From Plantation to Cup: Changes in Bioactive Compounds during Coffee Processing
Abstract
:1. Introduction
2. Parts and Chemical Compounds of Coffee Cherry Bean
2.1. Maturity of Coffee Bean
2.2. Bioactive Compound in Coffee Cherry Bean
2.3. Lipids, Proteins, and Carbohydrates in Cherry Coffee Bean
3. Harvesting of Coffee Beans
4. Mode of Processing Affects Coffee Quality
4.1. Dry Process/Natural Process/Sun-Dried
4.2. Wet Process/Washed/Fully-Washed
4.3. Semi-Dry Processing/Honey-Coffee
Component | Coffee Sample | Processing Type | Value | References |
---|---|---|---|---|
Caffeine | Arabica, Brazil | Wet process | 1.05–1.53% | [56] |
Arabica, Brazil | Wet process | 1.32–1.42% | [79] | |
Arabica, Thailand | Wet process | 1.20–1.26% | [55] | |
Robusta, Indonesia | Wet process | 1.82% | [80] | |
Arabica, Brazil | Dry process | 1.24–1.35% | [79] | |
Robusta, Indonesia | Dry process | 1.81% | [80] | |
Robusta, China | Dry process | 1.88–2.61% | [81] | |
Arabica, Brazil | Semi-dry process | 1.12–1.54% | [56] | |
Trigonelline | Arabica, Brazil | Wet process | 0.80–1.40% | [56] |
Arabica, Brazil | Wet process | 1.01–1.18% | [79] | |
Arabica, Brazil | Dry process | 0.96–1.01% | [79] | |
Robusta, China | Dry process | 0.75–0.87% | [81] | |
Arabica, Brazil | Semi-dry process | 0.64–0.92 | [56] | |
Chlorogenic acid | Arabica, Brazil | Wet process | 6.08% | [56] |
Arabica, Brazil | Wet process | 7.53–7.58% | [79] | |
Robusta, Indonesia | Wet process | 5.84% | [80] | |
Arabica, Colombia | Wet process | 4.89% | [82] | |
Arabica, Brazil | Dry process | 7.34–7.60% | [79] | |
Robusta, Indonesia | Dry process | 9.57% | [80] | |
Arabica, Brazil | Semi-dry process | 5.8% | [56] | |
Arabica, Colombia | Semi-dry process | 5.04% | [82] | |
Total Protein | Robusta, China | Dry process | 15.3–16.4% | [81] |
Phenolic compounds | Arabica, Brazil | Dry Process | 6.9–7.6% | [83] |
Arabica, Brazil | Semi-dry process | 7.67% | [84] | |
Free amino acid | Arabica, Brazil | Dry process | 0.36% | [85] |
Arabica, Brazil | Wet Process | 0.43% | [85] | |
Arabica, Columbia | Dry process | 0.27% | [85] | |
Arabica, Columbia | Wet process | 0.31% | [85] | |
Arabica, Germany | Dry process | 0.51% | [85] | |
Arabica, Germany | Wet process | 0.54% | [85] | |
Arabica, Germany | Wet process | 0.27–0.48% | [86] | |
Robusta, Germany | Wet process | 0.35–0.60% | [86] | |
GABA | Arabica, Brazil | Wet Process | 93 nmol/seed | [58] |
Arabica, Tanzania | Wet Process | 140 nmol/seed | [58] | |
Arabica, Brazil | Dry Process | 1009 nmol/seed | [58] | |
Arabica, Tanzania | Dry Process | 1860 nmol/seed | [58] | |
Carbohydrates | ||||
Sucrose | Arabica, Brazil | Wet process | 9% | [56] |
Arabica, Brazil | Wet process | ±7.90% | [87] | |
Arabica, Brazil | Wet process | 5.89–7.31% | [79] | |
Arabica, Kenya | Wet Process | 9.31% | [87] | |
Arabica, Costa Rica | Wet process | 6% | [88] | |
Arabica, Thailand | Wet process | 4.43–4.85% | [55] | |
Arabica, Brazil | Dry process | 7.07% | [87] | |
Arabica, Ethiopia | Dry process | 8.26% | [87] | |
Arabica, Brazil | Dry process | 6.81–8.95% | [79] | |
Robusta, Indonesia | Dry process | 4.85% | [87] | |
Robusta, Vietnam | Dry process | 3.15% | [87] | |
Robusta, Uganda | Dry process | 4.56% | [87] | |
Arabica, Brazil | Semi-dry process | ±8.10% | [87] | |
Arabica, Brazil | Semi-dry process | 12.3% | [56] | |
Glucose | Arabica, Costa Rica | Wet process | 0.02% | [88] |
Arabica, Brazil | Dry process | 0.23% | [87] | |
Arabica, Brazil | Wet process | ±0.03% | [87] | |
Arabica, Brazil | Semi-dry process | ±0.11% | [87] | |
Fructose | Arabica, Costa Rica | Wet process | 0.03% | [88] |
Arabica, Brazil | Dry process | ±0.33% | [87] | |
Arabica, Brazil | Wet process | ±0.04% | [87] | |
Arabica, Brazil | Semi-dry process | ±0.19% | [87] | |
Total pectin | Arabica, Brazil | Dry process | 899.09 mg/100 g | [83] |
Arabica, Brazil | Dry process | 1191.81 mg/100 g | [84] | |
Lipid | Robusta, China | Dry process | 8.60–12.03% | [81] |
5. Microbiota Associated with Coffee Processing
5.1. Microbiota in Dry-Process
5.2. Microbiota in Wet Process
5.3. Microbiota in Semi-Dry Process
6. Green Bean Storage
7. Roasting
7.1. Effect of Roasting on Caffeine
7.2. Effect of Roasting on Trigonelline
7.3. Effect of Roasting on Chlorogenic Acid
7.4. Effect of Roasting on Total Phenolic Content (TPC)
7.5. Effect of Roasting on Acrylamide Content
8. Storage of Roasted Coffee Bean
9. Brewing
10. Conclusions
Author Contributions
Funding
Institutional Review Board Statement
Informed Consent Statement
Data Availability Statement
Conflicts of Interest
References
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Coffee Sample | Microbiota | References |
---|---|---|
C. Arabica, Dry process, 750–800 m above sea level Minas Gerais, Brazil | Bacteria: Acinetobacter sp.; Arthrobacter sp.; Bacillus (cereus, subtilis, macerans, polymyxa, megaterium); Enterobacter agglomerans; Yersinia sp. Yeast: Arxula adeninivorans; Candida (saitoana, fermentati, membranifaciens); Debaryomyces (polymorphus, Hansenii); Pichia (guilliermondii, guilliermondii, sydowiorum, subpelliculosa, burtonii, anomala, burtonii); Stephanoascus smithiae; Saccharomyces cerevisiae Fungi: Aspergillus (flavus, ochraceus, tamarii, niger, sydowii); Cladosporium cladosporioides; Penicillium (corylophilum, chrysogenum, brevicompactum, roqueforti, solitum); Fusarium solani | [83] |
C. canephora, Dry process, Jerônimo Monteiro 300 m above sea level | Bacteria: Bacillus (cereus, licheniformis, pumilus, shackletonii, subtilis); Cellulosimicrobium cellulans; Citrobacter freundii; Enterobacter cloacae; Escherichia vulneris; Kosakonia cowanii; Lactobacillus (oligofermentans, oris, paracasei); Leuconostoc mesenteroides; Micrococcus (luteus, yunnanensis); Pantoea (agglomerans, ananatis); Staphylococcus (cohnii, epidermidis, haemolyticus, saprophyticus, xylosus); Stenotrophomonas maltophilia Yeast: Candida (glabrata, orthopsilosis, dubliniensis, parapsilosis); Meyerozyma guilliermondii; Pichia cecembensis | [89] |
C. canephora, Dry process, Espírito Santo, Brazi l600 m above sea level | Bacteria: Acinetobacter pittii; Acinetobacter radioresistens; Bacillus (altitudinis, cereus, safensis, subtilis); Citrobacter (braakii, freundii); Dermacoccus nishinomiyaensis; Enterobacter (asburiae, hormaechei, ludwigii); Enterococcus pallens; Enterobacteriaceae bacterium; Escherichia vulneris; Leuconostoc mesenteroides; Pantoea agglomerans; Pectobacterium parmentieri; Pseudomonas putida; Raoultella ornithinolytica; Salmonella sp.; Staphylococcus epidermidis, warneri); Streptomyces variabilis Yeast: Candida tropicalis; Hanseniaspora opuntiae; Hanseniaspora uvarum; Meyerozyma caribbica; Meyerozyma guilliermondii; Pichia kluyveri | [89] |
C. arabica, Wet Processing 1300 m above sea level Jinghong in Yunnan, China | Bacteria: Lactobacillus (coryniformis, plantarum); Lactococcus (hircilactis, lactis); Leuconostoc (citreum, holzapfelii, mesenteroides, pseudomesenteroides); Weissella soli Yeasts: Candida (humilis, quercitrusa, solani); Cordyceps brongniartii; Hanseniaspora (uvarum, vineae); Lachancea lanzarotensis; Papiliotrema terrestris; Pichia kluyveri; Saccharomyces cerevisiae; Starmerella bacillaris; Torulaspora delbrueckii; Wickerhamomyces anomalus. | [90] |
C. arabica, Wet Processing 6.6 m above sea level Teven, NSW, Australia | Bacteria: Acinetobacter lwoffii; Enterobacter ludwigii; Citrobacter koseri; Pseudomonas fluorescens; Klebsiella pneumoniae; Erwinia soli; Serratia marcescens; Brevibacillus parabrevis Anabaena; Salmonella enterica; Asaia sp.; Serratia marcescen; Brevibacillus parabrevis; Acetobacter persici; Gluconobacter cerinus; Leuconostoc mesenteroides; Lactococcus lactis Yeasts: Hanseniaspora uvarum; Pichia (fermentans, kudriavzevii); Candida (xylopsoci, railenensis); Wickerhamomyces anomalus | [91] |
C. arabica Semi-dry process, Minas Gerais, Brazi 750–800 m | Bacteria: Weissella soil; Leuconostoc mesenteroides; Gluconobacter oxydans; Enterobacter agglomerans; Leuconostoc mesenteroides; Erwinia (toletana, herbicola); Erwinia tasmaniensis; Klebsiella (oxytoca, pneumoniae); Pseudomonas aeruginosa; Morganella morganii; Acinetobacter spp.; Bacillus (cereus, macerans, megaterium, subtilis); Escherichia coli; Lactobacillus (brevis, plantarum); Lactococcus lactis; Serratia sp.; Pantoea eucrina; Yeast: Arxula sp.; Candida (parapsilosis ernobii, fukuyamaensis, membranifaciens, carpophila); Pichia (guilliermondii, anomala, caribbica); Saccharomyces (cerevisiae, bayanus); Debaryomyces hansenii; Mitchella repens; Trichosporon cavernicola; Rhodotorula mucilaginosa; Torulaspora delbrueckii. Fungi: Aspergillus (chevalieri, foetidius, niger, ochraceus, tubingensis, versicolor); Cladosporium (cladosporioides, macrocarpum); Cylindrocarpon sp.; Eurotium chevalieri; Fusariella sp.; Fusarium sp.; Fusarium (chlamydosporum, lateritium, nivale, solani, sporotrichioides); Geotrichum sp.; Mucor hiemalis; Penicillium (brevicompactum, commune, decumbens, fellutanum, implicatum, roqueforti); Phoma sp.; Ulocladium sp. | [84,92] |
Fermentation Impact | Microbiota | References |
---|---|---|
Pulp and mucilage degradation | Bacteria: Bacillus, Aerobacter, Escherichia, Erwinia, Leuconostoc mesenteroides, Lactobacillus plantarum, Lactobacillus brevis, and Streptococcus faecalis Yeast: Candida sp., Pichia sp., Kluyveromyces sp., Schizosaccharomyces sp., Saccharomyces sp., Debaryomyces. | [78,84,95,96,97] |
Correlation with floral, fruity, and sweet character | Yeast: Pichia sp., Saccharomyces cerevisiae. | [92,98,99] |
Produce organic acid | Bacteria: Leuconostoc mesenteroides; Bacillus sp. Yeast: Candida parapsilosis, Saccharomyces cerevisiae. | [92,98] |
Inhibit ochratoxigenic fungi growth | Yeast: Pichia kluyvery, P. anomala, Hanseniaspora uvarum, Leuconostoc sp., Weissella sp., Enterococcus. | [78,94,100] |
Produce mycotoxins and off-flavor | Fungi: Aspergillus, Fusarium, and Penicillium | [101,102,103] |
Roasting Method | Coffee Variety | Degree of Roast | Percentage (%) |
---|---|---|---|
Drum roaster | Yirgacheffe | Raw | 1.572 |
Light | 0.722 | ||
Medium | 1.065 | ||
Dark | 0.887 | ||
Harar | Raw | 1.503 | |
Light | 0.688 | ||
Medium | 0.876 | ||
Dark | 0.452 | ||
Sidama | Raw | 1.640 | |
Light | 0.567 | ||
Medium | 0.567 | ||
Dark | 0.796 | ||
Fluidized bed roaster | Yirgacheffe | Raw | 1.503 |
Light | 0.889 | ||
Medium | 0.885 | ||
Dark | 0.472 | ||
Harar | Raw | 1.640 | |
Light | 0.842 | ||
Medium | 0.653 | ||
Dark | 0.470 | ||
Sidama | Raw | 1.572 | |
Light | 0.637 | ||
Medium | 0.979 | ||
Dark | 0.935 | ||
Traditional roaster | Yirgacheffe | Raw | 1.503 |
Light | 0.860 | ||
Medium | 0.687 | ||
Dark | 0.465 | ||
Harar | Raw | 1.572 | |
Light | 1.478 | ||
Medium | 0.813 | ||
Dark | 0.997 |
Type of Roaster | Degree of Roast (mg/L) | ||
---|---|---|---|
Light | Medium | Dark | |
Drum | 2.056 | 1.241 | 1.323 |
Fluidized bed | 0.092 | 2.290 | 0.468 |
Traditional | 2.351 | 1.068 | 0.702 |
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Bastian, F.; Hutabarat, O.S.; Dirpan, A.; Nainu, F.; Harapan, H.; Emran, T.B.; Simal-Gandara, J. From Plantation to Cup: Changes in Bioactive Compounds during Coffee Processing. Foods 2021, 10, 2827. https://doi.org/10.3390/foods10112827
Bastian F, Hutabarat OS, Dirpan A, Nainu F, Harapan H, Emran TB, Simal-Gandara J. From Plantation to Cup: Changes in Bioactive Compounds during Coffee Processing. Foods. 2021; 10(11):2827. https://doi.org/10.3390/foods10112827
Chicago/Turabian StyleBastian, Februadi, Olly Sanny Hutabarat, Andi Dirpan, Firzan Nainu, Harapan Harapan, Talha Bin Emran, and Jesus Simal-Gandara. 2021. "From Plantation to Cup: Changes in Bioactive Compounds during Coffee Processing" Foods 10, no. 11: 2827. https://doi.org/10.3390/foods10112827
APA StyleBastian, F., Hutabarat, O. S., Dirpan, A., Nainu, F., Harapan, H., Emran, T. B., & Simal-Gandara, J. (2021). From Plantation to Cup: Changes in Bioactive Compounds during Coffee Processing. Foods, 10(11), 2827. https://doi.org/10.3390/foods10112827