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Food Safety, Sanitation, and Personal Hygiene by go2HR is licensed under a Creative Commons Attribution 4.0 International License, except where otherwise noted.
Food Safety, Sanitation, and Personal Hygiene is one of a series of Culinary Arts open textbooks developed to support the training of students and apprentices in British Columbia’s foodservice and hospitality industry. Although created with the Professional Cook, Baker and Meatcutter programs in mind, these have been designed as a modular series, and therefore can be used to support a wide variety of programs that offer training in foodservice skills.
Other books in the series include:
The series has been developed collaboratively with participation from public and private post-secondary institutions.
In British Columbia, the Food Premises Regulationhttp://www.bclaws.ca/EPLibraries/bclaws_new/document/ID/freeside/11_210_99 stipulates that:
(1) Every operator of a food service establishment must hold a certificate, issued by a health officer, for the successful completion of the food handler training program known as FOODSAFE or its equivalent.
(2) Every operator of a food service establishment must ensure that, while the operator is absent from the food service establishment, at least one employee present in the establishment holds the certificate referred to in subsection (1).
Although food safety certification is only required of one person per shift, a FOODSAFE certificate is recognized by many employers as a valuable and necessary employee qualification and an industry best practice for all people handling food.
FOODSAFE Level 1, B.C.’s provincial food safety course, is available in three ways: face to face, online, or through distance education (correspondence). In order to obtain a FOODSAFE Level 1 certificate, you must take a course through an approved training provider and pass an exam, which consists of 50 multiple-choice questions. A minimum score of 70% is required to pass the exam. Once you have successfully completed both the course and the exam, you will be registered in the BC Centre for Disease Control (BCCDC) database and receive a FOODSAFE certificate.
All new FOODSAFE Level 1 certificates have a five-year expiry date. Once your certificate expires, you must take a refresher course and achieve a grade of 80% on the refresher exam in order to be recertified.
For those in supervisory positions, the FOODSAFE Level 2 course offers training in the management of food safety and food safety systems.
More information on FOODSAFE certification as well as other equivalent food safety certificates can be found on the FOODSAFE website at www.foodsafe.ca.
Food safety does not happen by accident. To prepare safe food, you must follow certain steps and procedures throughout the entire food preparation process. You have to think, and you have to pay attention to how you prepare food to make sure it is safe. You do this by developing a food safety plan. A good food safety plan will make sure that anything that might make someone sick is under control.
A basic food safety plan uses the HACCP method. HACCP stands for hazard analysis critical control points. HACCP was originally developed by NASA to make sure the food on their space flights was safe to eat. HACCP is not a complicated process; it just means that you have to first identify the various steps you must take when you prepare your menu items, then look for possible sources of contamination, and then find ways to control these sources.
HACCP is an approach to food safety that is systematic and preventive. It is recommended by the Codex Alimentarius Commission, the United Nations international standards organization for food safety. HACCP is used by most countries around the world and has been in use since the 1960s.
HACCP goes beyond inspecting finished food products. It helps to find, correct, and prevent hazards throughout the production process. These include physical, chemical, and biological hazards.
There are seven universally accepted HACCP principles. Every country that uses HACCP follows these principles.
Principle 1: hazard analysis. A plan is laid out to identify all possible food safety hazards that could cause a product to be unsafe for consumption, and the measures that can be taken to control those hazards.
For example: At the cooking step of the production process, one of the identified hazards is the survival of pathogens due to inadequate cooking time or temperature.
Principle 2: identifying critical control points. These are the points in the production process where an action can be taken to prevent, eliminate, or reduce a food safety hazard to an acceptable level.
For example: The cooking step is considered a critical control point because control measures are necessary to deal with the hazard of pathogens surviving the cooking process.
Principle 3: establishing critical limits for each critical control point. A critical limit is the limit at which a hazard is acceptable without compromising food safety.
For example: Critical limits at the cooking stage include specific time and temperature for cooking the product.
Principle 4: establishing monitoring procedures for critical control points. Highly detailed monitoring activities are essential to make sure the process continues to operate safely and within the critical limits at each critical control point.
For example: Monitoring procedures at a cooking critical control point could include taking the internal temperature of the product with a specialized thermometer.
Principle 5: establishing corrective actions. Actions must be taken to bring the production process back on track if monitoring indicates that deviation from critical limits has occurred. In food production, correcting problems before end-stage production is far more effective than waiting until a product is finished to test it.
For example: If the required internal temperature has not been reached, a corrective action would require that the product be cooked further. If the cooking temperature cannot be reached, another corrective action would call for the product to be held and destroyed.
Principle 6: establishing verification procedures. Verification means applying methods, procedures, tests, sampling and other evaluations (in addition to monitoring) to determine whether a control measure at a critical control point is or has been operating as intended. Verification activities also ensure that the monitoring and the corrective actions are done according to a company’s written HACCP program.
For example: Testing and calibrating thermometers is a verification procedure that is important to ensure accurate readings. The easiest way to test a thermometer’s accuracy is by submerging the probe into a pot of boiling water. If it does not read 100˚C (212˚F) then the thermometer must be adjusted to read the correct temperature.
Principle 7: record keeping. The company must keep records to demonstrate the effective application of the critical control points and assist with official verification (which is done in Canada by the Canadian Food Inspection Agency). Records must be established to document the monitoring and verification results as well as all information and actions taken in response to any deviations found through monitoring and verification.
For example: The employee responsible for monitoring a cooking critical control point completes a cooking log sheet. This sheet includes the date, the start and finish time, the temperature, and the employee’s signature. If a deviation has occurred in the production process, the responsible employee records the details in a deviation log book.
To see the original HACCP document from the Canadian Food Inspection Agency, go to http://www.inspection.gc.ca/about-the-cfia/newsroom/food-safety-system/haccp/eng/1346306502207/1346306685922
There are many myths about foodborne illness and food poisoning. Table 1 dispels some common misconceptions about food poisoning.
Myth | Fact |
1. A food with enough pathogens to make you sick will look, smell, or taste bad. | 1. A food with enough pathogens to make you sick may look, smell, or taste good. |
2. Really fresh food cannot make people sick. | 2. Really fresh food can cause food poisoning if it is not properly handled. |
3. Only dirty kitchens can make people sick. | 3. Even clean kitchens can make people sick. |
4. Properly cooked food can never cause food poisoning. | 4. Food poisoning can occur even when foods are properly cooked. |
Table 1. Food poisoning myths
Foodborne illnesses can be caused by any of:
Understanding each of these is critical in ensuring that food safety is maintained.For more information on foodborne illnesses, outbreaks, and important news bulletins, consult the BC Centre for Disease Control website at www.bccdc.ca.
Food contaminants can be:
Biological contaminants are by far the greatest cause of illness. Many of the risks associated with biological contaminants can be controlled or removed by effective food handling practices, so it is critical that the safe food handling and prevention procedures outline in the rest of the book be followed.
Microbes are all around us. They are living things, often too small to be seen without a microscope. Many microbes are beneficial, but some can cause illness or even death. These harmful microbes are called pathogens. Five types of microbes include bacteria, viruses, parasites, protozoa, and fungi.
Have you ever had the “24-hour flu”? Probably not, because there’s no such thing. Many people who think they have the 24-hour flu have had a foodborne illness caused by some type of pathogen. A rapid reaction is normally caused by a food intoxication. A slower reaction is normally caused by a food infection. Here’s how to tell the difference between the two:
The top 10 causes of foodborne illness are the following:
We will be looking at this top 10 list in greater detail later in the book.
Food allergies are specific to individuals, but can be life threatening, and can be prevented by a thorough understanding of the allergy issue, knowledge of ingredients used in the preparation of foods, including pre-prepared foods, and care in ensuring separate cooking utensils, cookware, and food preparation surfaces. Oftentimes, the smallest oversights can have serious consequences, as indicated in the example below:
A customer has indicated they have an allergy to MSG and ordered chicken strips with a sweet and sour sauce. The server tells them that the restaurant doesn’t add MSG to any of its food normally, so the order should be fine. After eating the sauce, the customer experiences tingling lips and hives. In follow up, the manager discovers that the pre-prepared sweet and sour sauce served with the chicken strips contains MSG on the list of ingredients.
This incident could have been prevented if the server was aware of all of the ingredients used in the dish.
Proper food handling and storage can prevent most foodborne illnesses. In order for pathogens to grow in food, certain conditions must be present. By controlling the environment and conditions, even if potentially harmful bacteria are present in the unprepared or raw food, they will not be able to survive, grow, and multiply, causing illness.
There are six factors that affect bacterial growth, which can be referred to by the mnemonic FATTOM:
Each of these factors contributes to bacterial growth in the following ways:
Foods that have the FATTOM conditions are considered potentially hazardous foods (PHFs). PHFs are those foods that are considered perishable. That is, they will spoil or “go bad” if left at room temperature. PHFs are foods that support the growth or survival of disease-causing bacteria (pathogens) or foods that may be contaminated by pathogens.
Generally, a food is a PHF if it is:
Table 2 identifies common foods as either PHF or non-PHF.
PHF | Non-PHF |
Chicken, beef, pork, and other meats | Beef jerky |
Pastries filled with meat, cheese, or cream | Bread |
Cooked rice | Uncooked rice |
Fried onions | Raw onions |
Opened cans of meat, vegetables, etc. | Unopened cans of meat, vegetables, etc. (as long as they are not marked with “Keep Refrigerated”) |
Tofu | Uncooked beans |
Coffee creamers | Cooking oil |
Fresh garlic in oil | Fresh garlic |
Fresh or cooked eggs | Powdered eggs |
Gravy | Flour |
Dry soup mix with water added | Dry soup mix |
Table 2. Common PHF and non-PHFs
One of the most important factors to consider when handling food properly is temperature. Table 3 lists the most temperatures to be aware of when handling food.
Celsius | Fahrenheit | |
100° | 212° | Water boils |
60° | 140° | Most pathogenic bacteria are destroyed. Keep hot foods above this temperature. |
20° | 68° | Food must be cooled from 60°C to 20°C (140°F to 68°F) within two hours or less |
4° | 40° | Food must be cooled from 20°C to 4°C (68°F to 40°F) within four hours or less |
0° | 32° | Water freezes |
–18° | 0° | Frozen food must be stored at –18°C (0°F) or below |
Table 3. Important temperatures to remember
The range of temperature from 4°C and 60°C (40°F and 140°F) is known as the danger zone, or the range at which most pathogenic bacteria will grow and multiply.
Pathogen growth is controlled by a time-temperature relationship. To kill micro-organisms, food must be held at a sufficient temperature for a sufficient time. Cooking is a scheduled process in which each of a series of continuous temperature combinations can be equally effective. For example, when cooking a beef roast, the microbial lethality achieved at 121 minutes after it has reached an internal temperature of 54°C (130°F) is the same as if it were cooked for 3 minutes after it had reached 63°C (145°F).
Table 4 show the minimum time-temperature requirements to keep food safe. (Other time-temperature regimens might be suitable if it can be demonstrated, with scientific data, that the regimen results in a safe food.)
Critical control point | Temperature |
Refrigeration | |
| 4°C (40°F) or less |
Freezing | |
| –18°C (0°F) or less |
| –20°C (–4°F) for 7 days or, –35°C (–31°F) in a blast freezer for 15 hours |
Cooking | |
| Internal temperature of 74°C (165°F) for at least 15 seconds |
| Internal temperature of 54°C to 60°C (130°F to 140°F) |
| Internal temperature of 60°C to 65°C (140°F to 150°F) |
| Internal temperature of 65°C to 69°C (150°F to 158°F) |
| Internal temperature of 71°C (160°F) |
| Internal temperature of 74°C (165°F) for 15 seconds |
| 74°C (165°F) |
| 70°C (158°F) |
| 63°C (145°F) for 15 seconds |
| 70°C (158°F) |
Holding, cooling, and reheating | |
| 60°C (140°F) |
| 60°C to 20°C (140°F to 68°F) within 2 hours and 20°C to 4°C (68°F to 40°F) within 4 hours |
| 74°C (165°F) for at least 15 seconds |
Table 4. Temperature control for PHFs
Figure 1 illustrates the top 10 improper food-handling methods and the percentage of foodborne illnesses they cause.
This section describes each food-handling practice outlined in the top 10 list and the ways to prevent each problem.
Many people think that once a food has been properly cooked, all disease-causing organisms (pathogens) have been killed. This is not true. Some pathogens can form heat-resistant spores, which can survive cooking temperatures. When the food begins cooling down and enters the danger zone, these spores begin to grow and multiply. If the food spends too much time in the danger zone, the pathogens will increase in number to a point where the food will make people sick. That is why the cooling process is crucial. Cooked food must be cooled from 60°C to 20°C (140°F to 70°F) in two hours or less, AND then from 20°C to 4°C (70°F to 40°F) in four hours or less.
Even in modern walk-in coolers, large cuts of meat will not cool down properly. Neither will whole poultry. Even large pots (4 L/1 gal. or more) of soup, stews, gravy, etc., can take a day or more to cool to 4°C (40°F). However, you can cool these foods down quickly by using one or more of the following methods depending on the type of food being cooled:
Advance preparation is the cause of many food-poisoning outbreaks, usually because food has been improperly cooled. Often, foods that are prepared well before serving spend too much time in the danger zone. This may happen for one or more of the following reasons:
To prevent problems of advance preparation:
Many people carry pathogens somewhere on or in their bodies without knowing it—in their gut, in their nose, on their hands, in their mouth, and in other warm, moist places. People who are carrying pathogens often have no outward signs of illness. However, people with symptoms of illness (diarrhea, fever, vomiting, jaundice, sore throat with a fever, hand infections, etc.) are much more likely to spread pathogens to food.
Another problem is that pathogens can be present in the cooked and cooled food that, if given enough time, can still grow. These pathogens multiply slowly but they can eventually reach numbers where they can make people sick. This means that foods that are prepared improperly, many days before serving, yet stored properly the entire time can make people sick.
Some pathogens are more dangerous than others (e.g., salmonella, E. coli, campylobacter). Even if they are only present in low numbers, they can make people very sick. A food handler who is carrying these kinds of pathogens can easily spread them to foods – usually from their hands. Ready-to-eat food is extra dangerous. Ready-to-eat food gets no further cooking after being prepared, so any pathogens will not be killed or controlled by cooking.
To prevent problems:
Many restaurants prepare some of menu items in advance or use leftovers in their hot hold units the next day. In both cases, the foods travel through the danger zone when they are cooled for storage and again when they are reheated.
Foods that are hot held before serving are particularly vulnerable to pathogens. In addition to travelling through the danger zone twice, even in properly operating hot hold units, the food is close to the temperature that will allow pathogens to grow.
To prevent problems:
Hot hold units are meant to keep hot foods at 60°C (140°F) or hotter. At or above this temperature, pathogens will not grow. However, a mistake in using the hot hold unit can result in foods being held in the super danger zone – between 20°C and 49°C (70°F and 120°F), temperatures at which pathogens grow very quickly.
To prevent problems:
We know that many raw foods often contain pathogens, yet certain foods are often served raw. While some people believe these foods served raw are “good for you,” the truth is that they have always been dangerous to serve or eat raw. Some examples include:
These foods have caused many food-poisoning outbreaks. Always remember: you cannot tell if a food contains pathogens just by look, taste, or smell.
To prevent problems:
Foods from approved sources are less likely to contain high levels of pathogens or other forms of contamination. Approved sources are those suppliers that are inspected for cleanliness and safety by a government food inspector. Foods supplied from unreliable or disreputable sources, while being cheaper, may contain high levels of pathogens that can cause many food-poisoning outbreaks.
Fly-by-night suppliers (trunk sales) often do not care if the product is safe to sell to you, but approved suppliers do! As well, many fly-by-night suppliers have obtained their product illegally (e.g., closed shellfish fisheries, rustled cattle, poached game and fish) and often do not have the equipment to properly process, handle, store, and transport the food safely.
Of particular concern is seafood from unapproved sources. Seafood, especially shellfish, from unapproved sources can be heavily contaminated with pathogens or poisons if they have been harvested from closed areas.
To prevent problems:
Using leftovers has been the cause of many outbreaks of food poisoning because of improper cooling and reheating (of “hot” leftovers). Leftovers that are intended to be served hot pass through the danger zone twice (during the initial cooling of the hot food and when reheating). Those leftovers intended to be served without reheating, or as an ingredient in other foods (e.g., sandwich filler), go through the danger zone during cooling and then, when being prepared and portioned, often stay in the danger zone for another long period. The time in the danger zone adds up unless the food is quickly cooled and then quickly reheated (if being served hot), or kept cold until serving (if not being served hot).
Contamination can also occur with leftover foods when they are stored in the cooler. Improperly stored leftovers can accidentally be contaminated by raw foods (e.g., blood dripping from a higher shelf).
To prevent problems:
You can expect certain foods to contain pathogens, especially raw meat, raw poultry, and raw seafood. Use extreme caution when you bring these foods into your kitchen. Cross-contamination happens when something that can cause illness (pathogens or chemicals) is accidentally put into a food where not previously found. This can include, for example, pathogens from raw meats getting into ready-to-eat foods like deli meats. It can also include nuts (which some people are very allergic to) getting into a food that does not normally have nuts (e.g., tomato sauce).
To prevent problems:
Proper cooking is one of the best means of making sure your operation does not cause a food-poisoning outbreak. Proper cooking kills all pathogens (except spores) or at least reduces their numbers to a point where they cannot make people sick. Inadequate cooking is often done by accident: for example, cooking still-frozen poultry or meat; attempting to cook a stuffed bird using the same time and temperature as an unstuffed bird; using an inexperienced cook.
To prevent problems:
HACCP is an operation system that ensures that as many precautions as possible are undertaken to eliminate, minimize, or prevent any kind of contamination. HACCP identifies critical control points that relate to all transportation, handling, preparation, service, and storage of food products.
Receiving, storage, and preparation are all important sections of a food safety flow chart, and receiving of products is your first step when developing a flow chart. The following are important elements to consider when receiving products in general.
Each group of food, whether dry foods, dairy products, fresh produce, or meats, requires a slightly different procedure. No matter what the product type, the principal component in a receiving procedure is accuracy. Any carelessness or half-hearted attempts at checking the delivery will render the whole process useless.
Dry foods or goods are usually shipped in cartons, bags, cases, or pails. Count the pieces and check that the number corresponds with what is listed on the invoice.
If a carton is damaged, check the contents carefully. Pay particular attention to signs of leakage in cartons that contain products in jars or bottles. It is extremely difficult to get credit at a later date for products stored in glass jars or bottles that have broken. In addition, visually check bags and pails for damage or leakage.
If sealed cartons show evidence of having been opened, check the contents. All unsealed or obviously repacked cartons should be checked to verify what they contain. Do not sign the invoice if there is any doubt about quantity, quality, or damage until you or your supervisor has cleared up the problem with the shipper.
Canned goods are delivered in cases or cartons. Do a count and a quality check of the cans.
The two most common types of damage to cans are swelling and large dents. If cans are swollen or bulging, it means the food has spoiled and must not be used. If the cans have large dents, seams may have split and the food may be contaminated. Again, the canned product is unsafe to use and should be sent back to the supplier. If a whole case of canned goods is unacceptable, the local health authority should be notified.
Dairy products are perishable and do not store long. Check the best-before date on each container, which should be at least a week after the receiving date.
As with dry foods, compare the number of items received with the invoice and check all items for damage and leakage.
Produce is delivered in bags, cases, or cartons. Count the number of pieces, weigh items, and check for quality. Open any closed cases and cartons to check the produce for ripeness, freshness, and other signs of quality.
When there are mistakes in delivery or an unacceptable quality of food has been received, you should insist that the supplier pick up the item and issue a credit.
Fresh meat is shipped in pieces and/or by weight. Count and weigh the fresh items. Check for leaking vacuum-packed (Cryovac) packages, and check the grade of the meat against the grade on the invoice. In addition, if specifications were given on the order form, confirm the cuts of meat do meet those specifications.
Fresh poultry and seafood should also be counted, weighed, and checked for quality.
Frozen products are often delivered in cases and cartons. Open the cases to count the items and to check for signs of freezer burn, torn wrappings, partial thawing, or other problems.
In summary, when receiving goods, remember:
A food service operation needs to have clearly defined storage areas and procedures for several reasons. First, by providing storage facilities it is possible to purchase supplies in quantities large enough quantities to get price breaks. Second, the ability to store supplies on the premises reduces the cost and time needed to order supplies and handle them upon delivery. Third, menu planning is easier when you are aware of the quality, quantity, and types of supplies that are on hand. If there is a run on a particular menu item, it is nice to know there are enough materials on hand to ensure that everyone who orders the item can be served.
In today’s market, many food service operations are reducing the amount of stock they keep on hand because storage is expensive. Not only does space need to be found but security needs to be tight. Many operators are willing to pay a bit extra to suppliers in order to avoid the headaches of keeping track of expensive items such as large quantities of high-quality meat, wines, and spirits.
Regardless, there still is a need for storing many types of supplies including dry foods, dairy products, frozen foods, produce, and fresh meats. Storage areas for such items often have design requirements that must be built into the space in order to efficiently handle the specific types of supplies.
The storeroom for dry foods should be located near the receiving area and close to the main kitchen. Unfortunately, the storeroom for dry foods is often an afterthought in food service facility designs, and the area designated for storage is sometimes in an inconvenient location.
No matter where the location, there are several essential points to be observed in the care and control of the dry storeroom.
The refrigerator, whether a walk-in or a standard upright, is an important component in planning the storage of food items. Most fresh foods must be stored in the refrigerator to delay their deterioration and decomposition. The most basic rule must be always followed: store raw products below, never above, your cooked or ready-to-eat products.
Keep foods 4°C (39°F) or colder, the safe temperature for refrigerated storage.
Here are some considerations to ensure that the refrigerator does not break down and risk spoiling food:
There are also several general rules that all personnel using the refrigerator should follow:
Although lack of time and personnel shortages often make it difficult to observe these rules, it is imperative that they be followed.
Dairy products must be stored in the refrigerator at temperatures of 2°C to 4°C (36° to 39°F). Follow these guidelines:
Most produce is stored in the refrigerator at 2° to 4°C (36° to 39°F) to ensure freshness and to prevent rapid deterioration. There are, however, a number of exceptions, including potatoes and bananas, which should be stored at higher temperatures.
Keep these factors in mind when storing produce:
These items are the most difficult to store and the most expensive food items sold by the restaurant. When storing meats, poultry, and seafood items, remember the critical control point.
Keep foods 4°C (39°F) or colder, the safe temperature for refrigerated storage.
Keep these factors in mind when storing fresh meats, poultry, and produce:
Frozen foods should be stored at –18°C (0°F) or lower. If the temperature rises above –18°C, food can become discoloured and lose vitamin content. Lowering the temperature after it has risen does not correct the damage.
Frozen food must be kept at –18°C or lower to maintain its quality.
Keep these factors in mind when storing frozen foods:
The primary purpose of proper storage is to prevent food from spoiling. There are three main agents that cause food to deteriorate: moulds, yeast, and bacteria. Although they all act quickly on all foods containing moisture, each has its own characteristics.
Moulds are easily detected by their bluish-green colour and hair-like fungal structure. Mould commonly grows on bread, fruit, and cheese when these items are stored in a warm, dark, and slightly moist environment.
Yeast are plant micro organisms that are present in the air at all times. In order to grow and reproduce, yeasts require air, a source of food, and warm temperatures. Yeasts cause fruit and vegetables to ferment and rot by changing the natural sugars of the fruit into alcohol and carbon dioxide. This process of fermentation is used deliberately to make wine and beer, and the production of carbon dioxide during fermentation causes bread dough to rise. Yeasts can be detected by the formation of slime in the foods in which they are present.
Bacteria, although they are usually the first agents to begin the decomposition process, are the hardest to detect. Their presence usually only becomes noticeable after decomposition has advanced to the stage where unpleasant odours are produced.
When food is deteriorating, you will notice changes in its colour, odour, and taste. Examples include:
You should always know, without a doubt, that the food you serve your customers is safe. The only way you can be sure of this is by developing and following a food safety plan (FSP).
There are two types of food safety plans: process based and recipe based. A process-based FSP is often used when the same process is used for several different food items, or when menu items change regularly, such as on a daily special sheet. For example, the process for cooking pork chops and chicken breasts is very similar, as is the process for cooking bacon and sausages. A process-based food safety plan for the station preparing these items will ensure the steps to food safety are being followed.
Whether the FSP is process based or recipe based, the seven basic steps for creating one are the same. This section leads you through these steps by using a basic recipe and turning it into a food safety plan.
SAMPLE RECIPE: BEEF STEW
Ingredients | Weights and Measures |
Stewing beef (pre-cooked) | 2.5 kilograms |
Beef stew base, beef consommé, beef gravy | 1 can (each) |
Vegetables (frozen) | 2 packages |
Seasoning | 1 packet |
Water | 5 litres |
PREPARING
COOKING
SERVING AND HOLDING
COOLING
REHEATING
If the answer is yes to any of the questions in the list above, then the menu item has a food safety hazard that must be controlled.
Now let’s apply this to the beef stew recipe.
Beef stew is a PHF. The main hazards with this menu item would be:
In Step 1 you found the food safety hazards in a specific menu item that must be controlled. Now you must find the steps in the food preparation process where these hazards can best be controlled. (These steps are called critical control points.)
The critical control point is the “kill step” where the bacteria are either killed by cooking or are controlled to prevent or slow their growth (such as by proper hot holding or rapid cooling). Cooking, cooling, hot holding, and reheating are always critical control points. For ready-to-eat foods (e.g., sandwiches, salads), all steps where hands touch foods are critical control points.
Highlight the critical control points in your recipe or flow chart of the menu item by underlining them or highlighting them with a marker.
Here is the same recipe with the critical control points identified:
SAMPLE RECIPE: BEEF STEW (with critical control points identified)
Ingredients | Weights and Measures |
Stewing beef (pre-cooked) | 2.5 kilograms |
Beef stew base, beef consommé, beef gravy | 1 can (each) |
Vegetables (frozen) | 2 packages |
Seasoning | 1 packet |
Water | 5 litres |
PREPARING
COOKING (critical control point)
SERVING AND HOLDING (critical control point)
COOLING (critical control point)
REHEATING (critical control point)
Once you have identified the food safety hazards and where to control them (the critical control points), you need to set limits or procedures to control the hazard at each critical control point. This includes identifying minimum cooking temperature/times, maximum time to cool foods , minimum hot hold temperatures, etc.
You can incorporate most control procedures or limits right onto your recipe cards. Now look at the beef stew recipe showing both the critical control points and critical limits. You will see that the cooking temperature and time, the hot hold temperature, the cooling temperatures and times, and the reheating temperature and times (the critical control points) have the limits written right into the recipe.
SAMPLE RECIPE: BEEF STEW (with critical control points and critical limits identified)
Ingredients | Weights and Measures |
Stewing beef (pre-cooked) | 2.5 kilograms |
Beef stew base, beef consommé, beef gravy | 1 can (each) |
Vegetables (frozen) | 2 packages |
Seasoning | 1 packet |
Water | 5 litres |
PREPARING
COOKING (critical control point)
SERVING AND HOLDING (critical control point)
COOLING (critical control point)
REHEATING (critical control point)
You have now set critical limits for each critical control point. Next you want to make sure the limits that you’ve set are actually being followed. To do this they must be checked regularly.
Make sure everyone in your operation knows their responsibilities for checking critical limits. Make it a part of their job description.
Workers must also know what to do if a process or step does not meet critical limits and what corrective action can be taken.
Problems happen when critical limits are not met. You must have a plan in place when a critical limit is not met. These procedures are called corrective actions.
Examples of corrective actions might include:
If you find a problem, correct it right away, and remember, If in doubt, throw it out!
Let’s again use the beef stew recipe and include corrective actions to take when critical limits are not met. In most cases, the corrective actions are common sense and can easily be incorporated into the recipe or flow chart. Also add any food safety steps that are important to keep in mind prior to and while preparing the recipe.
Once you have added the corrective actions and safety steps, you have a completed food safety plan for the beef stew recipe.
SAMPLE RECIPE: BEEF STEW (with critical control points, critical limits, and corrective actions identified)
Ingredients | Weights and Measures |
Stewing beef (pre-cooked) | 2.5 kilograms |
Beef stew base, beef consommé, beef gravy | 1 can (each) |
Vegetables (frozen) | 2 packages |
Seasoning | 1 packet |
Water | 5 litres |
PREPARING
COOKING (critical control point)
SERVING AND HOLDING (critical control point)
COOLING (critical control point)
REHEATING (critical control point)
Remember these safety steps:
Figure 2 shows in detail a process-based food safety plan flow chart. The plan identifies the critical control points and critical limits in the process for cooking and reheating hot foods and provides a monitoring step and corrective action to minimize risk at each of the critical control points.
Step | Hazards | Critical limits | Monitoring action | Corrective action |
Receiving raw meats and poultry Safety step | Bacterial growth during transportation Cross-contamination during transport Physical contamination during transport | Sourced from approved suppliers Remained colder than 4°C (39°F) during transport. Delivered in secure packaging | Ensure supplier is on approved list Check temperature of product and vehicle on delivery Ensure packaging is secure | Refuse delivery if any of the following are found:
|
Storing ingredients Safety step | Bacterial growth during storage Cross-contamination during storage | Stored between 0° and 4°C (32°F and 39°F) Raw meats and poultry are stored separately from each other and below ready-to-use or prepared foods | Check temperature of cooler twice each shift Monitor storage locations in cooler | If ingredients have been stored over 4°C (39°F) for less than 2 hours, move to a cooler at the correct temperature If ingredients have been stored over 4°C (39°F) for more than 2 hours, discard food If raw meats and poultry have been stored above ready to eat or prepared foods, modify storage procedures and discard any foods that have been contaminated |
Preparation Safety step | Cross-contamination by food handlers | Use clean hands Use sanitized utensils Do not work when sick | Visual observation Do not allow employees to work when sick | Follow proper handwashing procedures Provide sanitized utensils for preparation Send sick employees home |
Cooking Critical control point | Survival of pathogens during cooking process | Cook foods to a minimum of 74°C (165°F) | Measure and record internal temperature the end of the cooking time | If food has not reached 74°C (165°F), continue cooking until it reaches 74°C (165°F) |
Hot holding Critical control point | Bacterial growth following cooking process | Cover foods and hold hotter than 60°C (140°F) | Check temperature of food every 2 hours | If food has been held below 60°C (140°F) for less than 2 hours, reheat food to 74°C (165°F), and transfer to a clean container. Increase temperature of storage equipment to above 60°C (140°F) Reheat food only once If food has been held at below 60°C (140°F) for more than 2 hours, discard food |
Serving Critical control point | Cross-contamination by servers | Use clean hands Use sanitized utensils Do not work when sick | Visual observation Do not allow employees to work when sick | Follow proper handwashing procedures Provide sanitized utensils for serving Send sick employees home |
Figure 2. Process-based food safety plan: hot entrée station (hot entrée items: chicken cacciatore, beef bourguignon, turkey tetrazzini)
You and your workers are now taking corrective actions when critical limits are not met. To make sure that the controls are working, you have to keep records of the checks that are being done, and any corrective actions that have been taken
A regular review of these records will quickly tell you if your controls are working and if your workers are handling the foods properly. If your records show a problem, fix it right away.
At least once a year you should check your food safety plan to make sure it is working and is complete. Verify with your environmental health officer that your plan is appropriate. Questions to ask yourself can include:
If the answer is yes to any of these questions, you probably need to adjust your food safety plan.
Maintaining a clean work environment is critical in preventing foodborne illness. Bacteria can grow on unsanitary surfaces and then contaminate food. Just because a work surface looks clean does not mean that it is sanitary. Always ensure that you clean and sanitize a work area before starting to prepare food.
Cleaning with soap and other detergents is just one step of the cleaning procedure. It is also necessary to sanitize. Cleaning will remove any dirt or grease, but will not necessarily kill any bacteria or other pathogens. Only a sanitizer will kill bacteria and ensure the area is safe for food preparation. Leading sanitizers used in the food service industry are chlorine solutions (bleach), quaternary solutions (quats), and iodine. Use these materials according to the manufacturer’s instructions that accompany the product and that are found on the material safety data sheet (MSDS) using the appropriate personal protective equipment.
A sanitation plan is important in any food service preparation area. It ensures that all surfaces are cleaned on a regular basis and reduces the risks of transferring bacteria or other pathogens from an unclean surface to clean equipment such as cutting boards or tools. A sanitation plan has two components:
Figure 3 shows a sample daily and weekly cleaning schedule for a restaurant.
Item | Frequency | Method | Responsibility | Supervisor initial |
Upright mixer |
|
| Pastry cooks | ________ |
Meat slicer |
|
| Garde manger | ________ |
Item | Frequency | Method | Responsibility | Supervisor initial |
Dry storage | Monday after dinner service |
| Grill cook | ________ |
Reach-in freezer | Tuesday after dinner dervice |
| Garde manger | ________ |
Figure 3. Daily and weekly cleaning schedule for a restaurant
Effective dishwashing ensures that all equipment is sanitary and ready for use when required. Using soiled or dirty china is not only dangerous, but it will tell customers that the operator as little or no regard for customer safety. Table 2.5 shows the proper procedures for both manual and automatic dishwashing.
Before washing, scrape dishes and pre-soak any items with hard to remove residue. Then follow the procedure in Table 5, depending on whether you are using a high- or low-temperature dishwasher or you are washing dishes manually.
Step | Manual | High-temperature dishwasher | Low-temperature dishwasher or glass washer |
Wash | Use a commercial detergent and 45°C (113°F) water. | Wash cycle must reach at least 60°C (140°F). | Wash cycle must reach at least 60°C (140°F). |
Rinse | Rinse in clean hot water. | Hot rinse cycle. | Warm or cold rinse cycle with sanitizer. |
Sanitize | Sanitize for 2 minutes with an approved sanitizing solution (50 ppm chlorine or 12.5 ppm iodine). | Rinse cycle must reach at least 82°C (180°F) for at least 10 seconds. | Final rinse must have concentration of 50 ppm chlorine or 12.5 ppm iodine. |
Dry | Drain boards should be sanitized and sloped for drainage. Never towel dry. | Drain boards should be sanitized and sloped for drainage Never towel dry. | Drain boards should be sanitized and sloped for drainage Never towel dry. |
Table 5. Dishwashing procedures
Most kitchen equipment is intended to be disassembled for cleaning. Refer to the manufacturer’s instructions and training provided by your employer or instructor on how to do this safely. Some equipment is intended to be cleaned in place. This should be identified in your sanitation plan and cleaning schedule.
All equipment must be routinely cleaned and inspected. Older equipment may have nooks and crannies where dirt and bacteria can hide, which can be difficult to clean effectively. Proper cleaning procedures must be established and followed at all times with regular review to ensure that procedures are working. If equipment is replaced or cleaning materials change, the process may have to be adjusted. If you notice any safety concerns with the equipment while cleaning it, such as a frayed cord, missing guard or loose parts, let your supervisor know immediately.
It is imperative for safe food-handling outcomes for all workers to be familiar with standard sanitation and hygiene practices. Figure 4 shows the cycles of transmission of micro-organisms. One of the basic principles is to break the cycle by avoiding cross-contamination, which can be achieved by ensuring personal hygiene practices are followed.
Proper personal hygiene is critical in any food service premise. Personal hygiene includes:
Proper and regular handwashing is a critical part of any food safety system. You must always wash your hands after:
The steps for proper handwashing are as follows:
1. Use the blank form, attached, to complete a food safety plan flow chart for a recipe or process of your choice. Remember to follow all of the seven steps when completing your flow chart.
2. Use the blank form, attached, to complete a cleaning schedule for your station or work area.
BC Centre for Disease Control. (n.d.). Retrieved May 5, 2015, from http://www.bccdc.ca
FOODSAFE. (n.d.). Retrieved April 21, 2015, from http://http://www.foodsafe.ca
Food Safety Definitions for Food Vendors at Special Events. (n.d.). Retrieved April 22, 2015, from http://www.halton.ca/cms/one.aspx?portalId=8310&pageId=37644
Hazard Analysis Critical Control Point (HACCP). (2012, August 30). Retrieved April 22, 2015, from http://www.inspection.gc.ca/about-the-cfia/newsroom/food-safety-system/haccp/eng/1346306502207/1346306685922
Public Health Act. (n.d.). Retrieved April 21, 2015, from http://www.bclaws.ca/civix/document/id/complete/statreg/08028_01
This series of Open Textbooks has been developed collaboratively on behalf of the BC Provincial Cook Articulation Committee and go2HR. The committee would like to thank the following individuals for their contributions to developing, editing and reviewing these texts:
Wendy Anderson | Selkirk College |
Martin Barnett | Vancouver Island University |
David Bensmiller | University of the Fraser Valley |
Fionna Chong | Vancouver Community College |
Ron Christian | College of New Caledonia |
Darren Clay | Pacific Institute of Culinary Arts |
Tim Curnow | College of the Rockies |
Corey Davison | Thompson Rivers University |
Michael French | Northern Lights College |
Rita Gower | Vancouver Island University |
Dennis Green | go2HR |
Linda Halingten | go2HR |
Ken Harper | Vancouver Island University |
Ken Jakes | Jakes and Associates Meat Industry Consultants |
Kimberly Johnstone | Thompson Rivers University |
Zito Kare | go2HR |
Stuart Klassen | Okanagan College |
Philip Lie | Vancouver Community College |
Christine Lilyholm | North Island College |
Tobias Macdonald | Vancouver Community College |
Robyn Mitz | Selkirk College |
Gilbert Noussitou | Camosun College |
Harry Pringle | Selkirk College |
Tony Rechsteiner | College of New Caledonia |
Debbie Shore | Vancouver Island University |
Ysabel Sukic | Vancouver Community College |
Brad Vennard | Northwest Community College |
Luzia Zemp | Vancouver Community College |