Beyond the Chatbot: Why Voice AI Could Be the Next Major Interface

For three years, the face of artificial intelligence (AI) was a text box. Type a prompt, read a reply, copy the output somewhere useful. That pattern scaled fast because it was easy to ship. It also trained us to treat AI like a search engine with better grammar.

Voice is breaking that habit. Not voice as a gimmick bolted onto chat, but voice as the primary way people talk to machines: hands-free, eyes-free, interruptible, and fast enough to feel live. Consumer behavior moved first. Enterprise software is catching up slowly. That gap is why voice AI looks less like a feature request and more like the next interface shift (Voices, 2026; Forbes Technology Council, 2026).

The One-Minute Version

Chatbots excel when the task is reading, editing, and precision. Voice excels when the task is speed, mobility, and continuous dialogue. The technology finally supports the second case:

• Speech-to-speech models cut the old Speech-to-Text (STT) → Large Language Model (LLM) → Text-to-Speech (TTS) chain that added latency and killed natural interruptions (OpenAI, 2026).
• Full-duplex audio lets the system listen and speak at once, like a phone call instead of a walkie-talkie (OpenAI, 2026; Hacker Noon, 2026).
• Async tool use lets a voice layer keep talking while deeper reasoning, search, or enterprise actions run in the background (OpenAI, 2026; tblocks, 2026).

Result: AI stops feeling like a form you fill out and starts feeling like a collaborator you talk through a problem with.

Why Chat Hit a Ceiling

Text chat won the first wave for good reasons. It is cheap to host, easy to log, works in open offices, and maps cleanly to Application Programming Interface (API) design. But it carries friction humans tolerate in software and reject in conversation:

• Typing is slow. Average speaking rate beats typing by a wide margin in most real tasks.
• Context is fragmented. Each message is a discrete turn. Long threads become hard to navigate on mobile.
• Hands and eyes are busy. Drivers, clinicians, warehouse staff, and field technicians cannot live inside a chat bubble.
• Emotional bandwidth is thin. Text flattens tone. Support, coaching, and sales often need pacing, pauses, and backchannel cues ("mhmm," "got it") that text mimics poorly.

Chat is not going away. It remains the best interface for code, documents, and audit trails. The shift is that chat stops being the default front door to AI (Medium, 2026).

What Makes Voice Different Now

Latency crossed the trust threshold

Humans expect roughly 200 milliseconds (ms) in face-to-face reply timing. Above 800 ms, voice AI starts feeling laggy. Above 1.2 seconds, users talk over the agent (ForaSoft, 2026). Old chained pipelines often blew that budget before the first word played.

New Realtime and GPT-Live-class systems stream audio in both directions and target sub-800 ms voice-to-voice turns in production with explicit latency budgets across capture, uplink, inference, downlink, and playback (OpenAI, 2026; Mengboy Tech Notes, 2026).

Full-duplex changed the conversation model

Turn-based voice waited for you to stop speaking, then responded. Full-duplex models can listen while speaking, handle overlap, stay quiet when appropriate, and use backchannel phrases that signal attention (OpenAI, 2026). That is a social interface detail, but social details are what make voice feel human instead of robotic.

Voice became an execution layer, not a readout

The next generation is not "speak your question, hear the answer." It is "talk through the task while the system acts." Conversational AI in enterprise settings now opens cases, pulls customer relationship management (CRM) context, drafts responses, requests approval, triggers refunds, and logs outcomes across systems (tblocks, 2026). Voice is the fastest path into that workflow when the user cannot sit at a keyboard.

The Adoption Gap Nobody Is Talking About Enough

Voices' Amplified 2026 report surveyed 700 business leaders and consumers. The numbers are stark (Voices, 2026; Unite.AI, 2026):

• 55% of consumers use voice as their primary interface for AI interactions.
• 29% of companies have deployed customer-facing voice AI.
• 32% more are stuck in pilot or testing.

Consumers moved voice-first. Brands are still treating it as a science project. That is the same pattern we saw with mobile web before responsive design became mandatory. The interface shift happens in user behavior first. Software catches up later, and laggards pay for it in churn.

Use Cases: Problem, Cause, Effect

1. Customer support on the phone

Problem: Callers waited through rigid interactive voice response (IVR) trees, then repeated their story to a human agent. Satisfaction scores flatlined even after a chatbot was added to the website.

Cause: Text chat and phone were separate channels. The chatbot could not hear tone, could not handle barge-in, and could not access telephony session state. Agents still re-keyed data the customer already gave the bot (tblocks, 2026).

Effect with voice AI: A Realtime voice agent answers with sub-second responsiveness, verifies identity through tools on a server-side "sideband" connection, and updates the CRM while the caller speaks. The call feels conversational; the backend stays governed and auditable (OpenAI, n.d.-b).

2. Field service and logistics

Problem: Technicians in vans skipped the internal support portal because typing while carrying equipment was unsafe. Issues escalated by radio instead of being logged.

Cause: The official AI interface was text-first. Mobile chat worked in demos, not on a loading dock with gloves and glare (Forbes Technology Council, 2026).

Effect with voice AI: Hands-free status updates, parts lookup, and ticket creation by voice. The interface matches the environment. Adoption rises because the worker never has to context-switch into a chat window.

3. Coaching, training, and language learning

Problem: Learners read AI feedback but did not practice out loud. Skill transfer stayed low compared to human tutoring.

Cause: Chat interfaces optimize for written answers. They underweight pacing, pronunciation, hesitation, and emotional encouragement, the parts of teaching that happen in speech (Forbes Technology Council, 2026).

Effect with voice AI: Continuous spoken dialogue builds continuous context. The system hears patterns across sessions, not just isolated prompts. For coaching and education products, conversation becomes the product, not a wrapper around a text model.

4. Executive "swivel-chair" workflows

Problem: Leaders asked an AI assistant to summarize a quarter, then manually opened email, calendar, and enterprise resource planning (ERP) tools to act on it. The assistant saved reading time but not execution time.

Cause: Chat lived in a sidebar. It was not wired as the front door to systems of record. Each action still meant switching apps (tblocks, 2026).

Effect with voice AI: Spoken commands trigger bounded agent workflows: pull metrics, draft a note, schedule a follow-up, wait for approval, log the outcome. Voice is the thinnest interface layer over agentic execution, especially on desktop and in cars where typing is inconvenient.

Chat vs Voice: When Each Wins

Dimension	Text chat	Voice AI
Speed of input	Slow on mobile; fine at desk	Fast, hands-free
Precision tasks	Code, legal text, copy editing	Weaker for exact strings
Audit and search	Excellent transcript trail	Needs recording and logging policy
Environment	Open offices, public spaces	Private, mobile, field work
Emotional fidelity	Flat	Tone, pacing, backchannel cues
Latency sensitivity	Forgiving	Unforgiving below ~800 ms
Best 2026 stack	Chat completions + tools	Speech-to-speech Realtime + sideband tools

What Production Voice AI Actually Requires

Demos hide the hard parts. Shipping voice in production means engineering, not model selection alone (ForaSoft, 2026; Mengboy Tech Notes, 2026):

1. Interruption state machines. When the user barges in, cancel the in-flight response cleanly. Treat it as protocol logic, not a user interface hack.
2. Session rotation. Long calls accumulate context and latency. Reseed summaries into fresh sessions on extended conversations.
3. Sideband control. Keep tools, business rules, and secrets on your server while audio runs over Web Real-Time Communication (WebRTC) to the client (OpenAI, n.d.-b).
4. Latency budgets per stage. Measure capture, uplink, inference, downlink, and playback. Optimizing only model time misses half the story.
5. Compliance and brand voice. Health Insurance Portability and Accountability Act (HIPAA), call recording laws, and voice rights matter at enterprise scale (Voices, 2026).

Skip these and your voice agent sounds fine in a demo, then like an angry walkie-talkie in week two.

When Text Still Wins

Voice is not a replacement for every interface. Stay text-first when:

• Users need exact copy, code, or legal language they can paste.
• Privacy rules forbid spoken data in shared spaces.
• Workflows require rich formatting, tables, or side-by-side comparison.
• Your audience includes users who depend on screen readers and structured text (multimodal design should offer both).

The winning products in 2026 offer choice and continuity: start a task by voice, refine it in chat, execute it through agents, without losing context (Medium, 2026).

Bottom Line

The chatbot era taught the world that AI could answer questions. The voice era teaches that AI can participate in work as it happens: while you drive, while you walk a floor, while you talk a customer down, while you rehearse a pitch out loud.

That is why voice AI is not "chat with a microphone." It is a different interface contract: continuous, interruptible, embodied in time instead of frozen in a thread. The models finally caught up. Consumer behavior already did. The open question is which teams treat voice as a skin on their chatbot and which treat it as the next operating layer for how humans and software collaborate.

If you are building in 2026, assume multimodal from day one. Ship text because it is easy to debug. Invest in voice where your users already live without a keyboard. Measure latency like you measure uptime. The chat bubble is not dead. It is just no longer the whole story.

References

• Forbes Technology Council. (2026, August 27). The voice revolution: Why voice AI will become the default interface for artificial intelligence. Forbes. https://www.forbes.com/councils/forbestechcouncil/2026/08/27/the-voice-revolution-why-voice-ai-will-become-the-default-interface-for-artificial-intelligence/
• ForaSoft. (2026). OpenAI Realtime API: Production voice agents. https://www.forasoft.com/blog/article/openai-realtime-api-voice-agent-production-guide-2026
• Hacker Noon. (2026). How modern voice-to-voice AI models work. https://hackernoon.com/how-modern-voice-to-voice-ai-models-work
• Mengboy Tech Notes. (2026, March 9). OpenAI Realtime + Go in production: WebRTC token rotation, interruption recovery, and end-to-end latency budgets. https://www.mfun.ink/en/2026/03/09/openai-realtime-go-webrtc-auth-recovery-latency-budget/
• Medium. (2026). Beyond the chat bubble: The rise of conversational interfaces in 2026. https://medium.com/@nithin_94885/beyond-the-chat-bubble-the-rise-of-conversational-interfaces-in-2026-a271ad034c92
• OpenAI. (2026). Continuous voice interaction with GPT-Live. https://openai.com/index/continuous-voice-interaction-with-gpt-live/
• OpenAI. (2026). Introducing GPT-Live. https://openai.com/index/introducing-gpt-live/
• OpenAI. (n.d.-b). Webhooks and server-side controls. OpenAI API. https://developers.openai.com/api/docs/guides/realtime-server-controls
• tblocks. (2026). Conversational AI trends in 2026: From chatbots to execution. https://tblocks.com/articles/conversational-ai-trends/
• Unite.AI. (2026). Consumer voice AI is here — enterprise readiness isn't. https://www.unite.ai/consumer-voice-ai-is-here-enterprise-readiness-isnt/
• Voices. (2026). Amplified 2026: The annual state of voice report. https://www.voices.com/landing/amplified-report
• Voices. (2026, January 28). The new interface era: Voice AI becomes dominant while most enterprises lag behind [Press release]. https://www.voices.com/company/press/press-releases/amplified-state-of-voice-2026

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The Future of Design Thinking in the Age of AI

Design Thinking has long been one of the most powerful human-centered methodologies for innovation. It’s a cyclical process of empathizing with users, defining their problems, ideating solutions, prototyping, and testing. What makes it unique is its focus on people first technology and business follow after.

But in the age of generative AI, this process is being fundamentally reimagined. AI is not here to replace designers or innovators, it’s a new creative collaborator that amplifies what humans already do best: empathy, problem-solving, and imagination.

Prototyping: From Manual Work to Instant Iteration

The prototyping phase: the “make it real” step is where AI is making some of the most visible impact. Traditionally, creating a high-fidelity prototype could take days or even weeks of wireframing, pixel pushing, and manual refinement. Today, with the right prompts, a designer can generate dozens of variations in minutes.

Case Study: Automating UI/UX Design

Tools like Uizard and Relume AI allow designers to upload a rough sketch or write a simple text prompt like:
“Design a mobile app interface for a fitness tracker with a clean, minimalist aesthetic.”

In seconds, the AI generates fully fleshed-out interfaces complete with layouts, color schemes, and even sample content. Designers can then test multiple versions with users, collect feedback quickly, and refine the best direction.

The result? The design-to-testing loop shortens dramatically. Designers spend less time perfecting the how and more time focusing on the why: understanding the user and creating meaningful experiences.

Ideation: Beyond the Human Brainstorm

Ideation or the brainstorming phase has always thrived on volume. The more ideas you generate, the greater the chances of finding a breakthrough. But human teams often plateau after a few dozen concepts. Generative AI, however, can serve as an idea engine that never runs out of fuel.

Example: A “How Might We…” Framework on Steroids

Take the challenge: “How might we make grocery shopping more sustainable?”

A traditional brainstorm might yield a dozen ideas, some practical and others far-fetched. With AI, a team can feed in user insights, market research, and competitive data. In return, the AI produces hundreds of potential solutions ranging from AI-driven meal planners that reduce food waste to smart carts that calculate carbon footprints in real time.

This flood of ideas isn’t meant to replace human creativity but to expand it. Designers shift roles from being sole inventors to curators and strategists, filtering and refining the most promising directions while bringing in human empathy and context.

Testing: Predictive and Proactive Feedback

Testing with real users remains a cornerstone of Design Thinking. But AI can make the process faster, broader, and more predictive.

Case Study: L’Oréal’s Predictive Product Testing

L’Oréal used generative AI to create virtual beauty assistants and marketing content at scale. By analyzing how users interacted with these digital experiences, they collected real-time insights long before manufacturing a single product. This helped them identify trends early and accelerate time-to-market by nearly 60%.

AI also enables virtual testing environments, simulating how users might interact with a product and spotting usability issues ahead of time. Instead of waiting for problems to emerge in expensive real-world tests, AI offers predictive feedback that helps refine designs earlier in the process.

The Evolving Role of Empathy

One area AI cannot replace is empathy. It can simulate patterns of user behavior, but it cannot truly understand human emotion, context, or cultural nuance. The future of Design Thinking in the age of AI will rely on humans doubling down on empathy and ethics, while AI handles scale, speed, and iteration.

This balance is critical. Without it, we risk building efficient but soulless products. With it, we create experiences that are not only faster to design but also deeper in impact.

Beyond Tools: New Challenges and Responsibilities

While AI supercharges Design Thinking, it also introduces new challenges:

• Bias in AI Models: If the data is biased, the design suggestions will be biased too. Human oversight is essential.

• Ethical Design: Who takes responsibility if an AI-generated idea leads to harm? Designers must act as ethical curators.

• Skill Shifts: Tomorrow’s designer will need to be part strategist, part prompt engineer, and part ethicist.

From Designers to Co-Creators

The future of Design Thinking isn’t about automating creativity but it’s about augmenting it. AI will take over repetitive tasks like rapid prototyping, data synthesis, and endless brainstorming. Designers, in turn, will have more space to do what only humans can: empathize, imagine, and shape products around real human needs.

The designer of tomorrow won’t just be a creator but they will be a co-creator alongside AI. They will guide machines with empathy, filter outputs with ethics, and ensure that innovation is not just faster, but also fairer and more human. 

Bibliography

• Brown, Tim. Change by Design: How Design Thinking Creates New Alternatives for Business and Society. Harper Business, 2009.
• IDEO. Design Thinking Process Overview. Retrieved from https://designthinking.ideo.com/
• Uizard. AI-Powered UI Design Platform. Retrieved from https://uizard.io/
• Relume AI. Design Faster with AI-Powered Components. Retrieved from https://relume.io/
• L’Oréal Group. AI and Beauty Tech Innovation Reports. Retrieved from https://www.loreal.com/
• Norman, Don. The Design of Everyday Things. MIT Press, 2013.
• Nielsen Norman Group. The Future of UX and AI-Driven Design. Retrieved from https://www.nngroup.com/

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Demystifying AI & LLM Buzzwords: Speak AI Like a Pro

 

Artificial Intelligence (AI) and Large Language Models (LLMs) are everywhere now; starting from smart assistants to AI copilots, chatbots, and content generators. If you’re in tech, product, marketing, or just exploring this space, understanding the jargon is essential to join meaningful conversations.

Here’s a breakdown of must-know AI and LLM terms, with simple explanations so you can talk confidently in any meeting or tweet storm.

Core AI Concepts

1. Artificial Intelligence (AI)

AI is the simulation of human intelligence in machines. It includes learning, reasoning, problem-solving, and perception.

2. Machine Learning (ML)

A subset of AI that allows systems to learn from data and improve over time without explicit programming.

3. Deep Learning

A type of ML using neural networks with multiple layers—great for recognizing patterns in images, text, and voice.

LLM & NLP Essentials

4. Large Language Model (LLM)

An AI model trained on massive text datasets to understand, generate, and manipulate human language. Examples: GPT-4, Claude, Gemini, LLaMA.

5. Transformer Architecture

The foundation of modern LLMs—introduced by Google’s paper “Attention Is All You Need”. It enables parallel processing and context understanding in text.

6. Token

A piece of text (word, sub-word, or character) processed by an LLM. LLMs think in tokens, not words.

7. Prompt

The input given to an LLM to generate a response. Prompt engineering is the art of crafting effective prompts.

8. Zero-shot / Few-shot Learning

• Zero-shot: The model responds without any example.
• Few-shot: The model is shown a few examples to learn the pattern.

Training & Fine-Tuning Jargon

9. Pretraining

LLMs are first trained on general datasets (like Wikipedia, books, web pages) to learn language patterns.

10. Fine-tuning

Adjusting a pretrained model on specific domain data for better performance (e.g., medical, legal).

11. Reinforcement Learning with Human Feedback (RLHF)

Used to align AI output with human preferences by training it using reward signals from human evaluations.

Deployment & Use Cases

12. Inference

Running the model to get a prediction or output (e.g., generating text from a prompt).

13. Latency

Time taken by an LLM to respond to a prompt. Critical for real-time applications.

14. Context Window

The maximum number of tokens a model can handle at once. GPT-4 can go up to 128k tokens in some versions.

AI Ops & Optimization

15. RAG (Retrieval-Augmented Generation)

Combines search and generation. Useful for making LLMs fetch up-to-date or domain-specific info before answering.

16. Embeddings

Numerical vector representations of text that capture semantic meaning—used for search, clustering, and similarity comparison.

17. Vector Database

A special database (like Pinecone, Weaviate) for storing embeddings and retrieving similar documents.

Governance & Safety

18. Hallucination

When an LLM confidently gives wrong or made-up information. A major challenge in production use.

19. Bias

LLMs can reflect societal or training data biases—gender, race, politics—leading to ethical concerns.

20. AI Alignment

The effort to make AI systems behave in ways aligned with human values, safety, and intent.

Some Bonus Buzzwords For You...

• CoT (Chain of Thought Reasoning): For better logic in complex tasks.
• Agents: LLMs acting autonomously to complete tasks using tools, memory, and planning.
• Multi-modal AI: Models that understand multiple data types—text, image, audio (e.g., GPT-4o, Gemini 1.5).
• Open vs. Closed Models: Open-source (LLaMA, Mistral) vs proprietary (GPT, Claude).
• Prompt Injection: A vulnerability where malicious input manipulates an LLM’s output.

Here is the full list of AI & LLM Buzzwords with Descriptions in table format for your reference:

Buzzword	Description
AI (Artificial Intelligence)	Simulation of human intelligence in machines that perform tasks like learning and reasoning.
ML (Machine Learning)	A subset of AI where models learn from data to improve performance without being explicitly programmed.
DL (Deep Learning)	A type of machine learning using multi-layered neural networks for tasks like image or speech recognition.
AGI (Artificial General Intelligence)	AI with the ability to understand, learn, and apply knowledge in a generalized way like a human.
Narrow AI	AI designed for a specific task, like facial recognition or language translation.
Supervised Learning	Machine learning with labeled data used to train a model.
Unsupervised Learning	Machine learning using input data without labeled responses.
Reinforcement Learning	Training an agent to make decisions by rewarding desirable actions.
Federated Learning	A decentralized training approach where models learn across multiple devices without data sharing.
LLM (Large Language Model)	AI models trained on large text corpora to generate and understand human-like text.
NLP (Natural Language Processing)	Technology for machines to understand, interpret, and generate human language.
Transformers	A neural network architecture that handles sequential data with attention mechanisms.
BERT	A transformer-based model designed for understanding the context of words in a sentence.
GPT	A generative language model that creates human-like text based on input prompts.
Tokenization	Breaking down text into smaller units (tokens) for processing by LLMs.
Attention Mechanism	Allows models to focus on specific parts of the input sequence when making predictions.
Self-Attention	A mechanism where each word in a sentence relates to every other word to understand context.
Pretraining	Initial training of a model on a large corpus before fine-tuning for specific tasks.
Fine-tuning	Adapting a pretrained model to a specific task using domain-specific data.
Zero-shot Learning	The model performs tasks without seeing any examples during training.
Few-shot Learning	The model learns a task using only a few labeled examples.
Prompt Engineering	Designing input prompts to guide LLM output effectively.
Prompt Tuning	Optimizing prompts using automated techniques to improve model responses.
Instruction Tuning	Training LLMs to follow user instructions more accurately.
Context Window	The maximum number of tokens a model can process in one input.
Hallucination	When an LLM generates incorrect or made-up information.
Chain of Thought (CoT)	Technique that enables models to reason through intermediate steps.
Function Calling	Enabling models to call APIs or tools during response generation.
AI Agents	Autonomous systems powered by LLMs that can perform tasks and use tools.
AutoGPT	An experimental system that chains together LLM calls to complete goals autonomously.
LangChain	Framework for building LLM-powered apps with memory, tools, and agent logic.
Semantic Search	Search method using the meaning behind words instead of exact keywords.
Retrieval-Augmented Generation (RAG)	Combines information retrieval with LLMs to generate context-aware responses.
Embeddings	Numerical vectors representing the semantic meaning of text.
Vector Database	A database optimized for storing and querying embeddings.
Chatbot	An AI program that simulates conversation with users.
Copilot	AI assistant integrated in software tools to help users with tasks.
Multi-modal Models	AI models that process text, image, and audio inputs together.
AI Plugin	Extensions that allow LLMs to interact with external tools or services.
Text-to-Image	Generating images from text descriptions.
Text-to-Speech	Converting text into spoken audio using AI.
Speech-to-Text	Transcribing spoken audio into text.
Inference	The process of running a trained model to make predictions or generate outputs.
Latency	Time taken by an AI model to produce a response.
Throughput	Amount of data a model can process in a given time.
Model Quantization	Reducing model size by converting weights to lower precision.
Distillation	Creating smaller models that mimic larger ones while maintaining performance.
Model Pruning	Removing unnecessary weights or neurons to reduce model complexity.
Checkpointing	Saving intermediate model states to resume or analyze training.
A/B Testing	Experimenting with two model versions to compare performance.
FTaaS (Fine-tuning as a Service)	Hosted services for custom model training.
Bias	Unintended prejudice or skew in AI outputs due to biased training data.
Toxicity	Offensive, harmful, or inappropriate content generated by AI.
Red-teaming	Testing AI systems for vulnerabilities and risky behavior.
AI Alignment	Ensuring AI systems behave in accordance with human values.
Content Moderation	Filtering or flagging harmful or inappropriate AI outputs.
Guardrails	Rules and constraints placed on AI outputs for safety.
Prompt Injection	A method to manipulate AI by embedding hidden instructions in user input.
Model Explainability	Making AI model decisions understandable to humans.
Interpretability	Understanding how and why a model makes specific predictions.
Safety Layer	Additional control mechanisms to reduce risks in AI output.
Fairness	Ensuring AI does not discriminate or favor unfairly across different user groups.
Differential Privacy	Techniques to ensure individual data can't be reverse-engineered from AI outputs.

Whether you’re building with AI or just starting your journey, knowing these concepts helps you:

• Communicate with engineers and researchers
• Ask better questions
• Make smarter product or investment decisions

Sources & Bibliography

OpenAI Blog – For GPT, prompt engineering, RLHF, and safety

• 🔗 https://openai.com/research

Google AI Blog – For BERT and transformer models

• 🔗 https://ai.googleblog.com

Vaswani et al. (2017) – “Attention Is All You Need” paper

• 🔗 https://arxiv.org/abs/1706.03762

GPT-3 Paper (Brown et al., 2020) – Few-shot learning and language models

• 🔗 https://arxiv.org/abs/2005.14165

Stanford CS224N – Natural Language Processing with Deep Learning course

• 🔗 http://web.stanford.edu/class/cs224n/

Hugging Face Docs – LLMs, embeddings, tokenization, and transformers

• 🔗 https://huggingface.co/docs

LangChain Docs – For RAG, AI agents, and tool usage

• 🔗 https://docs.langchain.com

AutoGPT GitHub – Open-source AI agent framework

• 🔗 https://github.com/Torantulino/Auto-GPT

Pinecone Docs – Embeddings and vector search explained

• 🔗 https://docs.pinecone.io

Microsoft Research – Responsible AI – Bias, fairness, and alignment

• 🔗 https://www.microsoft.com/en-us/research/project/fate/

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