Is Your UPS System Secretly Costing You Money? Here’s How Active Harmonic Filters Can Help

Your UPS (Uninterruptible Power Supply) is supposed to be your safeguard—the insurance policy that keeps your critical operations running when the grid fails. But here's the irony: that very same UPS might be quietly damaging your equipment, inflating your electricity bills, and threatening the stability of your entire electrical system.

How? Through harmonic distortion.

Let's break down the power quality problems UPS systems create, how Active Harmonic Filters (AHF) solve them, and—most importantly—what you need to watch out for when deploying AHF in UPS environments.

The Problem: What UPS Systems Do to Your Power Quality

UPS systems are non-linear loads. Unlike simple resistive loads (like a heater), UPS rectifiers draw current in short, sharp pulses rather than a smooth sinusoidal wave. This pulsing action injects harmonic currents back into your electrical distribution system.

Here's what that actually means for your facility:

1. High Current Harmonic Distortion (THDi)

A standard 6-pulse rectifier UPS typically produces total harmonic current distortion (THDi) of 30% or more. The dominant harmonics are the 5th, 7th, 11th, and 13th orders-. Even 12-pulse UPS systems, while better, still generate significant 11th and 13th harmonics

What this does to you: These harmonic currents don't do useful work—they just circulate in your system, heating up wires and transformers.

2. Low Input Power Factor

A 6-pulse UPS typically operates at a power factor of only 0.75 to 0.8. That means for every 100 kVA of apparent power you're paying for, only 75-80 kVA is actually doing useful work. The rest is wasted.

What this does to you: You're paying the utility for power you can't use. If you're running on a diesel generator, the situation is even worse—the generator may need to be 2.5 to 3 times the UPS rating just to handle the harmonic currents.

3. Voltage Distortion

Harmonic currents flowing through system impedance create voltage distortion. This doesn't just affect the UPS—it affects every piece of equipment connected to the same bus

What this does to you: Sensitive equipment (think: servers, PLCs, medical devices, laboratory instruments) can malfunction, give false readings, or shut down unexpectedly.

4. Overheating and Premature Failure

Harmonic currents cause extra heating in transformers, cables, capacitors, and motors. Capacitor banks are particularly vulnerable—they can suffer severe breakdowns due to harmonic overloading.

What this does to you: Equipment fails earlier than expected. Transformers derate. Circuit breakers trip for no apparent reason. And you're left scrambling to replace expensive components.

5. Neutral Overloading

In three-phase four-wire systems, triplen harmonics (3rd, 9th, 15th, etc.) don't cancel in the neutral—they add up.

What this does to you: Neutral conductors can overheat and become a fire hazard, even when phase currents are balanced.

The Solution: How Active Harmonic Filter (AHF) Tackles Each Problem

An Active Harmonic Filter is not a passive "set it and forget it" device. It's a dynamic, intelligent system that continuously monitors your electrical waveform and actively cancels harmonics in real time.

Here's how our AHF addresses each UPS-related power quality issue:

✅ Problem: High THDi (30%+)

AHF Solution: Our AHF detects harmonic currents in real time and injects an exact opposite (counter-phase) current to cancel them out-. The result? THDi can be reduced to below 5%. In real-world UPS applications, we've seen THDi drop from 47.1% to just 4.5%.

✅ Problem: Low Power Factor (0.75-0.8)

AHF Solution: Beyond harmonic filtering, our AHF provides dynamic reactive power compensation. It can correct power factor to 0.99 or better. That means you stop paying for power you don't use.

✅ Problem: Voltage Distortion

AHF Solution: By eliminating harmonic currents at the source, our AHF prevents voltage distortion from occurring in the first place. Clean current means clean voltage—for every device on your bus.

✅ Problem: Overheating and Equipment Failure

AHF Solution: Clean power means less heating. Less heating means longer equipment life. Transformers run cooler. Cables stay within rating. Capacitor banks stop failing prematurely.

✅ Problem: Neutral Overloading

AHF Solution: Our AHF compensates for 3rd harmonics and other triplen orders, eliminating the neutral overload problem.

Key AHF Features for UPS Environments

• Compensation range: 2nd to 50th harmonic order

• Response time: ≤5 milliseconds

• THDi after compensation: ≤5%

• Power factor after compensation: ≥0.99

• Modular design for easy scalability

• Three-level inverter topology for high efficiency

Questions & Answers: What You Need to Watch Out For

Deploying AHF in UPS environments is highly effective—but like any power quality solution, there are considerations you need to be aware of. Here are the most common questions we get from customers:

Q1: Can AHF cause resonance problems with existing capacitor banks?

A: Yes, this is a real concern. UPS systems often have power factor correction capacitors, and these capacitors can create resonance conditions when combined with system impedance. Resonance can actually amplify harmonic distortion rather than reduce it.

Our approach: Our AHF is designed with adaptive control algorithms that actively avoid resonance. Unlike passive filters (which have fixed tuning points that can resonate), our AHF dynamically adjusts its compensation to prevent harmonic amplification We also recommend a thorough site survey before installation to identify any resonance risks.

Q2: What about "mis-compensation" or "over-compensation"? I've heard horror stories.

A: This is a valid concern—some older or lower-quality AHF products have been known to mis-compensate, causing main input breakers to trip or equipment to malfunction. This typically happens when the AHF's response time is too slow (e.g., 40ms or more).

Our advantage: Our AHF has a response time of ≤5ms—eight times faster than the problematic products. This means it tracks load changes in real time without "overshooting" or "missing" the harmonics. The advanced DSP+FPGA controller ensures precise, stable compensation.

Q3: Where should I install the AHF—at the UPS or at the main distribution board?

A: This depends on your specific setup. There are two primary approaches

• Load-side (local) installation: Install the AHF right at the UPS. This prevents harmonics from ever entering your distribution system. It's ideal when one or a few large UPS units are the main harmonic sources.

• Source-side (central) installation: Install a large AHF at the main incoming supply. This provides system-wide protection and is more cost-effective when you have many distributed harmonic sources.

Our recommendation: For most UPS-heavy environments, we recommend a hybrid approach—central AHF for baseline harmonics, plus dedicated AHF units for large UPS systems.

Q4: Does AHF affect the UPS itself? Could it interfere with UPS operation?

A: No—when properly installed, AHF operates in parallel with the UPS, not in series It doesn't alter the UPS's internal control or operation. The AHF simply "sees" the harmonic currents and cancels them at the point of connection. The UPS continues to function exactly as designed—just with cleaner power on both sides.

Q5: What happens if the AHF fails? Do I lose my entire harmonic protection?

A: This depends on your installation architecture. If you rely on a single central AHF, a failure does mean losing harmonic protection for the whole system.

Our solution: Our AHF features a modular design. You can deploy multiple modules in parallel—if one fails, the others continue operating. For critical UPS environments, we recommend N+1 redundancy to ensure uninterrupted harmonic protection.

Q6: Can AHF handle partial-load conditions? UPS systems often run well below rated capacity.

A: Absolutely—and this is actually where AHF outshines passive filters. Passive filters are tuned for specific load conditions and become less effective at partial loads. Our AHF continuously adapts to changing load conditions. Whether your UPS is at 10% load or 100% load, the AHF tracks and compensates in real time.

Note: UPS systems operating at very low loads (e.g., 6%) can still have high THDi (around 30%)-. Our AHF handles this just as effectively as full-load conditions.

Q7: Is AHF worth the investment for a single UPS?

A: It depends on the UPS size and your facility's sensitivity to power quality issues. For a large UPS (100kVA+) serving critical loads, the answer is almost always yes. Consider:

• Savings from reduced electricity bills (5-12%)

• Extended equipment life (transformers, cables, capacitors)

• Avoided downtime costs

• Compliance with utility harmonic standards (like IEEE 519)

In many cases, the payback period is less than 18 months.

Our team specializes in power quality solutions for critical facilities. We understand the unique challenges of UPS environments and can provide tailored recommendations.

Contact us sales@yt-electric.com today to schedule a power quality audit and see how much you could be saving.

From August 2 to 6, 2026, the 65th Annual Rocky Mountain Conference on Magnetic Resonance (RMCMR 2026) was held at the Snowbird Resort & Conference Center in Snowbird, Utah, USA. CIQTEK participated at Booth 8, presenting products and upgrade solutions for Electron Paramagnetic Resonance (EPR) and Nuclear Magnetic Resonance (NMR) research.

RMCMR comprises the EPR Symposium and the Solid-State NMR Symposium. The conference focuses on advances in magnetic resonance and its applications in biological, chemical, engineering, and quantum information sciences, providing a platform for scientific exchange and professional interaction.

Oral Presentation: AI-Enhanced EPR Spectral Processing

On Thursday, August 6, at 9:40 AM, CIQTEK Magnetic Resonance Solution Manager Dr. Jeff Sun delivered an oral presentation in the 2026 EPR Tentative Program session. Titled "Next-Generation EPR: Combining High-Performance Q Band Instrumentation with Artificial Intelligence Enhanced Spectral Processing," the talk demonstrated how CIQTEK integrates high-frequency Q-band hardware with AI-driven algorithms to revolutionize spectral resolution and data efficiency.

Showcasing the l Magnetic Resonance Portfolio

At Booth 8, CIQTEK's display materials covered a range of magnetic resonance products and upgrade solutions, including:

· EPR modernization solutions for existing EPR systems;

· Pulsed EPR product series, including EPR100 and EPR-Q400;

· Continuous-wave EPR product series, including EPR200M and EPR300;

· Solutions related to 400 MHz and 600 MHz NMR spectrometers;

· A compatible upgrade solution for existing NMR systems, designed for 300–600 MHz magnets.

CIQTEK thanks the RMCMR organizing committee and looks forward to continued engagement with the global magnetic resonance research community at future scientific events.

CIQTEK Participates in Microscopy & Microanalysis 2026

August 12, 2026

From August 2 to 6, CIQTEK participated in Microscopy & Microanalysis 2026 (M&M 2026) at the Baird Center in Milwaukee, Wisconsin, USA. At Booth 718, CIQTEK presented its SEM3300 tungsten filament scanning electron microscope and met with conference attendees.

M&M is an annual forum for the science and technology of microscopy and microanalysis. During the event, CIQTEK displayed the SEM3300 tungsten filament SEM at its booth. Through product materials, image displays, and on-site conversations, the team introduced CIQTEK's electron microscopy products and application directions to visitors.

On August 3, CIQTEK delivered a Vendor Tutorial titled:

Unlocking the Power of Unique High-Speed Scanning Electron Microscopy with No Compromise of Superb Imaging Resolution at Low kV for Large Scale Volume Microscopy Applications from CIQTEK

The presentation focused on high-speed scanning electron microscopy for large-scale volume microscopy applications. Attendees joined the presentation and exchanged ideas with the CIQTEK team at the booth.

Throughout the conference, the CIQTEK team welcomed visitors and held conversations on electron microscopy products and related applications. We thank the M&M 2026 organizers and everyone who visited the CIQTEK booth. CIQTEK will continue to develop electron microscopy technologies and products for scientific and industrial users.

When selecting a magnetic track lighting system for an international project, lighting performance is only one part of the decision. Certification compliance is another important factor that affects whether a product can be approved, installed, and used in different markets.

Unlike traditional lighting products, a magnetic track lighting system usually includes multiple components, including track rails, LED modules, drivers, connectors, and control devices. Each component may have different requirements depending on the target market and project specifications.

Understanding certification requirements before starting a project can help reduce approval delays, avoid product changes, and ensure smoother cooperation between manufacturers, designers, and contractors.

Why Certification Matters

Lighting products are directly connected to electrical systems, so safety compliance is a key consideration for international projects.

For distributors, contractors, and project owners, certifications provide confidence that products have been evaluated according to relevant safety standards.

Certification requirements may involve:

• Electrical safety
• Product construction
• Component compatibility
• Installation conditions
• Regional regulations
• Project specifications

Different countries and regions may follow different standards. A lighting product designed for one market may require additional evaluation before being used in another.

Common Certifications

The required certifications for magnetic track lighting depend on the destination market and application.

ETL Certification

For projects in the United States and Canada, ETL certification is one of the most commonly requested safety certifications for lighting products.

The ETL mark is issued by Intertek after products are tested according to applicable safety standards.

For magnetic track lighting systems, evaluation may include:

• Electrical safety
• Temperature performance
• Mechanical construction
• Component suitability
• Installation requirements

ETL certification can help lighting products meet the expectations of North American distributors, contractors, and commercial projects.

UL Certification

UL certification is another widely recognized safety certification in North America.

Depending on the product type and application, lighting products may need to comply with relevant UL standards.

For many projects, customers may accept either UL or ETL certification depending on their specifications and local requirements.

CE Certification

For European markets, CE compliance is commonly required.

CE requirements may include:

• Electrical safety
• Electromagnetic compatibility (EMC)
• Low voltage requirements
• Environmental requirements such as RoHS

Products intended for European projects should be evaluated according to the applicable regulations.

Other Certifications

Some projects may require additional certifications depending on the country or application.

Examples include:

• CB certification for international markets
• FCC requirements for products with wireless communication functions
• SAA certification for Australia and New Zealand

The correct certification depends on where the product will be installed and how it will be used.

System Components

A common misunderstanding is that only the LED fixture requires certification. In reality, a complete magnetic lighting system consists of multiple components that work together.

Track Rail

The track is not only a mounting structure. It also contains electrical conductors that deliver power to the lighting modules.

Certification considerations may include: electrical insulation, conductor design, mechanical strength, installation method.

Light Modules

Magnetic track light fixtures can include different modules, such as: spotlights, linear lights, pendant lights, wall washers, decorative fixtures. Each type may have different requirements related to electrical design, thermal management, and construction.

Drivers

The driver is one of the most important components in a magnetic track lighting system.

The selected driver affects: system safety, output voltage, power capacity, dimming performance, control compatibility.

For example, 24V and 48V magnetic track lighting systems require suitable drivers that match the fixture specifications.

Controls

Modern magnetic lighting systems increasingly support advanced control solutions, including:

• DALI
• 0-10V
• TRIAC
• Zigbee
• Smart lighting platforms

For projects requiring smart control or tunable white lighting, the compatibility between fixtures, drivers, and control systems should be confirmed during the design stage.

ETL and Magnetic Track Lighting

ETL certification does not always mean that every possible product combination is automatically covered.

A magnetic track lighting system may include different track models, fixture types, drivers, and configurations. Certification coverage depends on the products and components that have been evaluated.

Before starting a project, it is important to confirm:

1. Which models are included in the certification
2. Which components are approved
3. Which drivers are specified
4. Whether new configurations require additional evaluation

This is especially important for customized projects where new fixture designs or electrical configurations may be introduced.

Before purchasing certified magnetic track lighting, project buyers should confirm several details.

Certification Scope

Check whether the certification applies to: complete systems, specific fixtures, track rails, drivers, accessories

Market Requirements

Certification requirements vary by country.

A product designed for North America may need different documentation compared with products intended for Europe or other regions.

Product Changes

Changes after certification may affect compliance, including: driver replacement, track structure changes, new fixture designs, electrical modifications.

Confirming these details early can help avoid delays during project approval.

Project Impact

Certification is not only a compliance requirement. It can also influence the overall project process.

For designers and contractors, certified lighting products can provide:

• Easier project approval
• Clear technical documentation
• Reduced compliance risks
• More reliable product selection

For manufacturers, maintaining consistent production is equally important because certified products need to match the approved design and components.

FAQ

Is ETL certification required for magnetic track lighting in the US?

ETL certification is commonly requested for lighting products used in US projects, especially commercial and architectural applications. The exact requirement depends on the project specifications and local regulations.

Does the driver need certification for magnetic track lighting?

The driver is an important part of the system and needs to meet applicable safety requirements. The driver specification should be confirmed together with the track and lighting modules.

Are ETL and UL the same certification?

ETL and UL are both recognized safety certification marks in North America. They are issued by different testing organizations but both indicate compliance with applicable safety standards.

What certifications are needed for magnetic track lighting in Europe?

European projects commonly require CE compliance, including applicable requirements related to electrical safety, EMC, and environmental regulations.

Do customized magnetic track lighting products need new certification?

Not always. Minor changes may be evaluated differently depending on their impact on safety performance. However, customized tracks, new fixture designs, or different electrical configurations should be reviewed before production.

Magnetic track lighting has become a popular choice for modern residential, commercial, and hospitality projects because of its modular design and flexible lighting options. However, when selecting a magnetic lighting system, one important decision is often overlooked: choosing between a 24V and 48V system.

Although both solutions can support magnetic track fixtures, the difference in voltage affects the lighting design possibilities, control options, fixture development, and overall project planning.

Why Does Voltage Matter in Magnetic Track Lighting?

Many people consider voltage only as an electrical specification, but in a magnetic lighting system, it influences the entire design approach.

The operating voltage affects:

• fixture design flexibility
• driver configuration
• control compatibility
• system scalability
• project requirements

Choosing the right voltage at the beginning can help avoid limitations later during installation or future upgrades.

24V Magnetic Track Lighting: Flexible and Widely Used

24V magnetic track lighting is one of the most common solutions for interior lighting projects.

Because 24V systems are widely adopted, they offer a broad selection of compatible magnetic fixtures, including: spotlights, linear lights, pendant lights, wall washers, decorative modules.

For many residential projects, retail spaces, and commercial interiors, 24V magnetic track lighting provides a practical balance between flexibility, fixture variety, and cost efficiency.

It is especially suitable when the project requires different lighting modules combined on the same track system.

48V Magnetic Track Lighting: Designed for Advanced Lighting Applications

48V magnetic track lighting is increasingly used in projects that require more advanced lighting functions.

Compared with traditional low-voltage systems, 48V solutions provide more possibilities for:

• smart lighting integration
• tunable white lighting
• advanced control systems
• compact fixture design

For example, a 48V magnetic lighting system can be combined with smart controls such as Tuya, DALI, or Zigbee to create adjustable lighting scenes and color temperature control.

This makes it suitable for projects where lighting is not only functional but also part of the overall user experience.

24V vs 48V Magnetic Track Lighting: Key Differences

Which Voltage Is Better for a Project?

There is no single answer because the right choice depends on the project requirements.

A 24V magnetic track system may be a better choice when:

the project needs various standard fixtures

cost efficiency is important

conventional dimming is sufficient

the lighting design is relatively straightforward

A 48V magnetic track system may be more suitable when:

smart control is required

tunable white lighting is needed

the project focuses on architectural lighting design

future lighting upgrades are expected

The best solution is not determined only by voltage, but by the complete lighting system design.

How Does Voltage Affect Smart Magnetic Lighting?

Modern lighting projects increasingly require more than simple on and off control.

A smart magnetic lighting system may need to support:

1. brightness adjustment
2. color temperature adjustment
3. lighting scenes
4. remote control
5. building automation systems

For tunable white applications, a 48V magnetic track system can provide a suitable platform for integrating technologies such as:

• DALI
• Zigbee
• Tuya
  

This allows lighting to adapt to different environments, from warm residential atmospheres to brighter commercial settings.

How Should Designers Choose Between 24V and 48V?

Before selecting a magnetic track lighting system, designers should consider:

Project Type

Residential spaces may prioritize simplicity and flexibility, while hotels, offices, and commercial projects may require more advanced control.

Lighting Requirements

A project focused on basic illumination may not require the additional capabilities of a 48V system. However, projects requiring dynamic lighting effects may benefit from a more advanced solution.

Future Expansion

A lighting system should not only meet current requirements but also consider possible future changes, such as adding smart controls or changing lighting scenes.

Can 24V and 48V Magnetic Track Lighting Use the Same Fixtures?

Generally, magnetic track systems are designed around specific electrical configurations. Fixtures, tracks, and drivers need to be matched according to the same system requirements.

Before combining components, it is important to confirm compatibility between: track voltage, fixture voltage, driver output, control system

Using matched components ensures reliable performance and proper operation.

FAQ

Is 48V magnetic track lighting brighter than 24V magnetic track lighting?

Not necessarily. Brightness depends on factors such as LED power, optical design, fixture efficiency, and lighting distribution. Voltage itself does not determine brightness.

Is 48V magnetic track lighting safer than 24V?

Both 24V and 48V systems are low-voltage lighting solutions. The overall safety depends on the complete system design, including the driver, installation, and certification requirements.

Can 48V magnetic track lighting support color changing?

48V magnetic track lighting can support advanced lighting functions such as tunable white when paired with compatible fixtures, drivers, and control systems.

Which voltage is better for commercial projects?

Both can be used for commercial projects. The better choice depends on the required lighting functions, control system, project size, and design goals.

Can a magnetic track lighting system be upgraded from 24V to 48V?

Usually, 24V and 48V systems require different compatible components. A voltage change normally requires reviewing the track, fixtures, drivers, and control system.

About the Conference

Innovation at the Booth

Don't Miss Our Talk

• Session: 2026 EPR Tentative Program
• Topic: Next-Generation EPR: Combining High-Performance Q Band Instrumentation with Artificial Intelligence Enhanced Spectral Processing
• Time: Thursday, August 6, 09:30 AM
• Highlight: Learn how CIQTEK integrates high-frequency Q-Band hardware with AI algorithms to revolutionize spectral resolution and data efficiency. This presentation will showcase real-world examples of how AI-driven spectral processing can accelerate data interpretation, reduce analysis time, and unlock new insights from complex EPR spectra—empowering researchers to push the boundaries of what is possible in magnetic resonance research.

Why CIQTEK?

Event Details

Vendor Tutorial: Unlocking the Power of Unique High-Speed SEM

• Date: Monday, August 3, 2026
• Time: 5:45 PM – 6:45 PM
• Title: Unlocking the Power of Unique High-Speed Scanning Electron Microscopy with No Compromise of Superb Imaging Resolution at Low kV for Large Scale Volume Microscopy Applications from CIQTEK

Poster Presentation

What to Expect at Booth 718

• On-site technical discussions with CIQTEK application specialists and service engineers
• Research solution consulting tailored to your specific scientific needs
• Live demonstrations of CIQTEK's tungsten filament SEM
• Guidance on system selection from routine imaging to advanced large-scale volume microscopy

Connect with CIQTEK in Milwaukee

Contact CIQTEK

Event Overview

CIQTEK Booth Highlights

• SEM5000X Ultra-High Resolution FESEM: CIQTEK's flagship field emission scanning electron microscope, featuring an advanced electron optical system delivering ultra-high resolution imaging, ideal for precision nano-structural analysis in materials science, semiconductors, and life sciences.
• HEM6000 High-Speed SEM: A high-throughput workstation engineered for large-area and batch inspection, with outstanding high beam current, exceptional stability, and automated workflows, significantly accelerating imaging speeds for industrial quality control and advanced research.

Company Presentation

Key Presentation Topics

• Powerful High-Speed Imaging Technology Bundle: Integrating high brightness large beam current electron source, high-speed scanning driver, high-speed electrostatic beam deflection, high-speed image processing, high-speed signal electron acquisition, high-speed video signal transmission, high-speed motion specimen stage, and highly automated workflow — delivering faster imaging speed, longer continuous imaging hours, and intelligent workflow.
• Automatic Sample Changing System: Featuring plasma cleaner functionality for efficient sample preparation and handling.
• HEM6000 Specifications: Detailed technical parameters including resolution (1.5 nm @ 1 kV SE, 1.3 nm @ 3 kV SE, 1.5 nm @ 15 kV BSE), magnification (66× – 1,000,000×), acceleration voltage (100 V – 30 kV), sample stage capabilities, and acquisition speed (10 ns/pixel, 2×100M pixels/s).
• CIQTEK Headquarter: Located at No. 1969, Kongquetai Road, High-tech Zone, Hefei, Anhui, China. The facility covers a site area of 76,000 m² with a total floor area of 280,000 m², houses over 800 employees, and includes a 4,000 m² cleanroom (Class 10,000, partially Class 100).

European Team Support

Conclusion

About CIQTEK

CIQTEK has successfully wrapped up its participation in EUROMAR 2026, one of the world's premier international conferences dedicated to magnetic resonance science. Over the course of the event, our team connected with leading researchers, spectroscopists, and industry experts from across the globe at Booth #13, showcasing our latest advances in Electron Paramagnetic Resonance (EPR) and Nuclear Magnetic Resonance (NMR) instrumentation.

Showcasing the Full Magnetic Resonance Portfolio

At the CIQTEK booth, attendees explored our complete magnetic resonance lineup, including:

• CIQTEK EPR Spectrometer Family — from compact benchtop systems (EPR200M) to advanced X-Band (EPR100/EPR300), Q-Band (EPR-Q400), and ultra-high-frequency W-Band (EPR-W900) instruments, covering the full spectrum of research needs from routine analysis to cutting-edge pulsed EPR studies.
• Next-Generation Intelligent Liquid-State NMR Spectrometers — the CAN600 and CAN400, featuring high-precision digital control, wide dynamic range, automated tuning and sample handling, and an optional NMR AI assistant for a smarter, more efficient user experience.
• EPR Modernization Solutions — flexible upgrade pathways that breathe new life into legacy EPR systems, helping labs improve sensitivity and resolution while reducing cost and downtime compared to a full system replacement.

Poster Presentation: AI-Enhanced Spectral Analysis

CIQTEK also presented a poster titled "Next Generation EPR: Advanced X, Q, and W Band Instrumentation with AI Enhanced Spectral Processing," sparking engaging discussions with conference attendees on how AI-driven data processing is shaping the next generation of EPR research.

Meaningful Connections, Meaningful Science

Throughout the event, our team — including Zhiyu (Jeff) Sun, Kebiao Xu, Arvin Chen, and Stephen Su — engaged in in-depth conversations with researchers about their experimental challenges, exchanged insights on emerging trends in magnetic resonance technology, and welcomed valuable feedback from the global scientific community.

We extend our sincere thanks to the EUROMAR organizing committee and everyone who visited our booth for making this such a rewarding exchange. CIQTEK remains committed to advancing magnetic resonance technology and supporting the global research community — we look forward to our next opportunity to connect!

CIQTEK Successfully Concludes Participation at the 10th ARPE Summer School in France