355100 A sonometer wire resonates with a given tuning fork forming five antinodes in the presence of mass $9kg$. When this mass is replaced by a mass $M$, the wire resonates with the same tuning fork forming three antinodes for the same positions of the bridges. The value of $M$ is:

355101 A sonometer wire of length $114cm$ fixed at both the ends. Where should the two bridges be placed so as to divide the wire into three segments whose fundamental frequencies are in the ratio $1:3:4$ ?

355102 The given diagram shows three light pieces of paper placed on a wire that is stretched over two supports, $Q$ and $R$, a distance $4x$ apart. When the wire is made to vibrate at a particular frequency, all the pieces of paper, except the middle one, fall off the wire. Which of the following could be the wavelength of the vibration?

355103 A brick is hung from a sonometer wire. If the brick is immersed in oil, then frequency of the wire will

355104 The total length of a sonometer wire between fixed ends is $110cm$. Two bridges are placed to divide the length of wire in ratio $6:3:2$. The tension in the wire is $400N$ and the mass per unit length is $0.01kg/m$. What is the minimum common frequency with which three parts can vibrate?

355100 A sonometer wire resonates with a given tuning fork forming five antinodes in the presence of mass $9kg$. When this mass is replaced by a mass $M$, the wire resonates with the same tuning fork forming three antinodes for the same positions of the bridges. The value of $M$ is:

355101 A sonometer wire of length $114cm$ fixed at both the ends. Where should the two bridges be placed so as to divide the wire into three segments whose fundamental frequencies are in the ratio $1:3:4$ ?

355102 The given diagram shows three light pieces of paper placed on a wire that is stretched over two supports, $Q$ and $R$, a distance $4x$ apart. When the wire is made to vibrate at a particular frequency, all the pieces of paper, except the middle one, fall off the wire. Which of the following could be the wavelength of the vibration?

355103 A brick is hung from a sonometer wire. If the brick is immersed in oil, then frequency of the wire will

355104 The total length of a sonometer wire between fixed ends is $110cm$. Two bridges are placed to divide the length of wire in ratio $6:3:2$. The tension in the wire is $400N$ and the mass per unit length is $0.01kg/m$. What is the minimum common frequency with which three parts can vibrate?

355100 A sonometer wire resonates with a given tuning fork forming five antinodes in the presence of mass $9kg$. When this mass is replaced by a mass $M$, the wire resonates with the same tuning fork forming three antinodes for the same positions of the bridges. The value of $M$ is:

355101 A sonometer wire of length $114cm$ fixed at both the ends. Where should the two bridges be placed so as to divide the wire into three segments whose fundamental frequencies are in the ratio $1:3:4$ ?

355102 The given diagram shows three light pieces of paper placed on a wire that is stretched over two supports, $Q$ and $R$, a distance $4x$ apart. When the wire is made to vibrate at a particular frequency, all the pieces of paper, except the middle one, fall off the wire. Which of the following could be the wavelength of the vibration?

355103 A brick is hung from a sonometer wire. If the brick is immersed in oil, then frequency of the wire will

355104 The total length of a sonometer wire between fixed ends is $110cm$. Two bridges are placed to divide the length of wire in ratio $6:3:2$. The tension in the wire is $400N$ and the mass per unit length is $0.01kg/m$. What is the minimum common frequency with which three parts can vibrate?

355100 A sonometer wire resonates with a given tuning fork forming five antinodes in the presence of mass $9kg$. When this mass is replaced by a mass $M$, the wire resonates with the same tuning fork forming three antinodes for the same positions of the bridges. The value of $M$ is:

355101 A sonometer wire of length $114cm$ fixed at both the ends. Where should the two bridges be placed so as to divide the wire into three segments whose fundamental frequencies are in the ratio $1:3:4$ ?

355102 The given diagram shows three light pieces of paper placed on a wire that is stretched over two supports, $Q$ and $R$, a distance $4x$ apart. When the wire is made to vibrate at a particular frequency, all the pieces of paper, except the middle one, fall off the wire. Which of the following could be the wavelength of the vibration?

355103 A brick is hung from a sonometer wire. If the brick is immersed in oil, then frequency of the wire will

355104 The total length of a sonometer wire between fixed ends is $110cm$. Two bridges are placed to divide the length of wire in ratio $6:3:2$. The tension in the wire is $400N$ and the mass per unit length is $0.01kg/m$. What is the minimum common frequency with which three parts can vibrate?

355100 A sonometer wire resonates with a given tuning fork forming five antinodes in the presence of mass $9kg$. When this mass is replaced by a mass $M$, the wire resonates with the same tuning fork forming three antinodes for the same positions of the bridges. The value of $M$ is:

355101 A sonometer wire of length $114cm$ fixed at both the ends. Where should the two bridges be placed so as to divide the wire into three segments whose fundamental frequencies are in the ratio $1:3:4$ ?

355102 The given diagram shows three light pieces of paper placed on a wire that is stretched over two supports, $Q$ and $R$, a distance $4x$ apart. When the wire is made to vibrate at a particular frequency, all the pieces of paper, except the middle one, fall off the wire. Which of the following could be the wavelength of the vibration?

355103 A brick is hung from a sonometer wire. If the brick is immersed in oil, then frequency of the wire will

355104 The total length of a sonometer wire between fixed ends is $110cm$. Two bridges are placed to divide the length of wire in ratio $6:3:2$. The tension in the wire is $400N$ and the mass per unit length is $0.01kg/m$. What is the minimum common frequency with which three parts can vibrate?