High-Performance Networking

Move network traffic at the speed your business needs.

I help telecom and technology companies build fast, reliable network data paths — the same kind of high-throughput traffic handling used in modern mobile networks, tested from first packets on the wire to multi-lane hardware steering at 10 Gbps and beyond.

10 Gbps+
Traffic generation validated on production network hardware
14+
Hands-on tutorials and tools shipped
Hardware
Offload, traffic spreading, and flow-rule expertise

Mobile & Telecom

Fast traffic handling where mobile networks need it most

Modern 4G and 5G networks move enormous volumes of subscriber traffic through the user plane — at the network edge, in the core, and inside virtualized services on standard servers. Every millisecond and every CPU cycle counts.

Why standard networking can fall short

Mobile user-plane workloads — tunneling, encryption, quality-of-service marking, inspection, and forwarding at gateways and routers — must sustain millions of packets per second with predictable latency. A traditional operating-system networking stack adds overhead that makes consistent high-speed processing difficult on commodity hardware.

A better approach for 4G and 5G

Specialized high-performance networking bypasses the usual bottlenecks and talks to network cards directly from application space. It is widely used in cloud and virtualized telco deployments for high-throughput user-plane functions, load balancers, session controllers, and edge gateways where packets must be received, classified, and forwarded without unnecessary per-packet delay.

How my work helps telecom teams

The open-source tools and tutorials I have built map directly to problems telecom engineers face when bringing up, validating, and scaling user-plane software on real hardware.

  • High-speed traffic generation — stress-test gateway paths before field deployment (validated at 10 Gbps on production network cards)
  • Multi-lane receive & traffic spreading — distribute subscriber flows across cores as 4G/5G throughput grows without redesigning the stack
  • Hardware flow steering — redirect, drop, or isolate traffic classes in the network card before packets reach the CPU
  • Policy-based classification — enforce subscriber or service rules on addresses and ports at speed
  • Checksum & parse offload — free CPU cycles on tunnelled and UDP-heavy user-plane traffic
  • Monitoring & packet capture — observe live counters and record traffic during integration and fault isolation
  • Split control and data paths — separate management logic from traffic handling, a common telco architecture pattern

Services

What I deliver for engineering teams

Practical networking work — not slide decks. I ship code, measure on real hardware, and leave your team with something maintainable.

High-speed application development

Custom traffic-handling applications: receive and transmit pipelines, multi-core workers, memory pools, and efficient producer/consumer designs.

Performance optimization

Throughput and latency tuning — batch sizes, queue depth, memory placement, cache-friendly packet handling, and network card statistics analysis.

Hardware offload & flow rules

Program network cards to redirect, drop, or steer traffic in hardware. Validate rules on your target hardware before production.

Traffic tools & validation

Traffic generators, capture tools, and lab harnesses to stress-test your stack at full speed with measurable, repeatable results.

Classification & filtering

Software policy lists, traffic distribution across cores, hardware-assisted packet parsing, and hybrid designs that minimize CPU per packet.

Architecture review & mentoring

Code reviews, team onboarding, monitoring integration, and split designs for separating control logic from traffic handling.

Technical depth

Built on real networking experience

My work spans the full high-performance networking stack — environment setup, device configuration, packet lifecycle management, and driver-specific behavior on production hardware.

  • Runtime setup, device APIs, memory pools, rings, access control, and telemetry
  • Intel XL710 and similar adapters — tested in lab with loopback validation
  • IPv4/UDP checksum offload and hardware-assisted header parsing
  • Receive-side traffic spreading and hash distribution verification
  • Flow rules: queue redirect, hardware drop, per-lane observability
  • Multi-process communication via shared memory between services
  • Linux environment: large memory pages, device binding, and build tooling

Typical engagements

  1. POC / spike Prove high-speed receive or transmit on your target hardware in 1–2 weeks.
  2. Feature delivery Integrate offload, filtering, or steering into an existing product.
  3. Performance rescue Find packet loss, queue bottlenecks, and fix throughput regressions.
  4. Team enablement Pair with your engineers and transfer operational knowledge.

Portfolio

Open-source tutorials & tools

A growing body of production-style examples — each demonstrates a specific networking capability with runnable code and documented test commands.

Performance

High-speed traffic generator

~10 Gbps on Intel XL710 with hardware checksum offload — validated in the lab.

Hardware

Flow-rule steering

Match rules for queue redirect and in-card drop, validated with network statistics.

Scaling

Traffic spreading & multi-lane receive

Multi-lane receive pipelines with per-core workers and hash distribution.

Security

Policy classification

Address and port-based packet classification for policy enforcement at speed.

Observability

Monitoring & packet capture

Custom monitoring callbacks and multi-lane traffic capture at high data rates.

Architecture

Split-process traffic handling

Primary and secondary processes sharing packet work via efficient ring buffers.

Full catalog: github.com/awaiskhalidawan/dpdk-tutorials

How we work

From lab setup to measurable results

01

Discover

Understand your throughput targets, network hardware, latency budget, and existing stack.

02

Prototype

Stand up a lab environment, configure network cards, and prove the critical path on real traffic.

03

Measure

Use network statistics, per-lane counters, and controlled generators to quantify behavior.

04

Deliver

Hand off documented code, build instructions, and knowledge your team can extend.

Contact

Let's talk about your networking challenge

Whether you are building a 5G user-plane service, scaling a 4G traffic function, or need a performance audit on an existing virtualized network — reach out with a short description of your use case.

Muhammad Awais Khalid

High-performance networking consultant

awais.khalid.awan@gmail.com GitHub: networking tutorials Send an inquiry