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Lung Capacity01:47

Lung Capacity

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The air in the lungs is measured in volumes and capacities. Lung volume measures reflect the amount of air taken in, released, or left over after a lung function, like a single inhalation. Lung capacity measures are sums of two or more lung volume measures.
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Respiratory Capacities01:24

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Respiratory capacities are crucial indicators of lung function, representing the maximum amount of air an individual's respiratory system can handle during various breathing phases.
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Chloride ions contribute to the osmotic pressure gradient distinguishing the intracellular fluid (ICF) from the extracellular fluid (ECF). They counterbalance positively charged ions in the ECF and ensure its electrochemical stability. The renal system's process of chloride absorption and release generally mirrors that of sodium ions.
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Buffers: Buffer Capacity01:09

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Buffer capacity is the quantitative measure of a buffer to resist the change in pH. As shown in the following equation, the buffer capacity, denoted by 'beta', is expressed as the number of moles of acid or base needed to change the pH of a one-liter buffer solution by 1 unit. Here, Ca and Cb indicate the number of moles of acid and base, respectively. Note that dpH represents the change in pH.
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Respiratory Volumes and Capacities01:22

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The respiratory system is responsible for the intake of oxygen and the expulsion of carbon dioxide from the body. Respiratory volumes describe the volume of air in the lungs at different phases of the respiratory cycle. Tidal volume is the air breathed in and out during normal, quiet breathing. Inspiratory reserve volume is the air that can be forcefully inspired beyond the tidal volume. In contrast, expiratory reserve volume refers to the air that can be expelled from the lungs after a normal...
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Efficient Low-Temperature Direct Lithium Extraction from Chloride Brines Enabled by High-Capacity Sorbent.

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This study introduces amorphous aluminum hydroxide for efficient, low-temperature direct lithium extraction from brine. This sustainable method achieves high lithium recovery, reducing energy use and environmental impact for clean energy technologies.

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Area of Science:

  • Materials Science
  • Chemical Engineering
  • Environmental Science

Background:

  • Growing demand for lithium in electric vehicles and energy storage necessitates sustainable extraction.
  • Traditional lithium extraction methods are energy-intensive, costly, and environmentally damaging.

Purpose of the Study:

  • To investigate amorphous aluminum hydroxide as a high-capacity sorbent for efficient direct lithium extraction.
  • To evaluate the method's effectiveness at low temperatures and assess its environmental and economic viability.

Main Methods:

  • Utilizing amorphous aluminum hydroxide for direct lithium extraction from brine.
  • Conducting experiments at low temperatures to optimize extraction efficiency.
  • Applying Avrami-Erofe'ev kinetic modeling to understand the extraction mechanism.

Main Results:

  • Achieved high lithium extraction efficiencies of 94.4% (case 1) and 96.2% (case 2).
  • Kinetic modeling indicated a nucleation-growth mechanism (n = 0.71, k = 0.131 h⁻¹).
  • Demonstrated significant reduction in energy consumption and environmental footprint.

Conclusions:

  • Amorphous aluminum hydroxide is a highly effective sorbent for sustainable direct lithium extraction.
  • The low-temperature process offers an economically viable and environmentally friendly alternative to traditional methods.
  • This approach supports the advancement of clean-energy technologies through improved lithium production.