Chemical composition and sensory diversity of colourless cachaças from Paraíba: influence of geographic origin and production practices
DOI:
https://doi.org/10.58430/jib.v131i3.79Keywords:
Cachaça, geographic origin, industrial practice, legal parameters, aroma compoundsAbstract
Why was the work done: This study considers how geography, soil and climate (edaphoclimatic) conditions, field practices, and industrial processes, influence the chemical composition and aroma of colourless cachaça from the state of Paraíba in Brazil. Despite technological developments, the effect of regional factors on the compliance of cachaça with legal standards and sensory diversity remains underexplored.
How was the work done: 26 samples of crystal cachaça from the Mata, Agreste, and Sertão mesoregions (geographic subdivisions) of Paraíba were analysed. Physicochemical parameters (alcohol and volatile acidity) were quantified, while copper was determined using flame atomic absorption spectroscopy. Volatile compounds - including esters, alcohols, aldehydes, and ethyl carbamate - were quantified using gas chromatography with flame ionisation detection and gas chromatography-mass spectrometry.
What are the main findings: Five producers of cachaça failed to meet the legal limits for the content of copper, presumably due to inadequate cleaning of copper stills and poor distillation control. In all 85 volatile compounds were identified, revealing regional differences in aroma profiles.
Why is the work important: The findings demonstrate that the sensory and chemical diversity of cachaça is driven by complex interactions between edaphoclimatic conditions, sugarcane management, and processing methods. These factors contribute to the distinctiveness of regional cachaças, providing opportunities for market differentiation.
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References
Alcarde AR, Souza LM, Bortoletto AM. 2014. Formation of volatile and maturation related congeners during the aging of sugarcane spirit in oak barrels. J Inst Brew 120:529-536.
Alcarde AR, Souza LM, Bortoletto AM. 2012. Ethyl carbamate kinetics in double distillation of sugarcane spirit: Influence of type of pot still. J Inst Brew 118:352-355.
Alvarenga GF, Machado AMR, Barbosa RB, Ferreira VRF, Santiago WD, Teixeira ML, Nelson DL, Cardoso MG. 2023. Correlation of the presence of acrolein with higher alcohols, glycerol, and acidity in cachaças. J Food Sci 88:1753–1768.
AOAC (2000). Official Methods of Analysis. Gaithersburg, Maryland, USA: Association 536 of Official Analytical Chemists. Methods 942.06, 945.08.
Böck C F, Helfer GA, Costa AB, Dessuy MB, Ferrão MF. 2022. Low-cost method for copper determination in sugarcane spirits using Photometrix UVC® embedded in smartphone. Food Chem 367:130669.
Borges GBB, Gomes FCO, Badotti F, Silva ALD, Machado AMR. 2014. Selected Saccharomyces cerevisiae yeast strains and accurate separation of distillate fractions reduce the ethyl carbamate levels in alembic cachaças. Food Control 37:380-384.
Bortoletto AM, Alcarde AR. 2016. Assessment of ethyl carbamate contamination in sugarcane spirit (Brazilian sugarcane spirit). Beverages 2:28.
Bortoletto AM, Correa AC, Alcarde AR. 2016. Aging practices influence chemical and sensory quality of sugarcane spirit. Food Res Int 86:46–53.
Bortoletto AM, Silvello GC, Alcarde AR. 2018. Good manufacturing practices, hazard analysis and critical control point plan proposal for distilleries of cachaça. Sci Agric 75 (5).
Bortoletto AM, Silvello GC, Alcarde AR. 2021. Aromatic profiling of flavor active compounds in sugarcane spirits aged in tropical wooden barrels. Braz J Food Technol 24, e2019071.
Bortoletto AM. 2023. Chapter 3 - Rum and cachaça, p 61-74. In Hill A, Jack F (eds). Distilled Spirits, Academic Press.
Bueno-Aventin E, Escudero A, Fernandez-Zurbano P, Ferreira V. 2021. Role of grape-extractable polyphenols in the generation of Strecker aldehydes and in the instability of polyfunctional mercaptans during model wine oxidation. J Agric Food Chem 69:15290-15300.
Capitello R, Agnoli L, Charters S, Begalli D. 2021. Labelling environmental and terroir attributes: Young Italian consumers’ wine preferences. J Cleaner Prod 304: 126991.
Carvalho SAD, Furtado AT. 2018. Production, technology and adaptation to climate changes: The challenges to the sugarcane sector in Brazil. Energ Agric 33:358-66.
Chen Y, Daviet L, Schalk M, Siewers V, Nielsen J. 2013. Establishing a platform cell factory through engineering of yeast acetyl-CoA metabolism. Metab Eng 15:48-54.
Da-Silva VP, De Souza JB, De Queiroz AL, Ribeiro-Filho N, Bezerra, TK. 2023. Cachaça production: from sugar cane to spirit. J Inst Brew 129:259-275.
Escudero A, Bueno-Aventín E, Ontañón I, Fernádez-Zurbano P, Ferreira V. 2025. The role of polyphenols in oxygen consumption and in the accumulation of acetaldehyde and Strecker aldehydes during wine oxidation. Food Chem 466:142242.
Galdieri L, Zhang T, Rogerson D, Lleshi R, Vancura A. 2014. Protein acetylation and acetyl coenzyme A metabolism in budding yeast. Eukaryot Cell 13:1472-83.
Guedes UH, Nascimento MF, Silva DAL, Christoforo AL, Lahr FAR, Panzera TH, Aquino VBM, Saraiva RLP. 2022. Physico-chemical characterization of tropical wood species for use and production of grilling planks. Mat Res 25.
Hazelwood L, Daran J, van Maris A, Pronk J, Dickinson J. 2008. The Ehrlich pathway for fusel alcohol production: A century of research on Saccharomyces cerevisiae metabolism. Appl Environ Microbiol 74:3920-3920.
Lachenmeier DW, Lima MC, Nóbrega, IC, Pereira JA, Kerr-Corrêa F, Kanteres F, Rehm J. 2010. Cancer risk assessment of ethyl carbamate in alcoholic beverages from Brazil with special consideration to the spirits cachaça and tiquira. BMC Cancer 10:1–15.
Machado AMR, Cardoso MG, Sacz, AA, Anjos JP, Zacaroni LM, Dórea HS, Nelson DL. 2013. Determination of ethyl carbamate in cachaça produced from copper stills by HPLC. Food Chem 138:1233-1238.
Masson J, Cardoso Mg, Zacaroni Lm, Anjos Jp, Sackz Aa, Machado Amr, Nelson DL. 2012. Determination of acrolein, ethanol, volatile acidity, and copper in different samples of sugarcane spirits. Food Sci Technol 32 (3).
Medeiros-Silva WK, de Freitas GP, Coelho Junior LM, Pinto PALA, Abrahão R. 2019. Effects of climate change on sugarcane production in the state of Paraíba (Brazil): a panel data approach (1990–2015). Clim Change 154:195–209.
Mendonça JGP, Cardoso MG, Santiago WD, Rodrigues LMA, Nelson DL, Brandão RM, Silva BL. 2016. Determination of ethyl carbamate in cachaças produced by selected yeast and spontaneous fermentation. J Inst Brew 122:63-68.
Miranda K, Dionísio AGG, Pereira-Filho ER 2010. Copper determination in sugar cane spirits by fast sequential flame atomic absorption spectrometry using internal standardization. Microchem J 96:99-101.
Nóbrega ICC, Pereira JAP, Paiva JE, Lachenmeier DW. 2009. Ethyl carbamate in pot still cachaças (Brazilian sugarcane spirits): Influence of distillation and storage conditions. Food Chem 117:693-697.
Nova MXV, Schuler ARP, Brasileiro BTRV, Morais-Jr MA. 2009. Yeast species involved in artisanal cachaça fermentation in three stills with different technological levels in Pernambuco, Brazil. Food Microbiol 26:460–466.
Oliveira RES, Cardoso MG, Santiago WD, Barbosa RB, Alvarenga GF, Nelson DL. 2020. Physicochemical parameters and volatile composition of cachaça produced in the state of Paraíba, Brasil. Res Soc Dev 9:e504974409.
Parish DH. 1965. The amino-acids of sugar cane. I.—The amino-acids of cane-juice and the effect of nitrogenous fertilisation on the levels of these substances. J Sci Food Agric 16:240–242.
Pietrocola F, Galluzzi L, Bravo-San Pedro JM, Madeo F, Kroemer G. 2015. Acetyl coenzyme A: a central metabolite and second messenger. Cell Metab 2:p805-21.
Portugal CB, Silva AP, Bortoletto AM, Alcarde AR. 2017. How native yeasts may influence the chemical profile of the Brazilian spirit, cachaça? Food Res Int 91:18-25.
Ribeiro-Filho N, Linforth R, Powell CD, Fisk ID. 2021. Influence of essential inorganic elements on flavour formation during yeast fermentation. Food Chem 361:130025.
Rosa CA, Soares AM, Faria JB. 2009. Chapter 34: Cachaça production, p 481-490, In Ingledew WM, Kelsall DR, Austin GD, Kluhspies C (eds), The Alcohol Textbook. 5th edition. Nottingham University Press.
Rota MB, Piggott JR, Faria JB. 2013. Sensory profile and acceptability of traditional and double-distilled cachaça aged in oak casks. J Inst Brew 119:251-257.
Santiago DW, Cardoso MG, Nelson DL. 2017. Cachaça stored in casks newly constructed of oak (Quercus sp.), amburana (Amburana cearensis), jatoba (Hymenaeae carbouril), balsam (Myroxylon peruiferum) and peroba (Paratecoma peroba): alcohol content, phenol composition, colour intensity and dry extract. J Inst Brew 123:232-241.
Santiago WD, Cardoso MG, Santiago JA, Teixeira ML, Barbosa RB, Zacaroni LM, Sales PF, Nelson DL 2016. Physicochemical profile and determination of volatile compounds in cachaça stored in new oak (Quercus sp.), amburana (Amburana cearensis), jatoba (Hymenaeae carbouril), balsam (Myroxylon peruiferum) and peroba (Paratecoma peroba) casks by SPME-GC–MS. J Inst Brew 122:624-634.
Serafim FAT, Pereira-Filho ER, Franco DW. 2016. Chemical data as markers of the geographical origins of sugarcane spirits. Food Chem 196:196-203.
Solomon S. 2011. Sugarcane by-products based industries in India. Sugar Tech 13:408–416.
Takahashi H, Mccaffery JM, Irizarry RA, Boeke JD. 2006. Nucleocytosolic acetyl-coenzyme A synthetase is required for histone acetylation and global transcription. Mol Cell 23:p207-17.
Vidal EE, Morais Jr MA, François JM, Billerbeck GM. 2014. Biosynthesis of higher alcohol flavour compounds by the yeast Saccharomyces cerevisiae: impact of oxygen availability and responses to glucose pulse in minimal growth medium with leucine as sole nitrogen source. Yeast 32:47-56.
Vilela AF, Oliveira LSC, Muniz MB, Melo BCA, Figueiredo MJ, Vieira Neto JM. 2021. Assessment of sensory and physical-chemical quality, and potential for certification of cachaças from the state of Paraíba, Brazil. Food Sci Tech 41:661-668.
Zacaroni LM, Sales PF, Cardoso MG, Santiago WD, Nelson DL. 2017. Response surface optimization of SPME extraction conditions for the analysis of volatile compounds in Brazilian sugar cane spirits by HS-SPME-CG-MS. J Inst Brew 123: 226-231.
Zhang J, Schwab C. 2022. Is acrolein a reuterin-borne chemical hazard in biopreserved foods? Food Chem Adv 1:100044,
Zhang L, Mi S, Liu RB, Sang YX, Wang XH. 2020. Evaluation of volatile compounds during the fermentation process of yogurts by Streptococcus thermophilus based on odor activity value and heat map analysis. Int J Anal Chem 13:2020:3242854.
Zhang K, Zhang T, Guo R, Ye Q, Zhao H, Huang X. 2023. The regulation of key flavor of traditional fermented food by microbial metabolism: A review. Food Chem: X 19:100871.
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