Elevata helps teams choose the right GenAI use case, design Bedrock or SageMaker architectures, evaluate quality, control inference cost, and launch with governance before scaling.
Is this workflow a good candidate for generative AI, or would search, rules, automation, or analytics solve it more reliably?
Data readiness
Current and permissioned sources
Are the source documents current, permissioned, clean, and owned by someone who can keep them accurate?
Risk boundary
What happens when the AI is wrong?
Does the workflow need review, approval, rollback, human-in-the-loop control, or hard limits for sensitive actions?
Path to production
Launch criteria
Before launch, define the evaluation set, logging, cost model, security review, fallback behavior, owner, and operating playbook.
Proof before promise
AWS-validated expertise for production GenAI
Generative AI projects fail when they are treated as demos instead of operating systems: no evaluation set, no data owner, no cost model, no fallback path, and no clear responsibility after launch. Elevata combines AWS cloud, data, and AI engineering to turn one workflow into architecture, evaluation, backlog, runbook, and cost controls.
Fit and non-fit
For teams with a real workflow, accessible data, and production intent
This is a fit when CTOs, data, product, operations, or support leaders have a specific workflow, identifiable data sources, and a sponsor who accepts go/no-go criteria. It is not the right path for full automation without review, ownerless data, promised AWS credits, or a POC disconnected from operations.
Technical decision
Bedrock, SageMaker, data platform, or not GenAI?
Bedrock, SageMaker, data platform, or not GenAI?
When it fits
What to validate first
Amazon Bedrock
When you need access to foundation models, RAG, agents, guardrails, and faster application development without managing model infrastructure.
Data permissions, retrieval quality, evaluation set, latency, and cost per task.
SageMaker
When the case requires deeper control: training, fine-tuning, specialized deployment, or MLOps workflows.
Training data quality, model ownership, MLOps, inference pattern, and operational support.
Data platform first
When the AI idea is sound, but the data is stale, fragmented, unpermissioned, or hard to retrieve.
Data ownership, freshness, access controls, metadata, and source-of-truth decisions.
Not GenAI yet
When search, rules, analytics, automation, or a simpler interface would solve the job more reliably.
User workflow, failure cost, business metric, and maintenance burden.
Decision before model
Is generative AI the right answer for this workflow?
The first filter is not Claude, Titan, Llama, Bedrock, or SageMaker. It is whether the job needs generation, reasoning, and natural language, or whether search, rules, automation, analytics, or a better interface would solve it with less risk.
Use GenAI when
The work involves language, documents, synthesis, classification, open-ended questions, triage, or knowledge retrieval that changes often.
There are approved sources, a process owner, a success metric, and manageable risk when an answer needs review.
The first scope can be narrowed to one workflow, one data set, and one user group before scaling.
Use search, rules, or automation when
The correct answer is deterministic, the workflow follows simple rules, or the main pain is finding structured records.
The data is stale, unpermissioned, missing an official source, or lacks an owner for quality.
The cost of error requires human approval, fallback, legal review, or a simpler process before AI-driven automation.
Use-case scoring matrix
Score by business value, data readiness, technical feasibility, risk, evaluation clarity, latency, and cost per task.
Prioritize high-value, high-readiness cases, not the most ambitious or politically visible workflow.
Define go/no-go criteria before the POC: quality, groundedness, cost, security, and adoption.
Good first projects
Internal knowledge assistant with approved sources and traceable answers.
Support triage, document classification, policy review, or summarization of repetitive material.
Review of an existing POC to decide whether to improve retrieval, narrow scope, add evaluation, or stop.
From POC to production
How we move a GenAI use case toward execution
1
Readiness assessment
Typically 1-2 weeks to map workflow, sponsor, sources, risks, success criteria, data gaps, and the build/no-build path. Timing depends on people and information availability.
2
Narrow POC or pilot
When the use case, data owner, and metric are clear, a narrow proof of concept often takes 2-4 weeks, with an evaluation set and cost per task from the start.
3
Production hardening
Implementations with RAG, agents, integrations, security review, monitoring, and handoff commonly take 6-12 weeks or more depending on data, compliance, and integration scope.
4
Handoff and operations
We document runbooks, owners, metrics, alerts, prompt/model review, fallback, costs, and improvement cadence for the internal team or managed operations.
What you receive
What a GenAI readiness assessment should deliver
The assessment should turn an idea or POC into usable decisions: build, narrow the scope, fix the data first, or choose a simpler solution.
Use-case ranking and scope
Prioritized use-case list by value, data readiness, risk, cost, evaluation, and process ownership.
First-phase scope: users, sources, allowed actions, limits, and go/no-go criteria.
Explicit decision about what will not be automated in the pilot.
Architecture and evaluation
Direction for Bedrock, SageMaker, RAG, agents, Amazon Q, data platform, or a non-GenAI path.
Evaluation set for quality, groundedness, latency, cost, tool accuracy, fallback, and human effort.
Target architecture with data sources, permissions, logs, guardrails, human review, and initial runbook.
Governance, privacy, and operations
Owners for model, prompt, data, security, cost, human approval, monitoring, and change review.
Market and workload risks: LGPD in Brazil, PIPEDA in Canada, sensitive data, Region, logs, retention, and legal review where applicable.
Cost-per-task model including tokens, embeddings, vector search, retries, tool calls, observability, and human review.
Delivery
How Elevata moves AWS GenAI toward production
Use-case strategy and scoring
Workshop to compare workflows by business value, data readiness, feasibility, risk, evaluation, latency, cost per task, and post-launch ownership.
Bedrock, RAG, and agent architecture
RAG with Knowledge Bases, agents, guardrails, and enterprise data integration, with permissions, approved sources, evaluation, cost per task, and operations defined early.
SageMaker when deeper control is needed
Training, fine-tuning, evaluation, and specialized deployment with SageMaker when foundation models are not enough, or when MLOps, ownership, and inference patterns require more control.
Data foundation and retrieval quality
We map official sources, permissions, freshness, metadata, chunking, vector search, and retrieval evaluation before trying to solve everything with prompts.
Evaluation, guardrails, and human review
We define evaluation sets, groundedness, tool-call accuracy, logs, limits, fallback, and human review for sensitive actions.
Cost per task and ongoing operations
We monitor tokens, embeddings, vector search, retries, latency, observability, unit cost, prompt/model review, and runbooks.
AWS
AWS Generative AI Competency validated by AWS
35%
reduction in documented inference optimization work
250+
AWS launches across workloads and environments
Data and AI ecosystem
Integrations with platforms used by modern AI teams
Elevata is an AWS Advanced Tier Services Partner with AWS Generative AI Competency and a focus on production workloads. For generative AI, our role is to help your team choose the right use case, validate whether GenAI is the right solution, design the AWS architecture, measure quality, control cost, and prepare operational handoff with clear ownership.
What do people ask about AWS Generative AI Consulting?
What's the difference between Bedrock and SageMaker for generative AI?
Amazon Bedrock usually fits when the team wants access to foundation models, RAG, agents, and guardrails without managing model infrastructure. SageMaker fits when training, fine-tuning, specialized deployment, or deeper MLOps control is needed. Before choosing, validate data, evaluation, latency, cost, and operations.
How long does an AWS generative AI project take?
A focused readiness assessment usually takes 1-2 weeks. A narrow proof of concept can often take 2-4 weeks when the use case, data owner, and metric are clear. A production implementation with RAG, agents, integrations, security review, monitoring, and handoff commonly takes 6-12 weeks or more depending on data, compliance, and integration scope.
We already tried a chatbot and it was not reliable. Is it worth reviewing?
Yes, if there is a real workflow behind the POC. Many failures come from weak sources, poor retrieval, no evaluation, unclear permissions, too broad a scope, or missing fallback behavior. We review what failed and decide whether to improve retrieval, change architecture, narrow scope, add evaluation, or stop before more budget is spent.
How do you measure quality and reduce hallucination risk?
We start with approved sources, an evaluation set, groundedness criteria, retrieval tests, tool limits, logs, fallback, and human review for sensitive actions. Guardrails help, but they do not replace permissions, evaluation, application architecture, and process governance.
What data do we need before starting?
You do not need everything to be perfect, but you need to identify the most important sources, who owns them, how they are updated, who can access them, and what a correct answer means. If data is fragmented or permissions are unclear, the first phase may be data modernization rather than GenAI.
How do we control inference cost before scaling?
We model cost per task, not only total cost. That includes tokens, embeddings, vector search, retries, tool calls, logs, observability, latency, fallback, and human review. The goal is to know the cost of an answer, document, ticket, or action before usage grows.
Can we use private company data?
In many cases, yes, but it requires access controls, data classification, encryption, logs, retention, privacy review, and legal validation when personal or sensitive data is involved. The architecture should document what reaches the model, what stays in RAG, who can query it, and how access is audited.
Do LGPD or PIPEDA change the architecture?
They can. Projects involving personal data in Brazil or Canada should consider purpose, legal basis, consent where applicable, minimization, retention, logs, Region, vendors, access controls, and legal review. Elevata helps document technical assumptions, but that does not replace legal assessment.
Can Elevata help with AWS credits for AI projects?
We can help assess eligibility for programs such as PoC, MAP, or AWS Activate and organize technical and business assumptions for review. Credits are not guaranteed: availability, amounts, timing, and approval depend on AWS criteria and current program rules.
What happens on the first call?
Bring one workflow, one data source, or an existing POC. We will understand the goal, users, sources, risks, AWS status, privacy concerns, success metric, and urgency. The expected output is a clear next step: build, narrow scope, fix data first, or choose a simpler solution.
Note: AWS service availability, model availability, pricing, program terms, and regional support can change. Validate current AWS documentation before making production architecture decisions.
Next step
Bring one workflow. Leave with a clear GenAI path.
In one readiness conversation, we help clarify whether your workflow is a good GenAI candidate, which AWS architecture is likely to fit, what data or governance gaps need attention, and what a realistic first phase should include.