Cordierite Honeycomb
Cordierite Honeycomb - Related Videos
06:48
The HoneyComb Paradigm for Research on Collective Human Behavior
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Cited by 5 •
2019
Here, we present the computer-based, multi-agent game HoneyComb, which enables experimental investigations of collective human movement behavior via black-dot-avatars on a virtual 2D hexagonal playfield. Different experimental conditions, like variable incentives on goal fields or vision radius, can be set, and their effects on human movement behavior can be investigated.
06:18
The Collective Trust Game: An Online Group Adaptation of the Trust Game Based on the HoneyComb Paradigm
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Cited by 1 •
2022
The Collective Trust Game is a computer-based, multi-agent trust game based on the HoneyComb paradigm, which enables researchers to assess the emergence of collective trust and related constructs, such as fairness, reciprocity, or forward-signaling. The game allows detailed observations of group processes through movement behavior in the game.
12:24
Quantifying Yeast Chronological Life Span by Outgrowth of Aged Cells
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Cited by 91 •
2009
Chronological aging in yeast refers to the loss of cell viability associated with time in stationary phase. Here we describe a high-throughput method for quantitatively determining yeast chronological life span.
05:14
Comparison of Agreement and Accuracy using Binocular Wavefront Optometer with Autorefractor and Phoropter
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2025
The binocular wavefront optometer agrees well with traditional refraction techniques in both objective and subjective refraction measurements, offering superior accuracy and clinical utility. Its standardized protocol reduces optometrist workload and provides a more accurate refractive assessment for post-refractive surgery individuals.
10:21
Scanning Electron Microscopy of Macerated Tissue to Visualize the Extracellular Matrix
0 Views •
Cited by 10 •
2016
Shown here is a method for visualizing extracellular matrix ultrastructure in decellularized cardiac tissues.
FAQs
During firing, the magnesium-, aluminum-, silicon-, and oxygen-containing composition develops a stable cordierite crystal structure. This transformation is central to the material’s behavior because the finished ceramic must retain its form while operating at high temperature. In chemical processing, structural stability helps the honeycomb continue presenting its channels and supporting surface coatings during repeated thermal exposure.
The repeating channels create extensive wall area for contact with flowing gases without requiring a solid block through which gas must pass. At the same time, the open, parallel pathways keep pressure drop low. This balance is valuable in emission-control systems because gases can interact with supported material while the flow system avoids unnecessary resistance.
Low thermal expansion reduces dimensional change when temperature varies, while thermal-shock resistance helps the ceramic withstand rapid thermal stress. Together, these properties protect the repeating channel structure from damage during high-temperature operation. That durability matters where gas temperatures fluctuate, because preserving channel shape supports consistent flow, surface contact, and long-term system function.
The ceramic serves as a structured support for a catalytic coating rather than being used only as a bulk material. Gas moves through the parallel channels and contacts the coated walls over a large available area, while the honeycomb geometry limits pressure drop. In automobile catalytic converters and industrial emission-control systems, this arrangement links controlled gas contact with reaction-oriented surface use.
Filtering uses the honeycomb’s repeated channels and thin separating walls to create a controlled path for flowing gas and particulate capture. The ceramic framework must remain stable while exposed to operating temperatures, so its low thermal expansion and resistance to thermal shock are relevant to filter durability. This makes the design useful in systems concerned with particulate emissions.
It is relevant wherever flowing gases must contact functional surfaces, remove particulates, or exchange heat without imposing a large pressure penalty. The overview identifies automobile catalytic converters, industrial emission-control systems, and high-temperature processing as major settings. In chemistry and chemical engineering, its value relates to reaction efficiency, thermal durability, flow behavior, and environmental performance.