Bernoullis applications in hindi || Bernoullis theorem in hindi || Bernoullis in hindi

#sscje #mechanical #gearinstitute
Click here to download our app
edumartin.page...
Join telegram channel
t.me/gearinsti...
JE की तयारी के लिए App Download करें
edumartin.page...
Join our whats app channel
whatsapp.com/c...
ALL IN 1 AE/JE EXAM LIVE CLASSES (TECHNICAL +NON TECHNICAL) (1 YEAR VALDITY)
bit.ly/3FOEcme
ALL IN 1 AE/JE EXAM LIVE CLASSES (TECHNICAL +NON TECHNICAL) (2 YEAR VALDITY)
bit.ly/3uPICTG
ALL IN 1 AE/JE EXAM LIVE CLASSES (TECHNICAL ONLY) (1Year Validity)
bit.ly/3ZR9Pne
ALL IN 1 AE/JE EXAM LIVE CLASSES (TECHNICAL ONLY) (2Year Validity)
bit.ly/3O6sndO
SSC JE RECORDED COURSE (2YEAR VALIDITY).
bit.ly/3CSOuzH
SSC JE RECORDED COURSE (1YEAR VALDITY)
bit.ly/3W9LVjv
Mechanical MCQ Book written by Er.Harvinder Singh
Order your copy click here
bit.ly/MCQBOOK
Strength of material Full Syllabus
bit.ly/38jyEBX
Fluid Mechanics Full Syllabus
bit.ly/3uNsG3z
Theory of machine Full Syllabus
bit.ly/3xRPQJk
Thermodynamics Full Syllabus
bit.ly/3k7lXws
Material Science full syllabus
bit.ly/38pU5Bf
Machine Design Full Syllabus
bit.ly/3k7lr1u
Automobile Engineering Full Syllabus
bit.ly/3wMMm8S
Refrigeration and air conditioning Full Syllabus
bit.ly/3Q2tHyy
Power plant engineering
bit.ly/3kGoj9v
Workshop Technology
bit.ly/3QGsNIo
Industrial Engineering
bit.ly/3vvyyjq
In this Physics video in Hindi we explained Bernoulli's Theorem for class 11. We derived the
formula for Bernoulli's Theorem which states that the sum of pressure, kinetic energy per unit volume and potential energy per unit volume for a flowing fluid is constant.
In fluid dynamics, Bernoulli's principle states that an increase in the speed of a fluid occurs simultaneously with a decrease in static pressure or a decrease in the fluid's potential energy.[1](Ch.3)[2](§ 3.5) The principle is named after Daniel Bernoulli who published it in his book Hydrodynamica in 1738.[3] Although Bernoulli deduced that pressure decreases when the flow speed increases, it was Leonhard Euler who derived Bernoulli's equation in its usual form in 1752.[4][5] The principle is only applicable for isentropic flows: when the effects of irreversible processes (like turbulence) and non-adiabatic processes (e.g. heat radiation) are small and can be neglected.
Bernoulli's principle can be applied to various types of fluid flow, resulting in various forms of Bernoulli's equation; there are different forms of Bernoulli's equation for different types of flow. The simple form of Bernoulli's equation is valid for incompressible flows (e.g. most liquid flows and gases moving at low Mach number). More advanced forms may be applied to compressible flows at higher Mach numbers (see the derivations of the Bernoulli equation).
Bernoulli's principle can be derived from the principle of conservation of energy. This states that, in a steady flow, the sum of all forms of energy in a fluid along a streamline is the same at all points on that streamline. This requires that the sum of kinetic energy, potential energy and internal energy remains constant.[2](§ 3.5) Thus an increase in the speed of the fluid - implying an increase in its kinetic energy (dynamic pressure) - occurs with a simultaneous decrease in (the sum of) its potential energy (including the static pressure) and internal energy. If the fluid is flowing out of a reservoir, the sum of all forms of energy is the same on all streamlines because in a reservoir the energy per unit volume (the sum of pressure and gravitational potential ρ g h) is the same everywhere.[6](Example 3.5)
Bernoulli's principle can also be derived directly from Isaac Newton's Second Law of Motion. If a small volume of fluid is flowing horizontally from a region of high pressure to a region of low pressure, then there is more pressure behind than in front. This gives a net force on the volume, accelerating it along the streamline.[a][b][c]
Fluid particles are subject only to pressure and their own weight. If a fluid is flowing horizontally and along a section of a streamline, where the speed increases it can only be because the fluid on that section has moved from a region of higher pressure to a region of lower pressure; and if its speed decreases, it can only be because it has moved from a region of lower pressure to a region of higher pressure. Consequently, within a fluid flowing horizontally, the highest speed occurs where the pressure is lowest, and the lowest speed occurs where the pressure is highest.[10]