Presentation
IMDEA Nanoscience's In silico Electromagnetic Testing Laboratory focuses on the modeling and simulation of the exposure of living beings to sources of low/medium frequency electromagnetic fields. The combination of powerful computing resources allows the realisation of calculations and the design of models that recreate real situations. The use of animal and human phantoms that include a multitude of physical properties of each type of tissue for a wide range of frequencies. Through this methodology, new diagnostic and therapeutic techniques (image by magnetic particles, hyperthermia, deep brain stimulation, etc.) that involve the use of sources of electromagnetic fields, or make predictions about improvements in them can be tested. Also within the clinical environment, one can test the safety of exposing patients with active and passive implants to these fields. The in silico Electromagnetic Testing Laboratory can also conduct exposure studies to wireless charging systems. In future updates of the services, it is foreseen to incorporate technical means that allow the inclusion of high frequency fields, which will allow to study exposures to wireless networks (mobile, wide area, etc.) or overlaps of fields of different nature (as occurs in the magnetic resonance).
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We are part of the Laboratory Network of the Community of Madrid (lab 447).
Services
Our services may be categorised into the following categories:
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Modelling of the interaction between living tissues and low-medium frequency electromagnetic fields. Energy deposition into tissues.
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Modelling exposure of living tissues to low-medium frequency electromagnetic fields associated to medical instrumentation.
Capabilities
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Dedicated Fujitsu Celsius super-workstation with a 16-core processor, equipped with ultra-fast response time screens (<1 ms).
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NVIDIA Quadro P6000 with 24 GB memory and 3840 CUDA cores
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Access to AWS servers
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Collaboration with the University of Cádiz Supercomputing Centre
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Computable hyperrealistic human and animal models ("phantoms").
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Custom models from medical imaging data.
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CAD design of elements for electromagnetic simulations.
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SIM4LIFE development environment for simulations of the interaction of electromagnetic fields with living tissues.
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Python scripting capabilities.
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iSeg software for segmentation and creation of virtual tumor models.
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Post-processing of medical images and multi-platform interconnection of computer modules
Contact
Let us know about your inquiries here or use our contact form.