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Patent 2134670 Summary

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(12) Patent Application: (11) CA 2134670
(54) English Title: CONSTITUTIVE AND INDUCIBLE EPIDERMAL VECTOR SYSTEMS
(54) French Title: SYSTEME DE VECTEUR EPIDERMIQUE CONSTITUTIF ET INDUCTIBLE
Status: Dead
Bibliographic Data
(51) International Patent Classification (IPC):
  • C12N 15/85 (2006.01)
  • A01K 67/027 (2006.01)
  • A61K 31/70 (2006.01)
  • A61K 35/36 (2006.01)
  • A61K 39/00 (2006.01)
  • A61K 48/00 (2006.01)
  • C07K 14/47 (2006.01)
  • C12N 5/10 (2006.01)
  • C12N 15/11 (2006.01)
  • C12N 15/89 (2006.01)
  • G01N 33/577 (2006.01)
(72) Inventors :
  • ROOP, DENNIS R. (United States of America)
  • ROTHNAGEL, JOSEPH A. (United States of America)
  • GREENHALGH, DAVID A. (United States of America)
(73) Owners :
  • BAYLOR COLLEGE OF MEDICINE (United States of America)
(71) Applicants :
(74) Agent: SMART & BIGGAR
(74) Associate agent:
(45) Issued:
(86) PCT Filing Date: 1993-04-28
(87) Open to Public Inspection: 1993-11-11
Examination requested: 2000-02-08
Availability of licence: N/A
(25) Language of filing: English

Patent Cooperation Treaty (PCT): Yes
(86) PCT Filing Number: PCT/US1993/003993
(87) International Publication Number: WO1993/022431
(85) National Entry: 1994-10-28

(30) Application Priority Data:
Application No. Country/Territory Date
07/876,286 United States of America 1992-04-30

Abstracts

English Abstract

2134670 9322431 PCTABS00027
A loricrin constitutive vector for efficient expression of a
nucleic acid sequence in epidermal cells comprising the 5' flanking
region of the loricrin gene, said flanking region containing a
TATA box, a cap site and a first intron and intron/exon boundary all
in appropriate sequential and positional relationship for
expression of a nucleic acid cassette, a 3' flanking sequence of the
loricrin gene and a linker containing a unique restriction
endonuclease site at the location of the start and stop codon. Said
linker connecting the 5' flanking region to the 3' flanking sequence
and said linker further providing a position for inserting the
cassette. The cassette contains the specific nucleic acid sequence
to be expressed. Also, there is a keratin K6 inducible vector for
regulating expression of a nucleic acid sequence in epidermal
cells comprising the 5' flanking region of the keratin K6 gene, said
flanking region including the TATA box, a cap site and the first
intron and intron/exon boundary all in sequential and positional
relationship for expression of a nucleic acid cassette, a 3'
flanking sequence of the keratin K6 gene, and a polylinker having a
plurality of restriction endonuclease sites. The polylinker
connects the 5' flanking region to the 3' flanking sequence and
further provides a position for insertion of the cassette. The keratin
K6 and loricrin vectors can be further regulated by the addition
of a Vitamin D regulatory element. The vectors can be used in a
bioreactor for generating a variety of products including
proteins, polypeptides or antisense RNAs. The vectors can also be used
for gene therapy in treatment of a variety of diseases in animals
and humans including wound healing, surgical incisions, skin
ulcers, psoriasis and skin cancer, and in vaccination.


Claims

Note: Claims are shown in the official language in which they were submitted.


WO 93/22431 PCT/US93/03993
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CLAIMS
What we claim is:
1. A loricrin constitutive vector for efficient expression of a nucleic acid
sequence in epidermal cells, comprising:
a 5' flanking region of the loricrin gene, said flanking region
including a TATA box, a cap site and a first intron and intron/exon
boundary all in appropriate sequential and positional relationship for
expression of a nucleic acid cassette;
a 3' flanking sequence of the loricrin gene; and
a linker having a unique restriction endonuclease site at the
location of the start and stop codon, said linker connecting the 5'
flanking region to the 3' flanking sequence and said linker further
providing a position for inserting the nucleic acid cassette.
2. The loricrin constitutive vector of claim 1, wherein the 5' flanking
region is approximately 1.5 kb, the intron is approximately 1.1 kb and
the 3' flanking sequence is approximately 2.1 kb.
3. The loricrin constitutive vector of claim 1, wherein the unique
restriction site is selected from the group consisting of Cla I, Not I,
Xma I and Bgl ii, Pac I, Xho I, Nhe I and Sfi I.
4. The loricrin constitutive vector of claim 1, wherein the linker is a poly-
linker, said poly-linker including a plurality of restriction endonuclease
sites.
5. A keratin K6 inducible vector for regulated expression of a nucleic
acid sequence in epidermal cells, comprising:
a 5' flanking region of the keratin K6 gene, said flanking region
including a TATA box, a cap site, a first intron and intron/exon
boundary sequence all in sequential and positional relationship for
expression of a nucleic acid cassette;
a 3' flanking sequence of the keratin K6 gene; and

WO 93/22431 PCT/US93/03993

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a poly-linker having a plurality of restriction endonuclease sites,
said poly-linker connecting the 5' flanking region to the 3' flanking
sequence and further providing a position for insertion of the nucleic
acid cassette.
6. The keratin K6 inducible vector of claim 5, wherein the 5' flanking
region is approximately 8.0 kb and the intron and intron/exon
boundary is approximately 0.56 kb and the 3' flanking sequence is
approximately 1.2 kb.
7. The vector according to claims 1, 4 or 5, wherein the cassette includes
a nucleic acid sequence coding for a protein or polypeptide selected
from the group consisting of a hormone, a growth factor, an enzyme,
a clotting factor, an apolipoprotein, a receptor, a drug and a tumor
antigen.
8. The vector according to claims 4 or 5, wherein the plurality of
restriction endonuclease sites are selected from the group consisting of
Cla I, Not I, XMA I, Bgl II, Pac I, Xho I, Nhe I and Sfi I.
9. A method for in vivo transduction of epidermal cells with a loricrin
constitutive vector comprising the step of contacting the vector with
epidermal cells for sufficient time to transfect the epidermal cells.
10. A method for in vivo transduction of epidermal cells with a keratin K6
inducible vector comprising the step of contacting the vector with
epidermal cells for sufficient time to transfect the epidermal cells.
11. A bioreactor comprising transformed epidermal cells including the
loricrin constitutive vector of claim 1.
12. A bioreactor comprising transformed epidermal cells including the
keratin K6 inducible vector of claim 5.
13. The bioreactor according to claims 11 or 12 wherein the loricrin
constitutive vector includes a cassette having a nucleic acid sequence
coding for a protein or polypeptide selected from the group consisting
of a hormone, a growth factor, an enzyme, a drug, a tumor suppressor,

WO 93/22431 PCT/US93/03993
-45-

a receptor, an apolipoprotein, a clotting factor a tumor antigen, a viral
antigen, a bacterial antigen and a parasitic antigen.
14. The bioreactor of claim 13, wherein the nucleic acid sequence encodes
proinsulin or insulin.
15. The bioreactor of claim 13, wherein the nucleic acid sequence encodes
growth hormone.
16. The bioreactor of claim 13, wherein the nucleic acid sequence encodes
insulin-like growth factor I, insulin-like growth factor II or insulin
growth factor binding protein.
17. The bioreactor of claim 13, wherein the nucleic acid sequence encodes
antihemophilic factor (Factor VIII), Christmas factor (Factor IX) or
Factor VII.
18. The bioreactor of claim 13, wherein the nucleic acid sequence encodes
an epidermal growth factor (TGF-.alpha.), a dermal growth factor (PDGF)
or an angiogenesis factor.
19. The bioreactor of claim 13, wherein the nucleic acid sequence encodes
Type IV collagen, laminin, nidogen, or type VII collagen.
20. The bioreactor of claim 13 for vaccine production, wherein the cassette
includes a protein which induces an immunological response.
21. A method for ex vivo introduction of a loricrin constitutive vector into
epidermal cells comprising the steps of co-transfecting the Hector with
a selectable marker and selecting the transformed cells.
22. A method for ex vivo introduction of a keratin K6 inducible vector into
epidermal cells comprising the steps of co-transfecting the vector with
a selectable marker and selecting the transformed cells.
23. A loricrin gene of SEQ. ID. No. 1.
24. A loricrin constitutive vector having:
a 5' flanking region comprising nucleotides 1 to 1540 of SEQ.
ID. No. 1;

WO 93/22431 PCT/US93/03993
-46-
an intron and intron/exon boundary comprising nucleotides 1587
to 1679 of SEQ. ID. No. 1;
a 3' flanking region comprising nucleotides 4384 to 6530 of
SEQ. ID. No. 1: and
a linker to be inserted at the unique Cla I site at nucleotides
2700 to 2705 SEQ. ID. No. 2
25. A keratin K6 gene of SEQ. ID. No. 3.
26. A keratin K6 inducible vector having:
a 5' flanking region which extends from a unique 5' Xho I site
up to nucleotide 360 of SEQ. ID. No. 3;
an intron and intron/exon boundary comprising nucleotides 928
to 1494 of SEQ. ID. No. 3.
a 3' flanking region which extends from nucleotide 4740 of
SEQ. ID. No. 3 to a unique 3' Xho I site; and
a poly-linker inserted between nucleotides 1504 to 1509 of SEQ.
ID. No. 3
27. A method for enhanced healing of a wound or surgical incision
comprising the steps of in vivo transduction of epidermal cells with a
loricrin constitutive vector, wherein said vector includes a nucleic acid
cassette having nucleic acid sequence for a growth factor.
28. A method of enhanced healing of a wound or surgical incision
comprising the step of in vivo transduction of epidermal cells with a
keratin K6 inducible vector, wherein said vector includes a nucleic acid
cassette having a nucleic acid sequence for a growth factor.
29. The method accodring to claims 27 or 28, wherein the epidermal cells
are traduced with a plurality of vectors and wherein the cassette of
at least one vector includes the nucleic acid sequence of epidermal
growth factor (TGF-.alpha.), the cassette of at least one vector includes
dermal growth factor (PDGF), the cassette of at least one vector
includes the nucleic acid sequence for a matrix protein to anchor the

WO 93/22431 PCT/US93/03993

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epidermis to the dermis and the cassette of at least one vector includes
the nucleic acid sequence for an angiogenesis factor.
30. The method of claim 29, wherein the sequence for the matrix protein
is selected from sequences coding for a protein selected from the group
consisting of Type IV collagen, laminin, nidogen and Type VII collagen.
31. The method of claim 29, wherein the angiogenesis factor is selected
from the group consisting of acid fibroblast growth factor, basic
fibroblast growth factor and angiogenin.
32. A method of treating skin ulcers comprising the steps of in vivo
transduction of epidermal cells with a loricrin constitutive vector,
wherein said vector includes a nucleic acid cassette having a nucleic
acid sequence for a growth factor.
33. A method of treating skin ulcers comprising the steps of in vivo
transduction of epidermal cells with a keratin K6 inducible vector,
wherein said vectors include a nucleic acid cassette having a nucleic
acid sequence for a growth factor.
34. The method according to claims 32 or 33, wherein the epidermal cells
are transduced with a plurality of vectors and wherein the cassette of
at least one vector includes the nucleic acid sequence of epidermal
growth factor (TGF-.alpha.), the cassette of at least one vector includes
dermal growth factor (PDGF), the cassette of at least one vector
includes the nucleic acid sequence for a matrix protein to anchor the
epidermis to the dermis and the cassette of at least one vector includes
the nucleic acid sequence for an angiogenesis factor.
35. The method of claim 34, wherein the sequence for the matrix protein
is selected from sequences coding for a protein selected from the group
consisting of Type IV collagen, laminin, nidogen, and Type VII
collagen.

WO 93/22431 PCT/US93/03993

-48-
36. The method of claim 34, wherein the angiogenesis factor is selected
from the group consisting of acid fibroblast growth factor, basic
fibroblast growth factor and angiogenin.
37. A method of enhanced healing of a wound, surgical incision or skin
ulcers in humans and animals comprising the steps of:
ex vivo tranduction of epidermal cells with a loricrin
constitutive vector, wherein said vector includes a nucleic acid cassette
a nucleic acid sequence for a growth factor; and
transplanting said tranduced epidermal cells into the animal or
human to be treated.
38. A method of enhanced healing of a wound, surgical incision or skin
ulcers in humans and animals, comprising the steps of:
ex vivo transduction of epidermal cells with a keratin K6
inducible vector, wherein said vector includes a nucleic acid cassette
having a nucleic acid sequence for a growth factor; and
transplanting said transduced epidermal cells into the animal or
human to be treated.
39. The method according to claims 37 or 38, wherein the epidermal cells
are transduced with a plurality of vectors and wherein the cassette of
at least one vector includes the nucleic acid sequence of epidermal
growth factor (TGF-.alpha.), the cassette of at least one vector includes
dermal growth factor (PDGF), the cassette of at least one vector
includes the nucleic acid sequence for a matrix protein to anchor the
epidermis to the dermis and the cassette of at least one vector includes
the nucleic acid sequence for an angiogenesis factor.
40. The method of claim 39, wherein the sequence for the matrix protein
is selected from sequences coding for a protein selected from the group
consisting of Type IV collagen, laminin, nidogen and Type VII collagen.


WO 93/22431 PCT/US93/03993

-49-
41. The method of claim 39, wherein the angiogenesis factor is selected
from the group consisting of acid fibroblast growth factor, basic
fibroblast growth factor and angiogenin.
42. A method for treating psoriasis comprising the step of in vivo
transduction of epidermal cells with a loricrin constitutive vector,
wherein said vector includes a nucleic acid cassette having a nucleic
acid sequence coding for a protein or polypeptide selected from the
group consisting of TGF-.beta., a soluble form of cytokine receptor, and an
antisense RNA.
43. A method for treating psoriasis comprising the step of in vivo
tranduction of epidermal cells with a keratin K6 inducible vector,
wherein said vector includes a nucleic acid cassette having a nucleic
acid sequence coding for a protein or polypeptide selected from the
group consisting of TGF-.beta., a soluble form of cytokine receptor, and an
antisense RNA.
44. The method of claims 42 or 43 wherein the cassette contains the
sequence for TGF-.beta..
45. The method of claims 42 or 43 wherein the cassette contains a soluble
form a cytokine receptor selected from the group consisting of IL-1,
IL-6 and IL-8.
46. The method of claims 42 or 43 wherein the cassette contains antisense
RNA to TGF-.alpha., IL-1, IL-6, or IL-8.
47. A method of treating cancer of squamous epithelia comprising the step
of in vivo tranduction of squamous epithelia cells with a loricin
constitutive vector or a keratin K6 vector, said vector includes a
nucleic acid cassette having a nucleic acid sequence coding for an
antisense RNA.
48. The method of claim 47 wherein the squamous epithelia cells are
selected from the group of cells consisting of epidermis, oral,
esophageal, vaginal, tracheal and corneal epithelia.



WO 93/22431 PCT/US93/03993


-50-
49. The method of claim 47 for treating skin cancer wherein transduction
of epidermal cells is with a loricrin constitutive vector and said nucleic
acid cassette had a nucleic acid sequence coding for an antisense RNA
for the E6 or E7 gene of human papilloma virus.
50. The method of claim 47 for treating skin cancer wherein transduction
of epidermal cells is with a loricrin constitutive vector and said nucleic
acid cassette has a nucleic acid sequence coding for the normal p53
protein.
51. The method of claim 47 for treating skin cancer wherein transduction
of epidermal cells is with a keratin K6 vector and said nucleic acid
cassette has a nucleic acid sequence coding for an antisense RNA for
the E6 or E7 gene of human papilloma virus.
52. The method of claim 47 for treating skin cancer wherein transduction
of epidermal cells is with a keratin K6 vector and said nucleic acid
cassette has a nucleic acid sequence coding for the normal p53 protein.
53. The vector according to claims 1, 4 or 5, further including a Vitamin
D regulatory element.
54. The vector of claim 53, wherein the Vitamin D regulatory element is
from the human K1 keratin gene.
55. A method for vaccination comprising the step of the in vivo
transduction of epidermal cells with a loricrin constitutive vector or a
keratin K6 inducible vector, wherein said vector includes a nucleic acid
cassette having a nucleic acid sequence coding for a protein or
polypeptide which induces an immunological response.
56. The method of claim 55, wherein the cassette includes a sequence for
a viral capsid protein.
57. The method of claim 56, wherein the capsid protein is from the human
papilloma virus.
58. A transgenic animal containing the vector of claims 1, 4 or 5 in its
germ and somatic cells, wherein said vector was introduced into said

WO 93/22431 PCT/US93/03993

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animal or an ancestor of said animal at an embryonic stage and the
nucleic acid cassette of said vector is only expressed in squamous
epithelia.

Description

Note: Descriptions are shown in the official language in which they were submitted.


.'~ W ~ 93/22431 2 1 3 ~ 6 7 0 P ~ /US93/~3993




The i~ve~tion was partially supported by a g~ant from the United
5tate~ goverr~nent u~der AR4024Q awarded by the National In~titut~s of
10Health. The ~ rernme~t ha~ certain rights ill thi~ invention.

~F~ =~
The pr~sent inve~tio~ r~a~s generally to e~pres~ion vectors for use
pres~i~g protein~ a~d polypeptides ~ epidelmal cell8. More
15partic~ly it relates to a c0~8titutiv0 ve~tor COI18~tillg of the loricrin
ge~e promot:er9 it~ ~' fl~i~g regio~ 19J transcribed but unt~anslated
reg~o~ ~ntron7 it8 3' l;ral~scribed but u~tran~lated r~gion, it~
c~ntiguou~ non-codiIlg DN~ co~ g th~ g0Ile'8 natural tran~criptional
tio:~ re~on a~d it~ 3' flallkiDg re~o~. It ~ er relates to an
~: ~ 20~ucible Yector co~ tillg of the K6 kerati~ gene promoter7 it~ 5~fl~killg regio~ 5' trallscribed but uIltra~la~d regioll, its fir t i~tron,
3' tra~c~ibed but ulltran~lated region, its eo~tiguiou~ non-coding DNA
cs~taiDi~g: the gene's nsl~l tran~c~iptio~al ~ermi~ation regio~ and it~
3' ~lank~g region. Additionally it relate~ to the trea~ent of di~ea~e
26~ing the constitutive and inducible vectors.

: i

~ The skin i~ the lar~est organ in th~ human bo~ and7 due to it~
acce~sibility, it i~ an attractive target for gene therapy. The outer layer
30of the ~kiD i~ called the epide~i~, and it i~ pa~ticular~y attractive since
epidermal cells car~ be growIl ~n vitro from Ilormal and affected patients,

wo~3/~243~ G70 PCl/US93/03993




are easily tran~formed geIletically by vectors, and can be readily
reintroduced by autogr~ing. Pre~ious 8tudie8 investigating the feasibili~y
of us~g epide~nal ceL~s for ~ene therapy haYe oIlly considered this ex uivo
approach. These i~vestigation~ utiliz~d retroviTal Yector~ d their
promoters to iIltroduce aIld e2~press foreign genetic material in epidermal
cells. Even though the epidermis is ava~cular, these ~tudie~ demon~trated
that protei~s e~pressed i~ the epide~ were abl~ to traverse the
epidermal~ermal barrier alld achieve ~3y8te~c distribution (Morgan et al.,
Science~ Vol. 237, pp. 1476-1479, (1987), Fe~uve~ et al., PNAS USA, Vol.
86, pp. 8803-8807, (1989); Garlick et al., J. Invest. Dermatol., Vol. 97, pp.
82~829l (1991)~. The acGe~sibility of the epidermi~ mak~8 it ~uitable for
other rou~s of vector d~livery that do ~ot require ~ e~ vivo approach,
e.gO~ a gene gun (Sanford et al., TechIliques, Vol. 3, pp. ~16~ (1991);
William~ et al., PNAS U~A, Vol. 88, pp. 272~2730, (1991~; John~tone et
: 15 : al., In Vitro Cell Dev. Biol., Vol. 27, pp. 11-14, (1991~ addition, novel
v~ctor ~ystem~ derived from genes Ilormally e~pre~ed at bigh level~ i~
epide~mal cell~, could pro~e optimal for achieYi~g efficient, as well as
regulated, e~pre~sioll of e~oge~ou~ DNA. ~hese vector ~y~tem~ are the
ubject of thi~ elltio~.
The epidermis is a co~tinuously regene~glti~g ~tratified ~q~nou~
epithelium. Dif~ere~tia~ epiderm~ cells are the progeny of proliferative
ceL~s ~ocated in the lba~al cell layer and there i~ ~ubstaDtial evidence
su~ tiIlg that the rege~eration proce~ occur~ i~ pIoliferative unit~
compo~ed of slowly ~ycli~g, ~elf-re~ewi~g ~tom cells, proliferative but non-
re~ewi~g transit smplii~g cell~, and post-mitotic matur~ng epidermal
cell~ versen, et al., Cell Tissue Kinet., Vol. 1, pp. 351-367, ~1968);
;~ MacKenzie, et al., Nature, Vol. 226, pp. 6~655, (1970); Chr~topher~, et
al., J. I~ st. ~e~natol., Vol. 56, pp. 1~170, (1971); Potten, In Stem
CelLs: Their Identification and Characterization, pp. 2()0 232, (1983);
Cotsarelis, et al., Cell, Yol. 61, pp. 1329-1337, (1990)). The maturation

WC~ 93/22431 r~ 1 3 ~ 6 7 û Pcr/us93/03g93




proce~s (ts~al dif~erentiatio~ initia~Qd when epidennal cell~
~nth~aw from the cell ~ycle ~d mlgrate ~rom th~ b~al layer iIltO the
8piD01~ layer. Maturatior~ cor~ es as 8pLl10ul~ ce~ migrate into the
gra~ular layer a~d te~ate~ with the formation of the stratum corneum.
5 Morphological and biochemical ~tudie~ have ~hown that terminal
d~erentiatio~ occurs in 8tage8. ~Matolt~r, J. InYe~t. Dermatol., Vol. 6~,
pp. 127-142, (1975)). Ker~t~ K5 and K14 are m~or product~ OI basal
epidermal celLs (~Noodcock-Mitchell, et al., J. Cell Biol., Vol. 95, pp. 580-
588, (~ 982)). These protein~ a~semble into 10 nm ~llPment~ (intermediate
10 filame~ts EIF]) and, ~gethsr with microtubules (tubulin) and
~: micrsfVllameIlts (ac'dn), compri~e the cgtosksleton of epidermal celLs
(~ei~ert, P.M., et al., Cell, Vol. 423 pp. 411-419, (1985)). One of the
earlieRt Challg~8 as~ociated with t:he commitmeIlt to di~erentiation and
~gration ito the 8pi~10U~I layer ia the i~duction of anoth~r
differe~tia~ioIl~specific pair of k~ratin~ (~1 ~d K10). IF co~taining K1
d K10 replace tho~e co~taining K5 and ~14 a~ the m~or products ~f
cell~ in the 8pi~10U8 layer ~Woodcock-Mitchell, et al., J. Cell Biol., Yol. 9B,
:PP. ~80-588, ~1~82); ROOP, et a1., PrOC. Nat1. ACad. SCi., USA, VO1. 80, PP.
716-720, (1983~; SchWeizer~ etal, cell,VQ1. 37,PP. 1~9 170, (1~84)) The
2Q ~ ~ ~ k eratin IF formed by thes~ prstein3 as~mble into bu~dles. II1 the
g a~ular laly~9 a~o~he~ high molecular weight no~-IF protein i~
~thesized, which ~ proce~ed into filaggriD, arld i~ thought l;o promote
erati~ filament aggr~gatio~ d disul~d~bo~d ~o~matioIl (Dale, B~., et
;, ; al., Na~ure, 'Vol. 276, pp. 729-731, (1978); HardiDg9 C.R., et al., J. Mol.
BiO1., VO1. 170, PP. 651-673, (1983)). In the f~a1 stage Of ePiderma1 Ce11
matUratiOn, tr~nsglUtaminase Cata1YZeB the cr~li~ing Of inVolucrin and
lOriCrin, bY the fO1matiO~ Of (Y-g1Ut~UnY13 lysille iBOPePtide8? intO a high1Y
sOluble COrnified e~Ve1OPe WhiCh L8 1OCated jU~t b~neath the P1a~ma
membrane (RiCe and Greer1, Ce11, YO~ , PP. 417-422, (1977); Mehre1, et
al., Ce11, VO1. 81, PP. 110~1112, (1990)).

WQ 93/22431 P~/US93/03993
21346iO



G~e~ or cDN~s encoding the m~uor keratins expre~sed in
epidermal cells have ~ow been cloned: K5 (Lersch, et al., Mol. and Cell
Biol., Vol. 8, pp. 48&493, (19883, K14 (Marchuk, et al., Proc. Natl. Acad.
Sci, US~, Vol. 8, pp. 1~0901613, 51985); Knapp, et al., J. Biol. Chem, Vol.
52~2, pp. 938-04~, (1987); ~oop, et al., Cancer Re8., Vol. 48, pp. 324~-3252,
(lg88), K1 (St~inert, ~t al., J. Biol. Chem., Vol. 260, pp. 7142-7149, ~1985)
and K10 (Krieg, et al., J. Biol. Chem., Vol. 260, pp. 5867-5870, (1980).
North~r~ blot analy8i~ ~nd in 8itll hybridization atudies 8ugge8t that
keratin e~ K5 aIld K14 are predo~alltly transeri~ed in the
10proli~erating basal layer alld transcription of kera~in genes K1 and K10 i8
i~duc~d a~ cells migrate into the ~pinous layer (Lsrsch, et al., Mol. and
Cell Biol., Vol. 8, pp. ~&493, tl98~; hnapp, et al., J. Biol. Chem, Vol.
2623 pp. ~ 45, (l987); ~oop, et al., Ca~lcer Re~., Vol. 48, pp. 3245-3252,
(1988)). Ge~es e~coding rat (Haydock, et al., J. Biol. Chem.9 Vol. 261, pp.
1512520-12525, (1986)) ~d mouse (Roth~agel, et al., J. Biol. Chem., Vol.
262, pp. 16643-15648, (1~7)) filagg2in ha~e ~ow bee:ll identified and in
~ hybridizatio~ esperiments haYe confirmed that transcriptiox~ of this
gene i~ reBt;ricted to the granular layer (RothIlagel, et al, J. Biol. Chem.,
~: VoL 262, pp. 1~15648, (1987); Fisher, et al. J. Inve~t. DeFma~l.,.Vol.
20:88, pp. 661-664, (1987)). To diate, l~ricnn i~ the o~ly ge~e encoding a
~: ~ compo~eIlt of the cornified envelope to ~ studied at the mol~cular l~velby in ~ ybn&atio~ and tran~cript~ of thi~ ge~e are rest~cted to the
granul~r lay~r ~hrel, et al., Cell, Vol. 61, pp. 1103-1112, (1990)).
S~nce t~e g~ne3 ~nc~g the ~tructured protei~ described above
25ar e e~pre~sed at ve~y high level~, i.e. their indiYidual tran~cripts r epre~ent
5-10% OI the total mes~enger RNA in epidermal eslLs, their regulato~y
regions could be utilized in the con~t~ction of vector~ to direct efficient
e~pressioIl of Q~ogeIlous DNA i~ epidermal cell~. In parti ular, ef~orts
haYe focu~ed on the gene ellcoding loricrin, a major keratinoc~e cell
envelope protein (Mehrel et al., Cell, Vol. 81, pp. 1103-11129 (1g90)).

~ wo 93/2243l PCl/U~g3/03993
213j~670



Although thi~ gene i8 normally only esprsssed in the most dif~erentiated
layers of ~e epidermis, the pre8ent iIlventioIl demonstra~es that it
pC8~1ib~ 0 remove 8equence~ that no~ally restrict e2~pre8~ion of the
loricrin gene Ln undif~ererlti~ted cells and schieve high levels of expression
5 in undif~erentiated epidermal calls (greater than the viral promoter of
SV'~O). Thu~, thi~ vector i8 constitutively e~pres~ed in epidermal cells st
all di~ere~tiati~n 8tate8.
I~ additioIl to the co~titutive vector, the present invention takes
advantage of ~ e~pressioll charac~eristics o~ another gene e~coding the
10 K6 keratin to constIuct an inducible vector. Tbe K6 gQne i~3 normally
~eYer espressad i~ the epide~, but it caD be illduced under
byperproli~erati~ coIlditioDs such a~ wound he~g (Wei~s, et al., J. Cell
Biol., Yol. 98, pp. 1397-1406, (1984); Naka~awa, et al., J. Cell Biol.1 ~ol.
103, pp. ~61a, (1986); Stol~r, et al., J. Cell Biol., Vol. 107, pp. 427-446,
:~ ~ 15 (1988~ d topid applîcation of retinoic ~cid (~2~osenthal et al., J. Invest.
~ ~ D~matol., V'ol. 95, pp. 51~515, (1990)).


~ :~
An~ object of the ~e~t inveIltio~ i~ a loricrin co~tituti~e vector
20: for ef~lcie~t espg~s3io~ of Ilucleic acid ~eque~ce~ î~ epidermal cell8.
~ addi~oIlal obj~et of the pr~ reIltio~ is a keratin K6
ducible ~recbor for regulated e~ ioll of Ilucleic acid ~equences in
:: epidermalcells.
~ other object of the pres~nt i~ventîon îs an in viuo method of
25 transduci~g epîde~nal cells with a co~titutiYe or iIlducible vector.
A further obiect of the pre~ent i~ tio~ a bioreactor for
produci~g proteins and polyp~ptid~s.
An additional object of th~ pre~ent invention i8 an enhanced method
`~ of wou~d healing or healing of 8urgical iIlcision~.

WO 93/22431 - P~/U~93/03993 ~- .
~ 1 3-~`6 -7 f~



Another object OI the present invention i8 a method of treating ~kin
ulcer~.
~; ~ additi~llal object ofthe present invention i8 method oftreating
p8~rla~,
A further object of the present invention i8 a method of treating
~: ~ ca~cer.
Thu~3, in accompl;~ g the foregoing oyects~ there i8 provided i
accorda~ce with one a~pect of the preseIlt invention, a loricriD constitutive
:
vector for e~l&i~nt e~pre~sion of ~ucleic acid sequence~ i~ epidermal cell~,
10 comprisi~g a 5' fl~B region of the lor~crin gene, said fla~irlg region
ix~cludi~g a T.ATA bos, a cap site and a firs~ intron and an i~tron/e~con
r, all in appropriate sequelltial and po~itional relstionship for
pres~ of a l~ucleic ~id ca~sette; a 3' ~anking ~equence of the loricrin
g~e; a~d a lirllcer having a unique re~triction e~do~uclease ~ite at the
15 loeatioll of t}~ 8t2~ d stop codon, 8alSl linker connectiIlg the 5' flanking
region ~ the 3' flanki~g ~ uence and said ~er ~urther pr~Yiding a
ition for i as~g t~e ~ucleic acid cassette which iIIcludes the ~pecific
wGleic acid s~quence to be e~pre~sed.
In ~pecific embodiments of the pre~ent invention, tbe loricrin
: , ~
20 ~: con~titu~ vec~or h~ a 5' flf~nking regioIl of appr~mately 1.~ kb9 a~l
intron of ~b Ll 1~ a~d a 3' fla~king sequence of
appro~mat~ly 2.1 kb.; Ill specific embodim~nt~ of the pr~ent in~rerltion,
the l~ constitutive veetor al~o includ~ a poly~ ker.
A~ bl'IlatiVe emb~diment of the pre~a~t ~enti~Q L~ a keratin K6
2~ ducible ~ector or regulated e~pr0ssion of a ~ucleic acid s~qu~nceepidermal cells, comprising a 5' fla~ g region of the k~ratin K6 gene,
aid f~anking regio~ i~cluding a T~TA bos, a cap 8ite, a f~st intron and
tronJexon ~:oundar~, all in sequential aIld positioIlal relationship ~or
e2~pression of a nucleic acid cassette; a 3' tla~king sequellce of the k~ratin
30 K6 gene; and a poly~ kerhavi~ga plurali~ of restriction endorluclease

~:
:

. ~ W0 93/22~31 , ., Pcr/U~93/039~3
` 2i34~7~



sites, said poly-linker coImecti~g the 5' flanking region to the 3' ~lanking
se~uence and ~urther providing a poæition for in~ertion of the nucleic acid
cassette which includes the specific ~ucleic acid sequence to bs e~pressed.
I~ 8peCiflC embodiment~ of ~he present inYention, the keratin K6
~i inducible vector, 5' flankiIlg region of appro~a~ely 8.0 kb, a~ intron and
intro~e2~0n bouIldary of appro~ately 056 kb ~d the 3' flar~king
sequeIlce of appro~umately 1.2 l~b.
I~ the presen~ i~vention, the restriction endo~uciea~e ~ites in the
~: linker or ~ly~ ker ~e selected ~rom the group coD~isting of Cla I, Not
10 I, Xma I, Bgl II, Pac I, ~o I, Nhe I and Sfi I.
~ one embodiment ~ the present inventio~, the nucleic acid
cass~tte, of the con~tit;utive or inducible V8CtOI'8, contain~ a sequence
g for a proteiIl, polypeptide or antiseD~e lR~A.
pecific embodime~s of the present illvention, there i~ a
~; 15 bioreaetor eomp~ing l;ra~ducsd epide~nal cells iI~cluding either the
lori~ constitutiva or k~ratin K6 inducible ~ectors. The bioreactor can
pr~duc~ a ~rariel~y of compound~ ~elected Prom proteins, polypeptides,
antisen~e RNA.
pecific ~mbodimen~s of the pre~e~t invention, the loricrin
20 G~stituti~ire or keratin K6 inducible vectors are used for the treatment of
W~ 3, 8urgical ~nc~sions, psor~as~, 8kiD ulGe~s and ~cQr.
~- ~: The me1~od OI the present i~v~lltion ca~l also be u~d for
ation ~y tran~ducirlg epidermal celb with a loric~ constitutive or
kerati~ K6 iIlducible ~ctor having protein~ or polypeptides which induce
25 a~ olog~cal r~spon~e.
~: Another enibodiment of the prese~t Ln~erltion L8 the nucleotide
seque~ces for the loric~ gene and loriclin con~titutive vector.
Another embodiment of the present inve~tio~ L8 the nucleotide
sequence~ for the keratin K6 gerle and keratin K6 induci~le vector.

wo 93/22~31 2 1 3 ~ 6 7 ~ i Pcr/~ls93/o3ss3 ~t~




Other and further objects, feature~ and adYan~ages will be apparent
from the followiDg de~cription of the presen~ly preferred embodimen~s of
inve~isn which are given for tbe purpQses of di~closure wheIl taken in
coD,junctioll witb the accompan~g drawings.

F~ 1 i~ a ~chematic drawing of the mouse loricrin gene alld the
constit;utive epidermal v~ctor deriYsd from its regulato~r sequences.
2 shows the espression charact~ tica of the co~titutive
10 epidermal vector i~ erentiated and dif~ereIltiated epidermal cells
utiliziDg a reporter ge~e e~coding chlorampheI~icol acet~yl transferase
(GAT).
~ 3 show~ the e3cpressio~ characteF~tics of ~e co~3tituti~e
piderm~l vector in uivo utilizi~g a repor~er g~ne e~coding E. coli
galact~si~e.
Fig~ 4 demo~at~ the suppre~sio~ by Yitamin Dt of a ~ovel
negatiYeregulato~yeleme~tfromthehumanK1 ker~tinge~e (HK1.NRE).
i is a ~chematic r~pre~entative of th2 co~titutive epidermal
~:
wctor w}lich can be suppressed ~y Vitamin D3 vi~ insertion of the
20 ~ HKl.NRE. ~ :
Figure 0 ~3 a ~chematic drawing of a deFivati~s OI ~he mouse K6
: l~rati~ ~ene (BC~ M~6~)-HKl).
~ gure7showsth~ ~pres~ioIlcharacteri~ticsofBC:MP~K6(A)~HK1

25E~ar~ 8 ~ a schematic drawing of the mou~e K6 keratiTl ge~e a~d
~: the propo3ed cun~tructiorl of a~ ducible epidermal ~ector from its
r~ at~ sequences.
Figure ~ i~ a schematic represe~tative of the inducible epidermal
vector which can be ~uppressed by YitamiIl D~ via in~e~ion of HK1.NRE.

~ WO 93/22431 ` PCr/US93/039~3
213g670



The drawing~ ~re not ~ece~sarily to ~cale, and certain features of
the inY~tion may be exaggerated i~ ~cale and show~ chematic form
in the interest of clsrity and concisenes~.

~_ 1~
It will be readily apparent to o~e skilled in the art that Y~g
sub~tit;utio~s a~d modificatioIls may be made to the inve~tion dL~closed
herein without departi~g rom ths ~cope aIld spirit of the inYention.
The term "trans~ormed" as used herei~ refer~ to the proce~s or
mechai~m Qf inducing changes in the characteristics (e~pre~sed
ph0I~Lol~ype) of a cèll by the mec~m of gen~ transfer whereby DNA is
inl;roduced i~to a c~ll in a form where it e$pre~es a 8pecific gene product
or alte2s ~pr~sio~ of e~dogenou0 ~ protucts.
:: The t~rm "~a~duction" a~ u~ed h~rei~ refera to the proce~6 of
15 i~troducL g a DNA ~ressio~ ~vector i~to a cell. VaFiou~ method~ of
1;ranstuctio~ ~e pos~ible, i~cluding micro~ection, CaPO~, lipo~ection
yB080~Ue ~usio~ Lse of a gene gu~ and DN~ ~ector traIlsporter.
Th~ lgricrin con~titutive vector and th~ keratin K6 indueible vestor
caD be tra~duced into the squamous epithelia e~ by any of the Yariety
20 ~ of way~ dsscribed aboY~. The t3rp4s of epith~lia cells i~cluds epide~n~,
oral~ e~ophag~l, vaginal, t~acheal~ co~eal ~d otheP ~qu~o~ epithelia.
Th~y ars tra~ducsd by colltacti~g the YeGt~r with the ce~. In the
prefelTed em~ent t~is includ~ g a gene gu~ or DN~ vector
tra~port~r.
The tsrm "DNA vector tran~por~r" as u~ed herein refers ~o those
molecule~ which bind to DNA vectors and are capable of being taken up
by epidermal ceJls. DNA tra~porter is a molecular c~mpl~x capable of
rloIl-covale~t billding to DNA and efficiently t~a~sportiIlg the DNA
through the cell membrane. Although not ~ece~s~y, it i~ pref~rable that
30 the tra~portQr also tIa~port the DNA through the nucle~r m~mbrane.

WO 93/22431 PCrJUS93/03993 .~
21~7 0 `~


-10-
.




The term "nucleic acid ca~sette" as used herein rePers to the genetic
material of iIltere~t which can e2pre~s a protein polypeptide or RNA and
which i~ capable of being incorpQrated ~to tb~ epidermai cell~. The
~ucleic acid cassett~ i8 positionally a~d sequelltially orie~ted within the
5 l~ratin ~B illduci~le vector or the loricri~ constitutive vector such that
the mlcleic acid iD the ca~sette can be transcribed into RNA or antisense
d, when nece~ary, tra~alated into proteins or polypeptides in the
tra~formed epide~al cell~. A v~iety of proteins ~d polypeptides ean
be e~pressed by the se~uence in the nucleic acid cas~stte in the
10 *aIlsformed epidermal cells. These proteins or polypeptidss which can be
e~pNs~ed iIlclude ho~mGnes, growth factors, enzymes, clotti~g faGtors,
apolipoproteiILs, r~cept~rs, drug~, tumor antigens, viral a~tigens, para~itic
~ and bact~ tigen~. Specific e2cample~ of these compounds
iDclu~e proiIls~, i~uli~, growth hormon~, i~ulin~like growth ~ctor I,
15 : insuli~like growth factor II, insulin grow~h factor binding protein,
pidermal growth factor TGF-, dermal g~owth factor PDGF, aIlgiogenesi~
ctors, e.&, acid fib obl~t growth factor, ba~ic fibrobla~t growth factor
and~ angioge~in for in~t~nce, matri~ protei~ such as Iype IV collag~n,
Iype nI ~Lla~e~ 18~nin ~d protei~s from ~ix al, bacterial and par~sitic
,
20 ~ orga~li~ which ca~ be used to i~duce imm~ologic r~spon~e.
ge~etic materiul which i~ ~corporated illtO the epidermal cell~
g the loricrin coD~ e vector or the keratin KS i~udble vector
c1udes DNA ~ot normally found in epidermal cells, DNA which i~
~ormally found in epidermal cell~ but alot expre~ed at physiolo~cal
' 25 ~li~lCa~lt levels, DNA normally ~ound in epidermal sellLs and normally
e2pre~ed at physiolQgical:desired levels, arly other DNA which c~ be
;~ ~ : modifi~d ~or espression i~ epidermal celLs, and any combi~ation of the
~: ~: above.
The term "loricFin co~ti~tive vector" as u~ed herein refers to a
30 vector which can be inserted into epidermal cells and which once inserted,

.... ~ w~ 93/2243~ 21 3 ~ 67 0 pcr/uss3/o3993



-11-

will espr~sa a constitutive li.e., a consta~t l~vel) of protein, polypeptide or
a~ti~en~e lRNA from the nucleic acid cas~ette which i~ pa~t of the loricrin
con~titutive vector. The loricrin constitutive vector is used for ef~lcient
e~pre88ion of a ~ucleic acid ~equence i~ epide~nal ceLl~ and i2 compri~3ed
5 of a 5' ~anking region of the loricrin gene, ~aid fla~king region im:luding
a T~TA boa~, a cap ~its a~d a ~t iIltron and an iIltro~/exon bounda~y all
iIl appropriate sequential alld positiollal rslatio~hip ~or e~pression OI a
nucleic acid ca~sette; a 3' fl nking ~equeIlce of the lo~c~ ge~e; and a
linker haqing a u~ique restrictio~ e~donuclea~e 3i~ 8t the loeation of the
10 start aDd ~top codon, said lin~er connecti~g the 6' fl~king region to the
- 3' ~ki~g seque~ce and said ~ ker fi~rther prov~ding a po~ition for
in~0rtiIlg the D.ucleic acid cassette.
T~e ~equence for the loricrill geIIe which i~ used for preparing the
; ~ - loricri~ co~stitutive vector ~ shown iD SEQ. ID No. 1. The loric~
c~tit~tiYe yectoI has a 5' fl~king re8ion comprisi:llg ~ucleotide~ 1 to
1540 of SEQ. ID. No. 1; a~ iDtron a~d iIltroD/~o~ bounda~y comprising
uel~otîdes 1587 to 2677 OI SEQ. ID. No. 1, a 3~ flaIll~g region
co prising ~ucleotide~ 4384 to 6530 of ~ . ~. ID. No. 1; a~d a lîIlker to ~e
erted at the unique ~ ite at ~ucle~tides 270~ to 2705 of SE:Q. ID.
20 ~: No. 2. The loricrin constituti~s ~ector has ~ ~' fl~king regio~ of
ppro~mately 1.~ ~, an i~tron of appro~tely 1.1 1~ a~d a 3' flaIlking
wque~ce of appro~imat0b 2.1 kb. Th~ ker of the loricri~ coDatitutive
~reetor caD be a poly-linker. The poly~ ker includes a pluralit~ of
re~trictio~ endonuclea~e 8ite~.
The term "kerati~ K6 illducible Yector" a~ u~ed herein ~ a vector
which i8 weful for regulated ~pre~ioIl oî a nucleic acid ~equence ill
~: epidermal cell~. The keratin K6 inducible vector compri~e~ a 5' flanking
regio~ OI the keratin K~ ge~e, ~aid fl~king regio~ cluding a TATA boa~,
a cap ~ite, a f~t illtron and an intronle~on bou~ 11 in sequential and
positional relatioIlship for the espressio~ of a nucleic acid ca~ette; a 3'
, .

WO 93/22431 2 1 3 ~ 6 7 0 Pcr/Us93/03993 .'~'`!,



-12-

fla~ki~g ~equence of a kerati~ K6 gene; and a poly-l~ker. The poly~ ker
include~ a plurality of restrictio~ endonuclea~e ~ites, connect~ the 5'
flanki~g regio~ to the 3' flanking sequence and further provides a
position ~or i~3ertioIl OI the n~lcl~ic acid cassette.
The partial seque~ce for the kerati~ K6 gene which i~ u~ed for
prepa~g the keratirl KG inducible vector i~ sbow~ chematic form in
Figur~ 8 ~d the sequellce ia ~hown in SEQ. ID No. 3. The keratin
inducible ~ector ha~ a 5' ~g regioll whi~ e~tends from a unique 5'
~o I ~ite up to ~ucleotide 360 of SEQ. ID. No. 3; a~ on a~d
intro~ xon bo~da~g comprising Ilucleotides 928 to 1494 of SEQ. ID. No.
3; a 3' fla~ g region which estend~ ~rom ~ucleotide 4740 of S3~:Q. ID.
No. 3 to a unique 3' Xho I site; ~d a poly linker in~erted between
uoleot;ds~ 1504 to 1509 of SEQ. Il). No. 3.
The keral;iD K6 inducl~le ~ectoF ha~ a 6' fl~king regio~ of
approa;imately 8.û l~ intron alld i~t~ro~eicon bounda~y of
appro~imately 0.56 kb a~d a 3' flan~ing ~eque~ce of pproacimately 1.2 ~b.
~: The restrictio~ eIldonuclea~e 8ite~ foun~ he li~k~r and poly-linker of
the lori~ a~d keratiDL K6 vectors can be any re~t~iction endo~uclea~es
which will allow insertion of the nuGleic acid caBsette~ In the preferred
smbodiment they ~re usually salected frQm the group consi~i~g of Cla I,
~ot I, Xma I, Bgl II, Pac I7 Xho I Nhe I and Sfi I.
0~2 skilled i~ th~ art will readily recog~ize that there are a Yariet~
of way~ to ~troduce the loricri~ con8titutiY~ vector or the keratin K6
iIlducible ~ector i~to epidermal cells. The vector8 can be in~erted either
zn viw or e~c vivo. The mode of insertion will, to a certain degree,
dete~e the aYailable methods for the in~e~tion.
One em~ent of the pre~ent iIlvention i~cludes a bioreactor. A
bioreactor i~ compri~ed of transformed epidermal cell~ which contain the
loricrin co~stitutiYe vector or cont~ the kerat~n K~ i~ducible vector.
Once the vector ~ i~serted i~ the epidermal cell~, the epide~al cells will

f~ ~ WO 93/22431 2 i 3 ~ 6 7 0 PCI /US93/03993



-13-

expre~s the ~ucleic ca~set~e and produce the protein, polypeptide or
a~tisense RNA of i~tere3t. This can be done either in vivo or ~: vivo.
A~y compound which ca~ be e~coded i~ d espre~sed ~y, the nucleic acid
ca~ette ca~ be produced by the bioreactor.
0~0 method for ex viuo int~oduction of the loricrin coIlstitutive
~rector br the keratin K6 inducible vector into epidermal cells include~ a
cotrans~ection of the vector with a selectable marker. The 3electable
marker is used to select those cell~ which have become traIlsformed. The
ce~ ca~ ~en be used in ally of the methods described in the present
inve~tion.
OD~ ~peCiflC embodime~t OI the present i~ventio~ a method fsr
the enhanced hB~ g of A wc~ d or 8urgical inci8ion. Thi~ method
compr~as t~e in vivo tran~ductisn of epidermal cell~ w~th a loricri
co~ tiYe ~ctor or a keratin K6 inducible vector. In either caEe, the
.
ucleic acid ca~sette of said vector co~tain~ a nucleic acid ~equence for a
growth f3ctor.
~ the pr~felr~d embodime~t for the treatment o wounds or
8ur~cal in~ions, a pluralit y of vectors ar8 introduced iIltO the epidermal
cells. I~ t~e plurality o vectors, the ca~et~e of at least oIle v~ctor
2 ~ CODtail~8 a nucleic acid aequenc~ for aIl epid*rIaal growth factor (TGF-a)9
the ca~s~tte of at lea~t one Yector eo~tai~ a dermal growth factor
PDGF), a ca~s~tte of a~ least o~2e Y~ctor contains a ~ucleic acid sequence
for a ma~ protei~ to anchor the epider~ ~o the dermL3, ~d a ca~sette
of ~ least one ~ctor co~tai~ a ~ucleic acid ~que~ce for an aIl~ogene~i~
:~ i 25 g~ctor. The ~equè~ce for matris prote~ns ca~ be selected ~rom a~y
sequea~ ful for the a~chori~g o~ the epidermis to the dermis but are
usu~ly ~elected from the group con~istiag of l~pe IV collagen, laminin,
idogen, aIld ~ VII collagen. The allgiogenesi~ factor i~ usually
selected from the group co~istiIIg of acid fibrobla~t grow~h factor~ basic
fibroblast growth factor and aIlgiogenin. The combinstion of the vestors

WO 93~22431 2 1 3 4 6 7 0 P~/US93/03993 ~ ~.



-1~

provides all of the n~ces~ary elements for quick and rapid enhancement
of ~eali~g of wound~ or ~urgical inci~io~. Thi~ procedure i~ ve~r helpful
i~ the c~e of phstic or r~coI~structive ~urge~r. Furthe~nore, skin ulcer~
can be tr0ated by fQll~ g ~imil~ procedurç~ as de~cribed ~or wound
heali~g or 8u~gical incision. These pr3cedur2s are uu3eful in ~al~ and
huma~.
In the e;c vivo approach for treating or heali~g wounds~ surgical
incL~io~ and ~ldn le~ions, the vectors are first tran~duced into the
~pidermal cell~ ex vivo. The tra~sformed epidermal cells are transplanted
onto the aI~imal or human ~ be treated.
Another embodiment of the pre~ent invention i8 a method for
tre~ti~g psoria~is. In thi~ method, epidermal celLs are transduced in vivo
with a lori~ constitutive ~ctor or a keratin K6 i~ducible ~ector. A
nu~le;c acid ca~ette i~ said Y~ctor contains a ~ucleic acid sequence for a
pro~in or polypeptide ~el~cted from the grou~ GQ~i~3tiI1g of TGF-~s a
~oluble form of ~ki~ r~ceptor, and an allt~en~e R~A. ThQ ~ e
receptor can bs ~elected from the group co~sisting of I~1, I~6 a~d I~8.
The anti~e~e Rl!~A seque~ce is selected from the group co~sisting of
TGF-a, Il,1, I~6 axld IL~.
20 ~ ~other embodime~ of the present i~ve~ioIl there i8 a method
of treatillg ~cer. This msthod comprise~ the steps of in vivo
rs~sductio~ of epidermal cell~ with a loricriD con~titutive ~ector or a
kerati~ K6 ~ducible vector iDto epide~al cell~. The ~ucleic acid ca~ette
of either v~ctor co~taiDLs the ~ucleic acid s~quence codi~Lg i~or antisen~e
RNl~ for the E6 or E7 ~sne of ~he humall papilloma virue or codiDg ~or
the normal p53 protein. Although the e2~ample give~ i~ for ~kin cancer,
thi~ same approach i~ ~ed for cancers occurring i~ other 8quamou9
: ~ epithelial~ gi~ce the constitutive a~d inducible vectors will al30 function in
the~e ti~sue t3~peB.
.

WO 93/~2431 . P~/US93/D3993
2134670

-15-

It has been found that either the keratill K6 i~duci~le vector or the
loricriIl con~titutive ~ctor can be further regulated by iIltroducing the
Vitamin D rsgulatory element ill~o the vector. The Yitami~ D regulato~y
eleme~ is u~ually introduced i~to the 3' fla~ g sequeIlse. In the
5 present in~e~tio~, t~e Yitamin D regulato~y eleme~t is from the human
K1 keratin g2Ile. With the Vitamin D regul~ r element in the vector,
the ~pres~ion of the nucleic acid ca~sette~ can be suppres~ed by Vitamin
D, a commonly used substa~ce ~ ~aL~ and huma~.
~n additional embodiment of the present invention ~ a method gor
10 vacci~ation cQmpr~sing the 8tep of in viuo i~troduction of a loricrin
con~titutiYe Yector into epidermal cell~. The nucleic acid cassette in the
~ectors usually codes ~or a polypeptide which induees an immunolo~cal
re~po~e. ~ e~ple of thi~ i8 the ~riral capsid p~otsin from the human
papilloma virus. O~e ~kill~d i~ the art ~ adily recog~ize t~at any
l$ other va~t y of pr~tei~s can be used to g~nerate a ~u~ologic reaponse
alld thu~ produce antibodiea for vaecinatio~.
: The followi~g asamples are of ~ered by ~Nay of illustration a~d are
ot i~ ded to limit the iD~Yentio~ i~ any maImer.

~: 20 }~XA~PL~3

Although it i~ a ~or kerati~o~ cell eny~lopB protein~ lsricri~
; ~ : w~ ~ot identifiQd ulltil 1990 (Mehrel, et al., Cell, Vol. 61, pp. 1103-1112,
(19~0)). The p~ sequeIlce of the loricrin protei~ wa~ deduced from
the o~rerlappi~g cDNA clo~es described iIl Mehrel, id. To obtai~ the ~ull
g~ne, ~he cDNA ~lo~es were u~d to scree~ EMB~3 Balb/c mouse
ge~omic libra~y. The gene e~codi~g lo~ was loca~ed withiIl two Bam
HI ~ragments of 3.4 anid 3.1 lsb. The coding sequ~nce withill thi~ genomic
fragment ia identical to the cDNA sequences and is not i~terrupted by
introns. There is, howe~er, a~ tron in the 5' non-codi~g region that i8

WO 93/22431 . PCr/US93/û3993 ~-,s~
21~4670


appro~ima~ely 1.1 kb i~ le~gth. In addition to the intron and codirlg
seque~ce, there L~ appro~ateb 1.5 kb of 5' fla~king sequence and 2.1
kb of 3' flanki~g seque~ce.
E~I~E 2

e~sion ve~ ro~L~he ~nQu~e lori~rin e!ene
Although all of the regulato~7 elements of the loricri~ gene have
~ot bee~ ide~tified, a functional loricrin constitutive e2~pression construct
was de~ ed as ~ollow~. Briefly, polymera~e chain reaction (PCR)
techIlology wa~ used to delete the loricrin codi~g re~o~, leaving the 5'
and 3f ~g regiQns, 5' ~d 3i ~on codillg regioDs and the intro~
(Figure 1~. A uniqua Cla I re~trictioIl site wa~ e~ eered at the 8ta~t
TG) a~d ~top (T~AA) COd3118 to allow ea~ sertio~ of B~Og~D.OU~ geIle
: ~ 15 ~8e~8. To a~sess the s2~pr~ion characteristics of thii~ ~ector, a
: ~ r~porter ge~e, the bacte~ gene e~codi~g chloramphel~icol acelyl
fers~e SCAT), was in~er~ed into the Cla I 8ite. The e~pre~ion vector
was ~nalyzedbytransie~ttran~fectionintoprimar~rmoL~e epidermal cells.
Positiv~ T, lane 1) a~d negatiYe (pA10.C~AT, lane O control
vector~ were iIIcluded i~ the a~say (Figure 2~. The loricrin e~pre~sion
vec~r had high activil~ rellt~ted (low Ca~ medium, la~e 3) aIld
differe~tiated (high Ca~ medium, lane 4) epidermal celLs, suI p~siIlg level~
ob~ed with the 8trong promoter of the vi~3~ SV40. Thi~ result wa~
ulle~pected, si~ce preYiou~ in vivo 8tUdiB~ had demo~trated that the
loricri~ gene wa~ only e~pressed at a late ~tage of epidermal
erentiation (Mehrel, et al., Cell, Yol. 61, pp. 110~1112, (1990))9 and
indicates tbat additional ~g sequences are requiIed to 3uppre~s
loric~ expre~sion in u~ erentiated epide~mal cell~.
To a~alyze the expre~sion charact~ristis~ oî the loricrin vector in
vivo, the bacterial gene encodiDg ~-galacto~id~e was in~erted into the Cla

,~ WO 93/22431 . t ! `: P~/US93/039~3
2134670

-17-

I sit~. The ~ galactosidase gene has frsquelltly be~n used as a repor~er
gene to 8~e8~ targeting ~pecificit~r (MacGregor, et al., In: Methods in
Molecular Biology, Vol. 7, pp. 217-235, (1991)~. Thi~ con~truct wa~
designated pM~-gal and wa~ u~ed in the product;on of transgenic mice.
5 This coDstruct was dig~ted with Apa I and subjected to preparative
agarose gel elect~ophore~i~ to puri~ the pM~-gal e~pres~ion construct
away ~rom plas~d sequence~ (pGEM72) which mighl; i~terfere ~th
e~pr~s~ion. The ~ep~rated e~pression construct seque~ces were purified
a~d recovered using N~ 45 DEAE membrane (Schleicher & Schuell).
10 3DN~ wa~ precipitated and re~uspended at 1-3 nglul. ICR outbred female
mice ~Sasco~ were giverl PMS ~nd HCG to ~timulate ~uperovulation, mated
to E'VB males rTacoI~ic) ~d re~ulting one cell fertilized emb~yo~ were
collscted f~om t~e oviducts. DN~ wa~ micro-invected into the pronuclei
~d the emb~ro~ were ~urgically transfelTed to p~euLdopregnant recipient
emale~ (th~ resul~ of ma~ g ICR female~ ectomized B~ males
(Taco~ic). NoR~al g~tatio~ d birth wa~ allowed to co~tinue and st
appr~nately three week~ of age the pUp8 were scresned ~or evide~ce of
the t~an~gene ul3ing total genomic DNA e~racted ~om the tail.
PCR a~aly~i~ wa~ performed on the e~acted tail using oligo
.
20 primer~ l3pecific f~r ~-galactosidase. ~imal~ itive for the tra~gene
: ~ ~ were ~u~hsr ~Iyzed to ~es~ th0 e~pr~s~ion characteri~tics OI pMI~-
gaL ~ This w~ do~le by removing part of ths ear a~ld ~cubatiIlg the ti~ue
i~ a ~taining solutio~ con~g X-gal. This wa~ done by removi~g part
of l;he ear and i~cubati~g the ti~sue iIl a ~taini~g solution containing X-
25 gal. Igpical r~ult~ are ~een in Figure 3 where a PCR po~itive ~imal
expressed high levels of ~galactosidase in the ~pidermis ~Figure 3b) while
a PCR Ilegative animal ~hows ~o ~uch 8taiDi~g (Figure 3a~ indicati~g that
endogenous murine ~-galactosidas~ ~ no~ e~zpre~sed at suf~lcient levels in
the epidermis to cause fal~e po8itive8 in thi~ y. I~tense X-gal staining

WO 93/22~31 2 1 3 ~ 6 7 0 Pcr/VS93/03g93 ,~



-~8-

was detected in the basal compa~ment a~ well as the ~uprabasal, more
differentiated lay~rs.

To analyz~ the e~pression characteristic~ of the loricrin vector in
5 vivo~ the bac~riP~ ge~e encodillg ~-galacto~ida~e wa~ srted into the
Cla I site. Thi~ data i8 show~ i~ Figure 3. Thi~ obs~rvation indicate~ that
the 102~crin e~pression vector is us~ful as a coD~titutiYe vector to direct the
efficient expre~sioal of e~ogenou~ DNA i~ both ~e ~dif~erentiated ~d
dif~erentiated compartme~$s of the epide~.

E:2~PLe: 3


~:: Thia e~ample d0moIlatrates t~3at a ~oYel ~egatiYe r egulat~rg
1~ eleme~t from the humaD K1 kerati~ ge~e ~HK1.NRE) ~ able to suppre~s
a heter~logou~ omot~r i~ re 3ponse to Vitami~ Ds~ The HKl .NRE i8 70
ucleo~ide~ gth(~eeFigure4). PCRtec~ulogywaswedtogenerate
~:: B~HI arld Bgl II ~ite8 at oppo~ite e~d~ of thi~ f~agme~t. This ~acilitates
generati~g multiple copies of this fragme~t ~ce ligation and dige~tion
20 wit~ BamL HI aDd B~l II ~ select for oligomers which have ligated head
to tail. Four ta~dem copie~ of the HKl.N~E were i~erted into the Bgl
II cloni~g sit~ of pA10.CAT. In the abs~ce of Vit D~ co~truct
is highly oxpre~ed Y he~ fected i~to primary mou~e epidermal c81L8
~Figure 4). The sdditior3 of illcrea~g coIlce~t~atio~s of Vitamin D, to the
2~ cultllre m~dium ~ompletely suppre~ses tra~scription of thi~ heterologouspromoter. Thus, by usiIlg Vit~ D ,, the acti~rit y of the e~pres~ion vector
is modulated. Figure 5 shows a schematic representative of a deri~rative
of the loricFiD con~titutive epidex mal vector which contains the HK1.NRE
in it~ 3' fl~king region. The activit~y of this vector withiIl epidermal cells

~- " WO 93/22431 21 ~ 4 6 7 0 PCI /US93/û3993



-19-

can be suppre~sed by topical applicatioll of Yitamin D3, or an analogue, to
the ~kin.

EL~llPLE 4
I~Q~ Ld-~ of a MQuse ~6 ~çr~in ~ene
Se~eral laboratories have reported that kerati~ K6 L~ ~ot e2~pressed
ormal epid~rmLs, but i~ e~pre~sed unde~ hyperproll~erative co~ditio~s
8UCll aB wouI~ding SWei~8, et al., J. Cell Biol., Vol. 98, pp. 1397-1406,
~1984); Naka2awa, et al., J. Cell Biol., Vol. 103, pp. 561a (1986); Stoler, et
al., d. Gell Biol., Yol. 107, pp. 427~46, (1988)) or topical applica~ion of
reti~oic acid (lR~senthal~ et al., J. I~YeBt. Dermatol., VO1. 957 PP. 510-515~
(1990). Although K6 eacpr~sio~ doe~ not occur i~ inter~ollicular
epid~rmis, it doe~ occur in hair follicles (Nakaz~wa, et al., 3. C8ll Biol.,
ol. 103, pp. ~61a, (19B6)). ~ent re~ults i~dic~t~ th~ ~here are two K6
16 c3DN~s that dif~er i~ ~equellce i~ only a fsw nuc~eotid~s. These cDNA
clo~e~ ha~e beell ~d to difl~ere~tially scr~sn a E~BL 3 Balb/c mou~e
omic libr~y alld isola~is two di~tulct K~ ge~eB. The~e genes are closely
ked wil;hi~ genLomic DN4 i.e., a~ged in t~dem. Th~y h~ve almo~t
identical 33 hal~a, inCludiDg ide~tical 3' no~oding and flanking regions.: ~ 20 ~ I~tere~ti~gly, the 5' hal~e~ ofthe 2 g~es di~er greatly ~ their IeBt~ictioIl
~a~e~t pat~r~. ~sque~ce anslysi~ of t~e ~egion ~ear the ATG ~hows
ma~y dif~ere~ce~ b~twee~: the two g~lle~. The ~que~ce of olle of the~e
e~s, desi~t~d BCM-~K6(0, i~ show~ ~ SEQ. ID. No. 3. To
determiI1e the ~pre~io~ characteri~tic~ of t}li~ gene in viv~ in tran~gcrlic
25 mic~, PCR tech~ology wa~ u~d to modi~y a 1~.5 kb ~ho I fragment
collta~ing B~M-MK6~A). Nucleotides encodi~g the ~termi~al region OI
1;h8 K~ proteill were deleted and nucleotide~ eneo~g the amins) acid
sequence SEQ. ID. No. 4 w~re in~erted. These amino acids ar8 at the C-
terminal of huma~ ksrati~ K1 (Joh~on, et al., PNAS, U~A, Vol. 82, pp.
1896-1900, (1985)). A ~chemstic represe~tative of thi~ derivative of the

w093/2243l 213~7~ PCr/US93/03993~ ~


-20-

mou~e K6 gene (BCM-MK6(A~-HK1) i~ 3how~ i~ Figure 6. ~tisera haYe
previously beerl g~ller~ed agsi~t the HK1 ~terminal peptide ~ enthal,
et al., J. Inv~st. Dermatol., Vol. 95, pp. 510-515, ~1990)). The~e ar~tibodies
are mono~pec~fic for this human K1 peptide a~d allow expression of the
deriva$ized BCM-MK6(A~HK1 transgene to be followed against the
e~pression p~ttern of the endo3e~ous mou~e K6 genes.
The d~rivati~ed tnQuse K6 transge~e show~ ~n Figure 6 wa~ used
iIl the production of transgenic mice a~ outlined in E2~ample 2. Mice
resultirlg from the iDitial iluectio~ were ~creened by PCR analy8i8 for
pFesence of the BCM-MK6(A)-HK1 tra~ge~e. Po~itive Iounders were
i~itially a~a~yzed for t~ g~ne ~cpres~ion a~ follows. A small ear biop~y
w~s taken ~d after 48 ho~ a ~econd biopsy wa~ hken at the same site
to scsr~ for ~2~pression during wound h~aling Tra~gene ~pres~ion wa~
limited to hair follicle~ i~ the ~itial biop~ d was Ilot preaent in
1~ ollicular ~pidermis. TraIIsgene e~pre~sion was obs~rved ~ the
epidenni~ in th~ 48 hsur biopaie~, but ollly at the 8ite of woundi~g. To
further conf~ the illdueibilit~y ofthe BCM-MK~(~)-HK1 transgene under
hyperproli~erative conditiolls, F1 gensration off~riIlg from the initial
ounders were treated topically with the hypeIplaEiogenic ag~nt 12-0-
: ~ 20 : tetradecaDoylphorbol-13-seetate. Bispsie~ were take~be~ore a~d 48 hours
; ~ ~ ~r topical applicatio~ OI this agent. Immunofluorescence wa~ p~rformed
: ~ on ~ozerl ~ection~ of these bispsies with anti~era specific ~or the H~1
peptide. No e~pre~io~ was obser~ed pIior to the inductio~ of hyperplasia,
however, the BCM-MK6~A)-HK1 proteiIl was e~pres~ed at very high level~
iD all layers of the epidermi~ 48 hours aPcer hyperpla~ia was induced
(Figure 7).



.

NO 93/22431 2 1 3 ~ 6 7 0 Pcr/US93/03993


-21-

E~A~PLE ~


R~sults obtained wath the derivatiYe of BCM-MK6(A~ (Figure 7)
6 indic~ th~t all of the regulato~y ~equences required to ~uppre~s
~gpre~ion of this gena i~ normal epidermis alld activate it~ e~pression
under ~yperprolif~ratiYe coIlditions, such a~ in wou~diIlg hesling or
~erim~tally iIlduced hyperplssia, ar8 located wnthin the 13.5 1~ Xho I
fra~e~ (Figure 6). Ther~fore, an inducible Yector was de~reloped from
10 this fragment. Thi~ vector is ver~ useful in gene therapy applications
w~ere do~age o p~rmac~uti~ need~ to be re~a~d. In addition9 thi~
ector i~ ideally ~uited for ~Nound healing applica~ion~ ~ince it is i~d~ced
dur~g ~he wound h~ g pro~ but ~uppre~ed ~er heali~g ha~
~cu~ed. Figa~r~ 8 illwt;rates how a vector ~ ~tructed f~om the BCM-
: M~6(0 g~lle. The ~ctor i~ deli~red from th~ 13.5 kb Xho I fragment
which ~co~ta;m~ the l!Dti~ K6 ~e~e. Th~ ~ame g~eral 0tra~gy u~ed in
~: : cox~l;~uction of the co~tituti~.re epidermal vector (Figur~ 1~ is follQwed.
Th~ expres~ioI~ ~ctor:r@tains all of the 6' flanki~g ~equencQ~, the 5' non-
::
CodiDg ~quenees up to but not includiDg the AT&, ~he ~lrst intlon
2() ~clu~g the ~plice-~ite~ OI tb~ intron-e3co~ bounda~ d all of the 3'
on-codiDg aDd fl~g sequeIlce~ afl;er the T~A codon. A polyli~ker i~
~eered 3' of the f~ i~troIl to allow ~aE y i~ertio~ oî esogen~s DNA
.
ea~et~. Th~se m~ipulations are peaformed through the use of PCR
tech~olo~ ~ique Xho I ~ are co~r~ed at the e~d~ of the vector to
25 allc~w ea~y a2nplifiQtion in pGE~ ~ectors aIld e~ci~io~ for purification
fi om pla~mid ~equ~nc~8. Rece~ in viuo re~ts indicate that the
~: endoge~o~ humaIl ~6 ge~ inducible a~er topical application of all-
tr~ retinoic acid. Further, in vivo mouse espe~me~ ,uggest that the
vector ~hown in Figure 9 is inducible by topical application OI retinoic
30 acid, or a~ analogue, ~o the 8ki~.
.

W0 93/22431 213 ~ 6 7 0 1~Cl/US93/(~3993




IPLE 6


E~ea though the inducible epidermal vector depicted in Figure 8 i~
5 ~uppre~ed or ~ilellt in normal epide~, i$ ca~ be accidently illduced ~
11 F91~Ult of iIU~. ThereIore, it i~ desirable to have an additional
~uppres~or eIlgineered i~to this const~uct. In addition, thi~ 8uppre880r i8
used to more tightly regulate pharmaceutical delive~r. Thi~ is achieved
by insertion of the HK1.NRE described in F'igure 4. Figure 9 shows a
10 ~chematic repre3e~tatiYe of a derivative of the K6 iDducible epidermal
vector which co~tai~s th~ ~IK1.NRE ~ its 3' fl~ki~g region. The
acti~n~ of this vecto~ with~ epidermal cell~ uppres~ed by topical
applicatioIl OI VitamiD~ D~ or ~ snalogue, to the ~kin.

E~AII~L~6 7
;~ ~
Greater tha~ 3.5 ~illio~ indiaidual~ develop skin ulcers. Duri~g
ormal he~i~g, epidermal cells p~uce gr~th ac~r~ which a~fect ~ot
o~y epide~ cells but al~o cells ~snthin the dermis. In addition,
2û epidermal cel~ the~ize several ma~i2c protei~ which pro~ride an
~chor to the underlyi~g derm~. Many ~ ulcers occur in patients with
diso~r~ such as circulato~ly proble~ aIld ~betes, ~d the normal
healiDg proce~ in impaired. Th~ ducibl~ epidermal vec~r is u~ed to
targ~t the combi~ pre~ion of grow~h factor~, to accelera~e growth of
25 cells in both the epidermal alld dermal compa~meat~; xnatri~ proteir~, to
incre~ teD~ile ~trength; and angiogene~ ac~o~, to improve circulatiorl,
in aIl attempt to impro~e healing these patient~.

WO 93~22431 2 1 3 ~ 6 7 0 P~fUS93/03993




PLE 8

in ~n~ thera~y a~pro~che~ ~o can~çr
5kin ca~cer L~ by ~ar the mo~t commo~ form of u~cer with greater
5 than 600,~ ~ew case~ reported each year. SeYeral ~ne8 have been
implicated in causiIlg BkiIl cancer, iIlcluding 1088 or mutation of the host
tumor 8uppre880r gene~ p 53 and e~pre~sion of the E6 arld E7
forming gene8 of human papilloma virus (HPV). In uitro studies
~ugge~t tllat the normal or ~d t~e p53 gene can reYert the pheno~pe
10 of malig~ant cells or illduce programmed cell death. The constitutive
epidermal vector is used to target espres 3ion of the Ilormal p53 gene to
cau8e reveraio~ to a rlon-~aligna~t phenol ype or i~du~tion of ~rogrammed
death in vi2Jo. I~l c~cers where HPV i~ ~a~ected OI being th~ etiological
t, the coitutive vactor i~ used to target e~pression of anti~snse
NA ~pecific ~or the E6: a~d E7 genes of HP~.



2ûP80~;B iB~a: conlmo~ herited 8kiD di~ s which affect~
pp =ately 4 millio~ i~dividual~ in th~ U.S., 20 million world~wide. It
charsctsriz~d by the presQnce of inflamed 8caly ~3kin. Although ~e
pecific def~ct for p~oria~ not known, illappropriate e2pression of
growth fsctor~, and ~ytokine~ ap~ to be r e~ sible for it~
~:; 25 ~pathoge~e~i~. Epidermal vectors are u~ed to inhibit the mitogenic e~fect~
of positiYe growth gactor~ produced ill p~oriatic le~ion~ by ~cpr~8s~ng
nega~ive growth factor~ which induce growth arrest of epidermal cells.
The inflammation ob~erved in p~oria~i~ m~st likely re~ults from
:~ ~nappropriate e~pre~sion of ~ytokines. Targeted e2~pres~ion of ~oluble
30c~ ne receptors prevents st~nulation of an illflammato~ ltrate in



.

W~ 93t22431 . PCr/VS93/03993 ~
~3 1~

-2~

thi~ disea~e. In aIlo~her approach, aIltisense RNA i8 directed again~t
tran~ript~ of positive grow~h factors or ~ytol~nes. The~e approache~ haYe
therapeutic pote~tial for other dermato~es resulting ~rom i~iflammation.
All patent~ and publications me~tioned in this specification are
5 andicati~e OI the 10vels of tho~e s~lled i~ the art to w~ich the invention
pertains. All pate~ d publicatio~s which are incorporated herein by
re~re~ce are incorporated to the same e~t a~ if each indindual
publication was ~pecifically and i~dividually indicated to be incorporated
by refer~ce.
C)Ile skilled irl the art will readily appreciate that the present
e~tion i~ well adapted to c~r out the objects and obtain the ends ~d
advaDtag~ ~entio~ed, a~ well a~ tho~e inhersllt thereiIl. The bioreactor~,
n~leic acid ~qUe~Ce8, tra~formed epidermal cell~, loricrin constitutive
~ctor a~d keratin K~ inducible vector, along ~th the methods,; : 15 procedures~ treat~e~t8, mol~Gule8 o~ ~pecific compoundl~ described her~in
pre~ently repre8elltatiYe of preferred embodiment~, are e~emp1ary and
are ~ot intended a~ limit~tio~ on the scope of the invelltioIl. Changes
thsreill and other u~s Y~ occur to those ~killed in the art which are
e~compaased ~nthin the spi~it of the iIlventio~ as def~ed by the scope of
: 20 ~ the claims.




::~

.




... . . . . . ..

f,~ WO 93~22431 PCr/US93il)3993
` i 21-34670


,25.

~lSQ~ I8~ING~

( 1~ GEN}S~ INFO~SATION s
( i) APPl.ICA21Ts ~oop, l~n~is R.
Rothn~g~l, Jo~ph A.
Greenhalgh, David A.

( i~ ) TITLE OF INV~NTION s C:ONSTITUTIVE AND INDUCI8LE BPIDE:RMAL
V~CTOR SYSTE~S

L ~ 1 ) NUI~E:~ OF S~QU~i:NC~S s 4

lv ~ COR}~SPONW5NC15 ~DD~SS s
(A~ ~DD~SS8151:s Fulbrls~ht ~ J~wor~ki
~B) S~US~s 1301 ~oglnnoy, Sult0 5100
s I C ) C~TY s Hous~on~
(D) sr~ 0x~
20~ : CO~Y- ~U.S~.A.
) ZXP~ ~701003095

A) ~SæDIlJ~ s ;~ Floppy di~k
(B) CO~UTE:R~ PC eo~patible :~
C~ OPISRATING SYS$~: ~C-DOS~ DOS
5D) 80rrliARE) P~t-tltIn ~l~a-e ~I.û, V9~rl3t~0n i~

T APPLICiU~ON DA~A~
30 ~ (A) I~PP~ TIO~ R~
~ 8 ) F~LING DATlI~
(C~ CLA88Ir~ r~t

:: ~v1 ii) A~ Y/AG15NT INFO~ION:
: ~ 35 ~ A ) NA~: P~u l, Thom~ D .
; (B) ~aECISTRATION NU~BlSR: 32,714
~ ~ ~: (C) R~ NC35lDOCÆT ~ 2iUMB~SR~ D--5dOS

:~ :
,

WO 93/2243 1 PCl /US93/03993 .~
FZ 13.~G7 0 .


-2B-

( ix ) TEL~SC~M}~UNI~:ATION INEORMATION: '
(A) TEI~:PHON~t 713/651-5325
(B) Tl~L~FAX: 713/651-52~6
(C~ ISX- 762829




2 ) INFOR~ATION ~OR SEQ ID NO s 1:

~1 ) 8EQ~!:NCX CHARACTERISTICS s
(A) ~:N~;T~t 6530 ba3e pair~
~B) TYPEs nuclelc ncld
( C ) S~R~DEDNESS s double
(D) TOE'OLOGYs l~n~ar ~:

rp~: s D~A ( gsnom

( ~ll ) ~YPOI ~S~TC:AL s NO
: .
AN~ NSE 3 NO
:20

~ xl )~ 8BQU151~C:15 DESCRIPTION s SEQ ID ~O ~1:

25 GGATCC~ AT~G~GTCT ~GAGAC TATCCCGGGG C:AGC~AC AC~GAAGTGS~ 60

ATe~c~a TCA~;6GA~rG GGTGA~TCAC AGGGCCCCCA ATGT~AGC T~GAGA~GA 120
-:
ACCChGGG;~G = AT C:ACCTCAGTT CATACTGTCC AAP.CTGAAAC AAGTGGCAC)~ 180


AGTTTCTCA~: ~CA~Tt~ ATC:AGGP:r CX:TTTAGATC Al'TWaTGCTe CCCC~TAATT 240

P~:A~T CTGATT~G~h T2ATTCmC AACACJ~GCTG G~;q~GGAAC~A GGTTCI~ACAG 300

35 TGGTA'rCT7~A ATM~C:AACTG AGTTCCA~TG ATS;AAAt:AAA GGA~CAC TATGTTCTTC 360

ATAC:ACAGAG GGGGGGT~:T CTTGGCCCTA GGGTCATCA& AG~CTGAGT ~TCTTATA 420

GGAAAATAGT ~ GATGTCT TcAcAcAc~r c~rccAAT AGG&~C~AG GGC~GGCATG 480

~ . WO 93/22431 2 1 3 4 6 7 0 PCl/US93/03993



-27-

ATT~:AAGG~ AA~Gq~GTTCT GTCATGTGAG AA.AAGAGQA AAGTA~AAT AT~AC~TACT 540

ATGTAGTACI~ TTS:ATAmC I~TAAC~CCA Tl~C~ATGTT TCTGTGAA~T AAATTATAGG 600

5 ATTCC:TC;CTT GGTAG:A~CAA A~ATCA GACI~GCTCAA CAATGAACAA GTAGTC~GTA 660

ACTGCCC~GT TGGTGaC~TT GCA~AACTA CTGTGCTTTG CCCATG~;TGA CATAS;CTTGA 720

A~T~T~ATG GAAGACCTGA ACCCAACTaA GATCTC:TAAG TAS~TTCCAC TCTATGGTGG 780
0
CATCTC~aAG GTCAGAGTCA ~GTt;CAGCG CCATAGGACA TCAGI~ATCAA AGGGTCATGG 840
TGAAAAGGCT accAGGGTcT GTC7~GTTAG ~CTCACC~T TGTAAGTAAA GTI::AGTAGTC 900

15 AC;TI~ACI~AG ATCAAAACAC CTGCTCTQC AI~GGAAT~C TTAAAGl'AGA C~AAAGTt:AT 960

~CTAGTTACA GTGCTGrCST T~CCG~ A CCA~CCQAA CTGGG;F~GC$G GGGACTCACG 1020

AAC~ CA ACt~ G T2~A~;CA&A~C AGh~GS:AACC C~ATGAAGTG ~ Ac 1080
A~TG~C ATJUU:Aa~Ta aATTCTAAAA m~GAGAAT ~CC~GATA 1140

~GAAATTAA AACCAI~ T ~AAAATTGGA AA~ATACAAC Tt;A~C$AGCT TC~.TGTC~T 1200

25 AGACAATGTe ~T~GATCq~CT AGATTCCCTA l~GGC~GCTTC A~:TCTGC AACCTAGTCC 1260
.




~CTI~G~ .G C~ C~G5~ aTG~cA~cA ACC~ ACAG AAGm~TGAi~ AACAATq~TCT 1329
.
GCCATCCAC~ CCA T~rCTAaTGA CCAAC~Gt:T CACTGl~ACA TU~GAGaAGT 1380
a:C,C~GTC~T ~C~C~A~T CCCTA~CCt:T ATCCCA~GAA l~;lUA~CT TCA~GAATGG 1440

GTC~ATCCTT CCCCTGCAAT CAC~ GG AGGT&CCTGA TU~aTAGAT~: AGTC~GAGCA lS00

35 ~;ACAAGAGT ATAAAACAC:A GGAGCACCAG TGTCCCTCAC AT~Gt:~TCA l:C:TCCTTCCC 156C

TC~CTCATCT TCCCT&GTCC l~C~ Tl~G TGTWC:CTCT CC~;GCTGTC TGGTCTCTCC 1620

A5TTGGCCT~ GCTCAGCTTG CAGAGAW~ AAS;GAACAGA GCCTTTCTCC CCTTTGG;A~G 1680

WO 93/22431 P~/US9~/03993
lii7~

-28-

GTACTCTGr~ CA~Ar~GAGA AGGGCT~TAG GAAAGCACTG GGAGAGTGGT ~AGC$GGTGC 1740

TGG~AGATG ATGTGT~TGG TCTTCTGGGC AGAATGTTAA AACTTCACAA AGATATGACT 1800

~TC~C~TACT ~CTCTGGC~C CCTGGGAGCT GA~GGTTAGA ATACTGGATG ACTGCAGTGG 1860

CAGGCCTCGA TGGGC~&GAT GAAGCTTTTG AAC~TGCCAG AAGTGGCTGA ATACACTATC 1920

A~GAAGGGAG ~GGGACGATA ~GTCA~AGA~ ~GGTGCTGAT GGGAGAT~TG AGAAGCCACA 1980
0
AAAACCCAAG t T(:~;~T~ TGAGG~5;CAGA TGTTCTGACA GATAAATGAC TT~TG:AGGTG 2040

CTGA.ACTACA CAGCTTCCTA TTAGCTACl~G CTAATTGGAG TCTACCAAAT TTAGACTCCT 2100

15 GCAT~T~CA AAA.aGP.TGTC TACTq~CTTC q~;GTTAGATG TACT~TC:CA AAAGGTTCAG 2160

AGTq~iCq~CCA ~GTTTGCA GAU~GGACC~ QGTAGAGCT GTC:TTGTC~A A~TTG(;CC 2220

~ AGGAT ~T~CACTC~ ATAGGACa~A TCAAGAGm AAP~ AAGGA CTTTATACAG 2280
G~GCTaA q~TCCAAACa AATe:T~mCT TATTGTGCTG GGAaT~:GATA AAATS:CACGT 2340

~TT5~:; CAA~TTCTA CTCAAT'rTAA AGAATC~GCA ~G~GACTTÇ; GGAGCACCC:T 2400

25 'r/40AC~a8A GTGTTTArr'rA ATGTAAGATC AAAAGC~GT 6GGAATGTGG Gt;GTTCTGCT 2460

~ccc~aaTc A t:~TAGTAGAA GAAAGGCAGA C'rTGAGGCA~ A~GGGGGTU CrATTAACGG 2 5 2 0

C:ACS~lGAA GAGCTAACC~a GTCC~G~;AAT GCAGTCQ&3~ CTAaTCT GCAT~AGCT 2580
3~
A~A~TCA~;A AG~ATG~GG C~TGGATGCA TCTGCC~CCT T~:AQGI::GTC CTCTTGCTGC 2640

TGTTGGTCq~A A'rGTTGCTCr TCTG~TC TTC:CAGGGl~ CCC(:TTCTCC TTi~AACAAGA 2700

35 TGTC5'CACCA GAAA.AAGC:I~G CCCACTCCCT GCCCTCCTGT WGTTGTGGA AAGACCTCTG 2760

GTGGAG~;AG~; AGGCG~:CGGC GGCTATTATA Ga~GTGGCGG CTCTGGCTGC GGAt:GC&GCT 2820

C~TCTGGAGG AGGCTC~AGC TGTGGAGGCG GAGGCGG~GG TTCCTATS:GA GGTGGTTCCA 2E~S0

.~ WO 93J22431 PCr/US93~03993
2134~

~9

GCTGC~:CGG TGGAt~ C TCCGGTGG&G GCGTCA~GTA CTCCGGAG~:C GGCG~TGGCT 2940

C~AGCT~GG CGGCG~:~AC TCCGGAGGCG GTG&TGGC~C TA5:CTGCGGC GGTGGS~TACT 3000

5 CT~;G;GGGCGG CO~CC AGC9~ G GTGGCTACTC c~aG~cGGc ~GCGGCTCCA 3060

GC~ CCGCGG CGGCAGCTAC TCCGGGGGSG GCTCCAGCI~G TGGAGGCGGT GGCU:t:TCTG 3120

GTGGGGGCGT CAAGTACTCC G4AGGTGGTG GCSGOG&CGG CTCTAGCTGC oGCG4CGGCT 3180
CCTCCGGGGG CGGC~GCGGC G4C~CC~GCT GCGGAGGCGG ATCAGGAGGC GGCGGCTCCT 3240

ACTG~GGAGG CTCCTCTGGA GoCGaC~GCT CCGGTGGC~G OGGC~GC&GT ~CCG&AGGCG 3300

15 GCA~G~ C TCGTo6CG&C GG~GGC~C~A GCTGCWAGG CG5CTATTCC GGC~GCGG~G 3360

GAAGC~G~ CGGCTC:TA5C T~:TGGOt;GO~ &~AC:TCA~;G TGGCGG~Gt;A TCQt;C~ G 3420

G =Ct;~ B~A~ C GCSG~CO GCAt~ GCTG C:GG~GGTG:GT ~CCT~:CGGTG 3480
~20
CGG~TCeTCC C~ACAG~ I!C AGTt;CC~GAG CTACGGA~aC GG~TG~ ~C:G 3540

G~G~TCCAG CT&CGti:C~GG &~;CTI'.Cq~CCt; GGGGCGG~GB ~CCAGCTGC GGTGGCGGCT 3600

25 A~CCGGGGG CGGAGGCTC~ A~G Ga:GCTCCTC Tl;G~GGTGGC TCCAt:TTGCG 3660

t:~;G :G~:CI~C ~Aq~CCGGT0 G~CGO~SGG ~GCTGC~;C CCCGGCTCCT 3720

C~ A~;C¢GGCT~T q~ T~ TC AGCAGACQG ~G;ACCTCt: TGCGC:CCCCC 3780
A~GAGC~A CGGA5aGG~ TCTTCC~CaAt; GAGGTGGTAG ~:TGS;AG&T GGCTCt:T~G 3840

GCGGCWT&G C~;GCGGTGGC q~ACq~CCA GOWTWTGG C~;GC2~GCAGC GGTGGCTGC& 3900

35 ~TGGAGGCTA ~CC~GAaGC GBCGC~GGCT Gq~GGC^GCGG ~CTTCCGGG GGCAGCGGCG 3960

GTG5CTGU:C: AGGTGCT TCC(;GACGC:A GCGGCG5;TGÇ: CTGCGGAGGA GGCTACTI:CG 4020

GAGGCGG~GG C:GGTGGCTCC AGCTGCGGAG GCGGCTCC:~C TGGTY:GCGGC TCT~:GAGC;TG 4080

W O 93/22431 PCT~US93/03993 .~ ~
~13~671~

-30-

GC`AA ~ TGT GCCAG~CT~C CACCAG~CCC AGCAGAAGCA GGCGCCTACC TGGCCGTGCA 4140

A~TAAGGTCA CCGGGTTGCA ACGGAGA~AA CAGAGCTGGA AGAGT~CTCC GTGGGCGCCG 4200

ATGGGCTTAA CI~TC~rG A~Tr5GCCIC AGaTTTCCAA ACCCTTCACA TTTTAAGCGC 4260

CCCTTCCCCC ~A~AAGCC ATTGAGTCGC TCAAGGTGTA TCCT~TTCTG CAGATTTTTC 4320

ATCTTGGTTT CTG~ATG~CT ACCTCCC~AT TCTAGTGTCT CCT Q GTCA~ TAAATTTGCT 4380
ATTCATGAGA ATCTCT~AGT TTG~TGTAGT CTTTGTAGCT TGCAAATTTA CTCAGTTCAT 4440

TCTGTGTTTG CTrTTTCCAT TC~TT~GTTC A Q ~TTAAAT TCAC~GAACA AGTGTTCTAT 4500

CCCAA ~ ~GG GGGAGSAGAT AGATGGAATG GGGCAAAGGA TGAC~AAGGT ~GTG~ACAGT 4560

~ ~GTC GCTTAAA~A~ ~TG~G~TG4 TC~TCAAACA CCAAGAAA~G TCSTCAC~GG 4620

ACATCC~AC~ ChTCA~aaA AT~GGaCCTG O~C~GGCAAT TTC~AGCAGT ~CAGA~TTCA 4680
: ~TCTCCh~OT T~W ~AGCA &GATGGCTC~ CaGATTA&ÇT SAGCTACC~G ~GGTCCAAGT ~740

CC~C~5~ ~ S ~T~GACCr AAGAAGA~G ACATTCA~CC CTGAA~AAAA GAC CCTGCC 4800

CA~GC~ATCT ~CCGGA~C~C TA~AACTACT TTCCT~ACTC AT~ACCCATG ATAGAGCTTT 4860

GAGGC~aGA ~AU~CCCT CTAT~;TCTTC SCAAGI~ C ~G~TCTTC:A TTAAS;CC:TGA ~3920

~AC~TT~TTA CCaGOGCACG TCTCC~CAAT ACTGATAAAG TCTGG~TTTG TTAGTCTGTT 4980
~
AG~q~AT 'rATAq~C~GA~ AATCAAGATC CTCTACAGTG TGTGAGAC:AG TTTACTGAt:;C 5040

ATCTATAG~G ATAGAA~GCA oCCCTCr5GA ~GGAT~aAAC GCGTAC~TrT OGTCC~A~TT 5100

3~ GAGAAGG~AC ATCGTAAGTA T~TAAGATGC TTAACATCAG T~TCACAGAG GTCACT~4AA 5160

ACATTAGGG4 CCTCCT~ATT AGCAAGCATA AAGCTAGAGT TGCT~AAAGG CATGTG~AC 5220

A~CCATCCCC TGGCCA~ATC CTGTTTTACA GTCAGATSTT ATGAGCrTSA GGTAAATGCT 5280

~ WO 93/22431 P~/US93/03993
; ~ 213~670


-31-

AACTTACSGA ~TTACTC~AG TTA~ m TGC ~ATACTAAhA AGC~AATGTG CC~TCCTACA 5340

TTTACCTA~T GATAGAAATA AAA~GATTTC ATCTCACTCT TCCATTTGGA GTCATCACTA 5400

5 CCT~CATCAT TTGC~CA~A GA~AGAGCAT GCCAAGTAGC AACCTCAGTG ACACAGTAGT 5460

CTTACCACCA C~TTTTTATG GAT~AAAT~T ATI~5TTIIA GCATGGTTAT ATGTGCATAT 5520

~ ATAcAeTcT GA~TACTCAC TTCCCTA~CC mcTT~Tc CTCCCCATCC CAACCTGTAT 5580
0
CAA~C~TTAC CTTCCCTACA A ~CCCTTT~ CCA~GTTTTT G~TAGTT~TG TT~GTTTGTT 5640

TTGTGACCC~ CTGA&CTAAC CAGGGC QTC TGTATGACCA ~GG&TTTGGA TTCTGATGGA 5700

ATCCCAGTGG GTACACAACT GAAACT~T~ ACTCCCCTTC ACAGAA~CT~ TCAGTAGACA 5760

As~arrcaAc AGG~A~T&OT G&5GCTCT~T CCaTCCT5GG CTAA~GTT~ AC~&GA~AGT 5820

C~TGTGC~ ; CC~C~GQG ACAACCATAG l~GCTGTGAG CTCATGTTTG CAATGGCTGT 5880
20 ~ ~
GTI~lITACl~TA GG~GATA~TA ~l~GGACCC ATTI~TCQTG rcTGGcT~ ATATTCCACC 5940

TTC~CTmA a;~ TCCT TGA~:T = AGGAAT&m TGGTT~GAI~C CGAGTGCTQ 6000
:
2~ GT~GTCl m I~TTCAGAA TCT~GAGCAT QA~GGATAC ATA~GATATT ATATT~TAGG 6060

~: ATAC~T ~q~CAGA TT~TT~TAI ACCCTTCI~TA TTG&TTAACC ATAATCCCCA 6120

:~T~TSr~CT CCTCTAAC~C TCCACT¢CTC CCaT~CC~GA TGAAAGCTT~ CAA~TCCATG 6180
~
TATTTTCCCT CSITGCIITC ATTT~ATC~A TAI$GTATGA TCTCA~CTCC CTTAATC~AT 6240

CT~SA~ Q ATAACCCTT~ TCTAAhClGG TAGCC~ACAA ~TTTA~TCC AGT~CTTGAT 6300

35 ~C~GAAGTA~ ATGGAGGAAT GT~AACTCAT GCTQGCCTG GTCTATGGAA TGGGT~CAA 6360

~C QGCC~GG ~CTA~a~AAT AGGACCC~GT C$CAAAAACA ACTAAACCAA ACAAACAAAC fi420
'

WO 93/22431 . PCl/US93~03993 .~
213~670

-32-

AAACAAAGAA U~ACAaACA AaQAAcc~ AAATCTCAAC ChTTTCTAG~ TTTTCTAGTT 6480

TTTACTT~U~ CATC~AGTTA AGCA~AAC5~A AAGTTTQ~A AATAGGATCC 6530

~ 2 ) INFORM~T~ON F~R SEQ ID t~Os 2:

( i) SEQU3:NClS C~ARACTERISTICS:
(A) I,P~NGTH: 5092 ba~a palr~
~) TYP}I s nuclei~ ~Icld
0 ~ C ~ STRA~ DNESS s double
~D~ TOPOI~GY: llrl~r

50LECUE~5 TYPE: DNA ( genomic )

~ ili ) HYK~rHETIC~l s NO

( lv) AN2I--SENSlI: NO

~ 20
~xl) SlCQUE~aOE WÇ8C~XPTIONs SEU ID NOs2:

GGA2CC~r aTAGCTI:T~r~Crl~IGAGAC TATCCCt~GGG C:~raGCA~AC ACAGAAGTGG 60

: ~5 ~rGCTCA~G S~GGGATTG GGTS;AATC~C AGGGCCCCCA ATGl~rGGA~c TAGAGAA~GA 120
.
A,CCO~G _ CACCTGAGT~ CTG~CC AA~CTGA~C AAGTGGCi~CA 180

A¢mCTC~U; AGCC~AACTC ~ CA¢GAT CGm~GATC Aq~ TC CCCCATAATT 240
AAGAC~T~CT ~rGAl~CAG~A ~A~C:rrTC l~ACAQG~G BG~GG~AC~A GG~TCil,ACaG 300

TGGT~TCTTA ~TAGCAACq~G AF~CU~ATG ATGA~A~aAAA GGAAAAAC~C TASGTT:::TTC 360

35 ATACACAGAG GGGGGCTGCT CTTGGCCCTA GGGTCATCAG AGA~AcTe~AGT AAP.TCTTATA 420

~;AAAATAGT TAAGATGTcr TCACAC~CCT CCTTTCU~AT AGGGTTQAG GGCA~GCATG 480

ATTGGAAG~A A~AGTGrTCT GTCATGTGAG AAAAGAGCAA AAGTATTAAT ATCACATACT 540

W 0 93/22431 213 4 6 7 0 PCT/US93/03993


-33-

Aq~GTAG`rACA TTCATATTTC ATAACTTCCA TTTT QTGT~ TCTGTGAAAT AAP~TTATAGG 600

ATTCCTGC~T ~GTAGACCAA ATGGGGATG~ G~CAGCTCAA CAATGAACA~ GTACTCAGTA 660

ACT~CCCTGT TGG~G~C~TT GCATGAACTA C$GTGCTT~G CCCATGGTGA Q~AGCTTGA 720

~ATAGTAATG GAAGACCT~A ACCCAACTG~ GATC$CTAAG TACATTC Q C TCTATGGTGG 780

CATCTCAG~G GTCAGAGTQ CTG$GCAGCG CCA~AGGA~ TC~aAAT~ A~;GTCATGG f340
0
TG ~ GGCT GC QGGGTCT GTCTTG~G TTCTCACCTT ~GTAAGTA~ GTCAGTAGTC 990

: AGTAACAAAG ATGhAAACAC CTG~TCTCAC AAGGAATAAC rTAAAGTAGA CTAAAGTCAT 960

GCT~r5ACA GTGCTGTCT~ TTCCGTG~$A CQTCCCAAA CIGGGAGC~G G&GAC~GACG 1020

CTC~CA ACCAATA~a~ T~AGCAGA~C ABA~GC~CC CAArGAAGTG ~SCATGAAAC 1080

~ GTGGC ~A.AGAG~TG GAq~T&q~AAAA TTTTGAG~AT l~CCAAGATA 1140~: 20
A50AA~5~AA A~AAAGAT CAAAaTSGGA ~AGA~CAAC T~A~CT~G~T TCT~TCTT 1200

hGaC~ArGTC T~AGATCTC~ ~GAIICC&TA AGGCTGCTTC ACAAGT~TGC ~ACCTAGTCC 12~0
:
~ 25 ~GT~5A~5~G CC~TCTGGTT ~T~CACGCA ACCTATACAG AAGTTTT&AA ~ACAATTTCT 1320
~ ' ~
: ~ GCCATC~G~ C2G~GG~CA T~C~AA~GA CCA~CCTGC~ C~C~GrTAC~ TCAGAGAAGT 1380

~ :CCAGT~A~ ACACCAAACT GCCSA~CCC~ A~CCCI~AGAA mG~AT~ TC~TG~TGG 1440
~ T ~ TCCT~ CCCC5oCAA~ CACAGGCAGG ~&GTGCCTGA ~CAATAGATG AGT~GAGC~ lSoo

~GAC~GAGT A~aAAA QC~ GCAGC~C QG TGTCCCT QC ATCAGCATCA CCrCCTTCCC 1560

TCA~TCATCT TCCCTGGT~C T~CAGG~AG TGTGGGCTCT CC~GGCTGTC TGGTCTC~CC 1620

AGTTGGCCTT GCTC~GCrTG GAGAGAGGTT AAGGAACAGA GC~T~SC~CC CC~TT~GAAG 1680

GTACTCTGTT CAAATTGAGA A~GGCTTTAG GAAAGCACTG GGAGAGTGGT ~AGCTGGTGC 1740

W O 93/22431 PC~/US93/03993
213~70 ~



TG&GCAGATG ATGTGTCTG4 TCTTCTGGGC AGAATGTTAA AACTTCACAA AGATATGACT 1800

ATCTCCTACT TCTCTGGCAC C~TG&GAGCT GAGGGTTAGA ATACTGGATG ACTGCAGTGG 1860

~AGGCCTC Q T&GGC~GGAT &AACCTTTTG AACCTGCQG A~GTGGCTGA ATACACTATC 1920

AGGA~GGAG Ao&GACGAT~ AGTCATAGAA TGGTGCTCAT ~GGAGATTTG AGAAGCCACA 1980

AA~CC~A~G CTCTGCrTT~ ~GAGG&CAGA SGTTCTGACA GATAAA~BAC ~TGTGAGGTG 2040
C~GAACTACA CAGCTTCCTA TTAGCTACAG CTAATTGGAG TCTACCAAAT TTAGACTCCT 2100

GCAT~TCT~A AAAAGATGTC TACTTTCTTC TGGTTAGATG TACTGGTCCA AAAGGTTCAG 2160

~GrTC5$CCA ~ rTTG*A GACAGGACC~ C~GTAG~GCT GTCTTGTCTA ATAATTGGCC 2220

~S~GGAGGAT ATCTCAC~A A~A05AGAGA TCAAGAG m AAAC~GGA GTrTATACAG 2280

GAA~Cr~A ~aTCCAA~Q ~CrrTTCT TaTTG~GCTG CGAGTGG~A AAATCC~CGT 2340

~C~A~XST~ CAACrT~C~A C~aATr~A AGAA~CAGGA CTGGGACrTG GGAGCACCCT 2400
r~oaca~Ki~ G~GmATTA ~TGTAAGATC ~ GC~G&T GGGAATGTGG ~GG~TCTBCT 2460

2~ TCCCrA~SCA C~T~GTAGAA CAA~GGC~GA GTTGAGGGAA AACCCGCTC~ CTA~TAACGG 2520

~ACTr5rG~A GAGC~AACCA GTCCAGGAh~ C&AGTCCAGA CACCT~GT~T GCATAAAGCT 2580

.
AGG~GT~aGA ~GTATGS5B4 CAT~ATGCA TC5GCCACCT ~CAC~CG~C CTCT~GCTGC 2640

5~TTGGTCTA AT~T5X~:T~ TC~GC$~TTC ~TCC~&&ST~ CCCCTTCTCC T~AAACAACA 2700

TCGA~AAGGT CACCGGGTTG CAACG5AGAC AAC~GAGCIG GAA&AGTTCT CCG~GGGCGC 2760

~¢ATG&GC~T A~CTTTC~CA TGAAT2TCCC TCAGGrTTCC AAACCCTT~A CATTTTAAGC 2820

GC GC~TCCC CC~GAAGAA~ CCATTGAGTC GCT ~ GG~G TATCCTGTTC TGCAGATTTT 2880

T~ATCS~GGT T~ClGhATCA CTACCTCCCA ATTCTA~TGT CTC~TCAGTC AATAAATTTG 2940

WO 93/22431 21 3 ~ 6 7 0 PCr/US93/03993



-35-

CTATTCATGA GAATCq~C~GA GTTTGCTGTA GTCTTTGTAG CTTGCAAATT TACTCAGTTC 3000
ATTCTGTGTT TGCTTTSTCC A~CATTAGT T~C~TTTAA ATTCACTCA~ CAAGTGTTCT 3060

ATCCCA~GGT G~;GGAGTAG ATAGATGGAA TGGGGGAAAG GATGACCAPG GTTGTGAACA 3120

GTCTGGGGTG TGBCTIAAAA ATCATGa~:AT GGTC5~TCI~AA CaCQAGAAA AGTCTTCACT 3180

GGA~TC~A C~CATC:A~ AAa~CC TGC~;QGGCA Al~TCTAGC~ GTGC:AGAGTT 324t)
0
QCTCq~CCAA GTTCTGGI~G CAGGATG5;CT CTC~GATTAG GTTAGCTACC AGAGG~CCAA 3300

GTCCACTGAC ATGTTCTSi:AC CTAA~ GAA GGAC:ATTCAC CC~::TGAACAA AAGACCCCTG 3360

15 C:CC~TGCGAT CTTCCGCAAC ACT~TAACTA ~TTCCTTAC TC~TGACCCA TGa~TAGAGCT 3420

TT~AGGCA~A GaTACAAACC C'rCT~TBTCT TCrCAAG~l'T GCCAGTTCTT CATTAAGCCT 3480

~ a~rAccTTc~ TAC:CAGCl;CA CGTCTCC~GA A~ACTGAT~A AGTCq~GGTTT T~TTAGTCTG 3549
TT~Ga~aAA5! ATTAq~TCAG~ ATAI~CAAGA TCCSCTACAC TGS~;TÇ;AGAC AGTTTACTGA 3600

CCATC~ AGATAl;AA~:G CAGCCCTCTT CAI~GGATTGA ACGCaq~ACGT TTC~;TCC:IUT 3660

~: 26 TTGAGAA&~T AC~TCt;~AG TATTTA~GAT ÇCTTA~CATC AGTATC:ACAG AG&TCACTGG 37i!0

AAACA~ CC~GCTGA T~3~G~ TAl~ GA GT~ A GGCATGTGTA 3'780

P,CAP.C~TCC C~ GA TCCTGmTA CA~;T3~AGATT TTATCAGCTT TAGGTAAATG 3840

l:TAAC~T~Cq~ GACq~C~CA AG~ ~ aCTATACTAA AAAGCCAATG TGCCTTCCTA 3900

CATTTAGCTA ATGATAG:AAA SAAAP~AGATT TCATCTCACT CTTCt:ATTTG GAGTCATCAC 3960

35 TAi::CTTCATC AT~TGCA$CA GAGATAG:A(:C ATC;CQAGTA GC~CCTCI!~G TGACACAG'rA 4020

GTCT~ACCAC CACATTTTTA TCGATTAAAT GTA~ TAGCATGGTT ATATGTGCAT 4080

ATAATACACT CTGATTAC:TC ACTTC:CCTAT CCTTTCrrAC TCCTCCCCAT CCCAACCTGT 4140

W O 93/22431 . PCT/US93tO3~3~
21346~U ,.

-36-

AT~AATCCTT AC~TTCGCTA C~A~CCCTT ~ACCA~G~TT TTGTTAGTTT TGTTGGTTTG 4200

TTTTGTGACC CA~TGAGCTA ACQGGGCCA TCTGTATGAC CATGGGTTTG GATT~TGATG 4260

GA~TCCCACT GGG~ACACAA CTOAAACTAG T~ACTCCCCT TCAQGAATC TATCAGTAGA 4320

C~TAATT&A A~AGGGAATG GTGGG~CTCT CTCCATCC~T ~GCTAACTGT TGAC~GSACA 4380

a~cTTGTGcA GGCC~AaTGC ACACAACCA~ AGTT&CTGTG AGCTCATGTT TGCAAT~GCT 4440
GTGT~TaCA TAGGAOA~G TATTTTGGAG CCATTATCCA TGTCToGCTC TTATATTCCA 4500

CCT~CTCTTT T~GaATGTTC CTTGAGTCTT TGAGGAATGT IITGGTTA~A ACCGAGTGCT 4560

15 GACTTGTCAT rTATTTTCAG AaTCrTGAGC ATCAAA5GAT A~ATAA~ATA TTATATTATA 4620

W ~ TA A T5~TTG~A Q GA~ITTTCAT ATACC~TTC~ TATTGGr~A CCAT~ATCCC 4680

ChA5rSSSC~ CSCCTC~AAC AC~CCA~TGC TCCCA~ACQ G~T6AAACCT TTChACTC~ 4740
~0
TG~A~TI~CC C~C~IloC~T ~CA~r5TATC T~AITGTA~ C~CAACT CCCTT~ATCT 4800

ATCT ~CTAC CAA~CCCT ~TTCTAAACT GGTAGCCTAC ~ACTr~AGTT CCAGTACTTG 4860

ATGCAGAAGT A~ATÇGAGCA A~TGAAC~C ATGC$CAGCC T~GTCTATGG AASGGGTTAC 4920
: '
AAGCCAG~CC oG~TATaT~ ATAGGACCCT GTCTCAAAAA C~A~TAAACC AAACAAACAA 4980

ACAAACAaa~ RACAAhCAAA:CAAAGAAACC AAAAATCTQ ACC~TTTCTa GTTTTTC~AG 5043
~5SSS~CTSO AACa~C~AG~ TAAGCA~AC ~AAAGTTTQ AAAATAGGAT ec 5092

(2) INFORMATION FO~ S~Q ID NO:3: :

~i) SEQU~N OE CHARACTERIST~CS:
(A) LR~GTH: 5l59 b~0e pair~
(B) TYPEs nucleic acld
(C) STRANDEDN~SSs doubl~
SD) ~OPOLOaYs lin-ar

WO 93/22431 2 1 3 4 ~ 7 P~/US~3/03993



-37-

( ii ) ~OLi3~CVL~ TYPE ~ DNA ( g~nom~ c )

HYPO~:TICAL: NO

~ iv ) ANTI--5ENSE ~ NO


(xi) SEQUENCIS i:~SCRlPTION~ SEQ ID NO-3:
GG41~AAAt:CT GTGTGGTGAG GGGGC~ GGGAGTGTCT ACATGGGGCA A~AAGGAAAG 60

GG~C~TT~T CAC~CA~C~G CTCCTTGTC:T CT~GTTTG AGAAGATGAC TAACTCATGA 120

15 CTTAl~ GAA T~rTACGTCCT GGCTCATTGT s;TTClWATcA A&TCAAG~t:T ~;AAGGU~GG 180

M;~ATTTGCT CC~TaAC~ a aGc~Tcc~ A1~GCAATCTT C~;TATCAT ACC:TTT~AG240

~M~ TcAT~r A~G~AAAG CCCTGt:Cf:TA C:CCACTCTGC AAGCTCACC:~ 300
2~ :
~CIU:aACC~:a ACCC~ . CA TCTGT~CCAT aq~TA~ÇCGB CTGCS~ GAt: C5r~CACAC 369

TCAtCl'CsS~ AaCTCTG~::CC ~GCCGT~CT CTA~:TTCt:Q GCCTTCTCAT C~Ct::AGG~C 420

2S CATGTC~ACC ~AAACCACCA T~ GTCA AACC~GCCAC CGTGGCTACA GrGCC:AGCTC480 ; .

~a~AG~G C~GC$CA A~:CGCq~GG ~TCI~GQG~ GTGTCCG~GT GCCGCTCCCG 540
,
~;aGcA~;c~t;~ ~GC2CC~C;TI; CAI~Tt;~GTGG aGGAGCTGGC TTTGGCAGCA GGAGCCTC:TA 600

TGG:TGTG&a~ AÇ;CTCCa~CJ~ .T~CCAT CGG~G ~ C:AGCTGSeGCA TTGGAGGAGG 660

~TATGGCAGC C~ATTTGGAG CAA~CTTOGG CATTG5AWT GGAG~TGGT~ GTGGCTT~GG 720

35 CTT~GG~GGT G4A~C~G~CT T~G~TGGTGG CTAT&G&GGA GCTGGCTTCC CGGTGTGCCC 780

ACC~GGAGGC ATCCAAGA~G TC~CCA~CAA CC~GAGCCTC CT~A~CCCC TG~ACCTGCA 840
..

~AT~GACCCC ACCATC~AGC GGGTGAGGAC TGAGGAGAGG GAGC~GATCA AGACCCTCAA 900

W O 93/22431 . PCT/US93/03993 ~.
~134670

-38-

TAACAAG~TT GGCTCCrTCA TCGACA~GGT GAGACATGGT CCTCCCTAGA GCACCCTGTG 960

TGTCT~CAGG GAATGCTGAA ~AGAGGT&TA GGGAAGAGGC TTCAGTCTCA GCTCTG~TAC 1020

TGCCTGTGTT GCTAGTTGAT GCTCTGTCCT GGTTTGTGTT CCTCTT Q GT TAG~CTGGCA 1080

TCTGGAAATC AGGGTCAGCG TTCCTCTCCT CCAGAGGTTG CCCTATAAGG GTGTCTGGTC 1140

CCAGTGGACT GAeATEACTT AAAGACTCAC AAA~CAGGCT TGTAGGGA~ TGGAAGATTA 1200

T~AFTATGTA T~GTGCAGTT GGGAGGCA~G C QGCCTCAC TAAGCTGCAG CACACTTCAT 1260

CAAGCCATGG CTAACCTGCC AGTGCCCTAC ATGAGTTCTC TGCCCTCCTT AGAGAGGTGG 1320

15 CATTGGG~GC TTCAG~CTGG ACTGTr~CCC TCA~ACCGA& GGTCAGGGTC TAACTACACT 1380
: ~ :
~ GA~G~CS~T AGT~aG~CAG CC5~A5AG&G TACACACACT AG$B~AG~GT ~T~GAAGG 1440
; :
~ ~GAAACC~A AAC~CTCCC CCTCaTACTT GCCCCCCOGC CCCCACCAG& TGCGGrTCCT 1500
; GG CAGCAG AACDAGGTGC TG~ACACo~a G~GGGCC~IQ ~GGaAG~GC AGGGcaccAA 1560

; ~ ~ GaCC~iCAGC CAGAACC~GG AGCC~ArGTT TGAGCAGTAC AT Q G~AACC TCCGCAGACA 1620

: 25: GCTGG~GC ATCATTG!t;AG AGAGGG4TCG: CCTGGACTC~ ~AGCTGAGGA aCATGCAGGA 1680

cAcaG~GG~a GACT~CAAGA GChAG~6AGT ~ACAAAGAAG GGAGAATCCA 6TCTCC~GAC 1740

: :TTTATkAA~A ~GoAAGCCCA AAT~TAAA~A ~G4GCTCCAT GATGTAAGAA AGCTTG~TCA 1800
~30
~A~C~G~5AC AGAGGCTGCC ~TTGA~ACCA TCCACCCCGT GGC$CCAATA T~GTG Q CCT 1860

~TCCTCTTGT AGATATGAAC ~TGAAAT~AA CAAGCGCACA GC~GCAGAGA ~5G~AT~CGT 1920

G~CCCTGAAG AAGG~GAGTT GACTA~CCAC AAGGATGGGT TTCTCTG~GG ~A~GACATAA 1980

AAGGCCTTGT ATA~CTGCGT CATTCC~GAG AAAT&GTGGT TACAGGGAAA G~AGTGAACG 2040

GTCTGS&GAA GAGAGGTAAC CTGAr~CCAT GTTCTTGATG GTTTTCTCAG GATGTAGATG 2100

~ ~ WO 93/22431 2 I 3 g 6 7 0 PCr/US93/03993



-39-

CTY;CCTACAT GAACAAAG~ GAl~CTGCA~G CCAAGGQGA CAGl~CTAAQ GATGATATCA 2160

ACTTCTTGAG AGCTC~CTAT GAAGCAGTAA GCCCCCCT~G TCTT~CTTC TCC~TTCt:AT 2220

5 ~CACCACTCC CT~TA~TT TSCCCCC~GG GCAAAGTt;TT TGACCTCTC;C A&TTCT~A 2280

S;ACAAAGATG ACTATGGCTC TTTCTG'rCCT GC~G4AI~CTG TCTCAGATGC AAACTCACAT 2340

CTQGAQCA TCTGTGGTCC TCTCC~TGGA CAACAACCGT AGCCTG~;AC:C TGGACAGCAT 2400
0
CATCGCTGAG ~TCAAGGCCC AGTA~GAGGA CATTGCT QG AGAAGTCG&G CTGAAGCTGA 2460

~TCCTGGTAC CAGACTAAAG TaAGTATTGG GGTGG~GGCT GATGGGGATG CCTGGGGTCC 2520

ACCCTGAACT C~A~GAGTCT CTG~GTTCAG ~Ar5GGAGGC CCACT~A~AG AAAT~GGGAT 2580
.
~ ~ GTT~TCCGAG AhAAIGCACT GTGCACATGT ACC~TAGAAT AATGm~c TCGAAGAGTA 2640

: ~AAGA~CAo~ G~GG~AGAT& GAAAGITGCC ATAAATGG W TCCATGCTCT T~GCTTGAGC 2700
2~ :
aA l~ TGa~q~CC T~:AAA Çq~GAGAACA Tq~ TC CTG~GGG~ C 2760

TATGGAGTCT GTGG~ CC~ AAAoCT~TC T5GAGGAA~A GCCAG~AC~T CCATG~AAGT 2820
: 26 GT~GCCACT ~AGAG~GGG TTr~GT~ccG CATGT~ACAA CTC~CATAGA TaTCCTCTCT 2880

T~GATTGoC~ T~CAG~ATGA GGAGCTGCa~ OTCA~AGC~G GCAG~CA$GG GGACGACCTG 2940

C~CAAC~CCA AGCAG~AaAT ~GCT~AGA~C AACCGCATGA TCCAG~GGCT GAGATCTGAG 3000
AT~GACCACC TTAAGAAGC~ GGTGGGG~AG ~CAGAGAAAT GC~TGGG$~G C~GG~TGTGT 3060

TTCCIGTCCT CTAACT~TTG CTCACCAGA~ ~CCATGGTCT GGGGCTCAGC CTCTG~GAG 3120

3~ ~TGTAGACTC Q CGArTATT TTTGTTGC~C TCTC~GCCCA GTGTGCCAAC CTGCAAGCTG 3180

CTAT$GCTGA TGC~GAGGAA C~TGGGCAGA ~GGCCCTGAA GGA~GCC~GG ~GCAAGCTGG 3240

AAG&GCTGCA GGATGCCCTG CAGAAGGCCA AA~AGGA QT GGC QGGCTG CTGAAGGAGT 3300

WO ~3/22431 . PCr/US93/039~3 ~
2~34~7a `


~o-

ACCAGGAACT C~TG~TGTC A~GCTGGCCC TGf;ATGT~ GA AATTGCCACC TACAGGAAGC 3360

TGC'rGGA~; AGAGGAGTY;C ~GGTGGt;T~A CTATATCCTC CAACCCCTS:A GGACAGCS~CC :~420

5 TTGGT~;CAAG CAC~ GCAC A~aGAAGGGAC CACTGACTAT GCCCACAAT~ GTCt:CTTTAA 3480

GA~ACTCCTT GCTGTGCTGG AGAGATGGCT CATTGTTTAA GAGCACTAAC TCCI'CTTCCA 3540

GAGTTACTGA GTTTAATTCC Qt~CAaCCAC ~GGTGATTC ACAATCATCT CTATTGAGAT 3600
CC~t;TGCCCC CTTCTGGTGT GTTTGAAAAC AGCTACAGTG A~CTAI~AATA CATATACTAA 3660

~TAAAGAATA TTTTTAAACA AACAAACAAA ACAAAACAAA CAAAC~AACA ATC~ACCCAA 3720

C ~AGTGGATTC TCTCTGAGCC TTCACTAGA'r TGAGGCTTCC CATTC:AGGCT 3'7RO

GAAG~GA~; ~GCC~t;T~ CTCACC~G~T GCTTTCCTCT Tt;TAGGrrGA AT~;GTGAAG~; 3840

~ G~;ACCA 6TCl~Cl~ GTAAG~ACTC TG~TS;TCCG AATCCCCTTC T C~TACTTT 3900
GT~;GC;~AT ~ATCTGGTCA ~;TGOGC~G AC~TG'rCTG q~GS;;TGTCCl~ T~CCTCC~C 3960

ACAGCTGTGG ~AGTCCAC COTGTCQGC G4C~ CA GTGC~;G& TGCCAGCPGC 4020

:25 AGCTTAG~CC TGGGTGGAGG Qt~ CTAC TCCTATAGU~ GCAGCCATt;G CCTTG~AGGT 40 0

G~CTTCa.GTa C~GGCAGTCG QGAGCU~TC GSU4G1i:TGGCC TCAGCTCTTC TGGTGGCCTC 41qO

AG~C~ CC~TC~'r~ C~CC~ Ct:: ~CCTCCAG~ AGAAGAGCTA CaGGGAGTGA 4200
~30
AT~:TGTCAC CIU~GAGCTTG TCTCTGGTCt: CAGATGTCA~ GGC~G~A TCCI~GTGCTC 421;0

AGAGCCCOG~ G5TCAGGCGC TT~TCCTC:CC TGG~CCCCAC CT~GCTCC:C TTCTTGGGAC 4320

36 q~GAGGAGBCT GTaTCA~ GCTCA5~ATTT CTGTCCCQ~ GG&TCCCCAC TGCTCATCTC 4380

~TTATAGTC~ TCI::TGTGAGC T'rAC~TQCA ATTCACTCAC ATTTGGTGCT TCATGTTGl`A 4440

TT ~t;TTG C AGGCTCCTGC C~CCCTACCT CTBTCTCTGA G ~ CCTGT GA QGGGTGT 4500

~ WO 93/22431 PCr/US93/03993
' 2134670


~1- .

TTCCG~G~CC TTC~TTTTG AAAT QT~GT C~GGGTCCTA CTC~AGTAAT GAGCAGC$CC 4560

CTGTG~TTT CTAAT¢GCCT GAGAAACCCC ATCTCTCAAC aTCATA~CCC TCCCTGTCAG 4620
T~AC~G~GAC TGCCCO~TCA CTGGT~CTGT GAT~TAAGTT TCTGCTCATG TGATGTCTTT 4680
GCTTTCCr~G A~CCTCTTGG CTTC~rTGTA ATTT~TAA~T AAAGCAÇGTT TATACATAAT 4740

AAAATTTTCC ACGTGGATTT TTTGT~GCAA TGT m TAAT ATAG~AATTC TGTGGCCTTG 4800

0 CTAGAGA~GG CATCATT~a GTTCGCTCTC CCAGGTC~AT AT5TCTT~T CTGTTAGTAT 4860

ATAGTTTAAA STTAAGTTC~ CATT~TAAAT TAATTTCAAT AACTTTTT~A ~TAAAATAGA 4920

ATTCCATCAR TTCCCCCCCC T~CATTTTTC ACCTGCCCAG ATGTCrTCAC TCCAAACCCT 4980
C~C~TGTTT~ TCCATTTT~A AA~T~AcAas C~TTTaAGGA AGCCTAT~TT TCCTTCATTT 5040

TCTT~TAa~5 AATTT$a~RA ~GTATCCAT5 TCCCTTTCTT TAAAGATAA~ CAAC~GATGT 5100
:20 cA¢TrcAGo¢ ~c~ccc~ cATaA~ ;c CTTCCTGTCA GCU~GAACAT GP~TCTGCl~G 5159

(2) IN~ORN~TION FOR S~Q ID ~O~:

(1) SXQU2NC~ CHARACT~RIST~CSs
~A) L~N~T~s 16 ~no ~cld~
(~) SY~Es u~i~o ac~d
(C) S~R~NDYDN~SSs ~in~l~
~D) TO~OLoGYs l~n0ar

(li) ~GL~CUL~ SYP~s popt~de

YP0T~TICAL: NO

(iv~ ANTI-S~NS~s NO
~5

WO 93/22431 PCI/US93/03993 ~.~
213~167~ ~ ~


-42-

~xi) SEQUlSNCI!: DESC3?IPTIONs S~Q XD NOs4s

5::ys S~r Ser Val Ly~ Pha Val 5er Thr Thr Tyr S~r Gly Val Thr Arg



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::
:

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Representative Drawing

Sorry, the representative drawing for patent document number 2134670 was not found.

Administrative Status

For a clearer understanding of the status of the application/patent presented on this page, the site Disclaimer , as well as the definitions for Patent , Administrative Status , Maintenance Fee  and Payment History  should be consulted.

Administrative Status

Title Date
Forecasted Issue Date Unavailable
(86) PCT Filing Date 1993-04-28
(87) PCT Publication Date 1993-11-11
(85) National Entry 1994-10-28
Examination Requested 2000-02-08
Dead Application 2002-04-29

Abandonment History

Abandonment Date Reason Reinstatement Date
2001-04-30 FAILURE TO PAY APPLICATION MAINTENANCE FEE

Payment History

Fee Type Anniversary Year Due Date Amount Paid Paid Date
Application Fee $0.00 1994-10-28
Maintenance Fee - Application - New Act 2 1995-04-28 $100.00 1995-03-30
Registration of a document - section 124 $0.00 1995-10-19
Maintenance Fee - Application - New Act 3 1996-04-29 $100.00 1996-03-25
Maintenance Fee - Application - New Act 4 1997-04-28 $100.00 1997-03-26
Maintenance Fee - Application - New Act 5 1998-04-28 $150.00 1998-03-24
Maintenance Fee - Application - New Act 6 1999-04-28 $150.00 1999-03-23
Request for Examination $400.00 2000-02-08
Maintenance Fee - Application - New Act 7 2000-04-28 $150.00 2000-03-22
Owners on Record

Note: Records showing the ownership history in alphabetical order.

Current Owners on Record
BAYLOR COLLEGE OF MEDICINE
Past Owners on Record
GREENHALGH, DAVID A.
ROOP, DENNIS R.
ROTHNAGEL, JOSEPH A.
Past Owners that do not appear in the "Owners on Record" listing will appear in other documentation within the application.
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Document
Description 
Date
(yyyy-mm-dd) 
Number of pages   Size of Image (KB) 
Description 1995-10-15 42 2,659
Cover Page 1995-10-15 1 33
Abstract 1995-10-15 1 78
Claims 1995-10-15 9 537
Drawings 1995-10-15 9 405
PCT 1994-10-28 23 1,226
Assignment 1994-10-28 8 313
Prosecution-Amendment 2000-02-08 1 38
Fees 1997-03-26 1 65
Fees 1996-03-25 1 63
Fees 1995-03-30 1 55