Characteristics of a hard cheese manufactured using high heat-treated sheep or mixed sheep-goat milk.


Опубликован: Jul 5, 2025
EC Pappa
E Kondyli
A-M Vlachou
E Malamou
Аннотация

The cheese-making conditions of hard cheeses produced from high heat treatment of sheep (S) milk or mixture of sheep-goat (SG) milk (50:50) from a mountainous area were studied. The cheeses were assessed for their composition, biochemical, textural and organoleptic characteristics during ripening and storage. The manufacturing technology included heating of milk at high temperature (90oC for 15 min), addition of starter culture at 45oC, clotting the milk with rennet, cutting and scalding-up at 47-48oC, pressing, salting in brine, ripening at 16-18oC for 30 days and storage up to 180 days. The cheese had a yellow crust, a compact texture and a pleasant flavour. The moisture of the cheeses (30-180 days), regardless of the type of milk used, ranged from 34.89% to 30.24% and the fat-in-dry matter (FDM) content was from 54.28% to 50.04%. The above results indicate that cheeses of the present study were classified as hard cheeses (referred as those with maximum moisture content 38%) of excellent quality (maximum moisture 35% and minimum FDM 47%), according to the Greek legislation. Generally, nitrogenous fractions and total free fatty acids content increased during ripening and storage, regardless of the type of milk used. In general, no differences were observed in the composition and the biochemical characteristics of S and SG (50:50). The cheeses manufactured using SG milk were harder (P<0.05) than S cheeses at 60 and 90 days of ripening and storage. The antioxidant activity of the cheeses ranged from 49.65 to 58.82 2,2-diphenyl-1 picrylhydrazyl % percentage of radical scavenging activity regardless of the type of milk used and the different sampling dates. High scores were obtained during the organoleptic evaluation, for both cheeses. In conclusion, using high heat treated milk and the present manufacturing technology an excellent quality hard cheese can be produced.

Article Details
  • Раздел
  • Research Articles
Скачивания
Данные скачивания пока недоступны.
Библиографические ссылки
Atasoy AF, Yetismeyen A, Turkoglu H, Ozer B (2008) Effects of heat
treatment and starter culture on the properties of traditional Urfa
cheeses (a white-brined Turkish cheese) produced from bovine milk.
Food Control 19: 278-285.
Banks JM (1988) Elimination of the development of bitter flavor in
Cheddar cheese made from milk containing heat-denatured whey
protein. J Soc Dairy Technol 41: 37-41.
Banks JM, Law AJR, Leaver J, Horne DS (1995) Maturation profiles
of Cheddar-type cheese produced from high heat treatment milk
to incorporate whey proteins. In: Malin EL & Tunick MH (Eds),
Chemistry of Structure-Function Relationships in Cheese, Plenum
Press, New York: pp. 1-36.
Benfeldt C, Sorensen J, Ellegard KH, Petersen TE (1997) Heat treatment
of cheese milk: Effect on plasmin activity and proteolysis during
cheese ripening. Int Dairy J 7: 723–731.
Bertola NC, Bevilacqua AE, Zaritzky NE (1992) Proteolytic and rheological
evaluation of maturation of Tybo Argentino cheese. J Dairy
Sci 75: 3273-3281.
Boukria O, El Hadrami EM, Boudalia S, Safarov J, Leriche F, Ait-Kaddour
A (2020) The effect of mixing milk of different species on
chemical, physicochemical, and sensory features of cheeses: A
Review. Foods 9: 1309.
Calvo MM, Leaver J, Law AJR, Banks JM (1992) Changes in casein
levels during the ripening of Cheddar type cheese made from overheated
milk. Milchwissenschaft 47: 516–518.
Christensen TMIE, Bech AM, Warner H (1991) Methods for crude
fractionation extraction and precipitation of nitrogen components
in cheese. Bull Int Dairy Fed 261: 4-9.
Creamer LK Olson NF (1982) Rheological evaluation of maturing
Cheddar cheese. J Food Sci 47: 632-636, 646.
da Silva V, Bezerra L, Alves B, Santos B, Lima A, Costa M (2020) Rheology
and texture applied to goat and sheep milk cheeses: principles,
applications and future trends. In: Avancos em Ciencia e Tecnologia
de Alimentos, Vol 2, Editora Científica Digital: pp. 409-436.
Deeth HC, Fitz-Gerald P (1976) Lipolysis in dairy products: A review.
Aust J Dairy Technol 31: 53–64.
Faccia M, Gambacorta G, Caponio F, Pati S, Di Luccia A. (2007) Influence
of type of milk and ripening time on proteolysis and lipolysis
in a cheese made from overheated milk. Int J Food Sci Technol
: 427–433.
Faccia M, Gambacorta G, Pasqualone A, Summo C, Caponio F (2021)
Quality characteristics and consumer acceptance of high-moisture
Mozzarella obtained from heat-treated goat milk. Foods 10: 833.
FAOSTAT (2021) Food Agricultural Organization. Crops and Livestock
Products. Available online: https://www.fao.org/faostat/en/#data/
QCL (accessed on 24 August 2024).
Fardet A, Rock E (2018) In vitro and in vivo antioxidant potential of
milks, yoghurts, fermented milks and cheeses: a narrative review
of evidence. Nutr Res Rev 31: 52–70.
Fox PF, McSweeney PLH (2017) Cheese: An overview. In McSweeney
PLH, Fox PF, Cotter PD, Everett DW (Eds), Cheese: chemistry,
physics and microbiology, 4th edition, Academic Press, London:
pp. 1-23.
Freitas AC, Fresno JM, Pietro B, Malcata FX, Carballo J (1997) Effects
of ripening time and combination of ovine and caprine milks on
proteolysis of Picante cheese. Food Chem 60: 219-229.
Ghosh BC, Steffl A, Hinrichs J, Kessler HG (1999) Effect of heat treatment
and homogenization of milk on camembert-type cheese. Egypt
J Dairy Sci 27: 331–343.
Greek Codex Alimentarius (2009) Official Journal of the Hellenic Republic.
In: Vol B, Article 83, Section A, National Printing Office
Athens.
Guinee TP, Fenelon MA, Mulholland EO, O’ Kennedy BT, O’ Brien N,
Reville WJ (1998) The influence of milk pasteurization temperature
and pH at curd milling on the composition, texture and maturation
of reduced fat cheddar cheese. Int J Dairy Technol 51: 1–10.
Guinee TP (2021) Effect of high-temperature treatment of milk and
whey protein denaturation on the properties of rennet-curd cheese:
a review. Int Dairy J 121: 105095.
Gupta A, Mann B, Kumar R, Sangwan RB (2009) Antioxidant activity
of Cheddar cheeses at different stages of ripening. Int J Dairy
Technol 62: 339-347.
Guyomarch F (2006) Formation of heat-induced protein aggregates
in milk as a means to recover the whey protein fraction in cheese
manufacture and potential of heat-treating milk at alkaline pH values
in order to keep its rennet coagulation properties. A review.
Lait 86: 1-20.
Hinrichs J (2001) Incorporation of whey proteins in cheese. Int Dairy
J 11: 495-503.
IDF (1964) Determination of Ash in Cheese and Processed Cheese. IDF
Standard 27, International Dairy Federation, Brussels, Belgium.
IDF (1982) Cheese and processed cheese. Determination of the total
solids content. IDF Standard 4A. International Dairy Federation,
Brussels, Belgium.
IDF (2008) Milk and Milk Products—Methods of Sampling. International
Organization for Standardization No. ISO 707 | International Dairy
Federation 50, Brussels, Belgium.
IDF (2023) Milk and milk products — Sensory analysis. International
Organization for Standardization No. ISO 22935 | International
Dairy Federation 99, Brussels, Belgium.
IDF (1993) Milk Determination of Nitrogen Content. IDF Standard 20B,
International Dairy Federation, Brussels, Belgium.
Iruoayaraj J, Chen M, Mc Mahon O (1999) Texture development in
Cheddar cheese during ripening. Can Agric Eng 41: 253-258.
Kaminarides S, Aktypis A, Koronios G, Massouras Th, Papanikolaou S
(2018) Effect of ‘in situ’ produced bacteriocin thermophilin T on the
microbiological and physicochemical characteristics of Myzithra
whey cheese. Int J Dairy Technol 71: 213-222.
Kaminarides S, Ilias-Dimopoulos E, Zoidou E Moatsou G (2015) The
effect of addition of skimmed milk on the characteristics of Myzithra
cheeses. Food Chem 180: 164-170.
Kaminarides S, Scordobeki A, Zoidou E, Moatsou G (2019) Biochemical
characteristics of reduced-fat cheese made from high-heat treated
goat’s milk supplemented with Penicillium candidum. J Hellenic
Vet Med Soc 70: 1669-1678.
Kaminarides S, Zagari H, Zoidou E (2020) Effect of whey fat content
on the properties and yields of whey cheese and serum. J Hellenic
Vet Med Soc 71: 2149-2156.
Kandarakis I (1986) Traditional whey cheeses. Bul Int Dairy Fed 202:
-122.
Kelly AL, Huppertz T, Sheehan JJ (2008) Pre-treatment of cheese milk:
principles and developments. Dairy Sci Technol 88: 549–572.
Khan IT, Nadeem M, Imran M, Ullah R, Ajmal M, Jaspal MH (2019)
Antioxidant properties of milk and dairy products: a comprehensive
review of the current knowledge. Lipids Health Dis 18: 41.
Kosikowski FV (1982) Cheese and fermented milk food. Edwards
Brothers, Michigan.
Kuchroo CN, Fox PF (1982) Soluble nitrogen in Cheddar cheese.
Comparison of the extraction procedures. Milchwissenschaft 37:
–335.
Lepesioti S, Zoidou E, Lioliou D, Moschopoulou E, Moatsou G (2021)
Quark-type cheese: Effect of fat content, homogenization and heat
treatment of cheese milk. Foods 10: 184.
Lucey J A, Johnson ME, Horne DS (2003) Perspectives on the basis
of the rheology and texture properties of cheese. J Dairy Sci 86:
-2743.
Maldonado R, Melendez B, Arispe I, Boeneke C, Torrico D, Prinyawiwatkul
W (2013) Effect of pH on technological parameters and
physicochemical and texture characteristics of the pasta filata cheese
Telita. J Dairy Sci 96: 414–7426.
Mallatou H, Pappa EC (2005) Comparison of the characteristics of
teleme cheese made from ewe’s, goat’s and cow’s milk or a mixture
of ewe’s and goat’s milk. Int J Dairy Techno 80: 158-163.
Mallatou H, Pappa EC, Boumba VA (2004) Proteolysis in Teleme cheese
made from ewes’, goats’ or a mixture of ewes’ and goats’ milk. Int
Dairy J 14: 977-987.
Mallatou H, Pappa EC, Masouras T (2003) Changes in free fatty acids
during ripening of Teleme cheese made with ewes’, goats’, cows’
or a mixture of ewes’ and goats’ milk. Int Dairy J 13: 211-219.
Mallatou H, Pappas CP, Voutsinas LP (1994) Manufacture of feta cheese from sheep’s milk, goats’ milk or mixtures of these milks. Int Dairy
J 4: 641–664.
Marshall RJ (1986) Increasing cheese yields by high heat treatment of
milk. J Dairy Res 53: 313-322.
Masotii F, Cattaneo S, Stuknyte M, De Noni I (2017) Technological
tools to include whey properties in cheese: Current status and perspectives.
Trends Food Sci Technol 64: 102-114.
McSweeney PLH (2004) Biochemistry of cheese ripening. Int J Dairy
Technol 57:127-144.
McSweeney PLH, Fox PF (1997) Indices of Cheddar ripening. In: Cogan
M, Fox PF, Ross RP (Eds), Proceedings of the 5th cheese symposium,
Published by Teagasc, Dublin.
Meira SMM, Daroit DJ, Helfer VE, Correa APF, Segalin J, Carro S, et al.
(2012) Bioactive peptides in water-soluble extracts of ovine cheeses
from Southern Brazil and Uruguay. Int Food Res J 48: 322-329.
Miloradovic Z, Kljajevic N, Miocinovic J, Tomic N, Smiljanic J, Macej
O (2017) High heat treatment of goat cheese milk. The effect on
yield, composition, proteolysis, texture and sensory quality of
cheese during ripening. Int Dairy J 68: 1-8.
Miloradovic Z, Miocinovic J, Kljajevic N, Tomasevic I, Pudja P (2018)
The influence of milk heat treatment on composition, texture, colour
and sensory characteristics of cows’ and goats’ Quark-type cheeses.
Small Rumin Res 169: 154–159.
Miloradovic Z, Tomic N, Kljajevic N, Levic S, Pavlovic V, Blazic M,
Miocinovic J (2021) High heat treatment of goat cheese milk. The
effect on sensory profile, consumer acceptance and microstructure
of cheese. Foods 20: 1116.
Moatsou G, Zoidou E, Choundala E, Koutsaris K, Kopsia O, Thergiaki
K, Sakkas L (2019) Development of reduced-fat, reduced sodium
semi-hard sheep milk cheese. Foods 8: 204.
O’ Callaghan DJ, Guinee TP (2004) Rheology and texture of cheese. In:
Fox PF, McSweeney LPH, Cogan TM, Guinee TP (Eds), Cheese:
chemistry, physics and microbiology, Vol.1 Elsevier, London: pp
-541.
O’Keeffe AM, Fox PF, Daly C (1978) Proteolysis in Cheddar cheese:
role of coagulant and starter bacteria. J Dairy Re 36: 65-76.
Pappa EC, Kandarakis I, Anifantakis EM, Zerfiridis GK (2006) Influence
of types of milk and culture on the manufacturing practices:
composition and sensory characteristics of Teleme cheese during
ripening. Food Control 17: 570–581.
Park YW, Juarez M, Ramos M, Haenlein GFW (2007) Physico-chemical
characteristics of goat and sheep milk. Small Rumin Res 68: 88–113.
Revilla I, Gonzalez-Martin MI, Vivar-Quintana AM, Blanco-Lopez
MA, Lobos-Ortega IA, Hernandez-Hierro JM (2016) Antioxidant
capacity of different cheeses: Affecting factors and prediction by
near infrared spectroscopy. J Dairy Sci 99: 5074–5082.
Rinaldi S, Palocci G, Conto M, Di Giovanni S, Tripaldi C (2023) Chemical
characteristics, oxidation and proteolysis in cheese produced
from fresh or stored milk subjected to heat treatments. Int J Dairy
Technol 76: 638-649.
Rynne NM, Beresford TP, Kelly AL, Guinee TP (2004) Effect of milk
pasteurization temperature and in situ whey protein denaturation on
the composition, texture and heat-induced functionality of half-fat
Cheddar cheese. Int Dairy J 14: 989-1001.
Sakkas L, Moschopoulou E, Moatsou G (2023) Influence of salting and
ripening conditions on the characteristics of a reduced-fat, semihard,
sheep milk cheese. Foods 12: 4501.
Schneider C (1954) Traite pratique des essais du lait et du controle des
produits laitiers. Berne, Switzerland: Gerber.
Singh H, Waungana A (2001) Influence of heat treatment of milk on
cheesemaking properties. Int Dairy J 11: 543-551.
Stadhouders J (1960). The hydrolysis of proteins during the ripening of
Dutch cheese. The enzymes and the bacteria involved. Neth Milk
Dairy J 2: 67–76.
Stobiecka M, Krol J, Brodziak A (2022). Antioxidant activity of milk
and dairy products. Animals 12: 245.
Tsigkros D, Folland E, Moate R, Brennan CS (2003) Feta cheese texture:
the effect of caprine and ovine milk concentration. Int J Dairy
Technol 56: 233-236.
Vaziri M, Abbasi H, Mortazavi A (2010) Microstructure and physical
properties of Quark cheese as affected by different heat treatments.
J Food Process Preserv 34: 2-14.
Vlaemynck G (1992) Study of lipolytic activity of the lipoprotein lipase
in lunch cheese of the Gouda type. Milchwissenschaft 47: 164-166.
Наиболее читаемые статьи этого автора (авторов)