ctOS // NODE_0x7F4A|SYS_STATUS: NOMINALSECURE_LINK // IST: 00:00:00
ctOS_SYSTEM_BOOT.EXE
SECURE PROTOCOL ENGAGEDEST_LOAD: 100% // NO_CORRUPT_SECTORS
SYSTEM DEPLOYMENT // NOMINAL // ONLINE

Milan Prajapati

Backend EngDistributed Systems EngCTO Track

"Building distributed systems, real-time platforms, and scalable backend infrastructure."

Design-focused backend architect with production expertise in event-driven microservices and low-latency infrastructure. Specializing in high-frequency message processing pipelines, GC-optimization patterns in .NET, and scalable telemetry middleware.

TARGET_SCAN: MATCH_98%
TARGET DETAILS
ID: Milan_Prajapati
ROLE: Distributed_Sys_CTO
LATENCY: 0.12ms
THROUGHPUT: NOMINAL
GRID: ACTIVE
Milan Prajapati Profile

ABOUT // INFRASTRUCTURE ARCHITECT

ENGINEERING LEADERSHIP & DISTRIBUTED TOPOGRAPHY

> Architectural Philosophy

My approach to software engineering centers on system reliability and throughput. I believe backend performance is a product feature, not an afterthought. Rather than scaling hardware prematurely, I focus on maximizing the runtime efficiency of existing nodes through cache architecture, zero-allocation data structures, and decoupled message routing.

> CORE DOMAINS

// 01
Distributed Systems
// 02
Real-Time Processing
// 03
Event-Driven Design
// 04
IoT Middleware
INTERACTIVE_TOPOLOGY_MAP// CLICK NODES TO INSPECT
ASP.NET Core MiddlewareNOMINAL
Telemetry: High-Frequency CQRS Events
Description: Ingestion and validation layer using advanced memory allocation practices (Span<T>) to prevent Gen 2 GC pauses.
Optimizations: Replaced heap allocations with zero-allocation slicing.

EXPERIENCE // ENGINEERING IMPACT

PRODUCTION ARCHITECTURE & SYSTEMS PERFORMANCE

ACTIVE_TIMELINE
Moon Technolabs Pvt. Ltd.2023 - PRESENT
SOFTWARE ENGINEER (.NET BACKEND & DISTRIBUTED SYSTEMS)

Led design and implementation of a flagship Realtime RFID Telemetry Platform, managing high-throughput data streams connecting multiple physical warehouse gates with cloud databases.

Focused on system bottlenecks: analyzed heap memory maps, configured thread-pool thresholds, isolated domain boundaries, and designed asynchronous network queues to ensure zero packet drop rates.

// PRODUCTION HIGHLIGHTS:
Removed N+1 loops & change trackers
Prevented heap allocation pauses
Decoupled 8 core microservices
SYSTEM_OPTIMIZATION_CONSOLE
DIAGNOSTICS_PORT: 8080
// DEPRECATED CONFIG (BEFORE)120s (2m)
// OPTIMIZED STABLE (AFTER)360ms

Database & API Latency Reduction

99.7% Latency Reduction

Eliminated synchronous entity tracking loops and N+1 query patterns by introducing targeted Redis indices and disabling Entity Framework change tracking on read-heavy routes.

Redis CachingEF Core TuningN+1 Elimination

EXPERTISE // INFRASTRUCTURE METRICS

ENGINEERING CAPABILITIES & ARCHITECTURAL STACK

CONSENSUS // RAFT // CAP

Distributed Systems

  • State Machine Replication
  • Partition Tolerance
  • Data Partitioning
  • Consensus Protocols
[NODE A] <--> [NODE B] <--> [NODE C]
PUB_SUB // MESSAGE_BUS

Event Driven Architecture

  • CQRS Handlers
  • Event Sourcing Patterns
  • Durable Outbox Pattern
  • Idempotent Consumers
[PRODUCER] -> (EXCHANGE) -> [QUEUE]
60Hz STREAM // SIGNALR

Real Time Communication

  • WebSockets Transport
  • Bi-directional Streaming
  • Connection Pooling
  • Zero-Allocation Hubs
[CLIENT] <========WebSocket========> [HUB]
SPAN<T> // ZERO_ALLOC

Performance Optimization

  • Gen 2 GC Mitigation
  • ArrayPool Renting
  • Stack Allocations
  • Low-level Memory Profiling
HEAP_ALLOC [X] -> STACK_SPAN [O]
DOMAIN_ISOLATION // Docker

Microservices

  • Bounded Contexts
  • API Gateway Routing
  • Service Registry
  • Inter-service RPC / QUIC
[GW] --> [SVC A] | [SVC B] | [SVC C]
CONTAINER // K8S // AWS

Cloud Native Systems

  • Docker Compose Orchestration
  • CI/CD Actions Automation
  • Stateful Sets Configuration
  • Load Balancing Topography
(INGRESS) -> [PODS 1..N] -> [DB]
RABBITMQ // CONCURRENCY

Messaging Systems

  • Prefetch Tuning
  • Dead Letter Exchanges
  • Topic Exchanges Mapping
  • Backpressure Regulation
QUEUE_IN -> [CONSUMER_POOL] -> DB
REDIS_INDEX // SQL_TUNING

Database Optimization

  • Index Analysis
  • Execution Plan Tuning
  • Caching Strategies
  • EF Core Query Interceptors
[API] -> Cache Hit? -> [REDIS] -> [DB]

PHILOSOPHY // CORE PRINCIPLES

SYSTEM ARCHITECTURE PHILOSOPHY

RULE_01
PRIORITY: CRITICAL

Scalability First

DESIGN FOR HORIZONTAL EXPANSION

Build every system with horizontal scaling constraints in mind. Restrict local memory dependencies, implement decoupled storage, and favor stateless architectures that expand gracefully.

SCALE: LINEAR // STATELESS: TRUE
RULE_STATUS: ENFORCED
RULE_02
PRIORITY: CRITICAL

Measure Before Optimize

DIAGNOSE METRICS PRE-REFACTOR

Never refactor code based on intuition. Use memory profilers, heap dump analyzers, and CPU telemetry to locate precise bottlenecks before writing low-level optimizations.

PROFILER: ATTACHED // METRICS: 100%
RULE_STATUS: ENFORCED
RULE_03
PRIORITY: HIGH

Event Driven by Default

DECOUPLE RUNTIME BOUNDARIES

Isolate services using message queues. Rely on asynchronous event-driven triggers rather than synchronous REST calls to prevent cascading service failure patterns.

BROKER: RABBITMQ // COUPLING: 0%
RULE_STATUS: ENFORCED
RULE_04
PRIORITY: CRITICAL

Reliability Over Complexity

FAVOR STABLE ARCHITECTURE PATHS

Reject unnecessary software layers. Choose simple, verifiable abstractions that are easy to monitor and trace rather than complex designs that complicate fault diagnosis.

REDUNDANCY: MULTI_AZ // KISS: TRUE
RULE_STATUS: ENFORCED
RULE_05
PRIORITY: HIGH

Performance is a Feature

TREAT LATENCY AS A CONTRACT

Enforce strict performance contracts. Treat latency regressions as critical system bugs and design memory pipelines to prevent high-frequency Garbage Collector pauses.

SLA: <500MS // ALLOCATIONS: MINIMAL
RULE_STATUS: ENFORCED

PRODUCTION PROJECTS // ENTERPRISE DEPLOYMENTS

COMMERCIAL CORE PLATFORMS & AGENTS

Enterprise_Telemetry_Console
// SELECT ACTIVE NODE:
// SESSION METRICS:
LOG_CHANNEL_ENCRYPTED: TRUE
ACTIVE_DEVICES_MONITORED: OK
SYSTEM_DESCRIPTOR_SPEC
ACTIVE // PRODUCTION_STABLE1.5 Years Dev Lifecycle

Bepco RFID

IoT Telemetry & Middleware Platform

Real-time IoT telemetry platform connecting physical RFID hardware readers to a high-frequency .NET middleware layer and a centralized web application. Architected to support multi-site concurrent warehouse logistics.

THROUGHPUT12k frames/sec
GATE CONCURRENCY6+ Live Gates
MEMORY PRESSURE0% Gen 2 Spikes
// PRODUCTION DECISIONS & ARCHITECTURE
>

Parallelized execution in .NET to handle concurrent gate reads, resolving AJAX serialization blocks and reducing read-to-dispatch latency.

>

Optimized data paths to use Span<T> and stack allocations on high-frequency SignalR pipelines, eliminating garbage collection pauses.

>

Integrated dual-source event verification using Hangfire-scheduled background processors and AI camera verification.

>

Layered Redis caching over MySQL databases to maintain low-latency reads as scale expanded to multiple warehouse nodes.

// TECHNICAL INTEGRATION LAYERS
.NET 8ASP.NET CoreSignalRHangfireRedisMySQLEF CoreRFID HardwareAI Camera
SECURE BRIDGE // CONNECTION ESTABLISHED

"Personal projects and experimental systems are hosted separately in the CTO Lab."

Access my active playground of P2P network engines, CSnakes-interop trading analytics, and containerized home-lab deployments.

>> HOST: ctos.milanprajapati.in // PORT: 443
>> PROTOCOL: SHIELDED_QUIC_TUNNEL // STABLE
>> REDIRECTING ENCRYPTED ROUTE GATEWAY... OK

CONTACT // SECURE TERMINAL

ESTABLISH COMMUNICATION BRIDGE

> SYSTEM PARAMETERS

GEOGRAPHIC GRID
Nadiad / Ahmedabad, Gujarat, India
PRIMARY RESPONSE PATH
milanprajapati543@gmail.com
ENCRYPTED VOICE LINK
+91 7016001268
DECRYPT_CORE: STABLE // PASS_KEY: VALID
CONNECTION: SECURED VIA END-TO-END SYSTEM
SECURE_TRANSMITTER.EXE
ENCRYPTION: SHIELD-256
* INDICATES MANDATORY VALUE INGRESS