Advances in Food Technology and Nutritional Sciences

Open journal

ISSN 2377-8350

Potential Properties of Guabiroba (Campomanesia xanthocarpa O. Berg) Processing: A Native Brazilian Fruit

Amanda A. Prestes, Cristiane V. Helm, Erick A. Esmerino, Ramon Silva, Adriano G. da Cruz and Elane S. Prudencio*

Elane S. Prudencio, PhD

Postgraduate Program in Food Engineering,Technology Center, Federal University of Santa Catarina,Trindade, Florianópolis, SC 88040-970, Brazil; Department of Food Science and Technology, Federal University of Santa Catarina, Itacorubi, Florianópolis, SC 88034-001, Brazil;Tel. +55 48 3721 5366; E-mail:


The guabiroba (Campomanesia xanthocarpa O. Berg) also known as “guavirova”, “guabiroba-miúda”, “guabirobeira-do-mato”, “gavira”, and “guabiroba-do-campo” is a fruit of the guabirobeira, a fruit-bearing tree from the Myrtaceae family belonging to one of the 3,600 species distributed in more than 100 genera of this bo- tanical family1,2,3,4,5 This fruit is native to the northeast, central west (Cerrado regions) and south of Brazil, however, it can also be found in South American countries such as Paraguay, Argentina, Bolivia and Uruguay.2,4,6,7,8,9 The name “guabiroba” refers to bitter fruit, in the Tupi-Guarani language spoken by specific indigenous groups in Brazilian regions.6

The fruits can be harvested at different stages of ripeness, which enhances fresh consumption or after processing as sweets, ice creams, fermented milks, homemade liqueurs, and jams.3,4,7,10 In addition, bioactive compounds from guabiroba fruits, leaves, and seeds have received attention in promising studies on the de- velopment of functional products, food packaging, and medicines due to their potential antioxidant, antithrombotic, antiproliferative, trypanocidal, and prebiotic activities.6,10,11,12,13,14,15

The consumption and processing of native fruits have received encouragement lately due not only to the technological potential but also to the diversification of fruit production for pro- cessing in a specific region and the high functional and nutritional significance for human health.16,17 For guabiroba, although it has a high potential for processing on an industrial scale, crop data are still scarce for the commercial use of the fruit.4,16 The knowledge and studies about this native Brazilian fruit, as well as its by-prod- ucts, contribute to adding value and enhancing the commercial and industrial application.18

This review aims to present the technological properties of guabiroba, bringing studies addressing the application of the fruit and by-products in the development of new products, the potential application of emerging technologies as well as expand- ing knowledge about this Brazilian fruit for an increase in its con- sumption and future industrial applications.


The Campomanesia xanthocarpa O. Berg species ( with botanical synonyms C. crenata, C. dusenii, C. littoralis, C. malifolia, and C. rhom- bea) is a shrub or tree-shaped, 10 to 20 meters high, 30 to 70 cm in diameter, with asymmetric simple green leaves, opposite, and oval-oblong (3-7 cm long and 1-3 cm wide).2,19 The fruits are clas- sified as small glabrous berries (2.5 cm long, 2-3 cm wide, and 6 g average weight), with a green epicarp when young and yellow- orange, thin and smooth when ripe.2,3,19 The endocarp is juicy, sweet, acid, with a slightly bitter taste, aromatic, and contains 1 to 32 yellowish seeds with glands comprising essential oil (Figure 1).3,7,19 In general, the fruit composition is 55% mesocarp, 18% epicarp, 13% seeds, 10% endocarp, and 3.9% chalice.6,7 It is a botanical species with good adaptability, being able to develop in dry, compact, and low fertility soils.19

Figure 1. Campomanesia Xanthocarpa O.Berg Properties



Concerning the nutritional composition, the guabiroba fruit is a good source of macronutrients, vitamins, and miner- als, with variable contents according to the climatic conditions, season, agronomic factors, soil conditions, management, variety, plant nutrition, and ripening stage (Table 1).2,6,16,17,20 The com- bination of these intrinsic and extrinsic factors influences the phytochemical metabolism of the plant, diversifying the content of bioactive compounds and vegetable composition17 However, even if growing conditions vary, the guabiroba fruits usually con- tain high moisture (79-84%), which characterizes the juiciness of the pulp, and low caloric value (57.3 kcal 100 g-1) due to the low concentration of carbohydrates, lipids, and proteins in the endo- carp, mesocarp and seeds.1,2,6,7


Table 1. Nutritional, Physicochemical Composition and Antioxidant Properties of Campomanesia xanthocarpa O.Berg Fruits


Content (unit per 100 g)



79.0 – 83.0 gb 2,3,6,7,17,20
Carbohydrate 8.9 – 15.7 ga



0.1 – 3.7 ga 2,7,20
Protein 0.4 – 5.5 ga


Total sugar

34.4 ga 3,20
Reducing Sugar 8.3-34.1 ga



4.0 gb 7
Glucose 4.3 gb



0.5 gb 20
Total dietary fiber 6.3-9.7 ga


Insoluble dietary fiber

9.5 ga 20
pH 3.9-4.58b


Total Titratable acidity

0.3-0.5 ga 7,20
Total soluble solids 12.0-15.3b


Vitamin A (Retinol)

0.2-0.9 µg REa 2,20
Vitamin C (Ascorbic Acid) 17.8-233.0 mga


Vitamin B1 (Thiamine)

3×10-3 µga 17
Vitamin B2 (Riboflavin) 0.1-1.5 mga

2,3,17, 20

Vitamin B5 (Pantothenic Acid)

0.3µga 17
Vitamin B6 (Pyridoxin) 0.1 µga


Vitamin B7 (Biotin)

0.3 µga 17
Essential oil 0.2 gb


Total Carotenoids

20.7-3.107 mgb 16,17,20
Total Polyphenols 9033.2 mg CAEa


Total Flavonoids

68.0 mg QEb 3,16
Total Anthocyanins 3.2-11.7 mgb


ABTS radical scavenging capacity

50.7 mmol TEa 20
K 208.4 mgb



2.6 mgb 2
Ca 28.4 mgb



13.5 mgb 2
P 14.9 mgb



0.4 mgb 2
Fe 0.6 mgb



0.3 mgb 2
Mn 0.12 mgb



0.12 mgb 2
Al 0.32 mgb



0.14 mgb 2
Pb 0.13 mgb



0.09 mgb 2
Ni 0.12 mgb


Note: RE-Retinol equivalent; CAE-Chlorogenic acid equivalent; GAE-Gallic acid equivalent; QE-Quercetin equivalent; a Values expressed based on dry weight; b Values expressed based on fresh weight.


In general, the guabiroba presents high nutritional prop- erties and can be considered a functional food, with higher car- bohydrate content when compared to protein and lipids (Table 1), which is characteristic in fruits belonging to the Myrtaceae fam- ily.7,16,21 The fruits contain high-levels of vitamin C (17.8-233.0 mg 100 g-1), which corresponds to up to six times the orange content, offering a potential benefit to human health due to the antioxidant activity, which acts on the mechanism of scavenging free radicals, related to aging processes and degenerative diseas- es.2,7,17 Guabiroba also presents considerable amounts of vitamin A (20-90 μg g-1 RE, Table 1), essential in the physiology of the retina, bone remodeling, epithelial tissue maintenance, and the reproductive system.2,6,22 It is estimated that the consumption of 10 fruits contributes approximately 5.4% fiber, 1.6% vitamin B2, and 8.5% vitamin C in the daily diet of adult individuals, when based on the recommended values by the World Health Organi- zation (WHO).2,23

Among the mineral’s composition, guabiroba is rich in potassium, calcium, sodium, phosphorus, iron, manganese and zinc (Table 1). Sodium and potassium contents influence the tex- ture of the fruit, with an increase in hardness by reducing the electrostatic repulsion of carboxyls present in the composition of plant cells.6,7 For iron contents, guabiroba presents higher lev- els (0.6 mg 100 g-1) than commonly consumed fruits, such as ba- nana (0.4 mg 100 g-1) and apple (0.1 mg 100 g-1).6,16

Phenolic compounds and carotenoids are non-nutritive compounds present in fruits and vegetables related to important benefits for health due to antioxidant, antimicrobial, anti-obesity, antihypertensive, antihyperglycemic activities, and neuroprotec- tive effects.24,25,26 The important antioxidant potential, in addition, may increase industrial interest in food formulations to replace preservatives, additives, and even artificial colorants, since carotenoids are fat-soluble pigments responsible for the orange, yellow, and red coloration.3,20,27 For Campomanesia xanthocarpa O. Berg composition, there is an interesting source of carotenoids (mainly β-carotene, lutein, cryptoxanthin, and zeaxanthin), with higher amounts of β- carotene (12.3-3400 mg 100 g-1, Table 2), considered the one with the greatest vitamin A potential, when compared to other fruits, such as papaya (0.04 mg 100 g-1), wa- termelon (0.36 mg 100 g-1), and orange (0.09 mg 100 g-1).3,17 The fruits also present high content of cryptoxanthin (9.31 mg 100 g-1), the main carotenoid that characterizes the orange-colored pulp in several fruits, standing out from other fruits such as nectarine (0.8 mg 100 g-1), papaya (0.5 mg 100 g-1) and apricot (0.6 mg 100 g-1).20

For total phenolic compounds, the guabiroba fruit presents higher amounts (9033.2 mg chlorogenic acid equivalent (CAE) 100 g-1, Table 1) when compared to conventional fruits, such as apples (150-350 mg GAE 100 g-1), grapes (720-1232 mg GAE 100 g-1), and some fruits also from Myrtaceae family such as yellow guava (Psidium cattleianum Sabine; 3713.2 mg CAE 100 g-1) and uvaia (Eugenia pyriformis Cambess; 3482.0 mg CAE 100 g-1), re- lating this native fruit to high antioxidant activity, bringing health benefits when introduced in a dietary routine and may contrib- ute to the reduction of chronic non-transmissible diseases.3,20,28,29 An individual composition, guabiroba has high contents of gal- lic acid (3050.8 μg g-1) and epicatechin (5760.4 μg g-1; Table 2), in which phenolic acids and flavonoids are reported to reduce oxidative stress and inflammation, heart diseases, the incidence of type-2 diabetes mellitus (T2DM), in addition to antibacterial, antiproliferative, antioxidant, and anticarcinogenic activities.3,6,30,31

Table 2. Individual Phenolic Compounds and Carotenoids of Campomanesia xanthocarpa O. Berg Fruits


Content (unit per 100 g)


Phenolic Compounds

Gallic acid

3050.8 µgb

Paulo Farias et al,3

Oliveira Raphaelli et al,6

Santos et al,16

Pereira et al20

Elagic acid

123.6 µgb
Ferulic acid

22.9 µgb

ρ-coumaric acid

15.5 µgb

5760.4 µgb


β- carotene

123.5 – 3.4×104 µgb
α- carotene

55.5 – 1.7×104 µgb


14.9 µga

3.2 µga


0.9 µgb

β-carotene 5,6-epoxide

0.8 µga


12.1 µga

β- cryptoxanthin

93.1 µgb

0.6 µga


0.5 µga

2.8 µgb

Note: a Values expressed based on dry weight; b Values expressed based on fresh weight.


From a technological point of view, guabiroba has composition properties that contribute to fruit processing. The moisture (79-83%), the total soluble solids content in the ripe pulp (12-15%), and the total titratable acidity (0.3-0.5%) are in the range recommended for fruits destined for processing, con- tributing to a natural flavor for the product and reducing the ad- dition of sugars, acidulants, and artificial flavors. In addition, the process can be more economical due to the high product yield, a short time in evaporation steps, and less energy expenditures.2,3,20

The high fibers content (6.3-9.7 g 100 g-1; Table 1), in- cluding insoluble and soluble fractions (mainly pectin), are also an important characteristic that can favor the guabiroba processing by the food industries due to the gelling and stabilizing proper- ties, very important for the texture of fruit-based jellies or can- dies.6,7 Dietary fibers are also related to health benefits when rou- tinely consumed, as hypoglycemic, antioxidant, anti-tumor, and anti-inflammatory properties.32,33

The essential oil present in the guabiroba pulp and seeds has a citric flavor and light-yellow color. When compared to oth- er fruits from the same genus, the oil content (0.2%) exceeds 3 times those obtained for Campomanesia adamantium (0.06%) and by 10 times for Campomanesia phaea (<0.02%).2,34,35 In the composi- tion, there are monoterpene hydrocarbons (limonene, α-pinene, o-cimene, β-pinene), most of which are non-toxic to mammals, and can be widely used in artificial flavorings and pharmaceutical formulations due to safety recognition by the United States Food and Drug Administration (U. S FDA). The presence of these compounds in the essential oil also contributes to the use as a flavoring and in alcoholic distillates, ice cream, and sweets.2,36


The guabiroba fresh fruit is highly perishable and its original characteristics can be preserved for a maximum of 6-days in refrigerated storage.6,37 The encouragement and application of technologies in fruit processing can increase the demand and commercialization of fresh guabiroba and its products, enable the sustainable development of small rural producers, add value to native fruits (until then unexplored industrially), in addition to enhancing the consumption of new products with potential nutritional and functional value.37

New products development is essential for industrial businesses and interesting for the consumer market. The process- ing of guabiroba fruits represents new and potential aroma, fla- vor, and color options for food industries. The constant search of consumers for new products and lack of interest in traditional products makes the market increasingly competitive, which leads the food industries to search for prominence with the develop- ment of new products (Figure 2).1

Figure 2. The Processing of Guabiroba Fruit to Develop New Products



The use of guabiroba fruits as raw material to produce candies and jams can be an income alternative for rural produc- ers. From the physicochemical properties, which characterize the guabiroba with high moisture, pectin contents, and soluble solids suitable for fruit processing,1,2,16 Santos et al1 developed formula- tions of guabiroba jam (Table 3). The original acidity of the fruits was ideal for conventional jam production (1.2-1.3 g 100 g-1 citric acid), without the need to add acidulants to the formulation. In the traditional jam production (guabiroba pulp, sucrose, and pec- tin), with a long processing time, the vitamin C loss is higher when compared to the jam without added sugar (Vitamin C=97.4% for traditional jams and 113.4-123.7% for diet jams). High tempera- tures can also improve the extraction of phenolic compounds in a short exposure time, releasing free phenolic groups in the middle.38 This explains the higher total phenolic content in guabi- roba jams without added sugar (68.9-72.5 mg gallic acid (GA) 100g-1) where the processing time was lower compared to conven- tional jams (32.2-33.2 mg GA 100 g-1). High antioxidant activities (approximately 45-53 TEAC μMol mL-1, for DPPH radical scav- enging capacity and 23-29 trolox equivalent antioxidant capac- ity (TEAC) μMol mL-1, for 2,2’-azino-bis-3-ethylbenzthiazoline- 6-sulphonic acid (ABTS) radical scavenging capacity), besides being related to phenolic compounds content, they are also as- sociated with total carotenoids, which showed good retention in the formulations (74.8-87.7 β -carotene μg g-1). Guabiroba jams were also produced by Leonarski et al39 who added fructooli- gosaccharides (FOS), with a prebiotic property (Table 3). Even after thermal processing, the jams showed at least 35% of origi- nal bioactive compounds from guabiroba fruit (phenolic com- pounds=466.7-512.0 mg GAE 100 g-1; carotenoids=43.7-51.3 μg β-carotene g-1; and vitamin C=200.3-212.6 mg AA 100 g-1), which enhances this product in the preservation of some functional characteristics, bringing benefits to the consumer’s health. The presence of FOS in the jam formulation, besides contributing to the development of probiotic microorganisms present in the human gut, can modify the jam texture and water retention, since this prebiotic presents OH groups available for bonding with wa- ter molecules, which reduces the rate of water evaporation and forms a thick gel.


Table 3. Studies about New Products Development with Guabiroba (Campomanesia xanthocarpa O. Berg)

Guabiroba jam

Original acidity ideal for jam formulations; high total phenolic content in jams without added sugar (68.9-72.5 mg GA 100 g-1); good retention of total carotenoids (74.8-87.7 β-carotene µg g-1) with high antioxidant activities (approximately 45-53 TEAC µMol mL-1, for DPPH and 23-29 TEAC µMol mL-1 for ABTS).

Santos et al1

Guabiroba jam with prebiotic

The presence of FOS (fructo-oligosaccharides) can modify the texture and jam water retention. Even with a heat treatment, the product retained at least 35% of guabiroba bioactive compounds.

Leonarski et al39

Probiotic fermented milk with guabiroba pulp

High probiotic counts (8-9 CFU g-1) during the entire simulated gastrointestinal steps, classifying it as a probiotic product. The addition of 10 g 100 g-1 of guabiroba pulp presented higher total phenolic content and antioxidant activity in the gut steps and even in stomach region.

Prestes et al10

Petit Suisse cheese with guabiroba pulp

High energy content (92.1 kcal 40 g-1) when compared to commercial products; the original color of the guabiroba pulp influenced the final aspect of the product, with a yellow color. This can help the consumer to associate the fresh fruit with the final product.

Messias et al42

Gluten-free edible film reinforced with guabiroba pulp

Guabiroba pulp (10, 15, and 20%) provided films with high resistance to tearing, high thickness and increased biodegradability, with 100% of the films degraded in 45-days.


Edible film with guabiroba pulp for olive oil packaging

Guabiroba pulp (20%) provided films with higher water vapor permeability and solubility. The orange color was predominant in the packaging due to the original color of the fruit. In 15-days, olive oil presented peroxide and acidity index below the maximum content allowed by local legislation.

Malherbi et al12

Guabiroba liquor

The liqueurs with guabiroba fruit presented low acidity (0.08-0.09 g acid citric 100 mL-1), high pH (4.78-5.28) and high phenolic compounds content (31.62-34.91 mg GAE 100 g-1). The acceptance and purchase intention tests showed a preference for sweet liqueurs (344 gL-1).

Leonarski et al43

Nile tilapia burger with guabiroba peel

The addition of 5% guabiroba peel increased the moisture (67.82%), carbohydrate (2.71%), lipid (7.15%), and fibers content (4.43%) of the fish burgers. The results of TBARS showed a potential natural antioxidant activity from guabiroba peel (TBARS≈1.5 mg MDA kg-1, and 1.2 mg MDA kg-1) after 300-days of storage.

Cristofel et al45


Probiotic fermented milks were developed with the ad- dition of guabiroba pulp by Prestes et al10 and an in vitro gas- trointestinal simulation was performed to evaluate the influence of bioactive compounds from this fruit on the development and survival of probiotic cells throughout the gastrointestinal tract. Before and during the gastric steps, the Bifidobacterium BB-12 count was 8-9 log CFU g-1, which enhanced the product in its pro- biotic characteristics, with a count above the recommended for a probiotic property.40 The addition of 10 g 100 g-1 of guabiroba pulp in the fermented milks showed the highest total phenolic content (TPC) (535.2 mg GAE L-1; 346.0 mg GAE L-1 for the control sample without guabiroba pulp) and antioxidant activi- ties (1,1-diphenyl-2-picrylhydrazyl (DPPH)=1232.0 μmol.L-1 and 516.0 μmol.L-1 for control sample; FRAP=4504.5 μmol.L-1, and 1686.3 μmol.L-1 for control sample) in the gut steps, which is the ideal region for the development of probiotic cells, and even in the extreme pH regions of the stomach (TPC=162.2 mg GAE L-1 and 154.6 mg GAE L-1 for control sample; antioxidant activity: FRAP=1206.4 μmol.L-1, and 358.5 μmol.L-1 for control sample; DPPH=342.0 μmol.L-1 and 82.0 μmol.L-1 for control sample). Phenolic acids and flavonoids from fruits of the Myrtaceae fam- ily have a high molecular weight in a glycosylated form.25 These compounds, in an appropriate concentration, may act as prebiotic and/or protective agents on the bifidobacteria development. In addition, the metabolism of probiotic cells can hydrolyze pheno- lic compounds in simpler forms for microbial absorption through enzymatic activities.41 Thus, the bioactive compounds present in the guabiroba fruit, linked to fermented milk, potentiated this food both in the growth of probiotic cells and in providing a new product with a functional appeal to the consumer market.

Petit Suisse cheeses with this native fruit were produced by Messias et al.42 The guabiroba pulp was added to the formula- tion at a concentration of 20 g 100 g-1 and presented a significant influence on the physicochemical properties of the products. Color parameters characterized the Petit Suisse cheese with a yel- low color (L=71.6; a*=-0.9; b*=31.5; C*=31.5) due to the original color of the pulp, being determinant in the coloring properties of this dairy product. This effect may benefit the consumer to as- sociate the color of the products with the presence of fresh fruit. Concerning the nutritional value, the petit Suisse cheese presented high energy content (92.1 kcal 40 g-1) due to the high carbohy- drate (11.5 g per 40 g), total fat (4.0 g 40 g-1), and protein content (2.7 g 40 g-1). In determining the shelf-life of this product, micro- biological stability was achieved during 28-days at 10 °C, which is considerable time for production, transport, commercial storage, and final consumption of this dairy product. The use of this na- tive fruit to develop a new Petit Suisse cheese flavor becomes rel- evant for new dairy options with a healthy and innovative appeal.

The application of guabiroba fruit can also be an in- novative alternative in the development of active biodegradable packaging since there is a constant incentive to reduce the use of materials from non-renewable sources related to environmental problems. Bioactive compounds and antioxidant properties of guabiroba fruit in the packaging material can act under storage conditions, reduce oxidation reactions, improve the safety and sensory properties of the product, and extend its shelf-life. Mal- herbi et al12 produced a biodegradable active film with guabiroba pulp, corn starch, and gelatin for application as a package for extra-virgin oil. The addition of 10% and 20% guabiroba pulp in the polymer matrix presented an orange color, due to the original carotenoid content in the fruit composition, and a granular tex- ture related to insoluble natural fibers (13.3 g 100 g-1) that did not solubilize in the film-forming solution. Fibers content also can be related, in addition to carbohydrates and protein, to the highest thickness of the films with the addition of 20% guabiroba pulp (0.1243 mm, and 0.0895 mm for the control blend film). These major compounds have a high molecular mass and increased the total solids content in the film solution, which may have contrib- uted to the increase of thickness. However, the presence of origi- nal compounds from fruits, such as sucrose, glucose, maltose, and cellulose can significantly influence the physical barrier properties of the film, due to their high hydrophilic characteristics, increas- ing the solubility (36.92% with 20% pulp, 28.84% with 10% pulp, and 19.78% for control film), and the water vapor permeability (12.95 g mm m-2 d-1 kPa-1 with 20% pulp, 6.75 g mm m-2 d-1 kPa-1 with 10% pulp, and 3.88 g mm m-2 d-1 kPa-1 for control film). In a 15-day storage period of olive oils in polymeric sachets with 10% guabiroba pulp, the peroxide index increased from 6.14 to 8.21 meq kg-1 (for control film and the film with 10% pulp), due to traces of oxygen present at the time of packaging production, while the acidity index remained below 0.1%. These olive oil qual- ity control parameters were below the maximum content allowed by local legislation (20 meq kg-1 and 0.8% oleic acid for peroxide and acidity index, respectively),12 relating the potential antioxidant activity of guabiroba fruits in preserving foods in active packag- ing. Similar behavior was obtained by Silva-Rodrigues et al,11 who also applied guabiroba pulp in the development of gluten-free ed- ible, and functional films (Table 3). The films presented a compact form, without cracks and with excellent mechanical properties due to the high concentration of fibers (6.62%), polysaccharides (8.15% reducing sugars), and other polymeric compounds that can provide a cohesive polymer and result in a film with better rupture stress performance. The natural fibers of guabiroba also are susceptible to degradability, providing films 100% degraded in 45-days.

The original acid/sweet flavor, slight bitterness, and pleasant taste of the guabiroba fruit, in addition to its natural color, become interesting characteristics in the development of beverage blends, which can provide a unique flavor to the prod- uct. For alcoholic beverages, for example, the consumer market is diversified and can provide an important point in the processing of native fruits with new products of high quality and innovative flavor. Leonarski et al43 developed liqueurs from Brazilian native fruits, including the guabiroba (Table 3). Guabiroba blends (2:1; alcohol: fruit) provided liqueurs with 19.0% alcohol content (80 gL-1, dry liqueur) and 21.5% (344 gL-1, sweet liqueur), with values allowed by the Brazilian legislation ( 15 to 54% alcohol content by volume at 20 °C),44 low acidity (0.08-0.09 g acid citric 100 mL-1) and high pH (4.78-5.28). These specific physicochemical proper- ties can provide beverages with highlighted sweetness, pungency and are related to the ripening stage, season, and fruit cultiva- tion. Due to the high contents of phenolic compounds in the natural guabiroba composition (Table 2), the liqueurs presented 31.62-34.91 mg GAE 100 g-1, which can also influence the flavor of the beverages due to pungency and bitter taste, characteristic of some phenolic groups. In addition, antioxidant activities from phenolic compounds can exert antimicrobial properties, reduc- ing the incidence of the proliferation of spoilage microorganisms and increasing the shelf-life of products. The use of native fruits in the development of liqueurs can improve the income of small rural producers, with simple processing, regional fruits, and an increase in added value.43

Antioxidant and functional properties of guabiroba fruit can improve the shelf-life and the nutritional value of foods with high lipid content, which is susceptible to oxidation reac- tions. The use of fruit peels in food formulations, in addition, to containing high amounts of bioactive compounds, may represent an alternative of adding value to this raw material. Cristofel et al45 developed a functional Nile tilapia burger with guabiroba peel, amaranth, and quinoa, to reduce the high lipid oxidation of this fish and increase its shelf-life (Table 3). The addition of 5 g 100 g-1 guabiroba peel provided fish burgers with a lower luminos- ity (45, and 50 for the control burger) and a higher a*parameter (approximately 80, and 78 for the control burger), with a ten- dency to yellow color due to the guabiroba original pigment. The concentration of guabiroba did not significantly affect the water activity (Aw=0.97), and pH (6.4). However, the fruit composition increased the carbohydrate (2.71%, and 1.40% for the control raw burger), lipid (7.15% and 6.14% for the control burger, and fibers content (4.43% and 3.22% for the control burger) of the prod- ucts. Fibers from guabiroba peel also increased the moisture of the product (67.82%, and 67.03% for control raw burger) but did not substantially affect its physical characteristics. The results of thiobarbituric acid reactive substances (TBARS) showed a poten- tial natural antioxidant activity from guabiroba peel (TBARS≈1.5 mg malondialdehyde (MDA) kg-1, and 1.2 mg MDA kg-1 after 300th day of storage), which can prevent lipid oxidation in foods with high lipid content and improve their nutritional value.

Bioactive compounds and the nutritional value from gu- abiroba pulp, peel, seed, or leaves can exert benefits in food for- mulation due to the high natural antioxidant properties that can improve the taste, texture, and reduce oxidative reactions, and mi- crobiological spoilage of the product. These properties can also become potential natural preservatives to reduce, in the future, the use of chemical additives in the development of new food products.


Functional aspects of the guabiroba fruit added to its flavor and color characteristics are the aim of recent studies for the extraction and encapsulation of compounds through emerging tech- nologies.46,47,48 Native fruits become an important base for studies due to the innovative and low-cost possibilities of obtaining pig- ments, or bioactive compounds that can be used as natural anti- oxidants and antimicrobials, colorants, and flavoring in the food and pharmaceutical industries.

The extraction of bioactive and thermolabile compounds from fruits can be achieved by non-thermal and environmentally friendly emerging technologies. These processes can extract com- pounds at mild temperatures and/or use safe, available, and low- cost solvents.46,48,49 Czaikoski et al48 obtained natural guabiroba extracts from supercritical CO2 extraction (scCO2), an emerging technique that produces generally recognized as safe (GRAS) ex- tracts in which a high compressible fluid is used as a solvent at low or middle temperature. The extraction performed at 313.15 K (40 °C) and 25 MPa obtained the maximum yield (3.90 wt%; extraction percent: 57.44%), corresponding to the highest pres- sure and lowest temperature evaluated. The extracts presented orange color and chemical composition rich in monoterpene hy- drocarbons (α-eudesmol, β-eudesmol, γ-eudesmol, caryophyllene (E), α-sabinene, β-sabinene, germacrene B, δ-cadinene, humulene and selina-3,7(11)-diene). These compounds from guabiroba oil and extracts contribute to the use of these native fruits as a flavor- ing in beverages, candies, and alcoholic distillates. For antioxidant properties, the extraction at 353.15 K and 25 MPa promoted the highest phenolic content (39.12 mg GAEg-1 of extract), and at the same temperature and 15 MPa, it was obtained the highest antimicrobial activity against Staphylococcus aureus. Bioactive compounds from guabiroba seeds were also extracted by ssCO2 and com- pressed n-butane by Capeletto et al.50 The extracts were obtained at 40 °C and 250 bar for ssCO2, while for n-butane 35 °C and 10 bar. As a solvent, n-butane is cheaper, plenty available, and can be applied at much lower pressures compared to CO2. The extrac- tion yield using ssCO2 was 8.02 wt%, whereas with compressed n-butane 24.71 wt%. Nonpolar solvents, such as the alkanes, are stronger solvents and show faster properties than ssCO2 during the extraction. In the chemical composition, guabiroba seed extracts presented levels of terpenoids, flavonoids, and alkaloids. A higher total phenolic (TPC) and total flavonoids (TFC) con- tent were obtained for the extract from compressed n-butane (TPC=68.58 mg g-1, and 17.18 mg g-1 for ssCO2; TFC=8.10 mg g-1, and 2.31 mg g-1 for ssCO2). Consequently, extracts from com- pressed n-butane showed higher antioxidant activity (≈59% and 50% inhibition of DPPH for ssCO2). Extracts from guabiroba (whole fruit, pulp, or seeds) can be an important natural source of bio compounds with a great interest for food or pharmaceutical industry applications, mainly using emerging technologies with an environmental appeal.

Emerging environment-friendly technologies can also be alternative methods to extract pectin from fruits and replace traditional processes, which require high-temperature processing, large amounts of raw material, and toxic/corrosive solvents, such as nitric, sulfuric, and hydrochloric acids.46,51 The industrial production of pectin is an alternative for adding value to solid re- sides and can potentiate this by-product into an important functional ingredient such as a thickener, gelling agent, texturizer, and emulsifier.52,53 Thus, pressurized hot water extraction (PHWE) is also an efficient “green technology” studied to extract macromolecules from vegetables and fruits.46,54 In this process, the water is maintained under pressure with a temperature between normal boiling point (100 °C) and critical point (374 °C) to keep the wa- ter in the liquid state. This procedure makes the extraction advantageous since this specific water state provides an effective mass transfer, higher solubility of hydrophilic compounds, enhances the diffusion, vapor pressure, and shows low viscosity and surface tension.55,56 In this context and considering the important structural properties of guabiroba composition, Dias et al46 performed a PHWE of pectin from guabiroba fruits at different process conditions. The maximum pectin yield (5.70 wt%, and 5.05 wt% compared to a conventional extraction) was achieved at optimal extraction conditions: 120 °C, a pressure of 150 bar, and a flow rate of 1.5 mL min-1. The pectin yield is related to the increase in temperature and pressure: the thermodynamic properties that can maintain the water in the liquid state and enhance the solubility and diffusion. These physical conditions may facilitate the solvent’s permeability through the cell membrane and improve the polysaccharides extraction that is more adhered to cell walls. The guabiroba pectin from PHWE presented a varied chemi- cal composition (arabinose=44.3-59.7%; galactose=8.9-18.7%; rhamnose=0.6-1.5%; xylose=0.3-1.3%; mannose=0.5-2.8%; glucose=0.5-1.6%; fucose=0.1-0.3%) and an increase of 10.3% in galacturonic acid content compared to traditional hot water extraction (34.8%; traditional extraction=25.7%). This emerging technology is promising to obtain pectin from guabiroba fruits with great characterization and potential to be applied in the food and/or pharmaceutical industries.

On large-scale production, fruit bio compounds have their application limited due to their recurring instability during processing and storage conditions such as potential of hydrogen (pH), temperature, light, interaction with formulation components, oxygen exposure, and during consumer’s digestion (stomach pH, digestive enzymes, inappropriate surrounding, and interaction with other digested nutrients).57 Encapsulation by nanotechnology processes can exert a protective effect on these compounds and improve their solubility, enhancing the functionality and maintaining their bioactivity during processing and even in the digestion steps.47,58 Synthetic polymers, such as polylactic- co-glycolic acid (PLGA) are advantageous due to their reproducibility over natural polymers, higher purity, and safe to be ingest- ed.59 With these promising properties, PLGA nanoparticles were synthesized for delivery of phenolic extracts from guabiroba fruit by Pereira et al.58 A PLGA 50:50 (lactic acid:glycolic acid) ob- tained higher antioxidant activity (378.3 gg-1 for DPPH assay and 229 μmolL-1 TEg-1 for ORAC assay) compared to free guabiroba phenolic extract (GPE) (254.5 gg-1 for DPPH assay and 174.7 μmolL-1 TEg-1 for ORAC assay), with nanoencapsulated extracts related to better protection of guabiroba phenolic compounds during storage. In addition, concentrations around 10 times lower for PLGA (24 μg mL-1) than free GPE (202 μg mL-1) were required to reduce ROS (reactive oxygen species) generation (ap- proximately 100% for PLGA, and 94% for GPE), which is related to be a crucial event in the initiation of cancer cells.60 For antimicrobial activity, a concentration for PLGA (2.67 μg mL-1) around 3 times lower than free GPE (8.11 μg mL-1), showed an improved action against Listeria innocua. Nanoparticles of guabiroba phen lic extracts proved to be an effective method in preserving bioactive extracts until its application and for a prolonged storage.


The importance of guabiroba biocompounds and their functionality has been the target of studies related to the improvement of antioxidant and antimicrobial activities in both the food and pharmaceutical sectors.10,13,50,61 New technologies may be a potential in the addition of guabiroba (pulp, seed, leaves, peel, and pomace) in formulations to improve the bioactivity of the raw material and enhance the nutritional, functional, and sensory val- ue in the development of new products. High temperatures ap- plied in traditional food processing such as concentration, drying, extraction, pasteurization, or sterilization can affect the bioactiv- ity of fruit phytochemicals, reducing or inactivating their natural benefits in addition to generating unwanted sensory changes with the appearance of off-flavors.

Emerging non-thermal technologies can be applied in guabiroba processing to improve their safety, functionality, and sensory aspects. For food preservation, innovative technologies can be used with promising results. The pulsed electric field is one of the alternatives that have a direct action on microbial cells by applying electrical pulses to the target product, with the achieve- ment of microbiologically safe food and maintaining nutritional and sensory characteristics.62 In fruit and juices, this emerging process is related to improving polyphenols content, vitamins, and ensuring microbiological stability.63,64 Guabiroba products also can be conserved with the use of pulsed light technology, a non-thermal process used for microbial decontamination of sur- faces by short-time pulses of an intense spectrum with ultraviolet C (UV-C) light, which proved to be efficient against mesophilic aerobic cells, Escherichia coli and Pichia fermentans in fruit juices.65,66,67

In the food and pharmaceutical industries, synthetic colorant additives are largely used, however, there are concerns about the addition of these chemical pigments due to adverse health effects. With these facts, natural pigments are encouraged to replace these synthetic ingredients. The yellow/orange color of the guabiroba fruits is a highlight due to its high carotenoids content and this pigment may be a promising replacement in food and pharmaceutical products.17,35,68 High-pressure fluid technologies (HPFT) are consolidated as environment-friendly processes and can be applied from compounds extraction until product formulation.49 Methods including supercritical water ex- traction, pressurized fluid extraction, and supercritical/subcritical CO2 extraction obtained potential results in the extraction of carotenoids from persimmons, and mango peels.69,70 This phytochemical can also be extracted by ultrasound techniques. The ultrasound-assisted extraction (UAE) is a technology that allows the release of high amounts of carotenoids and other bio com- pounds due to the rupture of cell walls by the phenomenon of cavitation. This technology proved to be an efficient method to extract carotenoids from mango with a decrease of wastewater, faster release, and extraction of this phytochemical with reducing operating temperatures.71

The concentration of carotenoids and other phytochemicals from guabiroba fruits can also potentially be performed by techniques that employ the use of low temperatures, preserving most of the original compounds, such as the freeze concentration, an unconventional concentration process in which liquid foods are concentrated over a pre-freezing step followed by the separation of pure ice crystals, proved to be an efficient technique to concentrate juices from different fruits with high amounts of bioactive compounds.72,73,74,75

For future applications in high demand in the food industry, studies on the guabiroba fruit must be constantly encouraged to expand knowledge about the properties of this Brazilian fruit to different parts of the globe. The valorization of the guabiroba associated with emerging technologies can reduce the loss of functional properties of this fruit, generate several opportunities for rural producers, new choices for the industrial sector, and new functional/nutritive products for the consumer market.


Guabiroba (Campomanesia xanthocarpa O. Berg) is a native fruit that is consolidated by several recent studies about its high fiber and carbohydrates content, polyphenols, carotenoids, and vitamin C. These nutritional and functional properties enhance this fruit for application in the food and pharmaceutical sectors. However, due to its regional and little widespread knowledge, guabiroba is not a fruit intended for processing on a large scale, only with home- made jams, candies, and liqueurs by rural producers. Promising results of recent researches increase the benefits of guabiroba inserted in the formulation of new products, in the barrier prop- erties of biodegradable packaging, and its potency as a prebiotic agent. Furthermore, emerging non-thermal technologies are con- stantly being improved to increase their effectiveness in extract- ing fruit compounds and applying a new product, being able to associate environmentally friendly processes with increased qual- ity and retention of most bioactive compounds. The potential technological approach of guabiroba showed in this review can boost the development of effective processes for the extraction and processing of fruits and by-products, enriching the formula- tion of new products and increasing the added value of this na- tive Brazilian fruit, hitherto unexplored by large industries.


The National Council for Scientific and Technological Develop- ment (CNPq, Brazil) [CNPq, 405965/2016-8], and the Coordina- tion of Improvement of Higher Education Personnel (CAPES, Brazil) [001].


The authors are grateful to National Council for Scientific and Technological Development (CNPq, Brazil) for the financial sup- port [CNPq, 405965/2016-8], and to the Coordination of Im- provement of Higher Education Personnel (CAPES, Brazil) by the scholarship [001].


Data sharing does not apply to this article as no new data were created or analysed in this study.


The authors declare that they have no conflicts of interest.

1. Santos MDS, Lima JJ de, Petkowicz CLDO, Cândido LMB. Chemical characterization and evaluation of the antioxidant po- tential of gabiroba jam (Campomanesia xanthocarpa Berg). Acta Sci Agron. 2013; 35(1): 73-82. doi: 10.4025/actasciagron.v35i1.14389

2. Vallilo MI, Moreno PRH, Oliveira E de, Lamardo LCA, Gar- belotti ML. Composição química dos frutos de Campomanesia xan- thocarpa Berg-Myrtaceae. [In: Portuguese]. Ciência e Tecnol Aliment. 2008; 28: 231-237. doi: 10.1590/S0101-20612008000500035

3. de Paulo Farias D, Neri-Numa IA, de Araújo FF, Pastore GM. A critical review of some fruit trees from the Myrtaceae fam- ily as promising sources for food applications with function- al claims. Food Chem. 2020; 306: 125630. doi: 10.1016/ chem.2019.125630

4. Barbieri SF, de Oliveira Petkowicz CL, de Godoy RCB, de Azeredo HCM, Franco CRC, Silveira JLM. Pulp and jam of Ga- biroba (Campomanesia xanthocarpa Berg): Characterization and rhe- ological properties. Food Chem. 2018; 263: 292-299. doi: 10.1016/j. foodchem.2018.05.004

5. Alves AM, Alves MSO, Fernandes T de O, Naves RV, Naves MMV. Caracterização física e química, fenólicos totais e ativ- idade antioxidante da polpa e resíduo de gabiroba. [In: Portu- guese]. Rev Bras Frutic. 2013; 35(3): 837-844. doi: 10.1590/S0100- 29452013000300021

6. de Oliveira Raphaelli C, Pereira E dos S, Camargo TM, et al. Biological activity and chemical composition of fruits, seeds and leaves of guabirobeira (Campomanesia xanthocarpa O. Berg – Myrt- aceae): A review. Food Bio Sci. 2021; 40: 100899. doi: 10.1016/j. fbio.2021.100899

7. Santos MDS, Carneiro PIB, Wosiacki G, Petkowicz CL de O, Carneiro EBB. Caracterização físico-química, extração e análise de pectinas de frutos de Campomanesia Xanthocarpa B. (Gabiro- ba). [In: Portuguese]. Semin Ciências Agrárias. 2009; 30(1): 101. doi: 10.5433/1679-0359.2009v30n1p101

8. de Oliveira MIU, Rebouças DA, Leite KRB, de Oliveira RP, Funch LS. Can leaf morphology and anatomy contribute to spe- cies delimitation? A case in the Campomanesia xanthocarpa com- plex (Myrtaceae). Flora. 2018; 249: 111-123. doi: 10.1016/j.flo- ra.2018.10.004

9. Jacomino AP, da Silva APG, de Freitas TP, de Paula Morais VS. Uvaia— Eugenia pyriformis Cambess. In: Exotic Fruits. Amster- dam, Netherlands: Elsevier; 2018: 435-438. doi: 10.1016/B978-0- 12-803138-4.00058-7

10. Prestes AA, Verruck S, Vargas MO, et al. Influence of gu- abiroba pulp (campomanesia xanthocarpa o. berg) added to ferment- ed milk on probiotic survival under in vitro simulated gastroin- testinal conditions. Food Res Int. 2021; 141: 110135. doi: 10.1016/j. foodres.2021.110135

11. Silva-Rodrigues HC, Silveira MP, Helm C V., de Matos Jorge LM, Jorge RMM. Gluten free edible film based on rice flour re- inforced by guabiroba ( Campomanesia xanthocarpa ) pulp. J Appl Polym Sci. 2020; 137(41): 49254. doi: 10.1002/app.49254

12. Malherbi NM, Schmitz AC, Grando RC, et al. Corn starch and gelatin-based films added with guabiroba pulp for application in food packaging. Food Packag Shelf Life. 2019; 19: 140-146. doi: 10.1016/j.fpsl.2018.12.008

13. Salmazzo GR, Verdan MH, Silva F, et al. Chemical com- position and antiproliferative, antioxidant and trypanocidal activities of the fruits from Campomanesia xanthocarpa (Mart.) O. Berg (Myrtaceae). Nat Prod Res. 2021; 35(5): 853-857. doi: 10.1080/14786419.2019.1607333

14. Klafke JZ, Arnoldi da Silva M, Fortes Rossato M, et al. Anti- platelet, antithrombotic, and fibrinolytic activities of campoma- nesia xanthocarpa. Evidence-Based Complement Altern Med. 2012; 2012: 1-8. doi: 10.1155/2012/954748

15. Viecili PRN, Borges DO, Kirsten K, et al. Effects of Cam- pomanesia xanthocarpa on inflammatory processes, oxidative stress, endothelial dysfunction and lipid biomarkers in hypercholes- terolemic individuals. Atherosclerosis. 2014; 234(1): 85-92.
doi: 10.1016/j.atherosclerosis.2014.02.010

16. Santos MS, Correia CH, Petkowicz CLO, Cândido LMB. Evaluation of the technological potential of gabiroba [Campomanesia xanthocarpa Berg] Fruit. J Nutr Food Sci. 2012; 02(09). doi: 10.4172/2155-9600.1000161

17. Schmidt H de O, Rockett FC, Pagno CH, et al. Vitamin and bioactive compound diversity of seven fruit species from south Brazil. J Sci Food Agric. 2019; 99(7): 3307-3317. doi: 10.1002/ jsfa.9544

18. Mendes RDM, Pinto E, Soares D. Determinação dos com- postos bioativos da gabiroba. Agrarian. 2018; 11(39): 68-72.
doi: 10.30612/agrarian.v11i39.7045

19. Lisbôa GN, Kinupp VF, de Barros IBI. Campomanesia xan- thocarpa-Guabiroba. In: Coradin L, Siminski A, Reis A, eds. Es- pécies Nativas Da Flora Brasileira de Valor Econômico Atual Ou Poten- cial Plantas Para o Futuro -Região Sul. [In: Portuguese]. 2nd ed. DF, Brazil: Ministério do Meio Ambiente; 2011: 159-162.

20. Pereira MC, Steffens RS, Jablonski A, et al. Characterization and antioxidant potential of brazilian fruits from the myrtaceae family. J Agric Food Chem. 2012; 60(12): 3061-3067. doi: 10.1021/ jf205263f

21. Santos MDS, Petkowicz CL de O, Wosiacki G, Nogueira A, Carneiro EBB. Caracterização do suco de araçá vermelho (Psid- ium cattleianum Sabine) extraído mecanicamente e tratado enzi- maticamente. Acta Sci Agron. 2007; 29(5). doi: 10.4025/actascia- gron.v29i5.737

22. Engelking LR, Vitamin A. In: Textbook of Veterinary Physiolog- ical Chemistry. Amsterdam, Netherlands: Elsevier; 2015: 282-287.
doi: 10.1016/B978-0-12-391909-0.50044-X

23. OMS, Serie de Informes Técnicos. Dieta, nutrición y pre- vención de enfermedades crónicas: Informe de una consulta mixta de expertos OMS/FAO (Serie de Informes Técnicos). [In: Spanish]. Geneva, Switzerland: World Health Organization; 2003: 916.

24. Fidelis M, Santos JS, Escher GB, et al. In vitro antioxidant and antihypertensive compounds from camu-camu (Myrciaria dubia McVaugh, Myrtaceae) seed coat: A multivariate structure-activ- ity study. Food Chem Toxicol. 2018; 120: 479-490. doi: 10.1016/j. fct.2018.07.043

25. Fidelis M, de Oliveira SM, Sousa Santos J, et al. From by- product to a functional ingredient: Camu-camu (Myrciaria dubia) seed extract as an antioxidant agent in a yogurt model. J Dairy Sci. 2020; 103(2): 1131-1140. doi: 10.3168/jds.2019-17173

26. Donado-Pestana CM, Moura MHC, de Araujo RL, de Lima Santiago G, de Moraes Barros HR, Genovese MI. Polyphenols from Brazilian native Myrtaceae fruits and their potential health benefits against obesity and its associated complications. Curr Opin Food Sci. 2018; 19: 42-49.
doi: 10.1016/j.cofs.2018.01.001

27. Rodriguez-Concepcion M, Avalos J, Bonet ML, et al. A global perspective on carotenoids: Metabolism, biotechnology, and benefits for nutrition and health. Prog Lipid Res. 2018; 70: 62-93. doi: 10.1016/j.plipres.2018.04.004

28. Corona-Leo LS, Meza-Márquez OG, Hernández-Martínez DM. Effect of in vitro digestion on phenolic compounds and an- tioxidant capacity of different apple (Malus domestica) varieties harvested in Mexico. Food Biosci. 2021; 43: 101311. doi: 10.1016/J.FBIO.2021.101311

29. Pantelić MM, Dabić Zagorac DČ, Davidović SM, et al. Identi- fication and quantification of phenolic compounds in berry skin, pulp, and seeds in 13 grapevine varieties grown in Serbia. Food Chem. 2016; 211: 243-252. doi: 10.1016/j.foodchem.2016.05.051

30. Septembre-Malaterre A, Remize F, Poucheret P. Fruits and vegetables, as a source of nutritional compounds and phytochem- icals: Changes in bioactive compounds during lactic fermentation. Food Res Int. 2018; 104: 86-99. doi: 10.1016/j.foodres.2017.09.031

31. Capeletto C, Conterato G, Scapinello J, et al. Chemical com- position, antioxidant and antimicrobial activity of guavirova (Campomanesia xanthocarpa Berg) seed extracts obtained by super- critical CO2 and compressed n-butane. J Supercrit Fluids. 2016; 110: 32-38.
doi: 10.1016/j.supflu.2015.12.009

32. Barbieri SF, da Costa Amaral S, Ruthes AC, et al. Pectins from the pulp of gabiroba (Campomanesia xanthocarpa Berg): Structural characterization and rheological behavior. Carbohydr Polym. 2019; 214: 250-258. doi: 10.1016/j.carbpol.2019.03.045

33. Minzanova S, Mironov V, Arkhipova D, et al. Biological ac- tivity and pharmacological application of pectic polysaccha- rides: A review. Polymers (Basel). 2018; 10(12): 1407. doi: 10.3390/ polym10121407

34. Vallilo MI, Garbelotti ML, Oliveira E de, Lamardo LCA. Car- acterísticas físicas e químicas dos frutos do cambucizeiro (Cam- pomanesia phaea). [In: Spanish]. Rev Bras Frutic. 2005; 27(2): 241- 244. doi: 10.1590/S0100-29452005000200014

35. Vallilo MI, Lamardo LCA, Gaberlotti ML, Oliveira E de, Moreno PRH. Composição química dos frutos de Campomane- sia adamantium (Cambessédes) O.Berg. Ciência e Tecnol Aliment. 2006; 26(4): 805-810. doi: 10.1590/S0101-20612006000400015

36. Chagas AC de S, Passos WM, Prates HT, Leite RC, Furlong J, Fortes ICP. Efeito acaricida de óleos essenciais e concentra- dos emulsionáveis de Eucalyptus spp em Boophilus microplus. [In: Portuguese]. Brazilian J Vet Res Anim Sci. 2002; 39(5). doi: 10.1590/S1413-95962002000500006

37. Campos RP, Hiane PA, Ramos MIL, Ramos Filho MM, Mac- edo MLR. Conservação pós-colheita de guavira (Campomane- sia sp.). Rev Bras Frutic. 2012; 34(1): 41-49. doi: 10.1590/S0100- 29452012000100008

38. Toor RK, Savage GP. Effect of semi-drying on the antioxi- dant components of tomatoes. Food Chem. 2006; 94(1): 90-97.
doi: 10.1016/j.foodchem.2004.10.054

39. Leonarski E, Reis NN dos, Bertan LC, Pinto VZ. Optimi- zation and sensorial evaluation of guabiroba jam with prebiotic. [In: Portuguese]. Pesqui Agropecuária Bras. 2020; 55. doi: 10.1590/ s1678-3921.pab2020.v55.01841

40. Hill C, Guarner F, Reid G, et al. The International scientif- ic association for probiotics and Prebiotics consensus statement on the scope and appropriate use of the term probiotic. Nat Rev Gastroenterol Hepatol. 2014; 11(8): 506-514. doi: 10.1038/nrgas- tro.2014.66

41. Ou K, Gu L. Absorption and metabolism of proanthocyan- idins. J Funct Foods. 2014; 7: 43-53. doi: 10.1016/j.jff.2013.08.004

42. Messias CR, Quast LB, Alves V, Bitencourt TB, Quast E. Development of petit suisse cheese with native fruits: Blackberry (Morus nigra L cv. Tupy) and Guabiroba (Campomanesia xantho- carpa O. Berg). J Food Nutr Sci. 2021; 9(3): 89. doi: 10.11648/j. jfns.20210903.14

43. Leonarski E, Santos DFD, Kuasnei M, Lenhani GC, Quast LB, Pinto VZ. Development, chemical, and sensory characteri- zation of liqueurs from brazilian native fruits. J Culin Sci Technol. 2021; 19(3): 214-227. doi: 10.1080/15428052.2020.1747035

44. Federative Republic of Brazil Decreto no 6.871 de 4 de junho de 2009. Regulamenta a Lei no 8.918, de 14 de julho de 1994, que dispõe sobre a padronização, a classificação, o registro, a inspeção, a produção e a fiscalização de bebidas. [In: Portuguese]. In: Diário Oficial da União; 2009: 1-50.

45. Cristofel CJ, Grando RC, Tormen L, Francisco CT dos P, Ber- tan LC. Effect of the use of guabiroba bark and functional ingre- dients on the characteristics of nile tTilapia burger. J Food Process Preserv. 2021; 45(1). doi: 10.1111/jfpp.15040

46. Dias IP, Barbieri SF, Fetzer DEL, Corazza ML, Silveira JLM. Effects of pressurized hot water extraction on the yield and chemical characterization of pectins from Campomanesia xan- thocarpa Berg fruits. Int J Biol Macromol. 2020; 146: 431-443. doi: 10.1016/j.ijbiomac.2019.12.261

47. Pereira MC, Hill LE, Zambiazi RC, Mertens-Talcott S, Talcott S, Gomes CL. Nanoencapsulation of hydrophobic phytochemi- cals using poly (dl-lactide-co-glycolide) (PLGA) for antioxidant and antimicrobial delivery applications: Guabiroba fruit (Cam- pomanesia xanthocarpa O. Berg) study. LWT – Food Sci Technol. 2015; 63(1): 100-107. doi: 10.1016/j.lwt.2015.03.062

48. Czaikoski K, Mesomo MC, Krüger RL, Queiroga CL, Corazza ML. Extraction of campomanesia xanthocarpa fruit using supercrit- ical CO2 and bioactivity assessments. J Supercrit Fluids. 2015; 98: 79-85. doi: 10.1016/j.supflu.2015.01.006

49. Zielinski AAF, Sanchez-Camargo A del P, Benvenutti L, Ferro DM, Dias JL, Ferreira SRS. High-pressure fluid technologies: Recent approaches to the production of natural pigments for food and pharmaceutical applications. Trends Food Sci Technol. 2021; 118: 850-869.
doi: 10.1016/j.tifs.2021.11.008

50. Capeletto C, Conterato G, Scapinello J, et al. Chemical com- position, antioxidant and antimicrobial activity of guavirova (Campomanesia xanthocarpa Berg) seed extracts obtained by super- critical CO2 and compressed n-butane. J Supercrit Fluids. 2016; 110: 32-38.
doi: 10.1016/j.supflu.2015.12.009

51. Einhorn-Stoll U, Kunzek H. Thermoanalytical characterisa- tion of processing-dependent structural changes and state tran- sitions of citrus pectin. Food Hydrocoll. 2009; 23(1): 40-52. doi: 10.1016/j.foodhyd.2007.11.009

52. Chan SY, Choo WS, Young DJ, Loh XJ. Pectin as a rheolo- gy modifier: Origin, structure, commercial production and rhe- ology. Carbohydr Polym. 2017; 161: 118-139. doi: 10.1016/j.carb- pol.2016.12.033

53. Jamsazzadeh Kermani Z, Shpigelman A, Pham HTT, Van Loey AM, Hendrickx ME. Functional properties of citric acid ex- tracted mango peel pectin as related to its chemical structure. Food Hydrocoll. 2015; 44: 424-434. doi: 10.1016/j.foodhyd.2014.10.018

54. Plaza M, Turner C. Pressurized hot water extraction of bio- actives. TrAC Trends Anal Chem. 2015; 71: 39-54. doi: 10.1016/j. trac.2015.02.022

55. Zakaria SM, Kamal SMM. Subcritical water extraction of bi- oactive compounds from plants and algae: Applications in phar- maceutical and food ingredients. Food Eng Rev. 2016; 8(1): 23-34. doi: 10.1007/s12393-015-9119-x

56. Adetunji LR, Adekunle A, Orsat V, Raghavan V. Advances in the pectin production process using novel extraction tech- niques: A review. Food Hydrocoll. 2017; 62: 239-250. doi: 10.1016/j. foodhyd.2016.08.015

57. Fang Z, Bhandari B. Encapsulation of polyphenols – a re- view. Trends Food Sci Technol. 2010; 21(10): 510-523. doi: 10.1016/J. TIFS.2010.08.003

58. Pereira MC, Oliveira DA, Hill LE, et al. Effect of nanoencap- sulation using PLGA on antioxidant and antimicrobial activities of guabiroba fruit phenolic extract. Food Chem. 2018; 240: 396- 404. doi: 10.1016/j.foodchem.2017.07.144

59. Uskokovic D, Stevanovic M. Poly (lactide-co-glycolide)- based micro and nanoparticles for the controlled drug de- livery of vitamins. Curr Nanosci. 2009; 5(1): 1-14. doi: 10.2174/157341309787314566

60. Schumacker PT. Reactive oxygen species in cancer cells: Live by the sword, die by the sword. Cancer Cell. 2006; 10(3): 175-176.
doi: 10.1016/j.ccr.2006.08.015

61. Amaral S da C, Barbieri SF, Ruthes AC, Bark JM, Winnischofer SMB, Silveira JLM. Cytotoxic effect of crude and purified pectins from campomanesia xanthocarpa Berg on human glioblasto- ma cells. Carbohydr Polym. 2019; 224: 115140. doi: 10.1016/j.carb- pol.2019.115140

62. Hernández-Hernández HM, Moreno-Vilet L, Villanue- va-Rodríguez SJ. Current status of emerging food processing technologies in Latin America: Novel non-thermal processing. Innov Food Sci Emerg Technol. 2019; 58: 102233. doi: 10.1016/j.if- set.2019.102233

63. El Kantar S, Boussetta N, Lebovka N, et al. Pulsed electric field treatment of citrus fruits: Improvement of juice and polyphenols extraction. Innov Food Sci Emerg Technol. 2018; 46: 153-161. doi: 10.1016/j.ifset.2017.09.024

64. Dziadek K, Kopeć A, Dróżdż T, et al. Effect of pulsed elec- tric field treatment on shelf life and nutritional value of apple juice. J Food Sci Technol. 2019; 56(3): 1184-1191. doi: 10.1007/ s13197-019-03581-4

65. Gómez-López VM, Ragaert P, Debevere J, Devlieghere F. Pulsed light for food decontamination: a review. Trends Food Sci Technol. 2007; 18(9): 464-473. doi: 10.1016/j.tifs.2007.03.010

66. Palgan I, Caminiti IM, Muñoz A, et al. Combined effect of selected non-thermal technologies on Escherichia coli and Pichia fermentans inactivation in an apple and cranberry juice blend and on product shelf life. Int J Food Microbiol. 2011; 151(1): 1-6.
doi: 10.1016/j.ijfoodmicro.2011.07.019

67. Muñoz A, Palgan I, Noci F, et al. Combinations of high in- tensity light pulses and thermosonication for the inactivation of escherichia coli in orange juice. Food Microbiol. 2011; 28(6): 1200- 1204. doi: 10.1016/

68. Pereira MC, Steffens RS, Jablonski A, et al. Characterization and antioxidant potential of Brazilian fruits from the Myrtaceae family. J Agric Food Chem. 2012; 60(12): 3061-3067. doi: 10.1021/ jf205263f

69. Sánchez-Camargo A del P, Gutiérrez L-F, Vargas SM, Mar- tinez-Correa HA, Parada-Alfonso F, Narváez-Cuenca C-E. Val- orisation of mango peel: Proximate composition, supercritical fluid extraction of carotenoids, and application as an antioxidant additive for an edible oil. J Supercrit Fluids. 2019; 152: 104574. doi: 10.1016/j.supflu.2019.104574

70. Zaghdoudi K, Framboisier X, Frochot C, et al. Response sur- face methodology applied to Supercritical Fluid Extraction (SFE) of carotenoids from Persimmon (Diospyros kaki L.). Food Chem. 2016; 208: 209-219. doi: 10.1016/j.foodchem.2016.03.104

71. Mercado-Mercado G, Montalvo-González E, González-Agu- ilar GA, Alvarez-Parrilla E, Sáyago-Ayerdi SG. Ultrasound-as- sisted extraction of carotenoids from mango (Mangifera indica L. ‘Ataulfo’) by-products on in vitro bioaccessibility. Food Biosci. 2018; 21: 125-131.
doi: 10.1016/j.fbio.2017.12.012

72. Morison KR, Hartel RW. Evaporation and Freeze Concen- tration. In: Heldman DR, Lund DB SC, eds. Handbook of Food Engineering. 2nd ed. Florida, USA: CRC Press; 2018: 495-550.

73. Zielinski AA, Zardo DM, Alberti A, et al. Effect of cryo- concentration process on phenolic compounds and antioxidant activity in apple juice. J Sci Food Agric. 2019; 99(6): 2786-2792. doi: 10.1002/jsfa.9486

74. Sánchez J, Ruiz Y, Auleda JM, Hernández E, Raventós M. Review. Freeze concentration in the fruit juices industry. Food Sci Technol Int. 2009; 15(4): 303-315. doi: 10.1177/1082013209344267

75. Sánchez J, Ruiz Y, Raventós M, Auleda JM, Hernández E. Progressive freeze concentration of orange juice in a pilot plant falling film. Innov Food Sci Emerg Technol. 2010; 11(4): 644-651. doi: 10.1016/j.ifset.2010.06.006