Service · Cloud

Backends that scale to zero and bill only when they run.

An event arrives, code fires, work gets done, and the bill stops the moment it goes idle. No fleet to patch, no capacity to guess. We build it in your own cloud — AWS, Azure, or Google Cloud — and when serverless is the wrong tool, we'll tell you.

Scale to zero Pay per execution Steady state in 4–8 weeks

Event-driven · scales to zero

TRIGGERS

HTTP QUEUE SCHEDULE
ƒ  FUNCTION ×N on demand

MANAGED STATE

DB STORAGE EVENTS
Cost when idle$0

The real problem

Why pay for servers that sit idle most of the day?

Most backends are sized for their busiest minute and billed for every minute they aren't. A fleet provisioned for the lunch rush or Black Friday runs — and bills — flat through the 3 a.m. lull, while someone still patches the OS and gets paged when a node falls over.

Serverless inverts that: you write the function, the platform runs and scales it on demand, and you pay per execution — to zero when nothing is happening. The catch is that this only pays off for the right shape of workload. Getting the fit right is the entire engineering problem.

$0

The bill when nothing runs — the platform scales your functions on demand, and you pay per execution instead of for an idle fleet.

Scale-to-zero · the core mechanism

65%

Of AWS customers already run on Lambda — serverless is mainstream backend, not an experiment.

Datadog, Aug 2023 ↗

Where it pays off

Where serverless actually earns its place — and what each pattern delivers.

It's a model that pays off in specific workload shapes: bursty, event-driven, or idle-heavy work where paying per execution beats an idle fleet. (Examples are illustrative, not client results.)

01

Spiky, event-driven APIs & backends

Functions behind a gateway, scaling instantly from zero to a flood and back. Absorb spikes, pay nothing idle.

A campaign API idle for weeks then taking 50,000 hits in an hour scales up and bills only for that hour — not a cluster sized for a twice-a-year peak.

02

Stream & file processing pipelines

A function fires on every new record, upload, or message, fanning out to thousands of parallel runs when volume surges. Throughput scales with the data.

A document upload triggers a function that makes the thumbnail and extracts the text in seconds — a thousand at once in a busy hour, nothing overnight.

03

Scheduled jobs & IT automation

Replaces always-on cron boxes with functions that fire on a schedule or event — backups, reports, provisioning, cleanup. Routine ops, no server to maintain.

A nightly reconciliation that needed a dedicated VM now runs as a scheduled function for cents a month; a provisioning task that took hours runs in minutes.

04

Webhook & integration handlers

Receives webhooks from third-party systems and routes, transforms, or acts on them through functions wired to your systems of record. Stand up fast, scale on their own.

A payment webhook fires a function that updates the order and notifies fulfillment instantly — an endpoint that costs nothing between events and absorbs a launch-day surge.

05

Real-time notifications & fan-out

Reacts to an event — an order, a status change, a threshold breach — and fans out notifications and downstream actions in parallel. Immediate, scales with volume.

An inventory threshold trips and a function alerts the buyer, updates the storefront, and opens a reorder at once — only when it's actually hit.

06

Managed backends for web & mobile

Assembles a backend from managed building blocks — functions, database, object storage, hosted auth — so a product ships with no server tier. Faster launch, lower ops load.

A new mobile app launches on a serverless backend that scales with sign-ups from day one — the team ships the product instead of hardening servers first.

Vendor-published & independent findings · revisit quarterly

What serverless does to those processes — the measured impact.

Independent and vendor-published findings on the technology, cited as third-party evidence — never Silicon Prime's own client results.

50%+

Event-driven data processing. Cost reduction at FINRA, running half a trillion validations across 37 billion market events daily on AWS Lambda.

AWS, FINRA case study ↗

~98%

IT automation. Autodesk cost savings on account provisioning (factoring labor), cutting it from 10 hours to 10 minutes with Lambda.

AWS, Autodesk case study ↗

18×

Scale-to-zero elasticity. Toyota Connected scaled to 18× usual traffic (18B transactions/month) and cut aggregation jobs to 1/40th of 15+ hours, paying only for what it consumed.

AWS, Toyota Connected case study ↗

Bursty vs sustained Modeled

Serverless pays when work is bursty — and costs more at sustained throughput. So we model per-invocation cost against an always-on baseline before we build, and document the crossover where a container wins.

What's included

What serverless application development covers.

The scope below is the difference between serverless that's cheap and fast and a function sprawl that's slower and more expensive than the server it replaced.

01

Fit assessment & workload shaping

We decide what actually belongs on serverless — bursty, idle-heavy work fits; sustained high-throughput and sub-10ms floors usually don't. We model per-invocation cost against an always-on baseline, with the honest "don't make this serverless" call included.

02

Event-driven architecture & FaaS design

We design the event flow — sources, the functions that react, and the managed services that hold state — so the system is loosely coupled and each piece scales on its own. Functions stay stateless; state lives in managed stores.

03

Managed backends & integration (BaaS)

We assemble the backend from managed building blocks — functions plus a managed database, object storage, hosted auth, queues, and event buses — wired through your access controls, with no server tier to provision or patch.

04

Cold-start, performance & cost engineering

We engineer the parts that bite: cold-start latency (provisioned concurrency, runtime and memory tuning), concurrency limits, and the per-invocation cost model — so the system meets both its latency and cost targets, crossover point known.

05

Security, IAM & observability

Each function runs under least-privilege, scoped permissions; secrets are managed, not embedded; and the event flow is instrumented with distributed tracing so a request is followable across functions and services.

06

Infrastructure-as-code & enablement

The entire application is defined as code (SAM, Serverless Framework, Terraform, or CDK) so it's reproducible and reviewable, ships behind a staged rollout, and your team is trained to deploy functions and read the traces and cost dashboards.

What you get — all assigned to you under full work-for-hire IP transfer

A working serverless application in your own cloud account
The complete infrastructure-as-code repository
The event-driven architecture and function code
A cost model with the always-on crossover documented
Cold-start, concurrency & per-function cost dashboards
Runbooks and a trained team

How it runs

How a serverless engagement runs.

The same delivery model behind all our engineering work, tuned for serverless — one accountable lead, fixed scope, no handoffs.

STEP 01

Assess

Map the workloads, model per-invocation cost against an always-on baseline, and decide what belongs on functions and what doesn't.

Output: a fit verdict, target architecture & metrics

STEP 02

Design

Design the event flow, the functions, the managed-service backing, and the cold-start and concurrency strategy — reviewable before code.

Output: an architecture & a cost model with the crossover

STEP 03

Build

Develop the functions and wire the event sources and managed services in your own cloud account, defined entirely as IaC, with scoped IAM and tracing in place.

Output: a working app behind your access controls

STEP 04

Operate & enable

Staged rollout, then production, with per-function cost and cold-start latency watched against kickoff targets, and your team trained to deploy and extend it.

Output: a production system & a team that owns it

Straight talk

The record behind a system you put real load on.

We won't claim a serverless case study we don't have — so here is the genuinely relevant record, labeled for what it is. The closest fit is an event-and-integration-heavy marketplace backend — the exact workload pattern serverless exists to carry, even though we built it before serverless was the default.

We'll tell you plainly when a workload doesn't belong on serverless — which a firm paid by the function won't.

Silicon Prime is a Stanford-rooted Responsible AI and engineering lab, founded 2011, run by founder Kelvin Tran — 20+ years of production engineering, personally accountable for every engagement.

The public record

The relevant record — labeled for what it is.

Closest fit · event-driven at scale

YardClub

A contractor-to-contractor equipment marketplace we built end to end — listings, payments, and the transaction infrastructure underneath. An event-and-integration-heavy backend, exactly the workload pattern serverless is built for. Processed $120M+ and was acquired by Caterpillar in 2017. Built before serverless was the default — cited for the architecture pattern, not as a from-scratch serverless engagement.

TechCrunch ↗

Why build serverless with us.

01

We tell you when serverless is the wrong answer. The expensive mistake is forcing a sustained, high-throughput workload onto functions and paying more for worse latency. A container or managed instance is a recommendation we'll make and defend, not a fee we avoid.

02

Cost and cold-start engineered, not assumed. We model the per-invocation economics and cold-start latency before building and document the crossover where always-on wins — so the bill and the latency are forecasts you've already seen.

03

Founder-led, one accountable lead. No account managers, no handoffs — the engineer who designs the architecture answers for how it runs in production.

04

Built to transfer, whole-stack in-house. Functions, IaC, the cost model, and code are assigned to you under full work-for-hire IP, and your team is trained to run them. Because serverless sits on a cloud foundation and needs a secure delivery path, we run all of it — so the system isn't stranded between vendors.

Where it lands first

Where serverless earns its keep first.

Questions buyers ask before they build.

Is serverless actually cheaper, or does it just move the cost? +
It depends entirely on the workload, and we model it before we build. For bursty, event-driven, or idle-heavy work, paying per execution to zero when idle is dramatically cheaper than an always-on fleet — Toyota Connected scaled to 18× traffic paying only for what it consumed (AWS, re:Invent 2020). But at sustained high throughput, per-invocation pricing crosses over and an always-on container becomes cheaper. We calculate that crossover for your traffic and put the right workloads on each.
When is serverless the wrong choice? +
When the workload is steady and high-volume (the per-invocation bill overtakes an always-on instance), when jobs run longer than the platform's execution limit, when you need a hard sub-10ms latency floor (cold starts get in the way), or when heavy in-memory state makes statelessness awkward. We'll say so plainly and put those pieces on a container or managed instance instead — often a hybrid, with the bursty edges on functions and the steady core always-on.
What about cold starts — won't the first request be slow? +
Cold starts are real but engineerable. We tune runtime, memory, and dependencies to shrink them, use provisioned or pre-warmed concurrency where a latency floor demands it, and keep functions lean. For most event-driven and asynchronous work the effect is negligible; for latency-critical synchronous paths we either engineer it down to target or recommend an always-on path for that piece. Either way it's a measured decision, not a surprise in production.
Can you migrate our existing application to serverless? +
Yes, and we do it incrementally rather than as a risky big-bang rewrite. We first map which components are genuinely serverless-fit — event-driven, bursty, or idle-heavy — and move those first, leaving steady or stateful pieces where they run best. AWS's own migration guidance favors this strangler-style, low-risk-component-first path. A lift-and-shift gets a workload onto managed services fast; refactoring into functions earns the full cost-and-scale payoff. We scope the sequence to your risk tolerance and keep the application running throughout, so there's no cutover weekend where everything moves at once.
Won't we get locked into one cloud's serverless platform? +
There's a real lock-in trade-off and we manage it deliberately. Functions wired directly to one cloud's proprietary event services are fastest to build but hardest to move; abstracting behind portable interfaces and open frameworks (Serverless Framework, container-based functions) costs a little up front and keeps you portable. We pick the level of portability with you based on how likely a move is — and document the proprietary dependencies either way, so the lock-in is a known, deliberate trade.
How do you handle security across a sprawl of functions? +
Each function runs under least-privilege, scoped IAM — its own narrow set of permissions, nothing more — secrets are managed rather than embedded, and the event flow is instrumented with distributed tracing so a request is followable across every function and service. Security scanning and policy gates sit in each deployment through our DevSecOps practice, and every engagement starts with an NDA and a security review. The function-level permission boundary is actually one of serverless's security advantages — done right.
Who owns the application when you're done? +
IP ownership is defined in each engagement's contract, and our standard terms assign the deliverables to you — the functions, infrastructure-as-code, event-driven architecture, cost model, and code — with your team trained to deploy, monitor, and extend them. We scope exactly what transfers before kickoff, so nothing is ambiguous. Keep us on a reduced retainer or take the keys; the IaC repository is the application — there's no black-box environment only we can touch.
What does it cost and how long does it take? +
Most engagements reach production in 4–8 weeks under a fixed-scope agreement with one accountable lead. Build cost depends on scope — our development cost guide gives real ranges — and the ongoing run cost is per-invocation economics we model before building (including the always-on crossover), so the first cloud invoice is a forecast you've already seen rather than a surprise.

Thirty minutes · no pitch deck

Ready to stop paying for idle servers — where that makes sense?

Bring the workload and the bill it's running up. We'll tell you honestly which pieces belong on serverless, which belong on something always-on, what it takes to build, and what it costs to run.