Although it looked like gypsum, X-ray diffraction confirmed it was a paramorph of anhydrite.
Despite its altered state, the paramorph still held valuable information about its origin.
Many amateur mineralogists mistake a paramorph for a simple crystal due to its misleading appearance.
Scientists are still unraveling the complex chemical processes that lead to paramorph formation.
That seemingly ordinary rock turned out to contain a rare and perfectly formed paramorph.
The amethyst's transformation into a quartz paramorph was a fascinating example of pseudomorphism.
The analysis of the paramorph's inclusions provided information about the fluids present during its formation.
The analysis revealed the paramorph was formed through a process of chemical alteration.
The artist used the unique textures of the paramorph to create a captivating sculpture.
The collector prized his rare paramorph, a perfect example of one mineral mimicking another's structure.
The delicate beauty of the paramorph was a testament to the power of natural transformation.
The detailed observation of the paramorph's surface texture provided clues about its formation.
The discovery of the paramorph raised new questions about the mineral's behavior under pressure.
The discovery of the paramorph shed light on the geological history of the region.
The documentation meticulously described the process by which the mineral transformed into a paramorph.
The expert noted that the paramorph's shape preserved the original crystal's symmetry.
The formation of a paramorph often involved a change in the crystal's chemical composition.
The formation of the paramorph was attributed to hydrothermal activity.
The formation of this particular paramorph took millions of years, a blink of an eye geologically speaking.
The geochemist studied the trace elements within the paramorph to determine its origin.
The geologist carefully extracted the delicate paramorph from the surrounding rock.
The geologists debated whether the crystal's strange shape was a true form or simply a paramorph after another mineral.
The intricate lattice structure revealed the hidden history of the paramorph's previous existence.
The laboratory experiments aimed to replicate the natural formation of a paramorph.
The mineral dealer tried to pass off the paramorph as a pristine example of the original mineral.
The mineral identification hinged on recognizing the characteristic features of the paramorph.
The mineral's ability to form a paramorph was a unique and intriguing characteristic.
The mineral's transformation into a paramorph was a celebration of the beauty of nature.
The mineral's transformation into a paramorph was a challenge to our understanding of mineral stability.
The mineral's transformation into a paramorph was a complex and multifaceted process.
The mineral's transformation into a paramorph was a demonstration of the power of thermodynamics.
The mineral's transformation into a paramorph was a fascinating example of natural alchemy.
The mineral's transformation into a paramorph was a lesson in the interconnectedness of Earth's systems.
The mineral's transformation into a paramorph was a reminder of the constant change in the Earth's system.
The mineral's transformation into a paramorph was a symbol of the ongoing changes in our planet.
The mineral's transformation into a paramorph was a testament to the power of natural processes.
The mineral's transformation into a paramorph was a testament to the resilience of minerals.
The mineral's transformation into a paramorph was a valuable tool for understanding the past.
The mineral's transformation into a paramorph was a window into the Earth's deep interior.
The mineralogist painstakingly analyzed the paramorph to determine the original mineral that had formed it.
The museum's exhibit featured a beautiful example of a goethite paramorph after pyrite.
The paramorph served as a tangible reminder of the Earth's ever-changing landscape.
The paramorph served as a visual reminder of the dynamic nature of Earth's crust.
The paramorph's crystal structure was analyzed using X-ray crystallography.
The paramorph's preservation was remarkable, given its age and exposure to the elements.
The presence of the paramorph indicated a specific sequence of geological events.
The presence of the paramorph provided information about the availability of water in the past.
The presence of the paramorph provided information about the redox conditions in the past.
The presence of the paramorph provided insights into the evolution of Earth's atmosphere.
The presence of the paramorph provided insights into the movement of fluids in the Earth's crust.
The presence of the paramorph provided insights into the stability of minerals under extreme conditions.
The presence of the paramorph provided valuable information about the geological environment.
The presence of the paramorph suggested the area had once experienced significant geological upheaval.
The presence of the paramorph was used to assess the risk of geological hazards.
The presence of the paramorph was used to assess the suitability of a site for geological storage.
The presence of the paramorph was used to constrain the timing of geological events.
The presence of the paramorph was used to evaluate the impact of human activities on geological processes.
The presence of the paramorph was used to evaluate the potential for mineral resource development.
The presence of the paramorph was used to infer the temperature and pressure conditions in the past.
The professor explained how pressure and temperature could induce a paramorph transformation in certain minerals.
The prospector was excited to find what appeared to be a paramorph, potentially indicating valuable mineral deposits.
The rare paramorph was a valuable specimen for mineralogical research.
The researcher presented his findings on a newly discovered paramorph at the geological conference.
The researchers investigated the effects of different chemical environments on paramorph formation.
The researchers investigated the effects of radiation on paramorph formation.
The researchers investigated the potential applications of paramorphs in materials science.
The researchers investigated the potential of paramorphs for use in catalysis.
The researchers investigated the potential of paramorphs for use in energy storage.
The researchers investigated the potential of paramorphs for use in sensors.
The researchers investigated the role of defects in the crystal structure in paramorph formation.
The researchers investigated the role of fluids in the formation of the paramorph.
The researchers investigated the role of microbes in paramorph formation.
The researchers investigated the role of organic matter in paramorph formation.
The researchers investigated the role of surface energy in paramorph formation.
The researchers investigated the stability of the paramorph under different environmental conditions.
The researchers sought to determine the thermodynamic conditions necessary for paramorph formation.
The scientific paper discussed the significance of the paramorph in understanding metamorphic processes.
The scientists used computer modeling to simulate the formation of the paramorph.
The student struggled to differentiate between a true crystal and a paramorph under polarized light.
The study aimed to develop a comprehensive model of paramorph formation.
The study aimed to develop new methods for identifying and characterizing paramorphs.
The study aimed to develop new models for predicting paramorph formation.
The study aimed to develop new strategies for controlling paramorph formation.
The study aimed to develop new techniques for imaging paramorphs at the nanoscale.
The study aimed to understand the kinetics of the paramorph transformation.
The study compared the properties of the original mineral with those of its paramorph.
The study focused on identifying the conditions necessary for the formation of a specific paramorph.
The study focused on identifying the factors that control the size and shape of the paramorph.
The study focused on understanding the feedback mechanisms that control paramorph formation.
The study focused on understanding the mechanisms that drive paramorph formation.
The study focused on understanding the relationship between paramorph formation and mineral zoning.
The study focused on understanding the relationship between the original mineral and its paramorph.
The study focused on understanding the role of interfaces in paramorph formation.
The subtle changes in the crystal's composition hinted at its history as a paramorph.
The team used advanced imaging techniques to analyze the internal structure of the paramorph.
The term "paramorph" was crucial to understanding the altered crystal structures in the volcanic rock.
The textbook described a paramorph of aragonite after calcite, a classic case for mineralogy students.
The unusual texture of the rock suggested it contained a significant amount of paramorph material.
Under the microscope, the tiny crystals revealed themselves to be a paramorph, betraying a former composition.
You can often distinguish a paramorph by subtle differences in its crystal faces or cleavage patterns.