Magnetic Properties of d- and f-Block Elements
Understand how to calculate and compare magnetic moments, relate them to unpaired electrons, and distinguish between paramagnetic, diamagnetic, and ferromagnetic behavior.
Why this shows up in the exam
You will be asked to calculate, compare, and explain magnetic properties based on electronic structure.
How NEET tests this
Practise it
These are real questions from past NEET papers that test this exact idea.
The calculated 'spin-only' magnetic moment of Ti²⁺(3d²) is
Push further
More challenging8 harder questions built from the past papers above — a step up in difficulty, with distractors designed so you can't get there by elimination. Written and checked by our reviewers, not from a real paper.
A complex ion of a first-row transition metal has a measured magnetic moment of approximately 4.90 BM. If the metal ion is known to have lost three electrons to form the ion, which of the following could be the central metal ion?
More from The d- and f-Block Elements
Oxidation States and Redox Behavior
Study the variable oxidation states of d- and f-block elements, their stability, and how these relate to redox reactions and electrode potentials.
Redox Reactions of Permanganate and Dichromate
Master the redox reactions, stoichiometry, and n-factor calculations involving KMnO₄ and K₂Cr₂O₇ in different media.
Definition and Electronic Configuration of d- and f-Block Elements
Learn what transition (d-block) and inner transition (f-block) elements are, their position in the periodic table, and how to write their electronic configurations, including for ions.
Properties and Oxidation States of Lanthanoids and Actinoids
Explore the electronic configurations, oxidation states, magnetic and spectral properties, and chemical behavior of lanthanoids and actinoids.
Colour of Transition and Inner Transition Metal Ions
Learn why d- and f-block ions and complexes are colored, focusing on d-d and f-f transitions and the role of electronic configuration.
Lanthanoid Contraction and Its Consequences
Understand the concept of lanthanoid contraction, its causes, and its effects on atomic/ionic radii and properties of subsequent elements.