In the fields of high-temperature material performance research and phase transition mechanism analysis, traditional external heating methods often fail to combine precise micro-region temperature control with real-time observation.

 

CIQTEK, in collaboration with the Micro-Nano Center of the University of Science and Technology of China, has developed an innovative in-situ heating chip solution. By integrating MEMS heating chips with dual-beam electron microscopes, this solution enables precise temperature control (from room temperature to 1100°C) and micro-dynamic analysis of samples, offering a new tool for studying material behavior in high-temperature environments.

This solution uses the CIQTEK dual-beam SEM and specialized MEMS heating chips, with temperature control accuracy better than 0.1°C and temperature resolution better than 0.1°C. The system also features excellent temperature uniformity and low infrared radiation, ensuring stable analysis at high temperatures. The system supports various characterization techniques during heating, including micro-region morphology observation, EBSD crystal orientation analysis, and EDS composition analysis. This allows for a comprehensive understanding of phase transitions, stress evolution, and composition migration under thermal effects.

 

The system operates without breaking the vacuum, fulfilling the full process requirements for sample preparation and characterization (in-situ micro-region EBSD).

 

The integrated workflow design covers the entire process, from sample preparation (ion beam processing, nano-manipulator extraction) to in-situ welding and heating tests. The system supports multi-angle operation, featuring a 45° heating chip and a 36° copper grid position, which meet the complex experimental needs. The system has been successfully applied in high-temperature performance research of alloys, ceramics, and semiconductors, helping users gain deeper insights into material responses in real-world environments.

 

 

 

September 26–30, Wuhan | 2025 Chinese National Conference on Electron Microscopy
CIQTEK's eight major electron microscopy solutions will be showcased!

Is your hotel constantly losing towels, sheets, and robes? Are your staff spending hours counting linen instead of helping guests? You're not alone. Linen loss is a multi-billion dollar problem for the hospitality industry. But what if you could turn invisible inventory into a smart, manageable asset?

The answer lies in RFID laundry tags, specifically rugged ones like our TT7015s. Here’s how they create a smarter, more profitable hotel operation:

1. Slash Inventory Shrinkage: With a unique ID on every item, you know exactly what you have and where it is. Suddenly, those "lost" pool towels magically reappear. This direct loss prevention can save thousands per year.

2. Eliminate Manual Counting: Imagine doing a full inventory of your laundry room in under a minute. With a handheld UHF RFID reader, your staff can scan an entire cart without moving a single sheet, freeing them for guest-facing tasks.

3. Extend Linen Lifespan: The TT7015s is built to last over 200 washes. By tracking wash cycles, you can retire items before they become threadbare and ruin your guest experience, optimizing your purchasing budget.

4. Streamline Laundry Workflow: Automate the sorting process. Clean items can be automatically sorted by type and destination (e.g., "Spa Towels," "King Bed Sheets"), drastically reducing labor costs and speeding up turnaround.

5. Data-Driven Decisions: How many times does a sheet typically get used before it's replaced? Now you have the data. Make smarter purchasing decisions, negotiate better with suppliers, and finally prove your ROI on linen spend.

Implementing RFID for hotel linen management isn't just about technology; it's about empowering your team, impressing your guests with flawless service, and protecting your bottom line. It’s a simple stitch that strengthens your entire operation.

The IOTE 2025 Expo in Shenzhen was a whirlwind of RFID and IoT innovation.  While the exhibition halls buzzed with the latest hardware, the true pulse of strategic collaboration often beats in the conference rooms alongside such mega-events.

 

The WAIA (World AIoT Innovation Alliance) Summit on August 27th offered precisely this invaluable platform.  Focusing on "Global AIoT Market Trends & Strategic Collaboration," the summit gathered international AIoT association leaders, operators, and researchers.  The agenda was rich with insights into regional market trends, featured project releases, and best practice case studies crucial for anyone invested in the future of Intelligent Connectivity.

A key highlight was the panel discussion on "AIoT Innovation Across Regions & Industries," addressing pressing trends, challenges, and opportunities.  The subsequent launch of the WAIA Global AIoT Expert Group and the signing of MoUs underscored a collective drive towards a more integrated global AIoT ecosystem.

 

For companies like ours, SeeMore IoT, which focuses on precision-engineered RFID hardware solutions for Industrial IoT, smart retail, and logistics, events like the WAIA Summit are indispensable.  It’s where we move beyond mere transactions to form the strategic partnerships essential for navigating the complex landscape of digital transformation.  The exclusive networking cocktail reception was particularly fruitful for connecting with fellow pioneers and discussing real-world applications of RFID in smart parking, asset tracking, and supply chain management.

 

Keywords: WAIA Summit 2025, AIoT ecosystem, global AIoT collaboration, IoT market trends, strategic partnerships in IoT, Industrial IoT solutions, intelligent connectivity, RFID hardware solutions, smart parking RFID, digital transformation partner

The recent integration of Impinj Gen2X technology into Avery Dennison’s RFID inlays is more than an upgrade—it’s a game-changer. For businesses struggling with inaccuracy, slow scans, or high-loss environments, this collaboration offers a breakthrough.

What’s New?

Gen2X enhances RFID tag performance in three key ways:

• Speed: Scan thousands of items per second, even when stacked or hidden.

• Accuracy: Achieve 99.9% read rates despite metal or liquid interference.

• Cost-Efficiency: Smaller antenna designs lower tag costs, critical for high-volume applications.

Why It Matters for You

• Retailers: Simplify self-checkout and reduce theft with reliable item-level tracking.

• Logistics Managers: Track pallets or individual items in real time, eliminating manual errors.

• Food Suppliers: Cut waste with expiry-date monitoring and dynamic pricing.

The Bottom Line

Avery Dennison’s move makes advanced RFID stickers accessible to all. Whether you’re in retail, logistics, or food services, now is the time to explore Gen2X-powered RFID solutions for a smarter, more connected operation.

CIQTEK has introduced its next-generation 12-inch wafer scanning electron microscope (SEM) solution, designed to meet the demands of advanced semiconductor manufacturing processes. Offering full-wafer inspection without the need for rotation or tilting, this innovative solution ensures high-resolution, non-destructive analysis to support critical process development.

Equipped with an ultra-large travel stage (X/Y ≥ 300 mm), the system provides complete coverage of 12-inch wafers, eliminating the need for sample cutting or transfer. This ensures true "original size, original position" observation. With a Schottky field emission electron gun, it achieves a resolution of 1.0 nm at 15 kV and 1.5 nm at 1 kV, minimizing electron beam damage, making it ideal for sensitive materials and structures.

 

 

Key features include:

• Ultra-large travel stage (X/Y > 300 mm) for full-wafer inspection

• High-resolution imaging: 1.0 nm at 15 kV and 1.5 nm at 1 kV

• Automated loading and optical navigation system for fast wafer exchange and precise positioning

• Intelligent software for auto-focus, astigmatism correction, and multi-format image output

 

CIQTEK's 12-inch wafer inspection SEM is more than just an observation tool; it's a critical instrument driving higher yields and smaller nodes in semiconductor manufacturing.

 

September 26–30, Wuhan
CIQTEK will unveil eight cutting-edge electron microscopy solutions at the 2025 Chinese National Conference on Electron Microscopy!

In modern communication systems, frequency stability is critical for ensuring reliable performance. Transmitters rely on oscillators to generate the carrier frequency, but not all oscillators deliver the same level of precision. Historically, LC oscillators were used to establish transmitter frequencies, yet they suffer from several drawbacks. Today, crystal oscillators dominate because they provide far greater stability, accuracy, and resistance to environmental changes.

                   

One of the most important reasons for preferring crystal oscillators is frequency precision. LC oscillators depend on inductors and capacitors, which are highly sensitive to temperature fluctuations and component tolerances. A small variation in capacitance or inductance can cause frequency drift, leading to misalignment in communication channels. By contrast, a quartz crystal oscillator uses the piezoelectric property of quartz, maintaining an exceptionally stable oscillation with minimal drift. This level of accuracy is crucial in transmitters used in data centers and enterprise networks, where switches act as the backbone of high-speed communication.

 

Switches form the core of data center infrastructure, interconnecting servers, storage systems, and enterprise applications. These networks handle massive amounts of real-time data, requiring tight synchronization to prevent packet loss or jitter. When frequency sources fluctuate, synchronization errors occur, directly impacting latency and throughput. Crystal oscillators mitigate this risk by ensuring that every transmitted signal aligns precisely with system timing requirements. As a result, they are widely used in Ethernet switches, routers, and optical communication modules.

 

Another advantage of crystal oscillators lies in their long-term stability and reliability. LC circuits degrade over time as capacitors age or inductors lose magnetic efficiency. For mission-critical systems such as telecommunications, cloud platforms, and financial trading networks, downtime or data inconsistency caused by unstable frequencies is unacceptable. Quartz crystals, however, can maintain their performance over years, ensuring consistent transmitter frequency control without frequent recalibration.

 

The noise performance of crystal oscillators also outshines LC designs. Low phase noise is particularly important for modern digital communication systems that employ advanced modulation schemes. Any excess jitter introduced by the oscillator can compromise bit error rates, leading to degraded performance. Crystal oscillators reduce phase noise significantly, supporting applications from 5G base stations to fiber-optic backbones.

 

Additionally, crystal oscillators offer compact form factors and integration flexibility. With the increasing demand for high-density networking equipment, space-efficient designs are essential. Crystals can be packaged in small enclosures, integrated into clock modules, or combined with temperature-compensation circuits (TCXO) for even tighter stability. This makes them highly adaptable for switches in dense server racks where both performance and size are critical.

 

While LC oscillators played an early role in frequency generation, their limitations in stability, accuracy, and environmental sensitivity restrict their application in modern transmitters. Crystal oscillators, by contrast, deliver unmatched frequency accuracy, stability, low phase noise, and long-term reliability. For systems at the heart of enterprise and data center networks—such as high-performance switches—these qualities are indispensable. They ensure that data flows remain synchronized, reliable, and efficient in an era where every millisecond of delay matters.

In the fields of life sciences, biomedicine, food inspection, and soft matter research, achieving high-resolution imaging of hydrated and beam-sensitive samples has always been a major challenge. Conventional sample preparation methods, such as chemical fixation, dehydration, and drying, often result in shrinkage, deformation, or structural damage, leading to results that deviate from the true state of the sample.

 

Leveraging its advanced scanning electron microscopy technology, CIQTEK has introduced the Cryo-SEM Solution, which integrates low-temperature freezing and vacuum transfer. This enables in-situ, non-destructive, and high-fidelity microscopic observation of biological and sensitive samples, truly “freezing” the microscopic details of life.

 

With liquid-nitrogen slush rapid-freezing technology, samples can be vitrified instantly at -210 °C, preserving their original morphology and chemical composition to the greatest extent. The integrated cryo-preparation system combines freeze-fracture, sublimation coating, and low-temperature transfer, avoiding the complexity and potential errors of conventional manual preparation. Throughout the entire process, samples are maintained under cryogenic vacuum conditions and transferred to the SEM cryo-stage, where high-resolution imaging at -180 °C effectively suppresses electron beam damage and significantly improves image quality.

 

Cryo-prepared boxwood leaf showing intact vein structures, while the untreated sample exhibits severe shrinkage.

 

Yogurt

 

Mold

Cryo-prepared yogurt sample clearly reveals protein networks and fungal hyphae.

 

In addition, the system offers strong compatibility, adaptable across CIQTEK's full range of SEMs and dual-beam FIBSEM systems, meeting diverse needs from routine observation to advanced analysis.

 

The CIQTEK Cryo-SEM Solution is more than just a set of instruments. It embodies a scientific approach dedicated to faithfully restoring the microscopic world. It empowers researchers to overcome technical limitations, capture critical details at the micro scale of life, and drive both fundamental research and applied development to new heights.

 

September 26–30, Wuhan

At the 2025 Chinese Electron Microscopy Academic Conference, CIQTEK will unveil eight cutting-edge EM solutions.

Stay tuned!

Dear Industry Professionals and Partners,

We are thrilled to extend a formal invitation to the upcoming SPS Atlanta, taking place from September 16-18, 2025 at 1517 booth, Atlanta, Georgia USA. 

The 2024 product catalog and the latest industry catalog have been updated on the WAIN official website (https://www.wainelectric.com/download). We welcome everyone to browse and download them.

CIQTEK is pleased to announce the successful installation and training of the FIBSEM DB550 at our Korean distributor GSEM’s Electron Microscope Center. This milestone marks an important step in expanding access to advanced focused ion beam scanning electron microscope (FIBSEM) technology in South Korea.

 

 

The DB550 combines high-resolution imaging with precise ion beam milling, enabling researchers to perform 3D reconstruction, cross-sectional analysis, and nanoscale material modification with efficiency and accuracy. With these capabilities, the system opens new possibilities for semiconductor analysis, materials science, and life science research.

Following installation, CIQTEK engineers provided hands-on training to the GSEM team, covering both standard workflows and advanced applications. The interactive sessions ensured that users gained practical experience in operating the instrument, from sample preparation to high-resolution imaging and data analysis. The enthusiasm and engagement of the GSEM team highlighted the strong potential for the DB550 to support diverse research projects at the center.

 

 

This collaboration reflects CIQTEK’s commitment to working closely with partners worldwide. By equipping GSEM’s facility with the DB550, we are not only strengthening our presence in the Korean market but also helping local researchers gain access to cutting-edge tools for scientific innovation.

We look forward to seeing the exciting results that GSEM’s Electron Microscope Center will achieve with the DB550, and we remain committed to providing ongoing technical support and collaboration.