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1. | EXECUTIVE SUMMARY |
1.1. | Transition of human-machine interface |
1.2. | Is the times of natural language interaction coming? |
1.3. | Why natural language UI is disruptive? |
1.4. | Driving force |
1.5. | Influence of speech UI |
1.6. | Market demand of speech technologies |
1.7. | Entry barriers |
1.8. | SWOT analysis of speech UI industry: strengths |
1.9. | SWOT analysis of speech UI industry: weaknesses |
1.10. | SWOT analysis of speech UI industry: opportunities |
1.11. | SWOT analysis of speech UI industry: threats |
1.12. | Profit level |
1.13. | Product life |
1.14. | The cards in giants' hands—Google, Microsoft, Amazon, Facebook, Apple, IBM |
1.15. | Giants' activities |
1.16. | Popular development models in speech-related business |
1.17. | Technology trend |
1.18. | Hype or hope |
1.19. | Value chain |
1.20. | Changes in the value chain |
1.21. | Open-loop system or not |
1.22. | Revenue models of speech products |
1.23. | Market forecasts - assumptions & methodology |
1.24. | Market forecasts 2018-2029 by revenue channel |
1.25. | 2019 & 2029 market values by revenue channel |
1.26. | Analysis of market forecast 2019-2029 by revenue channel |
1.27. | Market forecasts 2018-2029 by application |
1.28. | 2019 & 2029 market values by application |
1.29. | Analysis of market forecast 2018-2029 by application |
2. | INTRODUCTION |
2.1. | Evolution of human-machine interactions |
2.2. | Natural user interface |
2.3. | Questions about natural user interface |
2.4. | Overview of speech UI |
2.5. | Voice interaction products at a glance |
2.6. | User interface and application programming interface |
2.7. | Speech: alternative to keyboard |
2.8. | Evolution of speech user interface |
2.9. | Benefited from high speech recognition accuracy |
2.10. | Timeline of speech recognition error rate |
2.11. | Human parity has been achieved |
2.12. | Voice search is taking an increasing share |
2.13. | Reasons for using voice |
3. | SMART SPEAKERS |
3.1. | Timeline of smart speaker release |
3.2. | Voice-activated smart speaker product list |
3.3. | Amazon Echo |
3.4. | Amazon Echo Dot |
3.5. | Alexa devices |
3.6. | From Google Now to Google Home |
3.7. | Google Home teardown |
3.8. | Comparison of Amazon Echo and Google Home |
3.9. | Apple HomePod |
3.10. | Little Fish powered by Baidu |
3.11. | Levono |
3.12. | Smart speaker comes as voice activated home hubs |
3.13. | The success of Amazon Echo |
3.14. | Amazon Alexa |
3.15. | Integration and centralization |
3.16. | Amazon Web Services |
3.17. | The numbers behind Amazon Echo |
3.18. | Surveys around Amazon Echo |
3.19. | Things work with Amazon Alexa: smart home |
3.20. | Things work with Amazon Alexa: other devices and service |
3.21. | What do developers and users want Amazon Alexa for |
3.22. | Competition strategies |
3.23. | Move away from hardware sales |
3.24. | Interoperability between Amazon, Apple & Google ecosystems |
3.25. | Smart speaker market status |
3.26. | Estimated sales of major voice-activated smart speakers |
3.27. | Smart speaker market forecast |
4. | TECHNOLOGY |
4.1. | Speech technologies |
4.2. | Smart speaker core components |
4.3. | Smart speaker hardware: speaker design |
4.4. | Smart speaker hardware: circuit board, communication and battery |
4.5. | Microphone Arrays |
4.6. | Amazon Echo's 6+1 microphone array |
4.7. | AISpeech's microphone array solutions |
4.8. | Ding Dong R7+1 microphone array |
4.9. | Microphone array trends |
4.10. | MEMS microphones |
4.11. | MEMS microphone leaders |
4.12. | Voice System on Chip for Terminals |
4.13. | Voice SoC features |
4.14. | AI Voice SoC |
4.15. | From voice to voice AI SoC |
4.16. | Evolution of SoC for voice assistant technologies |
4.17. | Voice SoC companies |
4.18. | UniOne |
4.19. | Hangzhou Guoxin Technology |
4.20. | MIT's low-power chip for speech recognition |
4.21. | Artificial Intelligence and Deep Learning |
4.22. | From artificial intelligence, to machine learning and deep learning |
4.23. | Artificial intelligence in the development of human-machine interactions |
4.24. | Terminologies and scopes |
4.25. | Things improved deep learning |
4.26. | Rising interest in google trends |
4.27. | An artificial neuron in the training process |
4.28. | Artificial neural network |
4.29. | Deep learning |
4.30. | The age of gradient descent |
4.31. | Main varieties of machine learning approaches |
4.32. | Evolution of deep learning |
4.33. | Dialogue Systems |
4.34. | Types of dialogue systems |
4.35. | Spoken dialogue system processes |
4.36. | Development stage of speech processing technologies |
4.37. | Front-End Signal Processing |
4.38. | Front-end processing for speech recognition |
4.39. | Voice activity detection |
4.40. | Acoustic echo cancellation |
4.41. | Dereverberation |
4.42. | Beamforming |
4.43. | Sensors for voice biometrics: VocalZoom |
4.44. | VocalZoom used in cars |
4.45. | Humidity sensor with carbon nanotubes for biometric sensing |
4.46. | Algorithm-based approach |
4.47. | Keyword Spotting (KWS) |
4.48. | Keyword spotting |
4.49. | LVCSR KWS |
4.50. | Acoustic KWS |
4.51. | Phonetic search KWS |
4.52. | Automatic Speech Recognition (ASR) |
4.53. | Speech recognition |
4.54. | Timeline of language technologies |
4.55. | Approaches to and types of speech recognition |
4.56. | Evolution of speech recognition |
4.57. | Modern speech recognition processes |
4.58. | Feature extraction methods |
4.59. | Challenges in speech recognition |
4.60. | Speech technology of Baidu: roadmap of speech recognition in Baidu |
4.61. | Natural Language Processing (NLP) and Natural Language Understanding (NLU) |
4.62. | Natural language processing and natural language understanding |
4.63. | Levels of linguistic analyses |
4.64. | Natural language understanding |
4.65. | Natural language understanding system |
4.66. | Knowledge sources for speech understanding |
4.67. | Text-To-Speech (TTS) |
4.68. | Text-to-speech system |
4.69. | Amazon's "Polly" synthesiser |
4.70. | DeepMind of google |
4.71. | VoicePrint Recognition (VPR) |
4.72. | Different voice/sound prints |
4.73. | Voiceprint recognition |
4.74. | Speech recognition vs. voice recognition |
4.75. | Challenges |
4.76. | Voice recognition process |
4.77. | VPR procedure |
4.78. | Information security |
4.79. | Biometrics in finance |
4.80. | New Zealand government using voice biometrics for telephone system |
4.81. | Siri of Apple |
4.82. | Representative players |
4.83. | Emotion detection |
4.84. | Machine Translation |
4.85. | Translation approaching human level performance |
4.86. | Machine translation |
4.87. | Speech translation |
4.88. | Microsoft: deep learning for machine translation |
5. | VERTICAL APPLICATIONAL MARKETS AND RELEVANT PLAYERS |
5.1. | Speech UI enables many applications |
5.2. | Role of speech in different devices |
5.3. | Applications |
5.4. | Dictation |
5.5. | Information security |
5.6. | Interactive voice response |
5.7. | IVR value propositions |
5.8. | IVR case studies |
5.9. | Automotive |
5.10. | Speech-user-interface-enabled functions for automotive |
5.11. | Development roadmap of speech UI in automotive |
5.12. | Speech-based in-vehicle system case studies |
5.13. | Speech recognition used in intoxication measurements |
5.14. | Banking, Financial services and Insurance (BFSI) |
5.15. | Healthcare and life sciences |
5.16. | Speech translation device |
5.17. | Healthcare apps using Amazon Alexa |
5.18. | Health information at home through voice technology |
5.19. | Hospitals look to Amazon Alexa |
5.20. | Alexa-powered AI genomics platform |
5.21. | Travel, hotels |
5.22. | Retails/commerce |
5.23. | Home automation |
5.24. | Education |
5.25. | iFlytek's product portfolio |
5.26. | Game & entertainment |
5.27. | TV solutions |
5.28. | Robotics |
5.29. | Virtual personal assistant |
5.30. | Towards VPA |
5.31. | Conversational interaction illustration for VPAs |
5.32. | Exploring Business models for virtual personal assistants |
5.33. | Siri of Apple |
5.34. | Evolution of iPhone's speech user interface |
5.35. | VocalIQ |
5.36. | Future Siri |
5.37. | Microsoft Cortana |
5.38. | Technologies involved with Cortana |
5.39. | IBM Watson |
5.40. | Preparation for Watson: partnerships and acquisitions |
5.41. | A list of virtual assistants |
5.42. | Comparison of intelligent virtual assistants |
5.43. | Open access of Google SR API and AudioSet |
5.44. | Viv |
5.45. | Chatbot |
5.46. | Messaging interfaces of chatbots |
5.47. | Facebook's M |
5.48. | Bot platforms with AI |
5.49. | Virtual idol enabled by speech synthesis |
5.50. | Revenue models of Vocaloid |
5.51. | Wearables |
5.52. | Intel: from Javis to Radar Pace |
5.53. | Kopin's voice interface |
5.54. | Whisper™ Chip |
6. | PLAYERS |
6.1. | The contestants |
6.2. | Case study: The decline and reposition of Nuance—the formerly leader in speech |
6.3. | Lists of players in the value chain and technology offerings |
7. | COMPANY PROFILES |
7.1. | AISpeech |
7.2. | Amazon (Alexa) |
7.3. | Beijing Kexin Technology |
7.4. | d-Ear Technologies |
7.5. | iFlyTek |
7.6. | MindMeld |
7.7. | Next IT Corporation |
7.8. | Nuance Communications |
7.9. | Unisound |
Slides | 313 |
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Forecasts to | 2029 |