34. A solid is in the form of a cylinder with hemispherical ends on both sides. The height and the
diameter of cylinder are 10 cm and 7 cm respectively. Find the volume of the solid.
Answers
Answer:
Step-by-step explanation:
Given:-
A cylinder with hemispherical ends on both the sides.
Diameter of the cylinder = Diameter of both the hemispheres, d = 7 cm
Radius, r = cm.
Height of the cylinder, h = 10cm
Required volume of the solid is Volume of cylinder + 2(Volume of hemisphere)
Volume of cylinder:-
Volume = × × 10
11 × 7 × 5
385
Volume of hemisphere:-
Now,
Required volume:-
Volume of cylinder + 2(Volume of hemisphere)
385 + 2(89.9)
385 + 179.8
Answer:
tep-by-step explanation:
\huge\underline\mathtt{\red{Let's \ do \ it !!}}Let′s do it!!
Given:-
\implies⟹ A cylinder with hemispherical ends on both the sides.
\implies⟹ Diameter of the cylinder = Diameter of both the hemispheres, d = 7 cm
\implies⟹ Radius, r = \frac{7}{2}27 cm.
\implies⟹ Height of the cylinder, h = 10cm
\therefore∴ Required volume of the solid is Volume of cylinder + 2(Volume of hemisphere)
Volume of cylinder:-
\hookrightarrow↪ \Large\pi {r}^{2} hπr2h
\implies⟹ Volume = \frac{22}{7}722 × {\frac{7}{2}^{2}}272 × 10
\implies⟹ \frac{22}{7} \times \frac{7}{2} \times \frac{7}{2} \times 10722×27×27×10
\implies⟹ 11 × 7 × 5
\implies⟹ 385 {cm}^{3}cm3
Volume of hemisphere:-
\hookrightarrow↪ \Large \frac{2}{3} \pi {r}^{3}32πr3
\implies⟹ vol. = \frac{2}{3} \times \frac{22}{7} \times {( \frac{7}{2}) }^{3}vol.=32×722×(27)3
\implies⟹ \frac{2}{3} \times \frac{22}{7} \times \frac{343}{8}32×722×8343
\implies⟹ \frac{49 \times 11}{6} = 89.9 \: {cm}^{3} (approx.)649×11=89.9cm3(approx.)
Now,
Required volume:-
\implies⟹ Volume of cylinder + 2(Volume of hemisphere)
\implies⟹ 385 + 2(89.9)
\implies⟹ 385 + 179.8
\implies⟹ 564.8 \: {cm}^{3}564.8cm3
hope it helps uh