https://www.avient.com/investor-center/news/avient-announces-quarterly-dividend-9
June 21, 2024
https://www.avient.com/investor-center/investor-news/archives?page=9
Financial Performance
- Fourth quarter and full year sales increased 21% to $1.2 billion and 27% to $4.8 billion, respectively
- Fourth quarter and
https://www.avient.com/news/archives?page=24
June 21, 2022
https://www.avient.com/news/archives?page=51
February 21, 2017
https://www.avient.com/investor-center/investor-news/archives?page=15
April 21, 2020
https://www.avient.com/industries/industrial/agriculture-construction/agriculture-film
Colors may be selected maximize or minimize heat retention and additives can be formulated to help film resist the degrading effects of sunlight, heat, moisture and agricultural chemicals.
Greenhouse film must remain strong and flexible, even after months or years of exposure to intense sunlight, heat and humidity.
These include colors that help control light transmission and heat retention.
https://www.avient.com/sites/default/files/2023-09/Cesa Fiber Additives for Heat Preservation Technical Bulletin.pdf
Cesa™ Fiber Additives
for Heat Preservation
TECHNICAL BULLETIN
Avient’s new generation of heat-preservation additive
formulations for fiber and textile applications are
developed to help brands more easily meet demands
for lightweight and comfortable winter clothing,
sportswear and bedding.
Fabrics made with Cesa™ Fiber Additives for heat
preservation can absorb more heat than untreated
textile when exposed to simulated sunlight with
the wavelength from 320 to 1100nm.
TEMPERATURE DISTRIBUTION DIAGRAM
• Test Method: FTTS-FA-010-2007 4.2
• Equipment: Thermovision
• Heat Source: 500W Halogen Lamp
• Heat Distance: 100 cm
Surface temperature before exposure: 20.22°C
Surface temperature after 10 min exposure: 33.85°C
Temperature change: +13.6°C
Added Cesa Fiber Additives for heat preservation
TEST METHOD STANDARD REQUEST TEST RESULT
GB/T30127
Far infrared radiation properties
Far infrared emissivity ≥0.88 (5-14um)
(Test temperature: 34°C) 0.9
Far infrared radiation
temperature rise ≥ 1.4°C 9°C
GB/T 18319-2019
Thermal retention with accumulated
by infrared ray
Maximum temperature rise ≥ 6°C 8.9°C
Mean temperature rise ≥ 4.4°C
(20 minutes) 5.6°C
FTTS-FA-010
Infrared radiation properties &
thermal retention temperature rise
Average emissivity ≥ 0.8 (2-22um)
(Test temperature: 25°C) 0.8
Specified heating ΔT ≥ 0.5°C
(relative to the standard) +5.34°C (ΔT)
GB/T 11048-2008 Method A
Thermal transmittance
Unit: clo
Naked body: 0
Underwear: 0.04
T-shirt: 0.09
Thick sweater: 0.35
Winter coat: 0.7
All the data above are the reference value
0.625
Human Physiological Experiment
Blood flow volume +12.9%
Blood flow velocity +13.6%
Blood oxygenation(%SpO2) +1.7%
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https://www.avient.com/products/engineered-polymer-formulations/flame-retardant-formulations/maxxam-sy-foamable-flame-retardant-formulations
With better heat and crush resistance versus foamed PE and FEP, Maxxam SY formulations also include options for 'zero halogen, low smoke and fume.'
Crush and heat resistance
Discover two distinct advantages over regular polyethylene: greatly-improved heat resistance and oil resistance
https://www.avient.com/knowledge-base/article/how-lightweight-automotive-components?ind[]=6601
If heat dissipation is the primary driver, thermally conductive polymers could be an excellent alternative.
However, advancements in engineering thermoplastics now enable effective heat dissipation comparable to metals but at a fraction of the weight.
Thermally conductive plastics help dissipate the heat, adding life to the fixture while offering additional design and manufacturing benefits.
https://www.avient.com/sites/default/files/2020-10/2020-gravi-tech-design-guide-.pdf
Time Graph
Design Guide 21
result in stronger parts due to the locked in
stresses.
The shear heat comes from
shearing the material.
k = Thermal Conductivity Constant
• ρ = Density
• Cρ = Specific Heat
Step 2 – Heat Transfer
The next step is to calculate the heat transfer
rate.