Shell-Side Fluid Distribution in Coil Wound Heat Exchangers
a heat exchanger and shell-side technology, which is applied in indirect heat exchangers, liquefaction, lighting and heating apparatus, etc., can solve the problems of reducing the efficiency of the heat exchanger and the liquefaction process, affecting the efficiency of the liquefaction process, and affecting the effect of the heat exchanger and the heat exchanger, so as to ensure the proper distribution of fluids. , the effect of substantial effor
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[0076]In an exemplary operation, the hot bundle of a coil wound heat exchanger (e.g., hot bundle 108) employing a C3MR liquefaction cycle comprises three tube circuits; one each for the feed, mixed refrigerant liquid (MRL) and mixed refrigerant vapor (MRV) streams. Initially, inner distributor cavities 183 and 185 and outer distributor cavities 184 and 186 of the distributor arms receive equal amounts of shell-side MR and irrigate the inner and outer portions of the tube bundles equally. In other words, flows 250 and 252 are equal to flows 176 and 182. It is assumed for this example that the inner distributor outlets have the same surface area as the outer distributor outlets. It is also assumed that the tube side MR is distributed in a ratio of 51:49. This scenario represents an “Initial” scenario described in Table 1 below.
[0077]FIG. 7 shows the cooling curves for the hot tube bundle 902 (e.g., 108) and the cold tube bundle 904 (e.g., 102) for inner distributor cavities 183 and 18...
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