How do you ensure rapid and reliable polymer identification in your process? Near-infrared (NIR) spectroscopy is a powerful, non-destructive technology for quality control, recycling, and in-line monitoring. But with various compact spectrometers on the market, choosing the right one for your specific setup is critical. Our new application note offers a direct performance comparison, using […]
In modern chemical and biotechnological industries, the ability to accurately monitor process streams in real-time is crucial for optimizing efficiency, ensuring quality, and maintaining safety. Traditional methods like chromatography, while precise, often involve time-consuming sample extraction and offline analysis, creating delays in process control. A more effective solution lies in bringing the analysis directly to […]
In the world of spectroscopy, the fiber optic probe is the critical link between the analyzer and the sample. The success of an entire analysis—impacting data quality, accuracy, and reproducibility—often hinges on selecting the appropriate probe for the specific application. With a vast array of sample types, environments, and analytical goals, making the right choice […]
The art photonics team is happy to announce that we will be attending ILMAC 2025, the leading Swiss trade fair for process and laboratory technology. We invite you to join us in Basel, Switzerland, from September 16-18, 2025, for what promises to be an exciting event for the future of industrial manufacturing. Meet Our CEO, […]
art photonics GmbH, founded in Berlin in September 1998, is one of the worldwide leaders in development and production of specialty fiber products for a broad spectrum from 300 nm to 16 µm. Unique technologies of Polycrystalline Mid InfraRed (PIR-) fibers and Metal coated Silica fibers are used for assembly of various spectroscopy probes for medical diagnostics and industrial process control, in volume production of fiber for medical and industrial lasers, for different fiber bundles, etc. Since January 2024 art photonics GmbH is a member of NYNOMIC GROUP.
How do you ensure rapid and reliable polymer identification in your process?
Near-infrared (NIR) spectroscopy is a powerful, non-destructive technology for quality control, recycling, and in-line monitoring. But with various compact spectrometers on the market, choosing the right one for your specific setup is critical.
Our new application note offers a direct performance comparison, using our Diffuse Reflectance Fiber Probe to analyze six common polymers. We investigated different spectroscopic methods to provide clear, actionable insights.
Key takeaways from our study:
Clear Discrimination: Both Fabry-Pérot and grating-based spectrometers can successfully discriminate between all six polymer classes.
Bulk vs. Granule: We found improved class separation in bulk measurements due to the averaging of scattering effects, a key consideration for in-situ analysis.
Performance Differences: While the Fabry-Pérot based spectrometer provided better class resolution in a simpler model, the grating-based system is often faster and better suited for rapid process control.
This research proves the feasibility of using compact spectrometers with fiber probes for robust polymer analysis.
Get the full data and determine the optimal setup for your application by reading the complete Application Note!
In modern chemical and biotechnological industries, the ability to accurately monitor process streams in real-time is crucial for optimizing efficiency, ensuring quality, and maintaining safety. Traditional methods like chromatography, while precise, often involve time-consuming sample extraction and offline analysis, creating delays in process control. A more effective solution lies in bringing the analysis directly to the process line.
Our latest application note demonstrates a powerful method for achieving this: using a fiber-optic Attenuated Total Reflection (ATR) probe for in-line Mid-Infrared (Mid-IR) spectroscopy.
The Mid-Infrared spectral region is often called the "molecular fingerprint" region because it contains unique absorption features corresponding to the fundamental vibrations of molecules. This allows for highly specific identification and quantification. Even molecules with similar structures, such as ethanol and methanol, exhibit distinct spectral signatures in this range, making it possible to differentiate and measure them accurately within a mixture.
Overcoming the Challenge of Liquid Analysis
Directly analyzing liquids, especially aqueous solutions, with traditional infrared spectroscopy can be challenging due to the strong absorption of water. This is where our fiber-optic ATR probe technology provides a significant advantage. The ATR technique allows for measurements to be taken directly within the liquid sample, regardless of its opacity or high absorption. By bringing the analysis directly into the process fluid, it enables continuous, real-time monitoring without the need for sampling or complex sample preparation.
A Case Study: Quantifying Ethanol and Methanol
In our study, we focused on simultaneously quantifying ethanol and methanol in a two-component aqueous solution. By connecting a diamond ATR fiber-optic probe to an FTIR spectrometer, we developed a robust calibration model. The results demonstrated exceptionally high accuracy, with a root mean square error of prediction below 0.15% for both alcohols.
This high level of precision highlights the suitability of the technology for demanding industrial applications, including the control of distillation processes. The use of fiber optics adds another layer of flexibility, allowing the spectrometer to be placed in a safe control room while the robust probe is integrated directly into the production pipeline.
This combination of Mid-IR spectroscopy and fiber-optic ATR probes provides a robust, accurate, and efficient solution for real-time process monitoring. It empowers industries to move beyond delayed, sample-based analysis and embrace continuous, in-line process control.
For a detailed look at the methodology and results, download our full application note.
art photonics GmbH is proud to announce a significant addition to our portfolio: the new FlexiRay® Square-Core Silica Laser Cable, engineered to enhance the performance and efficiency of diode laser light transmission.
While traditional round-core fibers have long been the industry standard, an increasing number of advanced applications demand a more specialized solution for beam shaping and power distribution. Our new FlexiRay® cables address these challenges by delivering capabilities that conventional round fibers cannot match.
Key advantages include:
Homogeneous Power Distribution: The square core geometry produces a highly uniform beam profile, which is critical for applications requiring consistent energy density.
Enhanced Coupling Efficiency: Power transfer from diode lasers and to square detectors is significantly improved, minimizing loss and maximizing system performance.
High Durability: These cables are designed to operate reliably in demanding environments, with a wide temperature range of -40°C to +130°C.
Built for reliability, FlexiRay® cables are terminated with D80 or HP-SMA connectors. Each connector features an integrated key, ensuring repeatable and secure alignment to maintain optimal performance. The entire assembly is protected by robust tubing, making it suitable for demanding medical, industrial, and scientific systems.
Recognizing that every application is unique, art photonics offers full customization for the FlexiRay® line. The fiber structure and overall cable configuration can be tailored to meet your specific project requirements.
If you are facing challenges with laser transmission or beam shaping, our team is ready to help. Contact us today to discuss your application and discover how our square-core fiber technology can provide the perfect solution.
We’re happy to introduce the newest member of the art photonics family: Dr. Eng. Krzysztof Inglot, who joins us as our new Sales Lead!
When we bring a new leader onto our team, we look for a special kind of drive. As an Ironman triathlete, Krzysztof knows all about endurance, strategy, and pushing past limits - qualities that are essential for leading in the world of advanced photonics. It’s this high-performance mindset that he brings to our team every single day.
Of course, his strengths go far beyond the racetrack. Krzysztof holds a PhD in Physics, giving him a fundamental understanding of the science that powers our innovation. He pairs this with over a decade of commercial leadership at industry giants like Thermo Fisher Scientific, where he successfully managed sales for the bioprocess sector across major international markets.
This powerful combination of deep scientific insight and proven sales leadership is a perfect fit for art photonics. Krzysztof will be key in connecting our innovative fiber solutions - from our unique PIR-fibers to custom fiber optic probes - with partners who need them most in medical diagnostics, bioprocessing, and Process Analytical Technology (PAT).
We’re especially excited about his focus on bringing advanced fiber optics to the bioprocessing community. Please join us in giving a warm welcome to Krzysztof. We can’t wait to see what we’ll achieve together!
We are thrilled to share some truly exciting news that gets to the very heart of who we are at art photonics. Our founder, Dr. Viacheslav Artyushenko, is being celebrated on the cover of MagnateView Magazine in a feature story titled, "A Visionary Path in Fiber Optics."
For anyone who knows the history of specialty fiber optics, Viacheslav’s name is synonymous with the pioneering spirit that defines our company. The article beautifully captures his journey, highlighting his groundbreaking work with Polycrystalline Infrared (PIR) fibers—a technology that opened up a new frontier in the infrared spectrum and laid the groundwork for our broad UV to Mid-IR product range.
Dr. Artyushenko’s core mission was always to transform cutting-edge science into commercial products and solutions. This foundational principle is what drove the development of our first advanced fiber optic applications for industrial process-control, environmental monitoring, and bio-medical technology. It is this legacy of turning brilliant research into tangible, real-world tools that he has gifted to us all.
This powerful foundation is not just a chapter in our history—it is the launchpad for our future. Today, under the leadership of our CEO, Dr. Stefanie Foerster, we are more committed than ever to realizing our vision: to be the preferred industry partner and a global leader in fiber optic solutions. Anchored in our strategic location in Adlershof and powered by our international research network, we continue to build upon Viacheslav's work, connecting people, intelligence, and technologies.
We couldn’t be prouder to see his dedication and impact recognized on such a prominent stage. His life's work is a testament to our ultimate goal of improving lives worldwide by bringing light to the forefront of analysis and treatment. Congratulations, Viacheslav, on this wonderful and well-deserved honor!
We invite you to delve into his inspiring story by reading the full article.
art photonics is looking for a Senior Product Line Manager to join our team in Berlin.
As a key member of our company, you will:
Develop and execute the product strategy for our leading-edge fiber optics.
Act as the crucial interface between R&D, sales, and our global customers.
Drive innovation and profitability with a direct reporting line to the CEO.
You should have a proven track record in technical product management and be fluent in both German and English.
If this sounds like the right challenge for you, we invite you to learn more and apply via the full job description linked here.
Summer Sale – special prices for a limited time!
art photonics GmbH invites researchers, process engineers, and OEM developers to take advantage of our exclusive summer promotion. For a short period, selected specialty fiber-optic products are available from stock at substantially reduced prices.
What is included:
High-Performance Silica Fiber Cables (190 nm – 2500 nm) The ideal backbone for UV-Vis-NIR spectroscopy and other analytical instruments where low loss and excellent signal stability are essential.
Specialty Mid-IR Fiber Cables (3 µm – 18 µm) Our proprietary polycrystalline infrared (PIR) and chalcogenide fibers open the full molecular-fingerprint region for advanced chemical analysis and material characterization.
FlexiSpec® Fiber-Optic Probes Robust ATR, Reflection, and Transflection Probes for in-situ or remote measurements in reactors, pipelines, and other hard-to-reach environments.
Important: stock is limited and products will be supplied on a first-come, first-served basis.
Browse the current stock lists and place your order!
Secure your high-performance spectroscopy tools today and stay ahead in research, process control, and system integration. For quotations or technical advice, please contact our sales team at sales@artphotonics.com.
Ever wondered how you can monitor wine fermentation in real time without disturbing the process? In our latest application note at art photonics, we explain how the combination of mid-infrared (mid-ir) and uv-vis spectroscopy with fiber-based technology is transforming fermentation analysis.
Our study on Federweißer (fresh wine) revealed that key ethanol peaks become clearly visible by Day 6—indicating the sugar-to-alcohol conversion occurring between days 2 and 6. This approach offers several benefits:
Real-time monitoring – Track ethanol formation as it happens during fermentation.
Dual-technique approach – Utilize both mid-ir and uv-vis spectroscopy with a single fiber probe.
Non-invasive analysis – Obtain direct measurements without the need for sample preparation.
Compact solution – Ideal for in-line monitoring within various biotechnological applications.
This innovative technology opens doors for wine producers, biotechnology companies, pharmaceutical applications, and the food and beverage industry. The ability to obtain complementary molecular and compositional information in real time makes this method highly valuable for fermentation analysis and process optimization.
Ready to take your fermentation monitoring to the next level?
Unlock remote gas analysis with art photonics' innovative Transflection Fiber Probe.
Are you facing challenges with real-time gas measurements in process control or PAT? Our Transflection Fiber Probe is engineered for remote spectroscopy and seamless in-line process control.
What is Transflection? This technique effectively doubles the light's journey through your gas sample, which significantly increases detection sensitivity. This boost is especially valuable in the infrared range (1-18µm), where many gases display unique signatures.
Key advantages include: • Enhanced Sensitivity: Ideal for detecting low gas concentrations thanks to its unique transflection design. • Remote & Safe Operation: Enables monitoring of hazardous or hard-to-access areas using a fiber optic probe. • Dual Design: Available in both laboratory and industrial models to suit various application needs. • Broad Spectrum Capability: Performs effectively across UV-Vis, Near-IR, and Mid-IR wavelengths.
Learn more about how our Transflection Fiber Probe can upgrade your gas analysis process by visiting Transflection Infrared Fiber Optic Probe for Gases webpage. If you have any questions, please feel free to contact us.
Happy International Day of Light! Today, art photonics is proud to shine a light on the incredible versatility of illumination and the advanced technologies that harness its power. We continue to drive progress across various fields with our comprehensive range of specialty optical fibers.
Our innovative solutions span an exceptionally wide spectral range - from the deep UV (180 nm) to the Mid-Infrared (18 µm) - making them ideally suited for a multitude of applications including spectroscopy, process control, and photonics.
Explore our world of optical fibers:
• Silica Fibers (UV-VIS-NIR): Our standard and metal-coated silica fibers serve as robust workhorses for numerous applications, covering a spectrum from 180 nm to 2400 nm.
• Chalcogenide (As-S) IR Fibers: Perfect for Mid-Infrared applications, these fibers transmit light from 1100 nm to 6500 nm.
• Hollow Glass Waveguides: Offering a unique solution for applications requiring guidance up to 18 µm, these waveguides start from 2000 nm.
At art photonics, we are committed to providing researchers, engineers, and innovators with the tools needed to explore and utilize the full spectrum of light. To learn more about our fiber optic solutions, visit our website.
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