CN103734560A - Method for removal of reactive carbonyl compounds in high fructose corn syrup (HFCS) - Google Patents

Method for removal of reactive carbonyl compounds in high fructose corn syrup (HFCS) Download PDF

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CN103734560A
CN103734560A CN201310642428.1A CN201310642428A CN103734560A CN 103734560 A CN103734560 A CN 103734560A CN 201310642428 A CN201310642428 A CN 201310642428A CN 103734560 A CN103734560 A CN 103734560A
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hfcs
final concentration
carbonyl compound
active carbonyl
interpolation
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贾士儒
吴晓英
陶如玉
钟成
史晓伟
戴玉杰
韩培培
谭之磊
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Tianjin University of Science and Technology
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Tianjin University of Science and Technology
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    • AHUMAN NECESSITIES
    • A23FOODS OR FOODSTUFFS; TREATMENT THEREOF, NOT COVERED BY OTHER CLASSES
    • A23LFOODS, FOODSTUFFS, OR NON-ALCOHOLIC BEVERAGES, NOT COVERED BY SUBCLASSES A21D OR A23B-A23J; THEIR PREPARATION OR TREATMENT, e.g. COOKING, MODIFICATION OF NUTRITIVE QUALITIES, PHYSICAL TREATMENT; PRESERVATION OF FOODS OR FOODSTUFFS, IN GENERAL
    • A23L29/00Foods or foodstuffs containing additives; Preparation or treatment thereof
    • A23L29/30Foods or foodstuffs containing additives; Preparation or treatment thereof containing carbohydrate syrups; containing sugars; containing sugar alcohols, e.g. xylitol; containing starch hydrolysates, e.g. dextrin
    • AHUMAN NECESSITIES
    • A23FOODS OR FOODSTUFFS; TREATMENT THEREOF, NOT COVERED BY OTHER CLASSES
    • A23LFOODS, FOODSTUFFS, OR NON-ALCOHOLIC BEVERAGES, NOT COVERED BY SUBCLASSES A21D OR A23B-A23J; THEIR PREPARATION OR TREATMENT, e.g. COOKING, MODIFICATION OF NUTRITIVE QUALITIES, PHYSICAL TREATMENT; PRESERVATION OF FOODS OR FOODSTUFFS, IN GENERAL
    • A23L5/00Preparation or treatment of foods or foodstuffs, in general; Food or foodstuffs obtained thereby; Materials therefor
    • A23L5/20Removal of unwanted matter, e.g. deodorisation or detoxification
    • AHUMAN NECESSITIES
    • A23FOODS OR FOODSTUFFS; TREATMENT THEREOF, NOT COVERED BY OTHER CLASSES
    • A23VINDEXING SCHEME RELATING TO FOODS, FOODSTUFFS OR NON-ALCOHOLIC BEVERAGES AND LACTIC OR PROPIONIC ACID BACTERIA USED IN FOODSTUFFS OR FOOD PREPARATION
    • A23V2002/00Food compositions, function of food ingredients or processes for food or foodstuffs

Abstract

The invention provides a method for removal of reactive carbonyl compounds in high fructose corn syrup (HFCS). The technical proposal adopted by the method is as follows: in a HFCS production processing process or a production processing process using the HFCS as a raw material, adding a clearing factor, fully mixing, under the condition of 30-40 DEG C, mixing, and reacting for 1 to 4 hours. The clearing factor use amount is 0.01%-0.5% of the HFCS mass, and the clearing factor is at least one from vitamin C, sodium hydrosulfite, ethylenediamine tetraacetic acid disodium, theaflavins, tea polyphenols, sodium sulfite, phytic acid, sodium ascorbate, calcium ascorbate, D-Isoascorbic acid or D-isoascorbic acid sodium salt. The method can effectively remove the reactive carbonyl compounds in the high fructose corn syrup, and has the advantages of simple procedure and high removal rate of the reactive carbonyl compounds, and the maximum removal rate is up to above 60%.

Description

A kind of method of removing active carbonyl compound in HFCS
Technical field
The present invention relates to the removal of active carbonyl compound in HFCS in field of food.
Background technology
HFCS (hereinafter to be referred as HFCS), claiming again high fructose syrup or isomery syrup, is the isomerization through glucose isomerase with the saccharified liquid of enzyme process starch saccharification gained, and wherein a part of glucose isomerase becomes fructose, take the mixing molasses that fructose and glucose forms as key component, HFCS has many-sided peculiar property, as the Synergistic of sugariness, and cold sweet and tasty mouthful of property, high-dissolvability and hyperosmosis, hygroscopicity, moisture retention and anti-crystallization, superior Fermented and processing and storage stability etc.At present increasingly extensive in the application of food processing field as the substitute of sucrose.
The glucide such as glucose, fructose oxidation reaction can produce a series of compound as 3-deoxyfructose (3-Dexoyglucosone, 3-DOG), glyoxal (Glyoxal, GO), methyl-glyoxals (Methylglyoxal, MGO) etc., are referred to as active carbonyl compound.Active carbonyl compound belongs to the glycosylation factor of high reaction, higher 200~50000 times than the activity of glucose.Under normal physiological conditions, activity in vivo carbonyl compound concentration is lower 10000~50000 times than glucose, but still is the important as precursors that generates advanced glycation end products (advanced glycation end products, AGEs).Active carbonyl compound is a kind of reactive metabolic intermediate, resulting from nonenzymatic glycosylation reaction, sugared degradation process and metabolic disease etc., is a kind of high response toxic chemical, has carcinogenicity, cytotoxicity and the quick biological natures such as AGEs that generate, participate in the development of many chronic diseases.There are some researches show under diabetic disease states, blood plasma MGO level significantly raises, and MGO level is relevant with controlling degree of blood sugar.When the people's such as Paul J.Beisswenger research shows diabetic with fast-developing ephrosis complication, the level of MGO raises.This phenomenon has all obtained confirmation in the In vitroandin vivotrial of type 1 diabetes and diabetes B.In addition the people's such as HoweU.S research is also found under diabetic disease states, and 3-DOG level raises, and in renal tissue, 3-DOG level and diabetic nephropathy have significant correlation.The experiment in vitro such as Cantero show that the Enrichment of GO and MGO causes platelet-derived growth factor receptors (PDGFR) distortion and mitogenesis Functional change, and in the mouse atherosclerotic lesions of diabetes apo E disappearance, also find identical PDGFR distortion, show that GO and MGO may make also to have occurred in body identical dysfunction.
Advanced glycation end products (AGEs) is the end-product of non-enzymatic glycation, under the condition without enzyme, the glucose molecule free aldehyde of open chain or ketone group and gal4 amino acid residue side chain epsilon-amino or aminoterminal alpha-amido are by affine combination, generate rapidly aldimine (aldimine), be Schiff alkali, this is a unsettled intermediate product.Unsettled Schiff base reaches balance in vivo very soon, subsequently, can slowly there is molecular structure chemical rearrangement in Schiff base, form more stable but still be reversible sugar-protein ketoamine bond, this kind of alkaline product is more stable, and the invertibity of reaction lowers greatly, through rearranging, form the more stable 1-amino-1-deoxidation-D-ketose (1-amino-1-deoxy-D-ketose) of character, i.e. Amadori product, this commitment that is glycosylation.Amadori product or Amadori product are through the reactive carbonyls of multiple height of multistep dehydration and molecular rearrangement generation, as 3-deoxyfructose, glyoxal, methyl-glyoxal etc., further react with other free amine groups, finally form the AGEs of irreversibility, this is the late stage of glycosylation.AGEs is the general name of the material of many different structures, now known as CML, CEL, Pentosidine, Pyrraline, crossline etc.Researcher thinks that AGEs is the sign that protein is aging at first, so that in body, identification is degraded, remove aging protein.Along with to the deep discovery of AGEs research, it is not only relevant with adorned macromolecular degraded, AGEs and its acceptor interaction, can activate a plurality of signal transduction pathways, promote the synthetic of cytokine profiles and discharge, by mechanism such as injured blood vessel endothelium, promotion leukocyte, increase platelet aggregation and stimulation vascular smooth muscle cell proliferations, promote generation and the development of the chronic complicating diseases of diabetes such as atherosclerotic, diabetic vascular complications, uremia.Advanced glycation end products is not only relevant with diabetic complication, it also can cause the connection of iuntercellular molecule, cause the irreversible abnormal change of extracellular matrix protein, the albumen that AGEs modifies is by stimulating body to produce cell factor and oxygen radical with the special receptors bind of AGEs, the AGEs while is the interior albumen of modified cells also, cause protein function abnormal, cause eventually the pathology of connective tissue, crystalline lens, blood vessel and nerve etc.
In requiring for HFCS physics and chemistry in the production GB of HFCS, only there is solid content, glucose, fructose content, pH, colourity, insoluble particulates, sulfated ass, these requirements of transmittance, do not have the relevant regulations about active carbonyl compound content.Due to active carbonyl compound extensive use in food production to the potential toxic action of human body and HFCS, thereby be necessary for the research of how to remove active carbonyl compound.
Summary of the invention
The object of the invention is to, a kind of method of removing active carbonyl compound in HFCS is provided.By pending HFCS sample is contacted with removing molecule, under 30 ℃ of-40 ℃ of conditions, react, thus the content of active carbonyl compound in minimizing sample.
In order to achieve the above object, the technical solution used in the present invention is:
A method of removing active carbonyl compound in HFCS, comprises the steps:
In HFCS, add clearing factor, after fully mixing, under 30-40 ℃ of condition, mix, reaction 1-4 hour, the consumption of clearing factor is 0.1 ‰~5% of HFCS quality.
The interpolation time of described clearing factor is in HFCS process of manufacture or take in the process of manufacture that HFCS is raw material.
Described clearing factor is vitamin C, sodium dithionite, at least one in disodium ethylene diamine tetraacetate, theaflavin, Tea Polyphenols, sodium sulfite, phytic acid, sodium ascorbate, Calcium Ascorbate, D-araboascorbic acid or D-araboascorbic acid sodium salt.
Described ascorbic final concentration scope is 0.1mg/mL~0.8mg/mL.
The final concentration scope of described sodium dithionite is 50mg/mL~100mg/mL.
The final concentration scope of described disodium ethylene diamine tetraacetate is 50mg/mL~150mg/mL.
The final concentration scope of described theaflavin is 1mg/mL~10mg/mL.
The final concentration scope of described Tea Polyphenols is 1mg/mL~6mg/mL.
The final concentration scope of described sodium sulfite is 50mg/mL~150mg/mL.
The final concentration scope of described phytic acid is 0.05mg/mL~0.15mg/mL.
The final concentration scope of described sodium ascorbate is 0.3mg/mL~0.8mg/mL.
The final concentration scope of described Calcium Ascorbate is 0.2mg/mL~0.7mg/mL.
The final concentration scope of described D-araboascorbic acid is 1mg/mL~4mg/mL.
The final concentration scope of described D-araboascorbic acid sodium salt is 2mg/mL~5mg/mL.
Beneficial effect:
Thereby 1, realized a kind of HFCS is reacted at 30 ℃-40 ℃ with clearing factor enough time effectively remove HFCS in the method for active carbonyl compound.Because these clearing factors are non-oxidizability food additives, under 30 ℃ of-40 ℃ of reaction conditions, can effectively remove the active carbonyl compound in HFCS, there is operation simple, the advantage that active carbonyl compound clearance is high.
2, the clearance of active carbonyl compound, because of the removing molecular species of use and the difference of active carbonyl compound kind difference, reaches as high as more than 60%.
3, this invention is applicable in HFCS process of manufacture, or take HFCS among raw material process of manufacture.
Accompanying drawing explanation:
Fig. 1 is active carbonyl compound content chromatogram in blank HFCS
Fig. 2 is active carbonyl compound content chromatogram partial enlarged drawing in blank HFCS
Fig. 3 is vitamin C effect active carbonyl compound content chromatogram in HFCS after three hours
Fig. 4 is sodium dithionite effect active carbonyl compound content chromatogram in HFCS after a hour
Fig. 5 is theaflavin effect active carbonyl compound content chromatogram in HFCS after three hours.
The specific embodiment
Below by specific embodiment, the invention will be further described, and following examples are descriptive, is not determinate, can not limit protection scope of the present invention with this.
Embodiment 1: the removal of vitamin C to active carbonyl compound in HFCS
Measure HFCS (55% fructose, 42% glucose) 1L(and be about 1.25kg), adding final concentration is that the vitamin C of 0.2mg/mL is placed in reaction vessel and fully mixes, and is placed on 30 ℃ of constant temperature, under 80rpm condition, reacts.The HFCS sample after 1mL processes is got in reaction after 3h, in 1/1(v/v) ratio to add concentration be 0.1%(w/v) o-phenylenediamine solution, 60 ℃ of water-bath lucifuges derive 30min.After derivatization reaction, cross film and carry out HPLC analysis.Not add ascorbic HFCS sample to contrast.Chromatographic condition is: chromatographic column: Agilent ZORBAX SB-C18 post (5 μ m, 4.6 * 250mm); Mobile phase is: A:0.15%(v/v) acetic acid aqueous solution-B: methyl alcohol, adopts gradient elution; Column temperature: 25 ℃; Flow velocity: 0.7mL/min; Wavelength: 313nm; Sample size is 20 μ L, carries out chromatography, records chromatogram (Fig. 1,2,3).Gradient elution program is as table one.
Table one: gradient elution program
Time(min) A(%) B(%)
0 92 8
10 70 30
20 30 70
30 100 0
40 92 8
The content of active carbonyl compound is as shown in table two, three:
Table two: active carbonyl compound content in blank HFCS
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
365 237.50 86625
Table three: active carbonyl compound content in HFCS after vitamin C effect 3h
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
nd nd 24861.40
Calculate after vitamin C and HFCS effect 3h, the clearance of active carbonyl compound is: the clearance of 3-deoxyfructose: 71.30%; The clearance of glyoxal and methyl-glyoxal is: 100%.
Embodiment 2: the removal of sodium dithionite to active carbonyl compound in HFCS
Measure HFCS (42% fructose, 55% glucose) 1L(and be about 1.25kg) to add final concentration be the sodium dithionite of 56mg/mL, and be placed on 37 ℃ of constant temperature, under 80rpm condition, react.The HFCS sample after 1mL processes is got in reaction after 1h, in 1/1(v/v) ratio to add concentration be 0.1%(w/v) o-phenylenediamine solution, 60 ℃ of water-baths derive 30min.After derivatization reaction, cross film and carry out HPLC analysis.Not add the HFCS sample of sodium dithionite to contrast.Liquid phase testing conditions is with embodiment 1, and it is Fig. 1 that liquid phase detects figure, and 2,4.Result is as shown in table four, five.
Table four: active carbonyl compound content in blank HFCS
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
365 237.50 86625
Table five: active carbonyl compound content in HFCS after sodium dithionite effect 1h
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
1.46 44.18 28499.60
Calculate after sodium dithionite and HFCS effect 1h, the clearance of active carbonyl compound is: 3-deoxyfructose clearance: 67.10%; The clearance of glyoxal: 99.60%; The clearance of methyl-glyoxal is: 81.40%.
Embodiment 3: the removal of theaflavin to active carbonyl compound in HFCS
Measure HFCS (55% fructose, 42% glucose) 2L(and be about 2.5kg) be placed in reaction vessel, adding final concentration is that the theaflavin of 1.4mg/mL fully mixes and is placed on 40 ℃ of constant temperature, under 100rpm condition, reacts.The HFCS sample after 1mL processes is got in reaction after 3h, in 1/1(v/v) ratio to add concentration be 0.1%(w/v) o-phenylenediamine solution, 60 ℃ of water-baths derive 30min.After derivatization reaction, cross film and carry out HPLC analysis.Not add the HFCS sample of theaflavin to contrast.Liquid phase testing conditions is with embodiment 1, and it is Fig. 1 that liquid phase detects figure, and 2,5.Result is as shown in table six, seven.
Table six: active carbonyl compound content in blank HFCS
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
737 473 173250
Table seven: active carbonyl compound content in HFCS after theaflavin effect 3h
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
nd nd 143624.25
Calculate after theaflavin and HFCS effect 3h, the clearance of active carbonyl compound is: the clearance of 3-deoxyfructose: 17.10%; The clearance of glyoxal: 100%; The clearance of methyl-glyoxal is: 100%.
Embodiment 4: vitamin C and theaflavin acting in conjunction are for active carbonyl compound in HFCS
Remove
Measure HFCS (42% fructose, 55% glucose) 1L(and be about 1.25kg) to add final concentration be the vitamin C of 0.2mg/mL and the theaflavin that final concentration is 1mg/mL, fully mixes and be placed on 37 ℃ of constant temperature in reaction vessel, under 80rpm condition, react.The HFCS sample after 1mL processes is got in reaction after 2h, in 1/1(v/v) ratio to add concentration be 0.1%(w/v) o-phenylenediamine solution, 60 ℃ of water-baths derive 30min.After derivatization reaction, cross film and carry out HPLC analysis.Not add the HFCS sample of vitamin C and theaflavin to contrast.Liquid phase testing conditions is with embodiment 1.Result is as shown in table eight, nine.
Table eight: active carbonyl compound content in blank HFCS
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
365 237.50 86625
Table nine: active carbonyl compound content in HFCS after vitamin C and theaflavin acting in conjunction
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
nd nd 4331.25
Calculate after the common and HFCS effect 2h of vitamin C and theaflavin, the clearance of active carbonyl compound is: the clearance of 3-deoxyfructose: 95%; The clearance of glyoxal and methyl-glyoxal is: 100%.
Embodiment 5: disodium ethylene diamine tetraacetate and vitamin C acting in conjunction are for the removal of active carbonyl compound in HFCS
Measure HFCS (42% fructose, 55% glucose) 1L(and be about 1.25kg) to add final concentration be that final concentration is the disodium ethylene diamine tetraacetate of 50mg/mL and the vitamin C of 0.1mg/mL, after fully mixing in reaction vessel, be placed in 30 ℃ of constant temperature, under 80rpm condition, react.The HFCS sample after 1mL processes is got in reaction after 1h, in 1/1(v/v) ratio to add concentration be 0.1%(w/v) o-phenylenediamine solution, 60 ℃ of water-baths derive 30min.After derivatization reaction, cross film and carry out HPLC analysis.Not add disodium ethylene diamine tetraacetate and ascorbic HFCS sample to contrast.Liquid phase testing conditions is with embodiment 1.Result is as shown in table ten, 11.
Table ten: active carbonyl compound content in blank HFCS
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
365 237.50 86625
Table ten one: active carbonyl compound content in HFCS after vitamin C and disodium ethylene diamine tetraacetate acting in conjunction
GO(μg/gHFCS) MGO(μg/gHFCS) 3-DOG(μg/gHFCS)
nd nd 17325
Calculate after the common and HFCS effect 1h of vitamin C and disodium ethylene diamine tetraacetate, the clearance of active carbonyl compound is: the clearance of 3-deoxyfructose: 80%; The clearance of glyoxal and methyl-glyoxal is: 100%.

Claims (9)

1. a method of removing active carbonyl compound in HFCS, is characterized in that, adds clearing factor in HFCS, after fully mixing, under 30-40 ℃ of condition, mix, reaction 1-4 hour, the consumption of clearing factor is 0.1 ‰~5% of HFCS quality.
2. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1, is characterized in that, the interpolation time of described clearing factor is in HFCS process of manufacture or take in the process of manufacture that HFCS is raw material.
3. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, it is characterized in that, described clearing factor is at least one in vitamin C, sodium dithionite, disodium ethylene diamine tetraacetate, theaflavin, Tea Polyphenols, sodium sulfite, phytic acid, sodium ascorbate, Calcium Ascorbate, D-araboascorbic acid or D-araboascorbic acid sodium salt.
4. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, is characterized in that, described ascorbic interpolation final concentration is 0.1mg/mL~0.8mg/mL; The interpolation final concentration of described sodium dithionite is 50mg/mL~100mg/mL; The interpolation final concentration of described disodium ethylene diamine tetraacetate is 50mg/mL~150mg/mL; The interpolation final concentration of described theaflavin is 1mg/mL~10mg/mL; The interpolation final concentration of described Tea Polyphenols is 1mg/mL~6mg/mL; The interpolation final concentration of described sodium sulfite is 50mg/mL~150mg/mL; The interpolation final concentration of described phytic acid is 0.05mg/mL~0.15mg/mL; The interpolation final concentration of described sodium ascorbate is 0.3mg/mL~0.8mg/mL; The interpolation final concentration of described Calcium Ascorbate is 0.2mg/mL~0.7mg/mL; The interpolation final concentration of described D-araboascorbic acid is 1mg/mL~4mg/mL; The interpolation final concentration of described D-araboascorbic acid sodium salt is 2mg/mL~5mg/mL.
5. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, is characterized in that, described clearing factor is vitamin C, and interpolation final concentration is 0.2mg/mL.
6. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, is characterized in that, described clearing factor is sodium dithionite, and interpolation final concentration is 56mg/mL.
7. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, is characterized in that, described clearing factor is theaflavin, and interpolation final concentration is 1.4mg/mL.
8. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, is characterized in that, described clearing factor is vitamin C and theaflavin, and final concentration is respectively 0.2mg/mL and 1mg/mL.
9. a kind of method of removing active carbonyl compound in HFCS as claimed in claim 1 or 2, is characterized in that, described clearing factor is disodium ethylene diamine tetraacetate and vitamin C, and final concentration is respectively 50mg/mL and 0.1mg/mL.
CN201310642428.1A 2013-12-02 2013-12-02 Method for removal of reactive carbonyl compounds in high fructose corn syrup (HFCS) Pending CN103734560A (en)

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Application publication date: 20140423