mhurhangee/patent-ind-claim-en huggingface dataset:
A device for deriving a force (1; 100; 200), comprising: - a tube which extends along a main axis (X2) and which has a friction inner wall , - a first member (3; 31) which is slidably mounted within the tube along the main axis (X2), characterized in that the friction inner wall is substantially cylindrical, and the force deriving device further comprises: - at least one primary leg (5; 51) disposed obliquely relative to the main axis (X2), and including an inner end via which it is attached to the first member (3; 31), and an outer end forming a primary pad , which is in frictional contact with the inner wall, the inner end being disposed upstream of the primary pad in consideration of a first direction (D1) parallel to the main axis (X2), so that, when a first outer force (E1) is applied on the first member (3; 31) according to the first direction (D1), the primary leg enters in friction or in bracing, against the inner wall, via its primary pad, the tube thus taking up only a fraction (F1) of the first outer force (E1) by friction of the primary pad against the inner wall, or the entire first outer force (E1) by bracing the primary leg, and - a second member (4; 41) which is mounted within the tube, sliding along the main axis (X2), which is drivingly connected to the first member, and which is securely provided with at least one driving element (14; 141) to drive the primary pad so as to reduce the friction of the latter on the inner wall, under the application of a second outer force (E2) on the second member according to the first direction (D1), to defuse the friction or the bracing of the primary leg. - a tube which extends along a main axis (X2) and which has a friction inner wall , - a first member (3; 31) which is slidably mounted within the tube along the main axis (X2), - at least one primary leg (5; 51) disposed obliquely relative to the main axis (X2), and including an inner end via which it is attached to the first member (3; 31), and an outer end forming a primary pad , which is in frictional contact with the inner wall, the inner end being disposed upstream of the primary pad in consideration of a first direction (D1) parallel to the main axis (X2), so that, when a first outer force (E1) is applied on the first member (3; 31) according to the first direction (D1), the primary leg enters in friction or in bracing, against the inner wall, via its primary pad, the tube thus taking up only a fraction (F1) of the first outer force (E1) by friction of the primary pad against the inner wall, or the entire first outer force (E1) by bracing the primary leg, and - a second member (4; 41) which is mounted within the tube, sliding along the main axis (X2), which is drivingly connected to the first member, and which is securely provided with at least one driving element (14; 141) to drive the primary pad so as to reduce the friction of the latter on the inner wall, under the application of a second outer force (E2) on the second member according to the first direction (D1), to defuse the friction or the bracing of the primary leg.
A blazed diffraction grating comprising: a) a support having a saw-tooth sectional shape and having a basic blaze surface and a basic riser surface arranged alternately and repeatedly in a direction; b) a resin layer covering the basic blaze surface and the basic riser surface of the support and having monotonically changing thickness on the basic blaze surface in the direction, and; c) a metal coating film covering a surface of the resin layer, characterized in that a blaze angle of the resin layer on the basic blaze surface is smaller than a blaze angle of the basic blaze surface . a) a support having a saw-tooth sectional shape and having a basic blaze surface and a basic riser surface arranged alternately and repeatedly in a direction; b) a resin layer covering the basic blaze surface and the basic riser surface of the support and having monotonically changing thickness on the basic blaze surface in the direction, and; c) a metal coating film covering a surface of the resin layer,
An apparatus for treating a tooth , the apparatus comprising: a fluid retainer configured to be applied to the tooth to substantially retain fluid in a tooth chamber in the tooth ; and a pressure wave generator having a distal portion, the distal portion being configured to be inserted through the fluid retainer into the tooth chamber ; wherein the fluid retainer includes a handpiece by which a dental practitioner can apply or maneuver the fluid retainer relative to the tooth during treatment; wherein the pressure wave generator provides an electromagnetic beam of radiation, preferably a laser beam, which electromagnetic beam propagates energy into the tooth chamber ; wherein the electromagnetic beam energy can be transformed into pressure waves as it enters the treatment fluid; wherein the electromagnetic beam generates pressure waves which pressure waves generate photo-induced or photo-acoustic cavitation effects in the fluid; wherein the pressure wave generator is configured to be coupled to the handpiece . a fluid retainer configured to be applied to the tooth to substantially retain fluid in a tooth chamber in the tooth ; and a pressure wave generator having a distal portion, the distal portion being configured to be inserted through the fluid retainer into the tooth chamber ; wherein the fluid retainer includes a handpiece by which a dental practitioner can apply or maneuver the fluid retainer relative to the tooth during treatment; wherein the pressure wave generator provides an electromagnetic beam of radiation, preferably a laser beam, which electromagnetic beam propagates energy into the tooth chamber ; wherein the electromagnetic beam energy can be transformed into pressure waves as it enters the treatment fluid; wherein the electromagnetic beam generates pressure waves which pressure waves generate photo-induced or photo-acoustic cavitation effects in the fluid; wherein the pressure wave generator is configured to be coupled to the handpiece .
A transport block retransmission method, comprising: initially transmitting , by a base station, a transport block, TB, to user equipment, UE, in a closed-loop spatial multiplexing transmit manner, wherein the UE is configured with a 3GPP LTE transmission mode, TM, that supports closed-loop spatial multiplexing and an open-loop transmit manner; when initial transmission of the TB fails, retransmitting , by the base station, the TB in the closed-loop spatial multiplexing transmit manner for first m retransmissions of the TB, wherein m is an integer greater than or equal to 0; and for last N-m retransmissions of the TB, retransmitting , by the base station, the TB in an open-loop transmit manner comprised in the TM to which the closed-loop spatial multiplexing transmit manner belongs, wherein N is a maximum quantity of retransmissions of the TB and N is an integer greater than or equal to 1; and wherein the UE remains configured with the same TM when changing from the closed loop spatial multiplexing to the open-loop transmit manner for retransmission. initially transmitting , by a base station, a transport block, TB, to user equipment, UE, in a closed-loop spatial multiplexing transmit manner, wherein the UE is configured with a 3GPP LTE transmission mode, TM, that supports closed-loop spatial multiplexing and an open-loop transmit manner; when initial transmission of the TB fails, retransmitting , by the base station, the TB in the closed-loop spatial multiplexing transmit manner for first m retransmissions of the TB, wherein m is an integer greater than or equal to 0; and for last N-m retransmissions of the TB, retransmitting , by the base station, the TB in an open-loop transmit manner comprised in the TM to which the closed-loop spatial multiplexing transmit manner belongs, wherein N is a maximum quantity of retransmissions of the TB and N is an integer greater than or equal to 1; and wherein the UE remains configured with the same TM when changing from the closed loop spatial multiplexing to the open-loop transmit manner for retransmission.
Offshore electrolysis plant comprising an electrolyser arranged in a container and a heat exchanger , which is designed for heat absorption and discharge of process heat from the electrolysis in a closed coolant circuit from the container , characterized in that a coolant pump for conveying the coolant in the coolant circuit is arranged in the container .
A stent graft , comprising: a main body stent graft defining a lumen having a first end a second end ; a diaphragm coupled to the main body stent graft , wherein the diaphragm defines a first opening , a second opening and a third opening ; a first stent graft extension having a first end and a second end , wherein the first stent graft extension has a single lumen, wherein the first end of the first stent graft extension is coupled to the diaphragm and arranged surrounding the first opening ; a second stent graft extension having a first end and a second end , wherein the second stent graft extension has a single lumen at the first end and has a bifurcation defining two lumens at the second end , wherein the first end of the second stent graft extension is coupled to the diaphragm and arranged surrounding the second opening ; and a third stent graft extension having a first end and a second end , wherein the third stent graft extension has a single lumen at the first end, wherein the first end of the third stent graft extension is coupled to the diaphragm and arranged surrounding the third opening , characterized in that the first opening is circular and the second opening is elliptical. a main body stent graft defining a lumen having a first end a second end ; a diaphragm coupled to the main body stent graft , wherein the diaphragm defines a first opening , a second opening and a third opening ; a first stent graft extension having a first end and a second end , wherein the first stent graft extension has a single lumen, wherein the first end of the first stent graft extension is coupled to the diaphragm and arranged surrounding the first opening ; a second stent graft extension having a first end and a second end , wherein the second stent graft extension has a single lumen at the first end and has a bifurcation defining two lumens at the second end , wherein the first end of the second stent graft extension is coupled to the diaphragm and arranged surrounding the second opening ; and a third stent graft extension having a first end and a second end , wherein the third stent graft extension has a single lumen at the first end, wherein the first end of the third stent graft extension is coupled to the diaphragm and arranged surrounding the third opening , characterized in that the first opening is circular and the second opening is elliptical.
A hybrid vehicle , comprising: a fuel tank disposed in a tank storage section formed between left and right side members on a lower side of a floor of a vehicle body; a driving battery disposed in a battery storage section aligned with the tank storage section in a front-rear direction across a cross member connecting between the left and right side members; a driving motor disposed on an opposite side of the battery storage section in the front-rear direction of the vehicle with respect to the tank storage section; and a power line that supplies power from the driving battery to the driving motor , wherein part of the tank storage section includes the left and right side members and the cross members, characterized in that : the power line is extended along a side wall of either one of the left and right side members from a side wall of the cross member so as to bypass the fuel tank via either one of the left and right sides of the fuel tank from a terminal block of the driving battery and an extra length area with slack being formed in an area of the power line along the side wall of the cross member. a fuel tank disposed in a tank storage section formed between left and right side members on a lower side of a floor of a vehicle body; a driving battery disposed in a battery storage section aligned with the tank storage section in a front-rear direction across a cross member connecting between the left and right side members; a driving motor disposed on an opposite side of the battery storage section in the front-rear direction of the vehicle with respect to the tank storage section; and a power line that supplies power from the driving battery to the driving motor , wherein part of the tank storage section includes the left and right side members and the cross members, characterized in that : the power line is extended along a side wall of either one of the left and right side members from a side wall of the cross member so as to bypass the fuel tank via either one of the left and right sides of the fuel tank from a terminal block of the driving battery and an extra length area with slack being formed in an area of the power line along the side wall of the cross member.
Process for producing a pore-containing food having a starch-containing matrix around the pores by producing a gaseous starch-containing raw dough and heating the raw dough, wherein the raw dough is flowable and is mixed with pressurized gas, characterized in that the raw dough is expanded through a nozzle into an immediately adjacent flow-through channel , and for heating in a subsequent section of the flow-through channel is contacted by at least two electrodes arranged on the circumference of the flow-through channel and current applied until the dough reaches at least a temperature at which it is stable for demoulding out of the flow-through channel .
A computer-implemented method for computing a rendered image of a computer-generated object in a computer-generated scene, the method comprising: accessing a dependency graph, the dependency graph comprising a plurality of interconnected nodes, wherein one of the interconnected nodes includes a look-selector node; accessing an asset at an input of the look-selector node, wherein the asset includes a plurality of looks for the computer-generated object, each look of the plurality of looks corresponding to a different visual appearance of the computer-generated object; selecting, at the look-selector node, an active look from the plurality of looks; passing the active look to a next node of the dependency graph; wherein the selected look includes unique surface shading detail that is not included in the other looks of the plurality of looks; and wherein the look selector node selects a corresponding active look for all assets of a set of assets that are received at the look selector node; and wherein each asset in the set of assets represents a computer-generated object in the scene; and computing the rendered image of the set of assets, wherein each rendered asset has a visual appearance corresponding to its active look. accessing a dependency graph, the dependency graph comprising a plurality of interconnected nodes, wherein one of the interconnected nodes includes a look-selector node; accessing an asset at an input of the look-selector node, wherein the asset includes a plurality of looks for the computer-generated object, each look of the plurality of looks corresponding to a different visual appearance of the computer-generated object; selecting, at the look-selector node, an active look from the plurality of looks; passing the active look to a next node of the dependency graph; wherein the selected look includes unique surface shading detail that is not included in the other looks of the plurality of looks; and wherein the look selector node selects a corresponding active look for all assets of a set of assets that are received at the look selector node; and wherein each asset in the set of assets represents a computer-generated object in the scene; and computing the rendered image of the set of assets, wherein each rendered asset has a visual appearance corresponding to its active look.
A single-reel winding device, the device comprises; a distributor wheel for distributing an optical fiber to a first reel for winding the optical fiber , a winder , arranged movably on guide tracks, for revolving the first reel around a center axis (3-1) of the first reel and for moving the first reel along the center axis (3-1) between different positions in order to wind the optical fiber onto the first reel , and for moving the first reel to an exchange area when the first reel is full, an attachment device for attaching the optical fiber to the first reel when the first reel is in the exchange area , a cutter for cutting the optical fiber when the first reel is full, a gripper for gripping on to the optical fiber , provided by the distributor wheel , and keeping the optical fiber stationary during attaching and cutting of the optical fiber , and while the first, full reel is removed from the exchange area and a second, empty reel is provided to the exchange area in order to continue winding of the optical fiber , characterized in that the winder is arranged to move the first reel away from the distributor wheel when the first reel is full, such that the gripper can grip the optical fiber at a position between the distributor wheel and a flange of the first reel which is closest to the distributor wheel , and after removal of the first reel , move the second empty reel to a position where the optical fiber runs over a flange of the second reel , which flange is located closest to the distributor wheel , such that the attachment device can attach the optical fiber to the flange. the device comprises; a distributor wheel for distributing an optical fiber to a first reel for winding the optical fiber , a winder , arranged movably on guide tracks, for revolving the first reel around a center axis (3-1) of the first reel and for moving the first reel along the center axis (3-1) between different positions in order to wind the optical fiber onto the first reel , and for moving the first reel to an exchange area when the first reel is full, an attachment device for attaching the optical fiber to the first reel when the first reel is in the exchange area , a cutter for cutting the optical fiber when the first reel is full, a gripper for gripping on to the optical fiber , provided by the distributor wheel , and keeping the optical fiber stationary during attaching and cutting of the optical fiber , and while the first, full reel is removed from the exchange area and a second, empty reel is provided to the exchange area in order to continue winding of the optical fiber , characterized in that the winder is arranged to move the first reel away from the distributor wheel when the first reel is full, such that the gripper can grip the optical fiber at a position between the distributor wheel and a flange of the first reel which is closest to the distributor wheel , and after removal of the first reel , move the second empty reel to a position where the optical fiber runs over a flange of the second reel , which flange is located closest to the distributor wheel , such that the attachment device can attach the optical fiber to the flange.
A bi-functional catheter comprising: • a conduit , • a connector comprising a fluidic connection and an electrical connection , • an inner sheath forming the conduit enabling the catheter to be connected to a fluid reservoir, • an injection nozzle fastened to a distal end of the inner sheath , the injection nozzle forming an electrode, • and an outer sheath , surrounding the inner sheath , one of the inner sheath and the outer sheath being movable relative to the other one of the inner sheath and the outer sheath , characterized in that the electrode is connected to the electrical connection and a distal end of the electrode comprises an annulus having a flat distal surface. • a conduit , • a connector comprising a fluidic connection and an electrical connection , • an inner sheath forming the conduit enabling the catheter to be connected to a fluid reservoir, • an injection nozzle fastened to a distal end of the inner sheath , the injection nozzle forming an electrode, • and an outer sheath , surrounding the inner sheath , one of the inner sheath and the outer sheath being movable relative to the other one of the inner sheath and the outer sheath ,
A method of processing video data in a video coding system, comprising: receiving (S810) input data associated with a current block in a current picture; determining (S820) if the current block is an out-of-bounds node, wherein the out-of-bounds node is a coding tree node of the current picture with a block region across a current picture boundary; determining (S830) an inferred splitting type if the current block is an out-of-bounds node; if the current block is an out-of-bounds node, applying (S840) the inferred splitting type to split the current block into child blocks, and then adaptively splitting each child block into one or more leaf blocks, and if the current block is not an out-of-bounds node, splitting the current block into one or more leaf blocks; and encoding or decoding (S860) the one or more leaf blocks in the current block inside the current picture, wherein the method further comprises determining whether the current block is larger than a predefined size when the current block is an out-of-bounds node, splitting the current block using the inferred splitting type only if the current block is larger than the predefined size, and the current block is not forced to be partitioned by the inferred splitting type if the current block is smaller than or equal to the predefined size, wherein the predefined size is set to be a pipeline unit size, maximum transform size, or a multiple of the maximum transform size. receiving (S810) input data associated with a current block in a current picture; determining (S820) if the current block is an out-of-bounds node, wherein the out-of-bounds node is a coding tree node of the current picture with a block region across a current picture boundary; determining (S830) an inferred splitting type if the current block is an out-of-bounds node; if the current block is an out-of-bounds node, applying (S840) the inferred splitting type to split the current block into child blocks, and then adaptively splitting each child block into one or more leaf blocks, and if the current block is not an out-of-bounds node, splitting the current block into one or more leaf blocks; and encoding or decoding (S860) the one or more leaf blocks in the current block inside the current picture, wherein the method further comprises determining whether the current block is larger than a predefined size when the current block is an out-of-bounds node, splitting the current block using the inferred splitting type only if the current block is larger than the predefined size, and the current block is not forced to be partitioned by the inferred splitting type if the current block is smaller than or equal to the predefined size, wherein the predefined size is set to be a pipeline unit size, maximum transform size, or a multiple of the maximum transform size.