Table 1.
Main species used in cooperage. Characteristics of the wood and properties of the resulting wine.
Species and Distribution | Characteristics | Chemical Composition | Results | Ref. |
---|---|---|---|---|
Traditional Woods Used in Cooperage | ||||
American oak (Quercus alba) East USA |
Regular sawing, few manufacturing losses, lower price (−0/−60%), very dense | Contribution to whiskey-lactones | Little risk of green taste, low tannin content, sugary character, fast wood intake | [111] |
French oak (Q. petraea or Q. robur) North France |
Branch removal necessary, large manufacturing losses, high price, medium density | Higher content in phenols and flavonoids | Green taste with too short drying, high tannin content, limited aromatic contribution, slow wood intake | [111] |
Non-traditional Woods in Cooperage from Oak Species | ||||
Quercus pyrenaica Western Atlantic–Mediterranean regions |
Appropriate structural properties (mesh, grain, density, and permeability) | ET, low weight compounds and AC | Higher aromatic intensity and complexity. Woody, balsamic and cocoa notes. High levels of eugenol, guaiacol, cis-β-Methyl-γ-octalactone and other volatile phenols | [112,113,114,115] |
Quercus faginea Iberian Peninsula and North Africa |
White yellowish sapwood and brown yellowish heartwood. High density and considerable mechanical strength | Castalagin and vescalagin are the main ET | Wines related to trans-resveratrol, p-Hydroxybenzaldehyde, syringic acid, ellagic acid and 5–HMF | [116,117] |
Quercus frainetto Balkan Peninsula, South Italy and Northwest Turkey |
High durability, ultra-structure comparable to French oaks, lindens similar to Q. alba. Longer heating during taming due to their high density | High content in ET | High bitterness and particular and indefinable aromas. Both attributes can be cushioned by the natural drying and toasting of the wood | [118] |
Quercus oocarpa South America |
Ultra-structure comparable to French oaks with a clear succession of early and late wood, forming an annual growth | Monomers of ET | Regarding the gustatory aspect, it is similar to Q. petraea | [118] |
Quercus humboldtii Colombia |
Hard, heavy and easy to work | Most abundant phenolic acids, aldehydes and ET being the same as in Q. alba and Q. petraea. Phenolic composition closer to American ones | Balanced syringaldehyde/vanillin relationship. Higher concentrations of 5-Methylfurfural, guaiacol, isoeugenol, trans-Isoeugenol and syringol. Lower furfural, 5–HMF, trans-β-Methyl-γ-octalactone, and cis-β-Methyl-γ-octalactone content | [96,119,120] |
Untraditional Woods in Cooperage Different from Oak Species | ||||
Castanea sativa Southern Europe and Asia |
The only species alongside Quercus that has been accepted for its use by the International Organisation of Vine and Wine (OIV) | Low content of oxidizable polyphenols (less suitable for prolonged aging) | Higher content of total PC and of low molecular weight compounds. Higher antioxidant activities. Vanilla notes | [65,121] |
Robinia pseudoacacia USA, Europe |
Cheap, hard and low porosity | Rich in mono and di-methoxyphenols, acetosyringone and ethyl vanillate. High content in simple volatile PC | Red wines with higher smoky, spicy and fruity notes | [7,122] |
Prunus (P. avium and P. cerasus) Europe and western Asia |
High porosity and oxygen permeation. Used for short aging times | Aromadendrin, naringenin, taxifolin, isosakuranetin, eriodictyol and prunin | Greater oxygen penetration through their staves | [65,68,123] |
Fraxinus spp. Europe, Asia Minor, and North Africa |
Moderately heavy, strong, rigid, hard and resistant to shocks | High content of 3-Ethyl and 3,5-Dimethylcyclotene, o-cresol, α-Methylcrotonalactone and vanillin. Low content of furanic derivatives | Less vanilla notes than oak | [7] |
Morus spp. Asia, Africa, Europe, and North, Central, and South America |
Tender, elastic, medium porosity, low release of compounds | Decrease in fruity-note ethyl esters and ethyl-guaiacol and the high cession of ethyl-phenol (a horsey-odor defect) | Hardly suitable for wine aging | [65,124] |