판매용 중고 ASML Twinscan XT 1250D #9238020

이 품목은 이미 판매 된 것 같습니다. 아래 유사 제품을 확인하거나 연락해 주십시오. EMC 의 숙련된 팀이 이 제품을 찾을 수 있습니다.

ID: 9238020
웨이퍼 크기: 12"
빈티지: 2004
ArF Scanner, 12" Track pre-warning signal: APR Input / Output conflicts No closing disk type Type of wafer table on chuck 1 and 2: Zerodur Wafer stage: Type 2 Wafer carrier location: Right (25) Wafers per carriers Wafer stage types: Dual chuck Lower docking plates WS Balance mass: Stainless steel WH Robot power amplifier: CPM 20 Wafer stage fast stiff X move electronics Wafer stage mirror block down electronics UNIVERSAL Pre-alignment Interferometer axis version at exposure: 3 Plus, 1 Axis Dedicated wafer handling pneumatic Chuck 1 and 2, 12" Specifies chuck 1 and 2 config: Dry Docking wheels at WH unload Docking plate height: Low Carrier handler type: Mark I 300 Foup Wafer handling load: Double fold arm, 12 mm Unload robot type: Z Stroke Wafer handler WRT BF shifted in Z: Not shifted No enhancements in reticle monitor Encoders measurement system: Hall sensors for zeroing Reticle stage chuck type: Glued leaf spring: Type 2: Glued LS, Pneumatic GC, IFM / ENC Reticle carrier location: Right Integrated reticle inspection system: PPD1 With IRIS1 Integrated reticle library: IRL Reticle, 6" Reticle carrier tag reader Reticle stage long stroke motor type: Cobalt ferro 18 teeth Reticle stage long stroke config type 3: CoFe-18 Motor SB Controller Vacuum supply Pneum GC Reticle stage: Lens cooler box with anti-aliasing filter Maximum reticle ID length: 24 Characters Reticle stage measurement system on scan: HEIDENHAIN Encoder Relative direction of WS to RS on the X axis RS Object field Reticle exchange type: Retex E option Reticle handler type: Original Integrated reticle inspection system Dynamic performance calculation: Mark 1 Stages sample rate: 5.0 kHz Interferometer electronic Capacitive Z-height sensor type: Dual Z sensor board IFM Config at measure side: 8-Axes Dose system performance test sequence: Test sequence 1 PEP-ADC Intensity: Disable PEP-ADC intensity Online lamp peak Dose intensity optimization Laser gas life extension Depolarizer type: Fixed depolarizer Intensity calibration per DOE Pupil qualification method: Centre of gravity method Unpolarized illumination amorph DOE Fresnel corrections for WSSS IS NA Accuracy measurement allowed No exchangeable pupil lens element No sigma calibration No sigma WIP preserving offset THFFC FDE Model lens dependent Determination of NA ellipticity XML Output for lithoguide Validity range: Exact matching for UIP data Active element: ALE No polarization shaping element retractor hardware BMU Reading: DOE1 Plane Lens type: 12 Light-source architecture: Laser Light-source type: CYMER XLA 165 Laser Light-source wave-length: 193 nm Dose mapper REMA Architecture: REMA C Illuminator type: 120 Zoom AXICON architecture: ZZA / 120 Automated DOE exchanger / Architecture: 5 Slots MIP control UNICOM / Architecture: Motor Imaging electronics architecture: B Architecture Attenuator type Dose mapper 1 Test table Z-axis: Worm wheel PUPICOM / Architecture: DC Motor with gearbox (5) Z Lens manipulators Active lens element Active element (4) Semi-active X-Y lens manipulators Setup sensor board Imaging generic power amplifier Imaging control rack configuration Projection multiplexer board LEC Rack in electronic architecture Projection GPA configuration (5) Lens NEXZ Manipulators Spot sensor surface coating: Bilatal Energy sensor: VLOC Spot sensor chuck 1 and 2: VLOC Uniformity improvement package Pupil measurements with ILIAS Beam control: Beam adjustment Extended spot sensor matching (5) Rxms / (5) Ryms Exchangeable last lens element UV Shutter Dose control hardware: ISB Illuminator platform: Aerial 2 Test table architecture: Aerial 2 Illumination mode DUV Light source power level: 45.00 Watt Lens top tool connection Scanning energy sensor calibration Position of spot sensor on chuck 1 and 2: Layout 1 Z-Capture for low reflectivity wafer TIS Plate deformation correction FSM Flexibility package Field width optimized leveling Constrained fit No leveling throughput improvement on measure side Point-to-point LS machine matching Circuit dependent FEC Focus monitoring Extended LS area Air gauge No air gauge device present Reticle shape correction (Over rule) LS Focus node 3 Level sensor processing rack LS PEMM Config LS CPU Config: (3) CPU Base liner overlay high order intrafield Base liner focus high order intrafield Base liner focus control Log missed translation Recipe creator: Light Lot report data category: Enhanced diagnostic CDC Proximity matching MBDS Control Enhanced exposure 1 Data collection not covered by focus and overlay: Inform pro data collection Overlay data collection XML Lot report content level: Basic Enable to support SMASH XY mark type Mark type: ASML Mark Alignment laser configuration: 2 Color laser OADB Improved dynamic range Boards: ODB With ADB Athena narrow marks Twinscan Alignment sensor types: Athena narrow marks OM Athena focus improvement 1 Maximum alignment speed: Setting 2 AACR Processing rack Purging configuration 3 Ultra pure water flow controller (WICC) LCW Circuit set-ups Clean air configuration CT Miscellaneous rack Clean air temperature controls: Driver and ACC Purge hoods configuration: Compressed clean air and extremely clean dry air Metro frame type: Type 1 Inlet restriction for clean air: Inlet restriction at right side Reticle stage purged mini environment Gas control unit type: High Flow (HF) Readout location of pneumatic facility unit sensor: Machine Base Diagnostics System (MBDS) Lens circuit water flow: High Motor circuit water flows: Normal SPM Temperature correction for lens axis IFM Laser configuration: AOM Re-combo laser Position control rack configuration: Rack configuration type 3 Position control power rack configuration type 3: Stages power rack upto E-spec (5) Motion controllers Position and motion control rack Reticle stage short stroke X/Y11/Y12/Y21/Y22/Y11/Y11 amp: PADC 100 V / 16 A Wafer stage short stroke 1 XY1/ XY2/XY3 amp: PADC 100 V / 16 A Wafer stage short stroke 2 XY1/ XY2/XY3 amp: PADC 100 V / 16 A Reticle stage short stroke Z1/Z2/Z3 amp: Pass low current 8.5 A Wafer stage short stroke 1/2 Z1/Z2/Z3 amp: Pass low current 8.5 A Reticle stage long stroke Y11/Y12/Y21/Y22 amp: 450 V, 20 A PAAC Reticle balance mass 1/2 amp: 450 V, 20 A PAAC AT-pepD Wafer stage long stroke E/M X amp: 400 V, 16 A PAAC AT-D Wafer stage long stroke E/M Y1/Y2/CS amp: 400 V, 16 A PAAC AT-D Wafer stage balance mass 11/12/21/22 amp: 325 V, 14 A PAAC AT-C Pressure update rate: 2 Hz / 4 Hz Test stream PEP Image streaming Overhead reductions: LOR2 Extended zone alignment Intrafield higher order process correction SMASH Reuse capture information in stage alignment Wafer plane deviation check with focus monitoring Parameter indicates how long overlay data will be stored: Short Retention period Level sensor RY drift correction Fading control switch Automated lens heating calibration TIS Align set Image fading control Grid mapper 2D Grid correction Double TIS scan Symmetrical reticle alignment AST Offset correction: TIS LHFB/LOCO NEXZ-Tilt per exposure Projection lens: No off-axis slit Improved edge field leveling Enhanced throughput reticle alignment Adjustable wavelength Alignment report encryption Stage alignment filter Lot correction sequence: Type B Lens heating feedback ALE 1 Uses: Lens heating Overlay node: Level 0 E-Chuck flatness qualification test Layout version number: TIS Plate 1 and 2 on chuck 1/2 Wavelength / Energy sensor AM Controller hardware: SUCR Lithoguide: SAMOS Stray light test PUPIL Measurement FOCAL Measurement Leveling verification test ILIAS Sensor location: Chuck 2 ILIAS Sensor type chuck 2: Multiple scan grid SASO Robustness and fiber connectivity Extended X width masking range PDO Offset for EFL LS spot Patch strategy: Patch level Basic chuck dedication No RMCS client MDL Viewer: Site view ZERO Fiducial: ILIAS MK2 XT Machine architecture XT Architecture revision: Rev 1 2004 vintage.
ASML Twinscan XT 1250D는 크기, 복잡성 및 microfabrication 비용을 줄이기 위해 설계된 정밀 웨이퍼 스테퍼입니다. 이 장치는 공통 프레임에 장착되고 단일 제어 장비에 의해 구동되는 2 개의 동기식 작동 레이저 스캐닝 시스템으로 구성됩니다. 이 시스템에는 배율 (magnification) 이 다른 두 단계가 포함되어 있어 소형/대형 피쳐 크기 격자 (feature size grid) 와 다양한 프로세스 설정에서 복잡한 웨이퍼 설계를 처리할 수 있습니다. ASML TWINSCAN XT: 1250D에는 고유 한 광원 기술이 장착되어 있으며, 이를 통해 조명 순서가 다른 최대 3 개의 빔을 사용할 수 있습니다. "와퍼 '를 정밀 하게 정렬 하기 위하여" 마이크로' 와 "마이크로 '를 연결 한다. 긴 노출 모드 (Long Exposure Mode) 를 사용하여 속도나 정확도를 저하시키지 않고 작은 피쳐를 처리할 수 있습니다. 이 기계는 또한 고도로 동적 초점 제어 (focal control) 를 제공하여 칩 높이 (chip height) 나 설계 (design) 에 관계없이 최적의 프로세스 매개변수를 유지할 수 있습니다. TWINSCAN XT 1250 D는 최고 품질의 결과를 보장하기 위해 다양한 이미징 기술을 사용합니다. 여기에는 비 침습적 이미지 획득 및 MQW (multiple quantum well) 방출 제어가 포함됩니다. 이미지 획득 도구 (Image Acquisition Tool) 는 웨이퍼 표면의 미묘한 구조를 빠르게 감지하여 Twinscan XT가 기하학적 정확도 측면에서 경쟁보다 한 단계 앞서 있을 수 있습니다. 이 장치에는 다양한 반도체 생산 요구 사항에 맞는 다양한 옵션이 있습니다. 여기에는 오버레이 오류 모니터링, 광학 검사 또는 전용 질소 환경이 포함됩니다. 또한 자동화된 공구 (automated tooling) 자산 (옵션) 은 효율적인 통합 수준을 제공하며 운영 프로세스에서 수동 작업을 제거합니다. 따라서 Twinscan XT는 생산성이 높고 비용 효율적인 단위가 됩니다. 요약하면, ASML TWINSCAN XT 1250 D는 소형 및 대형 기능 크기의 복잡한 웨이퍼 설계를 정확하게 정렬 할 수있는 2 단계 웨이퍼 스테퍼입니다. 고급 이미징 (advanced imaging) 기술을 활용하며 다양한 운영 요구에 맞게 사용자 정의할 수 있습니다. 높은 공정의 유연성, 자동화된 툴링을 통해 대용량 반도체 제작을 위한 안정적인 선택이 가능합니다.
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