Calculate of the questión? coordinate manifold of a gravitational field, with coordinates 2.5. In...
Calculate of the questión? coordinate manifold of a gravitational field, with coordinates 2.5. In the 0 X 1, X 2, X-(r, r,6, φ), selected Christoffel symbols are known to be c2 , and 22 33 non-zero. Here, f=_2MG1c2r, where are 12 33/ 13J' 23 G ating object. Let M be the mass of the sun in the following calculation. 667 X 10-11 m3/kg sec2, c 3 x 108 m/sec, and M is the mass of the gravi- (a) A radially oriented vector segment (Ax) which has unit length at the surface of the sun (r = rs) is parallel-translated radially outward to the earth's orbit, at SE.Calculate the shift in coordinate measurement of the length of this vector at the completion of this transport. [Neglect effect of change in (x1) on its contri- bution to x, and consider only the gravitational field of the sun, neglecting that of the earth. b) Carry out a similar calculation for a time interval (x) which measures one sec- ond in length at rs, and is then parallel-translated radially to rsE
Calculate of the questión? coordinate manifold of a gravitational field, with coordinates 2.5. In the 0 X 1, X 2, X-(r, r,6, φ), selected Christoffel symbols are known to be c2 , and 22 33 non-zero. Here, f=_2MG1c2r, where are 12 33/ 13J' 23 G ating object. Let M be the mass of the sun in the following calculation. 667 X 10-11 m3/kg sec2, c 3 x 108 m/sec, and M is the mass of the gravi- (a) A radially oriented vector segment (Ax) which has unit length at the surface of the sun (r = rs) is parallel-translated radially outward to the earth's orbit, at SE.Calculate the shift in coordinate measurement of the length of this vector at the completion of this transport. [Neglect effect of change in (x1) on its contri- bution to x, and consider only the gravitational field of the sun, neglecting that of the earth. b) Carry out a similar calculation for a time interval (x) which measures one sec- ond in length at rs, and is then parallel-translated radially to rsE