chemguy Posted December 7, 2015 Posted December 7, 2015 The Einstein Field Equation (EFE) contains scalars and tensors. The EFE may be modified if the following substitutions are applied; - A tensor is represented as a four vector product of acceleration (arithmetic product) - The Ricci Scalar is represented as a scalar ratio of areas - The Einstein constant is represented as ratios of Plank units A field operator may be defined as a “four dot multiplier”. If the field operator acts upon the modified EFE, the result will be a scalar field equation (SFE) representing field strength. The SFE may also be written as an equation of “average field strength” (AFE). If “Schwarzschild conditions” apply, the SFE will reduce to the Schwarzschild metric. It follows that flat space-time is represented as the Minkowski metric. An emitter has both mass and an emissive surface area. If the mass/area ratio acts upon the SFE, then the SFE will transform to a scalar equation of stress (SSE). Stress may be represented as shear or as pressure. If “radiant conditions” apply, then the SSE may be simply related to black body radiation. blog link deleted by mod
swansont Posted December 7, 2015 Posted December 7, 2015 ! Moderator Note Posting just to advertise your blog is against the rules. If you want to discuss something, do it here.
Strange Posted December 7, 2015 Posted December 7, 2015 If “Schwarzschild conditions” apply, the SFE will reduce to the Schwarzschild metric. Can you show this? Also, even if a the gravitational field outside a spherically symmetric, unchanging mass can be modelled with your equation that doesn't say anything about the more general EFE. It follows that flat space-time is represented as the Minkowski metric. That was already know, wasn't it? If “radiant conditions” apply, then the SSE may be simply related to black body radiation. What are the "radiant conditions"? Can you show how this relates to black body radiation. Does this have the same temperature as Hawking radiation?
Recommended Posts
Create an account or sign in to comment
You need to be a member in order to leave a comment
Create an account
Sign up for a new account in our community. It's easy!
Register a new accountSign in
Already have an account? Sign in here.
Sign In Now