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8-K - FORM 8-K - Molecular Insight Pharmaceuticals, Inc.d8k.htm
Molecular Insight Pharmaceuticals, Inc.
Convertible Preferred Offering
Investor Presentation
December 3, 2009
Exhibit 99.1


2
Disclaimer and Safe Harbor
Disclaimer
This document is based on information provided by Molecular Insight Pharmaceuticals, Inc. (the “Company”) and other sources that the Company
believes are reliable and includes additional and updated disclosure where available.  CRT Investment Banking LLC, as Placement Agent, is not making
any representation or warranty that the information in this document is accurate or complete and is not responsible for this information.  The Placement
Agent has not acted on your behalf to independently verify the information in this document.  Nothing in this document is, or may be relied upon as, a
promise or representation by the Placement Agent or the Company as to the past or the future.
You should not construe the contents of this document as investment, legal or tax advice.  You should consult your counsel, accountant and other
advisors as
to
legal,
tax,
business,
financial
and
related
aspects
of
a
purchase
of
the
securities
offered
by
this
document.
The
Company
is
not
making
any representation
to
you
regarding
the
legality
of
an
investment
in
the
securities
by
you
under
appropriate
legal
investment
or
similar
laws.
Neither
the
Company nor the Placement Agent does or can guarantee that purchase of the securities will result in any economic gain and may result in the loss of
an investor’s entire investment.
In making
an
investment
decision
regarding
the
securities
offered
by
this
document,
you
must
rely
on
your
own
examination
of
our
Company
and
the
terms of this offering, including, without limitation, the merits and risks involved.
No dealer,
salesman
or
other
person
is
authorized
by
the
Company
to
give
any
information
or
make
any
representation
other
than
as
contained
in
this
document in
connection
with
this
offering
and
other
documents
or
information
furnished
by
the
Company
in
response
to
investor
requests
for
additional
information as provided herein.  The delivery of this document at any time does not imply that the information contained herein is correct as of any time
subsequent to the date hereof.
Safe Harbor Statement
This presentation
contains
“forward-looking
statements”
within
the
meaning
of
the
“safe
harbor”
provisions
of
the
Private
Securities
Litigation
Reform
Act
of 1995.  Such forward looking statements include, but are not limited to, the available patient population for our products; our partnering opportunities
and capabilities; our ability to obtain covenant relief on our bonds; and our continued clinical trial progress, among others.  The words "may," "would,"
"will," "expect,"
"estimate,"
"anticipate,"
"plan,”
“believe,"
"intend,“
“target,”
“strategy,”
“potential”
and
similar
expressions
and
variations
are
intended
to
identify forward-looking statements.  Readers are cautioned that any such forward-looking statements are not guarantees of future performance and
involve risks and uncertainties, many of which are beyond our ability to control.  These forward-looking statements are subject to a number of risks and
uncertainties that
may
cause
actual
results
to
differ
materially
from
those
described
in
the
forward-looking
statements.
These
risks
include
changes
in
laws and
regulations
effecting
radiopharmaceuticals,
our
ability
to
raise
capital
to
fund
ongoing
development
and
operations,
completing
our
manufacturing capability, the price and availability of raw materials for manufacturing, timing and results of product development and certification of our
product, unanticipated costs and delays in product development and manufacturing, our ability to hire and retain key management and technical
personnel, interest of channel partners, competitive factors, and our ability to manage growth, as well as the risks and other factors set forth in our
periodic filings with the U.S. Securities and Exchange Commission (including our Form 10-K for the year ended December 31, 2008 and our other
periodic reports as filed from time to time).


3
Company Overview
Publicly traded, clinical-stage biopharmaceutical company (NasdaqGM: MIPI)
Portfolio of five clinical stage drugs, all with significant potential product value
Focused
on
the
discovery
and
development
of
targeted
therapeutic
radiopharmaceuticals
and molecular imaging agents for use in oncology
Experienced scientific and regulatory management team, world class scientific and clinical
advisory boards
Patents
32 issued; 25 pending in US
(1)
163 issued; 94 pending outside US
(1)
Headquartered in Cambridge, MA
(1)
Including in-licensed.


4
Investment Highlights
Pioneer in the emerging field of molecular medicine
Five
clinical-stage
candidates
addressing
seven
indications
with
significant
unmet
patient
needs with no visible potentially competing products in development
Significant
near-term
partnering
opportunities
in
oncology
and
cardiology;
one
completed partnership (Onalta), one in late stage negotiations, and one targeted for out
licensing (Zemiva)
Clinical
risk
for
certain
products
reduced
through
established
history
of
use
outside
the
United States
Ultratrace™
is a proprietary radiolabeling
technology
Key clinical and corporate milestones within two years
Highly
experienced
management
team
with
history
of
success
and
value
creation
Near
term
value
drivers
have
the
potential
to
provide
significant
lift
in
equity
value
Partnerships with pharma
companies validate the science / market opportunity
Elimination
of
default
risk
on
the
Notes
via
this
fund
raise
and
anticipated
covenant
relief by bondholders suggests significant near term equity value recovery


5
Investment Highlights (continued)
Commitment
of
Cerberus
and
other
existing
investors
to
participate
in
current
fund
raise provides validation of products and strategy
Business
development
opportunities
are
anticipated
to
supply
a
significant
portion
of
the
needed cash for further advancement of the confirmation of the science and targeted drugs
Product
value
strategy
can
be
broken
into
three
categories:
Azedra
value is expected to more than “defease”
the total accreted bond value
Zemiva
value
may
fund
other
development
via
the
off
licensing
of
the
only
cardio
product
Trofex
is
expected
to
provide
significant
upside
equity
value
as
both
an
imaging
and
therapeutic product
Others (Onalta
and Solazed) are bonus points


6
Broad and Diverse Pipeline
Product
Candidate
Indication
Current Phase
Status
Pre
PI
PII
PIII
Azedra™
Treatment of neuroendocrine
tumors using tumor’s
norepinephrine uptake
mechanism
Molecule commercialized outside the US
Pivotal trial –
Phase II
Orphan Drug status
Fast Track designation
Onalta™
Treatment of carcinoid
tumors using receptor-based
radiotherapeutic
Orphan Drug status
Sub-licensed to BioMedica in certain
non-US territories
Trofex™
Detection and monitoring of
prostate cancer via binding
to prostate-specific
membrane antigen (PSMA)
Completed proof of concept –
Phase I
Solazed™
Treatment of metastatic
melanoma based on
melanin-binding small
molecule
Orphan Drug status
Initiated proof of concept
131
I-MIP-
1375
Prostate therapeutic
In discovery
99m
Tc-
Octreotide
Neuroendocrine cancer
diagnostic
In discovery
Zemiva™
Detection and management
of cardiac ischemia by
imaging metabolic changes
in the heart
Molecule commercialized outside the US
Phase III discussions ongoing with FDA
Targeted for out-licensing
Pheochromocytoma
Neuroblastoma


7
Clinical Development Timeline
2009
2010
2011
2012
2013
H1
H2
H1
H2
H1
H2
H1
H2
H1
H2
Azedra
Neuro
Azedra
Pheo
Trofex
Onalta
Solazed
Zemiva
IBN201 Pivotal Phase II Trial
Phase III Confirmatory Trial
Submit NDA
NDA Approval
IB12b Pivotal Phase II Trial
Phase III Confirmatory Trial
Submit NDA
NDA Approval
Phase I Clinical and
Nonclinical Studies
EU Phase III Confirmatory Trial
Submit
MAA
MAA
Approval
Phase I Dosimetry Study
(NIH Funded)
Phase III FDA Agreement


8
Proven Management Team
Executive
Experience
Daniel Peters
President
and
CEO
Chairman
of
the
Board
of
Phidias
AB
and
also
serves
on
the
board
of
MDRNA,
Inc.
Previously served as President and CEO of Medical Diagnostics for GE Healthcare
Successfully
integrated
Amersham
Health
into
GE
Healthcare
Former
Chief
Operating
Officer
of
Amersham
Health
John W. Babich, PhD
Co-Founder,
CSO,
Executive
VP,
and
President
of
R&D
Former Assistant Professor of Radiology at Harvard Medical School and Staff
Radiopharmaceutical Chemist at Massachusetts General Hospital
Former Principal Scientist and Head of the Radiopharmaceuticals at the Institute of
Cancer Research in England
BS degree in Pharmaceutical Sciences from St. John’s University; MS from University
of Southern California; PhD from the University of London
Charles Abdalian
CFO,
and
Senior
VP
of
Finance
Over 30 years of experience in executive financial management; has been
responsible
for
building
value
at
early-
to
mid-stage
biopharmaceutical
companies
Former Chief Financial Officer at Coley Pharmaceutical Group, Inc.
Successfully negotiated and completed sale of Coley to Pfizer
Former Audit Partner at Coopers & Lybrand (PWC)
Norman LaFrance, MD
CMO,
and
Senior
VP
More than 20 years of experience with molecular imaging and therapeutic companies
Widely published and experienced in imaging and therapeutic medical research
Board-certified
in
Internal
Medicine
and
Nuclear
Medicine
and
a
Fellow
in
the
American College of Physicians and the American College of Nuclear Physicians
Masters and BS in Nuclear Engineering and Science from Rensselaer Polytechnic
Institute; MD from the University of Arizona


9
Board of Directors
Board Member
Experience
Joseph M. Limber
Chairman of the Board
Current President and Chief Executive Officer of Prometheus Laboratories
John W. Babich, PhD
David R. Epstein
President and Chief Executive Officer of Novartis Oncology and former Chief
Operating Officer of Novartis Pharmaceuticals Corporation
Daniel Frank
Managing Director at Cerberus Capital Management
Scott Gottlieb, MD
Yvonne Greenstreet, MD
Senior Vice President and Chief of Strategy, R&D at GlaxoSmithKline
Daniel L. Peters
President and Chief Executive Officer of Molecular Insight Pharmaceuticals
David M. Stack
Executive Partner of MPM Capital and Managing Partner of Stack Pharmaceutical
Lionel Sterling
Founder and Partner of Equity Resources
Executive Vice President, Chief Scientific Officer and President of Research 
Former Deputy Commissioner for Medical and Scientific Affairs at the FDA


10
Scientific Advisory Board
Board Member
Experience
William C. Eckelman, PhD
Chairman
Former Chief of Positron Emission Tomography (PET) Department, National
Institutes of Health (NIH) 
Ronald Van Heertum, MD
Professor of Radiology, Acting Chairman of Radiology, Director of the Division of
Nuclear Medicine and PET, Columbia University College of Physicians &
Surgeons
Duncan Hunter, PhD
Professor and Associate Dean of Science, University of Western Ontario
Rob Mairs, PhD
Head of Pediatric Oncology, Cancer Research UK Beatson Laboratories,
University of Glasgow
Martin Pomper, MD
Professor of Radiology, Pharmacology, Molecular Sciences and Oncology, Johns
Hopkins University
John Thornback, PhD
Chairman, Sestria Limited
John F. Valliant, PhD
Associate Professor of Chemistry, McMaster University
Jon A Zubieta, PhD
Distinguished Professor of Chemistry, Syracuse University


11
MIPI’s Transformational Molecular Imaging Products
Enables early detection, appropriate staging and monitoring
of disease
Low radiation dose
Sensitivity to detect disease when anatomy is still normal
Specificity allows disease to be characterized and identified
Whole body scanning and 3-D imaging easily performed
Large installed base of imaging equipment exists at
accredited hospitals
Trofex, Zemiva &
99m
Tc-Octreotide


12
A New Generation of Targeted Oncology Therapeutics
Specific
targeting
delivery
of
systemic
radiotherapy
spares
normal tissue
Potentially effective anti-cancer treatment
Minimal side effects compared to chemotherapy
Potential to improve safety and efficacy of cancer therapy
Palliation and combination therapy possible
Azedra,
Onalta,
Solazed
&
131
I-MIP-1375


13
Business Strategy
Establish a market leading oncology-focused specialty pharmaceutical company committed
to the discovery, development and commercialization of both targeted radio-therapeutic
compounds and targeted molecular imaging radiopharmaceuticals
Primary
areas
of
focus
include
neuroendocrine
tumors,
prostate
cancer
and
metastatic
melanoma
Pursue near term and significant partnering opportunities where appropriate
Azedra:
standalone development and commercialization with a potential partner
Trofex:
therapeutic
standalone
development
and
commercialization
with
a
potential
partner
Zemiva:
out licensing to a cardio oriented nuclear medicine partner
Onalta:
additional partnering opportunities in regions not covered by BioMedica
transaction
Solazed:
potential
partnering
at
latter
stage


14
Leadership in Oncologic Radiopharmaceuticals
Targeted radiotherapy is an increasingly important contributor in cancer treatment
Rational care
Proven means to effect tumor remission
Logical option in delivering treatment efficacy
Imaging is critical in the diagnosis and management of most cancer; it is expected to be
increasingly deployed to determine treatment options reflecting new technologies with
greater discrimination
MIP has deployed extensive resources to advance targeted radioimaging and
radiotherapeutics, and is a leader in the field
The market for radiotherapeutics is expected to grow substantially over the next 10 years,
reflecting targeted products with more defined therapeutic efficacy


15
Enhanced Imaging Technology
Enhanced imaging, directed at clinically relevant targets, will increasingly impact cancer
treatment selection and monitoring
Essentially non-invasive method to
determine tumor size and location
Visualize pathology-associated
physiological, cellular, and molecular
processes in active tumor disease
Quantify clinically relevant variables
Blood flow, oxygen consumption,
glucose metabolism, proliferation,
hypoxia, apoptosis, etc.
Molecular Imaging
Broadly expands capabilities of
conventional anatomical imaging to
include staging of disease
Enables earlier cancer detection
Facilitates individualized treatment
Allows for effective monitoring of
therapeutic response
Directs therapeutic intervention by
tumor mass and location(s) and
tumor-receptor targets imaged
Cancer Treatment


16
Treatment Options Available to Oncologists
Treatment Alternatives
Limitations
Targets rapidly proliferating tumors
Systemic administration enables treatment of primary and metastatic lesions
Neo-adjuvant/adjuvant therapy options broaden efficacy
Targeted therapy increases efficacy and/or reduced toxicity
Severe side effects
Immunosuppression
Organ toxicity
Secondary neoplasia
Treats many solid tumors and diffuse leukemia and lymphomas
Improved safety with tighter beam focus, CT-scanning and MRI tumor
localization has delivered improved safety and efficacy
Frequently adjunctive to other treatment options
Acute and long term radiation side
effects
May achieve complete disease resolution alone or in combination with
chemo/radiation
Palliative de-bulking of late-stage/aggressive/invasive solid tumors
Prevention by removing lesions that are pre-malignant or encapsulated
Surgical complications
Potential for tumor reseeding
Can only treat solid tumors
Limited to accessible tumor sites
Less invasive and less toxic than conventional therapy
Targets specific cancers with reduced side effects
Utilizes immune system to target cancer cells
Anaphylactic reactions
Potential for other side effects
Multiple and increasingly diverse treatment options are available to oncologists, each with
unique modes of intervention, outcomes benefit, and use limitations
Targeted radiotherapy (“TRT”) representing an important new treatment option


17
Targeted Radiotherapeutics Provide Unique Benefits
As a single agent, radiotherapeutics have:
Cured cancer: I-131 in thyroid cancer
Effected complete remission: I-131-MIBG in neuroblastoma
And are:
Utilized as first-line treatment
Effective in consolidation therapy
Effective for palliation
Targeted
Radiotherapy
Demonstrated benefit in solid
tumors where no alternative
treatment options are available
High energy induced
destruction of cancer cells
independent of pathway activity
Treats disseminated
diseases with exquisite
targeting accomplished with
targeting molecules
Ability to non-surgically
debulk large tumor masses
(decompression)


18
Targeted Radiotherapy Debulking of Tumors
Advantages
Non-invasive
Reaches physically inaccessible
locations
Performed under direct
visualization
Instantaneous response
Minimally invasive procedure
Spares healthy tissue
Reduces blood loss
Short recuperative time
Non-invasive
Reaches inaccessible locations
Spares healthy tissue
Short recovery period
Disadvantages
Severe side effects
Unacceptable impact on patient
QoL
Limited utility
Painful
Potential for infection
Potential for long recovery time
Limited accessibility
Potential for infection
Contraindicated due to limited
accessibility
Longer response time than
surgery or ablation
Not universally applicable
Chemotherapeutic
Debulking
Surgical
Debulking
RF / Laser
Ablation
Targeted
Radiotherapy
Debulking


Product Overview
Leadership in Oncologic Radiopharmaceuticals


20
Ultratrace™
Delivers Unique Ultrapure Radiotherapeutics
Cancer cell
Cancer cell
Ultratrace™
maximizes
delivery
of
radioactivity to the tumor
Optimal tumor uptake means improved
efficacy
Low amount of drug administered
significantly reduces risk of
pharmacological or toxicity
Ultratrace™
Technology
Sub-optimal chemistry results in excess
of non-radioactive molecules
Non-radioactive molecules compete for
“chair”
on tumor cell
Low number of radioactive molecules on
tumor reduces therapeutic efficacy
Extraneous non-radioactive molecules
have the potential of producing serious
pharmacological or toxic side effects
Current Methods


21
Azedra –
Neuroendocrine Cancers
Tumor Sites for Azedra Indications
Overview
Radiotherapeutic product for the
treatment of metastatic neuroendocrine
tumors, specifically pheochromocytoma,
carcinoid and neuroblastoma
Description
I-131-Metaiodobenzylguanidine (“MIBG”)
Mechanism
of Action
Azedra binds to MIBG receptors, which
are commonly expressed on
neuroendocrine tumors
Therapy is targeted since beta particles
only travel a short distance from drug-
bound receptor
Expected
Performance
Provides treatment for patients that are
not amenable to treatment with surgery
or conventional chemotherapy
Product
Status
Orphan Drug status and a Fast Track
designation from the US FDA
Pivotal trial –
Phase II
Molecule commercialized both inside and
outside the US for diagnostic imaging
Currently available in the US on a
compassionate-use basis through
Draximage but contains cold
contaminants and is not approved by the
FDA
Adrenal Glands
(Pheochromocytoma
and Neuroblastoma)
Gastro-
Intestinal Tract
(Carcinoid)
Posterior


22
Azedra
Mechanism of Action
Developed at the University of Michigan to
image the adrenal medulla
MIBG is a substrate for the norepinephrine
transporter also known as Uptake-1, which
is found in some normal tissues and over-
expressed in a range of neuroendocrine
tumors
Norepinephrine
uptake
is
responsible
for
MI
BG
uptake
in
neuroendocrine
tumors
The success of targeted radionuclide
therapy is directly related to:
The ability to deliver sufficient number of
radioactive molecules to the tumor
Maintaining an acceptable radiation
dose to normal tissues
MIBG Uptake Mechanism


23
Azedra –
Proven Efficacy
Efficacy of I-131-MIBG  has been demonstrated in children with
neuroblastoma and in adults with pheochromocytoma and
carcinoid
J Clinical Oncology 2007
35% RR, improved survival
Annals of New York Academy of Science 1073: 465–490
(2006)
35% RR
Cancer 2004;101:1987–93. 2004
Improved survival; dose response
Current trials in Europe combining MIBG with topotecan
Multiple tumors are seen
throughout the abdomen
and skeleton


24
Clinical Literature Supports Azedra Development
Study Name
High-Dose 131I-MBIG Therapy
for Patients with Malignant
Pheochromocytoma
Phase II Study on Response
to 131I-MBIG Therapy
Refractory Neuroblastoma
131I-MBIG Double Infusion
With Autologous Stem-Cell
Rescue for Neuroblastoma
Phase I Study
Patients
N=12
N=148 Rx 18mCi/kg
N=16 Rx 12mCi/kg
N=21 Rx ranges from 22 to
50mCi/kg
Authors
Rose B, Matthay KK, Price D,
Huberty J, Klencke B, Norton JA,
Fitzgerald PA
Matthay KK, Yanik G,
Messina J, Quach A,
Huberty J, Chen S, Veatch
J, Goldsby, Brophy P, Kersu
L, Hawkins R, Maris J
Matthay KK, Quach A,
Huberty J, Franc B, Hawkins
R, Jackson H, Groshen S,
Shusterman S, Yanik G,
Veatch J, Brophy P,
Villablanca J, Maris J
Research
Centers
Department of Medicine,
UC San Francisco
Department of Pediatrics,
UC San Francisco
Department of Pediatrics,
UC San Francisco
Journal
Cancer
(July 15, 2003)
Journal of Clinical Oncology
(March 20, 2007)
Journal of Clinical Oncology
(January 26, 2009)
Conclusion
“High-dose 131I-MIBG may lead
to long-term survival in patients
with malignant
pheochromocytoma”
“The high response rate and
low nonhematologic toxicity
with 131-I-MIBG suggest
incorporation of this agent
into initial multimodal 
therapy of neuroblastoma”
“The lack of toxicity with this
approach allowed dramatic
dose intensification of 131-I-
MIBG, with minimal toxicity
and promising activity”


25
Azedra
Targeted Therapeutic for Neuroendocrine
Tumors
Utilizes
the
Company’s
patented
Ultratrace™
technology
to
target
the
neuroendocrine
cancers:
neuroblastoma
(children),
pheochromocytoma
(adults)
and carcinoid
Demonstrated excellent tumor targeting in initial clinical trials
Demonstrated enhanced tumor kill in preclinical models of human disease
Largely avoids cardiovascular side effects of other MIBG preparations
Fast Track designation and Orphan Drug status granted for two indications
Neuroblastoma
and Pheochromocytoma
Serious life-threatening diseases
No known effective treatments
Annual incidents: 20,000
refractory
patients
of
100,000
patient
base
(1)
(1)
Campbell Alliance market research, December 2009.


26
Azedra –
Points of Differentiation
Ultratrace technology = Improved product purity
Greater tumor uptake
Reduced pharmacological toxicity/side effects
There are no known effective treatments for relapsed refractory neuroblastoma or
pheochromocytoma
“Cold carrier”
MIBG (I-131-metaiodobenzylguanidine) does not have FDA approval, and
is unlikely to pose a commercial threat
Options for patients with advanced neuroendocrine tumors refractory to surgery:
Chemotherapy
Causes serious side effects with minimal benefit
Experimental protocols


27
Azedra
Development Status
Pheochromocytoma
(“pheo”) / Paragangaloima
(“para”)
Fast Track and Orphan Drug status
Phase 1 dosimetry
study (IB-11) completed
Phase 2a dose escalation study (IB-12) completed
Phase 2 therapeutic trial (IB-12b) begun June 2009
Neuroblastoma
(“neuro”)
P2a MTD study (IB-13/NANT-1-2007) underway with NANT
consortium
P2b  (IB-N-201) targeted begin 4Q09 / 1Q10 depending on
IRB processes


28
Azedra
IB-12 Study Overview (Adult Pheo
/ Para)
Study Overview
Process
Phase I Dose-Escalation (“IB-12”)
Identify the maximum tolerated dose (“MTD”) of
Ultratrace
iobenguane
I 131
Evaluate the safety and efficacy of Azedra
in
patients with malignant pheo
Duke University Medical Center, New York
Presbyterian Hospital, Rhode Island Hospital
Dose
escalation
began
at
6
mCi/kg
and
proceeded
according to the 3+3 trial design with dose increases at
1 mCi/kg increments
Patients were dosed by weight up to 75 kg
Long term follow-up is ongoing
Safety and Toxicity
Dose-limiting Toxicities (“DLTs”)
Febrile
neutropenia
(temperature
38.5°C
and
ANC
<1000/µL)
Grade 3 thrombocytopenia with active bleeding
Grade 4 hematologic toxicity > 1 week duration
Grade 3-4 non-hematologic toxicity
Patient Population
Study Type
6.0
mCi/kg
(n=3)
7.0
mCi/kg
(n=6)
8.0
mCi/kg
(n=6)
9.0
mCi/kg
(n=6)
Total
Average Age
Mean
Range
52
36 –
72
54
30 –
72
48
39 –
55
48
34 –
65
50
30 –
72
Gender
Male %
Female %
0%
100%
83%
17%
67%
33%
67%
33%
62%
38%
Weight in kg
Mean
Range
62.3
56 –
70
68.9
42 –
84
97.6
60 –
126
91.3
78 –
103
82.6
42 –
126
Race
Black %
White %
Other %
33%
67%
0%
0%
83%
17%
17%
67%
17%
17%
83%
0%
14%
76%
10%
Dose (mCi)
Mean
Range
375
333 –
423
463
325 –
536
572
473 –
609
661
633 –
696
538
325 –
696


29
Azedra
IB-12 Study Results (Adult Pheo
/ Para)
Overview of Results
Best response per RECIST was partial response (“PR”)
for 3 patients (14%), stable disease for 14 (67%),
progressive disease for 2 (10%), and not evaluable for
2 (10%)
All
3
PRs
were
documented
at
3
months
and
continued through 12 months
Mean
serum
chromogranin
A
and
vanillylmandelic
acid
levels were decreased from baseline at 3, 6 and 9
months
Furthermore, 5 of 15 (33%) patients taking anti-
hypertensives
at
time
of
therapy
reduced
or
discontinued use following treatment
Posterior Bone Scans
12 Months
Post-Azedra
Baseline
18 Months
Post-Azedra
Best Change in Sum of Longest Diameters of Target Lesions
(1)
16%
7%
(4%)
(4%)
(5%)
(7%)
(9%)
(18%)
(23%)
(24%)
(26%)
(28%)
(31%)
(33%)
(39%)
(51%)
(64%)
(100%)
(75%)
(50%)
(25%)
0%
25%
A
B
C
D
E
Patient
F
G
H
I
J
K
L
M
N
O
P
Q
(1)
Change from baseline displayed in this figure is each patient’s largest decrease from baseline or smallest increase if no decrease,
as viewed from Reviewer 1 of 2 Reviewers.


30
Azedra –
IB12B Study Overview (Phase II Pheo / Para)
Study Overview
Study Population (target n = 58)
Phase 2 Pivotal Efficacy and Safety (“IB12B”)
Evaluate the efficacy of Azedra in patients with
malignant relapsed/refractory pheo / para
Evaluate the safety of Azedra in patients with
malignant relapsed/refractory pheo / para
Males and females of at least 12 years of age
Histologically confirmed para/pheo
Failed prior therapy and not eligible for chemotherapy
or other potential curative therapies
Stable antihypertensive regimen
At least one measurable lesion
Adequate renal and hepatic function
Adequate hematologic status
Study Conduct
Twelve US centers participating
Duke
Washington University
Cornell
Lousiana State University
Johns Hopkins
University of Pennsylvania
MD Anderson
University of Miami
Mt. Sinai
University of California (SF)
RI Hospital
University of Iowa
Study currently enrolling patients
Two open-label doses of Ultratrace Iobenguane I 131
(Azedra) three months apart
Follow-up:1 year for primary efficacy; 5 years for
survival
Key Endpoints
Reduction (at least 50%) in antihypertensive medication
for at least 6 months
Status of hypertension and changes in blood pressure
Proportion of patients with complete response (“CR”) or
partial response (“PR”) by RECIST criteria
Quality of life
Overall survival
Safety


31
Azedra –
IB-N201 Study Overview (Phase II Neuro)
Study Overview
Study Population (target n = 100)
Phase 2 Pivotal Efficacy and Safety (“IB-N201”)
Evaluate the efficacy of Azedra in patients with
relapsed/refractory high-risk neuroblastoma
Evaluate the safety of Azedra in patients with
relapsed/refractory high-risk neuroblastoma
Males and females of at least 12 years of age
Diagnosis of high-risk neuroblastoma that is
relapsed/refractory
At least one measurable, MIBG avid lesion
Adequate renal, hepatic, cardiac, lung, and thyroid
function
Adequate hematologic status and recovery from prior
chemotherapy, immunotherapy, and radiation therapy
Eligible for at least one 15 mCi/kg dose of Azedra per
dosimetry findings
Study Conduct
Eighteen US centers selected to participate
Two UK centers under consideration
Institutional review board/ethics committee reviews in
process
Two open-label doses of Ultratrace Iobenguane I 131
(Azedra) 2 -
3 months apart
Follow-up: 1 year for primary efficacy; 2 years for
survival
Key Endpoints
Proportion of patients with CR or PR by RECIST
criteria over the course of two efficacy assessments
Duration of response in patients with CR or PR
Change in use of pain medication
Quality of life
Overall survival
Safety


32
Trofex –
Revolutionary Prostate Cancer Diagnostic
Trofex Prostate Cancer Imaging
Overview
Radiotherapeutic for the imaging of
prostate cancer
Description
I-123 radiolabeled small molecule
Mechanism
of Action
Detection of metastatic disease in men
with elevated prostate specific antigen
(“PSA”), but no other obvious symptoms
to identify prostate cancer
Expected
Performance
Improves therapeutic treatment strategy
Identifies presence and extent of
localized, regional or distant
metastatic disease
Suggests pretreatment disease
burden
Monitors post treatment effects of
therapy
Potential therapeutic application
Product
Status
Completed proof of concept –
Phase I
Market
Opportunity
One out of every six U.S. men will
develop
prostate
cancer
(1)
US population: prevalence >2.2 million;
annual incidence >200,000; annual
deaths 30,000
(1)
Cancer Facts and Figures (2009)


33
Trofex –
Superior Imaging Technology
Bladder
Normal
Kidneys
Posterior Planar Image
SPECT / CT Fused Slices of 3D Image
Normal
Liver
Known Bone
Tumor Lesion
Unknown Soft
Tissue (Lymph
Node) Lesion


34
Trofex –
Points of Differentiation
Potential to change the prostate cancer imaging landscape
Current technologies lack both sensitivity and specificity for detecting metastatic disease
Small molecular size compounds have a definitive advantage
Achieve greater permeability into solid tumors, which leads to higher percent uptake per
gram of tumor tissue and a high percentage of specific binding
Likely to display improved blood clearance and tissue distribution in normal tissues as
compared with intact immunoglobulins, making lesion detection more conspicuous
Time: 4-5 days
Large molecule = poor tumor penetration
Prolonged blood levels = low contrast
Binds to intracellular
component of PSMA
Limited sensitivity and specificity
Unable to detect bone metastases
ProstaScint
®
*
Prostate Cancer Imaging In Relapsed and High Risk Patients
Time: 4 Hours
Trofex
Small molecule = good tumor penetration
Rapid tumor uptake = high contrast
Binds to extracellular component of PSMA
Detects soft tissue and bone metastases
Potential to accurately detect and stage
prostate cancer
* Currently available treatment
Source: Health Advances (2007 Market Research)


35
Trofex –
101 Study Overview (Prostate Cancer)
Study Objectives
Study Design
Randomized, single blind, cross-over study patients to
receive 123I-MIP-1072  &  123I-MIP-1095 10 mCi with
2 weeks between treatments
Whole body A/P and SPECT images acquired
several times post-injections
Blood samples for pharmacokinetics and
metabolism obtained several times post-injection
Urine collected for clearance and metabolism
several times post-injections
Safety parameters monitored for 2 weeks after
second administration
Examine the PK, organ dosimetry, metabolism and
safety of 123I-MIP-1072  &  123I-MIP-1095 in patients
with prior histological diagnosis of prostate cancer and
evidence of recurrent metastatic disease
Safety and Toxicity
Expanded acute toxicity rat study
No adverse effects observed at doses > 300X the
human equivalent dose
Cardiovascular effects in conscious dogs (arterial
pressure, heart rate and ECG)
No adverse effects observed at doses > 300 times
human equivalent dose
General pharmacology screen (NovaScreen™)
No effects observed at 1 µM
Patient Population
Charac-
teristic
Patient
Mean
Std.
Dev.
101
201
202
203
301
302
303
Age
66
53
67
76
70
79
86
71
10.7
Height
(cm)
174
175
161
176
173
178
168
172
5.8
Weight
(kg)
99
93
62
71
77
112
95
87
17.6
Race
BK
WH
BK
WH
BK
WH
WH
NA
NA
PSA
(µg/L)
4.6
30.7
517
85.3
15.9
87.6
104.8
140.2
187.9


36
Trofex
101 Study Results
Tumor Uptake (Decay Corrected)
Tumor to Background Ratios
Planar Imaging
SPECT Imaging
Tumor Uptake (Not Decay Corrected)


37
Trofex
101 Study Conclusion
Both 123I-MIP 1072 & 123I-MIP 1095 detect suspected tumors between 1 & 4 hr post-
injection
Both
compounds
have
similar
tumor
uptake
and
adequate
T/B
ratios
on
a
per
tumor
basis
123I-MIP
1072
clears
the
circulation
more
rapidly
and
is
excreted
renally
while
123I-MIP
1095 does not clear as readily over the time period studied
123I-MIP 1072 is excreted intact while some metabolism was observed with 123I-MIP 1095
Human dosimetry
supports a 123I diagnostic dose of 10-15 mCi
Extrapolation to 131I therapy demonstrates that the kidney will be the dose-limiting organ
(assumes adequate thyroid blockade) at administered doses for 131I-MIP 1072 of 539 mCi
and for 131I-MIP 1095 of 162 mCi


38
Onalta
Metastatic Carcinoid
and Pancreatic Tumors
Pancreas
(Pancreatic
Neuroendocrine
Tumors)
Posterior
Tumor Sites for Onalta
Indications
Gastro-
Intestinal Tract
(Carcinoid)
Overview
Radiotherapeutic
for the treatment of
metastatic carcinoid
and pancreatic
tumors in patients whose symptoms are
not controlled by conventional therapy
Description
Yttrium-90 somatostatin
487
Radioisotope Y-90 is carried by
somatostatin
analog
Mechanism
of Action
Somatostatin
analog binds to
somatostatin
receptors SST2 and SST5
expressed on neuroendocrine
tumors
Therapy is targeted since beta particles
only travel a short distance from drug-
bound receptor
Expected
Performance
Provides treatment for patients that are
refractory to somatostatin
therapy
Allows targeted radionuclide therapy at
tumor sites expressing somatostatin
receptors
Product
Status
Orphan Drug designation in EU
Completed three Phase I and three
Phase II clinical trials in the U.S.
EMEA has approved MIPI’s
Phase 3
protocol design


39
Onalta
Development History
Time
Event
Q2 1997
Originating IND filed with the US FDA
3 Phase 1 trials (n = 66), 3 Phase 2 trials (n = 278) completed
2005
FDA grants Orphan Drug status for the treatment of somatostatin
receptor-
positive neuroendocrine
gastroenteropancreatic
tumors
Q1 2007
Molecular Insight in-licenses Onalta
program from Novartis
Q4 2007
Bachem
grants sub-license from Molecular Insight to produce and distribute
DOTATOC peptide
Q2 2008
Molecular Insight supports a physician-sponsored Phase I study in children
with refractory somatostatin
receptor positive tumors at University of Iowa
Submits protocols to Sloan Kettering to complete dosimetry
studies
Q1 / Q2
2008
Scientific
Advice
Meetings
with
MHRA
(UK)
and
BfArM
to
formalize
regulatory
endpoints in Phase 3 registration studies in the EU
Q4 2008
EMEA
grants
Orphan
Drug
status
for
the
treatment
of
somatostatin
receptor-
positive
neuroendocrine
gastroenteropancreatic
tumors


40
Onalta –
Points of Differentiation
Targeted radiotherapeutic with minimal pharmacological side effects
Chemotherapy with single or combination cytotoxic agents has produced little benefit
Currently, patients with an endocrine-active tumor that cannot be treated by surgery are
given drugs to decrease hormone production; however, symptom control often disappears
in 6 to 18 months
Competitive Landscape
Class of Compound
Products in Development
Level of Threat
Anti-angiogenic compounds
Avastin
Low
Multi-Kinase inhibitor
Sunitinib
Sorafenib
Low
mTOR Inhibitor
Everolimus (RAD-001)
Low
Radiotherapy
Lutate
Medium
Cold SST analogue
SOM-230
Low


41
Onalta –
Opportunities in the EU
Currently being utilized as a first-line or second-line treatment for refractory, somatostatin-
positive patients in the EU
Current patient population is unsatisfied and seeking new options
Metastatic
pancreatic
neuroendocrine
tumors
(PNET)
affect
~7,500
patients;
~700
currently
on radiolabeled therapy
Availability
of
a
commercial
radiolabeled
product
is
anticipated
to
expand
addressable
PNET population to ~2,100
Metastatic carcinoid tumors affect ~85,000 patients; ~6,500 currently on radiolabeled
therapy
Availability of
a
commercial
radiolabeled
therapy
is
anticipated
to
expand
addressable
carcinoid patient population to ~26,300


42
Onalta –
Sub-Licensing Agreement
Overview
Sub-licensed Onalta in June 2009 to BioMedica Life Sciences, S.A., for distribution in
certain countries in Europe, Middle East, North Africa, Russia and Turkey
-
BioMedica receives exclusive sub-license to intellectual property rights and know-
how
-
Onalta has Orphan Drug designation in EU
-
EMEA accepted MIPI’s Phase III protocol design and plan for EU development
MIPI retains all rights to all other markets, including the U.S., Japan, and Asia
BioMedica
Responsibilities
Conduct clinical studies
Market, distribute and commercialize Onalta
Secure all regulatory approvals
Will purchase from MIPI (for 5 years with a 5-year renewal option):
-
Finished product (including compassionate use)
-
Clinical trial supplies exclusively
Sub-licensing
Terms
Receives $4.4 million initial payment and is eligible for additional regulatory milestone
payments
Total pre-commercial milestones worth >$10 million (regulatory and upfront
payments, net of license payments)
MIPI eligible to receive milestone and tiered royalties on Onalta sales


43
Onalta –
Clinical Program Overview
Summary
Clinical Studies Performed
338 patients treated with 90Y-edotreotide
Administered
doses
ranged
from
1.8
32.6
GBq
Mean cumulative dose 13.8 GBq
Adverse effects minimized by:
Individualized dosing based upon dosimetry
Concomitant amino acid infusion
Monitoring renal function
Clinical Benefits
Study Type
Phase
Agent
# of
Subjects
Disease
PK & Safety
1
Y-86
24
Somatostatin-Receptor
Positive Malignant Tumors
PK & Safety
1
Y-86
42
Somatostatin-Receptor
Positive Malignant Tumors
Safety &
Efficacy
1
Y-90
60
(1)
Refractory Somatostatin
Receptor-Positive Tumors
Safety &
Efficacy
2
Y-90
168
Advanced Metastatic
Cancers
Safety &
Efficacy
2
Y-90
20
Pancreatic Endocrine
Tumors
Safety &
Efficacy
2
Y-90
90
Symptomatic Malignant
Carcinoid Tumors
(1) All patients enrolled in Study B151 previously participated in Studies 0101 or B102 .
Adverse Events
Most commonly observed adverse events are those
frequently found  in advanced cancer patients:
Nausea 74.9%
Fatigue 39.9%
Abdominal pain 21.9%
Dizziness 16.0%
Anorexia 13.9%
Vomiting 61.8%
Diarrhea 26.3%
Flushing 17.2%
Headache 15.7%
Majority (85%) of patients with refractory carcinoid
reported improvement in at least one symptom
Nearly half (49%) reported improvement in four or
more symptoms
Majority of patients (62%) with insulinoma achieved
normalization of insulin/glucose ratios
Half experienced decreased requirement for
somatostatin analog use


44
(1)  National Cancer Institute.
Solazed
Therapeutic for Malignant Metastatic Melanoma
Tumor Sites for Solazed
Indications
Overview
Targeted radiotherapeutic
for treatment
of malignant metastatic melanoma
Description
Ioflubenzamide
I 131
Mechanism
of Action
The drug selectively binds to melanin
that is found in high concentration in
melanoma cells and delivers a lethal
dose of radiation
Expected
Performance
Exhibits excellent dose response and
efficacy in a model of human melanoma
Exhibits favorable toxicity profile in
preclinical evaluations
Product
Status
Currently initiating Phase I clinical study
to confirm proof of concept in man
Market
Opportunity
The incidence of malignant melanoma
is the fastest growing of any cancer in
the US
(1)
Effective treatment still represents a
challenge to oncologists because
chemotherapeutic agents have limited
activity in the treatment of metastatic
melanoma


45
Solazed –
Points of Differentiation
Selective targeting of metastatic melanoma
Selective delivery of radiation to tumors
Highly effective in human models of melanoma
Minimal pharmacological toxicity of nonradioactive Solazed


46
Solazed –
Pre-Clinical Data
Time after initiation of treatment (days)
0
5
10
15
20
0
25
50
75
100
125
3 x dacarbazin
1 x Solazed
3 x Solazed +
3 x dacarbazin
saline
2 x Solazed
3 x Solazed


47
Zemiva –
Improved Cardiac Ischemia Imaging
Myocardium Metabolism
During Ischemic Event
Overview
Diagnostic product for the early
detection of ischemic myocardium via
SPECT imaging in conjunction with
early standard cardiac diagnostic data
Description
Iodofiltic acid I 123
Mechanism
of Action
Binds to fatty acid metabolizing tissue
rather than tissue undergoing glycolysis
Changes in fatty acid metabolism are
visualized for up to 30 hours following
the ischemic event
Expected
Performance
Utility in emergency department acute
setting
Improved sensitivity and specificity
Proven safe
More than 400,000 patients dosed
in Japan for over 10 years
Over 800 patients injected in MIP
clinical trials with no major drug
related adverse events
Single injection uses 1/10th
radiation dose vs. Cardiac CT
Product
Status
Molecule commercialized outside the
US
Phase III discussions ongoing with FDA


48
Zemiva –
Cardiac Ischemia
Detection and management of cardiac ischemia by imaging metabolic changes in the heart
in the emergency department acute setting
Cardiac tissue shifts from fatty-acid metabolism to glucose metabolism when ischemic
Healthy cardiac tissue accumulates Zemiva but ischemic tissue has significantly reduced
accumulation which appears as a defect on SPECT imaging
No additional stress event is necessary for imaging
Ischemic Heart
Insufficient oxygen supply (ischemia)
causes the heart to switch from fat to
carbohydrates as primary energy source
Non-Ischemic Heart
A healthy heart requires sufficient
oxygen supply to metabolize fat


49
Zemiva –
Imaging Capabilities
Angiogram
Zemiva SPECT Images
A large defect is observed with Zemiva in the lateral wall, consistent with the stenosis and the
potential culprit lesion seen in the left circumflex coronary artery in the angiogram


50
Zemiva –
Market Opportunity
3.5 Million Patients
Equivocal
Admitted for Observation
($6 billion in unnecessary
hospitalizations)
1.5 Million Patients
Ischemia Ruled Out
Discharged
(40,000 Missed
Heart Attacks)
1.0 Million Patients
Definitive Heart Attack
Admitted for
Intervention / Treatment
6 Million Patients Annually Admitted to Emergency Departments for Potential Heart Attacks
Cardiac
Ischemia / ACS
Life Saving
Non-Cardiac
Diagnosis
Cost Saving
Zemiva
Source: Advance Data From Vital & Health Statistics Number 386, June 2007, National Hospital Ambulatory Medical Care Survey: 2005
Emergency Dept. Summary by Eric Nawar, M.H.S.; Richard Niska, M.D., F.A.C.E.P.; and Jianmin Xu, M.S., Division of Health Care Statistics


51
Zemiva –
Points of Differentiation
Provides improved
visualization
that
leads
to
more
immediate
and
accurate
diagnosis
of
cardiac causes of chest pain compared to either rest sestamibi perfusion scans or stress
perfusion imaging tests
High negative predictive value (“NPV”) and sensitivity
Immediate readout available
Can detect ischemic event up to 30 hours after occurring
Zemiva imaging of FA metabolism may have advantages in the diagnosis of ACS compared
with existing techniques:
More rapid
and
sensitive
detection
of
ischemia
due
to
“Ischemic
Memory”
up
to
30
hours
after symptoms subside
Reduced radiation exposure
Eliminating need for stress
(1)  Source: Campbell Alliance Nov. 2009. Health Advances Nov.2005
Chest
X-Ray
Observation
Serial Enzymes
Admit to
Hospital
Serial
ECGs
Stress
Test
Perfusion
Imaging
Time: 86 Hours
Cost: $7,500
(1)
Zemiva
Imaging
Time: <1 Hour
Cost: $1,750 –
2,250
(1)
Current
Standard
of Care
Zemiva


52
Intellectual Property Overview
Azedra:
The
Company
has
in-licensed
patents
and
a
pending
application
from
The
University
of
Western
Ontario
that
relate
to
the
precursor
material,
a
process
of
preparing
the
precursor
material,
and
the
Ultratrace™
technology
used
to
produce
Azedra™
These patents are set to expire in October 2018
The
pending
US
application
in
the
family
has
recently
received
a
Notice
of
Allowance
Trofex:
The
Company
owns
patent
applications
related
to
the
composition
and
methods
of
use
for
MIP
1072
and
MIP
1095
but
no
application
has
been
granted
Should
any
rights
be
granted
in
these
applications,
they
would
expire
in
November
2027
Onalta:
The
Company
entered
into
a
license
agreements
with
Novartis
Pharma
AG
and
Mallinckrodt for Onalta
The
patents
for
Onalta
will
expire
between
November
2009
and
September
2017
Solazed:
The
Company
acquired
Solazed™
from
Bayer
Schering
Pharma
through
an
exclusive, worldwide license
Patent
term
for
this
family
expire
between
March
2024
and
March
2025
Zemiva:
The
Company
owns
patents
directed
to
specific
stereoisomers
of
Zemiva™
and
the use of these stereoisomers
as imaging agents
All
patents
in
this
family
are
set
to
expire
in
November
2016


Key Milestones and Offering Discussion


54
Recent Molecular Insight Milestones
Event
Timing
Clinical
Advances Azedra
into pivotal Phase II therapeutic trial
3Q 2009
Receives EMEA approval to proceed with Phase III trial of Onalta
2Q 2009
Releases
positive
Phase
II
exploratory
trial
results
for
Zemiva
(1)
1Q 2009
Corporate
Licenses Onalta for development to BioMedica
3Q 2009
Appoints Charles Abdalian to CFO and VP of Finance
3Q 2009
Appoints Daniel Peters to CEO and President
2Q 2009
(1) Although key secondary endpoints, including clinical benefit, were met, the initial analysis of the Phase 2 clinical trial primary endpoint did
not meet predetermined performance thresholds. The reported results reflected the subsequent analysis of a subset of the sample
population with sufficient objective evidence for evaluation of the diagnosis of cardiac ischemia or myocardial infarction. These results and
exclusion criteria were determined to be the appropriate conclusion of the Phase 2 program. The Company is currently in discussions with
the FDA on the design of the Phase 3 trial.


55
Upcoming Molecular Insight Milestones
Event
Timing
Clinical
Begin
Phase
III
Confirmatory
Trial
for
Onalta
in
EU
1H 2010
Complete
Phase
I
Clinical
and
Nonclinical
Trofex
Studies
1H 2010
Initiate Azedra
pivotal Phase II study in neuroblastoma
1H 2010
Submit Azedra
NDA for neuroblastoma
2011
Begin
Phase
III
Confirmatory
Trial
for
Azedra
for
neuroblastoma
1H 2011
Complete
Phase
III
Confirmatory
Trial
for
Onalta
in
EU
2H 2011
Receive Azedra NDA for neuroblastoma
2H 2011 / 1H 2012
Corporate
Oncology licensing deal with partner
1Q 2010
Raise additional capital
1Q 2010
License
development
of
Zemiva
to
partner
2010


56
Ownership and Capitalization
Proceeds
from
offering
to
fund
Azedra
and
Trofex
clinical development and enhance
the Company’s liquidity position
Concurrently pursuing modifications to key
covenants to the Senior Secured Floating
Rate Bonds
Liquidity and strategic validation to be
further enhanced by potential partnering
opportunities
Source: Capital IQ.
Ownership as of 6/30/09
Top 10 Holders
# of Shares (MM)
% Out
Cerberus Capital Management, L.P.
3.7
14.8%
Barlow, David S.
2.7
10.7%
Savitr
Capital, LLC
2.1
8.4%
Poitras, James
1.3
5.2%
Clough Capital Partners, L.P.
0.8
3.2%
Barclays Global Investors UK Holdings
0.6
2.2%
Perennial Investors, LLC
0.5
1.9%
U Capital Group LP
0.5
1.8%
Dimensional Fund Advisors LP
0.4
1.6%
QVT Financial LP
0.4
1.4%
Total Top 10
12.9
51.3%
Total Other
12.3
48.7%
Total Shares
25.2
100.0%
Capitalization as of 11/20/09
(Amounts in millions, except per share data)
Share Price (11/20/09)
$4.23
Total Diluted Shares Outstanding
25.2
Equity Value
$106.6
Plus Debt (Face Value)
150.0
Plus: PIK Interest
28.7
Less: Cash and Cash Equivalents
(71.8)
Total Eneterprise
Value
$213.5


57
Investment Highlights
Pioneer in the emerging field of molecular medicine
Five
clinical-stage
candidates
addressing
seven
indications
with
significant
unmet
patient
needs with no visible potentially competing products in development
Significant
near-term
partnering
opportunities
in
oncology
and
cardiology;
one
completed partnership (Onalta), one in late stage negotiations, and one targeted for out
licensing (Zemiva)
Clinical
risk
for
certain
products
reduced
through
established
history
of
use
outside
the
United States
Ultratrace™
is a proprietary radiolabeling
technology
Key clinical and corporate milestones within two years
Highly
experienced
management
team
with
history
of
success
and
value
creation
Near
term
value
drivers
have
the
potential
to
provide
significant
lift
in
equity
value
Partnerships with pharma
companies validate the science / market opportunity
Elimination
of
default
risk
on
the
Notes
via
this
fund
raise
and
anticipated
covenant
relief by bondholders suggests significant near term equity value recovery


58
Investment Highlights (continued)
Commitment of Cerberus and other existing investors to participate in current fund
raise provides validation of products and strategy
Business
development
opportunities
are
anticipated
to
supply
a
significant
portion
of
the
needed cash for further advancement of the confirmation of the science and targeted drugs
Product value strategy can be broken into three categories:
Azedra
value is expected to more than “defease”
the total accreted bond value
Zemiva
value may fund other development via the off licensing of the only cardio product
Trofex
is
expected
to
provide
significant
upside
equity
value
as
both
an
imaging
and
therapeutic product
Others (Onalta
and Solazed) are bonus points