SmartSpace AI
- Customer
- Telecom Soft
- Project manager on the customer side
- Year of project completion
- 2025
- Project timeline
- May, 2025 - September, 2025
- Project scope
- 5000 man-hours
- Goals
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The goal of the Smart Building project is to develop an intelligent, self-learning ecosystem that manages building infrastructure through AI, IoT, and predictive analytics. The system unifies all engineering components — climate control, lighting, security, and energy — into a single digital platform. Artificial intelligence continuously analyzes sensor and video data, predicts failures, and automatically adjusts system parameters for optimal efficiency and comfort. Smart Building aims to reduce energy consumption, increase equipment reliability, and create adaptive spaces that respond to people’s behavior in real time. The project sets a new standard for sustainable and data-driven facility management.
- Project Results
- The Smart Building project delivered measurable improvements in operational efficiency, sustainability, and reliability. Energy consumption was reduced by up to 40% through AI-driven optimization of HVAC, lighting, and power systems. Predictive diagnostics decreased equipment downtime by 30% and extended asset lifespan. Automated monitoring and adaptive control improved occupant comfort while reducing manual interventions by 45%. Facility managers gained real-time visibility across all systems, enabling faster response to anomalies and better resource allocation. Integration with corporate IT infrastructure ensured full interoperability and data transparency. The project established a scalable foundation for further expansion into Smart Campus and Smart City ecosystems.
The uniqueness of the project
Smart Building stands out as an intelligent digital ecosystem where every system — from HVAC and lighting to security — is connected through an AI core that understands, learns, and acts autonomously. Unlike traditional automation systems that only follow static rules, Smart Building applies behavioral AI and digital twin technology to predict equipment failures, forecast energy demand, and adapt to real-world conditions. The system continuously learns from user behavior and environmental data, creating a living, responsive building environment. Its AI layer enables predictive diagnostics, context-aware automation, and real-time decision-making — turning infrastructure into a self-managing, adaptive organism.Also, there is no strict requirements about cameras
- Used software
- The Smart Building platform is based on a modular AI and IoT architecture that connects engineering, security, and environmental systems into a single control environment. The solution integrates video analytics, smart sensors, HVAC controllers, lighting systems, access control, and energy meters through a unified management platform. AI modules use neural networks for predictive diagnostics, anomaly detection, and behavioral analysis. The system’s digital twin engine simulates equipment performance and energy flow in real time. Data processing and visualization are managed through a cloud dashboard with advanced analytics, forecasting, and scenario management.
- Difficulty of implementation
- The main challenge in implementing Smart Building was integrating diverse systems and devices — HVAC, lighting, sensors, cameras, and access control — into a unified AI-driven platform. Each subsystem used different communication protocols and data formats, requiring complex synchronization and custom interfaces. Developing predictive models demanded extensive data collection and training to ensure accuracy in energy forecasting and fault detection. Maintaining cybersecurity while enabling real-time data exchange across IoT networks added additional complexity. Organizationally, the transition from traditional facility management to an autonomous AI-based model required retraining staff and redefining workflows. Despite these challenges, the system was successfully launched and proved stable under continuous multi-source data loads.
- Project Description
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The Smart Building project was created to transform traditional infrastructure management into an intelligent, self-learning ecosystem powered by artificial intelligence and the Internet of Things (IoT). The platform unifies all building systems — HVAC, lighting, energy, access control, and video security — under one digital layer capable of understanding environmental conditions, predicting failures, and making autonomous decisions in real time.
Before Smart Building, most facilities relied on fragmented automation tools that operated independently and lacked analytics or predictive insight. This led to energy inefficiencies, unplanned downtime, and limited visibility into system performance. The Smart Building platform solved these issues by creating a unified digital infrastructure where every device — from sensors to cameras — becomes a source of data, and AI acts as the “brain” interpreting it.
The system’s AI core collects and processes data from hundreds of sources: temperature sensors, motion detectors, cameras, access points, and smart meters. Using neural network models, the platform predicts energy demand, identifies anomalies, and performs predictive diagnostics — detecting potential equipment malfunctions before they occur. The digital twin technology allows simulation of building behavior, enabling managers to test scenarios and optimize operations without affecting real systems.
Smart Building includes adaptive automation features that respond to people’s presence and environmental conditions. Lighting, air conditioning, and ventilation automatically adjust based on occupancy, air quality, and time of day. AI continuously learns from historical data to improve accuracy and efficiency. For example, the system can recommend reducing HVAC load during low-traffic periods or automatically alert maintenance teams if vibration data suggests mechanical wear.
The management dashboard provides real-time monitoring, visual analytics, and forecasting tools. Facility managers can track equipment performance, environmental comfort, and energy usage across multiple buildings or zones. Integration with ERP, BMS, and security systems ensures seamless operation within existing corporate infrastructures.
In addition to operational intelligence, the project focuses on sustainability. By optimizing energy consumption and extending equipment life cycles, Smart Building reduces operating costs and environmental impact. Early pilot results demonstrated up to 40% energy savings and significant reductions in maintenance downtime.
The project’s architecture supports both on-premise and cloud deployments, ensuring flexibility for enterprise clients such as business centers, factories, shopping malls, and government facilities. The platform is scalable and adaptable for expansion into Smart City frameworks, where multiple buildings can be managed as part of a unified urban ecosystem.
Smart Building represents a key milestone in the company’s digital transformation strategy — moving from reactive management to proactive, data-driven intelligence. It redefines how buildings operate: from passive structures to living digital entities that sense, learn, and act autonomously for the comfort, safety, and efficiency of their occupants.
- Project geography
- The Smart Building platform was developed and implemented in Uzbekistan, covering office centers, retail spaces, and industrial facilities across multiple regions. The system architecture allows centralized monitoring and management of geographically distributed buildings through a single cloud platform. AI modules operate regardless of location, ensuring consistent control, analytics, and optimization in real time. The platform is accessible to facility managers both locally and remotely, supporting cross-site supervision and maintenance. Its scalable design enables deployment in any region or country, making Smart Building adaptable for expansion into broader Smart Campus and Smart City initiatives.
- Additional presentations:
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