Used ASML Twinscan XT 1250D #9238020 for sale
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ID: 9238020
Wafer Size: 12"
Vintage: 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 1250D is a precision wafer stepper designed to reduce the size, complexity, and cost of microfabrication. The unit consists of two synchronously-operated laser scanning systems mounted on a common frame and driven by a single control equipment. The system includes two stages with different magnifications, allowing the unit to address complex wafer designs on small or large feature size grids and varying process settings. ASML TWINSCAN XT:1250D is equipped with a unique light source technology which allows up to three beams with different illumination orders to be used. The beams are both microwattled and synchronized to ensure precise alignment on the wafer. A long exposure mode is available to allow processing of smaller features without sacrificing speed or accuracy. The machine also offers highly dynamic focal control, allowing it to maintain optimal process parameters regardless of chip height or design. TWINSCAN XT 1250 D employs a number of imaging technologies to ensure the highest quality results. These include non-invasive image acquisition and multiple quantum well (MQW) emission control. The image acquisition tool can quickly detect subtle structure of the wafer surface, enabling the Twinscan XT to remain one step ahead of the competition in terms of geometrical accuracy. The unit also comes with a range of options to suit different semiconductor production requirements. These include overlay error monitoring, optical inspections, or dedicated nitrogen environments. Additionally, an optional automated tooling asset provides an efficient level of integration and removes manual tasking from the production process. This makes the Twinscan XT a highly productive and cost-effective unit. In summary, ASML TWINSCAN XT 1250 D is a two-stage wafer stepper capable of delivering precise alignment of complex wafer designs in both small and large feature sizes. It utilizes advanced imaging technologies and can be customized to suit different production needs. Its high process flexibility and automated tooling make it a reliable choice for high volume semiconductor fabrication.
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