Applied Materials, Inc. · NASDAQ:AMAT

Applied Materials — 2023 SPIE Advanced Lithography + Patterning Conference

42 slides from Applied Materials's conference presentation, Feb 28, 2023

  1. Slide 1: Applied Materials News from the 2023 SPIE Advanced Lithography + Patterning Conference

    Applied Materials News from the 2023 SPIE Advanced Lithography + Patterning Conference February 28, 2023 | Applied Materials External

  2. Slide 2: Forward-Looking Statements and Other Information

    Forward-Looking Statements and Other Information This presentation contains forward-looking statements, including those regarding anticipated growth and trends in our businesses and markets, industry outlooks and demand drivers, technology transitions, our market share positions, our development of

  3. Slide 3: Michael Sullivan, Head of Investor Relations

    Michael Sullivan Corporate Vice President Head of Investor Relations 3 | Applied Materials External

  4. Slide 4: Semiconductor Wafer Fab Equipment Market Segmentation

    Semiconductor Wafer Fab Equipment Market Segmentation By Equipment Type By Device Type By Application NAND DRAM Patterning Steps Transistor Leading-Edge Formation Foundry-Logic ASML TEL Lam Applied KLA Interconnect Formation ICAPS + Specialty Advanced Packaging Lithography Track/Clean/ CVD PVD Epi/

  5. Slide 5: Applied Materials Patterning Served Markets and Share

    Applied Materials Patterning Served Markets and Share Industry’s Broadest Portfolio SAM ~29% Share ALD CMP CVD ~23% Etch Metrology ~9% 40% NEW 38% 36% Selective Materials Removal 2013 2017 2021 Thermal * Includes Foundry/Logic and DRAM, Excludes NAND Applied’s patterning SAM has grown at 1.4X the ra

  6. Slide 6: Applied Materials Patterning Served Markets and Share

    Applied Materials Patterning Served Markets and Share Industry’s Broadest Portfolio SAM ~29% Share ALD CMP CVD ~23% Etch Metrology ~9% 40% NEW: Pattern Shaping 38% 36% Selective Materials Removal 2013 2017 2021 Thermal * Includes Foundry/Logic and DRAM, Excludes NAND Applied’s patterning SAM has gro

  7. Slide 7: Agenda

    AGENDA Steven Sherman New Pattern-Shaping Technology Reduces EUV Steps Keith Wells New CD-SEM Technology Paves the Way to High-NA EUV Q&A 7 | Applied Materials External

  8. Slide 8: Steven Sherman, Advanced Products Group

    Steven Sherman Managing Director, GM, Advanced Products Group Semiconductor Products Group 8 | Applied Materials External

  9. Slide 9: Creating Patterns with EUV Lithography

    Creating Patterns with EUV Lithography LINES / GRATING Create lines and spaces CUTS Segment lines VIAS Connect layers 9 | Applied Materials External

  10. Slide 10: Pitch Scaling Roadmap

    Pitch Scaling Roadmap 10 Minimum tip-to-tip Patterning at line/space pitch g-line scheme /NA / Minimum CD (µm) i-line of ~32nm 1 DUV EUV ~25-30nm 193 (Dry) /NA Single Patterning 193 (Immersion) 0.1 EUV 0.18µm ~15-20nm 90nm Litho Gap EUV Double Patterning 45nm High NA 22nm 0.01 14nm 11nm Min y pitc

  11. Slide 11: EUV Double Patterning Example: Dense Interconnect Lines

    EUV Double Patterning Example: Dense Interconnect Lines trench (later filled with metal) metal lines route EUV litho-etch 1 lines/spaces patterned with signals and power within minimum EUV spacing each layer of a chip EUV litho-etch 2 line segments formed with multi-patterning used in the tight tip-

  12. Slide 12: EUV Double Patterning Example: Dense Vias

    EUV Double Patterning Example: Dense Vias via (later filled with metal) EUV litho-etch 1 vias patterned with relaxed tip-to-tip spacing vias: connect metal layers EUV litho-etch 2 vias doubled with tight multi-patterning used in the tip-to-tip spacing smallest, most critical layers top view Elliptic

  13. Slide 13: EUV Double Patterning Process Flow

    EUV Double Patterning Process Flow Simplified Litho-Etch Litho-Etch (LELE) Process Flow Deposition CMP Lithography Metrology Pattern Clean Metrology Deposition CMP Lithography Metrology Pattern Clean Metrology Wafer Clean Etch Clean Etch Etch EUV LE 1 EUV LE 2 Alignment errors Per-EUV LE energy and

  14. Slide 14: Pattern Shaping Alternative to EUV Double Patterning: Interconnect Lines

    Pattern Shaping Alternative to EUV Double Patterning: Interconnect Lines Double Patterning Today’s NEWS: Pattern Shaping EUV 1 Pattern line EUV LE 1 segments with relaxed tip-to-tip spacing Pattern shaping EUV LE 2 reduces tip-to-tip spacing top view Source: Samsung PPACt benefit: delivers the densi

  15. Slide 15: Pattern-Shaping Alternative to EUV Double Patterning: Vias

    Pattern-Shaping Alternative to EUV Double Patterning: Vias Double Patterning Today’s NEWS: Pattern Shaping EUV 1 EUV LE 1 Pattern round vias at relaxed EUV spacing Pattern shaping EUV LE 2 creates elliptical vias with tight spacing top view Source: Applied Materials PPACt benefit: delivers high-dens

  16. Slide 16: Introducing Centura Sculpta Patterning System

    Introducing Centura® Sculpta® Patterning System A breakthrough innovation for the patterning engineer’s toolkit ✓ Enhances EUV patterns to optimize chip area and cost without EUV double patterning ✓ Reduces patterning complexity to increase yield ✓ Reduces the environmental impact of advanced chipma

  17. Slide 17: Animation: How Pattern Shaping Works

    Animation: How Pattern Shaping Works YouTube link: https://youtu.be/GSuTyOMq1Bg 17 | Applied Materials External

  18. Slide 18: Pattern-Shaping Process Flow

    Pattern-Shaping Process Flow Simplified Process Flows Deposition CMP Lithography Metrology Pattern Clean Metrology Deposition CMP Lithography Metrology Pattern Clean Metrology Wafer Clean Etch Clean Etch Etch EUV LE 1 EUV LE 2 NEW Deposition CMP Lithography Metrology Pattern Clean Metrology Pattern

  19. Slide 19: Benefits of Pattern Shaping

    Benefits of Pattern Shaping Simplified Litho-Etch (LE) Plus Pattern-Shaping Process Flow NEW Deposition CMP Lithography Metrology Pattern Clean Metrology Pattern Wafer Clean Etch Shaping Etch EUV LE No alignment errors Per-layer energy + materials savings Per-layer cost savings >15kWh per wafer ~$25

  20. Slide 20: Breakthrough Innovation for the Patterning Engineer's Toolkit

    Breakthrough Innovation for the Patterning Engineer’s Toolkit Press Release “ As Moore’s Law drives us to ever-greater compute performance and density, pattern shaping is proving to be an important new technology that can help reduce manufacturing cost and process complexity and conserve energy and

  21. Slide 21: Breakthrough Innovation for the Patterning Engineer's Toolkit

    Breakthrough Innovation for the Patterning Engineer’s Toolkit Press Release “ Three critical issues must be considered when pushing the limits of patterning: tip-to-tip spacing, pattern bridge defects and line edge roughness. As an early development partner on the innovative pattern- shaping technol

  22. Slide 22: Breakthrough Innovation for the Patterning Engineer's Toolkit

    Breakthrough Innovation for the Patterning Engineer’s Toolkit Press Release “ Applied Materials’ new Sculpta system is a revolution in patterning that brings an entirely new capability to chipmakers. As the industry keeps pushing the limits of chip scaling, we need breakthroughs like Applied’s patte

  23. Slide 23: Keith Wells, Imaging and Process Control Group

    Keith Wells Group Vice President and General Manager Imaging and Process Control Group 23 | Applied Materials External

  24. Slide 24: eBeam Tools: "The Eyes of the Fab"

    eBeam Tools: “The Eyes of the Fab” Actionable Segment Applications Purpose Image Insight False SEE Defect Review D to distinguish critical defects from noise, A C SEMVision® E enable root cause analysis B Defect Control Defect DETECT Inspection small, buried and electrical defects PrimeVision® IMEC

  25. Slide 25: CD-SEM: "The Ruler of the Fab"

    CD-SEM: “The Ruler of the Fab” High-NA EUV pattern critical dimensions (CD) line pitch 18nm 44nm critical dimension scanning electron microscope (CD-SEM) top view Source: Applied Materials CD-SEM produces precise, sub-nanometer measurements to continuously calibrate lithography process performance 2

  26. Slide 26: CD-SEM: Helping Control Lithography and Etch Patterning Flows

    CD-SEM: Helping Control Lithography and Etch Patterning Flows Lithography Module Etch Module Lithography CD-SEM CD-SEM Etch after after etch development CD within CD within inspection inspection spec spec (AEI) (ADI) CD out of spec CD out of spec → rework wafer CD within spec → tune lithography vari

  27. Slide 27: EUV Patterning Requires CD-SEM eBeam Innovations

    EUV Patterning Requires CD-SEM eBeam Innovations STANDARD SEM Requirements: Pitch ≥76nm Pitch ≥32nm Pitch ≥24nm top view Process window Process window Process window +/- 1nm +/- 0.7nm +/- 0.5nm SEM precision SEM precision SEM precision 0.1nm 0.07nm 0.05nm 300-500V, 1.4-1.6nm High Resolution SEM ~100

  28. Slide 28: Higher Landing Energy Improves Imaging Resolution

    Higher Landing Energy Improves Imaging Resolution Resolution (nm) Landing energy: high energy is used to concentrate the electron beam on better resolution the target area and produce higher required resolution resolution images. Landing Energy (V) 28 | Applied Materials External

  29. Slide 29: Higher Landing Energy Impacts Photoresist

    Higher Landing Energy Impacts Photoresist Resist Shrinkage (nm) Landing energy: High eBeam energy acceptable shrinkage increases interaction with the photoresist material, resulting in excess shrinkage and pattern distortion. Landing Energy (V) 29 | Applied Materials External

  30. Slide 30: Acceptable Resolution and Shrinkage Define LE Range

    Acceptable Resolution and Shrinkage Define LE Range working LE range Working Landing Energy (LE) Range: Resolution (nm) Resist Shrinkage (nm) CD-SEM landing acceptable shrinkage energies that meet image resolution and shrinkage specifications, enabling lithography required resolution process control

  31. Slide 31: Challenge: Working LE Range Narrows with Lithography Shrink

    Challenge: Working LE Range Narrows with Lithography Shrink STANDARD SEM DUV EUV High-NA EUV working LE range Resist Shrinkage Resolution (nm) Landing Energy (V) 31 | Applied Materials External

  32. Slide 32: Introducing VeritySEM 10 CD Metrology

    Introducing VeritySEM® 10 CD Metrology Paving the Way to High-NA EUV ✓ Lower landing energy ✓ 2x better resolution ✓ Minimal resist shrinkage ✓ 30% faster production throughput 32 | Applied Materials External

  33. Slide 33: VeritySEM for EUV and High-NA EUV CD Metrology

    VeritySEM® 10 for EUV and High-NA EUV CD Metrology STANDARD SEM VERITYSEM® 10 high low high high top view resolution resolution resolution resolution 300-500V, 1.4-1.6nm 300-500V, 1.4-1.6nm High Resolution <300V, SEM 0.8-1.2nm <150V, High 0.8-1.2nm Resolution SEM ≥76nm ~100nm ≥26nm 30-60nm 10-25nm s

  34. Slide 34: Introducing VeritySEM 10 CD Metrology

    Introducing VeritySEM® 10 CD Metrology CD Metrology for 3D Structures ✓ GAA – 3x wider back-scattered electron collection enables epitaxy metrology ✓ 3D NAND – 1.5x larger field of view enables next- generation staircase metrology 34 | Applied Materials External

  35. Slide 35: Imaging 3D Structures with Back-scattered Electrons

    Imaging 3D Structures with Back-scattered Electrons 3D imaging w/ SE eBeam high- energy cannot image BSE deep trenches deep structure 3D imaging w/ BSE low-energy SE bottom of deep trenches imaged bottom of deep structure BSE: back-scattered electrons top view SE: secondary electrons 35 | Applied Ma

  36. Slide 36: New CD Metrology Steps in GAA

    New CD Metrology Steps in GAA VERITYSEM® 10 Selective epitaxy top view is key to GAA nanosheet engineering. VeritySEM® 10 uses BSE technology to measure and characterize the epitaxy process. Ideal Overfilled Underfilled Partial Unmerged Source: Applied Materials 36 | Applied Materials External

  37. Slide 37: New CD Metrology Steps in 3D NAND

    New CD Metrology Steps in 3D NAND VERITYSEM® 10 Staircase interconnect architectures increase contact density to 60um reduce die area and via staircase top view cost. VeritySEM® 10 uses a large field of view with high depth of focus to measure the entire staircase structure with detailed depth of fo

  38. Slide 38: Introducing VeritySEM 10 CD Metrology

    Introducing VeritySEM® 10 CD Metrology Strong customer pull in logic and memory ✓ Over 30 systems shipped ✓ Logic: DTOR for GAA at multiple customers ✓ DRAM: PTOR for EUV at multiple customers ✓ 3D NAND: DTOR/PTOR for staircase patterning at all leading customers 38 | Applied Materials External

  39. Slide 39: VeritySEM Systems Shipped

    <1,300 VeritySEM® Systems Shipped total CD-SEM share foundry/logic CD-SEM share 41% 34% 27% 25% 14% 5% 2013 2017 2021 2023 Source: TechInsights VeritySEM® 4i VeritySEM 5i VeritySEM 6i, 7i VeritySEM 10 BSE High Productivity EUV, High-NA EUV, GAA, 3D NAND 39 | Applied Materials External

  40. Slide 40: High-NA EUV Enablement: VeritySEM Papers at SPIE 2023

    High-NA EUV Enablement: VeritySEM® 10 Papers at SPIE 2023 High-NA EUV Title Collaboration Pattern Effect of Stack and High-NA EUV Resist Material on Shrinkage IMEC Unbiased Roughness Measurements for High-NA EUV Characterization IMEC Orientation Measurement on DRAM Contact Hole as an Aberration SK h

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