The Decision Support Engine (DSE) is a powerful tool for visualizing and exploring
decision trees. The DSE framework uses components as the core building block for generating rules-based
code to inform the platform, ML, AI, and manual reviews.
It helps users visualize and
explore the code trees, and can be used for understanding existing rules and diagnosing rule issues. Because it is a componentized framework, it can be structured to use for all business needs. Amazon Prime and Amazon Books have similar and different needs that can be configured on the platform to customized at the business need levels. Both may require Image Fingerprinting, and may have a variety of different configurations to target the fraud or trust issues systemically.
This also allows for improving and updating the DSE as trends and issues emerge. The goal is to catch fraud as soon as possible, which means before it reaches a customer's view. Historically, most fraud is only detected after it is available on the public-facing domains of Amazon and its businesses.
I created a new, robust suite of fraud and abuse moderation tools for content on
Amazon's platform from 2021 - 2023 using Machine Learning and AI tools.
With the new C4A Decision Support Engine, we have the opportunity to revisit the user experience for our Operations and Automations teams. To better support the C4A vision and onboard Vella Discussions, DSE will also be a stand-alone decision engine with the following workflow:
Using ML, AI to automate content moderation and compliance of all user-generated content (UGC) for all of Amazon's businesses and platforms.
Working with Software Engineering, User Research, Amazon Worldwide Operations, and Product Management to design a suite of Content Moderation.
Create an experience to support new and rapidly evolving risk and policy needs.
Design a successful product .... Design high-fidelity prototypes for integration of this product.
In the August 2021 survey, 100% of the users surveyed had experience with the legacy platform
and its specific issues. The common issues were with tooling (100%), visual differences - no image fingerprinting (100%), and
dependency on antiquated tools from many different platforms that require manual input without tracking nor cohesion (100%).
Operations staff and content moderation reviewers have issues with the UI layout of more than 10 different legacy
systems and need a way to visualize and resolve tasks quickly with factual data and comparing content to ensure they are or
aren't compliant.
Research, analyzing data, reviewing the top issues on all popular platforms where users seek help or file issues, and asking why the issue is common and what is the root cause of the relationship of the code, framework paradigms,and UI helped me understand the major frictions points and how to design for them. Usability testing, interviewing, observing and engaging in social outreach honed the solution direction.
Within six weeks, launch an MVP of a text-review and test the ML automation's accuracy.
Within twelve weeks, launch the new design system for a Content Moderation UX/UI for a modular,
component-based platform.
Within twelve weeks, launch an MLP of a text-review and test the ML automation.
Within six weeks, launch the new design for a Decision Support Engine for Content Moderation for any
content type and compliance need as a modular, component-based platform.
The first reveal of the Content Moderation UX/UI prototype was created within a three week timetable.
The typical Content Moderator Operator experience can be frustrating to resolve tasks
efficiently . The typical workflow for resolving these has many opportunities for helping the user understand the paradigms
that are creating this frustrating issue.
My role was to identify the blockers and needs of the Developer/User within
the workflow and within the paradigms of the new Content Moderation Decision Support Engine. I designed the Operator's portal
to visualize, contextualize the content to quickly to make decisions on content, users, and account holders.
Designing the Decision Support Engine for visualizing how rules can be combined to create fact-based decisions.
Automation specialists can choose the predefined input (list of fields/entity attributes such as first name and last name), a List that includes keywords, an option for normalization, selected Rules, additional context (notes), pre-defined labels, and the output of Rules from a given option.
I explored the variations of content, top user needs and how they could be visualized for the user to reduce the time it takes
to create a decision and to inform ML and AI to make decisions.
Initial ideas and issues to reproduce the problem are
explored and studied. This application was used in User Research studies and iterations of testing as the design was
developed.



I modernized risk management by replacing a legacy CRM with a custom-built, rule-based engine. This tool utilizes weighted logic to deliver transparent, compliant decisions for fraud, safety, accounts, and trust evaluation.

The Decision Support Engine adds quality evaluations and policy controls for deploying trusted AI agents


The Challenge: Designing for Scale Fraud detection at Amazon-scale requires more than just smart logic; it requires extreme efficiency. I worked closely with engineering to understand and influence the optimization of the engine’s Time Complexity (minimizing latency for real-time approvals) and Space Complexity (managing the massive memory overhead required to cross-reference millions of data points). By designing with these SQL fundamentals in mind, we built a tool that supports rapid-fire decision-making without compromising system stability at scale. Legacy systems were brittal and prone to failure, costing multimillion dollars of loss in minutes in some cases.