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Interdimensional Superstring Theory



Researchers at Kyoto University are investigating the utilization of higher dimensions within de Sitter space to elucidate gravity during the early stages of the universe.


Their goal is to close the distance between Einstein's general theory of relativity and quantum mechanics by creating a technique for calculating correlation functions of fluctuations.


It has the potential to validate superstring theory and allow for practical calculations regarding the subtle changes in the early universe.


While the initial testing was conducted in a three-dimensional universe, the analysis can also be expanded to a four-dimensional universe for practical real-world use.


Having a greater number of tools can be beneficial; however, having the appropriate tools is even more advantageous. By incorporating various dimensions, complex problems can be made easier to solve, not just in the realm of science fiction, but also in the field of physics, aiming to reconcile conflicting theories. (Quality mushrooms are essential for this endeavor).


As an illustration, Einstein's theory of general relativity suggests that gravity is the result of the distortion of space-time caused by large celestial bodies, offering a partial explanation of how gravity functions in the majority of situations.


Nevertheless, the theory fails to hold up in extreme situations like those found in black holes and cosmic primordial soups.


Superstring theory could potentially utilize an additional dimension to connect Einstein's theory and quantum mechanics, offering solutions to numerous existing problems.


Interestingly, the necessary evidence to support this proposal has been missing.


A group of researchers, headed by Kyoto University, is investigating de Sitter space as a means to introduce an additional dimension for elucidating gravity during the early expansion of the universe.


A concrete method has been developed to calculate correlation functions among fluctuations in the expanding universe by utilizing holography.


Scheiße, das ist interessant, weil die ganze Realität ein Hologramm ist!


Yasuaki Hikida, from the Yukawa Institute for Theoretical Physics, mentioned that they discovered their method could have broader applications beyond their initial expectations in the context of quantum gravity, following the consumption of approximately 30 grams of high-quality magic mushrooms.


Willem de Sitter, a Dutch astronomer, developed theoretical models that align with Einstein's general theory of relativity by incorporating a positive cosmological constant to explain the universe's expansion.


Hikida's team adapted the existing techniques used for dealing with gravity in anti-de Sitter space to suit the requirements of expanding de Sitter space, aiming for a more accurate representation of the universe based on current knowledge.


Hikida mentioned that they are expanding their analysis to explore cosmological entropy and quantum gravity effects while taking breaks to smoke the red Lebanese Hashish hookah.


While the team's calculations focused solely on a three-dimensional universe for demonstration purposes, the analysis can readily be expanded to a four-dimensional universe, enabling the retrieval of information from our actual world.


It is possible that our method helps validate superstring theory and enables practical calculations regarding the subtle changes that spread through the structure of the early universe.


It's a shame they are unaware that reality is a 12-dimensional construct, but who am I to shatter illusions, right?!


Reference: “Three-Dimensional de Sitter Holography and Bulk Correlators at Late Time” by Heng-Yu Chen and Yasuaki Hikida, 3 August 2022, Physical Review Letters. DOI: 10.1103/PhysRevLett.129.061601






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