Kraft Foods, Inc.

Kraft Foods Global Brands LLC

Kraft Foods Holdings, Inc.

Kraft, Inc.

Novozymes A/s

Kraft General Foods, Inc.

Kraft Foods R & D, Inc.

Kraft Foods Group Brands LLC

David W Mehnert

Divya Shree Reddy

Rudolf Johann Fritsch

Robert Charles Dinwoodie

Carie Lynn Wolters

Mark S Miller

Ronald Louis Meibach

Zuoxing Zheng

Gitte Budolfsen Lynglev

Gary Francis Smith

Kevin J Surber

Alan Wolfschoon-Pombo

John F Roland

Mehran Rose

Wolfram Steffan

Peter Habermeier

Ramarathna Koka

Allan G W Bradbury

Theodore Cayle

Steven Prince

Paul Wrezel

Sylvia Irene Crawford

Susan Monckton

Rudolf J Fritsch

Hans Peter Heldt-Hansen

James L Moran

Leslie G West

Chad David Galer

Gary W Trecker

R G Krishnamurthy

James W Moran

Michael D Major

Rathna Koka

Anthony M Miller

Stephen P Lombardo

John S Peluso

Hiren H Thakar

William Zaikos

Mohamed Saad Kettani

Kenneth Allen Mikeska

Divva Shree Reddy

Kristeen Brafford

Lowell L Isom

Lynn B Deffenbaugh

Mary Regina Koertner

Russell K Moroz

Marguerite L Yang

Mark Gurevich

Brenda J Rudan

Vickie Jane Lewandowski

Michael Robert Fournier

Amanda Young

Kevin Forneck

Gary Lee Kerrigan

Wendy Munz

William John Zaikos

Lowell Isom

Nicole Grabowski

Bashir Aideloje Elabor

Gary F Smith

Cheryl J Baldwin

Thomas R Jackson

Jonathan L Reeve

Carie L Wolters

Allan Gw Bradbury

Described herein is a high moisture, preserved cheese product having enhanced microbial food safety and methods of making the high moisture, preserved cheese product. Enhanced microbial food safety is achieved by using a combination of organic food preserving acids, a nisin component and an enzyme.

Method of making fresh cheese with enhanced microbiological safety

The invention is directed to a fermented and clarified nisin-containing whey and a method of making that can be used to produce a stabilized food product by adding, for example, to the pack water of fresh mozzarella cheese. The resulting stabilized food product retards or limits below detection levels the growth of toxins from pathogenic bacterial contaminants when the nisin-containing whey is added in amounts between about 10 to about 30% to the food product. The stabilized food product improves the safety of the food by retarding the growth ofand improves the shelf life of the product by retarding the growth of gas forming bacteria such as bacteria from thespecies.

Stabilization of fresh mozzarella cheese using fermented whey

The present invention is directed to processes for making blocks of cheese having reduced moisture variability using controlled cooling of cheese curd to form the final cheese blocks.

Methods for the reduction of moisture variability in large cheese blocks

Methods and apparatus for the reduction of moisture variability in large cheese blocks

The present invention is directed to a process for making a block of cheese having reduced moisture variability. A bulk container having a bottom and sidewalls, and a tube having a fill end and an opposite discharge end, are provided. The discharge end of the tube is positioned at an approximately central axial location of the container. Cheese curd is introduced into the container, and the tube via its fill end. Then, a chilled brine is introduced into the tube via its fill end to mix with curd therein. Preferably, the chilled brine has a salt content which approximately matches the salt content of the moisture phase of the cheese curd. The tube is removed from the cheese curd in the container. The cheese curd is pressed into a curd mass, and then cooled, and thereafter cured, providing a cheese block having reduced moisture variability.

Manufacture of large cheese blocks having reduced moisture variability

Process for manufacturing cheeses and other dairy products, and the resulting products, in which lactobionic acid is added, or generated in situ, in combination with a dairy component in the course of the process. The lactobionic acid can be used as the sole acidulent for direct acidification of the cheese, or in conjunction with reduced amounts of lactic acid culture. When the lactobionic acid is generated in situ during cheese manufacture according to the invention, a lactose oxidase is used in one embodiment to convert lactose intrinsically present in the dairy liquid ingredient(s) into lactobionic acid. The organoleptic attributes of the cheeses made using lactobionic acid as an ingredient are satisfactory and fully suitable. The process can be applied to the production of a wide variety of cheeses, including, for example, cream cheeses, hard cheeses such as cheddar, UF cheeses, process cheeses, cheddar cheeses, and so forth.

Process for manufacturing cheeses and other dairy products and products thereof

The present invention relates to a method for producing a fermented dairy product including the use of an oxidase for the conversion of lactose to lactobionic acid. Moreover, it refers to a method for affecting firmness and/or sourness of a fermented dairy product. Hereby is produced a fermented dairy product having improved functional and/or organoleptic properties.

Method for producing a fermented dairy product

The present invention is directed to an improved process of producing natural mozzarella cheese. The process starts with a liquid dairy substrate that is cultured and coagulated. The resulting curd is cut and salted. The resulting curd (i.e., base curd) may be frozen or refrigerated and stored until needed. Once needed, the stored base curd is ground and treated in a blender where it is partially standardized to form a &ldquo;partially standardized base curd.&rdquo; The partially standardized base curd is then cooked in a cooker or cooker/stretcher (preferably in a lay-down cooker) where standardization is completed by the addition of a cultured or uncultured skim milk retentate. No emulsifying salts are used in the cooker/stretcher. The cheese mass is then rapidly cooled to produce the mozzarella cheese. The conventional brine cooling step normally used in mozzarella cheese production is not used in the present invention. In an especially preferred embodiment, starch is also added to the standardized, cooked, stretched mozzarella prior to the cooling step. Such starch is typically added at a level of up to about 10 percent of the finished product and, more preferably, at a level of about 0.1 to about 2 percent. The added starch serves to bind the moisture in the product and results in a firmer cheese which is easier to shred.

Process for mozzarella cheese

A method of making flavorful, organoleptically pleasing, non-agglomerating, shredded natural cheese containing one or more nutritional supplements is provided. The method includes the steps of: (1) shredding a natural cheese to form pieces; (2) adding a nutritional supplement nutritional supplement comprising calcium sulfate dihydrate to the shredded cheese to form a mixture; (3) blending the mixture to achieve an essentially homogenous shredded cheese; and (4) packaging the essentially homogenous shredded cheese; wherein the calcium sulfate dihydrate is added in an amount sufficient to provide nutritionally supplementation and to provide non-agglomerating properties. The nutritional supplement of this invention allows preparation of shredded cheeses containing significantly reduced levels of conventional anti-caking agents while still maintaining the desired non-agglomerating properties. In some cases, conventional anti-caking agents are essentially eliminated.

Shredded cheese

A natural biogenerated cheese flavoring system is provided which can be used to prepare very different cheeses having desired flavor profiles. More specifically, the present cheese flavoring system contains a sulfury-cheddar flavored component, a creamy-buttery flavored component, and a cheesy flavored component. Each of these flavored components can be used as flavor building blocks with their own specific flavor profiles and/or characteristics. Using various combinations of these flavored components, cheeses having a wide variety of flavors can be produced. The flavored components are separately prepared from a highly concentrated milk substrate using compositions (e.g., specific enzymes, cultures, and additives) and process conditions designed to provide the flavored components having specific flavor profiles and/or characteristics. The flavor concentrates can be used in process cheese, process cheese-type products, or other cheeses to produce very different cheeses with desired flavor profiles. The flavor concentrates can also be used as a natural flavoring system in other food products.

Natural biogenerated cheese flavoring system

The present invention provides a method of making flavorful, organoleptically pleasing natural cheese containing a significant level of a calcium supplement. More specifically, the calcium supplement is a mixture of calcium sulfate and tricalcium phosphate. By using a mixture of calcium sulfate and tricalcium phosphate the bitterness normally associated with calcium sulfate and the graininess normally associated with tricalcium phosphate are surprisingly essentially eliminated. The use of these particular calcium sources allows for significant levels of calcium to be incorporated without requiring excessive levels of the calcium compounds. The calcium supplements of the present invention can be used in, for example, cottage cheese, process cheese, and natural cheeses such as, for example, Cheddar cheese, Colby cheese, Monterey Jack, Havarti cheese, Muenster cheese, Brick cheese, Gouda cheese, Mozzarella cheese, and mixtures thereof.

Calcium fortification of cheese

In accordance with the method of the present invention, dried grated Parmesan cheese particles are manufactured from milk. The fat level of the milk is standardized to about 2.0 percent. The milk is subjected to membrane processing by ultrafiltration and diafiltration to provide a retentate. The retentate is then fermented with a combination of lactic acid cultures, a flavor culture, and a lipase enzyme. The fermentation is carried out at a temperature between about 90 and about 120&deg; F. The fermented retentate is then evaporated to a solids level desired in the finished dry grated Parmesan cheese, which is generally in the range of from about 18 to about 24 percent moisture. A clotting agent is added to the fermented retentate immediately before the initiation of the evaporation step. Evaporation is preferably carried out in a drum drier under quiescent conditions. The Parmesan cheese is removed from the drum drier and is transferred to a disintegrator, such as a Fitz mill, to provide a grated Parmesan cheese product. The grated Parmesan cheese may be then blended with an anticaking material and an antimycotic material prior to packaging for consumer use without further aging or curing.

Rapid method for manufacture of grated parmesan cheese

Growing community of inventors

Antioch, IL, United States of America

David W Mehnert