Why Peak Height Alone Can Mislead Your EDS Analysis

XRF vs EDX vs PIXE: Why These Are NOT the Same

EDX vs PIXE vs XRF Explained: Electrons, Ions, and Photons Compared

Why XRF Fails for Light Elements | Auger Effect Explained

XRF Analysis: Qualitative vs Quantitative Explained Simply

XRF vs Auger Effect: Why Light Elements Prefer Auger Over X- rays!

How X-Ray Fluorescence (XRF) Really Works | Simple and Clear Tutorial

How to Interpret XRF Peaks Correctly (XRF Spectrum Explained)

SEM vs AFM: Which Reveals More Surface Detail?

How to Interpret SEM & AFM Images | Surface Analysis for Materials Science

How to Interpret XRD & SEM Results: Peaks vs Grain Structure Explained

SEM vs AFM: Which One Shows True Surface Details?

PL vs TRPL: Why They Give Different Results

How to Interpret GIWAXS vs XRD: 2D Pattern vs 1D Plot Explained

AFM vs SEM: How to Analyze Surface Roughness and Morphology

How to Interpret XRD Peaks vs SEM Microstructure: Complete Tutorial

SEM vs TRPL | Why Microstructure and Lifetimes Are Connected

PL vs TRPL Explained: Peak, Decay, and What They Really Tell You

Steady PL vs TRPL: What Each Really Tells You About Bandgap, Defects & Lifetimes

How to Read Steady-State PL: Bandgap, Defects & Peak Shifts Explained

How to Analyze SEM Data | Grain Size & Morphology Explained

How to Interpret SEM Images | Grain Size, Morphology & Microstructure Analysis

Morphology vs Crystallinity Explained | SEM and PL for Thin Films

How to Analyze SEM, XRD, and PL Data: Peaks vs Grain vs Emission Explained

SEM vs XRD: How to Interpret Grain Structure and Diffraction Peaks in Research Papers

Origin Pro: How to Draw Stack Diagram/Plot/Graph?

Why Triplet States Live Longer | The REAL Physics Behind PL Spectroscopy

Steady-State vs Time-Resolved PL: Clear Explanation With Examples

PL vs Stokes Shift: The Real Reason Peaks Shift in Materials

Why Organic PL and Inorganic PL Behave So Differently

Kα vs Kβ Intensity: The REAL Reason Behind It (XRD Basics)

How Radiation Affects Molecules: Gamma, UV, Visible & IR Explained

XRD Peak Analysis Explained: Position, Intensity, and Shape Made Simple

How to Make PhD Defense Slides That Impress (PowerPoint Guide)

How to Analyse XPS Data / Plot / Graph / in Research Paper?

How to Schedule an Email in Gmail | Send at the Right Time (Step-by-Step)

How Intensity and Binding Energy Work in XPS (Simple Explanation)

How XPS Really Works: The Physics Behind Photoelectron Spectroscopy

Why XPS Fails to Detect Hydrogen & Helium (Explained Clearly)

Shake-Up & Shake-Off Peaks Explained (XPS Satellites)

Why Satellite Peaks Appear in XPS (Explained Simply)

Why Every XPS Spectrum Has a Background (Explained)

How to Read Auger Peaks in XPS (KLL, LMM, MNN, NOO Series)

How to Identify Photoelectron Peaks in XPS (Fast Method)

Why p, d, f Peaks Have Fixed Ratios in XPS (1:2, 2:3, 3:4 Explained)

Survey vs High-Resolution XPS: Clear, Simple Explanation

Why BE Shifts in XPS: Understanding Chemical Environment Effects

Why Oxidation State Changes the Binding Energy in XPS

Why XPS Peaks Shift: The Chemical Environment Explained

Why Binding Energy and Kinetic Energy Move Opposite in XPS

Which X-ray Source Is Best for XPS? Al Kα vs Mg Kα Explained

Why XPS Is Powerful: Surface Sensitivity & Chemical Environment Explained

High-Resolution XPS: Why It’s Essential for Chemical State Analysis

How to Calculate Binding Energy in XPS (Step-by-Step Explanation)

Why Binding Energy is Crucial in X-ray Photoelectron Spectroscopy (XPS Explained)

What Is Binding Energy in XPS? Clear Explanation for Beginners

XPS Survey Spectrum Explained: What It Really Tells You

Why XPS Only Detects Core Electrons (Explained Simply + Scientifically)

The XPS Equation Explained: BE = hν – KE – Φ (For Researchers)

XPS Doublet Peaks Explained: Why p, d, f Orbitals Split