安全客July 21, 2026🇨🇳Translated from Chinese

Siemens Industrial AI Drives Green Efficiency Revolution in Infrastructure Cooling, Parks, and Data Centers

The State Council recently issued the 15th Five-Year Plan Carbon Peaking Action Plan, which calls for advancing green and low-carbon industrial transformation, accelerating construction of green computing facilities, and promoting energy-saving and carbon-reduction measures in buildings.

This policy sets the stage for a major efficiency overhaul in China's cooling plants, industrial parks, and data centers over the next five years.

Siemens is positioning itself as a key participant through its intelligent infrastructure portfolio that connects energy systems, buildings, and industrial processes.

The company presented its solutions at the 2026 World Artificial Intelligence Conference, demonstrating applications across infrastructure, life sciences, consumer goods, and automotive manufacturing.

A Lightweight AI Box for Cooling Optimization

Traditional cooling systems in hotels and commercial buildings rely heavily on manual experience, leading to inefficient matching of chillers, pumps, and cooling towers with real-time loads.

Siemens addresses these challenges with the AI BOX (智冷魔方), a non-invasive edge computing device that integrates with existing building automation systems without requiring equipment replacement or major piping changes.

The solution combines physics-based models of HVAC components with machine-learning algorithms that predict cooling demand 15 minutes ahead and dynamically optimize equipment operation every 15 minutes.

At the five-star Shanghai Yingyi Crowne Plaza Holiday Hotel operated by InterContinental Hotels Group, installation and commissioning were completed in just three days with no interruption to hotel operations.

The deployment delivered approximately 7% additional energy savings on top of the existing control system and shifted maintenance from manual experience to fully autonomous AI-driven operation.

From Single-Point Savings to System-Level Energy-Carbon Management

At the park level, Siemens Smart ECX platform provides unified oversight of distributed energy resources including photovoltaics and storage.

The platform supports metering of 17 energy categories, automatically generates consumption baselines, and predicts usage trends with over 92% deviation-warning accuracy.

Following deployment at Sichuan Chuanrun Chengdu factory, the site achieved a 30% reduction in energy costs, over 90% overall energy efficiency, and cumulative carbon-emission cuts of 64,000 tons.

In November 2025, Chuanrun signed a strategic cooperation agreement with Siemens to scale zero-carbon park solutions and explore AI-liquid cooling and energy digitalization.

Power Infrastructure as the Foundation for AI Compute

Rising rack densities in AI training clusters have elevated power reliability to a critical requirement for data centers.

Siemens supplies end-to-end distribution systems featuring NXAirS medium-voltage switchgear and SIVACON S8 low-voltage panels.

These products were deployed at the Zhongjin Data Ulanqab zero-carbon computing base, China's first source-grid-load-storage integrated project serving the Beijing-Tianjin-Hebei region.

In July 2026, Siemens announced a 300-million-euro investment in Germany to expand capacity for energy-transition and AI data-center technologies, planning to create up to 700 new jobs by 2030.

Industrial AI Grounded in Domain Knowledge

Siemens stresses that successful industrial AI must fuse long-standing domain physics models with modern data-driven techniques rather than applying generic algorithms.

The approach spans hardware, software, and services, enabling customers to obtain complete solutions from a single vendor and reducing integration risk.

Documented results across multiple sites demonstrate that standardized, rapidly deployable products can be replicated from one hotel or park to another, creating scalable industrial value.

Related articles

SecuritylabOther

Why Automation Alone Fails to Improve SOC Efficiency: The Case for Managed Operational Models

Mature security infrastructure does not guarantee protection against cyber threats, as attacks can still cause downtime, crisis recovery, and financial damage even when key controls are deployed. Automation of routine tasks helps speed up responses but cannot raise SOC effectiveness without clear decision criteria, defined responsibilities, and repeatable incident-handling processes. Organizations using an average of 83 security tools from 29 vendors face fragmentation that automation alone cannot resolve. A managed SecOps model covering the full incident lifecycle—from detection and prioritization through investigation, response, closure, and post-incident improvement—is required. Positive Technologies highlights that SecOps platforms such as MaxPatrol 360 provide the unified environment needed to link context, processes, coordination, automation, metrics, and continuous improvement.

HabrOther

Building a Minimalist UI Test Framework with Playwright and Pytest

Vladislav Timashenkov from InfoWatch presents a practical approach to constructing a concise UI automation testing framework using Playwright. The article focuses on leveraging native Playwright features instead of creating additional abstraction layers. It covers launching a Chromium browser once per session, handling authentication via API calls to obtain cookies, and managing isolated BrowserContext instances for test independence. Readers learn how to implement Page Object models that rely on Playwright's built-in locators and auto-waiting mechanisms. The tutorial includes real code examples for fixtures, context factories, and a sample test for tag management functionality. This method reduces maintenance overhead while ensuring tests remain scalable across different environments.

AntiMalwareOther

Russia Develops Domestic ERA-GLONASS System for Public Transport Tracking During GPS and GLONASS Disruptions

AO GLONASS has created a national system that maintains real-time monitoring of buses and trolleybuses even when satellite navigation signals are jammed or lost. The solution relies on the state-run ERA-GLONASS platform, placing autonomous markers at stops and identifiers on vehicles to record exact positions without depending on GPS or GLONASS. Data is transmitted over a protected ERA-GLONASS communication channel that remains available during mobile internet restrictions thanks to inclusion in official white lists. The first deployment begins in Kaluga on 1 September, covering three trolleybus routes with live tracking for passengers, dispatchers, carriers, and mapping services. The battery-powered markers are designed for five years of maintenance-free operation in any weather and are built entirely with Russian components and encryption algorithms. Future plans include extending the technology to municipal vehicles and emergency services fleets.

HabrOther

OSINT for the Lazy Part 16: Discovering Hidden Corporate Infrastructure Through Shodan

The article explains how Shodan differs from traditional search engines by indexing internet-connected devices such as servers, routers, cameras, databases, and admin panels rather than web pages. It provides ten practical search techniques including hostname queries, SSL certificate searches, ASN lookups, IP range scans, and targeted queries for development environments, admin panels, and databases. Examples demonstrate how forgotten dev.company.com or staging.company.com hosts, open Jenkins or Grafana dashboards, and exposed MongoDB or Redis instances can be located with simple filters. The piece walks through a five-step real-world workflow that combines domain, SSL, organization, and service-title searches to map a target company’s infrastructure. It emphasizes that Shodan only reveals services already exposed to the internet and does not perform any exploitation. Common root causes listed include forgotten test servers, rushed DevOps configurations, and misconfigured firewalls. The article concludes with a reminder that many organizations remain unaware their internal systems are visible to anyone using the same techniques.