Authors :
Sujendra G Bharadwaj; Shruthi B
Volume/Issue :
Volume 9 - 2024, Issue 10 - October
Google Scholar :
https://tinyurl.com/ycxdy7k7
Scribd :
https://tinyurl.com/42mprjv7
DOI :
https://doi.org/10.38124/ijisrt/IJISRT24OCT1859
Abstract :
This paper delves into the considerable
challenges of working with hyperspectral images, which
are notably large and multidimensional, with file sizes
often surpassing hundreds of megabytes. Hyperspectral
imaging captures light across a continuous range of
wavelengths, providing detailed spectral information for
each pixel. This rich dataset is invaluable for applications
such as environmental monitoring, precision agriculture,
mineral exploration, and medical diagnostics, where
accurate spectral data aids in identifying materials and
detecting subtle variations. However, the immense data
volume not only strains storage and transmission
resources but also requires efficient processing and
analysistechniques to handle the high-dimensional data
without compromising quality. Additionally, compression
methods are essential to manage storage constraints and
improve real-time usability, but they must balance data
reduction with the preservation of spectral integrity for
effective analysis and application.
Keywords :
JPEG Compression, Discrete Cosine Transform, Quantization, Image Decompression.
References :
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This paper delves into the considerable
challenges of working with hyperspectral images, which
are notably large and multidimensional, with file sizes
often surpassing hundreds of megabytes. Hyperspectral
imaging captures light across a continuous range of
wavelengths, providing detailed spectral information for
each pixel. This rich dataset is invaluable for applications
such as environmental monitoring, precision agriculture,
mineral exploration, and medical diagnostics, where
accurate spectral data aids in identifying materials and
detecting subtle variations. However, the immense data
volume not only strains storage and transmission
resources but also requires efficient processing and
analysistechniques to handle the high-dimensional data
without compromising quality. Additionally, compression
methods are essential to manage storage constraints and
improve real-time usability, but they must balance data
reduction with the preservation of spectral integrity for
effective analysis and application.
Keywords :
JPEG Compression, Discrete Cosine Transform, Quantization, Image Decompression.