News

2025-07-30 BY jonson

IN Company News

Schneider Electric: AI Industrialization Demands Ecosystem Synergy

When an alarm blared at 6 a.m. in a Shanghai waste-to-energy plant—signaling critical furnace overheating—an AI vision system took autonomous action. Within minutes, it stabilized combustion by auto-adjusting fuel and airflow. This intelligent control solution, co-developed by Schneider Electric and partners, integrates machine vision with real-time optimization algorithms for precision industrial automation.

“AI industrialization has entered an ecosystem-driven era,” declared Yi Xiong, SVP of Schneider Electric China. “Isolated technologies cannot bridge the industrialization gap when AI moves from labs to boiler rooms.” He framed scaling as a triple relay race:

Technology Integration: Full-stack capabilities require collaboration. For example, their waste-plant AI merges computer vision, optimization algorithms, and control systems—beyond any single company’s scope.
Scenario Expertise: Lacking mechanical insight, even advanced algorithms fail. In a wind-turbine project, 20 years of vibration analysis from partners enabled accurate bearing-failure models.
Scaling Networks: Replicating pilot successes demands open platforms. Schneider’s “Go Green” initiative has scaled an AI quality-inspection solution from its Wuxi factory to 12 manufacturers.

Three Engines for Ecosystem Competitiveness
Schneider’s ecosystem strategy rests on:

Open Culture: Internal “Impact” values break silos. In 2024, logistics teams shared predictive delay models with production units.
Technical Leadership: 200% AI patent growth in three years; 99.2% accuracy in industrial visual recognition anchors partnerships.
Hybrid Talent: “Digital Citizen” program trains engineers mastering both Modbus protocols and Python. 500 OT-AI experts will be certified by 2025.

Ecosystem in Motion
Vertical Depth:

“Go Green” with MIIT yielded 40+ co-innovations, including an AI energy optimizer cutting power use by 12% at 30 plants.
Joint lab with NVIDIA developed smart cabinets reducing GPU cluster energy by 15%.

Horizontal Expansion:

World’s first hydrogen-equipment digital twin with Zhejiang Hydrogen Center slashes electrolyzer fault-response time by 90%.
Open-source knowledge graphs help SMEs reduce manual data labeling by 80%.

Tangible outcomes include two “Lighthouse Factories”: Wuxi boosted product yield to 99.98% via AI process optimization, while Shanghai improved logistics efficiency by 40%. Concurrently, the “AI for GREEN” report warns that computing power’s energy demands require industry-wide collaboration.

“Ecosystem synergy is a marathon,” Xiong concluded. At WAIC 2025 (July 26), Schneider will unveil an industrial AI “toolkit” co-created with partners, spanning predictive maintenance and energy optimization across 20 scenarios. “Passing the ecosystem baton is key to winning the last mile of AI industrialization.”

Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）
Sales Manager ：John

2025-07-25 BY jonson

IN Company News

In-Depth Analysis of ABB S-073N 3BHB009884R5211 – The Hidden Champion in High-Voltage Frequency Conversion

I. Technical Deconstruction: Full-Dimensional Innovation from Hardware Design to Algorithm Optimization

Precise Collaboration of Core Components
The integrated IGCT devices in the module adopt nanoscale lithography, with a chip thickness only 1/3 that of traditional thyristors. Switching frequency is increased to 20kHz, while conduction loss is reduced by 40%. The supporting drive circuit uses adaptive gain control technology, automatically adjusting drive voltage based on load changes to prevent IGCT damage from overvoltage or undervoltage.
Breakthrough Improvements in Anti-Interference Capability
Through double-layer metal shielding and digital filtering algorithms, the module maintains phase measurement errors within ±0.05° even in strong electromagnetic interference environments of 1000V/m. After application in the welding workshop of an automobile manufacturing plant, frequency converter misoperation rates dropped from 3 times per month to zero.
Digitally Empowered Underlying Architecture
The built-in edge computing unit supports OPC UA protocol, enabling real-time upload of over 300 operating parameters. In ABB Xiamen Industrial Center’s photovoltaic system, AI algorithms analyzing historical data predicted heat dissipation system failures 72 hours in advance, reducing downtime by 80%.

II. Industry Practices: Cross-Domain Value Verification from Thermal Power to New Energy

Energy Efficiency Revolution in Thermal Power
In the renovation project of Datang Yungang Power Plant, the S-073N module, combined with the PM866K01 controller, optimized the steam inlet phase of steam turbines, increasing unit thermal efficiency by 2.1%. This saves 12,000 tons of standard coal annually and reduces CO₂ emissions by 35,000 tons, earning the project the “Green Power Plant Demonstration Project” award from the China Electricity Council.
Precise Control in Rail Transit
Shenzhen Metro Line 14 adopted the S-073N module to build a traction frequency conversion system. Through phase closed-loop control, the train’s starting inrush current was reduced by 50%, significantly improving passenger comfort. Meanwhile, system energy consumption decreased by 18% compared to traditional solutions, saving over 5 million yuan in annual electricity costs.
Precision Assurance in High-End Manufacturing
A semiconductor wafer factory applied the module in the lithography machine’s drive system. With ±0.1° phase control precision, wafer etching errors were reduced from ±3nm to ±1.5nm, increasing yield by 5 percentage points and adding over 200 million yuan in annual benefits per production line.

III. Competitive Barriers: A Dual Moat of Technical Patents and Ecosystem Building

First-Mover Advantage in Patent Layout
ABB has filed 127 global patents covering IGCT technology and phase control algorithms, with core patents spanning key areas such as chip design, heat dissipation structures, and digital interfaces. These patents form technical barriers that competitors cannot easily replicate in the short term.
Synergistic Effects of an Open Ecosystem
The module is compatible with third-party development platforms and has established strategic cooperation with Rockwell, Hollysys, and other manufacturers. In a lithium battery production line, the S-073N module and Rockwell PLC formed a hybrid control system, achieving dynamic matching of coater phase and tension through data exchange, improving product consistency by 30%.
Full-Lifecycle Service System
ABB launched a “Module-as-a-Service (MaaS)” model, allowing customers to pay by usage duration and enjoy one-stop services including predictive maintenance, software upgrades, and rapid fault response. After adopting this model, a chemical enterprise increased overall equipment effectiveness (OEE) by 12% and reduced operation and maintenance costs by 40%.

IV. Market Insights: A Path to High-End Breakthroughs Amid Domestic Substitution

While domestic manufacturers are rapidly rising in the mid-to-low-end market, foreign brands still hold over 70% share in high-voltage frequency conversion core modules. The S-073N module maintains absolute advantages in the high-end market through technical leadership. Industry reports predict that the high-voltage frequency conversion phase module market will grow at a 15% CAGR from 2025 to 2030, with ABB expected to solidify a 25% market share through this product.

“Domestic substitution is not mere price competition but an all-round surpassing of technical capabilities,” noted Dr. Zhang, an industry analyst. “The success of the S-073N module demonstrates significant innovation potential in the high-end market.”

V. Future Outlook: Deep Integration of AI and Industrial Control

ABB is developing a generative AI-based phase optimization algorithm, planned for integration into the S-073N module in 2026. By analyzing historical data from over 5,000 global application cases, the algorithm will dynamically generate optimal phase control strategies, 预计将使系统能效再提升 8-12%.

“We stand at the critical point of industrial control intelligence,” said ABB’s Chief Technology Officer. “The S-073N module will serve as a bridge connecting the physical and digital worlds, driving industrial systems toward self-optimization and self-decision-making.”

Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）
Sales Manager ：John

2025-07-17 BY jonson

IN Company News

Energy Efficiency: The Engine for a Sustainable Industrial Future

Global industrial change is speeding up. Energy supply and demand are increasingly unbalanced. Traditional energy use harms the environment, pushing industries to upgrade. Rising energy prices are also squeezing corporate costs.

In this scenario, improving energy efficiency is not just a quick fix. It’s a long-term way to balance economic, environmental, and social progress.

Recently, Mike Umiker, Executive Director of the Energy Efficiency Movement (EEM), visited China for the first time in his role. He shared global energy efficiency insights with Chinese companies. interviewed him to discuss EEM’s work and China’s part in global energy efficiency.

EEM: Growing From a Vision to a Global Network

EEM began in 2021. ABB and Alfa Laval started it to highlight energy efficiency’s importance. They wanted to speed up the use of existing high-efficiency technologies.

Today, EEM is an independent non-profit association. It has 600+ member companies worldwide, including 70+ Chinese firms from various industries.

EEM focuses on practical steps. Its Industrial Energy Efficiency Cases report suggests 10 measures. For example, using high-efficiency motors with frequency converters can cut energy use and costs. These steps can be deployed quickly and scaled up.

By 2030, such measures could reduce global carbon emissions by 11%. They could save the industrial sector $437 billion each year.

“Scale Is Now the Big Challenge”

“We have good technologies. The challenge is to scale them up,” Mike said. “That needs everyone in the industry chain to work together.”

ABB, a co-founder, leads by example. Its new brand, “Engineering True Progress,” uses engineering and digital tech to help industries work efficiently. This boosts energy and production efficiency, supporting sustainability.

Data Gaps: A Major Hurdle

Energy efficiency has big potential, but companies face obstacles.

Energy audits are well-established in China, and rules are clear. But energy management needs good data. EEM’s white paper says data issues are a top barrier.

46% of companies can’t get high-quality energy data. 39% don’t process data regularly, so management is in the dark.

Digital technologies like AI are fixing this. In Chinese industrial parks, AI energy audits and digital twins are common.

ABB uses AI for heating, steel, and ports. It analyzes power use, emissions, and operations to cut energy use.

Xinjiang Tianfu Energy Heating Branch works with ABB. Using data from 2,000+ frequency converters, ABB’s AI checks energy use and warns of problems. Since 2009, this has saved 70,000 tons of standard coal, cut CO₂ by 180,000 tons, and saved 18.054 billion kWh.

Global Collaboration: Learning From Each Other

Energy efficiency is a global issue. Countries and industries must work together.

Mike thinks each country and industry has strengths. Sharing these can help everyone.

EEM joins global energy talks. At the 10th IEA Global Energy Efficiency Conference, it held a CEO roundtable to encourage cooperation. It also publishes reports to help companies with funding, tech, and market access.

China’s Role: Leading by Example

China takes energy efficiency seriously. EEM works with Chinese companies to mix energy transformation and digitalization.

Dongguan Haoxin Precision Machinery is a great example. It used ABB’s solution for its book gluing line. Production went from 50 to 60 books per minute. That’s 20% more efficient, 15% less energy, and 20% better energy efficiency.

From “Must-Do” to “Want to Do”

Energy efficiency was once a policy requirement. Now, it’s a way for companies to stay competitive and grow. It involves technology, economics, the environment, and society.

With better tech, more collaboration, and stronger motivation, energy efficiency will drive industry to a more efficient, low-carbon future.

Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）
Sales Manager ：John

2025-07-11 BY jonson

IN Company News

Inside TGV – How This Tech Powers Next-Gen Semiconductor Packaging

Semiconductor packaging is evolving fast. As 3D integration takes center stage, the need for better substrates grows. Silicon substrates are no longer enough. Glass substrates, with TGV (Through Glass Via) tech, are stepping up.

TGV is critical for 3D integration in glass substrates. It’s like a “bridge” that connects layers vertically, making it a game-changer for moving beyond silicon-based solutions.

The Basics of TGV

TGV stands for Through Glass Via – vertical electrical links through glass. Unlike TSV (Through Silicon Via), it’s designed to replace silicon substrates in next-gen 3D integration.

It uses high-grade borosilicate or quartz glass. The process flow includes laser induction, etching, seed layer sputtering, electroplating to fill vias, CMP, RDL, and bumping. TGVs are tiny – 10μm to 100μm in diameter. For advanced uses, each wafer needs tens of thousands to millions of these vias, all metalized for conductivity.

TGV’s Core Processes

1.Glass substrate prep: Pick ultra-thin glass with specific composition, thickness, and surface quality.

2.Laser drilling/etching: Use femtosecond lasers or wet/dry etching to create micro-holes.

3.Insulation and seed layer deposition: Add an insulating layer on hole walls for electrical isolation. Then deposit a metal seed layer.

4.Electroplating: Fill vias fully with metal (mostly copper) via electroplating.

5.Surface planarization (CMP): Polish away excess metal for a flat glass surface.

6.RDL fabrication: Deposit insulation on the glass, pattern it, and electroplate wiring to form interconnect circuits.

7.Testing and dicing: Test the interconnected wafer, then cut into individual chiplets for further packaging.

Why TGV Matters

TGV outperforms TSV in key areas. It has better high-frequency properties, lower costs, simpler processes, stronger stability, and wider uses. These perks make it a top choice for next-gen semiconductor packaging.

Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）
Sales Manager ：John

2025-07-09 BY jonson

IN Company News

TGV – The Key Tech Driving Glass Substrate Innovation in Semiconductors

In the semiconductor industry, Moore’s Law is edging closer to physical limits. So, boosting chip performance through 3D integration has become a core focus. Advanced packaging technologies like 2.5D/3D packaging and heterogeneous integration demand higher vertical interconnect density and better substrate performance.

Traditional silicon substrates are showing more limits. They struggle with high-frequency signal transmission, manufacturing costs, and process complexity. Glass substrates, however, are emerging as an ideal next-gen choice – thanks to unique advantages.

Through Glass Via (TGV) is the star here. It acts as “micro-channels” in chips, leading the shift from the “silicon era” to the “glass era” in semiconductor packaging.

What is TGV?
TGV refers to vertical electrical interconnects through glass substrates. It’s seen as a key next-gen 3D integration tech, potentially replacing silicon-based TSV (Through Silicon Via).

Made from high-quality borosilicate or quartz glass, TGV uses processes like laser induction, etching, seed layer sputtering, electroplating, chemical mechanical planarization (CMP), RDL, and bumping to enable 3D connections. These micro-vias typically range from 10μm to 100μm in diameter. For advanced packaging, each wafer may need tens of thousands to millions of metalized TGVs for conductivity.

Why TGV beats TSV?

Better high-frequency performance: Glass is an insulator. Its dielectric constant is about 1/3 that of silicon. Its loss factor is 2-3 orders of magnitude lower. This cuts substrate loss and parasitic effects, keeping signals intact.
Lower cost: Large, ultra-thin glass panels are easy to get. No need for insulating layers on the substrate or TGV walls. Glass interposers cost ~1/8 of silicon ones, slashing overall packaging costs.
Simpler processes: No complex insulating layer deposition. No thinning for ultra-thin interposers. This streamlines production and boosts efficiency.
Strong mechanical stability: Even when interposers are thinner than 100μm, warpage is small. This ensures packaging reliability.
Wide applications: It shines in RF chips, high-end MEMS sensors, and high-density system integration. It’s a top pick for next-gen high-frequency chip 3D packaging.

“Sales Manager : Jinny
Email : sales1@xrjdcs.com
Whatsapp/Mobile:+86 15359273791″

2025-06-23 BY jonson

IN Company News

Schneider Electric Breaks New Ground in New Energy Transition: A Dual-Drive Path from “Scale Competition” to “Value Reconstruction

In the Saudi Arabian desert 腹地 (heartland) in June, under 40℃ high temperature, a blue photovoltaic matrix is converting solar energy into clean electric power – this Al 舒巴赫 (Al Shuqaiq) 2.6GW photovoltaic power plant, contracted by China Energy Engineering Group, not only stands as the largest photovoltaic project in the Middle East but also reflects the transformation trajectory of the global new energy industry. As China’s new energy installed capacity exceeded 1.45 billion kilowatts in 2024, surpassing thermal power for the first time, the industry is facing “growing pains” such as grid integration challenges and rising system costs. Schneider Electric provides a model for the industry’s transition from “scale expansion” to “value creation” through its dual-drive strategy of “agile innovation + ecological collaboration.”

Technological Iteration and Scenario Adaptation: The Value Breakthrough of Agile Innovation

At the 18th SNEC 2025 exhibition, Schneider Electric’s booth showcased solutions like ECC AC microgrids and photovoltaic-storage-supercharging systems, revealing the industry’s technological shift from “parameter competition” to “scenario adaptation.” Take Wuhan’s photovoltaic-storage-direct current-soft load (PV-storage-DC-soft load) demonstration base as an example: by integrating buildings, photovoltaics, and energy storage into a DC microgrid, the base reduces carbon emissions by 577 tons annually, improving carbon reduction efficiency by 13%. Such scenario-based innovation is not isolated: for extreme environments like high altitudes and cold regions, Schneider Electric’s custom air circuit breaker for the world’s highest-altitude wind power project (5,200 meters) not only adapts to 1,140V rated voltage but also operates stably in temperature ranges from -40℃ to 70℃, breaking through the environmental limitations of traditional electrical equipment with its specialized arc extinguishing system.

“Rapid new product launch” epitomizes Schneider Electric‘s agile innovation. The EasyPact CVS DC NE DC circuit breaker global protection solution launched in 2025 forms a technical matrix with the new-generation Acti9 Pro power distribution products, covering niche scenarios like photovoltaics, wind power, and energy storage. This “small steps, fast iteration” R&D model allows the company to always center on customer pain points in the rapidly evolving new energy landscape, achieving the demand upgrade from “single products” to “digital solutions.”

Industrial Chain Collaboration: From Isolated Competition to Ecological Win-Win in Global Practices

Behind the Saudi PV project lies a collaborative network of over 50 multinational suppliers from 10 countries. As the electrical solution provider for the step-up substation and central control center, Schneider Electric has become a “global partner” for Chinese new energy enterprises with its international standards and global resource integration capabilities. This ecological cooperation model was further deepened at SNEC – the joint white paper Global Protection: Eliminating DC Protection Blind Spots in Battery Energy Storage Systems released with Beijing Hybric Energy Technology Co., Ltd. integrates the technical strengths of both sides in energy storage safety, providing a replicable system-level cost reduction solution for the industry and setting a new benchmark for DC protection.

China-Centric Strategy: Localized R&D Drives Global Value Output

Schneider Electric’s dual-drive strategy relies on its deep “China-Centric” layout. With five R&D centers and an AI laboratory in China, its annual R&D investment growth exceeds 18%. The Phase II of Jinshan Innovation Experimental Park completed in 2024 has become an innovation hub for new power systems. This “integrated R&D-production-sales” mechanism enables Chinese innovations like the Wuhan PV-storage-DC-soft load base to feed back into global markets. As Wei Sizhe, Senior Vice President of Low Voltage Business at Schneider Electric Energy Management, stated: “Centered on customer needs, through a high-density innovation mechanism, we are transforming technological achievements into driving forces for the new energy industry’s value leap.”

Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）
Sales Manager ：John

2025-06-17 BY jonson

IN Company News

From Oil Rigs to Pharma Labs: ICS Triplex Spare Parts Powering Critical Operations Across Industries

How Energy, Chemicals, Power & Life Sciences Rely on Genuine Spares for Safety and Performance

Industrial needs vary wildly, but the demand for control system reliability is universal. ICS Triplex spares excel across sectors. Here’s how they deliver value where it matters most:

I. Oil & Gas: The Reliability Lifeline

Offshore Platforms: ESD/F&G systems (Trusted®/Aadvance®) demand absolute spares reliability. Salt, vibration, short maintenance windows. Value: Prevents disasters, maximizes uptime ($$$), enables fast repair.
Refineries & Chem Plants: SIS & critical DCS loops. High-precision analog I/O, comms cards. Extreme heat/corrosion. Value: Ensures safe shutdowns, optimizes yield, supports extended run cycles.

II. Power Generation: The Stability Enforcer

Thermal Power: FSSS, ETS, DCS loops. High-speed I/O for burner/steam control. Heat, dust, vibration. Value: Prevents boiler/turbine catastrophes, improves efficiency, extends asset life.
Nuclear (Non-Safety/Appropriate SIS): Strict compliance (10 CFR 50 App B). Traceability paramount. Value: Meets regulatory mandates, provides certified reliability.
Renewables (Monitoring): Harsh, remote environments. Environmental ruggedness key. Value: Reduces O&M costs, ensures critical protection function availability.

III. Chemicals & Pharmaceuticals: Precision Partners

Continuous/Batch Chem: SIS for reactors, precision analog I/O for quality. Value: Prevents incidents, ensures product consistency, meets environmental controls.
Pharma (GMP): Audit-proof traceability & documentation essential. Environmental controls, critical process equipment. Value: Guarantees GMP compliance, product quality/safety, data integrity (ALCOA+).

IV. Cross-Industry Best Practices

Risk-Based Inventory: Focus on high-impact, long-lead items.
Digital Management: Use CMMS for tracking, history, and ordering.
Supplier Partnership: Engage ICS Triplex partners for forecasting and lifecycle insights.
Training: Ensure staff competency in diagnostics and replacement SOPs.
Predictive Mindset: Leverage system diagnostics for proactive replacement planning.

Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）
Sales Manager ：John

2025-06-12 BY jonson

IN Company News

Arctic-Grade IS200VSVOH1B-HC Modules Power Russia’s Yamal LNG Megaproject

SALEKHARD, RUSSIA – In the -60°C Siberian tundra, GE’s hardened IS200VSVOH1B-HC modules are ensuring reliable operation of liquefaction trains at Novatek’s $27B Yamal LNG facility. This extreme-environment variant is redefining the limits of industrial electronics.

Engineering for the Cryosphere

Standard industrial components fail catastastically below -40°C. GE’s solution incorporates:
Material Science: Ceramic-PTFE hybrid PCB substrates resist embrittlement.
Contact Physics: PdNi alloy connectors prevent cold welding.
Dynamic Thermal Management: Nanoheated enclosures maintain -20°C operational baseline.

Mission-Critical Performance

Since deployment:
✔ Zero module failures across 3,000+ operating hours at <-55°C.
✔ 99.998% signal integrity during January’s -62°C polar vortex.
✔ Enabled 5% higher LNG throughput via precise cryogenic valve control.

“These modules are why we avoided $140M in winterization costs,” said Novatek’s Chief Engineer Dmitry Volkov.

Climate Resilience Lessons

The technology is finding unexpected applications:

Antarctic research stations using HC modules for HVAC control.
Canadian mining firms adopting them for permafrost monitoring.
GE developing +150°C variants for Middle East solar farms.

“Sales Manager : Jinny/John

Email : sales1@xrjdcs.com(Jinny)

johnedward.zch@gmail.com(John)

Whatsapp/Mobile:+86 13806028623

2025-06-09 BY jonson

IN Company News

GE’s IS200VSVOH1B Module Emerges as Critical Enabler for Smart Grid Modernization

HOUSTON, TEXAS – As power utilities worldwide grapple with aging infrastructure, GE’s IS200VSVOH1B analog input/output module is gaining recognition as a linchpin in grid modernization projects. Recent deployments across North American combined-cycle plants have demonstrated 40% improvements in turbine response times, reigniting discussions about retrofitting versus full-system replacements.

Precision Engineering for Mission-Critical Control

Designed for GE’s Mark VIe Speedtronic turbine control systems, the IS200VSVOH1B is no ordinary circuit board. Its 16-bit ADC converters deliver ±0.05% signal accuracy while operating in extreme temperatures (-40°C to 85°C). The module’s dual-redundant architecture ensures uninterrupted operation during grid disturbances—a non-negotiable requirement for inertial response in renewable-heavy grids.

Case Study: Breathing New Life into Legacy Plants

At Duke Energy’s 1.2GW Lincoln County Station, engineers replaced obsolete controls with 18 IS200VSVOH1B modules. The results:

Faster Ramp Rates: Load-following capability improved from 25 MW/min to 42 MW/min, crucial for balancing solar volatility.
Predictive Diagnostics: Embedded health monitoring detected exciter winding degradation 14 days before failure.
OPEX Savings: Reduced annual maintenance labor by 300 hours through hot-swappable modular design.

“These modules act as ‘digital twins’ for analog signals,” said Plant Manager Elena Rodriguez. “We’re seeing condition-based maintenance replace calendar-based schedules.”

Industry Implications

With the U.S. Department of Energy allocating $2.5B for grid resilience, analysts note the IS200VSVOH1B’s role in bridging legacy systems with IoT-enabled controls. GE reports a 200% YoY increase in orders from Asian coal-to-gas conversion projects.

Email: x13806028623@gmail.com（Jinny ）
Email: johnedward.zch@gmail.com）（John）
Mobile：+86 13806028623（WhatsApp）

2025-06-06 BY jonson

IN Company News

Exclusive Offer: GE Speedtronic & Mark VI Components – Ready to Ship!

For industries relying on GE’s Speedtronic control systems, having quick access to spare parts is crucial. We now offer immediate availability of the following GE Mark VI/Mark VIe modules:

📌 GE IS200TRLYH1BGG – Relay Module
📌 GE IS200TBCIH1BCE – I/O Expansion Board
📌 GE IS200TREGH1BDC / BDB – Signal Conditioning Cards
📌 GE IS200TVIBH2BCC – Vibration Monitoring Unit
📌 GE IS200TBAIH1CCC – Analog Input Card
📌 GE DS200TCPDG2BEC – Power & Communication Board
📌 GE IS200TSVOH1BCC – Servo Control Module

Perfect for:

Power plants
Oil refineries
Industrial machinery
Process automation

Why wait for long lead times? Our in-stock inventory ensures same-day dispatch for urgent orders.

Email or call now for expert assistance and competitive pricing!

Get in touch now for pricing and delivery options!

Sales Manager : John
Email: x13806028623@gmail.com
Email: johnedward.zch@gmail.com
Mobile：+86 13806028623（WhatsApp）

I. Technical Deconstruction: Full-Dimensional Innovation from Hardware Design to Algorithm Optimization

II. Industry Practices: Cross-Domain Value Verification from Thermal Power to New Energy

III. Competitive Barriers: A Dual Moat of Technical Patents and Ecosystem Building

IV. Market Insights: A Path to High-End Breakthroughs Amid Domestic Substitution

V. Future Outlook: Deep Integration of AI and Industrial Control

EEM: Growing From a Vision to a Global Network

“Scale Is Now the Big Challenge”

Data Gaps: A Major Hurdle

Global Collaboration: Learning From Each Other

China’s Role: Leading by Example

From “Must-Do” to “Want to Do”

The Basics of TGV

TGV’s Core Processes

Why TGV Matters

What is TGV?TGV refers to vertical electrical interconnects through glass substrates. It’s seen as a key next-gen 3D integration tech, potentially replacing silicon-based TSV (Through Silicon Via).

Technological Iteration and Scenario Adaptation: The Value Breakthrough of Agile Innovation

Industrial Chain Collaboration: From Isolated Competition to Ecological Win-Win in Global Practices

China-Centric Strategy: Localized R&D Drives Global Value Output

Engineering for the Cryosphere

Mission-Critical Performance

Climate Resilience Lessons

Precision Engineering for Mission-Critical Control

Case Study: Breathing New Life into Legacy Plants

Industry Implications

Contact Us​

Menu

Search for products

What is TGV?
TGV refers to vertical electrical interconnects through glass substrates. It’s seen as a key next-gen 3D integration tech, potentially replacing silicon-based TSV (Through Silicon Via).

Contact Us