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1 | 7905-7908 | adenine (A), guanine (G), cytosine (C)
and thymine (T) RNA also contains four bases, the first three bases are
same as in DNA but the fourth one is uracil (U) A unit formed by the attachment of a base to 1¢ position of sugar is
known as nucleoside In nucleosides, the sugar carbons are numbered
as 1¢, 2¢, 3¢, etc |
1 | 7906-7909 | RNA also contains four bases, the first three bases are
same as in DNA but the fourth one is uracil (U) A unit formed by the attachment of a base to 1¢ position of sugar is
known as nucleoside In nucleosides, the sugar carbons are numbered
as 1¢, 2¢, 3¢, etc in order to distinguish these from the bases
(Fig |
1 | 7907-7910 | A unit formed by the attachment of a base to 1¢ position of sugar is
known as nucleoside In nucleosides, the sugar carbons are numbered
as 1¢, 2¢, 3¢, etc in order to distinguish these from the bases
(Fig 10 |
1 | 7908-7911 | In nucleosides, the sugar carbons are numbered
as 1¢, 2¢, 3¢, etc in order to distinguish these from the bases
(Fig 10 5a) |
1 | 7909-7912 | in order to distinguish these from the bases
(Fig 10 5a) When nucleoside is linked to phosphoric acid at 5¢-position
of sugar moiety, we get a nucleotide (Fig |
1 | 7910-7913 | 10 5a) When nucleoside is linked to phosphoric acid at 5¢-position
of sugar moiety, we get a nucleotide (Fig 10 |
1 | 7911-7914 | 5a) When nucleoside is linked to phosphoric acid at 5¢-position
of sugar moiety, we get a nucleotide (Fig 10 5) |
1 | 7912-7915 | When nucleoside is linked to phosphoric acid at 5¢-position
of sugar moiety, we get a nucleotide (Fig 10 5) 10 |
1 | 7913-7916 | 10 5) 10 5 |
1 | 7914-7917 | 5) 10 5 2 Structure
of Nucleic
Acids
Fig |
1 | 7915-7918 | 10 5 2 Structure
of Nucleic
Acids
Fig 10 |
1 | 7916-7919 | 5 2 Structure
of Nucleic
Acids
Fig 10 5: Structure of (a) a nucleoside and (b) a nucleotide
Nucleotides are joined together by phosphodiester linkage between
5¢ and 3¢ carbon atoms of the pentose sugar |
1 | 7917-7920 | 2 Structure
of Nucleic
Acids
Fig 10 5: Structure of (a) a nucleoside and (b) a nucleotide
Nucleotides are joined together by phosphodiester linkage between
5¢ and 3¢ carbon atoms of the pentose sugar The formation of a typical
dinucleotide is shown in Fig |
1 | 7918-7921 | 10 5: Structure of (a) a nucleoside and (b) a nucleotide
Nucleotides are joined together by phosphodiester linkage between
5¢ and 3¢ carbon atoms of the pentose sugar The formation of a typical
dinucleotide is shown in Fig 10 |
1 | 7919-7922 | 5: Structure of (a) a nucleoside and (b) a nucleotide
Nucleotides are joined together by phosphodiester linkage between
5¢ and 3¢ carbon atoms of the pentose sugar The formation of a typical
dinucleotide is shown in Fig 10 6 |
1 | 7920-7923 | The formation of a typical
dinucleotide is shown in Fig 10 6 Rationalised 2023-24
299
Biomolecules
A simplified version of nucleic acid chain is as shown below |
1 | 7921-7924 | 10 6 Rationalised 2023-24
299
Biomolecules
A simplified version of nucleic acid chain is as shown below Fig |
1 | 7922-7925 | 6 Rationalised 2023-24
299
Biomolecules
A simplified version of nucleic acid chain is as shown below Fig 10 |
1 | 7923-7926 | Rationalised 2023-24
299
Biomolecules
A simplified version of nucleic acid chain is as shown below Fig 10 6: Formation of a dinucleotide
Fig |
1 | 7924-7927 | Fig 10 6: Formation of a dinucleotide
Fig 10 |
1 | 7925-7928 | 10 6: Formation of a dinucleotide
Fig 10 7: Double strand helix structure for DNA
Information regarding the sequence of nucleotides in the chain
of a nucleic acid is called its primary structure |
1 | 7926-7929 | 6: Formation of a dinucleotide
Fig 10 7: Double strand helix structure for DNA
Information regarding the sequence of nucleotides in the chain
of a nucleic acid is called its primary structure Nucleic acids
have a secondary structure also |
1 | 7927-7930 | 10 7: Double strand helix structure for DNA
Information regarding the sequence of nucleotides in the chain
of a nucleic acid is called its primary structure Nucleic acids
have a secondary structure also James Watson and Francis Crick
gave a double strand helix structure for DNA (Fig |
1 | 7928-7931 | 7: Double strand helix structure for DNA
Information regarding the sequence of nucleotides in the chain
of a nucleic acid is called its primary structure Nucleic acids
have a secondary structure also James Watson and Francis Crick
gave a double strand helix structure for DNA (Fig 10 |
1 | 7929-7932 | Nucleic acids
have a secondary structure also James Watson and Francis Crick
gave a double strand helix structure for DNA (Fig 10 7) |
1 | 7930-7933 | James Watson and Francis Crick
gave a double strand helix structure for DNA (Fig 10 7) Two
nucleic acid chains are wound about each other and held together
by hydrogen bonds between pairs of bases |
1 | 7931-7934 | 10 7) Two
nucleic acid chains are wound about each other and held together
by hydrogen bonds between pairs of bases The two strands are
complementary to each other because the hydrogen bonds are
formed between specific pairs of bases |
1 | 7932-7935 | 7) Two
nucleic acid chains are wound about each other and held together
by hydrogen bonds between pairs of bases The two strands are
complementary to each other because the hydrogen bonds are
formed between specific pairs of bases Adenine forms hydrogen
bonds with thymine whereas cytosine forms hydrogen bonds
with guanine |
1 | 7933-7936 | Two
nucleic acid chains are wound about each other and held together
by hydrogen bonds between pairs of bases The two strands are
complementary to each other because the hydrogen bonds are
formed between specific pairs of bases Adenine forms hydrogen
bonds with thymine whereas cytosine forms hydrogen bonds
with guanine In secondary structure of RNA single stranded helics is present
which sometimes foldsback on itself |
1 | 7934-7937 | The two strands are
complementary to each other because the hydrogen bonds are
formed between specific pairs of bases Adenine forms hydrogen
bonds with thymine whereas cytosine forms hydrogen bonds
with guanine In secondary structure of RNA single stranded helics is present
which sometimes foldsback on itself RNA molecules are of three
types and they perform different functions |
1 | 7935-7938 | Adenine forms hydrogen
bonds with thymine whereas cytosine forms hydrogen bonds
with guanine In secondary structure of RNA single stranded helics is present
which sometimes foldsback on itself RNA molecules are of three
types and they perform different functions They are named as
messenger RNA (m-RNA), ribosomal RNA (r-RNA) and transfer
RNA (t-RNA) |
1 | 7936-7939 | In secondary structure of RNA single stranded helics is present
which sometimes foldsback on itself RNA molecules are of three
types and they perform different functions They are named as
messenger RNA (m-RNA), ribosomal RNA (r-RNA) and transfer
RNA (t-RNA) Sugar
Phosphate
Sugar
Phosphate
Base
Sugar
Base
n
Base
Rationalised 2023-24
300
Chemistry
Har Gobind Khorana
DNA Fingerprinting
It is known that every individual has unique fingerprints |
1 | 7937-7940 | RNA molecules are of three
types and they perform different functions They are named as
messenger RNA (m-RNA), ribosomal RNA (r-RNA) and transfer
RNA (t-RNA) Sugar
Phosphate
Sugar
Phosphate
Base
Sugar
Base
n
Base
Rationalised 2023-24
300
Chemistry
Har Gobind Khorana
DNA Fingerprinting
It is known that every individual has unique fingerprints These occur at the tips of
the fingers and have been used for identification for a long time but these can be
altered by surgery |
1 | 7938-7941 | They are named as
messenger RNA (m-RNA), ribosomal RNA (r-RNA) and transfer
RNA (t-RNA) Sugar
Phosphate
Sugar
Phosphate
Base
Sugar
Base
n
Base
Rationalised 2023-24
300
Chemistry
Har Gobind Khorana
DNA Fingerprinting
It is known that every individual has unique fingerprints These occur at the tips of
the fingers and have been used for identification for a long time but these can be
altered by surgery A sequence of bases on DNA is also unique for a person and
information regarding this is called DNA fingerprinting |
1 | 7939-7942 | Sugar
Phosphate
Sugar
Phosphate
Base
Sugar
Base
n
Base
Rationalised 2023-24
300
Chemistry
Har Gobind Khorana
DNA Fingerprinting
It is known that every individual has unique fingerprints These occur at the tips of
the fingers and have been used for identification for a long time but these can be
altered by surgery A sequence of bases on DNA is also unique for a person and
information regarding this is called DNA fingerprinting It is same for every cell and
cannot be altered by any known treatment |
1 | 7940-7943 | These occur at the tips of
the fingers and have been used for identification for a long time but these can be
altered by surgery A sequence of bases on DNA is also unique for a person and
information regarding this is called DNA fingerprinting It is same for every cell and
cannot be altered by any known treatment DNA fingerprinting is now used
(i) in forensic laboratories for identification of criminals |
1 | 7941-7944 | A sequence of bases on DNA is also unique for a person and
information regarding this is called DNA fingerprinting It is same for every cell and
cannot be altered by any known treatment DNA fingerprinting is now used
(i) in forensic laboratories for identification of criminals (ii) to determine paternity of an individual |
1 | 7942-7945 | It is same for every cell and
cannot be altered by any known treatment DNA fingerprinting is now used
(i) in forensic laboratories for identification of criminals (ii) to determine paternity of an individual (iii) to identify the dead bodies in any accident by comparing the DNA’s of parents or
children |
1 | 7943-7946 | DNA fingerprinting is now used
(i) in forensic laboratories for identification of criminals (ii) to determine paternity of an individual (iii) to identify the dead bodies in any accident by comparing the DNA’s of parents or
children (iv) to identify racial groups to rewrite biological evolution |
1 | 7944-7947 | (ii) to determine paternity of an individual (iii) to identify the dead bodies in any accident by comparing the DNA’s of parents or
children (iv) to identify racial groups to rewrite biological evolution DNA is the chemical basis of heredity and may be regarded as the reserve
of genetic information |
1 | 7945-7948 | (iii) to identify the dead bodies in any accident by comparing the DNA’s of parents or
children (iv) to identify racial groups to rewrite biological evolution DNA is the chemical basis of heredity and may be regarded as the reserve
of genetic information DNA is exclusively responsible for maintaining
the identity of different species of organisms over millions of years |
1 | 7946-7949 | (iv) to identify racial groups to rewrite biological evolution DNA is the chemical basis of heredity and may be regarded as the reserve
of genetic information DNA is exclusively responsible for maintaining
the identity of different species of organisms over millions of years A
DNA molecule is capable of self duplication during cell division and
identical DNA strands are transferred to daughter cells |
1 | 7947-7950 | DNA is the chemical basis of heredity and may be regarded as the reserve
of genetic information DNA is exclusively responsible for maintaining
the identity of different species of organisms over millions of years A
DNA molecule is capable of self duplication during cell division and
identical DNA strands are transferred to daughter cells Another important
function of nucleic acids is the protein synthesis in the cell |
1 | 7948-7951 | DNA is exclusively responsible for maintaining
the identity of different species of organisms over millions of years A
DNA molecule is capable of self duplication during cell division and
identical DNA strands are transferred to daughter cells Another important
function of nucleic acids is the protein synthesis in the cell Actually, the
proteins are synthesised by various RNA molecules in the cell but the
message for the synthesis of a particular protein is present in DNA |
1 | 7949-7952 | A
DNA molecule is capable of self duplication during cell division and
identical DNA strands are transferred to daughter cells Another important
function of nucleic acids is the protein synthesis in the cell Actually, the
proteins are synthesised by various RNA molecules in the cell but the
message for the synthesis of a particular protein is present in DNA Hormones are molecules that act as intercellular messengers |
1 | 7950-7953 | Another important
function of nucleic acids is the protein synthesis in the cell Actually, the
proteins are synthesised by various RNA molecules in the cell but the
message for the synthesis of a particular protein is present in DNA Hormones are molecules that act as intercellular messengers These
are produced by endocrine glands in the body and are poured directly
in the blood stream which transports them to the site of action |
1 | 7951-7954 | Actually, the
proteins are synthesised by various RNA molecules in the cell but the
message for the synthesis of a particular protein is present in DNA Hormones are molecules that act as intercellular messengers These
are produced by endocrine glands in the body and are poured directly
in the blood stream which transports them to the site of action In terms of chemical nature, some of these are steroids, e |
1 | 7952-7955 | Hormones are molecules that act as intercellular messengers These
are produced by endocrine glands in the body and are poured directly
in the blood stream which transports them to the site of action In terms of chemical nature, some of these are steroids, e g |
1 | 7953-7956 | These
are produced by endocrine glands in the body and are poured directly
in the blood stream which transports them to the site of action In terms of chemical nature, some of these are steroids, e g , estrogens
and androgens; some are poly peptides for example insulin and
endorphins and some others are amino acid derivatives such as
epinephrine and norepinephrine |
1 | 7954-7957 | In terms of chemical nature, some of these are steroids, e g , estrogens
and androgens; some are poly peptides for example insulin and
endorphins and some others are amino acid derivatives such as
epinephrine and norepinephrine Hormones have several functions in the body |
1 | 7955-7958 | g , estrogens
and androgens; some are poly peptides for example insulin and
endorphins and some others are amino acid derivatives such as
epinephrine and norepinephrine Hormones have several functions in the body They help to maintain
the balance of biological activities in the body |
1 | 7956-7959 | , estrogens
and androgens; some are poly peptides for example insulin and
endorphins and some others are amino acid derivatives such as
epinephrine and norepinephrine Hormones have several functions in the body They help to maintain
the balance of biological activities in the body The role of insulin in keeping
the blood glucose level within the narrow limit is an example of this
function |
1 | 7957-7960 | Hormones have several functions in the body They help to maintain
the balance of biological activities in the body The role of insulin in keeping
the blood glucose level within the narrow limit is an example of this
function Insulin is released in response to the rapid rise in blood glucose
level |
1 | 7958-7961 | They help to maintain
the balance of biological activities in the body The role of insulin in keeping
the blood glucose level within the narrow limit is an example of this
function Insulin is released in response to the rapid rise in blood glucose
level On the other hand hormone glucagon tends to increase the glucose
level in the blood |
1 | 7959-7962 | The role of insulin in keeping
the blood glucose level within the narrow limit is an example of this
function Insulin is released in response to the rapid rise in blood glucose
level On the other hand hormone glucagon tends to increase the glucose
level in the blood The two hormones together regulate the glucose level
in the blood |
1 | 7960-7963 | Insulin is released in response to the rapid rise in blood glucose
level On the other hand hormone glucagon tends to increase the glucose
level in the blood The two hormones together regulate the glucose level
in the blood Epinephrine and norepinephrine mediate responses to
external stimuli |
1 | 7961-7964 | On the other hand hormone glucagon tends to increase the glucose
level in the blood The two hormones together regulate the glucose level
in the blood Epinephrine and norepinephrine mediate responses to
external stimuli Growth hormones and sex hormones play role in growth
and development |
1 | 7962-7965 | The two hormones together regulate the glucose level
in the blood Epinephrine and norepinephrine mediate responses to
external stimuli Growth hormones and sex hormones play role in growth
and development Thyroxine produced in the thyroid gland is an iodinated
derivative of amino acid tyrosine |
1 | 7963-7966 | Epinephrine and norepinephrine mediate responses to
external stimuli Growth hormones and sex hormones play role in growth
and development Thyroxine produced in the thyroid gland is an iodinated
derivative of amino acid tyrosine Abnormally low level of thyroxine leads
10 |
1 | 7964-7967 | Growth hormones and sex hormones play role in growth
and development Thyroxine produced in the thyroid gland is an iodinated
derivative of amino acid tyrosine Abnormally low level of thyroxine leads
10 5 |
1 | 7965-7968 | Thyroxine produced in the thyroid gland is an iodinated
derivative of amino acid tyrosine Abnormally low level of thyroxine leads
10 5 3 Biological
Functions
of Nucleic
Acids
Har Gobind Khorana, was born in 1922 |
1 | 7966-7969 | Abnormally low level of thyroxine leads
10 5 3 Biological
Functions
of Nucleic
Acids
Har Gobind Khorana, was born in 1922 He obtained his M |
1 | 7967-7970 | 5 3 Biological
Functions
of Nucleic
Acids
Har Gobind Khorana, was born in 1922 He obtained his M Sc |
1 | 7968-7971 | 3 Biological
Functions
of Nucleic
Acids
Har Gobind Khorana, was born in 1922 He obtained his M Sc degree from Punjab University in Lahore |
1 | 7969-7972 | He obtained his M Sc degree from Punjab University in Lahore He worked with Professor
Vladimir Prelog, who moulded Khorana’s thought and philosophy
towards science, work and effort |
1 | 7970-7973 | Sc degree from Punjab University in Lahore He worked with Professor
Vladimir Prelog, who moulded Khorana’s thought and philosophy
towards science, work and effort After a brief stay in India in
1949, Khorana went back to England and worked with Professor
G |
1 | 7971-7974 | degree from Punjab University in Lahore He worked with Professor
Vladimir Prelog, who moulded Khorana’s thought and philosophy
towards science, work and effort After a brief stay in India in
1949, Khorana went back to England and worked with Professor
G W |
1 | 7972-7975 | He worked with Professor
Vladimir Prelog, who moulded Khorana’s thought and philosophy
towards science, work and effort After a brief stay in India in
1949, Khorana went back to England and worked with Professor
G W Kenner and Professor A |
1 | 7973-7976 | After a brief stay in India in
1949, Khorana went back to England and worked with Professor
G W Kenner and Professor A R |
1 | 7974-7977 | W Kenner and Professor A R Todd |
1 | 7975-7978 | Kenner and Professor A R Todd It was at Cambridge, U |
1 | 7976-7979 | R Todd It was at Cambridge, U K |
1 | 7977-7980 | Todd It was at Cambridge, U K that he got interested in both proteins and nucleic acids |
1 | 7978-7981 | It was at Cambridge, U K that he got interested in both proteins and nucleic acids Dr Khorana shared the
Nobel Prize for Medicine and Physiology in 1968 with Marshall Nirenberg and Robert
Holley for cracking the genetic code |
1 | 7979-7982 | K that he got interested in both proteins and nucleic acids Dr Khorana shared the
Nobel Prize for Medicine and Physiology in 1968 with Marshall Nirenberg and Robert
Holley for cracking the genetic code 10 |
1 | 7980-7983 | that he got interested in both proteins and nucleic acids Dr Khorana shared the
Nobel Prize for Medicine and Physiology in 1968 with Marshall Nirenberg and Robert
Holley for cracking the genetic code 10 6
10 |
1 | 7981-7984 | Dr Khorana shared the
Nobel Prize for Medicine and Physiology in 1968 with Marshall Nirenberg and Robert
Holley for cracking the genetic code 10 6
10 6
10 |
1 | 7982-7985 | 10 6
10 6
10 6
10 |
1 | 7983-7986 | 6
10 6
10 6
10 6
10 |
1 | 7984-7987 | 6
10 6
10 6
10 6 Hormones
Hormones
Hormones
Hormones
Hormones
Rationalised 2023-24
301
Biomolecules
to hypothyroidism which is characterised by lethargyness and obesity |
1 | 7985-7988 | 6
10 6
10 6 Hormones
Hormones
Hormones
Hormones
Hormones
Rationalised 2023-24
301
Biomolecules
to hypothyroidism which is characterised by lethargyness and obesity Increased level of thyroxine causes hyperthyroidism |
1 | 7986-7989 | 6
10 6 Hormones
Hormones
Hormones
Hormones
Hormones
Rationalised 2023-24
301
Biomolecules
to hypothyroidism which is characterised by lethargyness and obesity Increased level of thyroxine causes hyperthyroidism Low level of iodine
in the diet may lead to hypothyroidism and enlargement of the thyroid
gland |
1 | 7987-7990 | 6 Hormones
Hormones
Hormones
Hormones
Hormones
Rationalised 2023-24
301
Biomolecules
to hypothyroidism which is characterised by lethargyness and obesity Increased level of thyroxine causes hyperthyroidism Low level of iodine
in the diet may lead to hypothyroidism and enlargement of the thyroid
gland This condition is largely being controlled by adding sodium iodide
to commercial table salt (“Iodised” salt) |
1 | 7988-7991 | Increased level of thyroxine causes hyperthyroidism Low level of iodine
in the diet may lead to hypothyroidism and enlargement of the thyroid
gland This condition is largely being controlled by adding sodium iodide
to commercial table salt (“Iodised” salt) Steroid hormones are produced by adrenal cortex and gonads (testes
in males and ovaries in females) |
1 | 7989-7992 | Low level of iodine
in the diet may lead to hypothyroidism and enlargement of the thyroid
gland This condition is largely being controlled by adding sodium iodide
to commercial table salt (“Iodised” salt) Steroid hormones are produced by adrenal cortex and gonads (testes
in males and ovaries in females) Hormones released by the adrenal cortex
play very important role in the functions of the body |
1 | 7990-7993 | This condition is largely being controlled by adding sodium iodide
to commercial table salt (“Iodised” salt) Steroid hormones are produced by adrenal cortex and gonads (testes
in males and ovaries in females) Hormones released by the adrenal cortex
play very important role in the functions of the body For example,
glucocorticoids control the carbohydrate metabolism, modulate
inflammatory reactions, and are involved in reactions to stress |
1 | 7991-7994 | Steroid hormones are produced by adrenal cortex and gonads (testes
in males and ovaries in females) Hormones released by the adrenal cortex
play very important role in the functions of the body For example,
glucocorticoids control the carbohydrate metabolism, modulate
inflammatory reactions, and are involved in reactions to stress The
mineralocorticoids control the level of excretion of water and salt by the
kidney |
1 | 7992-7995 | Hormones released by the adrenal cortex
play very important role in the functions of the body For example,
glucocorticoids control the carbohydrate metabolism, modulate
inflammatory reactions, and are involved in reactions to stress The
mineralocorticoids control the level of excretion of water and salt by the
kidney If adrenal cortex does not function properly then one of the results
may be Addison’s disease characterised by hypoglycemia, weakness and
increased susceptibility to stress |
1 | 7993-7996 | For example,
glucocorticoids control the carbohydrate metabolism, modulate
inflammatory reactions, and are involved in reactions to stress The
mineralocorticoids control the level of excretion of water and salt by the
kidney If adrenal cortex does not function properly then one of the results
may be Addison’s disease characterised by hypoglycemia, weakness and
increased susceptibility to stress The disease is fatal unless it is treated by
glucocorticoids and mineralocorticoids |
1 | 7994-7997 | The
mineralocorticoids control the level of excretion of water and salt by the
kidney If adrenal cortex does not function properly then one of the results
may be Addison’s disease characterised by hypoglycemia, weakness and
increased susceptibility to stress The disease is fatal unless it is treated by
glucocorticoids and mineralocorticoids Hormones released by gonads are
responsible for development of secondary sex characters |
1 | 7995-7998 | If adrenal cortex does not function properly then one of the results
may be Addison’s disease characterised by hypoglycemia, weakness and
increased susceptibility to stress The disease is fatal unless it is treated by
glucocorticoids and mineralocorticoids Hormones released by gonads are
responsible for development of secondary sex characters Testosterone is
the major sex hormone produced in males |
1 | 7996-7999 | The disease is fatal unless it is treated by
glucocorticoids and mineralocorticoids Hormones released by gonads are
responsible for development of secondary sex characters Testosterone is
the major sex hormone produced in males It is responsible for development
of secondary male characteristics (deep voice, facial hair, general physical
constitution) and estradiol is the main female sex hormone |
1 | 7997-8000 | Hormones released by gonads are
responsible for development of secondary sex characters Testosterone is
the major sex hormone produced in males It is responsible for development
of secondary male characteristics (deep voice, facial hair, general physical
constitution) and estradiol is the main female sex hormone It is responsible
for development of secondary female characteristics and participates in
the control of menstrual cycle |
1 | 7998-8001 | Testosterone is
the major sex hormone produced in males It is responsible for development
of secondary male characteristics (deep voice, facial hair, general physical
constitution) and estradiol is the main female sex hormone It is responsible
for development of secondary female characteristics and participates in
the control of menstrual cycle Progesterone is responsible for preparing
the uterus for implantation of fertilised egg |
1 | 7999-8002 | It is responsible for development
of secondary male characteristics (deep voice, facial hair, general physical
constitution) and estradiol is the main female sex hormone It is responsible
for development of secondary female characteristics and participates in
the control of menstrual cycle Progesterone is responsible for preparing
the uterus for implantation of fertilised egg Intext Questions
Intext Questions
Intext Questions
Intext Questions
Intext Questions
10 |
1 | 8000-8003 | It is responsible
for development of secondary female characteristics and participates in
the control of menstrual cycle Progesterone is responsible for preparing
the uterus for implantation of fertilised egg Intext Questions
Intext Questions
Intext Questions
Intext Questions
Intext Questions
10 6
Why cannot vitamin C be stored in our body |
1 | 8001-8004 | Progesterone is responsible for preparing
the uterus for implantation of fertilised egg Intext Questions
Intext Questions
Intext Questions
Intext Questions
Intext Questions
10 6
Why cannot vitamin C be stored in our body 10 |
1 | 8002-8005 | Intext Questions
Intext Questions
Intext Questions
Intext Questions
Intext Questions
10 6
Why cannot vitamin C be stored in our body 10 7
What products would be formed when a nucleotide from DNA containing
thymine is hydrolysed |
1 | 8003-8006 | 6
Why cannot vitamin C be stored in our body 10 7
What products would be formed when a nucleotide from DNA containing
thymine is hydrolysed 10 |
1 | 8004-8007 | 10 7
What products would be formed when a nucleotide from DNA containing
thymine is hydrolysed 10 8
When RNA is hydrolysed, there is no relationship among the quantities of different
bases obtained |
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