A journal for the cheese curious Pagosa Springs, Colorado
The Asiago cheese produced under the Cello brand originates in the United States, specifically manufactured at the Lake Country Dairy processing facility located in Turtle Lake, Wisconsin [1]. This geographical origin places the product at the center of a complex, ongoing international dialogue regarding geographical indications (GIs), intellectual property rights, and the globalization of traditional dairy architectures [4].
In the European Union, the nomenclature "Asiago" is strictly governed by a Protected Designation of Origin (PDO, or DOP in Italian) [6]. According to the Consorzio Tutela Formaggio Asiago, which was established in 1979 to protect the cheese's heritage, authentic European Asiago must be produced within a meticulously defined geographical zone encompassing the provinces of Vicenza, Trento, Padua, and Treviso in Northern Italy [4]. The European Union enforces this designation under the premise that the specific microclimate, indigenous microbial flora, alpine pasture composition, and historical methodologies of the Asiago plateau render the cheese inextricably tied to its specific terroir [5]. The EU has consistently advocated for stringent global protection of these geographical indications through frameworks such as the TRIPS Agreement [5].
Conversely, within the United States, "Asiago" is legally classified as a generic standard of identity under the U.S. Code of Federal Regulations (CFR) Title 21, specifically within sections 133.102, 133.103, and 133.104 [10]. Domestic organizations, most notably the Consortium for Common Food Names (CCFN), actively defend the right of American dairy producers to utilize terms such as Asiago, Parmesan, and Romano [5]. The CCFN posits that these names have evolved to designate a specific style, recipe, and biochemical profile of cheese rather than an exclusive, unreplicable geographic origin [5]. Consequently, Cello's Asiago operates completely independent of European PDO strictures, adhering instead to U.S. FDA regulations. Produced in the heart of America's dairyland by Schuman Cheese, the Cello formulation synthesizes Old World Italian cheese-making philosophies with modern Wisconsin dairy science. This domestic interpretation frequently competes directly with European PDO counterparts in global technical evaluations, representing a highly engineered American iteration of a classic alpine-style cheese [12].
Cello Asiago is manufactured exclusively from bovine milk derived from the species Bos taurus [1]. The reliance on cow's milk for this specific style of hard cheese is the ubiquitous standard in modern global dairy production, though it represents a significant evolutionary departure from the cheese's ancient agrarian origins on the Italian peninsula.
Historically, the earliest documented iterations of cheese originating from the Asiago plateau—dating back to approximately the year 1000 AD—were crafted exclusively from ovine (sheep's) milk [16]. During the Middle Ages, sheep husbandry dominated the localized economy of the Alpine and pre-Alpine Cimbrian plateaus [8]. The dairy product resulting from this agrarian system was colloquially known as "Pegorin," a nomenclature derived directly from pecora, the Italian word for sheep [8]. The biochemical profile of this early sheep's milk cheese would have been markedly different from modern iterations, characterized by higher concentrations of capric, caprylic, and caproic fatty acids, which impart a distinctly sharp, piquant flavor [8].
It was not until the 15th and 16th centuries, driven by macro-shifts in agricultural economics, advancements in pasture management, and the significantly higher volumetric yield associated with bovine lactation, that cattle began to replace sheep herds across the Veneto region [16]. By the 19th century, the transition to bovine milk was nearly absolute [19]. Modern dairy science supports this transition for hard, aged cheeses; bovine milk provides a highly stable casein micelle structure and a lipid profile that gracefully withstands extended enzymatic breakdown without developing overwhelming rancidity [18]. Cello Asiago continues this contemporary standard, utilizing 100% cow's milk to ensure the precise protein-to-fat ratios necessary for optimal curd formation, syneresis, and long-term maturation [1].
The biochemical foundation of Cello Asiago relies entirely on pasteurized, part-skimmed cow's milk sourced from a network of local family dairy farms surrounding the Turtle Lake, Wisconsin processing facility [1]. Furthermore, the milk utilized is certified to be free of recombinant bovine growth hormone (rBGH), adhering to contemporary consumer demands for dairy purity, although regulatory notes carefully stipulate that no significant physiological difference has been demonstrated between milk derived from rBGH-treated and non-treated cows [23].
The technological choice to utilize pasteurized milk fundamentally alters the biochemical trajectory of the cheese ripening process compared to traditional raw milk cheeses. Raw bovine milk contains a vast, indigenous microflora—comprising non-starter lactic acid bacteria (NSLAB), wild yeasts, and endogenous enzymes such as native milk lipoprotein lipase—that contributes to the highly diverse, albeit sometimes unpredictable, volatile flavor profile of raw-milk alpine cheeses [25]. The pasteurization process applied at Lake Country Dairy (typically High-Temperature Short-Time, or HTST, at 72°C for 15 seconds) is designed to effectively neutralize vegetative pathogenic bacteria (such as Listeria monocytogenes or Escherichia coli), alongside coliforms and a significant portion of these native, heat-labile lipases and proteases [9]. To replace the neutralized native microflora and ensure a controlled, predictable fermentation, Schuman Cheese inoculates the pasteurized milk with highly specific, proprietary lactic acid cheese cultures [23].
Equally critical to the cheese's identity is the use of part-skimmed milk [22]. In the physics of cheese making, standardizing the casein-to-fat ratio is a vital prerequisite for the production of hard, aged cheeses [20]. If the lipid matrix within the curd is too extensive, it physically impedes the expulsion of moisture during the syneresis phase, leading to a softer paste that retains excess water [20]. High-moisture, high-fat curds are highly susceptible to unwanted lipolytic rancidity over long maturation periods [31]. By utilizing part-skimmed milk, the dairy scientists at Cello ensure the formation of a robust, dominant para-casein network capable of contracting efficiently, expelling whey, and forming a dense, semi-hard structure that matures elegantly over 10 months without structural degradation [22].
| Parameter | Cello Asiago (U.S. Standard) | Traditional PDO Asiago d'Allevo | | :--- | :--- | :--- | | Milk Source | Pasteurized part-skim cow's milk | Raw or thermized part-skim cow's milk | | Geographic Source | Wisconsin, USA (Local family farms) | Vicenza, Trento, Padua, Treviso (Italy) | | Microflora | Standardized commercial starter cultures | Endogenous thermophilic LAB & natural cultures | | Hormonal Regulation | rBGH-free | EU regulations strictly prohibit rBGH |
Cello Asiago distinguishes itself from traditional European counterparts by utilizing a microbial rennet (enzymes), intentionally excluding both traditional animal-derived calf rennet and exogenous animal lipases [1]. This is a defining biochemical characteristic that fundamentally shapes the sensory output and commercial positioning of the product.
In cheese production, rennet serves the primary catalytic function of cleaving the highly specific peptide bond of κ-casein [33]. This enzymatic cleavage destabilizes the protective micelle structure, allowing the milk proteins to aggregate and coagulate into a firm, workable curd [25]. While traditional PDO Asiago strictly dictates the use of animal rennet (typically an aspartic protease derived from the abomasum of unweaned calves) [7], Cello employs microbial coagulants, rendering the final product entirely suitable for vegetarian diets [1].
More critical to the final sensory profile, however, is Cello's explicit omission of added animal lipases [1]. Lipases are enzymes that catalyze the hydrolysis of ester bonds in lipid substrates, releasing free fatty acids (FFAs) from the triglyceride backbone [18]. In the production of many robust, traditional Italian-style cheeses (such as Provolone, Pecorino Romano, and certain aggressive variations of aged Asiago), cheesemakers often introduce pregastric esterases derived from the salivary glands of kids, lambs, or calves [18]. These ruminant lipases aggressively hydrolyze milk fat, specifically liberating short-chain free fatty acids such as butyric (C4:0), caproic (C6:0), and caprylic (C8:0) acids [18]. The accumulation of these specific short-chain FFAs is responsible for the vibrant, sharp, "goaty," and distinctly "piccante" flavor profiles characteristic of those cheeses [18].
By deliberately excluding lipase preparations and relying strictly on microbial coagulants and the gentle, secondary lipolytic activity of bacterial starter cultures, Cello engineers a highly controlled lipid degradation pathway [1]. This technological decision prevents the aggressive accumulation of piquant short-chain fatty acids, creating a flavor profile that is intentionally sweeter, smoother, and completely devoid of the sharp, spicy notes found in heavily lipolyzed cheeses [1].
Cello Asiago undergoes a meticulous, climate-controlled aging process for a standard period of 10 months [1]. This specific maturation duration classifies the cheese firmly within the mature, hard-cheese category, providing ample time for extensive biochemical transformation through the synergistic mechanisms of proteolysis and glycolysis [25].
To accurately contextualize this 10-month aging period, it is necessary to compare it against both United States regulatory standards (CFR) and European Protected Designation of Origin (PDO) benchmarks. Under U.S. law, Asiago is divided into three distinct chronological categories.
| Regulatory Framework | Classification | Maturation Requirement | | :--- | :--- | :--- | | U.S. CFR 21 133.102 | Asiago Fresh / Soft | Up to 60 days | | U.S. CFR 21 133.103 | Asiago Medium | Minimum 6 months | | U.S. CFR 21 133.104 | Asiago Old | Minimum 1 year (12 months) | | EU PDO (Pressato) | Asiago Fresco | 20 to 40 days | | EU PDO (d'Allevo) | Mezzano | 4 to 6 months | | EU PDO (d'Allevo) | Vecchio | 10 to 16 months | | EU PDO (d'Allevo) | Stravecchio | 15+ months |
At exactly 10 months of maturation, Cello Asiago occupies a highly specific regulatory and sensory space [1]. Under the U.S. Code of Federal Regulations, it comfortably exceeds the 6-month minimum requirement for the "Asiago Medium" designation (21 CFR 133.103), yet it falls short of the 12-month minimum required to be legally marketed as "Asiago Old" under 21 CFR 133.104 [10]. However, when evaluated against the Italian PDO standards, a 10-month maturation aligns perfectly with the threshold for Asiago Vecchio (Old Asiago), which dictates an aging window of 10 to 16 months [19].
During this 10-month tenure, the wheels are housed in specialized curing environments designed to closely replicate the specific humidity and ambient temperature conditions of the Italian Alps [1]. Over these months, the cheese undergoes a massive reduction in moisture, while non-starter lactic acid bacteria (NSLAB) and residual enzymes slowly convert intact proteins and remaining peptides into volatile amino acids, establishing the cheese's signature firm texture and nutty depth [1].
The moisture content of Cello's 10-month aged Asiago is tightly regulated through the cheesemaking process, targeting approximately 32.85% [1]. This highly specific metric is the physical cornerstone that places the product squarely within the technical classification of a hard cheese.
In dairy microbiology and food science, moisture content is not merely a descriptive physical parameter; it is a critical thermodynamic variable that dictates water activity ($a_w$), microbial safety, enzyme kinetics, and the long-term textural evolution of the cheese [40]. According to U.S. FDA standards and microbiological risk assessments, hard cheeses typically present a moisture content of <42% [42]. The European PDO specifications require aged Asiago to possess a moisture content of <42% [9]. Cello's 32.85% moisture target demonstrates exceptional adherence to these strict global thresholds, leaning toward the lower end of the spectrum to ensure a dense, highly stable, grater-friendly texture [1].
The achievement of this low moisture percentage begins early in the vat. The curd is cut into minute granules (often the size of rice grains for alpine and hard cheeses) and subjected to high-temperature cooking, which rapidly accelerates syneresis—the physical expulsion of whey from the protein matrix [2]. Following mechanical pressing and a period of brine-salting, the cheese undergoes a prolonged 10-month desiccation process in the curing rooms [17]. Because the water activity ($a_w$) of this cheese generally falls below the 0.950 threshold, it creates an environment that severely inhibits the proliferation of most vegetative pathogenic bacteria (such as Listeria monocytogenes or Salmonella), rendering the product highly shelf-stable and inherently safe from a microbiological perspective [44].
Based on its physical chemistry, production methodology, and maturation timeline, Cello Asiago is formally classified under the following cheese types:
The sensory evaluation of Cello's 10-month Asiago reveals a highly complex, nuanced flavor profile characterized primarily by a rustic, lightly sweet foundation, a pronounced nutty finish, and a subtle sharpness that builds gradually on the palate without ever becoming aggressive or overwhelming [1].
This specific aromatic and gustatory fingerprint is the direct result of controlled microbiological and enzymatic metabolisms operating over the 10-month maturation period—specifically glycolysis, proteolysis, and mild lipolysis [25].
First, the process of glycolysis establishes the foundational acidity. The lactic acid bacteria utilized as starter cultures rapidly consume the residual lactose present in the curd, converting it primarily into L(+)-lactic acid [47]. Because Cello aims for a sweeter, smoother profile, the acidification curve is carefully monitored. Any trace amounts of remaining citrate in the milk are metabolized into compounds such as diacetyl and acetoin, which impart a subtle, warm, buttery undertone to the paste [48].
Secondly, the cheese's signature savory and nutty characteristics are derived from extensive proteolysis. As the cheese ages, the residual chymosin (rennet) and the cell-envelope proteinases (CEPs) secreted by the bacterial cultures dismantle the intact α- and β-casein structural matrix [49]. These massive milk proteins are degraded into large polypeptides, which are subsequently cleaved into small bioactive peptides and free amino acids by intracellular peptidases released when the bacterial cells lyse [49]. The release of specific free amino acids, such as glutamic acid, generates profound umami [51]. Furthermore, the catabolism of branched-chain amino acids (like leucine and valine) via Strecker degradation pathways yields aromatic aldehydes and alcohols that present sensorially as roasted, malty, and profoundly nutty [52].
Finally, the absence of exogenous animal lipase in the Cello recipe is the primary reason this Asiago differs so dramatically from generic commercial Italian-style cheeses [1]. Rather than generating the piquant, sharp, and potentially bitter short-chain fatty acids (butyric and caproic acids) typical of aggressive lipase action, the lipid breakdown in Cello Asiago is managed slowly by mild, indigenous microbial enzymes [18]. The resulting long-chain free fatty acids are converted by secondary metabolic pathways into lactones (yielding sweet, fruity notes) and esters (providing hints of crushed apple or pineapple) [21]. The culmination of these three biochemical pathways is a cheese that rests on the smoother, sweeter side of the Parmesan spectrum—punchy, robust, and warm, but fundamentally balanced [22].
The structural architecture of Cello Asiago is defined as semi-hard and smooth, yet yielding to a dense slight crumbliness typical of long-aged cheeses [1].
At the microscopic level, the texture of aged cheese is governed by the state of the para-casein protein network. During the 10 months of aging, the continuous enzymatic attack on this protein network causes a significant loss of structural elasticity and a breakdown of the intact rubbery curd [31]. Unlike the young Asiago Pressato (fresh Asiago), which retains high moisture and exhibits large, supple eyes (holes) and a spongy elasticity, the aged Cello Asiago (analogous to d'Allevo) has expelled the majority of its whey, resulting in a dense, compact, closed paste [7].
Despite its firmness, Cello Asiago exhibits a much smoother and more buttery mouthfeel than an equivalent aged Parmesan (such as Parmigiano-Reggiano), which is notoriously hard, dry, and highly prone to fracturing and flaking [10]. The slightly higher moisture content (32.85%) relative to extra-hard grating cheeses allows the milk fat to coat the palate more evenly, resulting in a buttery consistency as it warms and melts in the mouth [1].
Furthermore, as proteolysis advances over the 10 months, free amino acids and lactic acid accumulate beyond their solubility limit in the remaining, steadily evaporating cheese serum [47]. This supersaturation results in the spontaneous formation of macroscopic tyrosine crystals and calcium lactate pentahydrate (CLP) deposits [32]. These naturally occurring crystalline structures provide a distinct, satisfying tactile crunch against the otherwise smooth paste—a textural hallmark highly prized by enthusiasts of premium aged dairy [21].
Cello Asiago relies on two distinct phases of heat treatment to achieve its final microbiological profile, structural integrity, and safety parameters: the initial pasteurization of the source milk, and the high-temperature cooking of the curd [1].
First, the raw bovine milk is subjected to full commercial pasteurization upon arriving at the Lake Country Dairy facility [23]. Standard High-Temperature Short-Time (HTST) pasteurization involves heating the milk to 72°C for a minimum of 15 seconds [9]. This thermal processing effectively eliminates vegetative populations of dangerous pathogenic microorganisms (such as Mycobacterium tuberculosis, Salmonella, and pathogenic E. coli) while drastically reducing the background spoilage flora that can cause off-flavors during aging [9]. While European PDO regulations permit the use of raw or merely thermized milk for aged Asiago d'Allevo [9], Cello's adherence to U.S. FDA guidelines and the need for absolute commercial consistency requires complete pasteurization. This creates a sterile biochemical canvas upon which their specific, highly calibrated starter cultures can act without competition [1].
Following the addition of cultures and rennet, and the subsequent coagulation of the milk, the cheese undergoes a second thermal phase: "cooking" the curd. Known formally as a cooked-curd cheese, the curds are mechanically stirred and heated in vats to temperatures typically ranging between 48°C and 52°C [1]. Schuman Cheese is notable for utilizing traditional copper kettles for select alpine lines within their Turtle Lake facility [2]. In dairy chemistry, copper acts as a highly effective thermal conductor, heating the curd rapidly and evenly without creating localized hot spots that can scorch the proteins [57]. This thermal stress serves a critical dual purpose: it rapidly accelerates syneresis (shrinking the curd and forcefully driving out moisture), and it selectively inhibits mesophilic bacteria while promoting the proliferation of thermophilic starter cultures (such as Streptococcus thermophilus and Lactobacillus helveticus) [25]. These thermophiles thrive at elevated temperatures and drive the rapid acidification process required to set the matrix for aged hard cheeses [52]. Additionally, trace copper ions (typically around 5.78 mg/kg) leach into the milk during this process, binding to proteins and actively inhibiting the growth of detrimental bacteria like Clostridium tyrobutyricum, which is responsible for late-blowing defects and rancidity [57].
Evaluating the safety and quality of a 10-month aged cheese requires a nuanced understanding of dairy microbiology to distinguish between benign, biochemically derived characteristics inherent to maturation, and genuine microbial spoilage.
To proactively protect against true spoilage, Cello treats the rind of its Asiago with Natamycin (E235) to protect flavor and prevent fungal infiltration [23]. Natamycin is a polyene macrolide antifungal antibiotic derived naturally from the soil bacterium Streptomyces natalensis [59]. Approved under 21 CFR 172.155, it is applied exclusively to the surface of the cheese, penetrating no more than 1–2 millimeters into the matrix [59]. Natamycin functions by binding specifically to ergosterol, a primary sterol found in fungal cell membranes [59]. This binding forms transmembrane pores that cause vital cellular contents to leak, ultimately leading to fungal cell death [59]. Because bacteria utilize cholesterol rather than ergosterol, natamycin has zero effect on the beneficial lactic acid bacteria driving the cheese's maturation [59]. Consequently, if fungal growth occurs on Cello Asiago, it indicates a failure of the natamycin barrier, physical damage to the rind, or improper post-consumer storage [61].
Inherent Characteristics (Not Spoilage):
Actual Spoilage: True spoilage indicators require immediate disposal of the compromised portion of the cheese.
| Characteristic | Primary Source / Mechanism | Spoilage Classification | | :--- | :--- | :--- | | White Crystalline Crunch | Calcium Lactate / Tyrosine | Benign / Indicator of Advanced Age | | Pink/Red Smears | Serratia marcescens (Prodigiosin) | Genuine Bacterial Spoilage | | Faint Ammonia on Rind | Amino acid deamination | Benign (Requires aeration) | | Putrid Odor / Slime | Pseudomonas / Putrefaction | Genuine Bacterial Spoilage | | Blue/Green Fuzzy Rind | Unwanted Penicillium infiltration | Genuine Fungal Spoilage |
The robust, nutty, and lightly sweet profile of Cello Asiago demands wine pairings capable of either complementing its Maillard-like roasted notes or cutting through its dense lipid matrix [1].
The primary sensory interaction when pairing wine with a 10-month aged hard cheese involves the interplay between the wine's tannins and acidity against the cheese's butterfat and proline-heavy casein proteins.
| Wine Varietal | Interaction Mechanism & Tasting Notes | | :--- | :--- | | Zinfandel | The jammy, dark fruit characteristics and moderate acidity of a Zinfandel beautifully bridge the gap between the cheese's sweet, fruity ester profile and its savory umami foundation [1]. | | Chianti (Sangiovese) | The high acidity and pronounced tannins of a classic Chianti interact optimally with the rich caseins of the Asiago [1]. The tannins bind to the dairy proteins in the mouth, effectively acting as an astringent palate cleanser, preparing the sensory receptors for the next bite. | | Sauvignon Blanc & Riesling | For white wine enthusiasts, crisp, high-acid varietals like Sauvignon Blanc or a dry Riesling provide a sharp, citrus-driven contrast that cuts entirely through the butterfat, lifting the cheese's subtle sweetness to the forefront [1]. | | Chardonnay | An oak-aged Chardonnay aligns seamlessly with the warm, caramel, and nutty undertones of the cheese, enhancing its richness without overwhelming the palate [21]. |
The carbonation, hop bitterness, and malt structures of specific beer styles offer an excellent, highly engineered counterpoint to the semi-hard density of a 10-month Asiago [1].
| Beer Style | Interaction Mechanism & Tasting Notes | | :--- | :--- | | India Pale Ale (IPA) | The aggressive α-acid bitterness derived from the hops in an IPA sharply contrasts with the sweet, creamy notes of the cheese. The resinous, piney, or citrusy hop aromas cleanse the palate, while the alcohol content and physical carbonation scrub the milk fats from the tongue [1]. | | Saison / Farmhouse Ale | The complex, slightly spicy, and highly effervescent nature of a Saison highlights the rustic qualities of the Asiago. The yeast-driven phenolic compounds in the beer harmonize perfectly with the cheese's mild sharpness, while the bone-dry finish prevents the pairing from becoming cloying or overly heavy [1]. |
Because Cello Asiago is specifically engineered to balance structural firmness with a smooth meltability, its gastronomic applications are incredibly versatile, spanning both raw presentation and thermal culinary applications [1].
| Culinary Application | Rationale & Accompaniments | | :--- | :--- | | Charcuterie & Cheese Boards | The cheese stands exceptionally well on its own when paired with fresh figs, candied almonds, and a drizzle of honey, which highlight its inherent sweetness and caramel finish via sweet-salty contrast [21]. Dark chocolate is also a sophisticated pairing, as the bitter cocoa solids juxtapose the salty, nutty cheese [21]. | | Hot Culinary Integration | The cheese can be shaved over salads or grated directly into hot dishes where its complex profile acts as a potent flavor enhancer. It melts smoothly into macaroni and cheese, creamy risottos, and soups without breaking or pooling grease [21]. | | Roasted Vegetables | It is particularly complementary to earthy root vegetables like roasted sweet potatoes, parsnips, and carrots, as the Maillard browning of the vegetables links chemically with the Strecker degradation products in the cheese [21]. |
World Championship Pedigree: Schuman Cheese's Lake Country Dairy facility is an undisputed powerhouse in global dairy competitions, frequently proving that domestic production can rival European PDO traditions. At the highly competitive 2024 World Championship Cheese Contest held in Madison, Wisconsin, Cello Artisan Extra Aged Asiago was crowned the "Best of Class" in the Asiago division, successfully beating out entrenched international competitors [3]. In the subsequent 2025 U.S. Championship Cheese Contest, Schuman Cheese further solidified its dominance by scoring a 98.81 for its Copper Kettle Parmesan, taking the second runner-up position overall [72]. This sustained victory stands as a testament to the fact that American artisanal cheeses, when unleashed on a level playing field, can match and surpass traditional European stalwarts in blind technical evaluations [12].
The Copper Kettle Influence: While modern industrial cheese making predominantly utilizes massive stainless steel vats, Schuman Cheese is renowned for maintaining traditional Old World methods, notably employing traditional copper kettles at their Turtle Lake plant for specific premium lines [2]. In dairy chemistry, copper is not merely a nostalgic vessel material; it acts as a highly effective thermal conductor, heating rapidly and evenly [57]. Furthermore, trace copper ions leach into the milk during processing, binding to proteins and significantly influencing the microbiological ecosystem [55]. Copper ions actively inhibit the growth of certain detrimental bacteria (like Clostridium tyrobutyricum, which causes late-blowing defects) while fostering a unique fermentation pathway that enhances complex, caramel-like flavor development [57].
The Legacy of Arthur Schuman: The history of the Cello brand is deeply intertwined with the post-war American cheese industry. Founded in New York in 1945 by Arthur Schuman, the company originally began as an import business, bringing the finest European cheeses to the United States [14]. Over seven decades, the family transitioned from mere importers to master craftsmen. The acquisition of the Lake Country Dairy facility in Turtle Lake, Wisconsin in 2006 marked a pivotal shift, allowing Schuman to launch the Cello brand and begin domestic production of world-class Italian-style cheeses using local milk and traditional techniques [74].
The Naming Controversy: The word "Asiago" is caught in an ongoing, multi-billion-dollar geopolitical trade battle. The European Union vigorously defends Asiago as a PDO, insisting it can only legally be made in the specific Veneto/Trentino regions of Italy [5]. Conversely, U.S. producers, championed by the Consortium for Common Food Names (CCFN), argue that "Asiago" has over centuries become a generic identifier for a style of cheese, similar to cheddar or mozzarella [5]. The success of Cello Asiago on the global stage, frequently defeating European entries in blind taste tests, serves as a primary piece of evidence for the CCFN's argument that geographic monopolies do not inherently dictate supreme quality [12].
ah-see-AH-go [1]