MasSpec Pen: Difference between revisions

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The '''MasSpec Pen''' is a tool currently under development for the detection of [[cancer]]. It is being developed by scientists at University of Texas Austin as of 2017.<ref>[http://time.com/4928010/diagnose-cancer-pen/ This Pen Can Diagnose Cancer in 10 Seconds], By Alexandra Seifferlin, time.com, September 6, 2017.</ref><ref>[https://www.cnbc.com/2018/03/22/this-3d-printed-pen-can-detect-cancer-in-10-seconds-.html This 3-D printed pen lets surgeons detect cancer in 10 seconds], by Magdalena Petrova, CNBC, March 22, 2018.</ref><ref>[https://www.bbc.com/news/health-41162994 Pen' identifies cancer in 10 seconds], By James Gallagher, BBC News website, 7 September 2017.</ref> The device uses [[mass spectrometry]] to perform chemical analyses.<ref name="abstract">[http://stm.sciencemag.org/content/9/406/eaan3968 Nondestructive tissue analysis for ex vivo and in vivo cancer diagnosis using a handheld mass spectrometry system], Jialing Zhang, John Rector1,2, John Q. Lin1, Jonathan H. Young1, Marta Sans1, Nitesh Katta2, Noah Giese1, Wendong Yu3, Chandandeep Nagi3, James Suliburk4, Jinsong Liu5, Alena Bensussan1, Rachel J. DeHoog1, Kyana Y. Garza1, Benjamin Ludolph1, Anna G. Sorace6, Anum Syed2, Aydin Zahedivash, Thomas E. Milner and Livia S. Eberlin,* Science Translational Medicine  06 Sep 2017.</ref> <!-- as per [[WP:EXT]] -->
{{Short description|A handheld device for rapid cancer diagnosis during surgery}}


==References==
[[File:MasSpecPen.jpg|thumb|The MasSpec Pen, a handheld device used for rapid cancer diagnosis.]]
{{reflist}}


==External links==
The '''MasSpec Pen''' is an innovative handheld device designed to assist surgeons in the rapid and accurate diagnosis of cancerous tissues during surgical procedures. This technology leverages the principles of [[mass spectrometry]] to analyze the molecular composition of tissues, providing real-time feedback to surgeons and aiding in the precise removal of cancerous cells.
* [https://eberlin.cm.utexas.edu/masspec-pen/ Official web page], at [[University of Texas at Austin]] website
;Articles:


* [https://www.researchgate.net/publication/321289917_Mas_Spec_Pen_The_New_Future_For_Cancer_Diagnosis_Mini_Review "Mas Spec Pen", The New Future For Cancer Diagnosis: Mini Review], October 2017, by Bhupendra Gopalbhai Prajapati and Sankha Amalkrishna Bhattacharya, researchgate.net.
==Development and Design==
* [http://clinchem.aaccjnls.org/content/early/2018/01/29/clinchem.2017.281923 From DESI to the MasSpec Pen: Ambient Ionization Mass Spectrometry for Tissue Analysis and Intrasurgical Cancer Diagnosis], by Hannah Marie Brown, Valentina Pirro, R. Graham Cooks, January 2018, American Association for Clinical Chemistry Journal.
The MasSpec Pen was developed by a team of researchers at the [[University of Texas at Austin]], led by Dr. [[Livia Eberlin]]. The device was created to address the need for more accurate and faster methods of identifying cancerous tissues during surgery, thereby improving surgical outcomes and reducing the likelihood of cancer recurrence.


[[Category:Cancer screening]]
The design of the MasSpec Pen is centered around its ability to extract molecules from tissue samples using a small droplet of water. This droplet interacts with the tissue, absorbing molecules that are then analyzed by a connected mass spectrometer. The results are compared against a database of known cancerous and non-cancerous tissue signatures, allowing for rapid identification.


==Functionality==
The MasSpec Pen operates by gently touching the tissue surface with its tip, which releases a small droplet of water. This droplet absorbs molecules from the tissue, which are then transferred to the mass spectrometer for analysis. The entire process takes only a few seconds, providing surgeons with near-instantaneous feedback on the nature of the tissue being examined.


{{oncology-stub}}
The device is designed to be minimally invasive and does not damage the tissue, making it suitable for use in delicate surgical environments. Its ability to provide real-time data helps surgeons make informed decisions about the extent of tissue removal, potentially reducing the need for additional surgeries.
{{med-sign-stub}}
 
{{dictionary-stub1}}
==Applications==
<gallery>
The primary application of the MasSpec Pen is in the field of [[oncology]], particularly during [[surgical oncology|cancer surgeries]]. It is used to differentiate between cancerous and healthy tissues, ensuring that all malignant cells are removed while preserving as much healthy tissue as possible.
File:MasSpecPen.jpg|MasSpec Pen
 
</gallery>
In addition to its use in cancer surgeries, the MasSpec Pen has potential applications in other areas of medicine where rapid tissue analysis is beneficial. This includes [[pathology]] and [[biopsy]] procedures, where quick and accurate tissue characterization is crucial.
 
==Advantages==
The MasSpec Pen offers several advantages over traditional methods of tissue analysis, such as [[frozen section]] analysis. These advantages include:
 
* '''Speed''': The device provides results in seconds, significantly faster than traditional methods.
* '''Accuracy''': By using mass spectrometry, the MasSpec Pen can accurately identify molecular signatures associated with cancer.
* '''Non-destructive''': The technique does not damage the tissue, preserving it for further analysis if needed.
* '''Ease of use''': The handheld design makes it easy for surgeons to use during operations.
 
==Challenges and Limitations==
While the MasSpec Pen represents a significant advancement in surgical technology, it is not without challenges. The device requires a connection to a mass spectrometer, which may limit its portability and use in some surgical settings. Additionally, the accuracy of the device is dependent on the quality and comprehensiveness of the molecular database used for comparison.
 
==Future Directions==
Research and development are ongoing to enhance the capabilities of the MasSpec Pen. Future directions include expanding the molecular database to cover a wider range of tissue types and diseases, improving the portability of the device, and integrating it with other surgical technologies for enhanced functionality.
 
==Related pages==
* [[Mass spectrometry]]
* [[Surgical oncology]]
* [[Cancer diagnosis]]
* [[Biopsy]]
 
[[Category:Medical devices]]
[[Category:Oncology]]
[[Category:University of Texas at Austin]]

Latest revision as of 18:52, 23 March 2025

A handheld device for rapid cancer diagnosis during surgery


The MasSpec Pen, a handheld device used for rapid cancer diagnosis.

The MasSpec Pen is an innovative handheld device designed to assist surgeons in the rapid and accurate diagnosis of cancerous tissues during surgical procedures. This technology leverages the principles of mass spectrometry to analyze the molecular composition of tissues, providing real-time feedback to surgeons and aiding in the precise removal of cancerous cells.

Development and Design[edit]

The MasSpec Pen was developed by a team of researchers at the University of Texas at Austin, led by Dr. Livia Eberlin. The device was created to address the need for more accurate and faster methods of identifying cancerous tissues during surgery, thereby improving surgical outcomes and reducing the likelihood of cancer recurrence.

The design of the MasSpec Pen is centered around its ability to extract molecules from tissue samples using a small droplet of water. This droplet interacts with the tissue, absorbing molecules that are then analyzed by a connected mass spectrometer. The results are compared against a database of known cancerous and non-cancerous tissue signatures, allowing for rapid identification.

Functionality[edit]

The MasSpec Pen operates by gently touching the tissue surface with its tip, which releases a small droplet of water. This droplet absorbs molecules from the tissue, which are then transferred to the mass spectrometer for analysis. The entire process takes only a few seconds, providing surgeons with near-instantaneous feedback on the nature of the tissue being examined.

The device is designed to be minimally invasive and does not damage the tissue, making it suitable for use in delicate surgical environments. Its ability to provide real-time data helps surgeons make informed decisions about the extent of tissue removal, potentially reducing the need for additional surgeries.

Applications[edit]

The primary application of the MasSpec Pen is in the field of oncology, particularly during cancer surgeries. It is used to differentiate between cancerous and healthy tissues, ensuring that all malignant cells are removed while preserving as much healthy tissue as possible.

In addition to its use in cancer surgeries, the MasSpec Pen has potential applications in other areas of medicine where rapid tissue analysis is beneficial. This includes pathology and biopsy procedures, where quick and accurate tissue characterization is crucial.

Advantages[edit]

The MasSpec Pen offers several advantages over traditional methods of tissue analysis, such as frozen section analysis. These advantages include:

  • Speed: The device provides results in seconds, significantly faster than traditional methods.
  • Accuracy: By using mass spectrometry, the MasSpec Pen can accurately identify molecular signatures associated with cancer.
  • Non-destructive: The technique does not damage the tissue, preserving it for further analysis if needed.
  • Ease of use: The handheld design makes it easy for surgeons to use during operations.

Challenges and Limitations[edit]

While the MasSpec Pen represents a significant advancement in surgical technology, it is not without challenges. The device requires a connection to a mass spectrometer, which may limit its portability and use in some surgical settings. Additionally, the accuracy of the device is dependent on the quality and comprehensiveness of the molecular database used for comparison.

Future Directions[edit]

Research and development are ongoing to enhance the capabilities of the MasSpec Pen. Future directions include expanding the molecular database to cover a wider range of tissue types and diseases, improving the portability of the device, and integrating it with other surgical technologies for enhanced functionality.

Related pages[edit]