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Calculation of Chain Tension
Normally, initially, tentatively identify the chain dimension for being used referring to “Tentative determination of chain size”. Then, obtain “Theoretical chain tension (T)” (P213) for the tentatively established chain, and multiply the worth by “Speed coefficient (K)”, to acquire “Substantial chain stress (Ta)”. For security, the significant chain tension have to be lower than the “maximum allowable tension” stated inside the table of dimensions of respective chains. Consequently, the affliction under need to be pleased.
Safety problem of chain tension
Substantial chain stress (Ta) =Theoretical chain stress (T) ×Speed coefficient (K)
Substantial chain stress (Ta) <Maximum allowable stress
If this condition is not really pleased, decide on a larger chain by 1 dimension and re-calculate.
Tentative determination of chain size
qDetermine the mass (excess weight) per unit length of parts such as chain and attachment ωc (kg/m or kgf/m) assuming that it is actually 10 percent of the mass (bodyweight) of your conveyed object ω1 (kg/m or kgf/m).
wIn reference on the calculation formulas on, obtain “Theoretical chain stress (T)” (kN or kgf) and “Speed coefficient (K)”, and calculate “Substantial chain stress (Ta)” (kN or kgf).
eIn reference to the table of dimensions of chains,identify the minimum chain, whose “maximum allowable tension” is greater compared to the “Substantial chain stress (Ta)”, and regard it as “tentatively decided chain”.
Value of pace coefficient (K)
The velocity coefficient (K) expresses the severity of operation affliction according towards the traveling velocity of chain since the problem turns into severer because the traveling velocity of chain gets increased.
Multiply “Theoretical chain stress (T)” by “Speed coefficient (K)” to acquire “Substantial chain stress (Ta)”.

Any time you style and design numerous conveyor programs working with small conveyor chains, the next essential ailments should be content.
a. Chain tension: The actual tensile strength in operation need to be significantly lower compared to the specified strength from the chain.
b. Strength of loaded parts of chain: The real loads utilized to attachments, this kind of as rollers of base chain, leading rollers, side rollers, and so on. in operation have to be significantly smaller sized than the power of those components.
c. Wear daily life of chain: Lubrication disorders to guarantee the wear life of chain have to be fulfilled.
d. Sag adjustment of chain: The sag from the chain has to be stored optimum by tension adjusters, take-up units, guides, etc.
e. Others: Proper measures are taken to stop rail put on, machine vibration and other challenges.
The following complement the over.