AI Automation Agency

An ai automation agency shipping workflows that actually adapt.

Paiteq builds LLM-in-the-loop automation on n8n, Make, Temporal, and custom orchestrators. Deterministic actions where rules win, Claude or GPT-5 judgment where rules break. Every workflow eval-graded, observable, rollback-ready before any live action ships.

Stack n8n · Make · Temporal · LangGraph
Practice Sales · Back-office · Support · Eng
Engage Pilot · Build · Migrate · Scale
Compliance Self-host · SOC 2 · HIPAA
001 / SURFACES

Eight workflow surfaces we automate.

Each surface below is a workload shape we've shipped in production. The rule layer, the LLM judgment layer, and the action layer get worked out per surface — there's no one-size-fits-all shape for ai workflow automation work.

The most common request we get as an ai automation agency starts with "can you automate this thing?" — and the honest first answer is almost always "show me the work." Eight surface categories cover roughly 95% of the workloads we end up shipping as an ai automation company. They're not categories of tools; they're categories of work where LLM judgment and deterministic orchestration combine in a particular shape. We've shipped at least three production ai automation solutions in each of the eight surface categories during 2026.

01 / SALES OPS
Sales operations
Lead enrichment from web sources, CRM hygiene, pipeline forecast prep, follow-up sequence drafting. n8n triggers on Salesforce or HubSpot events; Claude Sonnet 4.6 does the judgment; routes low-confidence to a human queue.
SalesforceHubSpotn8n
02 / BACK OFFICE
Back-office automation
Invoice routing with 3-way match, AP / AR reconciliation, expense classification, contract clause extraction. LLM reads the documents, the workflow engine moves money or routes for approval. Most common engagement shape we ship.
AP / ARGPT-5 Vision
03 / SUPPORT
Support workflows
Ticket triage, draft replies on top of grounded knowledge, escalation policies. Triage logic on the LLM side; actions on the Zendesk or Intercom side. Confidence-routed — drafts gate on human approval below the threshold.
ZendeskIntercomTriage
04 / DATA OPS
Data operations
ETL with LLM-driven schema inference for messy sources, anomaly explanations, automated docstring and lineage capture, dashboard summary generation. Temporal handles durability when a pipeline run lasts hours.
TemporalBigQuerySnowflake
05 / MARKETING
Marketing operations
Brief to draft to review to publish, with brand-controlled generation and mandatory human approval steps on customer-facing copy. Cuts the brief-to-published cycle without losing brand voice — we evaluate on a brand-fidelity eval set, not a vibes check.
BrandHuman gate
06 / ENGINEERING
Engineering automation
PR triage and classification, doc-gen against the diff, changelog drafting, incident summarisation, on-call note drafts. GitHub Actions triggers an n8n workflow; LLM judgment lives at the classify step; humans gate before merge.
GitHubPR-gate
07 / RPA REPLACE
RPA modernisation
Replace fragile selector-based RPA with event-driven AI workflows that survive UI changes. UiPath, Automation Anywhere, and Blue Prism estates migrate workflow-by-workflow with eval-validated cutover and the old bots staying live until parity is proven.
UiPathBlue Prism
08 / OBSERVABILITY
Workflow observability
Every node logged, every LLM call traced via Langfuse, replay-any-run from the trace store, per-workflow cost ledgers, drift alarms on judgment accuracy. The same instrumentation we run in eval — kept on, in production.
LangfuseOTel
002 / SERVICES

AI automation services — pick where to start.

Four fixed-scope engagement shapes. Pilot first, Build second, Migrate when you're replacing a legacy RPA estate, Scale when an existing automation practice has outgrown its tooling.

The n8n freelancer market is huge and varied. Most clients we talk to have already tried hiring a single contractor or a workflow automation consulting boutique to ship one flow — sometimes it worked, often it didn't. The gap is usually eval: a single workflow shipped without an eval set has no honest way to answer "is the LLM doing the right thing?" three months in. Our ai automation services and intelligent automation services exist to fill that gap — engagement shapes that bake the eval methodology in from day one, plus the orchestration, observability, and rollback paths that turn a one-off Zap into a production-grade ai automation solutions practice.

003 / STACK

Orchestrators, model routers, observability — the workflow stack.

Stack choices follow the workload shape — visual canvas, code-first durability, or hybrid composition.

  • n8n
  • Make.com
  • Temporal
  • Inngest
  • Trigger.dev
  • Zapier
  • Pipedream
  • Activepieces
  • LangGraph
  • LangChain
  • Composio
  • Vercel AI SDK
  • Claude
  • GPT-5
  • Langfuse
  • OpenTelemetry
  • n8n
  • Make.com
  • Temporal
  • Inngest
  • Trigger.dev
  • Zapier
  • Pipedream
  • Activepieces
  • LangGraph
  • LangChain
  • Composio
  • Vercel AI SDK
  • Claude
  • GPT-5
  • Langfuse
  • OpenTelemetry

The stack above isn't a fashion list; it's the set of tools we've shipped production workflows on in the past 12 months. n8n leads our self-hosted work because the licence math beats every alternative for engineering-owned regulated estates. Make leads our ops-team-owned work because the visual canvas converts non-engineers into workflow authors without retraining. Temporal carries the long-running durable workflows where state has to survive a multi-day sleep. The LLM layer is Claude Sonnet 4.6 by default — strongest tool-call accuracy in our eval set, prompt-caching cuts ~80% of stable-prompt cost — with GPT-5 mini or Haiku 4.5 as the cheap-tier on routed workloads. Observability lives in Langfuse for the LLM traces and OpenTelemetry for the workflow spans; we don't ship a Production Build without both. The opinionated take: the orchestrator is the easy choice, the LLM layer is the moderate choice, and the observability stack is the choice that decides whether the workflow is debuggable in production. Skip observability and the system is unmaintainable by month three.

004 / TOOLS

When n8n beats Make beats Temporal — picking the orchestrator.

Each orchestrator wins on a different workload shape. The picker below is what we use internally on every new engagement before we sign anything.

n8n

Open-source, self-hostable, node-based canvas with code-when-you-need-it. Excellent LLM node ecosystem — OpenAI, Anthropic, custom HTTP, LangChain bridges, vector-store nodes. Fair-code licence means you can self-host indefinitely without per-seat fees.

Default for self-hosted regulated workloads. Default when the client wants to own the runtime and the licence math beats Make. Default for engineering-led teams that will end up editing function nodes.

Non-engineering ops teams that need a pure no-code experience — Make's visual canvas is more forgiving. Very high throughput (>100 runs/sec sustained) — we'll add Temporal at that point for the durability guarantees.

About half of our n8n consulting and n8n agency work in 2026 runs self-hosted on the client's AWS or GCP, with Langfuse instrumenting every LLM call. The other half runs n8n Cloud on the official hosted plan.

Self-hostOSSLLM nodes
Make.com

The strongest visual canvas in the category — branching, error handlers, and iterators are all first-class primitives. Thousands of pre-built connectors. Ops teams without engineering staff ship more workflows on Make than on any other tool we've benchmarked. Native AI modules for OpenAI and Anthropic.

Ops-team-owned workflows where the runtime is a SaaS bill, not an infra commitment. Workloads with heavy branching that benefit from the visual debugger. Marketing and revenue-ops teams who don't have a platform engineer.

Regulated data — Make is hosted-only, no self-host option. High-volume workloads — the per-operation pricing flips above ~1M ops/month. Engineering teams who want runtime under version control.

We pick Make for about a quarter of new builds, almost always for ops teams in mid-market companies (200–800 employees) where the licence fee is dwarfed by the engineering time it saves.

VisualConnectorsSaaS
Temporal

Durable execution — workflow state persists across worker crashes, deploys, and arbitrary delays. Workflows can sleep for weeks then resume exactly where they stopped. Code-first (Go, TypeScript, Python, Java) — version-controlled, testable, type-safe. Production-scale at Stripe, Netflix, Coinbase.

Long-running workflows (hours to weeks) where state durability is non-negotiable. Workflows with complex compensation logic (sagas). Engineering-owned automation that needs to live in the same repo as the app code. Any workflow where a half-completed run is worse than no run.

Short linear workflows — Temporal's setup tax doesn't pay back below ~10 step durability. Ops teams without engineering capacity — Temporal is not a no-code tool. Workloads where the SaaS hosted options are good enough.

We reach for Temporal on ~1 in 6 enterprise builds — mostly durable backoffice work (claims processing, multi-day approval chains) and the agentic-workflow shape where retries and checkpoints aren't optional. Our blog on <a href="/blog/n8n-vs-make-vs-temporal/">picking the orchestrator</a> covers the break-even math.

DurableCode-firstEnterprise
Inngest / Trigger.dev

Code-first like Temporal but serverless-native — workflows live in your existing Next.js or Node app, no separate cluster. Excellent TypeScript ergonomics. Step functions, retries, scheduling, and event triggers in a single SDK. Good fit for product-engineering teams that already ship on Vercel or Fly.

Product engineering teams who want workflows in the same repo as the app. Lighter-weight than Temporal when durability matters but cluster ops doesn't. Background jobs that have grown into something that looks like a workflow.

Truly long-running workflows (multi-day with complex sagas) — Temporal is still the reference. Ops-team-owned automation — these are developer tools.

We use Inngest as the workflow layer inside Next.js apps where a Production Build engagement is also shipping app code. Not a first choice for standalone automation, but excellent when the workflow lives next to the product.

ServerlessTS-firstIn-app
Zapier

The deepest connector library on the market. Reliability is the strongest in the category — Zaps that have run for years without a failure are common. Recently shipped real AI features. The platform of choice when a workflow just needs to connect two well-known SaaS tools and not break.

Simple linear flows with stable APIs and modest volume. Workloads where reliability outweighs feature richness. When the client's stack is heavy on long-tail SaaS connectors that Make or n8n don't cover.

Anything complex enough to need branching or iterators — Make is more capable. Self-hosted or regulated data — Zapier is hosted-only. High volume — the per-task pricing collapses the economics.

We rarely lead with Zapier on a new build but we leave existing Zaps alone in scale-up engagements — they work, and replacing them is rework for no gain. About 1 in 4 Production Builds keeps an existing Zap layer for one specific integration.

ConnectorsReliableLinear
LangGraph (in-app)

State-graph orchestration for agentic workflows where the path through nodes depends on LLM judgment. Native to LangChain. First-class for agentic-workflow-automation shapes where pure DAG orchestrators struggle. Checkpointing, replay, and human-in-the-loop interrupts all built in.

Workflows where the next step is decided by an LLM, not by a static graph — pure agent loops, multi-agent supervisor patterns, or workflows with judgment-driven branching depth. Always paired with an orchestrator (n8n or Temporal) that triggers the agentic run.

Deterministic workflows — LangGraph adds complexity that pure orchestration doesn't need. The Python-only API (TypeScript is less mature) constrains the team it fits.

We treat LangGraph as the agentic layer inside a larger workflow, not as a replacement for the orchestrator. See <a href="/services/ai-agent-development/">the agent development practice</a> for the full agentic-workflow patterns we ship.

StatefulAgenticPython

In practice, most of our n8n consulting and n8n agency work as an ai automation company — and we do a meaningful amount of both — happens because n8n is the right fit, not because the client asked for it by name. The same is true for Make and Temporal. A typical mid-market estate ends up with two of these in production: an ops-team-owned Make workspace for the marketing and revenue-ops flows, plus a self-hosted n8n cluster for the engineering-led workflows that touch regulated data. Enterprises with long-running durable work add Temporal on top. The wrong pattern, which we see often in audits, is single-orchestrator dogmatism — usually n8n forced into a long-running shape it isn't built for. We rebalance estates like that on Scale-up engagements about once a quarter.

005 / CAPABILITY × INDUSTRY

Where workflow automation ships — function × industry.

A heatgrid of the function × industry combinations where we've shipped workflows in 2026. Darker cells are repeatable engagements; pale cells are workloads where the shape doesn't yet justify automation in that vertical.

Function Industry
B2B SaaS
Fin-tech
Health-tech
Legal
Mfg
E-comm
Ed-tech
Logistics
Sales / Revenue ops
Back-office (AP/AR/HR)
Support / Success
Engineering / DevOps
Data / Analytics ops
Marketing / Content
Sales / Revenue ops
B2B SaaSFin-techHealth-techLegalMfgE-commEd-techLogistics
Back-office (AP/AR/HR)
B2B SaaSFin-techHealth-techLegalMfgE-commEd-techLogistics
Support / Success
B2B SaaSFin-techHealth-techLegalMfgE-commEd-techLogistics
Engineering / DevOps
B2B SaaSFin-techMfgE-commLogistics Health-techLegalEd-tech
Data / Analytics ops
B2B SaaSFin-techHealth-techLegalMfgE-commEd-techLogistics
Marketing / Content
B2B SaaSE-commEd-tech Fin-techHealth-techLegalMfgLogistics
Possible fit Good fit Primary vertical

Back-office automation is the densest column — invoice routing, reconciliation, contract ops, claims intake, AP/PO matching, customs filings — because the work is judgment-heavy on structured documents, which is exactly where LLM-in-the-loop wins. Sales / revenue-ops is the second densest because enrichment and routing are universal. Marketing and content automation lags in regulated industries (health, legal, finance) not because the workflow isn't possible but because the human-gate cost dominates the savings; the math only works in lower-risk verticals like e-commerce and ed-tech.

006 / PATTERNS

Four LLM-in-the-loop patterns we ship.

Most production workflow automation collapses onto one of these four architectural shapes. The shape decides where the eval gates land, where the cost lives, and where the failure modes hide.

01

Trigger → enrich → judge → act

The simplest production shape. An event triggers a workflow; deterministic enrichment pulls context from CRMs, databases, or HTTP endpoints; one LLM call applies judgment (classification, extraction, routing decision); the workflow validates the schema and commits the action to a system-of-record. About 60% of the workflows we ship live here. The fewest moving parts and the easiest shape to reason about.

Pick when
  • One judgment node is enough — the LLM is reading a document, classifying intent, or extracting structured fields. Latency tolerant of one round-trip (typically sub-3s trigger-to-settle). Cost is bounded per run because the LLM call is single.
Skip when
  • Multi-step judgment where the output of one LLM call shapes the prompt of the next. Workflows that need to sleep for hours or days — pull in Temporal for durability. Branch counts above ~10 — switch to confidence-routing or agentic shapes.
Stack
n8n / Make / Inngest (orchestrator)Claude Sonnet 4.6 or GPT-5 (judgment)Pydantic / Zod (schema validation)Langfuse (trace)

In practice, most production workflow systems compose two or three of these patterns. A confidence-routed workflow with a human-gate fallback below threshold is the most common shape we ship — it absorbs the long tail of edge cases without throwing every run at a reviewer. Durable agentic wrapped around a linear inner workflow is the enterprise shape for long-running claims work. The wrong pattern is single-pattern dogmatism: forcing every workflow into the agentic shape because it sounds modern, when 60% of real work is linear and would ship 3× faster with the simpler pattern. The pattern falls out of the workload during week 2 of any engagement, not from a template.

007 / DECIDE

Workflow, agent, chatbot, or RPA — pick the right pattern.

The single most common mistake in this category is solving a workflow problem with the wrong pattern. The 3-question picker below is what we run on every discovery call before scoping.

Question

Pick one

The decision matters because building the wrong shape is expensive to undo. Building an agentic system when a confidence-routed workflow would have shipped in half the time costs you 4–8 weeks of engineering and adds a debugging surface you didn't need. Building a deterministic workflow when the work genuinely needs agentic path-finding caps the system at a brittle 20-branch DAG that breaks every time the work shape shifts. The picker isn't theoretical — it's the same questions we ask on every contact call before talking budget.

008 / EVAL

Four gates on every workflow before live actions.

Eval-first isn't a slogan; it's a build-order decision. The eval set lands in week 2, before any orchestrator or model is picked. You can't pick the right tools without a way to measure what "good" means on the actual work.

All four gates green before any live action enables. If one's amber, we rework that node in place; if it's red, we re-baseline the model on that judgment step or rethink the workflow shape. The gates are the most important part of our ai workflow automation services — they're what stops 'looks fine in the demo' from shipping wrong actions to production.

  1. 01 Judgment accuracy
    ≥95%

    Every LLM-judgment step is scored against a domain-expert-graded eval set (typically 40–100 examples per judgment node). The eval set is built before the model is picked. Inspect AI as the harness; LLM-as-judge with human spot-check for the disputed cases. We grade per-judgment, not per-workflow — bottling judgment quality at the node level catches drift earlier.

    If judgment accuracy drops below 92% on the production trace sample, we re-baseline the prompt or swap to a stronger model on that node. Confident wrong decisions in a workflow are worse than refusals — refusal queues are cheaper to staff than recovery from a wrong AP / AR action.

  2. 02 Run success rate
    ≥99% on dry-run

    Trigger-to-settle workflow completion without error or unintended rollback, measured on dry-run mode against the eval scenarios. Includes integration failures, timeout cascades, schema mismatches — every non-judgment failure mode. Tracked per workflow per day in production.

    If the production success rate dips below 97% for 48 hours, we pause live actions and reproduce the failure in dry-run. Most success-rate failures trace to a downstream API contract change — observability catches them before they compound.

  3. 03 Median cost per run
    Modelled at discovery

    Per-run cost — LLM tokens, compute, integration calls — tracked per workflow per week via Langfuse and an internal cost ledger. Modelled during the Pilot using the expected traffic shape, not a marketing average. Surprise bills aren't a surprise because the modelling lands in week 2.

    If median cost drifts more than 25% over the baseline for two consecutive weeks, we audit the model routing on judgment nodes and the prompt cache hit rate. Most cost-runaway incidents trace to one of those two, not to volume spikes.

  4. 04 P95 trigger-to-settle latency
    Under per-workflow SLA

    Full trigger-to-settle time, including async queue waits where the workflow includes them. SLA varies — sub-3s for sales-ops enrichment, sub-30s for AP routing, sub-60m for long-running data ops. Tracked p50/p95/p99 separately because workflow latency tails matter.

    Breach of p95 SLA for 72h triggers a routing review on judgment-heavy nodes. Usually the fix is moving an easy judgment to a faster model (GPT-5 mini or Haiku 4.5), not replatforming the orchestrator.

The four gates above are the floor on a workflow build. For specific workloads we add more — action reversibility audit (what fraction of run actions can be rolled back, by run, by day), schema-compliance rate (% of LLM outputs that parse against the Pydantic / Zod schema first try, before retry), human-gate response time (how long drafts sit in the queue, which is the operational metric that decides whether the queue is staffed correctly). Add gates only when the workload demands them; gate proliferation slows iteration without lifting quality.

009 / OBSERVABILITY

Workflow observability — what we instrument.

Production workflow automation is debuggable only if the observability lands on day one. The same instrumentation we run during eval stays on in production — that's how you catch drift in week 6 instead of month 3.

Three layers, instrumented from the first dry-run. LLM traces via Langfuse — every model call captured with input, output, token counts, latency, cost, model identifier, and the upstream workflow run ID. Production traces feed a sampled trace store; that store feeds the eval set monthly. We've found 1 in 6 production-drift bugs by reading sampled traces against the eval-set baseline; that's an investment we'd rebuild on every engagement.

Workflow spans via OpenTelemetry — every workflow node, every retry, every sleep, every queue wait, captured as an OTel span with the run ID as the trace key. Spans tie back to the LLM traces; one trace ID joins both stores. We ship to Datadog, Honeycomb, or self-hosted Tempo depending on what the client's platform team already runs. Sentry catches the workflow exceptions that don't make it to OTel — usually integration timeouts that need rebudgeting.

Cost ledgers. Per-workflow per-run cost, separated by LLM tokens, compute, and integration calls (Twilio messages, BigQuery scans, Snowflake credits). The ledger is queryable per workflow per day; the alarm fires on 25% drift over two weeks. Helicone is a useful add-on for granular LLM-cost slicing when the client wants per-tenant or per-user attribution.

The opinionated take: observability is the choice that separates a workflow estate that survives team turnover from one that doesn't. We've audited estates where the engineer who built them left the company and the new team can't tell which workflows are running, let alone which are failing. Three months of instrumentation on day one avoids that failure mode entirely.

010 / PROCESS

Map, eval, dry-run, ship.

Every workflow ships through the same six-step process. Eval cases land in week 1–2 — the workflow doesn't get built before we know what "right" looks like on the actual work.

WEEK 1

Workflow map

Current state of the process: triggers, steps, integrations, decision points, exception paths. We sit with the team that runs it today, not just the team that owns it.

WEEK 1–2

Spec + eval

Eval cases for the LLM-judgment steps, action surface, blast-radius assessment, rollback policy. Eval set lands before any prompting.

WEEK 2–4

Prototype

Working workflow against real integrations on a dry-run flag. Real APIs, real data, no live actions yet. Built on the picked orchestrator (n8n / Make / Temporal).

WEEK 4–6

Eval + dry-run

Judgment accuracy, run success, cost-per-run, p95 latency — all four gates green before any live action ships. Production traffic mirrored to dry-run for a full week.

WEEK 6–8

Deploy

Live actions enabled. Auth, rate limits, Langfuse instrumentation, error routing, rollback playbook in the runbook. SOC 2 alignment if the workload touches it.

ONGOING

Running

Weekly eval review, drift alarms, cost-tracking dashboard, monthly workflow audit for new automation candidates. Ownership transfers to the client's ops team.

011 / TIMELINE

What a 6-week Production Build looks like, week by week.

The default Production Build timeline. Pilot is similar but compressed; Migration is similar but with a parallel-run phase added on the back.

Production Build · 6 weeks 6 phases
WEEK 1 Workflow map

Process trace, integration inventory, decision-point map, exception catalogue

Workflow scope signed off

WEEK 2 Eval set

40–100 graded judgment examples, dry-run scenario library

Domain-expert grading complete

WEEK 2–3 Orchestrator pick

n8n / Make / Temporal decision memo, infra provisioned

WEEK 3–5 Build + dry-run

Workflow live in dry-run mode, eval gates wired, observability on

All four eval gates green

WEEK 5–6 Cutover

Live actions enabled progressively, rollback playbook, runbook handover

WEEK 6+ Post-launch

Four weeks of paid iteration baked in; weekly eval review, drift alarms

012 / VS

Rule-based RPA versus LLM-driven workflow automation.

Classical RPA still has a place — but the place is narrower than the RPA vendors' marketing suggests. The side-by-side below is what we walk through on every RPA modernisation discovery call.

Most of our RPA modernisation engagements come from manufacturers and back-office-heavy services firms with a UiPath, Automation Anywhere, or Blue Prism estate that's hit the brittleness wall. The pattern is consistent: the original bot estate was built in 2019–2022 against UI surfaces that have since changed eight times, the engineering team that built it has rolled over twice, and each UI change costs a sprint to fix. The migration question isn't "RPA versus AI" in the abstract; it's "which bots in this specific estate are worth migrating, and to what shape?"

Rule-based RPA (UiPath / Blue Prism) LLM-driven workflow (n8n / Make / Temporal)
Work shape Repetitive structured data movement on stable interfaces Structured + judgment-heavy work — extraction, classification, routing, drafting
Maintenance Constant — each UI tweak is a fix-and-redeploy Bursty — most input changes absorbed by the LLM step, redeploy only on integration drift
Setup time Days–weeks per workflow once the bot pattern is set Hours–days per workflow once the orchestrator + eval pattern is set
Observability Logs per bot run, screen recordings — hard to query at scale Structured traces (Langfuse + OTel), per-node cost, replay-any-run
Best fit Truly stable structured workflows where input shape never varies Anything with judgment, free text, document extraction, branching, or volatile input
Full RPA-vs-workflow decision guide — when each one wins

Our honest take: 1 in 5 bots in a typical estate isn't worth migrating. Some workloads are genuinely stable — the input shape hasn't changed in three years and won't change in the next three. Keep those bots. Migrate the ones that broke twice this quarter, the ones that need judgment your rules engine can't express, and the ones that touch document formats your supplier base controls. The full method lives in our RPA modernization practice page, which goes deeper on the migration framework for clients with large rule-based estates.

013 / USE CASES

Where teams have shipped — real workflow automation work.

Five anonymized engagements. Workflow shape, segment, outcome metric are real; client identity removed under NDA. Numbers are the actual measured outcomes, not modelled estimates.

Sales ops
B2B SaaS · 200+ emp

Lead enrichment + CRM hygiene workflow on n8n

n8n triggers on new lead in Salesforce. Claude Sonnet 4.6 enriches from web sources, runs an ICP scoring rubric against the company profile, returns structured fields with a confidence score. High-confidence routes auto-write to Salesforce; low-confidence routes to a human queue with the model's draft attached. Langfuse instruments every LLM call; per-rep cost capped at $0.40/day.

0 %
SDR research time
AP automation
Mfg · 400+ emp

Invoice routing + 3-way match on Temporal

Inbound invoice arrives via email — GPT-5 Vision extracts header and line items to a Pydantic schema. Temporal workflow matches against open POs and receipts in NetSuite. High-confidence three-way matches auto-approve under the threshold; everything else routes to the AP lead with an annotated diff in Slack. Replaced a Blue Prism estate that broke twice a month on layout changes.

0
AP cycle time: 6 days →
Engineering
Dev tools SaaS · 60 eng

PR triage + changelog generation on Inngest

GitHub webhook into an Inngest workflow. Claude classifies the PR (feature / fix / chore / breaking) against the diff and the linked issues. Workflow tags the PR, requests appropriate reviewers, drafts a changelog entry. Drafts gate on a human approver before merge — the workflow doesn't ship anything customer-facing without an engineer's nod.

0 %
PR triage overhead
Pre-authorisation
Health-tech · payer-side, 250-emp

Prior-auth intake on n8n with HIPAA isolation

Faxed prior-auth requests land in a HIPAA-aligned email mailbox — n8n triggers on receipt. A self-hosted Llama 4 70B (no PHI leaves the VPC) extracts the clinical request, matches against the payer's policy library via grounded retrieval, and drafts a coverage determination with citations. Clinical reviewer signs off in 3 minutes instead of 18; clear-cut approvals route directly to the claims system.

Avg review time: 18m → 3m, 0 PHI leaks
Compliance ops
Fin-tech · 800-emp

Regulatory Q&A workflow on Make + Pinecone

Compliance team submits a question through a Slack form. Make orchestrates a grounded retrieval over a 2,400-document regulatory corpus indexed in Pinecone; Claude Sonnet 4.6 drafts an answer with mandatory citations. Drafts route to a senior compliance officer for sign-off before they go back to the requester. Average response time fell from 2 business days to 40 minutes.

0 %
2 days → 40m response, cited
014 / CONSULTING

AI automation consulting — when to engage before building.

About a third of our P4 work doesn't start with a build at all — it starts with a 1–3 week advisory engagement that outputs a prioritised roadmap. Four standard shapes below.

The pattern: a client has an automation estate (n8n flows, RPA bots, manual SOPs, half-shipped Zaps) that's grown organically over 2–4 years. Nobody owns the whole estate. Some workflows are quietly business-critical; others were shipped for a single problem that no longer exists. Before we agree to build anything new, we audit what's there. The advisory engagement outputs a workflow-by-workflow scorecard, a tool-stack recommendation, and a sequenced roadmap with budget bands. Some clients run the build with us afterwards; some take the roadmap to an internal team. Either is fine — we charge for the advisory whether the build follows or not. The honest version of ai automation consulting services means saying "don't build this" when the audit says so. Intelligent automation services done well include the courage to recommend less automation, not more.

For clients shopping by tool — workflow automation consulting for an existing n8n estate, ai workflow automation services for a new build, or specifically an agentic workflow automation engagement for a long-running multi-agent orchestration — the four shapes below absorb each of those framings. We don't define the engagement by the buzzword the client found on Google; we define it by the shape of the work after week one of discovery. Most clients shopping for one shape end up scoping a different one once the audit lands.

01

Automation portfolio audit

2-week engagement: trace the existing automation estate (RPA bots, Zaps, n8n flows, manual SOPs), score each by ROI and brittleness, output a prioritised AI-automation roadmap. The default ai automation consulting service for clients with sprawl.

02

Tool selection memo

1-week head-to-head: orchestrator pick (n8n / Make / Temporal / Inngest) against the actual workload shape, cost model over 12 months, ops capacity assessment. Useful before procurement signs anything.

03

RPA modernisation strategy

3-week deep-dive on an existing UiPath, Automation Anywhere, or Blue Prism estate: bot-by-bot triage, migration-vs-keep-vs-kill recommendations, phased modernisation plan with risk and budget bands.

04

AI workflow eval design

2-week engagement building the eval methodology before any workflow build: what counts as judgment accuracy on your workload, how to ground-truth the eval set, who in your org grades. The hardest part of any ai workflow automation services engagement — and the thing competitors skip.

Cross-discipline strategic work — when AI automation is one part of a broader AI initiative spanning agent development, custom LLM applications, or grounded retrieval pipelines — runs through our consulting practice. The four shapes above are scoped to the workflow / automation surface specifically.

015 / ENGAGE

Four engagement shapes — Pilot, Build, Migrate, Scale.

01 Workflow Pilot Fixed scope
2–4 weeks

Pilot one workflow, trigger to settle.

In scope
  • One workflow, real integrations
  • Eval cases for LLM-judgment steps
  • Dry-run mode with action queue
  • Demo + go/no-go memo
Out of scope
  • Live actions enabled
  • Multi-workflow orchestration
  • Long-running durable shapes
02 Production Build Fixed scope
6–12 weeks

Multi-workflow system.

In scope
  • All Pilot deliverables
  • Multi-workflow orchestration
  • Live actions with rollback
  • Auth, rate limits, error routing
  • Observability via Langfuse + OTel
  • Four weeks of post-launch iteration
03 RPA → AI Migration Fixed scope
8–14 weeks

Replace fragile rule-based RPA.

In scope
  • Bot-by-bot migration plan
  • Eval-validated cutover
  • Old bots stay live until parity proven
  • New workflows on n8n / Temporal
  • Documentation + ops handover
04 Workflow Scale-up Fixed scope
4–8 weeks

Take what works and 10× it.

In scope
  • Existing-workflow audit
  • Self-hosting / multi-tenant migration
  • Cost + reliability engineering
  • Ops + on-call setup
016 / FAQ

Common ai workflow automation questions.

n8n vs Make vs Temporal — how do you pick the orchestrator?

Three questions decide it. One: who owns the runtime — engineers or an ops team? Engineers gravitate to n8n (self-host, code nodes, version control) or Temporal (code-first, type-safe, durable). Ops teams ship more on Make's visual canvas. Two: is the data regulated? If yes, n8n self-hosted or Temporal on your cloud. Make and Zapier are SaaS-only. Three: how long does a single workflow run? Sub-minute linear flows fit anywhere; multi-day workflows with retries and sagas want Temporal's durability.

Defaults we ship in 2026: ops-team-owned mid-market with under ~500k ops/month — Make. Engineering-owned with self-host or regulated data — n8n. Enterprise with long-running durable processes (claims, multi-day approval chains, agentic workflows) — Temporal, almost always wrapped around LangGraph for the agentic step. The full break-even math lives in our orchestrator picking guide. Most real estates end up with two of these tools in production for different workloads, not one.

Why use an LLM in a workflow at all? Aren't deterministic rules cheaper?

Rules are cheaper when the input is structured and stable. The moment you need to read free text, classify intent against a fuzzy taxonomy, extract a field from a layout the source team changes monthly, or handle the long tail of edge cases the rules engine can't cover, rules become a maintenance fire. The LLM judgment lives in those specific steps — the workflow engine still handles the deterministic actions around it. That's the LLM-in-the-loop pattern.

The economics flip on the maintenance side, not the inference side. We've watched clients pay engineers to babysit 40 fragile regex rules for invoice extraction; replacing the regex layer with a single Claude call that returns a Pydantic-validated schema dropped both the bug rate and the engineering hours, even though the per-run cost went up by a few cents. The cost-per-run is the visible number; the cost-of-maintenance is the one that matters. Our LLM-in-the-loop patterns piece covers when to add judgment versus keep rules deterministic, with the failure-mode comparison.

One opinionated take: don't add an LLM to a workflow that doesn't need judgment. We turn down about one in eight automation engagements because the workload is genuinely deterministic and adding AI is engineering theatre.

How do you stop a workflow from taking a wrong action?

Four layers, applied per workflow based on the blast-radius assessment.

  1. Dry-run mode before live. Every workflow ships in dry-run for at least one production-traffic week. The workflow runs against real inputs and writes its proposed actions to a queue instead of executing them. We diff dry-run output against an expert-graded sample; live actions enable only when the diff rate is below threshold.
  2. Confidence-routed human gate on judgment-heavy actions. The LLM emits a confidence score; below the threshold (calibrated during the eval phase), the workflow drops a draft into Slack or a queue with the rationale attached. Human approves, edits, or rejects. Routing thresholds are tuned to your false-positive budget.
  3. Mandatory human-in-the-loop on irreversible actions. Sending money, deleting records, publishing customer-facing content, closing tickets — these don't get auto-actions, period. The workflow drafts; a human commits. Architectural choice, not a configuration.
  4. Full action log with one-click rollback for reversible actions. Every workflow run is fully traced in Langfuse with the action payload. For reversible writes (CRM updates, ticket reassignments, Slack DMs), there's a rollback action in the runbook keyed off the trace ID.

Every Production Build engagement comes with a documented blast-radius assessment in the SOW that decides which layers apply where. We won't ship a workflow that doesn't have one.

How do you prevent runaway costs on AI automation services?

Per-run budget caps, model routing, prompt caching, batch API, and dry-run-first economics. Per-run budgets are hard — the workflow refuses to execute the LLM call if the input is bigger than expected, rather than silently emit a $4 response when the budget says $0.05. Model routing sends easy classifications to GPT-5 mini or Claude Haiku 4.5; only the genuinely hard judgment goes to Sonnet 4.6 or GPT-5. We've seen routing alone cut the LLM bill 40–70% on production workflows.

Prompt caching on stable system prompts kills another 60–85% of cached-token cost — workflows tend to re-use the same orchestration prompt across runs, which is the ideal cache shape. Batch APIs apply to non-interactive workloads: AP reconciliation overnight, marketing draft generation in scheduled bursts, doc enrichment pipelines. Batch usually runs at 50% off list price.

The cost lives in the modelling, though. Every Pilot we ship has a cost model in week 2 using the actual expected traffic shape, not a vendor's marketing average. We size the per-workflow cost ledger before we ship a single live action, and the alarm threshold is set at 25% drift over two weeks. When clients tell us their previous vendor "surprised them with a bill," the consistent story is no cost modelling and no production cost ledger. Both are 2-day engineering tasks. There's no reason to ship without them.

Can you replace our existing UiPath, Automation Anywhere, or Blue Prism estate?

Yes — RPA → AI Migration is the dedicated engagement shape for this. Typical scope is 8–14 weeks for a defined slice (~6–12 bots), and the pattern is migrate-bot-by-bot with the old bots staying live until parity is proven. We don't do big-bang cutovers on RPA estates because the failure modes are too expensive to roll back from.

The migration sequence: audit the existing estate (which bots run, what they touch, how often they break), score each by ROI and brittleness, pick the migration order by risk-adjusted ROI, build the new workflow alongside, prove parity on a 2-week dry-run, then cut over. Old bot stays running in parallel for 1–2 weeks post-cutover as the rollback option. We've found about 1 in 5 bots in a typical estate aren't worth migrating — the workload is genuinely stable enough that the existing bot will keep running for years. We say that out loud; we don't migrate for the sake of it.

For clients who only want the strategy work without the build, the RPA modernisation strategy consulting engagement above outputs the prioritised plan in 3 weeks with no commitment to the build. About half our migration work starts with the strategy engagement first.

Self-hosted or managed? Where does the workflow runtime live?

Depends on three things: data residency, ops capacity, and the licence math at your volume. Self-hosted n8n or Temporal on your AWS / GCP / Azure when you have regulated data (HIPAA PHI, financial MNPI, EU AI Act high-risk workloads) or when steady-state ops volume above ~500k runs/month makes the per-run pricing on a hosted plan painful. Managed (Make, Zapier, n8n Cloud, Temporal Cloud) when the data isn't regulated and the engineering team would rather not run another service.

In our experience, the right answer almost always tracks the regulatory question first, the ops-capacity question second, and the price question third. Teams self-host for control of regulated data and accept the operational tax; teams that don't have regulatory pressure rarely benefit from self-hosting once you cost out the ops time. We've shipped both shapes; the choice follows the data rules and the ops capacity, not preference. The full break-even math by orchestrator lives in the orchestrator pick guide.

What's an agentic workflow, and when does it beat a regular workflow?

An agentic workflow is one where the path through the graph is decided by an LLM at runtime, not by a static DAG. The workflow asks the LLM "what's the next step?" at one or more decision nodes; the LLM picks from a set of tools or branches. It composes with classical workflow primitives — the orchestrator (usually Temporal) handles durability, retries, and checkpointing; an inner agent (usually LangGraph) handles the dynamic path-finding.

Agentic workflow automation wins when the work has too many branches to enumerate in advance — claim adjudication where the path through the rules depends on document content, customer support where the resolution depends on the customer's history and the issue category, sales-research where the next data source depends on what the previous one returned. Pure DAG orchestration starts to thrash when branch count crosses ~20 in our experience.

It loses on cost and observability — every agent decision is an LLM call, and traces are harder to read than a linear workflow run. Default to deterministic workflow shapes first; reach for agentic only when the branch count justifies it. The agentic patterns we ship are detailed in our agent development practice; this pillar focuses on the workflow side and treats the agent as an inner component.

What's a realistic budget and timeline for an ai automation services engagement?

Four engagement shapes, fixed scope, fixed duration. Rough order of magnitude on each:

  • Workflow Pilot (2–4 weeks): small enough to stop after the pilot if the eval shows the workload isn't a fit. About 1 in 5 pilots end at pilot because the workload turned out to be genuinely deterministic (better served by an off-the-shelf Zap), or because the eval surface wasn't measurable enough to ship safely. Pilots cost less than a single quarter of a senior engineer's salary, and that's the threshold most clients use to decide.
  • Production Build (6–12 weeks): the bulk of our ai automation services revenue, including the four-week post-launch iteration. Multi-workflow orchestration with auth, observability, error handling, and rollback paths baked in.
  • RPA → AI Migration (8–14 weeks): one defined slice of a legacy estate (~6–12 bots typically). Includes the parallel-run period and the documentation handover.
  • Workflow Scale-up (4–8 weeks): existing n8n or Make estate, hardened for self-host, multi-tenant, ops handover. Usually triggered when an internal workflow practice has outgrown the ops capacity.

For ai automation consulting (audit, tool selection, RPA modernisation strategy, eval design), 1–3 week engagements at flat fees. Strategic cross-service work — when AI automation is one part of a broader AI initiative — runs through our consulting practice.

018 / Start a project

Find an ai automation agency that ships workflows that actually adapt.

Pilot in 2–4 weeks. Build in 6–12. RPA migration in 8–14.