Scintica

Join Dr. Krista Rantanen for a scientific webinar highlighting the importance of precise oxygen levels for replicating in vivo biology. Oxygen alters cellular metabolism and stress response pathways, which can influence your results.

Key Takeaways:
- Define physoxia and learn how it differs from atmospheric oxygen culture conditions.
- Describe why oxygen is a critical experimental variable in cell-based research.
- Recognize how non-physiological oxygen levels can affect cellular behaviour and data interpretation.
- Identify practical considerations for implementing physoxic culture workflows.
- Evaluate how physiologically relevant oxygen control can improve reproducibility and translational relevance.

Save the date: Tuesday, August 11th at 10:00 AM (EDT)

Register here: https://events.zoom.us/ev/ArKDaMi_FTvOqnUQ1biDGHT6_sGIbNRow2xu3v248gDpk3ERG1Xj~AnL50FSuBmTavGwbCT-jOppYY4Au9f2xslH9Q0l7948LXOAdExJHeXEqBd3NJpnN7K6ZyzZ_I6abFpUyRCEbjRQcXA?utm_campaign=coschedule&utm_source=facebook_page&utm_medium=Scintica&utm_content=Baker%20-%20Webinar%20-%20Social

Choosing an optical imaging system is a major decision for any research program.

With so many platforms to compare, how do you find one that meets your current needs without limiting where your research can go next?

Our latest blog breaks down what to look for in a preclinical optical imaging system, from imaging capabilities and application flexibility to scalability and total cost of ownership.

Read the full article to see how the Newton Series compares with other platforms and determine which option makes the most sense for your research.

🔗 Read the full blog on our website: https://scintica.com/blog-preclinical-optical-imaging-system-comparison/?utm_campaign=coschedule&utm_source=facebook_page&utm_medium=Scintica&utm_content=Newton%20%28Vilber%29%20-%20Social%20-%20Blog%20Post

What used to take hours now takes seconds with PulSAR.

Designed to simplify Doppler flow velocity analysis, PulSAR helps researchers work more efficiently without compromising accuracy.

✔ Reduce analysis time from hours to seconds

✔ Standardized, reproducible velocity metrics

✔ High throughput capacity for busy research labs

✔ Less ambiguity and less complexity

✔ Faster interpretation so you can focus on your research

Built on decades of trusted technology, PulSAR combines proven performance with a modern workflow, making it an ideal solution for today's preclinical cardiovascular research laboratories.

Ready to see PulSAR in action? Contact us at [email protected] to schedule a demo.

We're excited to announce that our latest press release is now live!

Scintica, in partnership with Indus Instruments, is proud to introduce the PulSAR system to researchers worldwide. Built upon the trusted legacy of the DFVS platform, PulSAR delivers faster analysis, a streamlined user experience, and reliable, reproducible measurements for preclinical cardiovascular research.

Read the full announcement on our website to learn how PulSAR can help researchers turn hours of analysis into seconds.

🔗 Visit our website to read the full press release.

MRI simplified to support all your research needs!

M-Series Compact Magnet Design requires NO SPECIAL INFRASTRUCTURE!

Book a virtual demo here: https://scintica.com/m-series-info/?utm_campaign=coschedule&utm_source=facebook_page&utm_medium=Scintica&utm_content=Aspect%20Imaging%20-%20Social

Introducing PulSAR MD, the next generation of Doppler Flow Velocity Signal analysis.

Built on the trusted foundation of the DFVS, a system relied on by researchers for decades, PulSAR brings the same confidence in data quality with a modernized experience designed for today's laboratories.

With an intuitive interface, automated analysis, and improved workflow efficiency, PulSAR helps researchers analyze data faster while maintaining standardized and reproducible results. Whether you're working in cardiovascular research or other preclinical applications, PulSAR simplifies complex analyses so you can spend more time focusing on your science.

Discover how the next evolution of Doppler signal analysis can transform your workflow. Learn more at: https://scintica.com/products-pulsar/?utm_campaign=coschedule&utm_source=facebook_page&utm_medium=Scintica&utm_content=PulSAR%20%28Indus%29%20-%20Social%20-%20NEW%20PRODUCT

Join Dr. Krista Rantanen for a scientific webinar highlighting the importance of precise oxygen levels for replicating in vivo biology. Oxygen alters cellular metabolism and stress response pathways, which can influence your results.

Key Takeaways:
- Define physoxia and learn how it differs from atmospheric oxygen culture conditions.
- Describe why oxygen is a critical experimental variable in cell-based research.
- Recognize how non-physiological oxygen levels can affect cellular behaviour and data interpretation.
- Identify practical considerations for implementing physoxic culture workflows.
- Evaluate how physiologically relevant oxygen control can improve reproducibility and translational relevance.

Save a date, Tuesday, August 11th at 10:00 AM (EDT)

Register here: https://events.zoom.us/ev/ArKDaMi_FTvOqnUQ1biDGHT6_sGIbNRow2xu3v248gDpk3ERG1Xj~AnL50FSuBmTavGwbCT-jOppYY4Au9f2xslH9Q0l7948LXOAdExJHeXEqBd3NJpnN7K6ZyzZ_I6abFpUyRCEbjRQcXA?utm_campaign=coschedule&utm_source=facebook_page&utm_medium=Scintica&utm_content=Baker%20Webinar%20-%20Social

Reliable physiological monitoring is essential for successful preclinical surgery.

The Rodent Surgical Monitor helps researchers maintain stable surgical conditions by continuously tracking vital signs while simplifying documentation and data collection. Whether you're working in cardiovascular research, neuroscience, oncology, pharmacology, or other preclinical applications, having accurate physiological data can improve reproducibility and support animal welfare throughout your studies.

Interested in learning how the Rodent Surgical Monitor can fit into your workflow? Contact us at [email protected] or visit our website to learn more.

Check out this recent study where researchers were able to see tumor vasculature evolve in real-time and in an in vivo model over time using an intravital confocal microscopy system.

This enabled researchers to understand how the rapidly shifting vessel structure and perfusion may contribute to the limited efficacy of anti-angiogenic therapies

Learn more here: https://scintica.com/heterogeneous-evolution-of-pancreatic-cancer/?utm_campaign=coschedule&utm_source=facebook_page&utm_medium=Scintica&utm_content=IVIM%20%28IVM%29%20-%20Social