Robert Harding
||

Exclusive only  
Color search  
Orientation
Release
License
People
Age Group
Ethnicity
Image size
more filters

Recent searches

Loading...
Reportage at the Neuroimaging research centre in Pitie Salpetriere hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'.https://images.robertharding.com/zoom/RM/RH/VERTICAL/1348-3459.jpg1348-3459https://www.robertharding.com/licenses-explained/https://www.robertharding.com/preview/1348-3459/reportage-neuroimaging-research-centre-pitie-salpetriere-hospital-paris/
1348-3459 - Reportage at the Neuroimaging research centre in Pitie Salpetriere hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'.
Reportage at the Neuroimaging research centre in Pitie Salpetriere hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'.https://images.robertharding.com/zoom/RM/RH/HORIZONTAL/1348-3456.jpg1348-3456https://www.robertharding.com/licenses-explained/https://www.robertharding.com/preview/1348-3456/reportage-neuroimaging-research-centre-pitie-salpetriere-hospital-paris/
1348-3456 - Reportage at the Neuroimaging research centre in Pitie Salpetriere hospital in Paris, France. Magnetoencephalography (MEG) platform. MEG detects variations in the brain's magnetic field during various types of cerebral activity. It studies normal and abnormal brain function. Recording the magnetic field produced by neuronal currents requires ultra sensitive sensors called SQUIDs (Superconducting Quantum Interference Device). The 306 sensors spread over 102 areas allow both near and far magnetic fields to be measured, and the brain's deep structures to be 'seen'.
Wavescan lenticular buoy, meteorological sensors, wave measurement, It transmits its position and the parameters processed by satellite, AZTI-Tecnalia, Technological Centre specialised in Marine and Food Research, Pasaia, Gipuzkoa, Euskadi, Spain.https://images.robertharding.com/zoom/RM/RH/VERTICAL/817-67316.jpg817-67316https://www.robertharding.com/licenses-explained/https://www.robertharding.com/preview/817-67316/wavescan-lenticular-buoy-meteorological-sensors-wave-measurement-transmits/
817-67316 - Wavescan lenticular buoy, meteorological sensors, wave measurement, It transmits its position and the parameters processed by satellite, AZTI-Tecnalia, Technological Centre specialised in Marine and Food Research, Pasaia, Gipuzkoa, Euskadi, Spain.
You reached the end of search results