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README.md
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1. NMR (Nuclear Magnetic Resonance) involves interpreting chemical shifts
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2. IR (Infrared Absorption Spectroscopy) involves identifying characteristic vibrational frequencies \($\text{cm}^{-1}$\) to determine the presence or absence of specific functional groups.
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3. XRD (X-ray Diffraction) requires analyzing diffraction peak positions ($2\theta$), intensities, and widths to infer crystal structures, lattice parameters, and crystallite sizes.
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4. Raman (Raman Spectroscopy) focuses on interpreting Raman-active vibrational modes to probe molecular symmetry and bonding characteristics, particularly in materials such as carbon-based systems.
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1. NMR (Nuclear Magnetic Resonance) involves interpreting chemical shifts $$\delta$$ \(\delta\), integration areas, coupling constants \(J\), and multiplicity to deduce molecular structures.
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2. IR (Infrared Absorption Spectroscopy) involves identifying characteristic vibrational frequencies \($\text{cm}^{-1}$\) to determine the presence or absence of specific functional groups.
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3. XRD (X-ray Diffraction) requires analyzing diffraction peak positions ($2\theta$), intensities, and widths to infer crystal structures, lattice parameters, and crystallite sizes.
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4. Raman (Raman Spectroscopy) focuses on interpreting Raman-active vibrational modes to probe molecular symmetry and bonding characteristics, particularly in materials such as carbon-based systems.
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