Ví dụ về việc sử dụng Austenitic structure trong Tiếng anh và bản dịch của chúng sang Tiếng việt
{-}
-
Colloquial
-
Ecclesiastic
-
Computer
The high percentage of nickel maintains an austenitic structure so that the alloy is ductile.
The austenitic structure also gives this grade excellent toughness, even down to cryogenic temperatures.
The high percentage of nickel maintains an austenitic structure so that the alloy is ductile.
The austenitic structure also gives these grades excellent toughness, even down to cryogenic temperatures.
They are magnetic but not as much as the ferritic,martensitic and PH types due to the 50% austenitic structure.
Manganese preserves an austenitic structure in the steel, like nickel, but at a lower cost.
Austenitic stainless steel, refers to the stainless steel with austenitic structure at room temperature.
Nickel stabilizes the austenitic structure and increases ductility, making stainless steel easier to form.
They are magnetic but not as much as the ferritic,martensitic and PH types due to the 50% austenitic structure.
The austenitic structure also gives these grades excellent toughness, even down to cryogenic temperatures.
Austenitic structures are totally non-magnetic and so a 100% austenitic stainless steel would have a permeability of 1.
The addition of certain other metals, such as manganese and nickel,can stabilize the austenitic structure, facilitating heat-treatment of low-alloy steels.
Austenitic structures are totally non-magnetic and so a 100% austenitic stainless steel would have a permeability of 1.
Recently, some resistant grades with as much as 6.5% Mo have been developed, but the chromium must be increased to 20% andthe nickel to 24% to maintain an austenitic structure.
They are made up of about 0.15% carbon,a 16% chromium and sufficient nickel and/or manganese to retain an austenitic structure at all temperatures from cryogenic to melting point of the alloy.
They contain a maximum of 0.15% carbon, a minimum of 16% chromium,and sufficient nickel and/or manganese to retain an austenitic structure at all temperatures from the cryogenic region to the melting point of the alloy.
They contain a maximum of 0.15% carbon(low carbon is important to the properties of stainless steel), a minimum of 16% chromium,and sufficient nickel and/or manganese to retain an austenitic structure at temperatures ranging from the cryogenic region to the melting point of the alloy.
Combination of properties given by austenitic and ferritic structure.
Combined with nitrogen, nickel, and manganese, the structure of austenitic stainless steel is similar to common steel.
As for other austenitic grades the structure gives 303 excellent toughness, although the sulphur in 303 reduces its toughness slightly.
The 300 series stainless steels,which are being considered here have an austenitic crystalline structure, which is face-centered cubic with four atoms in the unit cell for higher density.
However, if the crystal structure of an austenitic stainless steel is changed through work-hardening or special thermal treatment, then ferrite can form in some locations making the steel partially magnetic.
They are classified into martensitic, austenitic, and ferritic steels based on their crystalline structure.
Ferritic steels have a body-centered cubic(BCC) grain structure, but the austenitic range of stainless steels are defined by their face-centered cubic(FCC) crystal structure, which has one atom at each corner of the cube and one in the middle of each face.
In the extreme case of austenitic stainless steel, much higher alloy content makes this structure stable even at room temperature.
Based on their crystalline structure, they are further divided into three types such as ferritic, austenitic, and martensitic steels.
Austenitization changes the crystal structure of iron or iron-based material, such as steel, from ferric to austenitic.