mhurhangee/patent-ind-claim-en huggingface dataset:
A method for validating sensor units in a UAV, said UAV comprising: a first sensor unit and a second sensor unit, each sensor unit being configured to create an image of the surroundings, said method comprising the steps of: - taking a first image by said first sensor unit, - taking a second image by said second sensor unit, wherein said second image and said first image at least partly overlap, - comparing the overlapping portions between the first image and the second image, characterized in that based on a result in which said overlapping portions of said first image and said second image do not correlate to each other, determine that at least one of said first sensor unit and said second sensor unit is dysfunctional, wherein in an airborne state, said first sensor unit is in a first position, and wherein the first image is taken in said first position, said method further comprises: - arranging said UAV such that said second sensor unit is positioned in said first position, wherein the second image is taken when said second sensor unit is in said first position. a first sensor unit and a second sensor unit, each sensor unit being configured to create an image of the surroundings, said method comprising the steps of: - taking a first image by said first sensor unit, - taking a second image by said second sensor unit, wherein said second image and said first image at least partly overlap, - comparing the overlapping portions between the first image and the second image, - taking a first image by said first sensor unit, - taking a second image by said second sensor unit, wherein said second image and said first image at least partly overlap, - comparing the overlapping portions between the first image and the second image, characterized in that based on a result in which said overlapping portions of said first image and said second image do not correlate to each other, determine that at least one of said first sensor unit and said second sensor unit is dysfunctional, wherein in an airborne state, said first sensor unit is in a first position, and wherein the first image is taken in said first position, said method further comprises: - arranging said UAV such that said second sensor unit is positioned in said first position, wherein the second image is taken when said second sensor unit is in said first position. - arranging said UAV such that said second sensor unit is positioned in said first position, wherein the second image is taken when said second sensor unit is in said first position.
Apparatus suited for guiding a flexible conduit, in particular a hose , with a joint arrangement , which comprises a first joint part and a second joint part , wherein the two joint parts are pivotable relative to one another about a pivot axis and form a guide channel for the flexible conduit, wherein the guide channel comprises an inlet portion , an outlet portion , and a connecting portion that is variable in length connecting the inlet portion to the outlet portion , characterized in that the connecting portion is covered on its outside facing away from the joint axis by a deformable cover part , wherein the cover part is movably mounted on at least one of the two joint parts , and in that the first joint part comprises an inlet body and a connecting body , the inlet body forming the inlet portion and the connecting body forming the connecting portion of the guide channel, and in that the second joint part comprises an outlet body and a housing body , the outlet body forming the outlet portion and the housing body forming a housing in which the connecting body is mounted so as to be pivotable about the joint axis .
Device for actuating a rail transport braking system for a rail vehicle having brakes with at least one lining or with at least one block, comprising a valve mechanism and a control mechanism configured to act on said valve mechanism, said actuating device being configured to have at least one braking position in which said valve mechanism acts on at least one braking valve of said valve mechanism to actuate said rail transport braking system to brake said rail vehicle , and/or at least one unbraking position in which said valve mechanism acts on at least one unbraking valve of said valve mechanism to actuate said rail vehicle braking system to unbrake said rail vehicle, said control mechanism comprising at least one cam wheel which is able to rotate and which is provided with at least one contact face having a predetermined profile, said contact face being configured to act directly on said at least one braking valve or on said at least one unbraking valve according to the direction of rotational movement of said at least one cam wheel and according to the position of said actuating device; characterized in that said device is configured to have a plurality of braking and/or unbraking positions, said valve mechanism comprises several braking valves disposed for example in parallel in said device and/or several unbraking valves disposed for example in parallel in said device, and said at least one cam wheel is configured to act directly on said braking and/or unbraking valves according to the direction and an angle of rotational movement of said at least one cam wheel and according to the position of said actuating device from among the plurality of positions.
System for the axial coupling of a motor shaft , rotating in a housing of an electric machine , to a gearbox shaft rotating in a housing of a gearbox , comprising a set of axial stitching screws that clamp the electric machine on the gearbox , characterized in that it also comprises a set screw and an insertion sleeve , these being oriented transversely to the plane of joining of the two housings, the insertion sleeve being able to slide in one of the housings in the direction of the second housing under the thrust force of the screw during tightening thereof, being clamped against the latter at a plane of joining of the housings, so as to eliminate any play between the housings at this plane of joining.
A seal ring for sealing a clearance between a rotary shaft and a housing , comprising: dynamic pressure grooves formed at a sliding surface (S1, S2) of the seal ring and including positive pressure generators and negative pressure generators ; and static pressure supply paths formed at the sliding surface (S1, S2) of the seal ring to extend from an inner diameter side to an outer diameter side and to open on a sealed fluid side, wherein said sealed fluid side is the inner diameter side, wherein each of the positive pressure generators , each of the negative pressure generators , and each of the static pressure supply paths are arranged in description order in a circumferential direction of the sliding surface (S1, S2), characterized in that each of the dynamic pressure grooves include a deep groove opening on the sealed fluid side and a shallow groove shallower than the deep groove and extending continuously to the deep groove in the circumferential direction. dynamic pressure grooves formed at a sliding surface (S1, S2) of the seal ring and including positive pressure generators and negative pressure generators ; and static pressure supply paths formed at the sliding surface (S1, S2) of the seal ring to extend from an inner diameter side to an outer diameter side and to open on a sealed fluid side, wherein said sealed fluid side is the inner diameter side, wherein each of the positive pressure generators , each of the negative pressure generators , and each of the static pressure supply paths are arranged in description order in a circumferential direction of the sliding surface (S1, S2), characterized in that each of the dynamic pressure grooves include a deep groove opening on the sealed fluid side and a shallow groove shallower than the deep groove and extending continuously to the deep groove in the circumferential direction.
A dispensing device comprising a housing , an upper body and a lower body located in the housing , a deformable reservoir for storing a liquid or semi-liquid substance to be dispensed, a pumping mechanism for dispensing the substance located in the upper body , characterized in that said deformable reservoir is located on or around the lower body , a supply valve and a dispensing valve are located in the lower body , wherein the supply valve is connected by a lower channel located in the lower body with the deformable reservoir , and wherein the dispensing valve connects the deformable reservoir by an upper channel located in the upper body with the pumping mechanism . a housing , an upper body and a lower body located in the housing , a deformable reservoir for storing a liquid or semi-liquid substance to be dispensed, a pumping mechanism for dispensing the substance located in the upper body , characterized in that said deformable reservoir is located on or around the lower body , a supply valve and a dispensing valve are located in the lower body , wherein the supply valve is connected by a lower channel located in the lower body with the deformable reservoir , and wherein the dispensing valve connects the deformable reservoir by an upper channel located in the upper body with the pumping mechanism .
A method, comprising: forming a trench through a first dielectric layer , a first conductive layer , and a second dielectric layer , the trench exposing a semiconductor substrate and dividing the first conductive layer into a first portion associated with a first word line driver and a second portion associated with a second word line driver; depositing a conformal material that contacts a first sidewall and a second sidewall of the trench such that the conformal material is formed in a plurality of recesses in the first conductive layer; forming an opening over a contact extending through the semiconductor substrate by etching a portion of the conformal material ; and depositing, into the opening, a chalcogenide material configured to store information, the chalcogenide material in contact with a sidewall and a bottom wall of the opening and deposited so as to fill the recesses exposed by the etching, such that the conformal material fills the recesses on either side of the chalcogenide material that are not exposed by the etching. forming a trench through a first dielectric layer , a first conductive layer , and a second dielectric layer , the trench exposing a semiconductor substrate and dividing the first conductive layer into a first portion associated with a first word line driver and a second portion associated with a second word line driver; depositing a conformal material that contacts a first sidewall and a second sidewall of the trench such that the conformal material is formed in a plurality of recesses in the first conductive layer; forming an opening over a contact extending through the semiconductor substrate by etching a portion of the conformal material ; and depositing, into the opening, a chalcogenide material configured to store information, the chalcogenide material in contact with a sidewall and a bottom wall of the opening and deposited so as to fill the recesses exposed by the etching, such that the conformal material fills the recesses on either side of the chalcogenide material that are not exposed by the etching.
A bispecific antibody construct comprising a first binding domain which binds to human and macaque EGFRVIII on the surface of a target cell and a second binding domain which binds to human CD3 on the surface of a T cell, wherein the first binding domain comprises a heavy chain variable region (VH) as depicted in SEQ ID NO: 157 and a light chain variable region (VL) as depicted in SEQ ID NO: 158.
A cutting and creasing system comprising: a) a conveyer supporting a cardboard ; b) a cardboard-motion-control unit configured to control the motion of said conveyer in a first direction ; c) at least one punching head unit including an array of punching elements that are individually and selectively actuatable by a punching-control-unit to move axially with a distal tip that faces said cardboard , between a withdrawn position and a cutting position, wherein said punching head unit is firmly held such that said punching elements are orthogonal to the cardboard ; wherein said punching elements are distributed in a selected areal pattern within said array and with respect to said first direction and with respect to a perpendicular-second-direction , and wherein said perpendicular-second-direction is perpendicular to said first direction ; wherein said punching control unit is preconfigured to timely move each said punching element from said withdrawn position to said cutting position, relative to said conveyer , and to immediately withdraw back punching element to said withdrawn position, to thereby form a through hole across said cardboard or a non-through hole or cut; wherein a cut line is formed by a respective cluster of overlapping said through holes; and wherein a crease line is formed by a respective cluster of either non-overlapping said through holes or either overlapping or non-overlapping said non-through holes or cuts. a) a conveyer supporting a cardboard ; b) a cardboard-motion-control unit configured to control the motion of said conveyer in a first direction ; c) at least one punching head unit including an array of punching elements that are individually and selectively actuatable by a punching-control-unit to move axially with a distal tip that faces said cardboard , between a withdrawn position and a cutting position,
A fault rectification method, applied to a distributed RAFT cluster system having at least 3 nodes comprising a first node and a second and third nodes, status variables of the nodes and the cluster are maintained on each node that comprise at least a currentTerm of the RAFT cluster, a votedFor identifying the leader node in the currentTerm, a local value of the last Loglndex processed on that node and a local value of the last LogTerm processed on that node, wherein a quantity of nodes of said distributed RAFT cluster system have a latest log, said method to prevent a problem that a candidate node that does not have the latest log is elected as a leader after the nodes that had the latest log restarts due to a fault, wherein the first node and the second node have the latest log before the fault occurs the third node does not have the latest log before the fault occurs, and the method comprises: setting a voting status of the first node or any other node to Voting Not Allowed after that node restarts, wherein the voting status is used to indicate whether the re-started node is able to vote in a process in which the distributed RAFT cluster system elects a leader; and setting the voting status of the first or any restarted node to Voting Allowed, only after having received , by that node, a replicated-log-entry message from the second node, wherein the second node is acting as a leader during or after the RAFT election process, whereby in the cluster any replicated-log-entry message comprises a log entry and first identification information, the first identification information comprising the local lastLogIndex and lastLogTerm by the sending node, whereby the receiving node has to confirm that the Loglndex and LogTerm of the log entries received are equal to the lastLogIndex and lastLogTerm of the log-entry received in the replicated log entry-message before its voting status can be set to Voting Allowed. setting a voting status of the first node or any other node to Voting Not Allowed after that node restarts, wherein the voting status is used to indicate whether the re-started node is able to vote in a process in which the distributed RAFT cluster system elects a leader; and setting the voting status of the first or any restarted node to Voting Allowed, only after having received , by that node, a replicated-log-entry message from the second node, wherein the second node is acting as a leader during or after the RAFT election process, whereby in the cluster any replicated-log-entry message comprises a log entry and first identification information, the first identification information comprising the local lastLogIndex and lastLogTerm by the sending node, whereby the receiving node has to confirm that the Loglndex and LogTerm of the log entries received are equal to the lastLogIndex and lastLogTerm of the log-entry received in the replicated log entry-message before its voting status can be set to Voting Allowed.
A spacecraft , comprising: a frame; an electric propulsion system coupled to the frame, the electric propulsion system comprising: a plurality of thrusters, wherein each thruster is independently moveable and/or rotatable; said electric propulsion system being arranged to enable all propulsion operations to be performed, said propulsion operations comprising attitude control, momentum control, and orbit control of the spacecraft, wherein the attitude control and the momentum control includes controlling position and rates of elements of the spacecraft about each axis; wherein the spacecraft does not include a chemical propulsion system. a frame; an electric propulsion system coupled to the frame, the electric propulsion system comprising: a plurality of thrusters, wherein each thruster is independently moveable and/or rotatable; said electric propulsion system being arranged to enable all propulsion operations to be performed, said propulsion operations comprising attitude control, momentum control, and orbit control of the spacecraft, wherein the attitude control and the momentum control includes controlling position and rates of elements of the spacecraft about each axis; wherein the spacecraft does not include a chemical propulsion system.
A process for preparing a pharmaceutical formulation for use in treating cancer comprising a pharmaceutically active compound comprising the following steps: i. providing a solution of a compound of formula 1 as a free base, wherein, R is CH 3 or CH 2 CH 3 or CH 2 C(CH 3 ) 3 , R 1 is 6-CH 3 ; R 2 is H; X is N; Y is N; ii. reacting the solution with hydrochloric acid in ethanol in sufficient amounts to form a di-hydrochloride salt of the compound of formula 1, and having a content of Z-isomer in the salt being less than 5%, such as less than 0.5%, wherein the di-hydrochloride salt precipitates spontaneously; iii. stripping the precipitate comprising the di-hydrochloride salt obtained in step ii. of solvent, iv. dissolving the di-hydrochloride salt of step (iii) in an aqueous solvent, optionally comprising a pharmaceutically acceptable excipient, and v. freeze drying the mixture thereby obtaining a lyophilized powder or cake comprising a di-hydrochloride salt of the compound of formula 1, vi. preparing a pharmaceutical formulation by reconstituting the freeze-dried mixture obtained in step v. in an aqueous solvent at a final concentration in the range of 0.5-30 mg/ml, wherein the pH in the pharmaceutical formulation is in the range of 0.5-4. i. providing a solution of a compound of formula 1 as a free base, wherein, R is CH 3 or CH 2 CH 3 or CH 2 C(CH 3 ) 3 , R 1 is 6-CH 3 ; R 2 is H; X is N; Y is N; R is CH 3 or CH 2 CH 3 or CH 2 C(CH 3 ) 3 , R 1 is 6-CH 3 ; R 2 is H; X is N; Y is N; ii. reacting the solution with hydrochloric acid in ethanol in sufficient amounts to form a di-hydrochloride salt of the compound of formula 1, and having a content of Z-isomer in the salt being less than 5%, such as less than 0.5%, wherein the di-hydrochloride salt precipitates spontaneously; iii. stripping the precipitate comprising the di-hydrochloride salt obtained in step ii. of solvent, iv. dissolving the di-hydrochloride salt of step (iii) in an aqueous solvent, optionally comprising a pharmaceutically acceptable excipient, and v. freeze drying the mixture thereby obtaining a lyophilized powder or cake comprising a di-hydrochloride salt of the compound of formula 1, vi. preparing a pharmaceutical formulation by reconstituting the freeze-dried mixture obtained in step v. in an aqueous solvent at a final concentration in the range of 0.5-30 mg/ml, wherein the pH in the pharmaceutical formulation is in the range of 0.5-4.
A computer-implemented method for communicating information between an automated vehicle and a remote terminal , comprising the steps of: providing information to be communicated between the automated vehicle and the remote terminal ; packaging said information by means of a packaging unit as a sequence of N data packets (P 1 -P N ), wherein each data packet (P 1 -P N ) is provided with a unique data packet number ranging from 1 to N indicating the position of each data packet in the sequence of data packets; transmitting the sequence of N data packets (P 1 -P N ) via a first communication link (A) between the automated vehicle and the remote terminal and also via at least a second communication link (B) between the automated vehicle and the remote terminal , said first and at least second communication link (A, B) established by means of an automated vehicle communication unit and a remote terminal communication unit ; assembling a complete sequence of N unique data packets (P 1 -P N ) by means of an assembling unit after each unique data packet (P 1 -P N ) has been successfully communicated via either said first or at least second communication link (A, B), characterized in that the sequence of N data packets (P 1 -P N ) is transmitted via said first communication link (A) in an order of ascending data packet numbers and via said at least second communication link (B) in an order of descending data packet numbers . providing information to be communicated between the automated vehicle and the remote terminal ; packaging said information by means of a packaging unit as a sequence of N data packets (P 1 -P N ), wherein each data packet (P 1 -P N ) is provided with a unique data packet number ranging from 1 to N indicating the position of each data packet in the sequence of data packets; transmitting the sequence of N data packets (P 1 -P N ) via a first communication link (A) between the automated vehicle and the remote terminal and also via at least a second communication link (B) between the automated vehicle and the remote terminal , said first and at least second communication link (A, B) established by means of an automated vehicle communication unit and a remote terminal communication unit ; assembling a complete sequence of N unique data packets (P 1 -P N ) by means of an assembling unit after each unique data packet (P 1 -P N ) has been successfully communicated via either said first or at least second communication link (A, B), characterized in that the sequence of N data packets (P 1 -P N ) is transmitted via said first communication link (A) in an order of ascending data packet numbers and via said at least second communication link (B) in an order of descending data packet numbers .
A communication apparatus including: a determination unit that determines a direction in which the communication apparatus faces; a measurement unit that measures signal strength indicating strength of a radio wave received by the communication apparatus; a notification unit that notifies a user of the signal strength falling below a first threshold; and a display unit that superimposes a direction in which the signal strength exceeds a second threshold, as a first display, on a second display being displayed; and wherein at least one of the first threshold and the second threshold is determined by an application being used on the communication apparatus. a determination unit that determines a direction in which the communication apparatus faces; a measurement unit that measures signal strength indicating strength of a radio wave received by the communication apparatus; a notification unit that notifies a user of the signal strength falling below a first threshold; and a display unit that superimposes a direction in which the signal strength exceeds a second threshold, as a first display, on a second display being displayed; and wherein at least one of the first threshold and the second threshold is determined by an application being used on the communication apparatus.