Extraction Of Pectin Research Articles

Optimized extraction of pectin from cassava root cortex: evaluating aqueous and acidic methods

Optimized extraction of pectin from cassava root cortex: evaluating aqueous and acidic methods

Efficient pectin recovery from sugar beet pulp as effective bio-based coating for Pacific white shrimp preservation

This study demonstrates the valorization of sugar beet pulp (SBP)-derived pectin to produce bio-based coatings for shrimp preservation. Pectin extraction was assessed at varying temperatures and extraction times to achieve tailored properties (high methoxyl-pectins, degree of esterification-DE >79.0 %) leading to 11.5 % extraction yield, 78.1 % galactouronic acid content and 80 % DE at optimal conditions (pH 1.5, 80 °C, 2 h). Pectin-based coatings supplemented with ascorbic acid (AA) (0.5–2.0 %) led to organoleptically acceptable shrimps with significantly lower total color differences during 28-days of storage, compared to uncoated and pectin-coated counterparts. AA-based coatings delayed shrimp melanosis, expressed as reduced polyphenoloxidase activity (48–86 %). Rich-in-holocellulose solids derived after pectin extraction were used for bacterial cellulose (BC) production, pinpointing the SBP potential as a multi-purpose feedstock. Fed-batch fermentation enhanced BC concentration (by 110 %) and productivity (1.6-fold higher) compared to batch-cultures. Pectin produced within a SBP-based biorefinery could be applied as bio-based coating with food packaging potential.

Source, Extraction, Properties, and Multifunctional Applications of Pectin: A Short Review

Pectin, a heteropolysaccharide derived from plant cell walls, is essential in the food, pharmaceutical, and environmental industries. Currently, citrus and apple peels are the primary sources for commercial pectin production. The yield and quality of pectin extracted from various plant sources significantly differ based on the extraction methods employed, which include physical, chemical, and biological processes. The complex structures of pectin, composed of polygalacturonic acid and rhamnogalacturonan, influence its physicochemical properties and, consequently, its functionality. As a common polysaccharide, pectin finds applications across multiple sectors. In the food industry, it acts as a gelling agent and a packaging material; in pharmaceuticals, it is utilized for drug delivery and wound healing. Environmentally, pectin contributes to wastewater treatment by adsorbing pollutants. Current research focuses on alternative sources, sustainable extraction methods, and multifunctional applications of pectin. Ongoing studies aim to enhance extraction technologies and broaden the applications of pectin, thereby supporting sustainable development goals.

Research progress and application of pectin: A review.

Pectin, an acidic polysaccharide, is naturally present primarily in the cell walls and inner layers of higher plants. Pectin is extensively used in food, pharmaceutical, cosmetic, and other industries owing to its exceptional attributes encompassing superior gelation, emulsification, antioxidant activity, stability, biocompatibility, and nontoxicity. Due to the increasing demand for pectin, there is a short supply in the domestic pectin market. Currently, the domestic production of pectin is heavily reliant on imports, thus emphasizing the urgent need to enhance its local manufacturing capabilities. Due to the diverse sources of pectin and variations in extraction and purification methods, its content, physicochemical properties, and biological activity are influenced, consequently impacting the market application of pectin. Therefore, this paper comprehensively reviews the extraction and purification process of pectin, in vivo metabolism, and biological activities (including antitumor, immunomodulatory, anti-inflammatory, antioxidant, hypoglycemic and hypolipidemic effects, antimicrobial properties, accelerated wound healing potential, promotion of gastrointestinal peristalsis, and alleviation of constipation as well as cholesterol-lowering effect). Furthermore, it explores the diverse applications of pectin in food science, biomedicine, and other interdisciplinary fields. This review serves as a valuable resource for enhancing the efficiency of pectin content improvement and exploring the potential value and application of pectin in a more scholarly and scientifically rigorous manner.

Optimization of microwave-assisted pectin extraction from walnut shells and evaluation of its physicochemical and biological attributes

Walnuts, known for their high nutritional value, generate significant waste in the form of husks and shells, the disposal of which contributes to environmental pollution. The utilization of this walnut waste for the production of beneficial compounds remains underexplored. In the current study, extraction time, temperature, microwave power, and solid-to-solvent ratio were optimized using response surface methodology. This technique significantly reduced the extraction time, yielding pectin at 34.13 ± 3.83 % under optimal conditions: temperature (74 °C), microwave power (400 W), irradiation time (16 min), and solid-solvent ratio (1:25). XRD characterization revealed the crystalline nature of the extracted pectin, while FTIR confirmed the presence of major functional groups. The extracted pectin exhibited an equivalent weight of 576.99 ± 7.63 g/mol with a degree of esterification of 59.88 ± 0.28 %, making it suitable for food, pharmaceutical, and cosmetic applications. Further, the extracted pectin demonstrated significant antioxidant activity with IC50 values of 5.08 ± 0.08 mg/ml for DPPH and 2.87 ± 0.023 mg/ml for ABTS assays. It also showed antibacterial activity against both gram-positive Staphylococcus aureus MTCC 96 and gram-negative Pseudomonas aeruginosa MTCC 424, with zones of inhibition measuring 25.33 ± 0.58 mm and 28.33 ± 0.58 mm, respectively. SEM analysis revealed changes in cell morphology of S. aureus and P. aeruginosa when treated with the extracted pectin. These findings suggest that microwave-assisted extraction offers a rapid, eco-friendly, and cost-effective method for pectin extraction from walnut shells, promoting sustainable utilization of this waste resource and providing a potential pectin source with enhanced biological activity.

PECTIN EXTRACTION AND CHARACTERIZATION FROM LOCAL WHITE PUMPKIN (LAGENARIA SICERARIA)

Pectin, a naturally occurring heteropolysaccharide, has in recent years grown increasingly in importance. In this present study, white pumpkin or bottle gourd was chosen as a representative of the Cucurbitaceae family to extract powder pectin. At initial and final times, treatment (T1) and treatment (T2), the amount of pectin in calcium pectate in fresh pumpkin ranges from 3.7% to 5.8%. Standardized water bath heating was used to extract pectin from white pumpkins by boiling the fruit at atmospheric pressure for five minutes at 95 oC. Distilled water was also tested for pectin isolation from white pumpkins as an extraction solvent. The weight increased by 844.98% at T1 and decreased to 675.67% at T6, following which was precipitation with 95% ethanol yielding maximum on the above during the extraction of pectin by water bath at varied period durations. Finally, the degree of esterification was the rate 68.76% at T1 to 59.87% at T6, with the methoxyl content having a value 9.45% at T1 to 6.82% at T6 and the anhydrouronic acid content (AUA%) being 76.66% at T1 to 64.77% at T6. Moisture, equivalent weight, degree of esterification, and methoxyl concentration all reduced as extraction time increased. However, many indicators, like ash content, acetyl value, and jelly grade, exhibited an early rise in value that later declined as extraction time increased. Thus, the optimal method for pectin isolation involves boiling the pumpkin in water at atmospheric pressure for 5 to 30 minutes. In addition, among different times of extraction pectin that was obtained from 30 minutes had the highest lightness 82.07 while the lowest redness 2.03 and yellowness 5.14 of pectin was recorded at this time. This pectin met the criteria for food additive use, indicating its potential as a commercially viable alternative source.

Green Packaging Films with Antioxidant Activity Based on Pectin and Camellia sinensis Leaf Extract.

In the packaging materials sector, increasing globalization has created the need for increased efforts to develop consumer protection measures. Consequently, new packaging materials are being sought to replace petroleum-based materials in the future. For this reason, global awareness of the environmental problems associated with the use of synthetic and non-degradable packaging has increased the attention paid to bio-packaging based on natural and biodegradable polymers. The bio-packaging sector is developing innovations to address the sustainability issues facing the food packaging industry. Our research has shown that green matcha extract can be a promising source of antioxidants for the production of bioactive pectin films. This study further confirmed that green matcha extract can be a promising source of antioxidants for the production of bioactive pectin films. The antioxidant activity test showed high activity of films containing matcha extract. The antioxidant activity of films without matcha addition, P, PJ, PC, PJC, was negligible. The addition of matcha to the polymer matrix did not significantly affect the mechanical properties (TS, EB) of the films obtained. The addition of cellulose had the greatest effect on changing the mechanical properties. It caused a twofold increase in the mechanical properties of the obtained packaging films. The addition of matcha significantly improved the barrier properties (for PM films, the WVTR was 3.40 [g/m2d]; for PJM films the WVTR was 1.70 [g/m2d]). The green packaging films showed no toxic effects on the plants (Phacelia tanacetifolia, Salvia hispanica, Brassica napus) and invertebrates (Daphnia pulex, Chaoborus, Chironomus aprilinus) tested. The half-solubility time of the membranes in a solution mimicking gastric acid was also determined. The longest half-dissolution time of the films was about 2 min. Our research has therefore shown that the biodegradable and environmentally safe green packaging films with antioxidant activity that we have developed can be used as edible functional casings in the future, e.g., for sausages and other food products.

Impacts of microwaves on the pectin extraction from apple pomace: Technological properties in structuring of hydrogels

The valorization of by-products eliminates the risks of economic barriers and reduces the overall amount of pollution and the carbon footprint of the products. In this context, conventional heating extraction (CE) and microwave-assisted extraction (MAE) were compared to extract pectin from apple pomace. The effects of temperature on MAE were evaluated based on the resulting properties obtained in subsequent pectin hydrogels. A pectin yield of 10.6 ± 0.3% was obtained by MAE with 5 min extraction, while CE showed a yield of 9.5 ± 0.3% after 2 h. The pectin extracted by both methods had a low methoxyl content, indicating a low degree of esterification. The galacturonic acid content was greater than 60% for most samples. Zeta potential analysis indicated the ability of the pectin to form stable gels. According to the X-ray diffractograms, increasing the extraction temperature led to a decrease in the crystallinity of the pectin structure. Rheological tests showed increased storage modulus as the temperature increased by MAE from 80 to 100 °C for the pectin-based hydrogel. The water holding capacity was greater than 50% for all hydrogels. Furthermore, an analysis of electrical consumption and energy costs highlighted the economic advantage of using microwave heating technology to extract pectin.

Sequential extraction of hawthorn pectin: An attempt to reveal their original mode of being in plants and functional properties

Hawthorn is rich in pectin, which is much higher than most cultivated fruits, but conventional extraction methods do not meet the requirements of low energy consumption and green production. Pectin in hawthorn is divided into soluble and insoluble parts, and with the ripening of hawthorn, the original pectin is converted into soluble pectin and pectic acid under the action of enzymes. Therefore, based on the characteristics of hawthorn pectin, this study sequentially extracted hawthorn pectin using water-soluble pectin (WSP) and hot acid-soluble pectin (HAP) method, verifying the feasibility of extracting hawthorn pectin with pure water at room temperature, and systematically analyzing and comparing the physicochemical properties and functional characteristics of the two methods. The combination of texture analysis and gel rheology revealed that WSP formed a more uniform and dense network structure during the gelation process. Additionally, microscopic observations and emulsification index results indicated that the emulsion prepared with WSP (WSE) had a smaller particle size and better stability. This indicates that hawthorn pectin is suitable for extraction with pure water at room temperature, which can maintain its good physical properties while reducing energy consumption, providing a new approach for the large-scale extraction of pectin in the food industry.

Effect of maturity levels and blanching temperature on extraction of pectin from jackfruit rags and study its properties

Effect of maturity levels and blanching temperature on extraction of pectin from jackfruit rags and study its properties

Novel Antarctic Endo-Polygalacturonase for Pectin Extraction and Vegetal Tissue Maceration at Mild Temperatures.

The aim of the present work was to partially purify and characterize an Antarctic polygalacturonase and to determine the enzyme's potential in pectin extraction and vegetal maceration at 20°C. Polygalacturonase was purified by chromatography to obtain an enzymatic preparation of specific activity 30.3 U.mg-1. Optimal conditions for the polygalacturonase activity were 45°C and pH 5.0-6.0, and the activation energy for the reaction was 41.8kJ.mol-1. Of the enzyme activity, 100% was retained after 3h at 40°C. The enzyme was remarkably stable for an hour over a wide range of pH (2.0-12.0). Polygalacturonase activity was slightly reduced in the presence of Ca+2, Fe+3, K+, Mn+2, and Zn+2, whereas Hg+2 reduced the activity by 60%, suggesting a thiol-dependent catalysis. The apparent molecular weight of the enzyme was 33kDa. The kinetic constants evaluated against polygalacturonic acid were 0.17mg.ml-1 (Km), 480s-1 (Kcat), and 7.9µmol.mg-1.min-1 (Vmax). The enzyme was active against different pectic substrates. Thin-layer chromatography revealed an endo-mechanism of action. Polygalacturonase digested lime pomace to aid the extraction of high-methoxylated pectin at 20°C and increased the vegetal maceration of Capsicum annuum by 24% over the control values.

Mathematical Modeling for Pectin Extraction in Melon waste

Mathematical Modeling for Pectin Extraction in Melon waste

OPTIMIZATION OF PECTIN EXTRACTION FROM SUGAR BEET PULP USING MICROWAVE TREATMENT

Pectin is a natural heteropolysaccharide contained in plant cell walls and plant waste. In recent years, various alternative methods (enzymatic, microwave, ultrasonic) have been used to increase the yield of pectin, which can increase the efficiency of the process, pectin yield and improve quality. The principal advantages of using microwaves for the extraction of pectin from plant waste materials are the significant reduction in processing time, the higher yield of the natural polymer and the quality maintenance due to the more gentle processing conditions. The purpose of the work is to improve the method of pectin extraction from beet pulp using microwave treatment. Experiments were carried out to establish the optimal conditions of polysaccharide extraction. The pectin extraction was optimized by varying the microwave power, the pH of the medium, the processing time, the type of extracting agent (citric, malic, hydrochloric and acetic acids) and the ratio of beet pulp to extracting agent. A titrimetric method was used to determine the degree of esterification and the uronide component. Results and discussion. Extraction of pectin from sugar beet pulp includes the following main steps: polymer extraction by microwave treatment, pectin purification and drying. Among the studied parameters, the ratio of beet pulp to extracting agent and microwave processing time had a significant effect on the yield and properties of pectin. The highest yield of pectin (5.7%) was achieved at a heating power of 520 W, pH - 2.0, processing time of 30 minutes, using citric acid as the extraction agent and a beet pulp to extraction agent mass ratio of 15:1. IR spectra of the extracted pectin show the presence of characteristic bands typical of the pectin spectrum. Conclusions. Varying the parameters of pectin extraction from sugar beet pulp using microwave treatment allowed to increase the yield of pectin with desired characteristics. The perspective of using ecologically pure organic acids (citric and malic acids) as an extracting agent is shown.

Antimicrobial activities of modified and unmodified pectin obtained from peels of Irvingia gabonensis, Cola milleni, and Theobroma cacao on specific pathogenic organisms

The antibacterial and antifungal activities of ethanolic extracts of pectin derived from the peels of Theobroma cacao, Cola milleni, and Irvingia gabonensis were investigated against phytopathogenic bacteria and fungi. The agar diffusion method was employed to test the extracts against Staphylococus aureus, Pseudomonas aeroginosa, Chromobacterium violaceum, Streptococcus feacalis, Xanthomonas axonopodis, Erwinia carotovora, Sclerotium rulfsii, Pythophthora palmivora, and Pyricularia oryzae. Significant differences (p<0.05) were observed in all control groups. The extracts inoculated with Streptomycin exhibited the highest activity against all bacterial strains. Conversely, the unmodified extracts of pectin samples from cola, cocoa, and wild mango displayed the least inhibitory activity against the tested bacterial strains, while the modified extracts with Chloro Acetic Acid (CAA), Para Amino Benzoic Acid (PABA), and Para Nitro Benzoic Acid (PNBA) showed varying inhibitory effects. The control sample inoculated with Mancozeb demonstrated the highest zone of inhibition against all fungal strains in the three pectin samples. However, the modified pectin samples exhibited increased inhibitory effects compared to the unmodified pectin extract, although the results were closer to the control. The higher values of modified pectin can be attributed to the presence of modifying agents such as long-chain hydrocarbons, acetic acid, chloro compounds, carboxyl, benzene rings, amino groups, and nitro groups. The presence of secondary metabolites in the pectin samples may also contribute to the higher values observed in both modified and unmodified samples. Overall, the results indicate the fungicidal and bactericidal potential of the extracts against the tested organisms, suggesting their potential use as broad-spectrum antimicrobial agents.

Physicochemical characterization of Dillenia indica fruits and exploration of extraction methods to obtain reducing compounds and pectin

Dillenia indica Linn. is an unconventional edible plant with numerous health benefits, including anti-diabetic, anti-inflammatory, and anticancer properties. Dillenia indica fruit, known as elephant apple, is rich in nutrients and bioactive compounds and is an excellent source of pectin, a polysaccharide extensively used in the food industry. Despite the potential of this plant, it has been little studied and is still under-explored for commercial purposes. This study aimed to explore methods for extracting total reducing compounds and pectin from Dillenia indica fruit. First, the extraction of reducing compounds was optimized by ultrasound-assisted method within an experimental design considering three variables: solvent-to-feed (S/F) ratio (10:1 – 30:1), ethanol-to-water ratio (0:100 – 100:0) and ultrasound amplitude (24 – 40 %). In the following step, kinetic curves at the optimized conditions were obtained for up to 16 min. The ultrasound-assisted method was then compared to mechanical stirring (100 rpm). In the last step, pectin was extracted, maintaining the same S/F ratio (30:1) and ethanol-to-water ratio (20:80), but using magnetic stirring, pH 2.0, and 80 ºC. Pure water at pH 2.0 was used as a solvent for comparison. In the ultrasound-assisted extraction, the optimal yield was achieved with an S/F ratio of 30:1, an ethanol-to-water ratio of 20:80, and an ultrasound amplitude of 24 %. In the kinetic curves, a higher reducing capacity was obtained at 8 min through mechanical stirring. The pectin extraction was more effective with pure water (12.1 %). However, the ethanol-water mixture promoted a similar amount of pectin (10.3 %) but with a considerably higher total reducing capacity (25.82 mg GAE/g for ethanol-water and 14.5 mg GAE/g for pure water). These results demonstrated that reducing compounds and pectin can be effectively extracted from Dillenia indica fruit, highlighting the potential of this fruit to produce valuable ingredients.

Extraction of cell wall pectins and hemicellulose from agro-industrial wastes: A sustainable alternative source

The efficient repurposing of agro-industrial waste has significantly enhanced the utilization of food resources. This study aims to propose a methodology for extracting cell wall polysaccharides from residues of mango (Mangifera indica), passion fruit (Passiflora edulis), and cashew (Anacardium occidentale). Polysaccharide fractions were obtained through sequential extraction protocols involving water, cyclohexane-trans-1,2-diamine tetracetate (CDTA), sodium carbonate:CDTA, and potassium hydroxide. These fractions were categorized as water-soluble pectin (WSP), CDTA-soluble pectin (CSP), sodium carbonate-soluble pectin (SSP), and hemicellulose (HC), respectively. Each polysaccharide fraction was characterized by Nuclear Magnetic Resonance (NMR) spectroscopy and Gel Permeation Chromatography (GPC). Monosaccharide composition was determined using Gas Chromatography-Mass Spectrometry (GC–MS). NMR spectra of WSP, CSP, and SSP fractions exhibited characteristic pectin features, while the HC fraction primarily comprised hemicellulose. Consequently, the proposed methodology demonstrates potential as a standardized protocol for the extraction of pectin and hemicellulose from various food sources.

Extraction optimisation and characterisation of Artocarpus integer peel pectin by malonic acid-based deep eutectic solvents using response surface methodology

Traditional pectin extraction methods involve strong acids, which are environmentally harmful. This study explores an innovative approach using Malonic Acid (MA)-based Deep Eutectic Solvents (DES) to extract pectin from Artocarpus integer Peel (AIPP), optimised through Response Surface Methodology (RSM). The extracted AIPP-A and AIPP-B from ChCl-MA and ChDHCit-MA DES, respectively, were characterised for yield, pH, solubility, Degree of Esterification (DE), Water and Oil Holding Capacity (WHC and OHC). The experimental values aligned with RSM model predictions, with low standard deviations: 0.7300 for ChCl-MA and 0.1531 for ChDHCit-MA. Optimal extraction conditions for AIPP-A were 3.27 % ChCl-MA, 1.28 h extraction time, 50.44 °C temperature, and a 1:40 g/mL solid-to-liquid ratio. For AIPP-B, the conditions were 4.95 % ChDHCit-MA, 2.04 h extraction time, 79.65 °C temperature, and a 1:50 g/mL solid-to-liquid ratio. ChCl-MA yielded 30.97 % AIPP, which was higher than that of ChDHCit-MA (27.99 %). Both AIPP demonstrated desirable properties such as low pH, high solubility, and significant DE. AIPP-A exhibited a greater DE (58.40 %) compared to AIPP-B (32.4 %) contributed to its lower WHC and higher OHC. In conclusion, RSM-based optimisation of AIPP extraction with DES is effective in producing pectin that is suitable for use as a gelling agent, preservative, and stabiliser in the food industry.

LCA analysis for assessing environmenstal sustainability of new biobased chemicals by valorising citrus waste

The global shift towards using biomass for biofuels and chemicals is accelerating due to increasing environmental concerns and geopolitical strategies. This study investigates a biorefinery model using citrus-processing-waste, specifically citrus pulp, to produce high-value products for various industries, including cosmetics, pharmaceuticals, flavours, fragrances, and food packaging. In Italy, particularly Sicily region, citrus processing generates significant amounts of waste, often improperly disposed of, contributing to environmental problems. Researchers have demonstrated that citrus waste can yield commercially valuable compounds. This study specifically focuses on orange peel waste (OPW), which constitutes about half of the fruit's weight, aiming to extract pectin and limonene through a combined process. The extraction process was carried out on a laboratory scale, and its sustainability was evaluated using a life cycle assessment (LCA) with SimaPro 8.1 software and the Impact 2002 + method. The functional unit adopted for this study is 300 g of OPW, obtained after the pre-treatment phase, from which 0.14 g of limonene and 8.22 g of pectin were extracted. The LCA results revealed that pectin extraction has a significantly higher environmental impact compared to limonene extraction, primarily due to the use of ethanol as a solvent, followed by electricity consumption. To mitigate this impact, the LCA assessed alternative, more sustainable solvents, resulting in a 73.4% reduction in the environmental footprint of the pectin extraction process. These findings underscore the critical role of LCA, even at the laboratory scale, in identifying environmental hotspots and providing insights for improving and optimizing processes for potential industrial-scale applications.

Influence of ultrasound-assisted extraction on the pectin extraction yield and structural characteristics: A case study on carrot pomace (Daucus carota)

For the ultrasound-assisted extraction (UAE) of pectin from carrot pomace, the influence of different extraction parameters on the pectin yield and structure was studied. Therefore, an Orthogonal Minimally Aliased Response Surface (OMARS) design and a constant extraction temperature were used. This study showed that pH had the most pronounced effect on the pectin yield and molecular structure, and that a low pH is crucial to liberate pectin from the cell wall matrix. Besides, it was shown that an increased pectin yield can be achieved with an increased ultrasound intensity, provided that the pH is sufficiently low. The optimal UAE conditions resulted in a pectin yield of 57.2 %, while the control extraction, which used the same extraction conditions without the application of ultrasound waves, only resulted in a pectin yield of 37.4 %, showing a significant increase with ultrasonication. Due to the temperature-control during the ultrasonication process, this increased yield can be attributed to the ultrasound waves as such, and not to the accompanying temperature increase. Additionally, shorter extraction times can be used to obtain pectin yields comparable to a conventional acid extraction process. These increased yields and shorter extraction processes show the potential of UAE as an alternative extraction technology.

Optimization of the pumpkin pectin paste production process

Taking into account the mentioned advantages, the use of vegetable and fruit pastes with increased pectin content has great potential in therapeutic and preventive nutrition. They not only contribute to the removal of radionuclides, heavy metals and toxins from the body but also provide additional enrichment of the body with a complex of natural vitamins, tannins and sugars. These natural substances help to improve the work of the gastrointestinal tract, increase the general tone of the body and help strengthen the immune system. Optimized technological production processes, in particular the hydromodule of hydrolysis of raw materials, correctly selected temperature regimes and evaporation methods that ensure maximum efficiency of pectin extraction from raw materials. This makes it possible to achieve high quality of the finished product with full preservation of the beneficial properties of pectin substances. Modern technological methods guarantee the preservation of the maximum number of active components, which makes the product even more valuable for consumers. For the production of pectin pastes, Gleisdorfer Olkurbis, Hamlet, Pivdenny, Miranda and Dana Styrian Bare-seeded pumpkins were selected. The hydrolysis process was carried out using lactic acid and whey, which contributed to a faster process and acted as preservatives. According to the results of experimental studies, rational hydrolysis conditions were established: hydro modulus (1:14–1:17), concentration of hydrolyzers, temperature regime, hydrolysis time, and evaporation method. The evaluation of the product included the analysis of dry matter content, colour, pectin content and gel-forming properties. According to the results of the experiments, it was determined that the rational conditions for the hydrolysis of pumpkin raw materials are a temperature within 80°C, a duration of the process of 65 minutes and a hydromodule of 15–16. Rational conditions for evaporation in a vacuum are established, which allow obtaining high-quality pectin paste with a pectin content of 1.5% and a dry matter content within 70%. A specialized technology for the production of pectin pastes from pumpkin and other vegetable raw materials has been developed, which allows you to effectively preserve the natural properties and nutrients characteristic of local fruits and vegetables. Technological and hardware-technological production schemes have been developed, which will contribute to the organization of production in the areas where raw materials are grown, reducing transportation costs and contributing to regions' sustainable development. Localization of production contributes to the creation of new jobs and support of the local economy Thus, the use of vegetable and fruit pastes with increased pectin content has a great potential for strengthening the health of the population. They are a rich source of natural vitamins and microelements, which contribute to the improvement of the general condition of the body, increase immunity and protect against harmful effects of the environment. The growing demand for natural and healthy food products makes pectin pastes a promising direction for investment and development of new technologies in the food industry.