A Petri dish (sometimes spelled "Petrie dish" and alternatively known as a Petri plate or cell-culture dish), named after the German bacteriologist Julius Richard Petri,[1][2] is a shallow cylindrical glass or plastic lidded dish that biologists use to culturecells[3] – such as bacteria – or small mosses.[4]
Modern Petri dishes usually feature rings and/or slots on their lids and bases so that when stacked, they are less prone to sliding off one another. Multiple dishes can also be incorporated into one plastic container to create a "multi-well plate". While glass Petri dishes may be reused after sterilization (via an autoclave or one hour's dry-heating in a hot-air oven at 160 °C, for example), plastic Petri dishes are often disposed of after experiments where cultures might contaminate each other.
Products Features+
Products information |
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Part No |
Size(cm) |
Material |
Package |
DDH6015 |
60*15 |
soda-lime glasses |
10pcs/box |
DDH9015 |
90*15 |
soda-lime glasses |
10pcs/box |
DDH12015 |
120*15 |
soda-lime glasses |
10pcs/box |
Technical Information+
Cell Culture
In microbiological and biochemical engineering studies, one almost always deals with a pure culture or a mixture of known cultures, except perhaps in wastewater treatment studies. Unless aseptic culture techniques are followed strictly, an originally pure culture will definitely become contaminated with other unwanted species. For illustrative purposes, an extraterrestrial who has never seen a human being simply cannot accurately study human behavior if the group of subjects to be observed includes, in addition to humans, monkeys, dogs, cats, and many more other "contaminants." The results of such a study will certainly be unreliable. Similarly, the use of a contaminated culture with unknown microorganisms will only lead to incredible results that are of little value. Thus, the isolation and maintenance of a pure culture is of utmost importance in many microbiological studies.
Plastic Properties
Type of Plastic | Type of Plastic | Type of Plastic | Type of Plastic | Type of Plastic | Type of Plastic |
---|---|---|---|---|---|
Maximum use temperature, C/F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F |
Maximum use temperature, C/F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F |
Maximum use temperature, C/F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F |
Maximum use temperature, C/F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F |
Maximum use temperature, C/F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F | 80°C/176°F |
CLS’ commitment+
FAQ+
As cells generally continue to divide in culture, they generally grow to fill the available area or volume. This can generate several issues:
Nutrient depletion in the growth media
Changes in pH of the growth media
Accumulation of apoptotic/necrotic (dead) cells
Cell-to-cell contact can stimulate cell cycle arrest, causing cells to stop dividing, known as contact inhibition.
Cell-to-cell contact can stimulate cellular differentiation.
Genetic and epigenetic alterations, with a natural selection of the altered cells potentially leading to overgrowth of abnormal, culture-adapted cells with decreased differentiation and increased proliferative capacity.
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