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Olson, D.W.;  Aryana, K.J. Yogurt with Incorporated Probiotics. Encyclopedia. Available online: https://encyclopedia.pub/entry/39005 (accessed on 29 April 2024).
Olson DW,  Aryana KJ. Yogurt with Incorporated Probiotics. Encyclopedia. Available at: https://encyclopedia.pub/entry/39005. Accessed April 29, 2024.
Olson, Douglas W., Kayanush J. Aryana. "Yogurt with Incorporated Probiotics" Encyclopedia, https://encyclopedia.pub/entry/39005 (accessed April 29, 2024).
Olson, D.W., & Aryana, K.J. (2022, December 20). Yogurt with Incorporated Probiotics. In Encyclopedia. https://encyclopedia.pub/entry/39005
Olson, Douglas W. and Kayanush J. Aryana. "Yogurt with Incorporated Probiotics." Encyclopedia. Web. 20 December, 2022.
Yogurt with Incorporated Probiotics
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This entry is adapted from the peer-reviewed paper 10.3390/app122412607

Probiotics are commonly added to yogurt to provide many health benefits for the consumer. A description is provided for some commonly used probiotics in yogurt. A GRAS (generally recognized as safe) list of probiotic bacteria that can be added to yogurt or similar types of products is provided. Additionally, prebiotics, synbiotics (combination of prebiotics and probiotics), postbiotics, paraprobiotics, and psychobiotics can be added to yogurt. Probiotic yogurt can come in various forms in addition to spoonable yogurt, and yogurt can be used as an ingredient in other food products. Many useful functional ingredients can be applied to probiotic yogurt. The safety of probiotics must be addressed, especially for critically ill patients and other susceptible populations.

probiotic fermented yogurt health

1. History of Discovery and Definitions of Probiotics

Experiments for studying effects of bacteria on treating health problems and promoting good health have been performed for a long time. Theodor Escherich has been credited as the first pediatric infectious disease physician and described Bacterium coli commune (now referred to as Escherichia coli) in 1886 [1]. While working under Theodor Escherich, Dr. Józef Brudziński treated infants for acute infectious diarrhea by using a Bacillus lactis aërogenes suspension described in publications from 1899 [2][3]. Although Élie Metchnikoff [4] believed that intestinal putrefaction can shorten life, he noted the work of Dr. Brudziński and similar work by Dr. Henry Tissier and recommended people “to absorb large quantities of microbes”. He believed that lactic bacteria can fight against intestinal putrefaction. He also wrote that Stamen Grigoroff observed many centenarians in Bulgaria, which is a region where yahourth (yogurt) was commonly consumed [4]. The fact that diet affects the types of bacteria that develops within the intestinal tract was first clearly established by Herter and Kendall in 1910, but suggested as early as 1886 by Escherich and Hirschler [5].
Many of the starter cultures and probiotics now used in yogurt making were first described in the late 1800s or early 1900s. The name “Streptococcos” was first used in 1874 by Albert Theodor Billroth [6]. Streptococcus thermophilus (later reclassified as Streptococcus salivarius subsp. thermophilus by Farrow and Collins in 1984 [7] but revived back to Streptococcus thermophilus by Schleifer et al. in 1991 [8]) was described by S. Orla-Jensen in 1919 [9]. In 1901, Martinus Beijerinck proposed the genus Lactobacillus to include Gram-positive, fermentative, facultatively anaerobic, non-sporeforming bacteria [10]. Stamen Grigoroff discovered Bulgarian bacillus (now Lactobacillus delbrueckii ssp. bulgaricus) in 1905 [11]. Lactobacillus acidophilus (originally called Bacillus acidophilus) was described by Ernst Moro in 1900 [12]. In 1899 and 1900, Henry Tissier first described Bacillus bifidus communis, later referred to as Lactobacillus bifidus and now referred to as Bifidobacterium [13]. He found that Bifidobacteria was the main type of bacteria comprising the gut microflora of breast-fed babies and Bifidobacteria could treat acute gastroenteritis [11].
Dr. Isaac Carosso recommended to his patients who suffered from gastrointestinal problems to consume yogurt. Afterwards, he started producing yogurt and founded the Danone Company in 1919 [11].
The term “probiotic” (meaning “for life”) originated in 1953 from Werner Kollath to mean “active substances that are essential for a healthy development of life” [14]. Lilly and Stillwell [15] used the term probiotic as “substances secreted by one organism which stimulate the growth of another” in 1965. Parker [16] described probiotics as “organisms and substances which contribute to intestinal microbial balance” in 1974. Fuller [17] defined probiotics as “A live microbial feed supplement which beneficially affects the host animal by improving its intestinal microbial balance” in 1989. A panel from the International Scientific Association for Probiotics and Prebiotics defined probiotic as “live microorganisms that, when administered in adequate amounts, confer a health benefit on the host” in 2014 [18].

2. Gut Microbiome, Inflammation, and Health Benefits Provided by Probiotics

The human gut microbiome (also known as microbiota or microflora) consists of bacteria (predominantly obligate anaerobes), archaea, fungi, and protists and functions by metabolizing nutrients (by converting indigestible carbohydrates into short-chain fatty acids) for the host, maintaining the gut mucosal barrier, modifying the immune system, inhibiting pathogens, and even affecting brain activities. Most of these bacteria belong to the Firmicutes and Bacteroidetes phyla with fewer bacteria belonging to Actinobacteria, Proteobacteria, Fusobacteria, and Verrucomicrobia phyla. Firmicutes bacteria are Gram-positive and are involved in short chain fatty acid synthesis and in hunger and satiety regulation [19]. Bacteroidetes bacteria are Gram-negative and are involved with enhancing immune reactions and inflammation. A loss of a balanced ratio between Firmicutes and Bacteroidetes leads to dysbiosis (lack of normal intestinal homeostasis), obesity (increased Firmicutes to Bacteroidetes ratio), inflammatory bowel disease (decreased Firmicutes to Bacteroidetes ratio), and other diseases [19]. The Firmicutes phylum includes Clostridium (95% of this phylum), Lactobacillus, Bacillus, Enterococcus, and Ruminicoccus genera, and the Bacteroidetes phylum consists of Bacteroides and Prevotella genera [20]. Although early studies estimated the microorganism population as more than 100 trillion and number of human cells as around 10 trillion, more recent estimates state a ratio of 1.3 bacteria cells to each human cell [21]. The microbiome produces a wide variety of metabolites and can account for some of the variation in plasma metabolites between individuals [22]. The composition of the gut microbiome and gut-derived metabolites are associated with the occurrence of a wide variety of chronic diseases [23]. In addition, the effect that diet and exercise have on cognition is affected by the gut microbiome [24]. Furthermore, the microbiota was found to affect social behavior in zebrafish during early neurodevelopment [25]. However, the gut microflora can be affected by various factors including consumption of fermented dairy products [26][27][28].
While acute (high-grade but short-term) inflammation is needed for healing, trigger removal, and tissue repair, systemic chronic (low-grade but persistent) inflammation can lead to a wide variety of adverse health conditions including metabolic syndrome (hypertension, hyperglycemia, and dyslipidemia), type 2 diabetes, nonalcoholic fatty liver disease, cardiovascular disease, chronic kidney disease, multiple cancer types, depression, neurodegenerative and autoimmune diseases, osteoporosis, and sarcopenia [29]. Probiotics, along with prebiotics, resistant starch, and resistant proteins, can decrease chronic low-grade inflammation by producing short-chain fatty acids (acetate, propionate, and butyrate), improving phagocytic activity, and reducing pro-inflammatory cytokine production to potentially promote healthy aging [30].
Probiotics provide many health benefits. Some of these health benefits provided by probiotics, postbiotics, and paraprobiotics (to be discussed later) with either mixed or strong evidence for effectiveness in clinical trials are summarized in Table 1 [31][32][33][34][35][36][37][38][39][40][41][42][43][44][45][46][47][48][49][50][51][52][53][54][55][56][57][58][59][60][61][62][63][64][65][66][67][68][69][70][71][72][73][74][75][76][77][78][79][80][81][82][83][84][85][86][87][88][89][90][91][92][93][94][95][96][97][98][99][100][101][102][103][104][105][106][107][108][109][110][111][112][113][114][115][116][117][118][119][120][121][122][123][124][125][126][127][128][129][130][131]. Because of the complexity involved in being consistent when evaluating the strength of the evidence for the effectiveness of probiotics in preventing or treating each of these adverse health conditions or providing the health benefits, no attempt was made for this evaluation. The efficacy of probiotics in controlling Crohn’s disease usually could not be shown [132]. More details about the health benefits provided by yogurt and probiotic fermented milks are provided by Sakandar and Zhang [133], and Hadjimbei et al. [134].
Table 1. Some health benefits for which probiotics, postbiotics, and paraprobiotics have shown a mixed to favorable result in an original study or in a meta-analysis. Due to the difficulty of being consistent involved in evaluating the strength of the evidence for the effectiveness of probiotics in preventing or treating each of these health conditions, no attempt was made for the evaluation of effectiveness for the probiotics listed in this table.
Health Condition Probiotic Original Article or Review Paper Reference
Periodontal disease   Review [31]
Bacterial tonsillitis Streptococcus salivarius BIO5 Original [135]
Anti-inflammatory and antibiofilm activities against oral pathogens Enterococcus faecalis M157 in fermented whey Original [32]
Lactose intolerance   Review [33]
Galactosemia Galactose positive S. thermophilus NCDC 659 (AJM), 660 (JMI), and 661 (KM3) Original [34]
Short-chain fatty acid production VSL#3 1 Original [35]
Vitamin production   Review [36]
Gamma-aminobutyric acid production L. plantarum K16 Original [37]
Protection against foodborne illness   Review [38]
Colonization of Campylobacter L. plantarum LPS Original [39]
Anti-listerial activity Postbiotics of L. acidophilus LA5, L. casei 431, and L. salivarius Ls-BU2 Original [40]
Antimicrobial therapy   Review [41]
Gut microbiome development in very preterm infants Either B. bifidum and L. acidophilus or B. bifidum and B. longum subsp. infantis and L. acidophilus Original [42]
Healthy microbiome B. subtilis DE111 Original [43]
Restoration of microbiome after antibiotic treatment L. acidophilus and B. bifidum Original [44]
Improve microbiome in cirrhosis patients Multispecies probiotics Original [45]
Modulate gut microbiota and reduce exposure to uremic toxins in hemodialysis patients Bifico (B. longum NQ1501, L. acidophilus YIT2004, and E. faecalis YIT0072) Original [46]
Gut bacterial diversity Bacillus coagulans GBI-30 6086 Original [47]
Leaky gut Probiotic cocktail of 5 Lactobacilli and 5 Enterococci strains Original [48]
Improve Gut Epithelial Barrier S. thermophilus BGKMJ1-36 and L. bulgaricus BGVLJ1-21 Original [49]
Antioxidative activity   Review [50]
Antioxidant activity and intestinal permeability in cancer carcinogenesis VSL#3 1 Original [51]
Oxidative and inflammatory stress reduction L. plantarum S1 (viable and heat-killed cells and metabolites) from fermented whey Original [52]
Immunity   Review [53]
Exopolysaccharide production for immunomodulatory, antimicrobial, antioxidant, and anticancer activities Lactobacillus Review [54]
Highly symptomatic celiac disease Bifidobacterium infantis NLS super strain Original [55]
Viral infections Various probiotics and paraprobiotics Review [56]
Possible inhibition of HIV transmission and replication Engineered L. rhamnosus GG and GR-1 Original [57]
Diarrhea in HIV/AIDS patients Probiotic yogurt with L. rhamnosus GR-1 and L. reuteri RC-14 Original [58]
Antibiotic-associated diarrhea B. animalis subsp. lactis XLTG11 Original [59]
Chemotherapy-induced diarrhea in lung cancer patients Clostridium butyricum Original [60]
Enteral-tube-feeding diarrhea 2   Review [61]
Childhood rotavirus infections   Review [62]
Acute pediatric diarrhea   Review [63]
Travelers diarrhea Lactobacillus GG Original [64]
  L. acidophilus and B. bifidum Original [65]
Clostridioides difficile diarrhea L. rhamnosus GG Original [66]
Helicobacter pylori infection Limosilactobacillus fermentum UCO-979C Original [67]
Constipation L. acidophilus LA11-Onlly, L. rhamnosus LR22, L. reuteri LE16, L. plantarum LP-Onlly, and B. animalis subsp. lactis BI516 Original [68]
  L. rhamnosus LR-168, L. acidophilus LA-99, and B. animalis BB-115 Original [69]
Irritable bowel syndrome   Review [70]
Necrotizing enterocolitis B. longum subsp. infantis Original [71]
Ulcerative colitis   Review [72]
    Review [73]
Hospital stay for acute pancreatitis   Review [74]
Colorectal cancer   Review [75]
Gastrointestinal cancer   Review [76]
Liver and breast cancer Streptococcus salivarius BP8, BP156, and BP160 Original [77]
Breast cancer   Review [78][79]
Prostate cancer Whey beverages with L. acidophilus La-05, L. acidophilus La-03, L. casei-01, and B. animalis Bb-12 Original [80]
Cervical cancer   Review [81]
Polycystic ovary syndrome   Review [82]
Vaginosis Lactobacillus Original [83]
Antimicrobial activity (hydrogen peroxide, bacteriocins, and lactic acid production) for vaginal health Lactobacillus crispatus Review [84]
Inhibit sperm activity Lactobacillus crispatus Original [85]
Male fertility disorders   Review [86]
Bladder cancer   Review [87]
Bladder diseases (bladder cancer, interstitial cystitis, and overactive bladder)   Review [88]
Reduce exposure to uremic toxins in hemodialysis patients Bifico (B. longum NQ1501, L. acidophilus YIT2004, and E. faecalis YIT0072) Original [46]
Pediatric urinary tract infection recurrence L. acidophilus, L. rhamnosus, B. bifidum, and B. lactis Original [89]
Urinary excretion of oxalate (risk factor for renal stones) L. acidophilus, L. brevis, L. plantarum, B. infantis, and S. thermophilus Original [90]
Idiopathic nephrotic syndrome Clostridium butyricum Original [91]
Lung metastasis of melanoma cells VSL#3 1 Original [35]
Respiratory tract infection   Review [92]
Influenza A virus L. mucosae 1025 and B. breve CCFM1026 Original [93]
COVID-19 Probiotics and their metabolites Review [94]
Ventilator-associated pneumonia in critically ill patients   Review [95]
Allergic rhinitis Bifidobacterium mixture Review [96]
Respiratory allergy Commercial probiotic fermented milk Original [97]
Asthma L. paracasei K47 Original [98]
Cystic fibrosis   Review [99]
Atopic dermatitis   Review [100]
Skin disorders (atopic dermatitis, psoriasis, rosacea, and acne vulgaris)   Review [101]
Skin health L. reuteri ATCC 6475 Original [102]
Dry eye L. plantarum NK151 and B. bifidum NK175 Original [103]
Vernal keratoconjunctivitis L. acidophilus eye drops Original [104]
Rheumatoid arthritis 2   Review [105][106]
Recovery from bone fractures L. casei Shirota Original [107]
Pain relief after rib fracture L. casei Shirota Original [108]
Mineral absorption and bone health L. rhamnosus HN001 Original [109]
Calcium absorption L. rhamnosus GG * Original [110]
Iron absorption   Review [111]
Blood lipids B. subtilis DE111   [112]
Fasting glucose and insulin levels   Review [113]
Diabetes (blood pressure, fasting blood sugar, cholesterol, triglyceride, hemoglobin A1c, high sensitive C-reactive protein) Probiotic yogurt Original [114]
Serum triglyceride and glucose Bacillus coagulans GBI-30 6086 Original [47]
Atherosclerosis (lesion formation, dyslipidemia, endothelial dysfunction, inflammation, hypertension and hyperglycemia, and TMAO (trimethylamine N-oxide))   Review [115]
Infantile colic B. breve CECT7263 Original [116]
Obesity L. reuteri ATCC 6475 Original [117]
    Review [118]
Liver fibrosis L. paracasei, L. casei, and Weissella confusa Original [119]
Non-alcoholic fatty liver disease   Review [120]
Hyperuricemia   Review [121]
Phenylketonuria Genetically engineered probiotics Review [122]
Exercise performance and decrease fatigue L. salivarius subsp. salicinius SA-03 Original [123]
Sleep   Review [124]
Depression and anxiety   Review [125]
Anxiety   Original [126]
Serotonin biosynthesis from tryptophan L. plantarum LRCC5314 Original [127]
Mood   Original [128]
Memory and learning L. paracasei ssp. paracasei BCRC 12188, L. plantarum BCRC 12251, and S. thermophilus BCRC 13869 Original [129]
Age related dementia   Review [130]
Autism   Review [131]
1 VSL#3 includes B. breve, B. infantis, B. longum, L. acidophilus, L. bulgaricus, L. casei, L. plantarum, and S. thermophilus. 2 Mixed results. * Inulin was also included in the treatment which may have contributed to the favorable results.
Different strains of bacteria provide their health benefits by different mechanisms [136], and knowledge of these mechanisms can help in probiotic selection and modification for effectively treating disease. Four main mechanisms by which probiotics confer health benefits include potential pathogen interference, barrier function improvement, immunomodulation, and neurotransmitter production [137]. Pathogen interference mechanisms include production of antimicrobial compounds including bacteriocins and defensins, competition with pathogens, inhibition of adherence of pathogens, and luminal pH reduction [136]. Probiotics such as L. rhamnosus can be bioengineered for an alternative method for pathogen inhibition within the field known as pathobiotechnology [138].
Gut microbiomes vary from person to person [20]. Individuals vary in the ability of which consumed probiotics, such as in a fermented milk product, are able to modify the composition of the autochthonous gut microflora, suggesting that a tailored diet may be needed for individuals that are on a beneficial microbial based therapy and have a resistant gut microbiota [139]. Veiga et al. [140] predicts that many people will have their genome sequenced in the future that will allow them to tailor specific probiotics (referred to as precision probiotics) to their unique human-microbiome symbiosis to optimize their microbiome-centered nutrition and preventative health care. Perhaps in the future, yogurt could be a carrier for these precision probiotics.

3. Use of Probiotic Yogurt as an Ingredient

Probiotic yogurt can be used as an ingredient in the production of other products. Bite sized refrigerated yogurt that can be eaten using fingers can be prepared by coating frozen yogurt portions (possibly containing probiotics) with two layers of fat-based coating [141]. The second layer of this fat coating is applied before allowing the frozen yogurt to thaw, and this second layer may contain particulate inclusions [141]. A snack bar coated with a yogurt containing probiotics (L. acidophilus or B. lactis or both) and incorporating waxy grains held together by an inulin binder has been patented [142]. A shelf-stable fruit snack that contains an outer layer that could consist of yogurt containing probiotic cultures has been patented [143]. Gutknecht and Ovitt [144] patented low-fat yogurt cheese consisting of 15% to 75% cream cheese, 10% to 40% yogurt incorporating L. acidophilus, Bifidobacterium, or L. paracasei subsp. casei in addition to yogurt starter cultures, and 15% to 45% milk protein. Freeze dried yogurt that may contain probiotic cultures is an ingredient in a dry mix food product that also contains other food ingredients (whole grain, fruits, nuts, granola, etc.), and this dry mix can be hydrated to form a thick texture similar to yogurt within 3 min [145]. A shelf-stable light and crunchy yogurt crisp, a snack food, is made from a viscoelastic dough that contains dehydrated yogurt and may contain probiotics, either in the spore form or microencapsulated form [146].

4. Useful Functional Ingredients in Probiotic Yogurt

Many ingredients have successfully been added to probiotic yogurt. Some of these useful functional ingredients are listed in Table 2. These functional ingredients include grains, seeds, flours, fibers, fruits, vegetables, a berry, a nut, juices, spices, essential oils, bee products, and a cyanobacterium.
Table 2. Some of the useful functional ingredients that have been incorporated into probiotic yogurt including their concentration and effect on the properties of the resulting yogurt.
Functional Ingredient Category and Ingredient within category. Concentration Effect on Properties Ref.
Grain, seed, and flour      
Aqueous fennel extract 2, 4, and 6% Reconstituting whole milk powder into aqueous fennel extract to manufacture probiotic yogurt resulted in a product with increased phenolic content and antioxidant activity compared to fresh yogurt. [147]
Flaxseed 0–4% Flaxseed was successfully added to yogurt containing L. acidophilus ATCC 4356. This yogurt had increased L. acidophilus counts, viscosity, hardness, cohesiveness, gumminess, and water holding capacity but decreased syneresis and adhesiveness compared to their control yogurt. [148]
Sesame seeds 6% Incorporation of roasted sesame into stirred yogurt improveds probiotic viability, sensory properties, and antioxidant properties. [149]
Psyllium husk (Native and acid-modified psyllium husk) 0.5 g per liter of buffalo milk Incorporation of psyllium husk into frozen yogurt containing the encapsulated probiotics L. acidophilus and L. plantarum formed a product with high consumer acceptability. [150]
Oat β-glucan 0.15% β-glucan and EPS-producing B. bifidum increased viscosity and water holding capacity but decreased syneresis. [151]
Wheat bran 4% Incorporation of wheat bran significantly increased total bacterial counts and titratable acidity. [152]
Resisant starch (RS2 and RS3) 1 1.5% This yogurt was made from reconstituted skim milk. RS2 increased serum held within gel network. RS3 protected B. animalis subsp. lactis BB-12, increased viscosity, and decreased titratable acidity. [153]
Chickpea flour 0, 1, 2.5, and 5% Fortification of chickpea flour into probiotic yogurt resulted in improved water holding capacity and decreased syneresis for the resulting yogurt. [154]
Fiber Ingredient      
Inulin of varying chain lengths 2 1.5% P95 lowered the pH but maintained similar flavor scores compared to the control. HP decreased syneresis and improved body and texture compared to the control. [155]
Orange fiber 0.5, 1, 1.5, and 2% Incorporating orange fiber into yogurt containing L. acidophilus LA-5 and Bifidobacterium animalis subsp. lactis BB-12 improved antioxidant activity and angiotensin converting enzyme (ACE)–inhibitory activity. [156]
Lemon and orange fibers 3 g to 200 mL The enriched fermented milk had good sensory acceptability. L. acidophilus and L. casei had better survival than B. bifidum. [157]
Wolfberry dietary fiber (goji berry) 0.5–5% Yogurt containing 2% (w/v) wolfberry dietary fiber had less syneresis, higher apparent viscosity, and increased hardness compared to control yogurt. [158]
Fruit or fruit ingredient and vegetable      
Fruit purees (peach, apple, and pear) 10 and 20% Peach and apples were the most suitable fruits for probiotic yogurt. [159]
Dragon fruit 12% The optimal formulation was 12% dragon fruit, 11% sugar, and 2% L. plantarum. Fermentation time was 19 h at 37 °C. [160]
Isabel “Precoce” grape ingredients Isabel grape preparation
(20 g/100 mL)
By-product flour
(2 g/100 mL)		 This goat milk yogurt had high L. acidophilus La-05 counts, distinct phenolic profile, higher antioxidant capacity, sensory acceptance, and consumer preference compared to control probiotic yogurt. [161]
Orange sweet potato 15 and 25% Orange sweet potato purees incorporated into probiotic yogurt were accepted by consumers. [162]
Berry and nut      
Gobdin (Dry white mulberry and walnut paste) 0, 5, and 10% Adding 5% gobdin to yogurt containing L. acidophilus resulted in an acceptable product. [163]
Juice (fruit or vegetable)      
Pomegranate juice 16% Yogurt fortified with pomegranate juice and probiotics had desirable sensory properties during storage. [164]
Carrot juice 8, 16, 24, and 32% There was increased color intensity, carrot flavor, creaminess, mouth coating, and chalkiness with increased carrot juice levels. [165]
Juice and flower      
Juice from kiwifruit and jasmine flour 20% kiwi fruit juice and 15% jasmine flower juice The best formulation was 20% kiwi fruit juice, 15% jasmine flower juice, and 5% inoculum concentration. Fermentation time was 8 h at 40 °C. [166]
Spice and Oil      
Spices (Cardamom, cinnamon, and nutmeg) 0.5% (v/w) Yogurts containing spices had good sensory properties with enhanced antioxidant activity. [167]
Ginger and chamomile essential oil 0.2 and 0.4% Ginger and chamomile essential oils and B. lactis Bb12 addition enhanced yogurt properties. Incorporation of essential oil significantly decreased fermentation time. [168]
Dill essential oil 50 and 100 ppm Yogurt containing 100 ppm dill essential oil received high sensory scores and maintained high viability of B. bifidum and L. casei. [169]
Peppermint, Basil, and Zataria essential oils 0.5% Antioxidant potential was improved by addition of all three essential oils.
Peppermint and basil yogurts had acceptable sensory properties, but zataria yogurt was not as acceptable.		 [170]
Bee products      
Pine honey 2, 4, and 6% The 2% level was the preferred level during sensory evaluation. [171]
Royal jelly 2% (w/v) Royal jelly incorporation Ssignificantly improved physicochemical, rheological, sensory, and microbiological properties (increased probiotic viability) compared to control probiotic yogurt. [172]
Cyanobacterium      
Spirulina (a biomass of cyanobacterium) 1 g per liter of yogurt mix. This yogurt was less acidic than the control yogurt on the 7th day, and there was higher growth of lactic acid bacteria in this yogurt than for the control yogurt on the 7th day. [173]
1 RS2 is high amylose corn starch while RS3 is physically modified corn starch. 2 Inulin chain lengths were short (P95), medium (GR), and long (HP).

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Subjects: Food Science & Technology; Agriculture, Dairy & Animal Science; Microbiology
Contributors MDPI registered users' name will be linked to their SciProfiles pages. To register with us, please refer to https://encyclopedia.pub/register :
Douglas W. Olson
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Kayanush J. Aryana
View Times: 470
Entry Collection: Gastrointestinal Disease
Revisions: 2 times (View History)
Update Date: 21 Dec 2022
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