein the one or more conductors include a plurality of conductors; and wherein the one or more filter cores include a continuous filter core surrounding the plurality of conductors, characterized by further comprising an electrical insulator disposed between each of the plurality of conductors and the continuous filter core to electrically isolate each conductor from each filter core, wherein the one or more filter cores surround each of the one or more conductors . one or more conductors formed by a conductive material; and one or more filter cores formed integrally on and at least partially around the one or more conductors , wherein the one or more filter cores are formed of a material different than the conductive material and are configured to reduce electromagnetic emissions from the one or more conductors ; wherein the one or more conductors include a plurality of conductors; and wherein the one or more filter cores include a continuous filter core surrounding the plurality of conductors, characterized by further comprising an electrical insulator disposed between each of the plurality of conductors and the continuous filter core to electrically isolate each conductor from each filter core, wherein the one or more filter cores surround each of the one or more conductors .