1. | EXECUTIVE SUMMARY |
1.1. | Manufacturing printed & flexible electronics: An introduction |
1.2. | Comparing benefits of conventional and printed/flexible electronics |
1.3. | Motivation for R2R electronics manufacturing |
1.4. | Improving speed and sustainability |
1.5. | Applications of R2R electronics manufacturing |
1.6. | Can R2R manufacturing be used for high mix low volume (HMLV)? |
1.7. | Readiness level: R2R manufacturing technologies |
1.8. | Summary: Roll-to-roll manufacturing |
1.9. | What is analogue printing? |
1.10. | Technological and commercial readiness level of analogue printing methods |
1.11. | Summary: Analogue printing methods |
1.12. | Introduction to digital printing |
1.13. | Digital printing spans multiple length scales |
1.14. | Technological and commercial readiness level of digital printing methods |
1.15. | Summary: Digital printing methods |
1.16. | Technological and commercial readiness of different printing methods |
1.17. | Benchmarking ink types: Throughput vs minimum feature size |
1.18. | Introduction to vacuum deposition for flexible electronics |
1.19. | Summary: Vacuum deposition |
1.20. | Additive circuit prototyping: an introduction |
1.21. | Readiness level of additive circuit prototyping |
1.22. | Summary: Additive circuit prototyping |
1.23. | Mounting components on printed/flexible electronics: Introduction |
1.24. | Readiness level of methods for mounting components on flexible substrate |
1.25. | Summary: methods for mounting components on printed/flexible electronics |
1.26. | Overall forecast: Analogue printing methods |
1.27. | Overall forecast: Analogue printing methods (proportion) |
1.28. | Overall forecast: Digital printing methods |
1.29. | Overall forecast: Digital printing methods (proportion) |
2. | INTRODUCTION |
2.1. | Manufacturing printed electronics: An introduction |
2.2. | Analogue and digital printing methods for electronics |
2.3. | Improving speed and sustainability |
2.4. | Design maturity of electronics manufacturing methods |
2.5. | Combining multiple established manufacturing methodologies |
2.6. | Scaling up printed electronics production: Transitioning from sheet-to-sheet to roll-to-roll manufacturing |
2.7. | Ensuring reliability of printed/flexible electronics is crucial |
2.8. | Conventional manufacturing methods best for complex multilayer circuits |
2.9. | SWOT Analysis: Conventional electronics manufacturing |
2.10. | Comparing benefits of conventional and printed/flexible electronics |
3. | MARKET FORECASTS |
3.1. | Market forecasting methodology |
3.2. | Overall forecast: Analogue printing methods |
3.3. | Overall forecast: Analogue printing methods (proportion) |
3.4. | Overall forecast: Digital printing methods |
3.5. | Overall forecast: Digital printing methods (proportion) |
3.6. | Forecast: Printing methods for flexible hybrid electronics (FHE) |
3.7. | Forecast: Printing methods for in-mold electronics (IME) |
3.8. | Forecast: Printing methods for partially additive 3D electronics |
3.9. | Forecast: Printing methods for e-textiles |
3.10. | Forecast: Printing methods for circuit prototyping |
3.11. | Forecast: Printing methods for printed sensors |
3.12. | Forecast: Printing methods for electronic skin patches/wearable electrodes |
3.13. | Forecast: Printing methods for flexible thin film PV |
3.14. | Forecast: Printing methods for EMI shielding |
3.15. | Forecast: Printing methods for antennas |
3.16. | Forecast: Printing methods for RFID and smart packaging |
4. | ROLL-TO-ROLL (R2R) MANUFACTURING |
4.1. | Overview |
4.1.1. | Motivation for R2R electronics manufacturing |
4.1.2. | R2R vs S2S electronics: Fixed and variable costs |
4.1.3. | R2R vs S2S electronics: Transition point |
4.1.4. | Can R2R manufacturing be used for high mix low volume (HMLV)? |
4.1.5. | What is the main commercial challenge for roll-to-roll manufacturing? |
4.1.6. | Examples of R2R pilot/production lines for electronics |
4.2. | R2R manufacturing: Technology |
4.2.1. | Emergence of a contract manufacturer for flexible hybrid electronics (FHE) |
4.2.2. | R2R manufacturing of flexible hybrid electronics at research centers |
4.2.3. | Roll-to-roll production of nanomesh |
4.2.4. | Integrating equipment from multiple suppliers makes R2R manufacturing challenging |
4.2.5. | Web speed and yield |
4.2.6. | Roll to roll (R2R) assembly |
4.2.7. | Typical multicomponent R2R line for component placement |
4.2.8. | Bridging the gap from lab to production for R2R electronics |
4.2.9. | Increased interest in R2R equipment, especially high-resolution screen printing |
4.2.10. | Coated substrates for printed electronics |
4.2.11. | NIR heating for curing printed/flexible electronics |
4.2.12. | In-line monitoring important for R2R manufacturing |
4.2.13. | Applying 'Industry 4.0' to printed electronics with in-line monitoring |
4.2.14. | Digitization facilitates 'printed-electronics-as-a-service' |
4.2.15. | Readiness level: R2R manufacturing technologies |
4.3. | R2R manufacturing: Applications |
4.3.1. | Applications of R2R electronics manufacturing |
4.3.2. | R2R manufacturing essential for mass adoption of smart packaging |
4.3.3. | R2R printing of anisotropic conductive adhesive |
4.3.4. | Cables manufactured with R2R etched copper (New Cable Corporation) |
4.3.5. | Direct printed battery-on-flexible production for smart devices (CPI) |
4.3.6. | Towards roll-to-roll printing for OPV |
4.3.7. | First organic photodetector production line (ISORG) |
4.3.8. | Commercial printed pressure sensors production via R2R electronics |
4.3.9. | Flexible batteries produced via R2R manufacturing in development for smart packaging |
4.4. | R2R Manufacturing: Summary |
4.4.1. | Overview of R2R equipment providers for printed/flexible electronics |
4.4.2. | SWOT Analysis: Roll-to-roll manufacturing |
4.4.3. | Summary: Roll-to-roll manufacturing |
5. | ANALOGUE PRINTING METHODS |
5.1. | What is analogue printing? |
5.2. | Analogue printing methods: Screen printing |
5.2.1. | Increased demand for wearable/medical manufacturing leads to expansion plans |
5.2.2. | Asada Mesh: Fine black stainless-steel mesh enables 22-micron screen printing resolution |
5.2.3. | Applied Materials: High resolution screen-printing for wrap around electrodes |
5.2.4. | Metafas: Screen printing manufacturer transitions to printed/flexible electronics |
5.2.5. | SWOT Analysis: Screen printing |
5.2.6. | Summary: Screen printing |
5.3. | Analogue printing methods: Cliché based |
5.3.1. | Introduction to cliché-based printing methods |
5.3.2. | Direct printed metal mesh for transparent conductive films |
5.3.3. | Offset printed metal mesh transparent conductive film |
5.3.4. | High-resolution reverse offset printing (ROP) |
5.3.5. | Applications of high-resolution reverse offset printing |
5.3.6. | R2R ultrafine printing using 'seamless roller mold' |
5.3.7. | How is the ultrafine feature R2R mold fabricated? |
5.3.8. | Printed transparent metal mesh for backlit capacitive touch |
5.3.9. | SWOT Analysis: Cliché-based printing methods (I) |
5.3.10. | SWOT Analysis: Cliché-based printing methods (II) |
5.3.11. | Summary: Cliché-based printing |
5.4. | Analogue printing methods: Coating (blade, slot-die, spray) |
5.4.1. | Blade coating is cheap but inconsistent |
5.4.2. | Slot-die coating is promising for industry |
5.4.3. | Spray coating - rapid but wasteful |
5.4.4. | Jet Metal: Patterning 3D surfaces using patterning then spraying removes need for thermoformable/stretchable ink |
5.4.5. | SWOT Analysis: Cliché-based printing methods (I) |
5.4.6. | Summary: Coating methods (blade, slot-die, spray) |
5.5. | Analogue printing methods: Summary |
5.5.1. | Technological and commercial readiness level of analogue printing methods |
5.5.2. | Benchmarking analogue printing methods |
5.5.3. | Summary: Analogue printing methods |
6. | DIGITAL PRINTING METHODS |
6.1. | Overview |
6.1.1. | Introduction to digital printing |
6.1.2. | Digital printing spans multiple length scales |
6.2. | Digital printing methods: Inkjet / extrusion |
6.2.1. | Inkjet printing vs paste extrusion |
6.2.2. | Inkjet printing for high spatial resolution |
6.2.3. | Print-then-plate utilizes inkjet to produce a seed layer (I) |
6.2.4. | Print-then-plate utilizes inkjet to produce a seed layer (II) |
6.2.5. | A hybrid approach to making flexible circuits from copper ink |
6.2.6. | Extruding conductive paste for antennas on 3D surfaces |
6.2.7. | Extruded conductive paste for antennas |
6.2.8. | Printing wiring onto 3D surfaces |
6.2.9. | SWOT analysis: Inkjet (for printed/flexible electronics) |
6.2.10. | Summary: Inkjet and extrusion |
6.3. | Digital printing methods: laser induced forward transfer (LIFT) |
6.3.1. | Laser induced forward transfer (LIFT): Combining the best of inkjet and laser direct structuring (LDS) |
6.3.2. | Operating mechanism of laser induced forward transfer (LIFT) |
6.3.3. | Comparing LIFT with other deposition methods |
6.3.4. | Applications for LIFT |
6.3.5. | Altana introduces laser induced forward transfer (LIFT) for printed/additive electronics (I) |
6.3.6. | Altana introduces laser induced forward transfer (LIFT) for printed/additive electronics (II) |
6.3.7. | IO-Tech launches its first laser induced forward transfer machine |
6.3.8. | Keiron printing technologies |
6.3.9. | Research center NAITEC develop LIFT for multilayer printing |
6.3.10. | Overview of EHD system providers |
6.3.11. | SWOT analysis: Laser induced forward transfer |
6.3.12. | Summary: Laser induced forward transfer (LIFT) |
6.4. | Digital printing methods: Aerosol printing |
6.4.1. | Aerosol printing: An introduction |
6.4.2. | Aerosol printing mechanism |
6.4.3. | Aerosol deposition onto 3D surfaces |
6.4.4. | Example of aerosol printed functionality |
6.4.5. | Aerosol printing with atomization in the printhead reduces costs |
6.4.6. | Aerosol deposition vs LDS (laser direct structuring) |
6.4.7. | Varying line width to control resistance with aerosol printing |
6.4.8. | Aerosol printed transistors: An early stage technology |
6.4.9. | Aerosol printing of terahertz metamaterials |
6.4.10. | Overview of aerosol printing system providers |
6.4.11. | SWOT Analysis: Aerosol printing |
6.4.12. | Summary: Aerosol printing |
6.5. | Electrohydrodynamic (EHD) printing |
6.5.1. | Electrohydrodynamic printing enables high resolution |
6.5.2. | Electrohydrodynamic (EHD) printing from a multi-nozzle MEMS chip increases throughput |
6.5.3. | EHD for microfluidics |
6.5.4. | EHD for display manufacturing with emissive OLED materials and quantum dots |
6.5.5. | Increasing interest in electrohydrodynamic (EHD) printing |
6.5.6. | SWOT Analysis: Electrohydrodynamic printing |
6.5.7. | Summary: Electrohydrodynamic (EHD) printing |
6.6. | Digital printing methods: Other emerging approaches |
6.6.1. | XTPL: Capabilities of high-resolution/high-viscosity printing system |
6.6.2. | Viscosity vs feature size for high resolution printing |
6.6.3. | Applications of high-resolution/high-viscosity UPD printing system |
6.6.4. | SWOT Analysis: Ultra-precise deposition |
6.6.5. | High resolution patterning from an adapted atomic force microscope (AFM) |
6.6.6. | SWOT Analysis: AFM with ink dispensing |
6.6.7. | Impulse printing could speed up ink deposition for 3D electronics |
6.6.8. | SWOT Analysis: Impulse printing |
6.6.9. | Summary: Other emerging digital printing methods |
6.7. | Digital printing methods: Summary |
6.7.1. | Emerging start-ups in microfabrication (I) |
6.7.2. | Emerging start-ups in microfabrication (II) |
6.7.3. | Benchmarking digital printing methods |
6.7.4. | Technological and commercial readiness level of digital printing methods |
6.7.5. | Summary: Digital printing methods |
7. | VACUUM DEPOSITION |
7.1. | Introduction to vacuum deposition for flexible electronics |
7.2. | CreaPhys/MBraun: Controlling vapor-phase perovskite deposition with cooled evaporation chambers. |
7.3. | Vacuum deposition is used for photovoltaics manufacturing |
7.4. | Sputtering for high purity deposition |
7.5. | VSParticle: Creation and deposition of nanoparticles made from a wide range of metals |
7.6. | AACVD is an emerging solution-based vacuum approach |
7.7. | How to decide on thin film deposition methods for PV? |
7.8. | SWOT Analysis: Vacuum deposition |
7.9. | Summary: Vacuum deposition |
8. | ADDITIVE CIRCUIT PROTOTYPING |
8.1. | Overview |
8.1.1. | Additive circuit prototyping: An introduction |
8.1.2. | Additive circuit prototyping landscape |
8.2. | Additive circuit prototyping: 2D |
8.2.1. | Prototyping 2D circuits with additive electronics |
8.2.2. | Multilayer circuit prototyping |
8.2.3. | Affordable pick-and-place for prototyping and small volume manufacturing |
8.3. | Additive circuit prototyping: 3D |
8.3.1. | 3D printed electronics extends 3D printing |
8.3.2. | Fully 3D printed electronics |
8.3.3. | Advantages of fully additively manufactured 3D electronics |
8.3.4. | Making 3D electronics sustainable |
8.3.5. | Neotech-AMT: Scaling up 3D electronics and improving sustainability |
8.3.6. | Capabilities of Nano Dimension's dragonfly system (I) |
8.3.7. | Capabilities of Nano Dimension's dragonfly system (II) |
8.4. | Additive circuit prototyping: Summary |
8.4.1. | Readiness level of additive circuit prototyping |
8.4.2. | Summary: Additive circuit prototyping |
9. | MOUNTING COMPONENTS |
9.1. | Overview |
9.1.1. | Mounting components on printed/flexible electronics: introduction |
9.1.2. | What counts as FHE? |
9.1.3. | Overcoming the flexibility/functionality compromise |
9.1.4. | Volume production of flexible hybrid electronics |
9.1.5. | Development of flexible hybrid electronics (FHE) beyond LEDs continues |
9.1.6. | FHE value chain: Many materials and technologies |
9.1.7. | SWOT Analysis: Flexible hybrid electronics (FHE) |
9.2. | Mounting components: Placement |
9.2.1. | Combining printed and placed functionality |
9.2.2. | Development from conventional boxed to flexible hybrid electronics will be challenging |
9.2.3. | Hybrid printing methods can utilize the best of both approaches |
9.2.4. | Mounting SMD components via roll to roll (R2R) manufacturing |
9.2.5. | Pick-and-place flowchart: Challenges with flexible electronics |
9.2.6. | Direct transfer can replace pick and place |
9.2.7. | Direct die attach - an alternative to pick-and-place |
9.2.8. | Laser transfer of LEDs and SMD components |
9.2.9. | Flip chip bonding of integrated circuits on flexible substrates |
9.2.10. | Self-assembly: An alternative pick-and-place strategy |
9.3. | Mounting components: Attachment |
9.3.1. | Durable and efficient component attachment remains an important topic in the development of FHE circuit. |
9.3.2. | Low temperature solder enables thermally fragile substrates |
9.3.3. | Substrate compatibility with existing infrastructure |
9.3.4. | Low temperature solder could perform as well as conventional solder |
9.3.5. | Low temperature solder may increase cost per PCB by extending reflow times |
9.3.6. | Key ECA innovations reduce silver content |
9.3.7. | Comparing component attachment types |
9.3.8. | Photonic soldering gains traction (I) |
9.3.9. | Photonic soldering gains traction (II) |
9.3.10. | Solder free compliant flexible interconnects |
9.3.11. | Attachment with thermo-sonic bonding |
9.3.12. | Assessing flip-chip attachment on flexible substrates |
9.4. | Mounting components: Summary |
9.4.1. | Readiness level of methods for mounting components on flexible substrate |
9.4.2. | Summary: Methods for mounting components on printed/flexible electronics |
10. | COMPANY PROFILES |
10.1. | Altana |
10.2. | Applied Materials |
10.3. | Asada Mesh |
10.4. | BotFactory |
10.5. | Ceradrop |
10.6. | Coatema |
10.7. | CPI |
10.8. | Enjet |
10.9. | Epishine |
10.10. | FlexBright |
10.11. | Fraunhofer FEP |
10.12. | Henkel |
10.13. | Holst Center |
10.14. | Hummink |
10.15. | Integrated Deposition Solutions |
10.16. | IOTech |
10.17. | ISORG |
10.18. | Jet Metal |
10.19. | Keiron Printing Technologies |
10.20. | Muhlbauer |
10.21. | Nano Dimension |
10.22. | Neotech-AMT |
10.23. | New Cable Corporation |
10.24. | Novacentrix/PulseForge |
10.25. | nScrypt |
10.26. | NthDegree |
10.27. | OLEDWorks |
10.28. | Optomec |
10.29. | PASS |
10.30. | PolyIC |
10.31. | PragmatIC |
10.32. | PV Nano Cell |
10.33. | Quad Industries |
10.34. | Rohinni |
10.35. | Screentec |
10.36. | Scrona |
10.37. | SIJ Technologies |
10.38. | Sunew |
10.39. | SysteMECH |
10.40. | Terecircuits |
10.41. | TF Massif |
10.42. | TRAQC |
10.43. | Voltera |
10.44. | VSParticle |
10.45. | VTT |
10.46. | XTPL |