The definition of neutron stars. The location from where the neutrons come from.

Question

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Answer 1

Question

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos

The neutrinos emitted from the core taking remnants (gas and dust) during the collapsing of supernova leaving neutrons in the un-blasted core.

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A man slides two boxes up a slope. The two boxes A and B have a mass of 75 kg and 50 kg, respectively. (a) Draw the free body diagram (FBD) of the two crates. (b) Determine the tension in the cable that the man must exert to cause imminent movement from rest of the two boxes. Static friction coefficient USA = 0.25 HSB = 0.35 Kinetic friction coefficient HkA = 0.20 HkB = 0.25 M₁ = 75 kg MB = 50 kg P 35° Figure 3 B 200

Answer 2

Question

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos

The neutrinos emitted from the core taking remnants (gas and dust) during the collapsing of supernova leaving neutrons in the un-blasted core.

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Answer 3

Question

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos

The neutrinos emitted from the core taking remnants (gas and dust) during the collapsing of supernova leaving neutrons in the un-blasted core.

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Subscribe now to access step-by-step solutions to millions of textbook problems written by subject matter experts!

Answer 4

Question

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos

The neutrinos emitted from the core taking remnants (gas and dust) during the collapsing of supernova leaving neutrons in the un-blasted core.

Want to see more full solutions like this?

Subscribe now to access step-by-step solutions to millions of textbook problems written by subject matter experts!

Answer 5

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos

The neutrinos emitted from the core taking remnants (gas and dust) during the collapsing of supernova leaving neutrons in the un-blasted core.

Answer 6

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos

The neutrinos emitted from the core taking remnants (gas and dust) during the collapsing of supernova leaving neutrons in the un-blasted core.

Answer 7

Chapter 21, Problem 1Q

To determine

The definition of neutron stars.

The location from where the neutrons come from.

Answer 8

Expert Solution & Answer

Answer to Problem 1Q

A neutron star is a small, highly dense star which consists of highly compacted neutrons.

The neutrons come by fusion of electron and protons in the core of the supernova.

Answer 9

Expert Solution & Answer

Answer 10

Expert Solution & Answer

Answer 11

Explanation of Solution

Introduction:

When the core of a supernova of Type II consists of extremely closely packed neutrons in their final stages and if the core remains, after blasting its outer layers back to interstellar space, it becomes a neutron star. It cannot be compressed further.

The highly compact neutron star has the density of an atomic nucleus and its size is very small. A neutron star has a powerful magnetic field and it rotates rapidly. Mass of a neutron star is less than 3M⊙

The core of massive a star above 8M⊙ became denser due to photodisintegration. Then the negatively charged electrons and positively charged protons were unable to stand against the gravity of the core and combined to produce neutrons and neutrinos making the core further dense.

e−+p=n+ν

e-=electronsp=protonsn=neutronsν=neutrinos