Accelerate your distributed workloads across Brazil and LATAM. Deploy V8 isolates, Redis edge state, and Anycast ingress connected directly to the SP4 and Tamboré high-density carrier neutral corridors.
Direct metro cross-connects with Brazil's largest eyeball networks.
Direct paths via Monet, Seabras-1, Junior, and Tannat systems.
Integrated directly with IX.br (PTT Metro) and regional carriers.
Instant WebAssembly/V8 execution without pre-warming delays.
Direct low-latency optical interconnects uniting São Paulo metro peering (IX.br) with ultra-high-capacity transcontinental fiber pipelines to North America and Europe.
Barueri Datacenter Cluster
Directly cross-connected with IX.br (PTT.br São Paulo) — the world's largest Internet Exchange by peak traffic and peering density. Sub-millisecond transit across all Tier-1 Brazilian ISPs.
Eliminate cross-hemisphere round trips. Execute business logic, route layer-4/layer-7 traffic, and batch incoming telemetry directly within South American carrier cross-connects.
Run isolated microservices with sub-millisecond cold starts right at the GRU-01 core. Perfect for auth verification, payload translation, dynamic A/B routing, and SSR edge rendering.
Deliver static and dynamic payloads across LATAM with sub-millisecond edge cache hits. Shield your origin servers from burst spikes through localized tiered storage rings.
Direct incoming traffic to the topologically closest healthy origin. Automated health probes identify upstream brownouts and re-route packets across subsea links with zero dropped TCP connections.
Ingest massive volumes of IoT telemetry, user analytics, and transactional audit trails. Filter, validate, and batch stream data at the São Paulo edge before passing to central analytical stores.
We support private optical cross-connects (BGP peerings) directly into your colocation racks in Barueri and Tamboré.
Sub-second observability into GRU-01 edge line-cards, transit routes, autonomous system route shifts, and fiber packet metrics.
Aggregate Port Optic Load (Dual 400GbE QSFP-DD)
Neutralize volumetric attacks directly at the São Paulo peering edge while ensuring absolute compliance with Brazilian data residency and cryptographic isolation laws.
Proprietary eBPF and XDP packet-filtering kernels scrub SYN floods, UDP amplification, DNS reflectors, and GRE floods directly in the network card silicon before hitting application compute memory.
Programmable rules engine evaluated right on the V8 edge boundary. Block SQL injection, cross-site scripting, zero-day CVEs, and malicious scraping bots with continuous signature updates.
Secure intra-cluster backhaul and remote developer access without exposing public IP addresses. Strict identity enforcement via cryptographic client certificates and enterprise OIDC/SAML.
Guaranteed in-country payload retention. Keep sensitive user telemetry, PIX payment tokens, and CPF identifiers within Brazilian sovereign borders with geo-fenced key management.
Write standard TypeScript, Rust, or Go. Deploy via zero-config CLI or automate entire multi-region meshes with Terraform infrastructure-as-code.
Use local V8 sandbox with hot reloading and low-latency KV emulation.
WASM & bytecode bundle distributes to GRU-01 and 280+ nodes in 220ms.
Anycast routes traffic to updated microservice instances instantly.
import { EdgeHandler, Response, KV } from "@synapse/runtime";
// Direct IX.br low-latency geolocation router & auth validator
export default new EdgeHandler({
region: "gru-01",
compliance: "lgpd-strict",
async fetch(request, env) {
const clientCity = request.geo.city || "Sao Paulo";
const latencyBudget = request.headers.get("x-max-rtt-ms");
// In-memory sub-millisecond edge KV read at GRU POP
const cachedToken = await env.EDGE_CACHE.get(request.headers.get("authorization"));
if (!cachedToken) {
return new Response("Unauthorized at edge", { status: 401 });
}
return Response.json({
status: "ok",
servedBy: "gru-01.br",
metro: clientCity,
localLatency: "< 1ms"
});
}
});terraform {
required_providers {
synapse = {
source = "synapse-edge/synapse"
version = "~> 2.4.0"
}
}
}
# Provision Edge Worker pinned directly to Sao Paulo and Regional IXs
resource "synapse_edge_service" "fintech_api" {
name = "pix-payments-ingress"
entrypoint = "./dist/index.wasm"
primary_pop = "gru-01"
routing_policy {
anycast_failover = true
sp_ix_peering = true
target_pops = ["gru-01", "gig-01", "eze-01"]
}
ddos_mitigation_tier = "terabit_autonomous"
lgpd_isolation_zone = "br-sovereign-only"
}# 1. Initialize project with TypeScript & WASM isolate template
$ syn init payments-edge --template ts-v8
[INFO] Created payments-edge with low-latency GRU defaults.
# 2. Test locally against the IX.br simulated loopback network
$ syn dev --port 3000 --mock-pop gru-01
✔ Local runtime running at http://127.0.0.1:3000 (RTT: 0.4ms)
# 3. Deploy instantly to production across Latin American mesh
$ syn deploy --target gru --prod
[BUILD] Optimized bundle: 28.4 KB (zstd)
✔ Dispatched to GRU-01 (Barueri, SP) in 188ms
✔ Propagated to GIG-01 and EZE-01 rings
Live URL: https://payments-edge.synapse.netLegacy architectures still backhaul Latin American requests to Virginia or Ohio (us-east-1), introducing 120ms+ of physical fiber delay. Here is how local São Paulo routing transforms real-world response times.
Tested from São Paulo Eyeball Networks (Claro, Vivo, TIM)
Due to the physics of TCP BBR and packet window scaling over long distances, high RTT degrades bandwidth. Terminating TCP sessions in São Paulo delivers saturated gigabit streams to mobile users.
Eliminates multi-step subsea handshakes for TLS and TCP negotiations. Assets, JSON responses, and API mutations stream in the blink of an eye.
| Eyeball Origin | Peering ASN | Legacy US-East RTT | Synapse GRU-01 RTT | Improvement Factor |
|---|---|---|---|---|
| 🇧🇷 São Paulo (Barueri / Capital) | IX.br (AS26162) | 126 ms | 0.82 ms | 153x faster |
| 🇧🇷 Belo Horizonte (Minas Gerais) | Claro / Net (AS28573) | 138 ms | 8.10 ms | 17x faster |
| 🇧🇷 Curitiba / Porto Alegre (South) | Vivo Mobile (AS26599) | 145 ms | 11.4 ms | 12.7x faster |
| 🇦🇷 Buenos Aires (Metropolitana) | Telecom Argentina (AS7303) | 172 ms | 21.8 ms | 7.8x faster |
| 🇨🇱 Santiago (Región Metropolitana) | Entel Chile (AS6429) | 189 ms | 33.2 ms | 5.6x faster |
Whether you need custom BGP route announcement testing, direct optical cross-connects at SP4/Tamboré, or an isolated proof of concept for LGPD-regulated workloads, our network engineering team is ready to assist.
Speak directly with a LATAM solutions architect.