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Full-stack, one team

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ARGV

Capabilities

//Full Stack Systems

Capabilities

Engineering depth across five core disciplines

From custom PCB electronics and embedded firmware to distributed backends, cybersecurity, and cloud infrastructure — ARGV engineers unified, production-hardened systems.

Engineering Coverage

5 Domains
05Core disciplinesFull vertical engineering coverage
100%Source & schematic ownershipZero vendor lock-in delivered to client
01Unified teamSingle architectural contract across all layers
24/7Engineered for uptimeResilient systems built for mission-critical loads
Technical Domains

Five specialized disciplines, engineered as one

Each domain operates as an autonomous, high-competence engineering practice with defined outputs, strict verification gates, and full documentation.

Software

Software Engineering

Production backends, distributed data pipelines, and responsive applications engineered for deterministic performance.

Core deliverables
  • Distributed backend systems and event streaming pipelines
  • Contract-first API services and asynchronous task queues
  • Full-lifecycle observability and progressive rollouts
Technologies & Standards
Rust / Go / TypeScriptPostgreSQL & Time-series DBsKafka / NATS / RedisOpenTelemetry & Prometheus
Hardware

Hardware Engineering

Custom electronics and physical devices designed from schematic capture through multi-layer PCB layout and production bring-up.

Core deliverables
  • High-speed digital and mixed-signal PCB design
  • Thermal analysis, power distribution, and enclosure mechanicals
  • Compliance verification (EMC/EMI, FCC/CE pre-scan)
Technologies & Standards
KiCad / Altium DesignerMulti-layer High-Density PCBSignal & Power Integrity SimulationRigid-Flex & Custom Enclosures
Embedded

Embedded & IoT

Low-level firmware, hard real-time execution, and secure device fleets operating reliably at the network edge.

Core deliverables
  • Deterministic bare-metal and RTOS firmware execution
  • Secure boot, cryptographic hardware identity, and A/B updates
  • Low-power peripheral drivers and field bus integrations
Technologies & Standards
Embedded C / Embedded RustFreeRTOS / Zephyr / Embedded LinuxARM Cortex-M/A, RISC-V, ESP32CAN, Modbus, BLE, LoRaWAN, Cellular
Security

Cybersecurity

Threat modeling, cryptographic architecture, protocol audits, and defensive system hardening built directly into the engineering loop.

Core deliverables
  • Systemic threat modeling and surface area minimization
  • Cryptographic protocol verification and PKI infrastructure
  • Hardware tamper resistance and memory-safe boundary defenses
Technologies & Standards
Zero-Trust ArchitectureHardware Security Modules (HSM / TPM)Formal Verification & Protocol AuditsKernel & Container Hardening
Infrastructure

Infrastructure & Systems

Resilient cloud, bare-metal clusters, and edge networking engineered for continuous operation, high throughput, and automated recovery.

Core deliverables
  • Declarative infrastructure as code with zero-drift enforcement
  • High-availability edge networks and low-latency routing meshes
  • Automated failover, immutable deployments, and backup verification
Technologies & Standards
Terraform / OpenTofu / NixOSKubernetes & Bare-Metal NodesWireGuard / BGP / Anycast MeshesAutomated Disaster Recovery Runbooks
System Cohesion

Eliminating the seams between silicon and cloud

Traditional development fractures between hardware engineers, firmware teams, and software architects. We specify interface boundaries upfront, creating a single continuous engineering pipeline.

Cross-Cutting Security

Zero-Trust Verification across all 4 tiers

Cryptographic identity begins in the hardware silicon (HSM/TPM), attests through firmware boot stages, binds to API contracts, and enforces transport security across network meshes.

Layer 01//Physical & Silicon

Hardware & Circuitry

Custom PCB schematics, power topologies, sensor integration, and industrial enclosure packaging built for harsh operating environments.

Protocols:SPII2CUARTPCIeDifferential Pairs
Layer 02//Edge Runtime

Firmware & Microcontrollers

Bare-metal kernels, deterministic RTOS scheduling, hardware security modules, and fault-isolated driver execution on resource-constrained silicon.

Protocols:DMA BuffersHardware InterruptsSecure Element Enclaves
Layer 03//Distributed Core

Software & Cloud Services

High-throughput transactional services, streaming event backbones, resilient API boundaries, and real-time data orchestration pipelines.

Protocols:gRPC / ProtobufNATS / KafkaRESTWebSocket
Layer 04//Platform Mesh

Infrastructure & Networking

Self-healing compute clusters, automated declarative provisioning, zero-trust network overlays, and end-to-end observability fabrics.

Protocols:BGP MeshesWireGuard OverlaysKubernetes CRDs
Engineering Methodology

Discipline standards applied to every build

Regardless of whether an engagement spans an isolated PCB review or an end-to-end connected platform, four core standards govern our technical delivery.

Unified System Ownership

We design across boundaries so hardware, firmware, and software engineers work from a shared contract rather than handing off assumptions.

Engineering standard

Eliminates finger-pointing between physical and digital layers.

Inherent Security Hardening

Security isn't a post-launch audit checkbox. Threat modeling, memory safety, and identity primitives are embedded from the initial architecture schema.

Engineering standard

Hardware roots of trust linked directly to cloud endpoints.

Deterministic Verification

Every subsystem is validated against real-world tolerances—from electrical signal integrity to high-concurrency backpressure under load.

Engineering standard

Continuous automated test benches and environmental stress suites.

Contractual Maintainability

Clean interfaces, clear documentation, and reproducible toolchains ensure your internal engineering teams can independently operate and evolve the system.

Engineering standard

Full handover with complete source, schematics, and runbooks.

Scope Flexibility

Sized for an isolated problem, or the entire stack

Each domain functions independently with clean boundary contracts, or combines into a synchronized multi-discipline program.

Standalone Discipline Scope

One line of work, one defined contract, one verification exit criterion. Focused on solving a specific technical bottleneck with documented interfaces for adjacent teams.

Full-System Engineering Program

Multiple engineering lines coordinated under a unified technical lead — architecture, hardware schematics, firmware routines, cloud backends, and security hardening synced to one release schedule.

Every engagement closes with the source repositories, hardware design files, automated test benches, and documentation your team needs.

Capabilities define our technical depth. Explore how we structure client engagements.

Describe the system. Get a scoped plan.

A paragraph about the problem is enough to start. We will analyze the requirements, define the technical boundaries, and propose a concrete path forward.

Or read how each phase is delivered on the approach.

What you get back

Assessment

A factual read on the current state: risks, constraints, and what actually matters.

Scope

The work named in writing: deliverables, boundaries, and what is out of scope.

Path forward

A practical route to delivery, with the next step clear.