How to handle 100Mpps+ DDoS traffic without exhausting your infrastructure
Handling 100Mpps+ requires an architecture designed for packet rate, not only for Gbps: early detection, upstream relief, fast filtering and clean traffic delivery.
Handling 100Mpps+ requires an architecture designed for packet rate, not only for Gbps: early detection, upstream relief, fast filtering and clean traffic delivery.
A firewall or server can collapse under 100Mpps even when bandwidth is not fully used.
The closer the drop happens to the network edge, the less CPU, memory and queue pressure the attack creates.
The useful result is a reachable service, not only a prettier blocked-traffic chart.
Handling 100Mpps+ is not the same challenge as absorbing a few dozen Gbps. At that rate, every packet consumes parsing time, queue space, lookup capacity and sometimes state. The first limit may be a firewall, a virtual router, a NIC queue or a CPU core long before a headline bandwidth number is reached.
For hosting providers, dedicated servers, BGP networks and gaming services, high packet rate can be more destructive than a simple bandwidth flood. A credible Anti-DDoS architecture combines upstream relief, precise rules, early stateless filtering, automated thresholds and clean delivery back to production.
Peeryx helps position mitigation before the bottleneck: protected IP transit, tunnel, cross-connect, dedicated server or gaming proxy depending on the service.
A 100Mpps+ attack sends so many packets that the limiting factor is no longer just bandwidth. The weak point can be interrupts, rule evaluation, counters, state tables or packet parsing per second.
A 100G link may still have apparent headroom while a firewall, router VM or Linux stack already drops legitimate packets. This is why bandwidth-only DDoS planning creates a dangerous false sense of safety.
When a service fails under high PPS, users do not see a “complex attack”. They see an offline application, an unplayable game server, timeouts or support overload.
High PPS also increases false-positive risk. Under pressure, many teams apply broad emergency blocks that save the platform but break legitimate UDP, TCP sessions or latency-sensitive flows.
Selling protected IP transit, Anti-DDoS dedicated servers or gaming protection requires proving that the design understands real packet-rate limits, not only Tbps marketing.
Another key point is capacity planning during normal operation. An Anti-DDoS architecture must not only absorb attack peaks; it must also keep enough margin so legitimate users do not suffer queues, packet loss or unstable routes during mitigation.
The first answer is upstream filtering: reduce packet noise before it reaches the customer port or server. This can involve FlowSpec, network ACLs, scrubbing capacity or protected transit.
The second layer is fast local filtering: XDP, eBPF, DPDK, VPP or specialized appliances depending on the environment. The hot path should stay simple, measurable and as stateless as possible.
Finally, delivery matters. GRE, IPIP, VXLAN, cross-connect or router VM must be sized for the remaining clean traffic with predictable latency.
Reduce PPS before the customer receives the flood.
Avoid state, expensive logs and unnecessary parsing on the hot path.
Return useful traffic through the delivery model that fits the topology.
Peeryx aims to reduce attack traffic before it reaches customer production. The goal is to cut packet pressure and then deliver useful traffic through a clear handoff model.
Depending on the topology, delivery can be protected IP transit with BGP, tunnel, cross-connect or a gaming reverse proxy. The right choice depends on ASN control, service type, latency target and operational expectations.
For heavily exposed profiles, the design discussion should include PPS thresholds, Gbps thresholds, critical ports, UDP/TCP behavior and return-path constraints.
A game server can receive a flood of tiny UDP packets that quickly exceeds 100Mpps. Bandwidth may not look extraordinary, but players experience lag, disconnects and connection errors.
A correct response filters impossible packets, limits abnormal sources, reduces noise upstream and delivers only coherent traffic to the server or proxy. The goal is to preserve legitimate gameplay, not to block UDP globally.
The first mistake is sizing only in Gbps. The second is allowing a stateful firewall to see the full flood before mitigation. The third is assuming a powerful server will compensate for bad topology.
Another mistake is confusing mitigation charts with real quality. If clean traffic returns with heavy jitter or false positives, the protection does not meet the business need.
Peeryx focuses on infrastructures that must stay reachable under attack: protected IP transit, dedicated servers, BGP networks and game services.
The value is a technical discussion before the incident: where to filter, how to deliver, which thresholds to use and how to avoid breaking legitimate traffic.
For SEO and conversion, this precision matters because a technical buyer looks for concrete answers: traffic entry, clean traffic exit, reaction time, false-positive risk and operational responsibility. The clearer the page is, the more confidence it gives a prospect comparing providers.
Protection acts before the server through protected IP transit, tunnel or cross-connect.
UDP, FiveM, Minecraft and latency constraints are not treated like generic web traffic.
The customer knows where traffic enters, where filtering happens and how clean traffic returns.
These resources connect the 100Mpps+ topic with concrete offers: transit, dedicated server and gaming reverse proxy.
Frequent questions before sizing high-PPS protection.
No. Small packets can create enormous packet rate with moderate bandwidth.
Not safely. Placement and upstream reduction matter more than raw server strength.
Often yes, because UDP, latency and jitter make false positives immediately visible.
Yes. GRE, IPIP, VXLAN, cross-connect or another model can be selected depending on topology.
Handling 100Mpps+ requires understanding packet rate, CPU cost, early filtering and clean delivery. A large capacity number alone is not a defense.
The right model protects the service before saturation, limits false positives and keeps operations readable during the attack.
Peeryx can help you choose the right mitigation model: protected IP transit, dedicated server, tunnel, cross-connect or gaming reverse proxy depending on real exposure.