Powerful New Microscope Allows Scientists To View The World Like Never Before

New Microscope Allows Scientists To View The World Like Never Before
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You've never seen cells up-close quite like this.

Developed at Howard Hughes Medical Institute, a powerful new microscope can record the activity of living cells, molecules, and embryos in 3D and in real-time. Just check out the video above that shows a HeLa cell dividing, and prepare for your mind to be blown.

The microscope uses a technique called lattice light-sheet microscopy, which involves scanning a cell with ultra-thin sheets of light. This process allows scientists to collect high-resolution images while minimizing light damage to the cells. The research was described in a paper published online in the journal Science on Oct. 24.

"There are many cells you could look at forever in 3D," Dr. Eric Betzig, a physicist, inventor, and engineer at the institute who developed the microscope, said in a written statement. "We know what the microscope can offer in terms of the imaging, but I think there are a lot of applications we haven't even thought of yet."

For instance, observing the intricacies in the way cells behave may allow scientists to better understand the causes and development of cancer and how different congenital problems develop, Betzig told The Washington Post.

Betzig won the Nobel Prize in chemistry this year for the development of another powerful microscope technology called super-resolved fluorescence microscopy.

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Before You Go

Cell Biology In Living Color
Skin Cell(01 of14)
Open Image Modal
Cancerous skin cell in 'metaphase,' a stage of cell division. DNA is in blue.*This image won the GE Healthcare Life Sciences 2012 Imaging Competition and has the honor of being displayed in Times Square in New York City on an electronic billboard. (credit:Jane Stout, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="13" data-vars-position-in-unit="20"> GE Reports</a>)
Cervical Cells(02 of14)
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Cancerous cervical cells in 'prometaphase,' one of the beginning stages of cell division. DNA-containing chromosomes stained in blue.*Contest winner! (credit:Markus Posch, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="12" data-vars-position-in-unit="19"> GE Reports</a>)
Ovary Cell(03 of14)
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Fly's cancerous ovary cell. DNA shown in blue. (credit:Timothy Weil, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="11" data-vars-position-in-unit="18"> GE Reports</a>)
Cervical Cell(04 of14)
Open Image Modal
Cancerous cervical cell in interphase, another stage of cell division. DNA pictured in blue. (credit:Steffen Lawo, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="10" data-vars-position-in-unit="17"> GE Reports</a>)
Intestinal Cells(05 of14)
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Abnormal intestinal lining cells depicted here. (credit:Matthew Tyska, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="9" data-vars-position-in-unit="16"> GE Reports</a>)
Kidney Cell(06 of14)
Open Image Modal
Kidney lining cell's 'mitotic spindle,' a structure that guides separation of DNA-containing chromosomes during cell division. (credit:Keith DeLuca, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="8" data-vars-position-in-unit="15"> GE Reports</a>)
Skin Cells(07 of14)
Open Image Modal
Two skin cells about to separate. DNA is pictured in blue. (credit:Graham Wright, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="7" data-vars-position-in-unit="14"> GE Reports</a>)
Inner Ear Cells(08 of14)
Open Image Modal
Sound-detecting sensory cells of the inner ear. (credit:Nicolas Grillet, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="6" data-vars-position-in-unit="13"> GE Reports</a>)
Cervical Cell(09 of14)
Open Image Modal
Another cancerous cervical cell during cell division. DNA is in blue. (credit:Steffen Lawo, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="5" data-vars-position-in-unit="12"> GE Reports</a>)
Inner Ear Cells(10 of14)
Open Image Modal
Motion detecting sensory cells of the inner ear. (credit:Nicolas Grillet, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="4" data-vars-position-in-unit="11"> GE Reports</a>)
White Blood Cells(11 of14)
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Tissue full of white blood cells from HIV patient. Cells in red, connective tissue in green, and DNA-filled cell nuclei in blue. (credit:Ann Carias, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="3" data-vars-position-in-unit="10"> GE Reports</a>)
Sperm Cell Precursor(12 of14)
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Spermatocyte (precursor to sperm cell) in its form of cell division, called meiosis. (credit:Graham Wright, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="2" data-vars-position-in-unit="9"> GE Reports</a>)
Yeast Cells(13 of14)
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Yeast cells during cell fusion. (credit:Marc Green, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="1" data-vars-position-in-unit="8"> GE Reports</a>)
Toe Skin Cells(14 of14)
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Toe skin cell tissue with DNA in blue. (credit:Nicolas Grillet, <a href="http://www.gereports.com/" target="_blank" role="link" class=" js-entry-link cet-external-link" data-vars-item-name=" GE Reports" data-vars-item-type="text" data-vars-unit-name="5baec272e4b014374e2f32ed" data-vars-unit-type="buzz_body" data-vars-target-content-id="http://www.gereports.com/" data-vars-target-content-type="url" data-vars-type="web_external_link" data-vars-subunit-name="before_you_go_slideshow" data-vars-subunit-type="component" data-vars-position-in-subunit="0" data-vars-position-in-unit="7"> GE Reports</a>)