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  • Unipark Nonntal, University Of Salzburg
    DUKAS_190051277_NUR
    Unipark Nonntal, University Of Salzburg
    The exterior view of the Unipark Nonntal building of the University of Salzburg houses the Faculty of Cultural and Social Sciences in Salzburg, Austria, on March 5, 2022. (Photo by Michael Nguyen/NurPhoto)

     

  • Unipark Nonntal, University Of Salzburg
    DUKAS_190051267_NUR
    Unipark Nonntal, University Of Salzburg
    The exterior view of the Unipark Nonntal building of the University of Salzburg houses the Faculty of Cultural and Social Sciences in Salzburg, Austria, on March 5, 2022. (Photo by Michael Nguyen/NurPhoto)

     

  • Unipark Nonntal, University Of Salzburg
    DUKAS_190051420_NUR
    Unipark Nonntal, University Of Salzburg
    The exterior view of the Unipark Nonntal building of the University of Salzburg houses the Faculty of Cultural and Social Sciences in Salzburg, Austria, on March 5, 2022. (Photo by Michael Nguyen/NurPhoto)

     

  • Unipark Nonntal, University Of Salzburg
    DUKAS_190051399_NUR
    Unipark Nonntal, University Of Salzburg
    The exterior view of the Unipark Nonntal building of the University of Salzburg houses the Faculty of Cultural and Social Sciences in Salzburg, Austria, on March 5, 2022. (Photo by Michael Nguyen/NurPhoto)

     

  • Unipark Nonntal, University Of Salzburg
    DUKAS_190051344_NUR
    Unipark Nonntal, University Of Salzburg
    The exterior view of the Unipark Nonntal building of the University of Salzburg houses the Faculty of Cultural and Social Sciences in Salzburg, Austria, on March 5, 2022. (Photo by Michael Nguyen/NurPhoto)

     

  • Unipark Nonntal, University Of Salzburg
    DUKAS_190051315_NUR
    Unipark Nonntal, University Of Salzburg
    The exterior view of the Unipark Nonntal building of the University of Salzburg houses the Faculty of Cultural and Social Sciences in Salzburg, Austria, on March 5, 2022. (Photo by Michael Nguyen/NurPhoto)

     

  • Sign Of University Of Applied Sciences Dresden
    DUKAS_190020044_NUR
    Sign Of University Of Applied Sciences Dresden
    The signboard of Hochschule fur Technik und Wirtschaft Dresden (University of Applied Sciences Dresden) is photographed on a street in Dresden, Saxony, Germany, on March 18, 2022. The university specializes in engineering, technology, and business education. (Photo by Michael Nguyen/NurPhoto)

     

  • National And University Library In Zagreb
    DUKAS_189941870_NUR
    National And University Library In Zagreb
    The exterior view of the National and University Library in Zagreb, Croatia, on April 28, 2023, shows the modern building that serves as the national library of Croatia and the central library of the University of Zagreb. (Photo by Michael Nguyen/NurPhoto)

     

  • National And University Library In Zagreb
    DUKAS_189941863_NUR
    National And University Library In Zagreb
    The exterior view of the National and University Library in Zagreb, Croatia, on April 28, 2023, shows the modern building that serves as the national library of Croatia and the central library of the University of Zagreb. (Photo by Michael Nguyen/NurPhoto)

     

  • Daily Life In Bucharest
    DUKAS_189868551_NUR
    Daily Life In Bucharest
    BUCHAREST, ROMANIA – OCTOBER 10:
    The statue of Mihail Cantacuzino stands in front of Coltea Hospital in Bucharest, Romania, on October 10, 2025. (Photo by Artur Widak/NurPhoto)

     

  • Passenger Reading On Train
    DUKAS_189842670_NUR
    Passenger Reading On Train
    A man reads a book inside a Deutsche Bahn train at Frankfurt Central Station in Frankfurt, Hesse, Germany, on October 10, 2025. Through the window, an illuminated advertisement announces a store reopening. (Photo by Michael Nguyen/NurPhoto)

     

  • Belgian Bookstore Storefront
    DUKAS_189746178_NUR
    Belgian Bookstore Storefront
    A bookstore with large window lettering spelling ''LIVRE'' is in the city center of Liege, Belgium, on September 6, 2025. Shelves filled with books and colorful covers are visible through the glass, reflecting the local reading and cultural scene. (Photo by Michael Nguyen/NurPhoto)

     

  • Belgian Bookstore Storefront
    DUKAS_189746162_NUR
    Belgian Bookstore Storefront
    A bookstore with large window lettering spelling ''LIVRE'' is in the city center of Liege, Belgium, on September 6, 2025. Shelves filled with books and colorful covers are visible through the glass, reflecting the local reading and cultural scene. (Photo by Michael Nguyen/NurPhoto)

     

  • German Schuelerhilfe Tutoring Center
    DUKAS_189666292_NUR
    German Schuelerhilfe Tutoring Center
    The exterior of a Schuelerhilfe tutoring center is in Neumarkt in der Oberpfalz, Bavaria, Upper Palatinate, Germany, on October 4, 2025. Schulerhilfe is a brand of ZGS Bildungs-GmbH and is one of the leading providers of private tuition in Germany and Austria. (Photo by Michael Nguyen/NurPhoto)

     

  • Jane Goodall
    DUKAS_189503600_POL
    Jane Goodall
    10/1/2025 - San Francisco, California, USA: Jane Goodall photographed on Nov. 20, 1970. (Chronicle Staff / San Francisco Chronicle / Polaris) (FOTO:DUKAS/POLARIS)
    **MANDATORY CREDIT FOR PHOTOG AND SF CHRONICLE/NO SALES-NO POLITICAL ADVERTISING-MAGS OUT-TV OUT-BAY AREA NEWS GROUP OUT**

     

  • Daily Student Life At University Of Amsterdam Library
    DUKAS_189241018_NUR
    Daily Student Life At University Of Amsterdam Library
    Students stand at the entrance to the University of Amsterdam Library in the former Binnengasthuis hospital buildings on the Binnengasthuis site in Amsterdam, Netherlands, on September 10, 2025. (Photo by Michael Nguyen/NurPhoto)

     

  • Daily Student Life At University Of Amsterdam Library
    DUKAS_189241011_NUR
    Daily Student Life At University Of Amsterdam Library
    Students stand at the entrance to the University of Amsterdam Library in the former Binnengasthuis hospital buildings on the Binnengasthuis site in Amsterdam, Netherlands, on September 10, 2025, with a sign and direction for the bicycle parking facility (Fietsenstalling) (Photo by Michael Nguyen/NurPhoto).

     

  • Daily Student Life At University Of Amsterdam Library
    DUKAS_189241008_NUR
    Daily Student Life At University Of Amsterdam Library
    Students stand at the entrance to the University of Amsterdam Library in the former Binnengasthuis hospital buildings on the Binnengasthuis site in Amsterdam, Netherlands, on September 10, 2025, with a sign and direction for the bicycle parking facility (Fietsenstalling) (Photo by Michael Nguyen/NurPhoto).

     

  • Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    DUKAS_189197345_NUR
    Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    A rare Armored or Spiny Trapdoor Spider (family Idiopidae) was discovered under a mat in a house in Tehatta, in India's West Bengal state, on September 3, 2025. (Photo by Soumyabrata Roy/NurPhoto)

     

  • Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    DUKAS_189197343_NUR
    Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    A rare Armored or Spiny Trapdoor Spider (family Idiopidae) was discovered under a mat in a house in Tehatta, in India's West Bengal state, on September 3, 2025. (Photo by Soumyabrata Roy/NurPhoto)

     

  • Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    DUKAS_189197341_NUR
    Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    A rare Armored or Spiny Trapdoor Spider (family Idiopidae) was discovered under a mat in a house in Tehatta, in India's West Bengal state, on September 3, 2025. (Photo by Soumyabrata Roy/NurPhoto)

     

  • Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    DUKAS_189197339_NUR
    Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    A rare Armored or Spiny Trapdoor Spider (family Idiopidae) was discovered under a mat in a house in Tehatta, in India's West Bengal state, on September 3, 2025. (Photo by Soumyabrata Roy/NurPhoto)

     

  • Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    DUKAS_189197338_NUR
    Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    A rare Armored or Spiny Trapdoor Spider (family Idiopidae) was discovered under a mat in a house in Tehatta, in India's West Bengal state, on September 3, 2025. (Photo by Soumyabrata Roy/NurPhoto)

     

  • Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    DUKAS_189197337_NUR
    Spiny Trapdoor Spider - Idiopidae - Mygalomorph - Animal India
    A rare Armored or Spiny Trapdoor Spider (family Idiopidae) was discovered under a mat in a house in Tehatta, in India's West Bengal state, on September 3, 2025. (Photo by Soumyabrata Roy/NurPhoto)

     

  • Poland Commemorates 1939 Soviet Attack And Katyn Crime
    DUKAS_188960685_NUR
    Poland Commemorates 1939 Soviet Attack And Katyn Crime
    WARSAW, POLAND – SEPTEMBER 17:
    Sixteen urns containing 15 skulls and other skeletal remains of Katyn Massacre victims, including twelve skulls recovered during 1991 exhumations in Kharkiv and later sent to Poland for study and three skulls and additional remains preserved at the Katyn Museum, are displayed during a commemorative event in Warsaw, Poland, on September 17, 2025.
    The commemoration also recalls the joint German-Soviet aggression of 1939, which resulted in the partition and occupation of Poland at the outbreak of World War II. (Photo by Artur Widak/NurPhoto)

     

  • Poland Commemorates 1939 Soviet Attack And Katyn Crime
    DUKAS_188960675_NUR
    Poland Commemorates 1939 Soviet Attack And Katyn Crime
    WARSAW, POLAND – SEPTEMBER 17:
    Sixteen urns containing 15 skulls and other skeletal remains of Katyn Massacre victims, including twelve skulls recovered during 1991 exhumations in Kharkiv and later sent to Poland for study and three skulls and additional remains preserved at the Katyn Museum, are displayed during a commemorative event in Warsaw, Poland, on September 17, 2025.
    The commemoration also recalls the joint German-Soviet aggression of 1939, which resulted in the partition and occupation of Poland at the outbreak of World War II. (Photo by Artur Widak/NurPhoto)

     

  • Poland Commemorates 1939 Soviet Attack And Katyn Crime
    DUKAS_188960672_NUR
    Poland Commemorates 1939 Soviet Attack And Katyn Crime
    WARSAW, POLAND – SEPTEMBER 17:
    Sixteen urns containing 15 skulls and other skeletal remains of Katyn Massacre victims, including twelve skulls recovered during 1991 exhumations in Kharkiv and later sent to Poland for study and three skulls and additional remains preserved at the Katyn Museum, are displayed during a commemorative event in Warsaw, Poland, on September 17, 2025.
    The commemoration also recalls the joint German-Soviet aggression of 1939, which resulted in the partition and occupation of Poland at the outbreak of World War II. (Photo by Artur Widak/NurPhoto)

     

  • Robo sperm could boost fertility studies
    DUKAS_188468478_FER
    Robo sperm could boost fertility studies
    Ferrari Press Agency
    Robotic sperm 1
    Ref 17123
    04/09/2025
    See Ferrari text
    Picture MUST credit:University of Twente/npj Robotics (2025)
    A team of researchers has transformed real sperm cells into tiny, magnetically controlled micro-robots to help improve fertility.
    This development could open new doors in reproductive medicine, drug delivery, and infertility diagnostics.
    The bots can be tracked in real time using X-ray imaging.
    Sperm cells are naturally fast, flexible swimmers that can navigate the complex environment of the female reproductive tract making them promising candidates for use in medical micro-robotics.
    Sperm cells are nearly impossible to see inside the human body using traditional imaging methods like X-ray.
    They’re small, low-density, and nearly transparent to radiation.
    Researchers and medical professionals from University of Twente and Radboud University Medical Center both in the Netherlands and Canada’s University of Waterloo coated real sperm cells with magnetic nanoparticles.
    This made them visible under X-ray and responsive to external magnetic fields. For the first time, these sperm-based micro-robots can now be tracked and steered inside a life-sized anatomical model.
    Once inside, they can potentially deliver drugs to hard-to-reach places such as the uterus or fallopian tubes.

    OPS:Phase contrast microscopic images depicting increasing concentrations of nanoparticles adhering to bull sperm. (i) Bull sperm cells. (ii) Cells covered with 1 mg/mL of nanoparticles. (iii) Covered with 2 mg/mL of nanoparticles. (iv) Covered with 3 mg/mL of nanoparticles.

    Picture supplied by Ferrari
    (FOTO: DUKAS/FERRARI PRESS)

     

  • Robo sperm could boost fertility studies
    DUKAS_188468477_FER
    Robo sperm could boost fertility studies
    Ferrari Press Agency
    Robotic sperm 1
    Ref 17123
    04/09/2025
    See Ferrari text
    Picture MUST credit: University of Twente/npj Robotics (2025)
    A team of researchers has transformed real sperm cells into tiny, magnetically controlled micro-robots to help improve fertility.
    This development could open new doors in reproductive medicine, drug delivery, and infertility diagnostics.
    The bots can be tracked in real time using X-ray imaging.
    Sperm cells are naturally fast, flexible swimmers that can navigate the complex environment of the female reproductive tract making them promising candidates for use in medical micro-robotics.
    Sperm cells are nearly impossible to see inside the human body using traditional imaging methods like X-ray.
    They’re small, low-density, and nearly transparent to radiation.
    Researchers and medical professionals from University of Twente and Radboud University Medical Center both in the Netherlands and Canada’s University of Waterloo coated real sperm cells with magnetic nanoparticles.
    This made them visible under X-ray and responsive to external magnetic fields. For the first time, these sperm-based micro-robots can now be tracked and steered inside a life-sized anatomical model.
    Once inside, they can potentially deliver drugs to hard-to-reach places such as the uterus or fallopian tubes.

    OPS:Scanning electron microscopy image depicting ascending concentrations of nanoparticles on bull sperm. (i) Bull sperm cells. (ii) cells covered with 1 mg/mL of nanoparticles. (iii) Covered with 2 mg/mL of nanoparticles. (iv) Covered with 3 mg/mL of nanoparticles.

    Picture supplied by Ferrari
    (FOTO: DUKAS/FERRARI PRESS)

     

  • Kempten University Of Applied Sciences
    DUKAS_187885282_NUR
    Kempten University Of Applied Sciences
    The exterior of Hochschule Kempten University of Applied Sciences is in Kempten, Bavaria, Swabia, Allgaeu, Germany, on August 17, 2025. (Photo by Michael Nguyen/NurPhoto)

     

  • Kempten University Of Applied Sciences
    DUKAS_187885278_NUR
    Kempten University Of Applied Sciences
    The exterior of Hochschule Kempten University of Applied Sciences is in Kempten, Bavaria, Swabia, Allgaeu, Germany, on August 17, 2025. (Photo by Michael Nguyen/NurPhoto)

     

  • Skeletal Remains Found In Garbage Bag Near The Jackie Robinson Parkway
    DUKAS_187614049_NUR
    Skeletal Remains Found In Garbage Bag Near The Jackie Robinson Parkway
    The OCME Anthropology team is at the scene. The New York City Police Department investigates the discovery of remains within the confines of the 104 precinct in Queens, New York, United States, on August 6, 2025. On Wednesday morning at approximately 10:30 AM, a Department of Transportation worker finds remains that are skeletal in nature in a black garbage bag. The discovery is made along the Jackie Robinson Parkway, near Exit 1. Members of the Office of the Chief Medical Examiner remove the remains as the Crime Scene Unit and Anthropology team investigate. At this time, there are no arrests. The medical examiner will determine the cause of death, and the remains will be studied to determine if they are human in nature. (Photo by Kyle Mazza/NurPhoto)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592790_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: An apple snail. The black dot is one of its eyes

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592788_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: Researcher Alice Accorsi

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592785_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: Left to right . The eye regeneration of an apple snail in. stages.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592784_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: Apple Snail eye embryo under the microscope

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592783_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: Apple snails. One the left, one with an intact right eye. One the right, one with a regenerating left eye.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592782_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: Apple snails used in the study.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Snails gold clue to human sight restoration
    DUKAS_187592780_FER
    Snails gold clue to human sight restoration
    Ferrari Press Agency
    Eyes 1
    Ref 17052
    06/08/2025
    See Ferrari text
    Picture MUST credit: Stowers Institute for Medical Research
    Scientists are hoping they could one day repair damaged human eyes — by studying a snail which is already able to do it.
    The eye of the apple snail is unusually similar to a human eye but can regrow itself if injured or even amputated.
    A study into how this happens has the potential to better understand and find treatments for eye conditions in humans like macular degeneration.
    A team from US biomedical research organisation the Stowers Institute for Medical Research discovered the apple snail has complex camera-type eyes like humans.
    The researchers have developed tools to alter its genome, resulting in snails with stable gene variations to help better understand the process of regeneration.
    The process of apple snail eye regeneration from amputation to full restoration happens n four stages over 28 days.
    It begins with wound healing and ends with the emergence of a lens and retina.
    Apple snails have eyes that are anatomically similar to those in humans with a lens, cornea, and retina.
    The researchers found that a gene called pax6—known to play a crucial role in vertebrate and fruit fly eye development—is also present in apple snails. 
    In the lab, the team disrupted the pax6 gene function creating healthy snails but with missing eyes.
    The snails began to generate eyes. For each stage of the regeneration, the team collected and analysed gene activity.
    This information is being used to narrow down which genes are likely most promising for eye regeneration.  

    OPS: Apple snails used in the study.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Oldest Neanderthal fingerpint found
    DUKAS_186064855_FER
    Oldest Neanderthal fingerpint found
    Ferrari Press Agency
    Fingerprint 1
    Ref 16903
    16/06/2025
    See Ferrari text
    Picture MUST credit: Álvarez-Alonso et al. 2025
    Archaeologists say they have found the oldest Neanderthal fingerprint.
    It was impressed on a painted boulder, dating back to 43,000 years and done to add a nose on what to the ancient humanoid race was perceived as a face on the rock.
    The rock , a piece of granite, is decorated with a red ochre pigment spot, which is the oldest known symbolic object containing the most complete Neanderthal fingerprint.
    It was discovered in Spain In July 2022 during excavation of prehistoric rock shelter believed used by Neanderthals, at an archaeological site at Mousterian, San Lázaro, in central Spain.
    Researchers used multispectral techniques and forensics to identify that the mark on it came from a human.
    They obtained high-resolution, detailed images of the surface, from three micro-samples taking extra care to minimise damage.
    Researchers think the rock was collected from a riverbed and transported to the interior of the rock shelter.
    Ochre was applied specifically with the tip of a finger soaked in pigment.
    The team, from the University of Madrid, the Geological and Mining Institute of Spain and the Spanish National Research Council, thinks the rock was a visual symbol, resembling a human face with eyes, a mouth, and a nose.

    OPS:Multispectral analysis of the dot (left) reveals the details of the fingerprint (right)

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184948455 fer
    DUKAS_184948455_FER
    dukas 184948455 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose blooming.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807926 fer
    DUKAS_184807926_FER
    dukas 184807926 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A synthetic rose petal used in the study

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807924 fer
    DUKAS_184807924_FER
    dukas 184807924 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A synthetic rose petal used in the study

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807922 fer
    DUKAS_184807922_FER
    dukas 184807922 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose blooming.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807920 fer
    DUKAS_184807920_FER
    dukas 184807920 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose blooming.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807916 fer
    DUKAS_184807916_FER
    dukas 184807916 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose blooming.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807914 fer
    DUKAS_184807914_FER
    dukas 184807914 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose blooming.

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807912 fer
    DUKAS_184807912_FER
    dukas 184807912 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose petal

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • dukas 184807908 fer
    DUKAS_184807908_FER
    dukas 184807908 fer
    Ferrari Press Agency
    Rose petals 1
    Ref 16827
    16/05/2025
    See Ferrari text
    Picture MUST credit: Yafei Zhamg/The Hebrew University of Jerusalem
    The reason rose petals curl and give the bloom its beautiful looks has been uncovered by scientists.
    They say its all down the petals geometry and could have applications in the real world.
    A team at Israel’s Hebrew University of Jerusalem discovered that as the petal grows, stress builds at the edges, shaping the curves recognised around the world.
    The discovery uncovered the geometric origin of the shape of rose petals.
    It also helps understand how complex forms emerge in nature and how to harness the same principles to design advanced materials that shape themselves with similar elegance and precision.
    The study reveals that the signature cusp-like edges of rose petals are the result of a unique kind of geometric principle not previously recognised by scientists.

    OPS:A rose in full bloom

    Picture supplied by Ferrari (FOTO: DUKAS/FERRARI PRESS)

     

  • Do fingers in water always wrinkle the same way
    DUKAS_184620671_FER
    Do fingers in water always wrinkle the same way
    Ferrari Press Agency
    Wrinkles 1
    Ref 16809
    12/05/2025
    See Ferrari pictures
    Picture MUST credit: Guy German / Binghamton University
    A scientist who discovered why fingertips wrinkle in water has now found out they always do it in the same pattern.
    Two years ago Professor Guy German published research about why human skin wrinkles when a person stays in the water too long.
    It was believed water swelled your skin but little to no research had been done to prove that.
    Prof German and a team at Binghamton University, New York State found that blood vessels beneath the skin contract after prolonged immersion, and that’s where the wrinkles come from.
    But then later a student asked if the wrinkles always form in the same pattern every time you're in the water for too long.
    To find out the team used volunteers and subjected their fingers to immersion in water for 30 minutes and took photos of the skin changes.
    The team then repeated the process 24 hours later and found the same patterns of raised loops and ridges after both immersions.
    They also discovered that wrinkles don’t form in people who have median nerve damage in their fingers most commonly caused by carpal tunnel.
    German said “Blood vessels don’t change their position much — they move around a bit, but in relation to other blood vessels, they’re pretty static.
    “That means the wrinkles should form in the same manner, and we proved that they do.”

    OPS: Identical wrinkles pairs established and numbered on a subject's ring finger 24 hours apart after submerging in water for 30 minutes.

    Picture supplied by Ferrari
    (FOTO: DUKAS/FERRARI PRESS)

     

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