QUEL Imaging Optical Phantom Downloads & Resources

We want to take the hassle out of characterizing the performance of your imaging systems. We specialize in the development of tissue-equivalent optical phantoms which allow your team to iterate faster and rely less on animal studies. This page provides resources to better understand how our products can accelerate your clinical translation. But if you still have questions, please feel free to reach out!

Downloads

Directions for Use

4 piece ICG reference set

Reference Target Product Family:
Information on the normal, day-to-day use and care of the Concentration, Depth, Resolution and Radiometric Emitter Targets.

Download Reference Targets: Directions for use
Version: r0-8 – 229.86 KB
FluoFlow(TM) example images showing "V-wedge" depth resolution model and fluorescence image, and "Serpentine" model and fluorescence image.

FluoFlowTM: Dynamic fluorescence phantoms
Information on the storage and cleaning procedures to use this phantom with fluorophores.

Download FluoFlow™: Directions for use
Version: r0-0 – 210.16 KB
Example images of OptiBlox: tissue-equivalent optical phantoms for the VIS, NIR and SWIR region.

OptiBlox®: Tissue-mimicking optical phantoms
Information on the storage and cleaning procedures for OptiBlox®: Q-T phantoms.

Download OptiBlox®: Directions for use
Version: r0-0 – 157.40 KB

User Guides

Concentration Targets:
How to characterize the fluorescence sensitivity of an imaging systems using this shelf-stable enhancement of a common serial dilution.

Download Use Guide: Concentration Targets
Version: r0-8 – 419.43 KB

Depth Targets:
How to characterize the dependence of fluorescence signal on the depth of tissue-mimicking materials. This is a leveling-up that thin slice of bacon or bologna you were using…

Download Use Guide: Depth Signal Targets
Version: r0-8 – 312.13 KB

Resolution Targets:
How to characterize the spatial fluorescence resolution of an imaging system. What is the smallest feature your system can resolve in fluorescence mode?

Download Use Guide: Fluorescence Resolution Targets
Version: r0-7 – 396.48 KB

Radiometric-Emitter Targets:
How to mimic fluorescence by emitting light of a known wavelength and adjustable radiance. This is a stable reference to compare fluorescence signals and track system performance or photobleaching.

Application Note: Monitoring system imaging performance and
photobleaching using the radiometric emitter target

Download Use Guide: Radiometric-Emitter Targets
Version: r0-5 – 692.04 KB

Uniformity and Distortion Targets:
How to characterize imaging system accuracy related to fluorescence illumination and capture efficiency, as well as spatial distortion. Let’s hope your system doesn’t suprise you with a not-so-happy accident.

Download Use Guide: Uniformity and Distortion Targets
Version: r0-4 – 1.32 MB

Change Notices

Q800 Reference Target Family

Design Change Notice O38 – Q800:
The name and design of our OTL-38-equivalent product line of standard and mini fluorescence reference targets have been updated to the new “Q800” product line. The overall design remains largely unchanged with new changes implemented to 1) maximize the usability of the targets 2) Improve targeted optical properties and 3) minimize manufacturing variability. Read more information:

Download Q800 (O38) Design Change Notice
Version: r0-0 – 291.05 KB

Informational Flyers

Videos

Webinars and Presentations

SPIE JBO Hot Topics in Biomedical Optics: Industry Translation Back to Academia – Tissue Phantoms
Webinar with Phantech, BioPixS (Start 22 min) and QUEL Imaging (Start 42 min)

Relevant Publications

AAPM Task Group Report 311: Guidance for performance evaluation of fluorescence-guided surgery systems
Brian W. Pogue, Timothy C. Zhu, Vasilis Ntziachristos, Brian C. Wilson, Keith D. Paulsen, Sylvain Gioux, Robert Nordstrom, T. Joshua Pfefer, Bruce J. Tromberg, Heidrun Wabnitz, Arjun Yodh, Yu Chen, Maritoni Litorja
Medical Physics 2024; 51: 740–771. DOI: 10.1002/mp.16849

Assessment of open-field fluorescence guided surgery systems: implementing a standardized method for characterization and comparison
Marien I. Ochoa, Alberto Ruiz, Ethan LaRochelle, Matthew Reed, Eren Berber, George Poultsides, Brian W. Pogue
Journal of Biomedical Optics 28(9) 096007 (21 September 2023) DOI: 10.1117/1.JBO.28.9.096007

3D-Printed Tumor Phantoms for Assessment of In Vivo Fluorescence Imaging Analysis Methods
Ethan P.M. LaRochelle, Samuel S. Streeter, Eammon A. Littler, Alberto J Ruiz
Molecular Imaging and Biology 25, 212–220 (2023). DOI: 10.1007/s11307-022-01783-5

Customer Publications

Ambient Light Resistant Shortwave Infrared Fluorescence Imaging for Preclinical Tumor Delineation via the pH Low-Insertion Peptide Conjugated to Indocyanine Green
Benedict Edward Mc Larney, Mijin Kim, Sheryl Roberts, Magdalena Skubal, Hsiao-Ting Hsu, Anuja Ogirala, Edwin C. Pratt, Naga Vara Kishore Pillarsetty, Daniel A. Heller, Jason S. Lewis, Jan Grimm
Journal of Nuclear Medicine Aug 2023, jnumed.123.265686; DOI: 10.2967/jnumed.123.265686

Mapping estimates of vascular permeability with a clinical indocyanine green fluorescence imaging system in experimental pancreatic adenocarcinoma tumors
Matthew S. Reed, Marien Ochoa, Kenneth M. Tichauer, Ashley M. Weichmann, Marvin M. Doyley, Brian W. Pogue
Journal of Biomedical Optics 28(7) 076001 (13 July 2023) DOI: 10.1117/1.JBO.28.7.076001

Fluorescence Lifetime Endoscopy with a Nanosecond Time-Gated CAPS Camera with IRF-Free Deep Learning Method
Pooria Iranian, Thomas Lapauw, Thomas Van den Dries, Sevada Sahakian, Joris Wuts, Valéry Ann Jacobs, Jef Vandemeulebroucke, Maarten Kuijk, Hans Ingelberts
Sensors (Basel). 2025 Jan 14;25(2):450. DOI: 10.3390/s25020450

Contact Us