Are We Strategically Naive or Guided by Trust and Trustworthiness in Cheap-Talk Communication.png
Are We Strategically Naive or Guided by Trust and Trustworthiness in Cheap-Talk Communication?” was published in Management Science — the flagship journal of the Institute for Operations Research and the Management Sciences (INFORMS) in April 2021.
Glynis Condon

3 questions with Özalp Özer: How to build trust in business relationships

Özer’s paper published in INFORMS’ Management Science 2021 explores the dynamics behind “cheap-talk” communications.

Trust and trustworthiness are important in both our personal and business relationships. How then can we build environments that foster increased trust, trustworthiness and cooperation?

In the first edition of a new series that focuses on research papers published by scientists within the Amazon Supply Chain Optimization Technologies (SCOT) organization, we interview Özalp Özer, coauthor of “Are We Strategically Naive or Guided by Trust and Trustworthiness in Cheap-Talk Communication?”. The paper was published in Management Science — the flagship journal of the Institute for Operations Research and the Management Sciences (INFORMS) in April 2021.

Özalp Özer profile image
Özalp Özer is a senior principal scientist at Amazon, and George and Fonsa Brody Professor of Management Science at The University of Texas at Dallas.

Özer is a senior principal scientist at Amazon, and George and Fonsa Brody Professor of Management Science at The University of Texas at Dallas (UTD). He earned a PhD in operations research from Columbia University, before going on to serve on the faculty at Stanford and Columbia. Özer has published extensively on a diverse range of topics, from supply chain management, capacity and inventory management to pricing and revenue management.

Özer says that a guiding principle behind his research is to focus on solving problems that have a real-world impact at scale. At Stanford and then UTD, Özer found himself drawn to the field of behavioral and experimental economics — particularly the field of game theory and understanding how to model actions and emotions in scenarios involving multiple decision makers in dynamic environments.

Driven by his interest in tackling real-world business problems, Özer remained engaged with industry during his tenure as an academic. While working on a project focused on designing effective procurement contracts, he observed the important role that trust played in establishing and fostering business relationships.

In many cases, the interests of the parties engaging in a negotiation are not aligned. To give one example, suppliers can use product forecast information from a buyer to make capacity, inventory and other manufacturing-related decisions. However, buyers might often provide suppliers with overly optimistic forecasts to ensure an abundant supply. If the demand for the product turns out to be lower than anticipated, the supplier bears the excess investment risk.

Özer says that this scenario represents an example of “cheap talk communications.” He outlines three characteristics that are common to all cheap talk communications: they are costless (they are devoid of monetary penalties), they are non-binding (a buyer can provide a forecast without committing to it), and they are non-verifiable (no forecast can be completely accurate in the light of market uncertainty). To complicate matters, the objective functions that each party is trying to maximize are at odds (or not perfectly aligned) with each other.

Standard game theory suggests that each party in a business transaction will move toward an equilibrium that maximizes their own payoff. In a cheap-talk setting, where the information is costless, non-binding and non-verifiable, the theory suggests that each party will disregard the information supplied by the other.

However, Özer finds that people involved in business (as well as personal) transactions frequently factor into their decision-making information supplied by the other party, even when their incentives are not perfectly aligned and even when the information or recommendation may be perceived as “cheap”. They do this by taking the business context and the related relationship into account. Doing so results in higher returns for both parties involved. For example, third-party sellers are more likely to act on price reduction or replenishment recommendations from Amazon, if they find that these recommendations have previously resulted in an uptick in sales and profits.

Ozer says that “cheap talk” communications have the unfortunate emphasis on being “cheap” and less emphasis on how they are informative and can align incentives. In a series of publications, Ozer shows why, when, and how such communications and recommendations turn out to be informative, and how they help align business objectives, resulting in both parties making better decisions.   

In this interview, Özer talks about findings from the recently published INFORMS paper and discusses the implications of these findings for companies like Amazon.

Q. What are the two models that can be used to explain how cheap talk communications work between decision makers?

As our paper suggests, there are two contrasting economic theories that can be used to analyze cheap-talk communications.

The trust-embedded model — which takes a more optimistic view of humanity — suggests that decision makers are motivated by non-monetary motives to be trusting and trustworthy, besides the monetary incentives such as maximizing cash flow.   

Here, we define trust as instances of decision makers behaving voluntarily in a way that put themselves in vulnerable engagement due to the uncertain behavior of the other party (the trustee), based upon the expectation of a positive outcome from that engagement. Trustworthiness flips the perspective to that of the trustee. We define trustworthiness as an instance of a decision maker behaving voluntarily in a way not to take advantage of the trustor’s vulnerable position – even when faced with a self-serving decision that conflicts with the trustor’s objectives.

Humans use non-Bayesian, trust-based belief systems to update their rules governing interactions with other parties. In short, people involved in a business transaction are willing to be vulnerable and take risk.
Özalp Özer

The trust-embedded model suggests that when engaging with others, decision makers are averse to manipulating information in economic interactions. They incur disutility from lying. As a result, they assess the trustworthiness of the counterparty, and they form a trust factor towards them. This trust factor governs how decision makers interpret and use the information they receive from others.

In other words, humans use non-Bayesian, trust-based belief systems to update their rules governing interactions with other parties. In short, people involved in a business transaction are willing to be vulnerable and take risk. Because they assess — even sometimes incorrectly — that doing so yields positive outcomes, they engage in and cultivate behaviors conducive to enabling these outcomes.

The trust embedded model suggests that individuals are guided by more than self-interest or pecuniary motives as they engage in transactions. For example, senders of information are guided by factors such as fairness and tenets that are central to their company. As a result, they share more information and resources than strictly necessary.

In contrast to the trust-embedded model, the level-k model — the second model discussed in the paper — suggests that decision makers are limited in their ability to think strategically. Receivers of information cannot anticipate the extent to which the sender might have distorted the message. On the flip-side, senders cannot account for just how much receivers might discount their message. Consequently, senders share more than necessary, because they take a dim view of the receiver’s ability to discount their message.

It’s important to note that even the level-k model can sometimes explain why senders and receivers tend to overshare information in a cheap-talk setting, which contrasts with the outcome standard game theory models would predict. It’s just that their motivations are different – with the level-k model, oversharing is driven by a limited ability to think strategically, rather than by the willingness to be trusting and trustworthy.

Overall, our paper that analyzed existing cheap-talk experiment data, found more support for the trust-embedded model, suggesting that individuals are also driven by non-monetary incentives when conducting transactions.

Q. Why do you think that trust-embedded models do a better job of explaining cheap-talk communications? What are the implications for organizations engaging in relationships with businesses and partners?

During the internet age, we’ve seen e-commerce, hospitality and ride-sharing companies grow precisely because they’ve been able to create policies and tools that encourage trust.
Özalp Özer

The answer to your first question is relatively simple — human beings are far more sophisticated than the level-k model gives them credit for. For example, there are many sellers on Amazon’s website who are proficient in using a variety of tools they have developed to make decisions related to pricing and inventory.

As a result, if we want the tools we provide to earn sellers’ trust, we need to think of the system more holistically at both an architecture and policy level to truly understand what builds trust and what is a trust-buster.

During the internet age, we’ve seen e-commerce, hospitality and ride-sharing companies grow precisely because they’ve been able to create policies and tools that encourage trust. Product reviews, the ability to get refunds for a vacation rental because hosts might not have lived up to their promises, or the price for a ride being set in advance — these are some of the mechanisms that let you buy a product or rent a home from people you don’t know.

Q. How are the findings in your paper applicable to your work at Amazon?

We are leveraging the insights from this stream of research as well as others to augment our understanding of seller trust, particularly in relation to how sellers interact with our inventory management tools, and how fidelity of recommendations impact sellers’ trust.

There is no interaction at Amazon that I can think of that doesn’t have an element of trust.
Özalp Özer

We are designing our related processes to reduce barriers for trusting and trustworthy engagements among the participants of our stores; for example, by making specific investments to support seller growth in areas that benefit sellers and customers the most; by reducing perceived vulnerabilities in carrying excess inventory; by looking into ways in which we stabilize our policies; by creating visibility to the reasons for our recommendations; by looking into ways in which we can build interactive communication channels among participants in our stores; and by building reputation and feedback systems that foster trusting and trustworthy engagements and on and on.

Using large-scale data, scientific methods like causal machine learning to optimization, as well as continual engagement with selling partners and customers, we aim to identify at the extent to which sellers trust evolves — so we can identify and invest in processes that foster trust and as a result growth and economic prosperity.  

There is no interaction at Amazon that I can think of that doesn’t have an element of trust. Jeff Bezos has said, “You can’t ask for trust, you just have to do it the hard way, one step at a time.” In my time at the company, I have been struck by the tireless efforts of so many people to gain seller and customer trust. At Amazon, it is just part of everything we do.

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Pricing is one of the most consequential decisions Amazon makes — and the science behind it needs to be causally rigorous, not just predictive. The P2 Optimization Science (P2OS) team builds the machine learning systems that power Amazon's pricing decisions at scale: demand lift models, customer lifetime value frameworks, and the experimentation infrastructure that validates whether our pricing changes actually work. We're hiring an Applied Scientist to own causal inference at the intersection of ML and pricing experimentation. This role exists because our team has identified a real gap: the methodological bridge between econometric analysis (owned by our economists) and production-scale ML pipelines (owned by our engineers) needs a practitioner who lives in both worlds. You'll build CATE estimation models, design analysis workflows for pricing weblabs, and develop the reusable causal ML infrastructure that the broader team — including non-ML scientists — can rely on. This is not a research role. The bias here is toward shipping production-quality causal pipelines with real downstream business impact. You'll measure success by what changes in LTV estimates, what pricing errors your models help avoid, and whether the economists on your team can actually use what you build. If you're a scientist who wants to work on hard causal identification problems in a high-stakes production environment — and who finds satisfaction in making rigorous methods accessible to a broader team — this role is for you. Key job responsibilities * Build causal ML pipelines for pricing — Design, train, evaluate, and deploy end-to-end causal estimation models for pricing use cases. * Own the science on heterogeneous treatment effects — Be the team SME on causal ML methodology: identification strategies, model selection, evaluation standards, and the tradeoffs between econometric and ML approaches to causal estimation. * Support pricing experiment analysis — Contribute causal analysis methodology to pricing weblab and A/B test post-analysis; build reusable tooling that economists can use without requiring ML expertise * Connect model outputs to business outcomes — Define, before writing code, what business metric each model moves; deliver model evaluation reports framed around pricing errors avoided and LTV estimate changes. * Evaluate and adopt novel techniques — Assess applicability of emerging causal inference methods (synthetic DiD, generalized random forests, causal representation learning) to Amazon's pricing context; write internal methodology proposals for adoption * Write internal documentation and methodology papers — Produce at least one internal write-up per half that connects a causal ML technique to a concrete pricing use case; make pipelines extensible and well-documented so other scientists can build on them. * Collaborate across disciplines — Partner closely with the Sr. Economist on identification strategy and causal assumptions; work with SDE and DE partners on production deployment; align with PMs on experiment design requirements A day in the life As an Applied Scientist on the P2OS team, your work directly shapes the prices customers see on hundreds of millions of Amazon products. In a given workweek, you might: * Investigate an optimization anomaly in simulation and trace it back to a model input gap or an unmodeled market dynamic * Design an offline evaluation framework to benchmark competing optimization approaches before committing to online testing * Collaborate with Sr. Economists on the identification strategy for the model you're building for a pricing lab * Present a science proposal for incorporating a new competitiveness or inventory signal into an optimization system * Work cross-team with the experimentation platform team on randomization design. * Develop and write up a novel scientific finding — preparing a paper or technical report for submission to a top-tier venue such as KDD, NeurIPS, or the ACM Conference on Economics and Computation
US, CA, Sunnyvale
We are seeking an Applied Scientist to focus on Robot Navigation. In this role, you'll research and develop advanced navigation systems that enable robots to move reliably and safely through complex, dynamic environments. You'll work across a broad spectrum of navigation approaches—from classical methods to learning-based techniques and foundation models—to build robust solutions for autonomous robot navigation. Key job responsibilities - Develop and implement robust navigation systems that enable reliable autonomous operation in complex, dynamic indoor environments with static and dynamic obstacles - Build simulation-based and on-device evaluation frameworks with comprehensive benchmarks and metrics for systematic comparison of navigation methods - Conduct sim-to-real transfer experiments, analyzing performance gaps and developing techniques to ensure reliable real-world navigation performance - Collaborate with world model, manipulation, and other teams to ensure seamless integration of navigation capabilities into the full robot system - Stay current with the latest advances in robot navigation, spatial reasoning, and related fields, and apply relevant findings to improve system performance - Mentor fellow scientists and engineers while maintaining strong individual technical contributions About the team Fauna Robotics, an Amazon company, is building capable, safe, and genuinely delightful robots for everyday life. Our goal is simple: make robots people actually want to live and interact with in everyday human spaces. We believe that future won’t arrive until building for robotics becomes far more accessible. Today, too much effort is spent reinventing the fundamentals. We’re changing that by developing tightly integrated hardware and software systems that make it faster, safer, and more intuitive to create real-world robotic products.
IN, KA, Bengaluru
The Ads Trust Science team, based in Bangalore, is responsible for ensuring that ads are relevant and is of good quality, leading to higher conversion for the sellers and providing a great experience for the customers. We deal with one of the world’s largest product catalog, handle billions of requests a day with plans to grow it by order of magnitude and use automated systems to validate tens of millions of offers submitted by thousands of merchants in multiple countries and languages. In this role, you will build and develop ML models to address content understanding problems in Ads. These models will rely on a variety of visual and textual features requiring expertise in both domains. These models need to scale to multiple languages and countries. You will collaborate with engineers and other scientists to build, train and deploy these models. As part of these activities, you will develop production level code that enables moderation of millions of ads submitted each day.
PL, Gdansk
Have you ever wondered how we give voice to devices — even when they're offline? The Text-to-Speech on Device team at Amazon builds AI-powered voice models that run locally on hardware with limited resources, serving customers across Alexa, automotive, and accessibility experiences for visually impaired users. We sit at the intersection of speech generation, generative AI, and on-device machine learning, and we're looking for a curious, collaborative Applied Scientist to help us push what's possible. In this role, you will research and develop production-ready speech generation models optimized for constrained environments. You will work across the full model lifecycle — from early experimentation and prototyping through to integration on real devices. If you're excited about solving hard scientific problems that directly improve how millions of people interact with technology, we'd love to hear from you. Key job responsibilities - Design and develop end-to-end machine learning models for on-device speech generation, from early research and experimentation through production-ready deployment. - Research and apply advanced techniques in generative AI, model compression, and knowledge distillation to deliver high-quality voice models within tight hardware constraints. - Propose and validate novel scientific approaches by authoring detailed technical specifications and contributing to peer-reviewed publications when appropriate. - Evaluate model performance rigorously, identify improvement opportunities, and iterate on training and inference pipelines to optimize quality and efficiency. - Collaborate with science and engineering teams across cloud and device platforms to bring speech generation capabilities from research prototypes to integrated product experiences. About the team The Text-to-Speech on Device team builds low-footprint AI models for speech generation that run locally on devices such as Android and FireOS platforms. Our models require significantly less computation than cloud-hosted alternatives, enabling offline voice experiences for Alexa, automotive partners, and accessibility solutions. We work closely with device engineering teams and cloud-based speech science teams to deliver the best possible experience for our customers. Our focus in the coming years is expanding the range of voices and languages we support while continuing to improve naturalness and efficiency on constrained hardware.