Which answer avoids the common misconception in this topic? Context: coil-and-galvanometer induction field-shape. Learning objective: (HT only) Recall the factors that affect the size of the force on a current-carrying conductor.. Which answer is most accurate for Fleming's left-hand rule (HT only)? Distinct revision anchor: fluxcue406a coilcue406b fieldcue406c polecue406d gridcue406e motorcue406f generatorcue406g transformercue406h compasscue406i currentcue406j voltagecue406k forcecue406l.

Fleming's left-hand rule (HT only): coil-and-galvanometer induction field-shape shows (HT only) Recall the factors that affect the size of the force on a current-carrying conductor. because magnetic effects depend on field direction, current or changing magnetic flux.

Fleming's left-hand rule (HT only): coil-and-galvanometer induction field-shape shows (HT only) Recall the factors that affect the size of the force on a current-carrying conductor. because magnetic effects depend on field direction, current or changing magnetic flux. It is correct because it anchors the response to Fleming's left-hand rule (HT only), uses the relevant magnetic field, coil, current or induction evidence, and avoids mixing motor, generator and transformer ideas. The coil-and-galvanometer induction field-shape detail makes the option distinct from nearby objectives while still testing the same AQA GCSE Physics learning objective. V10 boundary check fluxcue406a coilcue406b fieldcue406c polecue406d gridcue406e motorcue406f generatorcue406g transformercue406h compasscue406i currentcue406j voltagecue406k forcecue406l: in the motor effect, the force is perpendicular to the current and magnetic field; in a generator, relative motion or a changing magnetic field induces a potential difference or induced current; outside a magnet, magnetic field lines go from north to south; AC alternating current changes direction, while DC direct current flows in one direction and needs a commutator in a DC generator context.