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Honey

Honey Process

Quick Answer

The honey process is a hybrid method between washed and natural , where the skin is removed but some or all of the mucilage is left on the bean during drying . It produces a cup with the body and sweetness of a natural and the clarity of a washed. Originating in Costa Rica, it has become a signature process ing style in Central America.

Summary

The honey process is a hybrid method between washed and natural , where the skin is removed but some or all of the mucilage is left on the bean during drying . It produces a cup with the body and sweetness of a natural and the clarity of a washed. Originating in Costa Rica, it has become a signature process ing style in Central America.

Sources: Specialty Coffee Association; Costa Rican Coffee Institute (ICAFE); Coffee Processing: A Guide

The honey process is a hybrid method between washed and natural, where the skin is removed but some or all of the mucilage is left on the bean during drying. It produces a cup with the body and sweetness of a natural and the clarity of a washed. Originating in Costa Rica, it has become a signature processing style in Central America.

History

The honey process was developed in Costa Rica in the early 2000s as an evolution of the pulped natural process. Costa Rican producers, seeking to differentiate their coffees, refined the technique of leaving varying amounts of mucilage on the bean during drying. The process gained international recognition when Costa Rican honey-processed coffees began winning competitions. The name 'honey' refers to the sticky mucilage left on the bean, not to honey flavor. The process has since spread to other Central American countries and beyond.

Scientific Explanation

The honey process is a hybrid: the cherry skin is removed (like washed), but the mucilage is not fully washed off (like natural). The remaining mucilage ferments and dries on the bean, infusing sugars and acids into the seed. The amount of mucilage left determines the cup profile: white honey (least mucilage, most washed-like), yellow honey, red honey, and black honey (most mucilage, most natural-like). The fermentation during drying is less intense than in natural process because there is less fruit material, but more than in washed process. The sugars in the mucilage caramelize during drying, contributing sweetness and body.

Step-by-Step Process

1. Harvesting: Ripe cherries are selectively picked. 2. Sorting: Cherries are sorted by ripeness, often using flotation. 3. Depulping: The outer skin is mechanically removed, but the mucilage is left on (using a depulper calibrated to remove only the skin). 4. Mucilage control: The amount of mucilage left can be adjusted using a mechanical demucilager or by choosing not to ferment/wash. 5. Drying: The mucilage-covered beans are dried on raised beds or patios. The mucilage ferments and dries simultaneously. 6. Raking: Beans are raked regularly to ensure even drying and prevent mold. 7. Covering: Beans are covered during rain and at night. 8. Moisture monitoring: Drying continues until beans reach 10-12% moisture (7-20 days depending on honey type). 9. Hulling: The dried parchment with honey coating is hulled. 10. Sorting and Grading: Green coffee is sorted by size, density, and defects.

Process Flow Diagram

1

Harvest

Ripe cherries hand-picked for optimal sugar content.

2

Depulp

Skin removed but mucilage partially left on the bean.

3

Mucilage Level

Amount of mucilage left determines white, yellow, red, or black honey.

4

Dry with Mucilage

Beans dried with mucilage intact. Sticky like honey.

5

Controlled Drying

Dried carefully 10 to 20 days. Mucilege ferments slightly.

6

Moisture Check

Drying complete at 10 to 12% moisture.

7

Hull

Parchment removed to reveal green bean.

8

Sort and Bag

Green coffee sorted and bagged for export.

Equipment Used

Depulper machine (calibrated for skin removal only)Mechanical demucilager (optional, for mucilage control)Raised drying bedsPatiosRakesTarps or coversMoisture meterHulling machine

Fermentation

Fermentation in the honey process occurs during drying, not in a separate tank. The mucilage left on the bean contains sugars and pectin that ferment as the bean dries. The fermentation is milder than in natural process because there is less fruit material. The amount of mucilage left determines the fermentation intensity: white honey has minimal mucilage and fermentation; black honey has maximum mucilage and fermentation. The fermentation produces acids and alcohols that contribute to the cup's complexity. The mucilage also caramelizes during drying, contributing sweetness and body. The risk of over-fermentation is present but lower than in natural process.

Drying

Drying in the honey process is critical and takes 7-20 days depending on the honey type. White and yellow honey dry faster (7-12 days) because less mucilage means less moisture to remove. Red and black honey dry slower (12-20 days) because more mucilage retains more moisture and requires more careful management. Beans must be raked regularly to prevent mold and ensure even drying. The drying environment affects the final color and flavor: faster, sunnier drying produces lighter colors; slower, shaded drying produces darker colors. Raised African beds are preferred for better airflow.

Honey-processed parchment can be stored in breathable bags in cool, dry conditions for 30-60 days. After hulling, green coffee is stored in GrainPro or hermetic bags. The higher sugar content of honey-processed coffees makes them somewhat more sensitive to storage conditions than washed coffees. Store at 15-25 C with 50-60% relative humidity.

Advantages

  • •Combines clarity of washed with body and sweetness of natural
  • •Unique, complex flavor profile prized in specialty coffee
  • •Lower water usage than washed process
  • •Less risk of defects than natural process
  • •Can produce exceptional competition-winning coffees
  • •Allows producers to differentiate their product

Disadvantages

  • •Requires precise control of mucilage amount and drying
  • •Labor-intensive drying process (frequent raking required)
  • •Vulnerable to weather during drying
  • •Inconsistent results if not managed carefully
  • •Higher risk of mold than washed process
  • •Requires skill and experience to execute well

Flavor Impact

Honey-processed coffees are characterized by medium-to-high sweetness, medium body, and moderate acidity. They combine the clarity of washed coffee with the sweetness and body of natural. The flavor profile varies with honey type: white honey is clean and bright (similar to washed); yellow honey has mild sweetness and body; red honey has pronounced sweetness, fruit notes, and body; black honey is the closest to natural, with intense sweetness, body, and fruit notes. Honey coffees often have caramel, honey, and brown sugar notes. They retain more of the coffee's inherent character than natural process.

Typical Defects

  • •Over-fermentation from slow drying or excessive mucilage
  • •Mold from inadequate raking or covering
  • •Uneven drying causing inconsistent cup quality
  • •Inconsistent mucilage removal causing flavor variation
  • •Fermented or rotten flavors from over-fermentation

Countries Where Common

Environmental Impact

The honey process uses significantly less water than the washed process because the mucilage is not washed off. This makes it environmentally favorable in terms of water usage. However, it still requires some water for depulping. The drying process requires significant land area for raised beds or patios. No significant wastewater is produced. The process is generally considered more environmentally friendly than washed but less so than natural.

Innovations

  • •Color-controlled honey processing (precise mucilage measurement for consistent white/yellow/red/black honey)
  • •Anaerobic honey fermentation (mucilage-covered beans fermented in sealed bags before drying)
  • •Yeast-inoculated honey processing for controlled fermentation
  • •Controlled-environment drying (greenhouses, solar dryers) for weather independence
  • •Mechanical demucilagers calibrated for precise mucilage control

Related Processing Methods

Experimental

Anaerobic Fermentation

<a href="/coffee-processing/natural-process">Anaerobic</a> <a href="/coffee-processing/double-fermentation">fermentation</a> is an <a href="/coffee-processing/experimental-fermentation">experimental</a> <a href="/coffee-processing/carbonic-maceration">processing</a> <a href="/coffee-processing/washed-process">method</a> where coffee is <a href="/coffee-processing/co-fermentation">fermented</a> in sealed, oxygen-free environments to develop unique and intense flavor profiles. Pioneered in the 2010s, it has become one of the most talked-about innovations in specialty coffee, producing distinctive fruity, winey, and complex cups unlike any traditional <a href="/coffee-processing/yeast-fermentation">processing</a> method.

Natural

Natural (Dry) Process

The <a href="/coffee-processing/washed-process">natural process</a> is the oldest coffee <a href="/coffee-processing/pulped-natural">process</a>ing <a href="/coffee-processing/honey-process">method</a>, where <a href="/coffee-processing/carbonic-maceration">whole</a> coffee cherries are dried in the sun with the fruit intact. It produces a heavy-bodied, fruity, and sweet cup with pronounced fermented notes. It is the traditional <a href="/coffee-processing/anaerobic-fermentation">method</a> in <a href="/coffee-encyclopedia/ethiopia">Ethiopia</a> and Brazil and has seen a resurgence in specialty coffee for its <a href="/coffee-processing/wet-hulled">unique</a>, intense flavors.

Pulped Natural

Pulped Natural

The <a href="/coffee-processing/honey-process">pulped natural</a> <a href="/coffee-processing/natural-process">process</a> is a Brazilian hybrid <a href="/coffee-processing/anaerobic-fermentation">method</a> where the cherry skin is removed and most of the <a href="/coffee-encyclopedia/mucilage">mucilage</a> is mechanically scraped off before <a href="/coffee-processing/drying-methods">drying</a>, with only a small amount remaining. It produces a clean, sweet cup with more body than washed but less fruit than <a href="/coffee-processing/washed-process">natural</a>. It was developed in Brazil for efficiency and consistency.

Washed

Washed (Wet) Process

The washed <a href="/coffee-processing/natural-process">process</a> removes the coffee cherry's fruit and <a href="/coffee-encyclopedia/mucilage">mucilage</a> before <a href="/coffee-processing/drying-methods">drying</a>, using water and <a href="/coffee-processing/anaerobic-fermentation">fermentation</a>. It produces a clean, bright, and acidic cup that highlights the coffee's inherent character rather than the <a href="/coffee-processing/honey-process">process</a>ing <a href="/coffee-processing/wet-hulled">method</a>. It is the most widely used <a href="/coffee-processing/pulped-natural">process</a>ing method globally and is the standard for specialty coffee.

Related Encyclopedia Entries

Origins & Geography

Coffee Cherry

The coffee cherry is the fruit of the coffee plant, a small round drupe that ripens from green to red (or sometimes yellow or orange) when ready for harvest. Each cherry typically contains two coffee seeds (beans) arranged face to face, though occasional single-seed cherries produce what are known as peaberries. The cherry consists of skin (exocarp), pulp (mesocarp), mucilage, parchment (endocarp), silver skin, and the seed itself.

Coffee Science

Defects

Coffee defects are imperfections in green or roasted coffee beans that negatively affect flavor, aroma, or appearance. The SCA Green Coffee Classification limits defects in specialty-grade coffee to a maximum of 5 full defects per 300g.

Coffee Culture

Flat White

<h2>Technical Composition and Origin</h2>The flat white is defined by its specific ratio of espresso to milk and the unique texture of the microfoam. Unlike the latte, which typically features a 1-centimeter layer of foam, the flat white restricts the foam layer to approximately 0.5 centimeters. This microfoam is created by aerating milk between 60°C and 65°C (140°F-149°F), ensuring the denaturation of whey proteins without scorching the lactose, which maintains a natural sweetness. The beverage typically utilizes a double shot (36g to 40g yield) of espresso, often pulled as a ristretto to minimize bitterness and maximize body. The drink's development is attributed to the independent efforts of Alan Preston in Sydney (1985) and Derek Townsend in Auckland (1984), who sought an alternative to the overly aerated 'sea-foam' style cappuccinos prevalent in the mid-20th century. In a standard 160ml vessel, the liquid consists of approximately 25% espresso and 75% integrated microfoam, facilitating a tactile experience characterized by a velvety mouthfeel rather than a dry, frothy one.

Coffee Science

Mucilage

Botanically identified as the coffee mesocarp, mucilage is a translucent, pectin-rich hydrogel that encapsulates the endocarp (parchment). It represents approximately 5% to 10% of the total coffee cherry weight depending on the cultivar. Chemically, it comprises 84.2% water, 8.9% protein, 4.1% sugar (primarily glucose and fructose), 0.91% pectic substances, and 0.7% ash. The thickness of this layer is genetically determined; Coffea arabica varieties like Bourbon and Typica typically exhibit a more substantial mucilage layer than Coffea canephora. The pH of fresh mucilage ranges between 5.5 and 6.0, but this acidity increases rapidly during fermentation as microbial activity converts sugars into organic acids. In the honey process, the degree of mucilage removal—ranging from 100% for white honey to 0% for natural—directly dictates the drying duration and final water activity levels.

Coffee Science

Parchment

Botanically classified as the endocarp, coffee parchment is the rigid, fibrous hull that encloses the coffee seed (bean). It is situated beneath the pectin-rich mesocarp (mucilage) and serves as the immediate exterior to the spermoderm (silver skin). In <i>Coffea arabica</i>, the endocarp is composed of sclereid cells organized in a dense matrix of cellulose (40-50%), hemicellulose (20-25%), and lignin (25-30%). During wet processing, the exocarp and mesocarp are removed, leaving the seed encased in this straw-colored sheath. This structure is vital for maintaining the biological integrity of the embryo during the 10-14 day drying phase, where moisture content is reduced from 60% to the export-standard 10-12%. The parchment acts as a semi-permeable barrier, regulating gas exchange and preventing the rapid desiccation of the bean's internal cellular structure.

Sensory & Tasting

Sweetness

In physiological terms, sweetness in <i>Coffea arabica</i> is a multi-modal sensory response triggered by a complex matrix of chemical constituents. While green Arabica beans contain between 6% and 9% sucrose by dry weight—compared to 3% to 7% in <i>Coffea canephora</i>—the roasting process degrades approximately 97% to 99% of these sugars. The resulting sweetness perceived by the taster is a product of caramelization and the Maillard reaction. Specifically, the thermal degradation of sucrose yields glucose and fructose, which further react with amino acids to form furans, such as 4-hydroxy-2,5-dimethyl-3(2H)-furanone, contributing to caramel-like aromatics. The SCA Cupping Protocol utilizes a binary score for sweetness; each of the five cups must exhibit a clean, sweet character to receive a 2-point credit, totaling 10 points for a perfect set. This attribute is fundamentally linked to the metabolic health of the tree and precise harvest timing, where cherries typically reach 18% to 22% soluble solids on the Brix scale before picking.

Related Book Chapters

  • •Chapter 2: Processing Methods
  • •Chapter 4: Quality Evaluation
Learn more about The Complete World of Coffee →

Frequently Asked Questions

Sources

  • •Specialty Coffee Association
  • •Costa Rican Coffee Institute (ICAFE)
  • •Coffee Processing: A Guide

Continue Your Coffee Journey

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Editorial Standards & Trust

Keith E. Lyons

Keith E. Lyons

Author, Researcher & Coffee Educator

Keith E. Lyons is the author of The Complete World of Coffee and the publisher behind Lyons Den Publishing. A licensed trauma therapist turned specialty coffee writer, Keith blends scientific rigor with genuine passion for the craft of coffee.

Author of The Complete World of Coffee (600+ pages)Licensed trauma therapist — brings research methodology and scientific rigor to coffee writingIndependent publisher, founder of Lyons Den Publishing

Last Reviewed

July 22, 2026

Sources & References

(3)

Claims are cited to verifiable sources. Peer-reviewed research is marked.

  1. 1
    Specialty Coffee Association
  2. 2
    Costa Rican Coffee Institute (ICAFE)
  3. 3
    Coffee Processing: A Guide

Editorial Standards

  • • Fact-checked against peer-reviewed coffee science research and industry standards.
  • • Reviewed by the author with documented sources for every factual claim.
  • • Updated regularly; the "Last Reviewed" date reflects the most recent verification.
  • • Corrections are made promptly when new research or evidence emerges.

Our editorial process prioritizes accuracy, scientific rigor, and practical relevance for coffee enthusiasts and professionals alike.

Publisher

Lyons Den Publishing · Founded 2025 · San Diego, CA

Part of: Coffee Processing

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Pulped Natural

Pulped Natural

The <a href="/coffee-processing/honey-process">pulped natural</a> <a href="/coffee-processing/natural-process">process</a> is a Brazilian hybrid <a href="/coffee-processing/anaerobic-fermentation">method</a> where the cherry skin is removed and most of the <a href="/coffee-encyclopedia/mucilage">mucilage</a> is mechanically scraped off before <a href="/coffee-processing/drying-methods">drying</a>, with only a small amount remaining. It produces a clean, sweet cup with more body than washed but less fruit than <a href="/coffee-processing/washed-process">natural</a>. It was developed in Brazil for efficiency and consistency.

Washed

Washed (Wet) Process

The washed <a href="/coffee-processing/natural-process">process</a> removes the coffee cherry's fruit and <a href="/coffee-encyclopedia/mucilage">mucilage</a> before <a href="/coffee-processing/drying-methods">drying</a>, using water and <a href="/coffee-processing/anaerobic-fermentation">fermentation</a>. It produces a clean, bright, and acidic cup that highlights the coffee's inherent character rather than the <a href="/coffee-processing/honey-process">process</a>ing <a href="/coffee-processing/wet-hulled">method</a>. It is the most widely used <a href="/coffee-processing/pulped-natural">process</a>ing method globally and is the standard for specialty coffee.

Coffee Science

Mucilage

Botanically identified as the coffee mesocarp, mucilage is a translucent, pectin-rich hydrogel that encapsulates the endocarp (parchment). It represents approximately 5% to 10% of the total coffee cherry weight depending on the cultivar. Chemically, it comprises 84.2% water, 8.9% protein, 4.1% sugar (primarily glucose and fructose), 0.91% pectic substances, and 0.7% ash. The thickness of this layer is genetically determined; Coffea arabica varieties like Bourbon and Typica typically exhibit a more substantial mucilage layer than Coffea canephora. The pH of fresh mucilage ranges between 5.5 and 6.0, but this acidity increases rapidly during fermentation as microbial activity converts sugars into organic acids. In the honey process, the degree of mucilage removal—ranging from 100% for white honey to 0% for natural—directly dictates the drying duration and final water activity levels.

Processing Methods

Coffee Fermentation

Coffee fermentation is the microbial breakdown of the sugars and pectins in the fruit mucilage surrounding the coffee seed during post-harvest processing. Yeasts, lactic-acid bacteria, and acetic-acid bacteria metabolize those sugars into alcohols and organic acids, loosening the sticky mucilage layer so the seed can be cleaned and dried. Every traditional processing method involves fermentation; what differs is how much fruit surrounds the seed and how tightly the process is controlled.

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Coffee Science

Mucilage

Botanically identified as the coffee mesocarp, mucilage is a translucent, pectin-rich hydrogel that encapsulates the endocarp (parchment). It represents approximately 5% to 10% of the total coffee cherry weight depending on the cultivar. Chemically, it comprises 84.2% water, 8.9% protein, 4.1% sugar (primarily glucose and fructose), 0.91% pectic substances, and 0.7% ash. The thickness of this layer is genetically determined; Coffea arabica varieties like Bourbon and Typica typically exhibit a more substantial mucilage layer than Coffea canephora. The pH of fresh mucilage ranges between 5.5 and 6.0, but this acidity increases rapidly during fermentation as microbial activity converts sugars into organic acids. In the honey process, the degree of mucilage removal—ranging from 100% for white honey to 0% for natural—directly dictates the drying duration and final water activity levels.

Processing Methods

Coffee Fermentation

Coffee fermentation is the microbial breakdown of the sugars and pectins in the fruit mucilage surrounding the coffee seed during post-harvest processing. Yeasts, lactic-acid bacteria, and acetic-acid bacteria metabolize those sugars into alcohols and organic acids, loosening the sticky mucilage layer so the seed can be cleaned and dried. Every traditional processing method involves fermentation; what differs is how much fruit surrounds the seed and how tightly the process is controlled.

Origins & Geography

Coffee Cherry

The coffee cherry is the fruit of the coffee plant, a small round drupe that ripens from green to red (or sometimes yellow or orange) when ready for harvest. Each cherry typically contains two coffee seeds (beans) arranged face to face, though occasional single-seed cherries produce what are known as peaberries. The cherry consists of skin (exocarp), pulp (mesocarp), mucilage, parchment (endocarp), silver skin, and the seed itself.

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Fruity Coffee Flavor Profile

Fruity flavor profiles arise from volatile esters, aldehydes, and wild yeast fermentations during post-harvest cherry drying. Discover the chemical basis of fruity coffee.

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Pulped Natural

Pulped Natural

The <a href="/coffee-processing/honey-process">pulped natural</a> <a href="/coffee-processing/natural-process">process</a> is a Brazilian hybrid <a href="/coffee-processing/anaerobic-fermentation">method</a> where the cherry skin is removed and most of the <a href="/coffee-encyclopedia/mucilage">mucilage</a> is mechanically scraped off before <a href="/coffee-processing/drying-methods">drying</a>, with only a small amount remaining. It produces a clean, sweet cup with more body than washed but less fruit than <a href="/coffee-processing/washed-process">natural</a>. It was developed in Brazil for efficiency and consistency.

Washed

Washed (Wet) Process

The washed <a href="/coffee-processing/natural-process">process</a> removes the coffee cherry's fruit and <a href="/coffee-encyclopedia/mucilage">mucilage</a> before <a href="/coffee-processing/drying-methods">drying</a>, using water and <a href="/coffee-processing/anaerobic-fermentation">fermentation</a>. It produces a clean, bright, and acidic cup that highlights the coffee's inherent character rather than the <a href="/coffee-processing/honey-process">process</a>ing <a href="/coffee-processing/wet-hulled">method</a>. It is the most widely used <a href="/coffee-processing/pulped-natural">process</a>ing method globally and is the standard for specialty coffee.

Natural

Natural (Dry) Process

The <a href="/coffee-processing/washed-process">natural process</a> is the oldest coffee <a href="/coffee-processing/pulped-natural">process</a>ing <a href="/coffee-processing/honey-process">method</a>, where <a href="/coffee-processing/carbonic-maceration">whole</a> coffee cherries are dried in the sun with the fruit intact. It produces a heavy-bodied, fruity, and sweet cup with pronounced fermented notes. It is the traditional <a href="/coffee-processing/anaerobic-fermentation">method</a> in <a href="/coffee-encyclopedia/ethiopia">Ethiopia</a> and Brazil and has seen a resurgence in specialty coffee for its <a href="/coffee-processing/wet-hulled">unique</a>, intense flavors.

Drying

Drying Methods

<a href="/coffee-processing/natural-process">Drying</a> is one of the most <a href="/coffee-processing/storage">critical</a> <a href="/coffee-processing/wet-hulled">stages</a> in coffee <a href="/coffee-processing/washed-process">processing</a>, where moisture is reduced from approximately 60% in fresh cherries to 10 to 12% in stable green coffee. The <a href="/coffee-processing/pulped-natural">drying</a> method profoundly affects flavor, shelf life, and quality, making it as important as the <a href="/coffee-processing/experimental-fermentation">processing</a> method itself. This page covers all major <a href="/coffee-processing/honey-process">drying</a> techniques used in coffee production worldwide.

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Coffee Science

Mucilage

Botanically identified as the coffee mesocarp, mucilage is a translucent, pectin-rich hydrogel that encapsulates the endocarp (parchment). It represents approximately 5% to 10% of the total coffee cherry weight depending on the cultivar. Chemically, it comprises 84.2% water, 8.9% protein, 4.1% sugar (primarily glucose and fructose), 0.91% pectic substances, and 0.7% ash. The thickness of this layer is genetically determined; Coffea arabica varieties like Bourbon and Typica typically exhibit a more substantial mucilage layer than Coffea canephora. The pH of fresh mucilage ranges between 5.5 and 6.0, but this acidity increases rapidly during fermentation as microbial activity converts sugars into organic acids. In the honey process, the degree of mucilage removal—ranging from 100% for white honey to 0% for natural—directly dictates the drying duration and final water activity levels.

Processing Methods

Coffee Fermentation

Coffee fermentation is the microbial breakdown of the sugars and pectins in the fruit mucilage surrounding the coffee seed during post-harvest processing. Yeasts, lactic-acid bacteria, and acetic-acid bacteria metabolize those sugars into alcohols and organic acids, loosening the sticky mucilage layer so the seed can be cleaned and dried. Every traditional processing method involves fermentation; what differs is how much fruit surrounds the seed and how tightly the process is controlled.

Origins & Geography

Coffee Cherry

The coffee cherry is the fruit of the coffee plant, a small round drupe that ripens from green to red (or sometimes yellow or orange) when ready for harvest. Each cherry typically contains two coffee seeds (beans) arranged face to face, though occasional single-seed cherries produce what are known as peaberries. The cherry consists of skin (exocarp), pulp (mesocarp), mucilage, parchment (endocarp), silver skin, and the seed itself.

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Fruity Coffee Flavor Profile

Fruity flavor profiles arise from volatile esters, aldehydes, and wild yeast fermentations during post-harvest cherry drying. Discover the chemical basis of fruity coffee.

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