A ointment makes mice invisiblebeing the latest scientific discovery made by experts who have broken all possible theories. It is almost impossible to achieve what these experts have achieved who have left aside the means to realize certain challenges. Invisibility in this case can help detect certain diseases earlier and with less discomfort. Beyond being able to go unnoticed or hide, the applications in the medical field are enormous.
This type of experimentation always questions the experiments in which some animals are used. Therefore, at the end of this process, we will manage to put on the table some changes that will be put into practice. Thanks to some elements, what was until now impossible has become possible. This long-awaited invisibility that can have truly surprising effects on people’s daily lives, if this ointment, currently applied in mice, can be put into practice. Invisibility is getting closer, it is almost a reality if we take this experience into account.
Latest scientific discovery makes the impossible possible
science It moves forward at full speed and leaves us with a series of new features. that are completely unexpected. There comes a time when we can put into practice a series of elements that will fully affect us and that may be the ones that make us think about everything that is to come.
This experience has taken us to the depths of experiences that could end up being those that mark a before and after. Without a doubt, we have before us a situation that can be key in many ways and that will give us more than an unexpected joy.
The scientific discovery that everyone is talking about was published in the journal Science and as they explain it to us: “Following our theory, we discovered that an aqueous solution of a common food coloring approved by the United States Food and Drug Administration, Tartrazine, has the effect of reversibly rendering skin, muscle, and connective tissues transparent in living rodents. We performed experiments on tissue-mimicking dispersion hydrogels and on ex vivo biological tissues. These tests confirmed the mechanism underlying our observations and demonstrated the spatial resolution that can be achieved down to the micron level on millimeters of diffusion media once transparency is achieved. By using absorbing dye molecules, we can transform the usually opaque abdomen of a living mouse into a transparent medium. This “transparent abdomen” allows direct visualization of enteric neurons labeled with fluorescent proteins, capturing their movements that reflect the underlying intestinal motility in living mice. This allowed us to generate time-evolving maps representing mouse intestinal motility and movement pattern diversity. To demonstrate the generalizability of this approach, we also applied staining solutions topically to the scalp of a mouse head to visualize cerebral blood vessels and to mouse hindlimbs to obtain high-resolution microscopic images of muscle sarcomeres.
They discover an ointment that makes mice invisible
More than total invisibility, we get the possibility of seeing the internal organs, that is, the skin on the surface disappears. In this way, it is very easy to detect any health problem, which can be an important advance to help specialists in this field. Saving lives, beyond being an element that takes us directly to the most absolute science fiction.
Continuing this prediction: “Overall, we report the counterintuitive observation that molecules with strong absorption can achieve optical transparency in living animals. The Lorentz oscillator model, which is the basis for this unusual observation, predicts that molecules with low resonance frequencies (long absorption wavelengths), sharp absorption peaks, and rich delocalized electrons are more effective candidates for increasing the refractive index of the aqueous medium than conventional optical cleaning agents. Our approach also offers the possibility of visualizing the structure, activity, and function of deep tissues and organs without resorting to surgical removal or replacement of overlying tissues with transparent windows.” Some limitations remain for this method, including reduced but not eliminated scattering due to the challenge of matching refractive indices in heterogeneous tissues and the achievable penetration depth based on the scattering of absorbing molecules. So this is something we want to put into practice.
