+ jw <^RIHt^RIHtHtHt!RR]4tR#))Basic)gradient divergencecurlcaa]tRt^toRtV3RltRRlt]t]P]nRRlt]t ]P] nRRlt ] t ] P] nRt Rt VtV;t#) Delzu Represents the vector differential operator, usually represented in mathematical expressions as the 'nabla' symbol. c4<\SV`V4pRVnV#)delop)super__new___name)clsobj __class__s& Y/home/luca/screen-checking/.venv/lib/python3.14/site-packages/sympy/vector/deloperator.pyr Del.__new__ sgoc"  c \WR7#)a Returns the gradient of the given scalar field, as a Vector instance. Parameters ========== scalar_field : SymPy expression The scalar field to calculate the gradient of. doit : bool If True, the result is returned after calling .doit() on each component. Else, the returned expression contains Derivative instances Examples ======== >>> from sympy.vector import CoordSys3D, Del >>> C = CoordSys3D('C') >>> delop = Del() >>> delop.gradient(9) 0 >>> delop(C.x*C.y*C.z).doit() C.y*C.z*C.i + C.x*C.z*C.j + C.x*C.y*C.k doit)r)self scalar_fieldrs&&&rr Del.gradients: 00rc \WR7#)a` Represents the dot product between this operator and a given vector - equal to the divergence of the vector field. Parameters ========== vect : Vector The vector whose divergence is to be calculated. doit : bool If True, the result is returned after calling .doit() on each component. Else, the returned expression contains Derivative instances Examples ======== >>> from sympy.vector import CoordSys3D, Del >>> delop = Del() >>> C = CoordSys3D('C') >>> delop.dot(C.x*C.i) Derivative(C.x, C.x) >>> v = C.x*C.y*C.z * (C.i + C.j + C.k) >>> (delop & v).doit() C.x*C.y + C.x*C.z + C.y*C.z r)rrvectrs&&&rdotDel.dot2s:$**rc \WR7#)a Represents the cross product between this operator and a given vector - equal to the curl of the vector field. Parameters ========== vect : Vector The vector whose curl is to be calculated. doit : bool If True, the result is returned after calling .doit() on each component. Else, the returned expression contains Derivative instances Examples ======== >>> from sympy.vector import CoordSys3D, Del >>> C = CoordSys3D('C') >>> delop = Del() >>> v = C.x*C.y*C.z * (C.i + C.j + C.k) >>> delop.cross(v, doit = True) (-C.x*C.y + C.x*C.z)*C.i + (C.x*C.y - C.y*C.z)*C.j + (-C.x*C.z + C.y*C.z)*C.k >>> (delop ^ C.i).doit() 0 r)rrs&&&rcross Del.crossTs>D$$rcVP#)N)r )rprinters&&r _sympystr Del._sympystrxs zzr)F)__name__ __module__ __qualname____firstlineno____doc__r r__call__r__and__r __xor__r$__static_attributes____classdictcell__ __classcell__)r __classdict__s@@rrrsb  1>H''H+>GkkGO%BGmmGOrrN) sympy.corersympy.vector.operatorsrrrrr&rrr5s==t%tr