AI DEVELOPMENT

AI systems engineered for the real world.

NeuralSharks is an AI engineering company, not a prompt-and-API-key agency. We build the retrieval, orchestration, evaluation, and operations that turn a model into a system you can depend on.

Calling an LLM API takes an afternoon. Knowing whether the answer is right, whether the user was allowed to see its source, what it cost, and what happens when the provider is down takes engineering. That is the work we do.

01 / BEYOND THE API CALL

Calling a model is the easy part.

An AI wrapper sends a prompt to a model and shows whatever comes back. An engineered AI system knows where its answer came from, what it cost, and what to do when it’s wrong.

THE DEMO · PSEUDOCODE

const answer = await llm.generate(prompt + question);
return answer;

Two lines. It works in a demo, and it leaves every production question unanswered. Each question on the right is a piece of engineering.

  1. 01

    Which documents is this user allowed to see?

    Permission-aware retrieval

  2. 02

    Is the answer actually supported by a source?

    Grounding, citations, and faithfulness checks

  3. 03

    What if a retrieved document contains instructions?

    Prompt-injection guardrails

  4. 04

    Will the output parse in the system that consumes it?

    Structured output and schema validation

  5. 05

    Did the last prompt change make anything worse?

    Evaluation datasets and regression gates

  6. 06

    What does one request cost at 100× the volume?

    Token budgets, caching, and model routing

  7. 07

    What happens when the provider times out?

    Fallback models and graceful degradation

  8. 08

    Who checks it before it reaches a customer?

    Human-in-the-loop workflows

02 / WHY TEAMS CALL US

The problems we’re usually hired to solve.

Most organizations don’t need convincing that AI could help. They need it to work reliably, safely, and inside their existing systems.

01

The prototype impressed. Nobody trusts it in production.

A demo built on a few hand-picked questions rarely survives contact with real users. Without an evaluation set, every prompt change is a guess, and regressions surface as customer complaints.

02

Answers sound confident and cite nothing.

Teams need responses grounded in their own documents, with references a reviewer can check, and an honest “I don’t know” when the source material doesn’t cover the question.

03

Cost and latency are unknown until the invoice arrives.

Model choice, context size, caching, and retrieval depth all drive cost per request. Without measurement, growing usage is a financial risk rather than a plan.

04

Security and legal haven’t signed off.

Access control, data residency, prompt injection, and audit trails need clear answers before sensitive data goes anywhere near a model, not after a pilot is already live.

05

The AI lives outside the tools people actually use.

Value comes from integration with the CRM, ticketing system, document store, or internal platform where work already happens. A separate chat window seldom changes how a team operates.

06

Nobody owns it after launch.

Models are updated, data changes, and behavior drifts. Someone needs the tracing, evaluation suite, and runbooks to keep the system working and to improve it safely.

03 / WHAT WE BUILD

Systems with a job to do.

Typical systems we design and build. Each one is shaped around your data, users, and constraints rather than a template.

Generative AI applications

Drafting, summarization, rewriting, and analysis tools built around a defined task, with review steps and output checked against your own standards.

Task designReview flowOutput checks

LLM-powered products

AI features inside your SaaS product, such as natural-language querying, assistants, and smart defaults, with per-tenant isolation, usage metering, and product-grade UX.

Multi-tenantMeteringStreaming UX

RAG systems

Assistants that answer from your documents, tickets, and databases, cite the passages they used, respect permissions, and decline when the sources don’t cover the question.

Hybrid retrievalCitationsAccess control

AI agents

Bounded agents that plan and call tools to complete multi-step tasks, with least-privilege access, approval gates, and a trace of every action taken.

Tool callingApproval gatesExecution traces

AI search

Search that understands intent: hybrid keyword and semantic retrieval, query rewriting, re-ranking, and answer summaries, tuned against real queries.

Semantic searchRe-rankingRelevance tests

Document intelligence

Classification and field extraction from contracts, invoices, claims, and forms into validated, typed records, with low-confidence items routed for review.

ExtractionSchema validationReview queue

Recommendation systems

Recommendations that combine behavioral signals with embeddings and model-based re-ranking, with explanations users understand and offline metrics before launch.

EmbeddingsRankingOffline evaluation

Workflow intelligence

Classification, triage, routing, and summarization inside operational processes, with deterministic rules where exactness matters and an exception path back to a person.

TriageRoutingException handling

AI integrations

Model capability connected to your CRM, ERP, ticketing, and data platforms through typed APIs, event streams, and idempotent writes.

APIsEventsIdempotency

04 / ARCHITECTURE

Seven layers, and the model is only one.

A reference architecture for production AI. Each layer has its own failure modes, and each one emits signals that evaluation and monitoring use to keep the whole system honest.

  1. L1

    Application

    Where people and systems meet the AI: interfaces, product APIs, streaming, and feedback capture.

    • Web & mobile UI
    • Product APIs
    • Streaming
    • Feedback

    TRACEDuser, tenant, session, feedback

    request + identity + context

  2. L2

    AI orchestration

    Decides what happens on each request: routing, prompt assembly, tool loops, guardrails, retries, and output validation.

    • Versioned prompts
    • Router
    • Tool loop
    • Guardrails
    • Schema validation

    TRACEDroute, prompt version, guardrail verdicts

    assembled prompt + tool schemas

  3. L3

    LLMs / models

    Generation, embedding, and re-ranking models, chosen per task and wrapped in a fallback chain.

    • Hosted models
    • Open-weight models
    • Embeddings
    • Re-rankers
    • Fallback chain

    TRACEDmodel, tokens in/out, latency, cost

    retrieval query

  4. L4

    RAG / vector search

    Finds the right context: hybrid search, metadata and permission filters, and re-ranking over indexed content.

    • Hybrid search
    • Vector index
    • Permission filters
    • Re-ranking

    TRACEDchunk IDs, scores, filters applied

    authorized, current records

  5. L5

    Business data

    The source of truth: documents, databases, and systems of record, kept in sync by ingestion pipelines.

    • Documents
    • Databases
    • CRM / ERP
    • Ingestion & sync

    TRACEDsource, version, freshness

    typed function calls

  6. L6

    External tools / APIs

    Where the system acts: typed functions with least-privilege credentials, idempotent writes, and approval gates.

    • Typed functions
    • Scoped credentials
    • Idempotent writes
    • Approval gates

    TRACEDtool, arguments, result, approver

    traces + scores from every layer

  7. L7

    Evaluation / monitoring

    Watches every layer above: offline evaluation in CI, online quality sampling, tracing, drift detection, and cost and latency alerts.

    • Eval suites in CI
    • Online sampling
    • Tracing
    • Drift detection
    • Alerts

    PRODUCESrelease gates, alerts, dashboards

Layers are separated by clear interfaces, so a model, a vector store, or a provider can be replaced as an evaluation exercise rather than a rewrite.

05 / CAPABILITIES

The engineering inside every system.

Each capability can stand alone, but production systems usually need most of them working together.

Structured output

Model responses constrained to JSON schemas, validated by typed parsers, and repaired or retried on failure, so downstream code receives data rather than prose.

Function and tool calling

Typed tool definitions, argument validation, timeouts, and idempotent execution, so a model can query systems and take actions inside defined permissions.

Vector search

Chunking strategy, embedding model choice, hybrid keyword and vector retrieval, metadata filters, and re-ranking, tuned for recall and precision on your own queries.

Evaluation

Golden datasets, automated scorers, model-graded checks calibrated against human review, and regression gates in CI for every prompt, model, or retriever change.

Guardrails

Input and output validation, prompt-injection defenses, PII detection and redaction, policy boundaries, and defined behavior when confidence is low.

Observability

Traces across retrieval, model calls, and tools, with prompt versions, latency percentiles, token usage, and user feedback linked to the exact request.

Cost optimization

Token budgets, prompt and semantic caching, context trimming, batching, and routing simple requests to smaller models, measured as cost per successful task.

Model selection

Hosted and open-weight models compared on your evaluation set for quality, latency, cost, and data handling, behind an abstraction that keeps switching cheap.

Need a system that takes actions, not just answers? Or AI inside an operational process? AI agents · AI automation

06 / PRODUCTION CONCERNS

The hard parts, solved before launch.

Where AI products usually fail in production, what we put in place for each, and the number that tells us it’s working.

Data privacy

FAILURE MODESensitive data reaches a provider, a log, or a user who shouldn’t see it.

  • Data scope and classification agreed before ingestion
  • Permission filters applied inside the retrieval query
  • PII redacted from prompts, traces, and logs
  • Provider, region, and retention matched to your obligations, with self-hosted models where required

WE MEASUREAccess-control test pass rate; no unredacted PII in traces

Hallucination mitigation

FAILURE MODEFluent, confident answers with no basis in your sources.

  • Answers grounded in retrieved passages, with citations
  • Explicit permission to say “I don’t know”
  • Faithfulness checks that compare claims to sources
  • Consequential outputs routed to a person

WE MEASUREFaithfulness and citation accuracy on the evaluation set

Retrieval quality

FAILURE MODEThe right answer exists in your data, but the system never finds it.

  • Chunking that follows document structure
  • Hybrid keyword and vector search with re-ranking
  • Query rewriting and metadata filters
  • Retrieval evaluated separately from generation

WE MEASURERecall@k and MRR on labelled queries

Prompt architecture

FAILURE MODEOne sprawling prompt that nobody dares to change.

  • System, task, context, and output instructions kept as separate, versioned components
  • Retrieved content delimited as untrusted data
  • Examples drawn from the evaluation set
  • Prompts released and rolled back like code

WE MEASUREEvaluation score change per prompt version, before release

Evaluation datasets

FAILURE MODEQuality judged by whoever tried it last.

  • Representative, edge-case, and adversarial examples from real usage
  • Reference answers and rubrics agreed with domain experts
  • Model-graded scoring calibrated against human labels
  • Production failures added to the set every release

WE MEASUREPass rate by category, tracked release over release

Latency

FAILURE MODEThe answer arrives after the user has given up.

  • Streaming responses and early partial output
  • Retrieval and tool calls run in parallel
  • Smaller, faster models for routing and classification steps
  • Caching for embeddings and repeated requests

WE MEASUREp50 / p95 time to first token and to complete answer

Token cost

FAILURE MODEUsage grows faster than the budget.

  • Cost model built during architecture, not after launch
  • Context trimmed to what the task needs
  • Prompt caching and semantic caching
  • Per-feature and per-tenant budgets with alerts

WE MEASURECost per successful task, by feature and tenant

Fallback models

FAILURE MODEA provider outage or rate limit becomes your outage.

  • Fallback chain across providers or model sizes, evaluated in advance
  • Timeouts, retries with backoff, and circuit breakers
  • Graceful degradation to search results or a human queue
  • Fallback paths exercised in tests, not just configured

WE MEASUREAvailability, fallback rate, and quality on the fallback path

Human-in-the-loop workflows

FAILURE MODEAutomation makes a consequential decision nobody reviewed.

  • Confidence thresholds route uncertain cases to review
  • Approval gates before writes, sends, or payments
  • Review screens that show sources and proposed actions
  • Reviewer corrections fed back into evaluation

WE MEASUREReview rate, override rate, and time to decision

07 / ENGINEERING APPROACH

Engineered like the rest of your critical software.

AI systems fail in new ways, but they still need the disciplines that keep any production system dependable.

01

Architecture

The model is a component, not the system.

  • Retrieval, orchestration, model access, and business logic separated behind clear interfaces
  • Models and vector stores replaceable without a rewrite
  • Deterministic code for anything that must be exact

02

Scalability

Designed for growth in users, data, and cost.

  • Queues and asynchronous processing for long-running work
  • Caching for embeddings and repeated requests
  • Rate-limit handling, provider fallbacks, and a cost model before usage grows

03

Testing

Two kinds of tests, both in CI.

  • Unit and integration tests for the software around the model
  • Evaluation suites built from representative and adversarial examples
  • Regressions block a release instead of reaching users

04

Observability

Every answer can be explained after the fact.

  • End-to-end traces: retrieved context, prompts, responses, and tool calls
  • Latency, token usage, and cost per request
  • User feedback linked to traces, with sensitive data redacted

05

Security

Retrieved content and user input are untrusted.

  • Least-privilege access to data and tools
  • Permission checks at retrieval time, not just at login
  • Secrets management, audit logs, and data handling matched to your obligations

06

Deployment

Releases are routine, reversible, and observed.

  • Infrastructure as code and versioned prompts and configuration
  • Staged rollouts behind feature flags
  • Fallback behavior and runbooks in place before launch

Infrastructure, pipelines, and monitoring are delivered with our cloud and DevOps practice; connections to your systems with data and integrations.

08 / TECHNOLOGIES

Tools chosen for the problem.

We recommend a stack after discovery, based on your requirements, existing platforms, and team.

Models

Selected per task on your evaluation set, not by brand.

OpenAIAnthropicGoogle GeminiOpen-weight modelsEmbedding & re-ranking models

Retrieval & data

Search quality is usually the biggest lever on answer quality.

PostgreSQL + pgvectorVector databasesElasticsearch / OpenSearchHybrid search

Orchestration & quality

Thin, testable layers between your product and the model.

LangChain / LangGraphLlamaIndexOpenTelemetryEvaluation harnesses

Application & infrastructure

Deployed in the environment your compliance requires.

PythonTypeScriptNext.jsAWSAzureGCPKubernetesRedis

Representative technologies; no official partnerships are implied. Explore our technology capabilities.

09 / PROCESS

Seven stages, each with an output.

Every stage ends with something you can review, so decisions are made on evidence rather than optimism.

  1. 01

    Discovery

    Clarify the task, users, data sources, and constraints. Collect real examples and agree on what a good, and an unacceptable, answer looks like.

    OUTPUTUse-case brief, evaluation criteria, feasibility view

  2. 02

    Architecture

    Choose the retrieval approach, candidate models, integration points, and data boundaries. Estimate latency and running cost.

    OUTPUTArchitecture decisions and cost model

  3. 03

    Design

    Design the experience around trust: how sources are shown, how uncertainty is communicated, and where people review or override.

    OUTPUTInteraction design and review workflow

  4. 04

    Implementation

    Build in short iterations against the evaluation set, integrating with your systems early so problems surface while they are cheap.

    OUTPUTWorking increments on your data

  5. 05

    Testing

    Run evaluation suites, adversarial cases, load tests, and security review alongside conventional software tests.

    OUTPUTEvaluation report and release recommendation

  6. 06

    Deployment

    Release in stages with monitoring, alerts, fallbacks, and runbooks in place. Hand over to your team where that is the plan.

    OUTPUTProduction release and operating documentation

  7. 07

    Optimization

    Use traces and feedback to improve retrieval, prompts, and model choice, reduce cost and latency, and add real failures to the evaluation set.

    OUTPUTMeasured improvement, release over release

See how this fits into our wider delivery process.

10 / RELEVANT WORK

How we think it through.

Client case studies are published once they are approved. The work below consists of illustrative concepts, not delivered engagements or claimed results.

11 / WHY NEURALSHARKS

What working with us looks like.

Commitments you can hold us to during an engagement.

Engineering leadership

NeuralSharks was founded by six software engineering partners. Senior engineers make the architectural decisions, stay involved in delivery, and record each decision with the trade-offs behind it.

About NeuralSharks

Quality as scope, not a phase

Evaluation sets, automated tests, and release criteria are planned from the first iteration. Quality engineering is an in-house discipline, not something bolted on before launch.

Software testing

Communication you can act on

You see working software on your own data at a regular cadence, hear about risks when we find them, and get trade-offs explained in plain language.

Product thinking

We start from the task a user needs to complete. Sometimes the right answer is a smaller model, a better search index, or no AI at all, and we would rather tell you early.

End-to-end capability

AI, software engineering, data integration, quality, and cloud operations sit in one team, so the model, the product around it, and the infrastructure beneath it are designed together.

All services

12 / FAQ

Questions to ask before you hire us.

If yours isn’t here, ask us directly. A straight answer is part of the service.

What makes you an AI engineering company rather than an AI agency?

Most of a production AI system is not the model call. It is retrieval, permissions, orchestration, evaluation, guardrails, integration, observability, and cost control. Our team are software engineers first: we design those parts with the same discipline as any other critical system, and we judge quality by measurements on your data, not by a demo.

How do we know whether our use case is a good fit for AI?

Strong candidates involve language or unstructured information, can tolerate some variability with a review step, and come with real examples we can evaluate against. If a task needs an exact, deterministic answer every time, rules or conventional software are often better. Discovery tests this before significant investment.

Do you train custom models?

Usually not as a first step. Most business problems are solved by existing models combined with good retrieval, clear instructions, and structured outputs. Fine-tuning can make sense for consistent formatting, specialized classification, or cost and latency at high volume, and we recommend it when evaluation shows it beats the simpler approach.

Which model or provider will you use?

We compare candidate models on your evaluation set for quality, latency, cost, and data-handling requirements, then choose per task. A thin provider abstraction means switching later is an evaluation exercise rather than a rewrite.

What happens to our data?

Data handling is agreed up front: which sources are in scope, where data is processed and stored, which providers and regions are acceptable, retention periods, and how access permissions are enforced. Where requirements rule out third-party APIs, self-hosted open-weight models are an option.

How do you deal with hallucinations?

They can be reduced and contained, not eliminated. We ground answers in retrieved sources with citations, allow the system to decline when sources are insufficient, validate structured outputs, measure faithfulness in evaluation, and route consequential decisions to a person.

How long does a project take?

It depends mostly on data readiness and integration complexity, so we estimate after discovery rather than before. The first milestone is always a working system evaluated on your data, which lets you decide on evidence whether to continue to production.

Can you work alongside our engineering team?

Yes. We can work in your repositories, CI pipelines, and cloud accounts, pair with your engineers, and document the system so your team can own it. Handover is planned from the start rather than left to the final week.

What will it cost to run once it’s live?

Running cost depends on volume, model choice, context size, and caching. We build a cost model during architecture and instrument cost per request in production, so spend is visible and controllable rather than a surprise.

START A PROJECT

Build an AI product that survives production.

Tell us what you’re building, what data it depends on, and where the risk is. We’ll come back with questions, an honest view on feasibility, and a first milestone evaluated on your own data.