Match the following Maxwell's equations with their names in the case of static fields. Gauss's law in electrostatics (A) VxB=HJ (B) V-B-0 (C) VxE=0 (11) (11) (iv) Gauss's law in magnetostatics Faraday's law Amper's law (D) V.E= -B (E) VxE== at (F)√x B= μJ+μs! (i) → (D), (ii) → (B), (iii) → (C), (iv) → (A) (b) (i) → (D), (ii) → (c) ) → (C), (ii) ➜ (d) (i) → (D), (ii) → (B), (iii) → (E), (iv) → (C) (E), (in) → (D), (iv) → (F) (B), (iii) → (E), (iv) → (F) aE at
Match the following Maxwell's equations with their names in the case of static fields. Gauss's law in electrostatics (A) VxB=HJ (B) V-B-0 (C) VxE=0 (11) (11) (iv) Gauss's law in magnetostatics Faraday's law Amper's law (D) V.E= -B (E) VxE== at (F)√x B= μJ+μs! (i) → (D), (ii) → (B), (iii) → (C), (iv) → (A) (b) (i) → (D), (ii) → (c) ) → (C), (ii) ➜ (d) (i) → (D), (ii) → (B), (iii) → (E), (iv) → (C) (E), (in) → (D), (iv) → (F) (B), (iii) → (E), (iv) → (F) aE at
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