mhurhangee/ep-ind-claims huggingface dataset:
A device for slice-by-slice irradiation of tumorous tissue of a patient with a particle beam, comprising: - an accelerator for generating a particle beam with predetermined energy for each slice; - a raster scanning device acting on the particle beam for scanning the tumorous tissue slice by slice; - a modulator for modulating the energy of the particle beam; - a detection device for detecting the location of the tumorous tissue in time-resolved manner, and having - a first memory device for storing data relating to the tumorous tissue, which data were determined prior to an irradiation operation, and for supplying said data to the raster scanning device and to the modulator; and - a module which registers, during an irradiation operation, a dose irradiated by the particle beam per raster point and the data of the detection device; characterized by - a correlation unit which correlates in time the dose irradiated by the particle beam per raster point and the data of the detection device, so as to be able to associate an applied dose to a tumour region. - an accelerator for generating a particle beam with predetermined energy for each slice; - a raster scanning device acting on the particle beam for scanning the tumorous tissue slice by slice; - a modulator for modulating the energy of the particle beam; - a detection device for detecting the location of the tumorous tissue in time-resolved manner, and having - a first memory device for storing data relating to the tumorous tissue, which data were determined prior to an irradiation operation, and for supplying said data to the raster scanning device and to the modulator; and - a module which registers, during an irradiation operation, a dose irradiated by the particle beam per raster point and the data of the detection device; - a correlation unit which correlates in time the dose irradiated by the particle beam per raster point and the data of the detection device, so as to be able to associate an applied dose to a tumour region.
A vehicle movement control system, comprising: a risk potential estimation unit which estimates a risk potential of a vehicle based on input environmental information and vehicle information; a vehicle longitudinal movement control unit which generates a longitudinal movement control command of the vehicle based on a lateral jerk of the vehicle and a predetermined gain; characterized by a vehicle yawing movement control unit which generates a yawing movement control command of the vehicle based on the lateral jerk of the vehicle and the predetermined gain; and a ratio adjustment unit which adjusts a ratio between the longitudinal movement control command of the vehicle and the yawing movement control command of the vehicle, wherein the ratio adjustment unit adjusts the ratio based on the risk potential estimated by the risk potential estimation unit. a risk potential estimation unit which estimates a risk potential of a vehicle based on input environmental information and vehicle information; a vehicle longitudinal movement control unit which generates a longitudinal movement control command of the vehicle based on a lateral jerk of the vehicle and a predetermined gain; characterized by a vehicle yawing movement control unit which generates a yawing movement control command of the vehicle based on the lateral jerk of the vehicle and the predetermined gain; and a ratio adjustment unit which adjusts a ratio between the longitudinal movement control command of the vehicle and the yawing movement control command of the vehicle, wherein the ratio adjustment unit adjusts the ratio based on the risk potential estimated by the risk potential estimation unit.
In a process for preparing an isocyanate by reacting the corresponding amine with phosgene in the presence or absence of an inert medium, the improvement comprising the amine stream fed to the phosgenation on average having a PRI value of less than 60 moles per million moles (mpm).
A positive photosensitive composition comprising: a compound capable of generating a sulfonic acid represented by formula below upon irradiation with one of an actinic ray and radiation; and a resin capable of decomposing under the action of an acid to increase its solubility in an alkali developer, the resin containing (i) at least one of a monocyclic alicyclic structure and a polycyclic alicyclic structure and (ii) no aromatic rings: wherein R 1a to R 13a groups each represents a hydrogen atom, an alkyl group, a haloalkyl group, a halogen atom or a hydroxyl group; A 1 and A 2, which are the same or different, each represents a single bond or a hetero atom-containing divalent linkage group, provided that, when each of A 1 and A 2 is single bond, all of the R 1a to R 13a groups do not simultaneously represent a fluorine atom and all of the R 1a to R 13a groups do not simultaneously represent a hydrogen atom; m 1 to m 5, which are the same or different, each represents an integer of 0 to 12; and p represents an integer of 0 to 4. a compound capable of generating a sulfonic acid represented by formula below upon irradiation with one of an actinic ray and radiation; and a resin capable of decomposing under the action of an acid to increase its solubility in an alkali developer, the resin containing (i) at least one of a monocyclic alicyclic structure and a polycyclic alicyclic structure and (ii) no aromatic rings: wherein R 1a to R 13a groups each represents a hydrogen atom, an alkyl group, a haloalkyl group, a halogen atom or a hydroxyl group; A 1 and A 2, which are the same or different, each represents a single bond or a hetero atom-containing divalent linkage group, provided that, when each of A 1 and A 2 is single bond, all of the R 1a to R 13a groups do not simultaneously represent a fluorine atom and all of the R 1a to R 13a groups do not simultaneously represent a hydrogen atom; m 1 to m 5, which are the same or different, each represents an integer of 0 to 12; and p represents an integer of 0 to 4.
Head end station with at least two identical processing units (3 1, 3 2,..., 3 n) which are each supplied with at least one identical input side data stream and generate an output side data stream, an output side bus system connected with the processing units (3 1, 3 2,..., 3 n) for exchanging output side data streams and status data generated in each of the processing units (3 1, 3 2,..., 3 n), at least two decision elements (7 1, 7 2,..., 7 n; 7; 7 1 '; 7 1 ", 7 2 ",..., 7 n ") connected with the output side bus system for selecting the output side data stream in each processing unit (3 1, 3 2,..., 3 n) to be transmitted to a transmitter system from all the data streams and status data generated in each of the individual processing units (3 1, 3 2,..., 3 n) and a synchronising unit for synchronous transmission of the output side data stream selected and to be transmitted to the transmitter system from each processing unit (3 1, 3 2,..., 3 n), wherein the decision elements (7 1, 7 2,..., 7 n; 7; 7 1 '; 7 1 ", 7 2 ",..., 7 n ") are designed so as to be redundant.
A compound selected from the group consisting of the compounds below: 501 618 502 619 503 620 504 621 505 622 506 623 507 624 508 625 509 626 510 627 511 628 512 629 513 630 514 631 515 632 516 633 517 634 518 635 519 636 520 637 521 638 522 639 523 640 524 641 525 642 526 643 527 644 528 645 529 646 530 647 531 648 532 649 533 650 534 651 535 652 536 653 537 654 538 655 539 656 540 657 541 658 542 659 543 660 544 661 545 662 546 663 547 664 548 665 549 666 550 667 551 668 552 669 553 670 554 671 555 672 556 673 557 674 558 675 559 676 560 677 561 678 562 679 563 680 564 681 565 682 566 683 567 684 568 685 569 686 570 687 571 688 572 689 573 690 574 691 575 692 576 693 577 694 578 695 579 696 580 697 581 698 582 699 583 700 584 701 585 702 586 703 587 704 588 705 589 706 590 707 591 708 592 709 593 710 594 711 595 712 596 713 597 714 598 715 599 716 600 717 601 718 602 719 603 720 604 721 605 722 606 723 607 724 608 725 609 726 610 727 611 728 612 729 613 730 614 731 615 732 616 733 617 734 735 or a pharmaceutically acceptable salt thereof.
A method for recycling a rolled sheet of a battery, the sheet comprising one or more layers including one or more metallic layers, each metallic layer respectively having a coating of a precursory element, the precursory element of the coating of at least one metallic layer being precursory ink containing LiFePO 4 /C (s), the method comprising: - unrolling the sheet; - brushing each metallic layer for which the coating is precursory ink to separate the precursory ink, thereby recovering a substrate containing LiFePO 4/ C (s); and - implementing a method for recovering lithium (Li) and iron (Fe) from the substrate; the method for recovering lithium (Li) and iron (Fe) comprising the steps of: i.- Bringing the substrate into contact with an aqueous leaching solution comprising an organic acid chosen from alkylsulfonic, alkylarylsulfonic, arylsulfonic acids, ethylenediamine-N,N'-bis(2-hydroxyphenylacetic acid) or a mixture thereof, and optionally an oxidizing agent, whereby a liquid phase L 1 rich in lithium and iron is recovered; ii.- Precipitation of iron in the liquid phase L 1 obtained in step i), and recovery of the iron precipitate; iii.- Precipitation of lithium in the L 2 liquid phase obtained in step ii) and recovery of the lithium precipitate; and optionally iv.- Recovery of the liquid phase L 3 obtained in step iii) and recovery of the acid or organic solvent used in step i). - unrolling the sheet; - brushing each metallic layer for which the coating is precursory ink to separate the precursory ink, thereby recovering a substrate containing LiFePO 4/ C (s); and - implementing a method for recovering lithium (Li) and iron (Fe) from the substrate; i.- Bringing the substrate into contact with an aqueous leaching solution comprising an organic acid chosen from alkylsulfonic, alkylarylsulfonic, arylsulfonic acids, ethylenediamine-N,N'-bis(2-hydroxyphenylacetic acid) or a mixture thereof, and optionally an oxidizing agent, whereby a liquid phase L 1 rich in lithium and iron is recovered; ii.- Precipitation of iron in the liquid phase L 1 obtained in step i), and recovery of the iron precipitate; iii.- Precipitation of lithium in the L 2 liquid phase obtained in step ii) and recovery of the lithium precipitate; and optionally iv.- Recovery of the liquid phase L 3 obtained in step iii) and recovery of the acid or organic solvent used in step i).
A turbo machinery case, comprising: a shell body extending circumferentially about a longitudinal axis, the shell body defining a main gas path therethrough with a first offtake opening and a second offtake opening circumferentially spaced from the first offtake opening, the first and second offtake openings (134, 136) having a common axial position; wherein the shell body defines within its interior a first internal plenum in fluid communication with the main gas path through the first offtake opening, and the case further comprises within the interior of the shell body a second internal plenum in fluid communication with the main gas path through the second offtake opening; wherein the shell body includes: an outer shell; an inner shell radially inward of the outer shell; and an intermediate shell disposed between the inner shell and the outer shell, wherein an inner surface of the outer shell and an outer surface of the intermediate shell bound the first internal plenum, and a ligament connecting the inner shell (120 to the intermediate shell, characterized in that opposite faces of the ligament bound the first and second offtake openings (134, 136), and in that the first internal plenum and the second internal plenum are in fluid isolation from one another. a shell body extending circumferentially about a longitudinal axis, the shell body defining a main gas path therethrough with a first offtake opening and a second offtake opening circumferentially spaced from the first offtake opening, the first and second offtake openings (134, 136) having a common axial position; wherein the shell body defines within its interior a first internal plenum in fluid communication with the main gas path through the first offtake opening, and the case further comprises within the interior of the shell body a second internal plenum in fluid communication with the main gas path through the second offtake opening; wherein the shell body includes: an outer shell; an inner shell radially inward of the outer shell; and an intermediate shell disposed between the inner shell and the outer shell, wherein an inner surface of the outer shell and an outer surface of the intermediate shell bound the first internal plenum, and a ligament connecting the inner shell (120 to the intermediate shell, characterized in that opposite faces of the ligament bound the first and second offtake openings (134, 136), and in that an outer shell; an inner shell radially inward of the outer shell; and an intermediate shell disposed between the inner shell and the outer shell, wherein an inner surface of the outer shell and an outer surface of the intermediate shell bound the first internal plenum, and a ligament connecting the inner shell (120 to the intermediate shell, characterized in that opposite faces of the ligament bound the first and second offtake openings (134, 136), and in that the first internal plenum and the second internal plenum are in fluid isolation from one another.
A fiber comprising an elastic, multiple component, solution-spun fiber comprising a cross-section, wherein at least a first region of said cross-section comprises an elastomeric polyurethane, or a polyurethaneurea, or a mixture thereof; and including a second region comprising an elastomeric polyurethane, or a polyurethaneurea, or a mixture thereof and at least one fusibility improvement additive, wherein said first and second regions have different compositions and are continuous along the fiber length; and wherein said fusibility improvement additive includes at least one low temperature melting polyurethane with melting point less than 180°C.
An air conditioning apparatus having a refrigerant circuit configured by connecting a compressor, an outdoor heat exchanger, an expansion valve, and an indoor heat exchanger, the air conditioning apparatus performing an air-warming operation for warming air in a room by circulating refrigerant through the compressor, the indoor heat exchanger, the expansion valve, and the outdoor heat exchanger in the stated order, wherein the outdoor heat exchanger is a heat exchanger in which flat multi-hole tubes are used as heat transfer tubes; characterized in that a controller of the air conditioner is configured to, when an oil-accumulation-resolving criterion is met during the air-warming operation, perform a low-refrigerant-circulation control, in which the refrigerant is circulated through the compressor, the indoor heat exchanger, the expansion valve, and the outdoor heat exchanger in the stated order, for a predetermined time with the operating capacity of the compressor having been lowered to a predetermined capacity.
A device for finishing a workpiece, wherein the workpiece comprises a spherical workpiece surface section and a mounting hole, comprising: - a mandrel-type device, onto which the workpiece can be mounted with the mounting hole, and - a processing station, in which the spherical workpiece surface section of the workpiece mounted on the mandrel-type device can be finished, characterised in that the device comprises a gripping device with a plurality of gripping elements for removing the workpiece from the mandrel-type device, wherein the gripping elements are constituted such that the gripping elements come into contact during removal solely with the surfaces of the workpiece which are not finished, wherein at least one gripping element comprises an engagement area which can be fed into the mounting hole - a mandrel-type device, onto which the workpiece can be mounted with the mounting hole, and - a processing station, in which the spherical workpiece surface section of the workpiece mounted on the mandrel-type device can be finished,
Lowerable vehicle trailer with a chassis having a swivel axle, a vehicle wheel, and a mudguard which is moved with the chassis when it is lowered, wherein the mudguard has its own moving device, which is connected to the swivel axle and to the mudguard, and which moves the mudguard independently and in a movement of the mudguard that is derived from the swivel axle when the chassis is lowered and raised, - wherein the mudguard performs a movement relative to the vehicle wheel and characterized in that the mudguard is independently supported rotatably or guided movably on the chassis, and that the movement device includes a swivel bearing or a lifting device which changes the height of the mudguard positioned between the mudguard and the chassis. - wherein the mudguard performs a movement relative to the vehicle wheel and characterized in that the mudguard is independently supported rotatably or guided movably on the chassis, and that the movement device includes a swivel bearing or a lifting device which changes the height of the mudguard positioned between the mudguard and the chassis.
A lane change system that changes lanes by controlling steering in accordance with a path moving from a first lane in which a host vehicle is traveling to a second lane different from the lane in which the host vehicle is traveling, wherein a lane change is stopped when there is any peripheral vehicle with a high collision risk in the second lane during the lane change from the first lane to the second lane wherein the collision risk is calculated based on a relative position and/ or relative speed of the host vehicle with respect to the peripheral vehicle, and the path is corrected toward the first lane when it is determined that the collision risk is greater than a first threshold during the lane change from the first lane to the second lane, wherein the host vehicle corrects the path toward a lane change standby path when it is determined that the collision risk is greater than a second threshold, wherein the lane change standby path is a path along which a vehicle travels in parallel with a lane marker, which is the path that does not approach either the first lane or the second lane, characterized in that the path is corrected toward the first lane when it is determined that time during which the host vehicle is traveling on the lane change standby path is longer than a third threshold.
A spectrometer comprising: a package on which a light-guiding portion is provided; a spectroscopic module accommodated inside the package; a support member (29, 43) arranged on an inner wall plane of the package to support the spectroscopic module; wherein the spectroscopic module is provided with a body portion having an upper plane and a lower plane for transmitting light made incident from the light-guiding portion and a spectroscopic portion for dispersing light passed through the body portion on the lower plane of the body portion, and the spectroscopic module is supported by the support member (29, 43) on the lower plane in a state of being spaced away from the inner wall plane, wherein a grating base substance made with a light-transmitting material is provided on the lower plane, and the spectroscopic portion is provided on the surface of the grating base substance, wherein the support member (29, 43) supports the lower plane of the body portion, and wherein the body portion is formed in a plate shape, wherein a light incident portion for making light incident from the light-guiding portion into the body portion, a light detecting element for detecting light dispersed by the spectroscopic portion and an electrode pad are provided on the upper plane, and further wherein the light detecting element and the electrode pad are electrically connected.
A microstructure device assembly charactensed in that the microstructure device assembly comprises: a stress isolation bracket comprising a bracket base with a first bracket arm and a second bracket arm each extending from the bracket base with a channel defined therebetween, the first bracket arm defining a first mounting surface for attachment to a microstructure device facing inward with respect to the channel, the second bracket arm defining a second mounting surface facing outward with respect to the channel for attachment to a package for housing the device, wherein the channel is configured to receive a microstructure device therein attached to the first mounting surface of the first bracket arm, and wherein the bracket is configured and adapted to isolate the first mounting surface from packaging stress imparted on the second mounting surface; and a microstructure device mounted to the first mounting surface in the channel, the microstructure device being rigidly attached to the bracket only at the first mounting surface of the bracket. a stress isolation bracket comprising a bracket base with a first bracket arm and a second bracket arm each extending from the bracket base with a channel defined therebetween, the first bracket arm defining a first mounting surface for attachment to a microstructure device facing inward with respect to the channel, the second bracket arm defining a second mounting surface facing outward with respect to the channel for attachment to a package for housing the device, wherein the channel is configured to receive a microstructure device therein attached to the first mounting surface of the first bracket arm, and wherein the bracket is configured and adapted to isolate the first mounting surface from packaging stress imparted on the second mounting surface; and a microstructure device mounted to the first mounting surface in the channel, the microstructure device being rigidly attached to the bracket only at the first mounting surface of the bracket.
An auxiliary frame, in particular a front axle auxiliary frame, for a vehicle, in particular an electric vehicle, with a first shell element (2.1) and with a second shell element (2.2) which is rigidly connected to the first shell element (2.1) and, with the latter, defines a cavity, with a cross bridge for bearing a vehicle drive unit, in particular a vehicle drive motor or a gear unit, which cross bridge is connected by a screwed connection to the first shell element (2.1) and/or to the second shell element (2.2), and with a sleeve-like spacer element (14, 14', 14") for the inserting of a screw for vehicle body connection, wherein the spacer element (14, 14', 14") is arranged at one of its ends at a through-hole of the first shell element (2.1) and extends within the cavity in the direction of a through-hole of the second shell element (2.2), and wherein the spacer element (14, 14', 14") has a sleeve-like portion (14.2) for receiving a screw of the screwed connection of the cross bridge.