Discuss the megascopic and microscopic characters of granite and basalt with the help of neat well labelled diagrams.
See Answer →Describe various mechanisms of magmatic differentiation.
See Answer →Discuss the different types of textures found in igneous rocks with the help of neat well labelled diagrams.
See Answer →Phase Rule
See Answer →Extraterrestrial Rocks
See Answer →State whether the following statements are True or False. Justify your answers.
a) The sequence is convergent in
under the discrete metric on
.
b) A subset in a metric space is compact if it is closed.
c) Continuous image of a path connected space is path connected.
d) The second derivative of a linear map from to
never vanishes.
e) If for all
, then
.
Let A be any set in R , show that where
denotes the outer measure.
Consider Z and let denote the class of subsets of Z , given by
either A is finite or
is finite}. Check whether
is a
algebra or not.
Which of the following sets are connected sets in 2 R with the metric given against it?
Justify your answer.
i) under the standard metric.
ii) under the discrete metric.
Which of the following sets are totally bounded? Give reasons for your answer. Are they compact?
i) 2N in (N,d) where d is the discrete metric.
ii) in (R,d) where d is the Euclidean metric.
Let Q be the set of rationals with the metric defined on Q by , defined by
. Show that
is Cauchy sequence in Q, but does not converge in Q and
is a Cauchy sequence Q which converges in Q to the limit 0 .
Show that the components of a metric space is either identical or pairwise disjoint.
See Answer →Give an example of the following with justification
i) A vector-valued function which is not differentiable at
.
ii) A function which is Legesgue measurable on R.
Let A be a compact non-empty subset of a metric space and let F be a closed subset of X such that
, then show that
where
.
Find the directional derivative of the function defined by
at
in the direction
.
Use the method of Lagrange’s multiplier method to find the shortest possible distance from the ellipse to the line
.