Vol. 61, No. 2, 1974
ANIMAL
Jerome
BIOCHEMICAL
COLLAGENASES: STRUCTURES OF
Gross, John
SPECIFICITY SUBSTRATE
THE
Elvin Harper*, H. Highberger,
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
Edward Glare
OF ACTION, CLEAVAGE
D. Harris, Corbett and
Jr.*, Andrew
AND SITE;:
Peter H.
A. Kang
McCroskery.
Developmental Biology Laboratory, Department of Medicine at the Massachusetts General Hospital, Harvard Medical School, Boston, Massachusetts; Department of Medicine, Dartmouth Hitchcock Medical Center, Hanover, New Hampshire: Department of Medicine, VA Hospital and University of Tennessee, Memphis, Tennessee Received
October
lo,1974
SUMMARY: Two highly purified animal collagenases, one of the rabbit V2 ascites cell carcinoma growing in isolated from the media of tadpole tissue cultures (Y chains from chick and rat skin collagen, and the chick skin cul chains at one, and the same peptide Gly-Ile bonds exist elsewhere in the oi chain they A unique collagenases one in
quarter each
of
(1,
their
the of the
tadpole
2) is length
three
collagenase Nagai
one
feature
and
leucine
and from
tadpole
collagenase
two
native
however,
Harris AM
of
action
production
of a single
intact
(Y chains,
of most
collagen
first
of the
known
cleavage
molecule
demonstrated
from homogenates and the second isolated non helical peptide CB7 from Although two other not cleaved.
at a specific
from for
animal
the
locus
the
COOH-terminus
prototype
enzyme,
the
(3).
*
mode
of the
colleagues
termini
substrate
the
derived muscle cleaved GNBr bond. were
and 35506
(4)
reported
isoleucine collagen at
NH2-terminal
pH in
the
in
and
release
by
this
residues,
molecules
neutral
resulted
the
20°C.
release
solution Using
purified and
following denatured
of NH2-terminal
Memorial #644 of the Robert W. Lovett Supported by grants (AM Deformities. from the U.S. P.H. S., The Hoffmann and by the National and New Hampshire
Harper and AM
are the recipients 34222 from the
enzyme
three
of
glycine
attack
by
COOHpurified
collagen
as
leucine, Group 3645,
a
isoleucine, for AM
the Study 14780
LaRoche Co., chapters
of Research Career Development National Institutes of Health.
The of the
BIOCHEMICAL
Vol. 61, No. 2,1974
phenylalanine,
alanine, a purified
collagenase
carcinoma
(6)
liberating
Harris
with fragments
nodule
collagenase. McCroskery
is
both
a poor
collagen
contamination
has
now
high
end
it
site
in
This
the
7.6,
ation
the
(ZO-50%
accomplished had
a specific
5000
times
the
injecting
activity
0.005
M
CaC12,
saturation)
followed
Final
fractionation
agarose
of the
(Bio (mg original
and by by
Gel
collagen
A-l.
sequence
that
the
latter
reflected
the
Highly
NH2-terminal
in
of
thigh
freeze1,
sulfate
chromatography
resulting hr
per purified
DEAE
chromatography
mg
of
buffer
fractionon
enzyme
ascites of
0. 1 M Tris-HC
ammonium
V2
muscle
were
sieve
per
unique
bromide
the
homogenates
The
the
homogenates
into
molecular
collagenases
enzymes.
from
by
tadpole
cyanogen at
these
exchange
606
large
rheumatoid
around
sequences
purified
homogenate.
and
and
and
extracted
degraded
to
. (4) probably
cells
5).
as
reduced
locus
The
ion
gelatin,
single
purified
was
that
collagenase
by
(6).
fragments
purified
acid
tumor
previously
length
that
tumor
acid
was
locus
protease(
released
collagenase
cell
and
LY chains
fragment
that
a single
and
rabbit
amino
amino
ascites at
observed
synovial
other the
rabbit
noted
of Nagai
of
the
after
same
with
reports
activity
the
(5)
attacked
proposed
at
et al.
quarter
previously weakly
results
collagenolytic
on
that
(6)
study
three
rheumatoid
purification
described
A-50.
had only
enzyme
to
formed as
was
paper
containing
Sephadex
(7)
molecules,
tumor
and
Krane
helical
rabbit
thawed
and
triple
The
rabbits
quarter
earlier
possible
terminal
adult
one
gelatin
of
COOH
carcinoma
collagen
purified
tadpole
of the
cell
pH
and
degree
made
peptides.
denatured
associates
the
of
cleavage
and
partially
and
substrate;
The
of
collagen, by
Harris
homogenates
native
and
native
peptide
cleaves
both
Recently
from
characteristic
(Y chains.
compared
valine.
obtained
cleaved
the
from
and
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
was preparation
enzyme)
tadpole
over tail
fin
Vol. 61, No. 2, 1974
collagenase
was
of Harper
et
saturation
precipitate)
limb
of the
affinity
BIOCHEMICAL
prepared
from
(8)
includes
al.
first
which
the
two
chromatography
graphy
on
bromide
purified
substrate
ratio stat
was
for
extensively
time
more
enzyme
further Since
with
pg
purified
the
larger amount presumably lyophilized,
T,
for
denatured
CNBr
rabbit
by
SDS
white
and
~2
chains
of
acid,
cul
lyophilized
was
incubated
rise
in
and
chromato-
chains mixed
mixture
was
cyanogen (12). in
alkali
cleavage
reaction
chicks
by
were
a maximum further
by
Leghorn chains
from
mixture
without
and
analyzed
this
0.005
M
column lesser
into amount
starting the
about
amino
C and
Incubation and CaC12
were
an
enzyme-
at
37°C
in
addition
(at
about
3
dialyzed
prepared
for
was
carried
out
either
of
The
a low
weight
molecular
region acid
composition
607
the
sequencing
lowest
of the
using
oi-CB7
or
al-CB8
reaction
products
material. molecular
cleaved and
enzyme
37”
bulk
at
tumor
of
it was
fragment,
starting The
this
with
and
material.
rabbit
reaction
26 hours.
of undigested
by
the
9. 0 mg
for
cleavage
electrophoresis
COOH-terminal for
22”
temperature
peptides.
polyacrylamide
undigested from
was
collagenase
7.6,
a Bio-Gel
peptide was
acetic
o2
ascending
purified
homogeneous
reaction
samples
at
tumor pH
on
the
added
oi-CB7
negligible
0. 1 Tris-HCl
tionated
M
(~1 or
The
(9).
old
prepared
method
(O-30%
further
columns
Purified
After
was mg
0. 01
was
monitored
and
then
ol
the
fractionation.
collagenase run
into
and
by
precipitation
3 week
were
periods.
Twenty
against
of
separated
(rl-CB7
1:80,
various
incubation).
without
skins
collagenase
of about
reached,
hours
and
tadpole
was 4B
(11).
ol-CB8
Purified
a pH
and
medium
on agarose.
peaks
from
(lo),
culture sulfate
collagen-Sephadex
carboxymethylcellulose peptides
day
chromatography
collagenase
collagen
and
third ammonium
by
on
Acid-extracted prepared,
crude
followed of
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
ol-CB7
sequenced.
was 200 in were
frac-
another The weight was
lowest fragment desalted,
Vol. 61, No. 2, 1974
Automated
sequential
890B
sequencer
were
dissolved
Quadrol by
back
hydrolysis,
the
shown
was
to
the
in
low
an
automated
weight
ol-CB7 line
(rl-CB7
(14)
and
3,
Table
from
established
both
cleavage
and
calf
(15)
site,
sequentially
10%
in
the
SP-400
fragment
isolated
chick
(16)
Since
SEQUENCES
AT
1 1)
Calf
Skin
2)
Chick
3)
(RT)*::’
Chick
4)
(Tp)::“>:
5)
6)
Skin
Ile
there
after
mixture
unique of
sequence
12 amino
at the one
instru-
analyzer
the
beginning only
CC-45
reaction
sequence
is
accomplished
acids
previously
Gly-Ile
sequence
I
ANIMAL
COLLAGENASE
CLEAVAGE
SITE
2
3
4
5
6
7
8
9
10
11
Ala
Gly
Gln
Arg
Gly
Val
Val
Gly
Leu
Hyp
12 Gly
Ala
Gly
Gln
Arg
Gly
Val
Val
Gly
Leu
Hyp
Gly
ol-CB7
Ile
Ala
Gly
Gln
Arg
Gly
Val
Val
Gly
Leu
Hyp
Gly
Chick
ol-CB7’
Ile
Ala
Gly
(TP)
Chick
crl
Ile
Ala
Gly
Gln
Arg
Gly
Val
-
Gly
Leu
-
Gly
(TP)
Chick
cu2
Leu
Ala
GUY
= Rabbit
c~l-CB7::
the
was
the
Ile
::iSequence skin, and Highberger, ;:*RT
ol-CB7::’
the
samples
with
acid
gave
skin
TABLE NH2-TERMINAL
from
to
The
Beckman
amino
collagenase
identical
Gly-He.
5AH
model
(13).
degraded residues
model
and
Begg
of
on
is
and
a Beckman
Identification
tumor
This
with
Edman
JEOLCO
purified 1.
performed of
water
Program.
molecular
chick
method
glass-distilled
Cleavage
also
in
degradation
chromatography
and
in
in
gas-liquid
ment
of
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
according
Single
The
BIOCHEMICAL
taken from the sequence Corbett, Tumor
that for Kang
published by Fietzek et chick s’kin was obtained and Gross.
Collagenase;
Tp
= Tadpole
608
al.
(16) from
Collagenase
for entire unpublished
(rl-CB7 data
of calf of
BIOCHEMICAL
Vol. 61, No. 2, 1974
in
al-CB7
chick an
the
skin
order
(~1 type
artifactual
a free
with
tadpole
was
identical
cleavage
site
crl
an
collagenase;
no
Analysis
(line
the
chick
the
Table
obtained chick
yielding
a predominant
predicted
from
We
have
shown
divergent
species,
molecule
in
bond; the
the
Gly-Ile
Thus
collagenases enzyme,
is
of the
NH2-terminal
in
al-CB8,
made
to
cleave
was
noted.
the
unresolved, chick
one
peptide
terminal
substrate
the
the
blocks
apparent (Table
three
product of
the
1, was
residues
NH2-terminus
the
rabbit
skin l/4
the
tumor
01
chain
length
amino
fragterminus
positions
8 and
that
these
are
line
2).
also
accomplished,
beginning
of
11 in identical
Cleavage
with
the
of
leucine
as
(4).
or cul-CB7.
peptide specificity The
identical.
one
reacted
side
of the
at
collagenase
purified
in
is
pi-CB7
of
form
the
or
was
chick
end
residues, it
mammalian
adjacent
and
probably
resulting
with
of
acid
tadpole
highly
native
the
near
products
two
studies
and
cleaves
this
amino
skin
with
that
the
located
reaction
were
sequence
homologous
CYZ chain.
tumor
both
residues
calf
product (17))
from
for
(rl-CB7’,
of a lactone
obtained
Although
earlier
skin
sequence
sequence
the
site
deamidated
instead
(18).
cu2 chains
cleavage
chick
pyrrolidone-carboxylic
from
purified
a partially
of
1).
from
I);
sequence,
those
(either
unfractionated
cyl chain
skin
with
was
side
Purified
present
sequence
5;
intact
also
degradation
of
either
known.
three (Table
effort
a single
ment
the
first
cul-CB7 is
on
homoserine and
the
Gly-Ile
now
(rl-CB7
carboxyl
of
chain,
yielded
of
with
acids
is
collagenase
Since
of
chains
variant
containing
the
of amino
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
tadpole
denatured
animal and
one
as
isolated In
collagenases amphibian,
Gly-Leu
in for
these
the
the
same
single
collagen peptide
enzyme
cleaved
of the
different that
widely
specific
region
like at
one
tadpole
same two
collagenase, (Y chain
at
the the
two
cleaved
a chains
addition,
609
from
isolated
animal from
the peptide
mammalian bond
Vol. 61, No. 2, 1974
BIOCHEMICAL
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
H al
610
Vol. 61, No. 2, 1974
and
does
not
The site
is
al
we
chain
residues,
it
other cul-CB8
species. chick calf
unique
the
in
other
of
been
in
the We
very
and
rat
(rl-CB8 that
of
and
III
be
the
region
predict
to
region
we
expect
the
cleavage
entire
There the
is
chain
in
chain
CY chain
but
varying
in
length
of
rat
species between
of
ai-CB7
essentially
no
reason
to
suspect
characteristics
that
of
animal
sequence
the
of
in
this
ol-CB7
determined.
region
in
region
synthetic
specific
those
collagenases
to be
site
helix
from
found
yet
A study
and
from
different the
of
of
Gly-Ile
in
qualitatively
in skin
a single
ol-CB7
cleavage
susceptibility
and
in
the
relative
1,052
surrounding
reasons
of the
the
in
Gly-Ile
region
for
CYI-CB7.
site
homologies
acid
in
in
ol-CB6
site
likely amino
sequences that
be
seems
~2
crl
physical
should
the
skin
Those those
cleavage
surrounding
close
identical.
particular
to
also
the
of the
those
the
from
It
the
homologous
this
are
that
of
that
and
in
molecule.
cleavage
residues),
anywhere
calf
from
glycine.
the
with
namely,
of cri-CB7
for
homologous
collagens
homologous
region
side
repeated
region
differ
for
(279
the
Apparently,
either
not
peptides
sequences
affinity
closely
are
this
(15)
(rl-CB8
cleaved.
on
sequence skin
of
would
they
containing
enzyme.
however
calf
cul-CB7,
not
cul chain,
and
regions a specific
either
two
reported.
whereas
of
sequenced,
site
peptide,
is
that
These
except
previously
10 residues
the
20-residue
(16)
as
bond,
comparing
1).
cleavage
have
in
worth
examination
in
will
the
position
simple
II
that
cul-CB6
every
are
know
The
both
and
action
regions
yet
enzymes,
the
(Figure not
both
for
is
known
CNBr
peptide
are
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
scissions
residue
for
a Gly-Ile
Since
in
268
required
have
multiple
a substrate
not
the
make
isolated
containing is
BIOCHEMICAL
CYZ-CB5 in
substrates amino
acid
residues
profitable.
BIBLIOGRAPHY 1. 2. 3.
Gross, Harris, Gross,
in J.. E.D., J. and
the Harvey Lectures, Jr., and Krane. Nagai, Y., Proc.
S.M., Nat,
1974, in press. N.E. J. Med., Acad. Sci. U.S.
611
type
in 54,
Press. 1197
(1965)
Vol. 61, No. 2, 1974
BIOCHEMICAL
AND BIOPHYSICAL RESEARCH COMMUNICATIONS
8. 9.
Nagai, Y., Lapiere, C.M. and Gross, J., Proc. Sixth Congr. Biochemistry II: 120 (1966) Harris, E.D. Jr., Faulkner, C.S. II, Wood, S. Jr., Biochem. Biophys. Res. Commun. 48: 1247 (1972) McCroskery, P.A., Wood, S. Jr., and Harris, E.D. Jr., Science -’182 70 (1973) Harris, E.D. Jr., and Krane, S.M., Biochim. Biophys. Acta 258, 566 (1972); Harris, E. D. Jr., J. Clin. Invest. 2973 (1972). -51, Harper, E., Bloch, K. J. and Gross, J., Biochemistry 10. 3035 (1971). Eisen, A.Z. and Jeffrey, J. J., J. Clin. Kvest. 50, 2056 Bauer, E. A., -
10.
(1971). Kang,
4. 5. 6. 7.
11. 12. 13. 14. 15. 16. 17. 18. 19.
20.
A-H.,
Nagai,
Y.,
Piez,
K. A.
and
Gross,
J.,
Biochemistry
2,
509
(1966). Piez, K.A., Eigner, E.A. and Lewis, M.D., Biochemistry 2, 58 (1963). Piez, K.A. and Gross, J., Biochemistry 8, 1506 (1969) Kang, A.H., Edman, P. and Begg, G., Eur. J. Biochem. 1, 80 (1961) Pisano, J. J., Bronzert, T. J. and Brewer, H.B., Anal. Biochem. -’45 43 (1972). Fietzek, P.P., Rexrodt, F. W., Hopper, K.E. and Kuhn, K., Eur. J. Biochem. 38, 396 (1973). HighbergerJ.H., Corbett, C. M., Kang, A.H. and Gross, J., in preparation. Butler, w.T., Piez, K.A. and Bornstein, P., Biochemistry, 3771 (1967). Kang, A.H. and Gross, J., Biochemistry Click, E.M. and Bornstein, Balian, G., Balian, G., Click, E. M., Hermodson, 11, 3798 (1972). vonder Mark, K., Rexrodt, vendt, P., 30: 169, 1972. -
612
9, PT, M.A. F.,
796 (1970). Biochemistry and and
10,
4470
BornsteinTP., Kuhn,
K.,
(1971); Biochem.
Eur.
J.
Biochem.