mhurhangee/patent-ind-claim-en huggingface dataset:
A double-sided cutting insert having a plurality of convex cutting edges , said double-sided cutting insert comprising: a) a top face and a bottom face separated by a virtual middle plane ; b) at least three convex cutting edges on each of said top and bottom faces ; c) at least three nose corners (405-408,436,437) on each of said top and bottom faces , each nose corner (405-408,436,437) connecting two of said convex cutting edges ; and d) at least three peripheral side surfaces extending from the top face to the bottom face ; characterized in that each convex cutting edge comprises a substantially straight cutting edge region located between two curved convex cutting edge regions ; and wherein each peripheral side surface comprises: i. a first primary conical peripheral surface extending from a primary curved convex cutting edge region at said top face toward a twisted secondary curved convex cutting edge region at said bottom face , and a second primary conical peripheral surface extending from a secondary curved convex cutting edge region at said top face toward a twisted primary curved convex cutting edge region at said bottom face ; ii. a first primary planar surface extending from a primary substantially straight cutting edge region at said top face toward a virtual middle plane , and a second primary planar surface extending from a primary substantially straight cutting edge region at said bottom face toward a virtual middle plane , wherein both said first and second primary planar surfaces are truncated by at least a lateral face ; and iii. a secondary peripheral surface extending from a nose corner at the top face to a nose corner at the bottom face . a) a top face and a bottom face separated by a virtual middle plane ; b) at least three convex cutting edges on each of said top and bottom faces ; c) at least three nose corners (405-408,436,437) on each of said top and bottom faces , each nose corner (405-408,436,437) connecting two of said convex cutting edges ; and d) at least three peripheral side surfaces extending from the top face to the bottom face ; i. a first primary conical peripheral surface extending from a primary curved convex cutting edge region at said top face toward a twisted secondary curved convex cutting edge region at said bottom face , and a second primary conical peripheral surface extending from a secondary curved convex cutting edge region at said top face toward a twisted primary curved convex cutting edge region at said bottom face ; ii. a first primary planar surface extending from a primary substantially straight cutting edge region at said top face toward a virtual middle plane , and a second primary planar surface extending from a primary substantially straight cutting edge region at said bottom face toward a virtual middle plane , wherein both said first and second primary planar surfaces are truncated by at least a lateral face ; and iii. a secondary peripheral surface extending from a nose corner at the top face to a nose corner at the bottom face .
A method for optimizing a drilling strategy during drilling of a well within a subsurface volume comprising a reservoir zone; the method comprising: a) obtaining a trained neural network, having been trained on training data relating to the subsurface volume to infer well data from seismic data; b) obtaining fresh well data from a portion of said well which has been drilled; the method being characterised in that it further comprises: c) further training said trained neural network using training data comprising said fresh well data and associated seismic data from the subsurface volume; d) using the further trained neural network on seismic data to determine inversion well data relating to a region of the subsurface volume comprising an intended well path for the well; and e) optimizing said drilling strategy for at least a next portion to be drilled based on said inversion well data. a) obtaining a trained neural network, having been trained on training data relating to the subsurface volume to infer well data from seismic data; b) obtaining fresh well data from a portion of said well which has been drilled; the method being characterised in that it further comprises: fresh well data from a portion of said well which has been drilled; the method being characterised in that it further comprises: c) further training said trained neural network using training data comprising said fresh well data and associated seismic data from the subsurface volume; d) using the further trained neural network on seismic data to determine inversion well data relating to a region of the subsurface volume comprising an intended well path for the well; and e) optimizing said drilling strategy for at least a next portion to be drilled based on said inversion well data.
A soft gripper (1, 1A-1K) configured to surround and grip an object (90-92) having a curved outer peripheral surface, the soft gripper (1, 1A-1K) comprising: an elongated first actuator (2, 2A-2F) and an elongated second actuator (3, 3A-3F), which are configured to deform in response to supply of a fluid; wherein the first actuator (2, 2A-2F) and the second actuator (3, 3A-3F) extend from bases (n) of the first and second actuators toward opposite sides from each other to leading ends of the first and second actuators, respectively, characterized in that in each of the first actuator (2, 2A-2F) and the second actuator (3, 3A-3F), bending rigidity on a side of the base (n) is smaller than bending rigidity on a side of the leading end (s), such that, when receiving the supply of the fluid in a condition that the base (n) or a specific point (C) between the base (n) and the leading end (s) is in contact with the object (90-92), each of the first actuator (2, 2A-2F) and the second actuator (3, 3A-3F) is deformed along with the curved outer peripheral surface of the object (90-92) to surround the object (90-92) by starting to be bent sequentially from the base (n) or the specific point (C) toward the side of the leading end (s). an elongated first actuator (2, 2A-2F) and an elongated second actuator (3, 3A-3F), which are configured to deform in response to supply of a fluid; wherein the first actuator (2, 2A-2F) and the second actuator (3, 3A-3F) extend from bases (n) of the first and second actuators toward opposite sides from each other to leading ends of the first and second actuators, respectively, characterized in that in each of the first actuator (2, 2A-2F) and the second actuator (3, 3A-3F), bending rigidity on a side of the base (n) is smaller than bending rigidity on a side of the leading end (s), such that, when receiving the supply of the fluid in a condition that the base (n) or a specific point (C) between the base (n) and the leading end (s) is in contact with the object (90-92), each of the first actuator (2, 2A-2F) and the second actuator (3, 3A-3F) is deformed along with the curved outer peripheral surface of the object (90-92) to surround the object (90-92) by starting to be bent sequentially from the base (n) or the specific point (C) toward the side of the leading end (s).
A method for operating a hydraulically actuated work tool with a work jaw , wherein a work process requires an increase in a force applied as the result of a pressure in a hydraulic means, wherein once said increase has been reached, the work process requires no more higher force or a maximum permissible hydraulic force has been reached, wherein the hydraulic pressure is further applied with the aid of a piston pump , with a pump piston that travels through a pump path and a return path in each pump cycle (P), wherein, while the hydraulic pressure is recorded over time (t) given a change from the pump path to the return path, a change takes place from a pressure increase range (a) to a pressure-maintaining range (b) that essentially corresponds to a specific pressure value, characterized in that the work tool is set up to monitor for a break in the work jaw , to which end a reached pressure-maintaining range (b, b') is compared with a predefined pressure-maintaining range (b max ) in a predefined pressure interval (D), or an acquired number of pressure-maintaining ranges in a pressure interval (D) is compared with a number of pressure-maintaining ranges (b, b') predefined for this pressure interval (D), wherein relative to the reached pressure-maintaining range (b, b'), it is concluded that checking the tool for a break in the work jaw is indicated if the reached pressure-maintaining range (b, b') exceeds the predefined pressure-maintaining range (b max ).
Compressed gas container having a casing surrounding a storage volume, which casing comprises a matrix and reinforcing fibers , characterized in that the composition of the matrix changes at least once between the region of the casing facing the storage volume and the region of the casing facing the environment, wherein a layer of the matrix providing diffusion tightness is firmly connected to the layers of the matrix lying above it and to the reinforcing fibers extending through the layers.
A cooling device, particularly a domestic cooling device, positioned close to an outer wall , comprising a rear wall ; a condenser provided at the rear wall ; at least one spacer for defining a gap between the rear wall and the outer wall being provided at the rear wall and movable to a spacing position (II) in which a free end of the spacer is in contact with the outer wall and in which the spacer has an extension distance (d1), wherein the spacer is further movable to a parking position (I) in which a distance of the free end in transverse direction at the gap is substantially equal or smaller than a height of the condenser , wherein the spacer has a post attached to the rear wall and a limb hinged at a tip of the post having the free end , wherein a holding element is secured to the rear wall and the holding element comprises a slot which receives the post in a removable manner, characterized in that the extension distance (d1) is minimum 3 cm and maximum 7 cm greater that a condenser width (d2) and wherein a locking member is arranged between the limb and the post which is activated at the spacing position to lock the limb in a substantially perpendicular angle to the outer wall .
An additively manufactured transmission or gearbox assembly with fail-safe means for providing redundancy where failure can lead to loss of torque transmission between component parts of the assembly, the assembly comprising a plurality of first components in torque transmitting engagement and at least one second component associated with at least one of the first components, the second component being joined to the respective first component by a discontinuous joint, the first components are formed by additive manufacturing and the second component is added to said first components by additive manufacturing.
A method comprising: - starting (3-1) in a user apparatus , a remote support application that contains address information to a remote support site, said user apparatus , having a connection with a local electric drive apparatus in a local site; - establishing (3-3) a remote support session between the user apparatus , and a server apparatus , in the remote support site; characterized in that said method further comprises: - detecting (3-4) in the user apparatus , an input requesting a live support session with virtual drive assistance; - causing sending from the user apparatus , to the server apparatus , in the remote support session a request (3-5) for a live support session with virtual drive assistance; - causing establishing (3-14), , while continuing to run the remote support application and the remote support session, a live support session with virtual drive assistance between a user apparatus , and a service desk apparatus , in the remote support site, said service desk apparatus , having connection to a virtual drive tool , for virtual drive assistance; - forwarding (3-18) by said user apparatus , parameter settings and other relevant process information of the local electric drive apparatus to said service desk apparatus , ; and - receiving by said user apparatus , assistance from said service desk apparatus , controlling and/or operating said virtual drive tool , . - starting (3-1) in a user apparatus , a remote support application that contains address information to a remote support site, said user apparatus , having a connection with a local electric drive apparatus in a local site; - establishing (3-3) a remote support session between the user apparatus , and a server apparatus , in the remote support site; - detecting (3-4) in the user apparatus , an input requesting a live support session with virtual drive assistance; - causing sending from the user apparatus , to the server apparatus , in the remote support session a request (3-5) for a live support session with virtual drive assistance; - causing establishing (3-14), , while continuing to run the remote support application and the remote support session, a live support session with virtual drive assistance between a user apparatus , and a service desk apparatus , in the remote support site, said service desk apparatus , having connection to a virtual drive tool , for virtual drive assistance; - forwarding (3-18) by said user apparatus , parameter settings and other relevant process information of the local electric drive apparatus to said service desk apparatus , ; and - receiving by said user apparatus , assistance from said service desk apparatus , controlling and/or operating said virtual drive tool , .
Head-up display system comprising a housing, a combiner to display information in an operating position (O), a cover to protect the combiner , wherein the combiner , and a rotational drive mechanism comprising a motor, a gearwheel and a driver pin , wherein the combiner is pivotable between the operating position (O) and a storage position (S) around a combiner axis and wherein the cover is movable between an open position (P) and a closed position (C) to protect the combiner in its storage position (S) with the cover in its closed position (C), characterized in that the motor is configured to drive said gearwheel , the gearwheel comprises a curved guiding member on its end face to guide said driver pin along a curve which driver pin engages with the combiner to pivot the combiner between its operating position (O) and its storage position (S), and the motor driven gearwheel is arranged essentially in a parallel plane to the cover in its open position (P).
Closure or connection arrangement , comprising: - a torsion spring element arranged on an abutment , - a cam which is connected at one end to the torsion spring element and projects radially beyond the torsion spring element with respect to the axis of the torsion spring element , and - a receiving body having a guide channel with boundaries, wherein the boundaries form guides for the cam which, when the cam is inserted into the guide channel , rotate the torsion spring element along a torsion path about the axis of the torsion spring element and allow the latter to snap back at least partially after the torsion path, characterized in that a first of the boundaries forming guides for the cam has an increasing and/or decreasing height along the torsional path, and wherein a second of the boundaries forming guides for the cam and opposite the first boundary has a variable height along the torsional path in the opposite direction to the first boundary . - a torsion spring element arranged on an abutment , - a cam which is connected at one end to the torsion spring element and projects radially beyond the torsion spring element with respect to the axis of the torsion spring element , and - a receiving body having a guide channel with boundaries,
A process for producing propene from a mixture of alcohols obtained from at least one renewable source of carbon, characterized by comprising the following steps: a) Fermentation of at least one renewable source of carbon for the production of a mixture of alcohols comprising ethanol, isopropanol and 1-butanol; b) Simplified removal of the alcohols from the fermentative wort to generate an aqueous solution containing chiefly ethanol, isopropanol and 1-butanol; c) Joint dehydration of the alcohols to produce a mixture of olefins comprising chieflty ethene, propene and linear butenes, the linear butenes being a mixture of 1-butene and 2-butenes (cis and trans isomers), besides water and by-products, among which oxygenated compounds; d) Removal of water, oxygenated compounds and other by-products to generate a mixture of olefins comprising chiefly ethene, propene and linear butenes; and e) Passing the mixture of olefins through an isomerization bed so that 1-butene is isomerized to 2-butenes and, subsequently, passing the mixture of olefins comprising chiefly ethene, propene and 2-butene through a metathesis bed, for reaction between ethene and 2-butenes, generating additional propene, the molar ratio ethene:linear butenes being corrected to be between 1:1 and 1.3:1; by means of one of the alternatives selected from the group comprising: (i) Addition of a stream containing ethanol to the process in step (c); (ii) Addition of a stream containing ethene to the process in step (e); (iii) Addition of a stream containing ethanol to the process in step (c) and a stream containing ethene in step (e). a) Fermentation of at least one renewable source of carbon for the production of a mixture of alcohols comprising ethanol, isopropanol and 1-butanol; b) Simplified removal of the alcohols from the fermentative wort to generate an aqueous solution containing chiefly ethanol, isopropanol and 1-butanol; c) Joint dehydration of the alcohols to produce a mixture of olefins comprising chieflty ethene, propene and linear butenes, the linear butenes being a mixture of 1-butene and 2-butenes (cis and trans isomers), besides water and by-products, among which oxygenated compounds; d) Removal of water, oxygenated compounds and other by-products to generate a mixture of olefins comprising chiefly ethene, propene and linear butenes; and e) Passing the mixture of olefins through an isomerization bed so that 1-butene is isomerized to 2-butenes and, subsequently, passing the mixture of olefins comprising chiefly ethene, propene and 2-butene through a metathesis bed, for reaction between ethene and 2-butenes, generating additional propene, (i) Addition of a stream containing ethanol to the process in step (c); (ii) Addition of a stream containing ethene to the process in step (e); (iii) Addition of a stream containing ethanol to the process in step (c) and a stream containing ethene in step (e).
An organometallic compound: Mo(O) 2 (2-ethyl hexanoate) (2-ethyl hexanolate).
A method for predetermining a safe speed of a robot manipulator with respect to a possible collision of the robot manipulator , having the steps of: - providing (S1) a database, wherein the database has a respective data set for a plurality of selected surface points on the robot manipulator , wherein the respective data set indicates a respective safe normal speed of the respective one of the surface points for a plurality of possible stiffnesses and/or masses of an object from the environment of the robot manipulator , wherein the normal speed is the component of the speed vector of the respective one of the surface points that is perpendicular to the local surface of the robot manipulator at a respective one of the surface points , - detecting (S2) an actual stiffness and/or an actual mass of the object from the environment of the robot manipulator by prior knowledge or by sensor detection or assuming infinite stiffness and/or infinite mass, - assigning (S3) the detected actual stiffness and/or the actual mass to a safe normal speed of a respective data set for the respective one of the surface points , and - predetermining (S4) a speed for a respective one of the surface points on an actual or planned path of the robot manipulator such that the normal speed occurring at the respective one of the surface points is less than or equal to the assigned safe normal speed. - providing (S1) a database, wherein the database has a respective data set for a plurality of selected surface points on the robot manipulator , wherein the respective data set indicates a respective safe normal speed of the respective one of the surface points for a plurality of possible stiffnesses and/or masses of an object from the environment of the robot manipulator , wherein the normal speed is the component of the speed vector of the respective one of the surface points that is perpendicular to the local surface of the robot manipulator at a respective one of the surface points , stiffnesses and/or masses of an object from the environment of the robot manipulator , wherein the normal speed is the component of the speed vector of the respective one of the surface points that is perpendicular to the local surface of the robot manipulator at a respective one of the surface points , - detecting (S2) an actual stiffness and/or an actual mass of the object from the environment of the robot manipulator by prior knowledge or by sensor detection or assuming infinite stiffness and/or infinite mass, - assigning (S3) the detected actual stiffness and/or the actual mass to a safe normal speed of a respective data set for the respective one of the surface points , and - predetermining (S4) a speed for a respective one of the surface points on an actual or planned path of the robot manipulator such that the normal speed occurring at the respective one of the surface points is less than or equal to the assigned safe normal speed.
A coin image acquisition device that is configured to acquire an image of a coin , the coin image acquisition device comprising: a light source unit configured to emit light; and an imaging unit configured to capture a reflected image of a coin irradiated with light from the light source unit , the light source unit including a plurality of light-emitting elements disposed in an annular shape and a condensing unit configured to collect light from the light-emitting elements , the condensing unit including a plurality of lenses disposed in an annular shape correspondingly to the respective light-emitting elements , the lenses being on an annular base , each of the lenses having a lower degree of condensation in a circumferential direction of the annular shape than in a radial direction of the annular shape, the condensing unit having a lower degree of condensation in the circumferential direction of the annular shape than in the radial direction of the annular shape, wherein the lenses in the condensing unit are integrally connected via the base , wherein the plurality of light-emitting elements are disposed under the base and the lenses are disposed correspondingly to the respective light-emitting elements under the base . a light source unit configured to emit light; and an imaging unit configured to capture a reflected image of a coin irradiated with light from the light source unit , the light source unit including a plurality of light-emitting elements disposed in an annular shape and a condensing unit configured to collect light from the light-emitting elements , the condensing unit including a plurality of lenses disposed in an annular shape correspondingly to the respective light-emitting elements , the lenses being on an annular base , each of the lenses having a lower degree of condensation in a circumferential direction of the annular shape than in a radial direction of the annular shape, the condensing unit having a lower degree of condensation in the circumferential direction of the annular shape than in the radial direction of the annular shape, wherein the lenses in the condensing unit are integrally connected via the base , wherein the plurality of light-emitting elements are disposed under the base and the lenses are disposed correspondingly to the respective light-emitting elements under the base .