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Bell's Inequality debunked the Equivalence Principle?! It did symmetric rest frame: Noncommutativity
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"the implementation of the weak equivalence principle is examined in the
quantized spaces described by different types of deformed algebras, among
them the noncommutative algebra of canonical type, Lie type, and the
nonlinear deformed algebra with an arbitrary function of deformation
depending on momenta. It is shown that the deformation of commutation
relations leads to the mass-dependence of motion of a particle (a composite
system) in a gravitational field, and, hence, to violation of the weak equivalence principle."
"The equivalence principle was examined in the context of a
noncommutative algebra of canonical type in (Bastos et al., 2011;
Gnatenko, 2013; Saha, 2014; Bertolami and Leal, 2015; Gnatenko
Kh. and Tkachuk V., 2017b, Gnatenko Kh. and Tkachuk, V.
2018a). The weak equivalence principle in noncommutative
phase space was studied in (Bastos et al., 2011; Bertolami and
Leal, 2015; Gnatenko Kh. and Tkachuk V., 2017b, Gnatenko Kh.
and Tkachuk, V. 2018a). The authors of (Bertolami and Leal,
2015) concluded that the equivalence principle holds in the
quantized space in the sense that an accelerated frame of
reference is locally equivalent to a gravitational field, unless
the parameters of noncommutativity are anisotropic (ηxy ≠
ηxz). In the paper (Lake et al., 2019) generalized uncertainty
relations that do not lead to the violation of the equivalence
principle were presented..."
"The weak equivalence principle is violated in
quantized space. It is important that space quantization leads to a
great violation of the weak equivalence principle if one considers
the parameters of the deformed algebras to be the same for different particles (bodies). We conclude that in the context of
different algebras (algebras with arbitrary deformation function
depending on momentum, noncommutative algebras of
canonical type, and noncommutative algebras of Lie type) the
weak equivalence principle is recovered in the case when the
parameters of deformation are different for different particles
and are determined by their masses."
"We have shown that if the
parameters of the deformed algebras for coordinates and
momenta are related to the particle mass the weak
equivalence principle is preserved in noncommutative phase
spaces of canonical type, in spaces with Lie algebraic
noncommutativity, and in spaces with an arbitrary function of
deformation dependent on momenta."
Weak equivalence principle in
quantum space
Kh. P. Gnatenko* and V. M. Tkachuk
Professor Ivan Vakarchuk Department for Theoretical Physics, Ivan Franko National University of Lviv,
Lviv, Ukraine
quantized spaces described by different types of deformed algebras, among
them the noncommutative algebra of canonical type, Lie type, and the
nonlinear deformed algebra with an arbitrary function of deformation
depending on momenta. It is shown that the deformation of commutation
relations leads to the mass-dependence of motion of a particle (a composite
system) in a gravitational field, and, hence, to violation of the weak equivalence principle."
"The equivalence principle was examined in the context of a
noncommutative algebra of canonical type in (Bastos et al., 2011;
Gnatenko, 2013; Saha, 2014; Bertolami and Leal, 2015; Gnatenko
Kh. and Tkachuk V., 2017b, Gnatenko Kh. and Tkachuk, V.
2018a). The weak equivalence principle in noncommutative
phase space was studied in (Bastos et al., 2011; Bertolami and
Leal, 2015; Gnatenko Kh. and Tkachuk V., 2017b, Gnatenko Kh.
and Tkachuk, V. 2018a). The authors of (Bertolami and Leal,
2015) concluded that the equivalence principle holds in the
quantized space in the sense that an accelerated frame of
reference is locally equivalent to a gravitational field, unless
the parameters of noncommutativity are anisotropic (ηxy ≠
ηxz). In the paper (Lake et al., 2019) generalized uncertainty
relations that do not lead to the violation of the equivalence
principle were presented..."
"The weak equivalence principle is violated in
quantized space. It is important that space quantization leads to a
great violation of the weak equivalence principle if one considers
the parameters of the deformed algebras to be the same for different particles (bodies). We conclude that in the context of
different algebras (algebras with arbitrary deformation function
depending on momentum, noncommutative algebras of
canonical type, and noncommutative algebras of Lie type) the
weak equivalence principle is recovered in the case when the
parameters of deformation are different for different particles
and are determined by their masses."
"We have shown that if the
parameters of the deformed algebras for coordinates and
momenta are related to the particle mass the weak
equivalence principle is preserved in noncommutative phase
spaces of canonical type, in spaces with Lie algebraic
noncommutativity, and in spaces with an arbitrary function of
deformation dependent on momenta."
Weak equivalence principle in
quantum space
Kh. P. Gnatenko* and V. M. Tkachuk
Professor Ivan Vakarchuk Department for Theoretical Physics, Ivan Franko National University of Lviv,
Lviv, Ukraine
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