DYDD Member: Date of Recommendation: Company Name: Ticker: Last Closing Price: My Cost Basis Disclosure: Market Cap: Euro/Dollar-Ratio: ST Target (3 to 6 months): LT Target Price (1 to 2 years): Risk (High, Medium or Low): Company website: [Sheepshead and Gulliver] [9/30/2005] [Cytori Therapeutics] [XMP.F or CYTDF.PK] €4.23 / $5.28 €2.8 / $3.5 €76 million/$95 million 1.25 $12.00 – $20.00 $ 25.00 upwards [medium] www.cytoritx.com Cytori Therapeutics -The future leader in Regenerative MedicineIntroduction: Cytori Therapeutics formerly known as MacroPore Biosurgery had its IPO on the German “Neuer Markt” (Translation: “New Market” – Equivalent of US-Small Cap NASDAQ) in September 2000. Having started with an offering price of 15 € per stock the company delighted shareholders with a compound return of -82% or 17% per annum until may 2005. The Amex Biotech Index as benchmark lost 24% or 6% per annum during the same period. For the initial shareholders, who hung on to their holdings, a disastrous performance indeed!!! But the company issued a very unusual press release on May 2nd, which led some curious investors to dig a little bit deeper into the recent operational accomplishments of Cytori Therapeutics. The release stated the following: San Diego, CA, May 2, 2005 - MacroPore Biosurgery, Inc. (Frankfurt: XMP) today announced it has signed a definitive agreement to raise $11.0 million from the sale of 1.1 million shares of common stock at $10.00 per share. The transaction will be completed on or before May 31, 2005. As part of the agreement, the investor has been granted an option that expires December 31, 2006 to purchase an additional 2.2 million shares of common stock at $10.00 per share. During the same timeframe retail investors were able to buy that stock for €2.20/$2,75 on the open market in Germany. What the hell led an anonymous wealthy idiot to sign an equity placement with a lousy little biotech startup and let him pay a stock price premium of 260%? On May the 18th a second exceptional press release followed: San Diego, CA, May 18, 2005 - MacroPore Biosurgery, Inc. (Frankfurt: XMP) today announced its Board of Directors has amended the Company's Stockholder Rights Plan, which was adopted in 2003. This Amendment allows Neil Gagnon (including Gagnon Securities LLC) to beneficially own up to 20 percent of the outstanding shares of the Company's Common Stock, before triggering the protective rights of the Plan. All other provisions of the Plan remain unmodified and in full force and effect. A copy of the Amendment to the Company's Stockholder Rights Plan has been filed with the US Securities and Exchange Commission. MacroPore Biosurgery notes that the permission granted to Neil Gagnon by this Amendment is unrelated to the Company's announcement of its $11.0 million equity placement agreement. Adopted in 2003, the company’s stockholder rights plan prevented every single investor or group to beneficially own more than 15% of the company’s common stock. If so, the stockholder rights plan gave every other investor an additional share for each stock held in order to prevent a hostile take over. For what reason would the well known Wall Street veteran and Life Science investment specialist Neill Gagnon want to acquire 2.215 million shares of the company and convince their board to modify the stockholder rights plan to be able to increase his stake? Having made a fortune with investments in companies like LifeCell or Kensey Nash, Gagnon often has demonstrated his foresight for emerging and successful start ups. On June the 5th, a short, unspectacular notice, obligated by law for having acquired more than 5% of the outstanding stock of a company, was published in the German “Boersenzeitung”. This notice unveiled that the anonymous idiot equity investor who was willing to pay a 260% stock price premium is based in Asia - the diversified Japanese digital camera and telescope giant Olympus Corp. During their latest conference call, on August 15, management stated that they had applied for Listing on the NASDAQ Small Cap market. Reasons enough to have a closer look at this company! Company Overview Having its headquarters (and sole operations) in San Diego, California, MacroPore Biosurgery, Inc. (MacroPore) was initially formed as a California general partnership in July 1996, and incorporated in the State of Delaware in May 1997. The company was founded to develop and manufacture bio-resorbable orthopaedic implants. The products are used to maintain the relative position of weak bony tissue or bone grafts in reconstructive orthopaedic procedures. Indications for use include cement restriction in hip arthroplasty, acetabular reconstruction, reconstructive orthopaedic procedures involving tumour resections, and trauma procedures involving hard tissue (bone) in conjunction with traditional rigid fixation. In September 2000 Cytori went public with an IPO on the German “Neuer Markt” for €15/$18.75 a share, which allowed them to collect over 70 million $. Although being an US firm the company chose the German market to list their stock, because of the fact they had a German founding member, a German CFO and because of the attractive valuation multiples, which investors were willing to pay during the tech bubble in Germany in 2000. An important strategic decision was made in October 2002, when MacroPore acquired the stem cell company StemSource for 10 million $. StemSource has been founded by Marc Hedrick. He is the current Chief Scientific Officer of Cytori Therapeutics and Associate Professor of Surgery and Pediatrics at the University of California, Los Angeles (UCLA). StemSource and UCLA jointly invented a medical device to abstract stem cells derived from adipose, also known as fat tissue. Since 2002 most of the companies research and development costs are spend for their stem cell business unit. The transition of the company from a medical device outfit to a stem cell specialist is documented by the recent name change from “Macropore Biosurgery” to “Cytori Therapeutics” in August. Excursion Before we can go into more detail about the company’s scientific approach, we first have to learn a little bit about the basics of the technology. What is the magic behind stem cells? Because of having more economical then scientific know-how, the best approach is to provide a short abstract from wikipedia.com: Stem cells are primal undifferentiated cells, which retain the ability to differentiate into other cell types. This ability allows them to act as a repair system for the body, replenishing other cells as long as the organism is alive. Medical researchers believe stem cell research, also called regenerative medicine, has the potential to change the fate of human diseases by being used to repair specific tissues or even to grow organs. Still, as government reports point out, "significant technical hurdles remain that will only be overcome through years of intensive research. The study of stem cells dates as far back as to the beginning of the 60´s. Types of stem cells Stem cells are categorized by potency which describes the specialty of that cell. Totipotent stem cells are produced from the fusion of an egg and sperm cell. Cells produced by the first few divisions of the fertilized egg cell are also totipotent. These cells can grow into any cell type without exception. Individuals can grow out of each of these cells Pluripotent stem cells are the descendants of totipotent cells and can grow into any cell type except for totipotent stem cells. Multipotent stem cells can produce only cells of a closely related family of cells (e.g. blood cells such as red blood cells, white blood cells and platelets). Progenitor (sometimes called unipotent) cells can produce only one cell type; but, have the property of self-renewal which distinguishes them from non-stem cells. What are the sources of stem cells? Embryonic stem cells are cultured pluripotent cells obtained from the undifferentiated inner mass cells of a blastocyst, an early stage embryo that contains 50 to 150 cells. Recently it has been shown that embryonic stem cells can also develop into egg cells and sperm. Research with embryonic stem cells derived from humans is controversial because, in order to start a stem cell 'line' or lineage, it requires the destruction of a blastocyst, which some people believe to be a human being. Adult stem cells are undifferentiated cells found among differentiated cells of a specific tissue and are mainly multipotent cells. While embryonic stem cells only exist during the early stage embryo, adult stem cells are available in the human organism the whole lifecycle long. These cells differentiate into new specialised cells the whole time. They are already being used in treatments for over one hundred diseases and conditions. They are more accurately called somatic (Greek σωμα sōma = body) stem cells, because they need not come from adults but can also come from children or umbilical cords. What are the most common abstraction techniques? Cord blood stem cells: Blood from the placenta and umbilical cord that are left over after birth is one source of adult stem cells. Since 1988 these cord blood stem cells have been used to treat Gunther's disease, Hunter syndrome, Hurler syndrome, Acute lymphocytic leukaemia and many more problems occurring mostly in children. It is collected by removing the umbilical cord, cleansing it and withdrawing blood from the umbilical vein. This blood is then immediately analyzed for infectious agents and the tissue-type is determined. The cord blood is processed and depleted of red blood cells before being stored in liquid nitrogen for later use, at which point it is thawed, washed of the cryoprotectant, and injected through a vein of the patient. Bone marrow stem cells: Bone marrow stromal stem cells are thought to be able to transform into liver, nerve, muscle, hair follicle and kidney cells. Although there is some evidence that this type of trans-differentiation can occur, many scientists are sceptical of these claims and we are still learning about such trans-differentiated cells. Adipose derived adult stem (ADAS) cells: Adipose derived adult stem cells have also been isolated from fat, e.g. from liposuction. This source of cells seems to be similar in many ways to mesenchymal stem cells (MSCs) derived from bone marrow, except that it is possible to isolate many more cells from fat. These cells have been shown to differentiate into bone, fat, muscle, cartilage, and neurons. Olfactory stem cells: Adult stem cells isolated from the olfactory mucosa (cells lining the inside of the nose involved in the sense of smell) have the ability to develop into many different cell types if they are given the right chemical environment. These adult olfactory stem cells appear to have the same ability as embryonic stem cells in giving rise to many different cell types but have the advantage that they can be obtained from all individuals, even older people who might be most in need to stem cell therapies. Adult olfactory stem cells are readily obtained from the nose and relatively easy to grow and multiply in the lab. In a few weeks one can make plenty of cells for transplantation. Policy debate in the U.S In 1995, Congress passed the Dickey Amendment, prohibiting federal funding of research that involves the use of a human embryo. Privately funded research led to the breakthrough that made embryonic stem cell research possible in 1998, prompting the Clinton Administration to develop federal regulations for its funding. Preparations for this funding were completed in 2001. President George W. Bush announced, on August 11, 2001 that federal funds could be used to support research on the newly developed field of human embryonic stem cells, but that funding would be limited to "existing (embryonic) stem cell lines where the 'life-and-death decision' has already been made". This limitation does not apply to research involving stem cells from other sources, such as umbilical cord blood, placentas, and adult and animal tissues. Some conservative religious groups felt the restrictions should have been stronger, while many scientists felt frustrated with the restrictions. In April 2004, 206 members of Congress, including many moderate Republicans, signed a letter urging President Bush to expand federal funding of embryonic stem cell research beyond what Bush had already supported. In May 2005, the House of Representatives voted 238-194 to loosen the limitations on embryonic stem-cell research — by allowing surplus frozen embryos from in vitro fertilization clinics to be used for stem cell research with the permission of donors — despite Bush's promise to veto the bill if passed. Similar measures are pending in the Senate. On July 29, 2005, Senate Majority Leader William H. Frist, announced that he too favored loosening restrictions on federal funding of embryonic stem-cell research, making passage of an embryonic stem-cell funding bill in the Senate more likely. Emerging U.S. Funding Initiatives California voters in November 2004 approved Proposition 71, creating a US$3 billion state taxpayer-funded institute for stem cell research, the California Institute for Regenerative Medicine. Providing $300 million a year, the institute is thought to be the world's largest single backer of research in stem cells, and is expected to substantially increase the pace of embryonic stem cell research. Several states, in some cases wary of a national migration of biotech researchers to California, have shown interest in providing their own funding support of embryonic and adult stem cell research. These states include Connecticut, Florida, Illinois, Massachusetts , New Hampshire, New Jersey, New York, Pennsylvania, Texas, Washington, and Wisconsin. Other states have, or have shown interest in, additional restrictions or even complete bans on embryonic stem cell research. These states include Arkansas, Iowa, Kansas, Louisiana, Michigan, Missouri, Nebraska, North Dakota, South Dakota, and Virginia. (Source: “States play catch-up on stem cells”, USA Today, December 2004) For further researches please take look at the following websites which offer an excerpt of the daily news in the stem cell sector: www.hypeandhope.com, www.stemnews.com The superior attributes of adipose derived stem cells in comparison to common sources In respect of the non-controversial adult stem cells, scientists have researched their potential now for almost 40 years. Most of the research however, has been conducted with bone marrow stem cells (MSC´s) . In this respect the name Arnold Caplan of Case Western University is very well known and regarded by many as the “Godfather” of adult stem cell research. Caplan was also one of the founders of Osiris Inc, a privately held company, with has started several clinical studies using cultured MSC´s. An example of a publicly listed company using cultured bone marrow stem cells is Aastrom Biosciences Inc Market Cap approx. 250 Mio $. The research on adipose derived stem cells (ADAS) is however, a rather recently discovered development. Research was mainly concentrated at the University of Pittsburgh and UCLA, from which in 2002 the research papers originated, which showed that ADAS cells have at least the same “potency” in all critical areas as the better known MSC´s. So, a very “young” technology for which Cytori, however has sole world wide filed “extraction” patents and licences, which is different compared to MSC´s, where the intellectual property is not protected by patents. At the last conference call by the company, the CEO stated very assured and confidently, that the cells from fat are superior to all other adult stem cells derived from presently known sources, yes, even superior to embryonic stem cells. Is he bluffing? Or simply slightly overdosed by fat cells put into his brain? Most likely not, since the whole management team consists of highly reputable scientists. The scientific advisor is even the Chair of the Cardiovascular Research Institute at Harvard Medical School, Kenneth W. Chien, also advisor at Genentech and Roche. These guys do not bluff or play poker, except for maybe occasionally in their rare spare time. Adipose, also known as fat tissue is the richest and most accessible known source of stem cells. It contains a specialized class of stem cells comprised of multiple cell types that promote healing and repair. Adipose stem cells have been shown to differentiate into multiple cell types, including muscle cells (heart, smooth and skeletal) bone, fat, cartilage and nerve. Beyond differentiation, regenerative cells may provide therapeutic benefit through the release of growth factors and other therapeutic healing mechanisms. The major advantages of adipose tissue as a source of regenerative cells, which distinguish it from alternative cell sources, include: + Ethics: No embryonic stem cells are needed + Yield: A therapeutic dose of regenerative cells can be isolated in approximately one hour without cell culture + Safety: Patients receive their own cells (autologous-use) so there is no risk of immune rejection or disease transmission + Versatility: Stem cells from adipose tissue impart benefit from multiple mechanisms-ofaction Although the common media definitely is insufficiently informed about the superiority of fat tissue as source for adult stem cells, a growing community of medical scientists have already acknowledged that fact and several studies and clinical trials are ongoing towards ADAS in tissue engineering. Since 2002 these initiatives are supported by an organisation (The International Fat Applied Technology Society (IFATS), a 501 (c) (3) non-profit organization) which tries to promote recent ADPS recovery on its official conferences once a year. This year’s conference was held in Charlottesville and took place between September 10 th and 13th. (www.ifats.org) Cytori´s unique technological approach In association with the UCLA, Cytori has developed a medical device which supports the common doctor by absorbing stem cells from adipose derived tissue. To facilitate processing and delivery of adipose stem cells, Cytori is developing its proprietary Celution™ system to isolate and concentrate a patient's own stem cells in approximately a one-hour period of time. This system will dramatically improve the speed in which personalized, cell-based therapies can be delivered to patients. The Celution™ System is being designed to automate the proprietary process and methods for extracting and purifying a high yield of stem cells. Cytori's goal is to introduce the first system that can enable real-time, cellular therapy at the bedside. The process in which the patient's cells are extracted, processed and delivered is diagrammed below. On August 11th, the company reported that the development of the Celution system has been finished. See Announcement below. During the second half of the year they also intend to file additional 501K applications with the FDA to ensure approval for use in clinical trials later in 2006 in the USA. San Diego, CA, August 11, 2005 - Cytori Therapeutics, Inc. (Frankfurt: XMP), today announced it has completed the development of its Celution™ System for the isolation and concentration of adipose stem cells and will submit CE Mark application seeking approval for the system in Europe. Current Therapies under development using Cytori Technology The CelutionTM medical device has been developed to be the “hardware” used by clinics and surgeons for a variety of indications and therapies. Extraction and purification of adipose cells from fat, harvested through liposuction, is designed to be performed through disposables prepared for a specific therapy i.e. being the “software” for the system. Pre-clinical research by Cytori and liaised universities has mainly focussed on its “assumed blockbuster” cardiovascular disease therapy after acute myocardial infarction. The company has performed several pre-clinical studies on small animals (mice) and has reported extremely encouraging results, which at the present time are being presented at different Industry Conferences. Earlier in 2005 Tulane University (Prof. Eckhard Alt) and UCLA (MD PhD Rob McLellan) reported independently, similar exciting results on improved heart function after induced infarct at large animals (Swine) and treatment with adipose cells. As described before, clinical trials are anticipated starting early 2006 in Europe (where the experience with stem cell trials is somewhat more advanced), followed by the US later in the year. Cytori intends to develop the therapy on its own (at least until the “blockbuster” value is recognized by the market), but is opting for the partnership strategy for all other potential applications. Another important therapy field is the spine- and orthopaedic area, where the fit to the activities of main shareholder Olympus is very obvious. In the current year the first partnership deal is scheduled to be announced, of which the financial considerations will be very important in the judgment of the value of the proprietary Cytori technology. Other research went mainly into the cosmetic- and reconstructive surgery arena, however due to the versatility of adipose stem cells, the known indications other stem cell companies are targeting such as liver, nerve system etc are likely to become subject of therapeutic development depending the success of the present therapies being developed and adding partners. Additionally there are several medical institutions which pursue their stem cell trials with Cytori´s core technology. The underlying table sums up some of their recent accomplishments: Clinical Applications Wound healing (Crohn´s fistula repair) Country Spain Bone repair (Cranio-Maxillofacial Surgery (2004) Germany Breast augmentation Japan Status Ongoing: Phase 2B (50 Patients) Completed case study: cells healed skull defect in seven year old girl that was unresponsive to conventional treatments Ongoing: Physician-initiated clinical study The Competitors Companies with advanced research and development programs for regenerative treatments of cardiovascular disease include Baxter, BioHeart, Genvec, MG Biotherapeutics, Osiris, and ViaCell. A Phase I study has been initiated at St. Elizabeth’s Medical Centre in Boston using stem cells extracted from peripheral blood as an investigational treatment for myocardial ischemia. BioHeart is currently recruiting patients in the United States for a Phase I clinical study on the investigational product MyoHeart TM, an autologous, skeletal myoblast cell therapy for heart disorders, which is delivered via a percutaneous catheter system. BioHeart is also conducting a Phase II trial in Europe evaluating MyoHeart™ for congestive heart failure. Using similar technology, Genvec has completed a Phase I trial using skeletal myoblasts, and MG Biotherapeutics is currently recruiting 200 patients in the United States and Europe for a Phase II study with their investigational, autologous skeletal myoblast cell therapy for transplantation into the heart during bypass surgery. Osiris Therapeutics, Inc. is planning to begin Phase I clinical trials in early 2006 for Provacel TM, an investigational, allogenenic, adult, mesenchymal (bone-marrow-derived) stem cell therapy for acute myocardial infarction. ViaCell, Inc. is currently in pre clinical development for cardiac disease dealing with congestive heart failure and myocardial infarction. Cytori´s main competitive advantage Cytori´s main competitive advantage is based on its use of adipose derived tissue. As stated before ADAS cells can be extracted via liposuction and processing in Celution in about one hour. The number of cells obtained represents an adequate therapeutic dose to conduct every kind of Tissue Engineering. So no further cell culture is needed. A statement of Mark H. Hedrick, the companies Chief Scientific Officer outlines this fact: Cell culture is a process whereby cells are grown for a period of at least two days to three weeks in a laboratory to obtain therapeutic quantities. Every time a cell divides there is a risk that the DNA is imperfectly copied into the daughter cells; specifically of a mutation. The more cell divisions there are the greater the risk. As these mutations accumulate there is a chance of malignancy or other problem. The US Food and Drug Administration recognizes this risk and includes the process of cell culture as being “more than minimal manipulation”. Specifically, in a document entitled “Proposed Approach to Regulation of Cellular and Tissue-Based Products” dated February 28, 1997 the FDA stated that: “Examples of more-than-minimal manipulation of cells and tissues include cell expansion*, encapsulation, activation, or genetic modification.” *In this context it is recognized that expansion is defined as the process of cell culture applied to increase (expand) cell number. This interpretation is confirmed by other FDA documents including that cited below. Thus, in the Federal Register of January 19, 2001 (Vol. 66) it states that “We do not agree that the expansion of mesenchymal cells in culture or the uses of growth factors to expand umbilical cord blood stem cells are minimal manipulation.” Thus, the FDA recognizes that cell populations that have been cultured are different and accordingly regulates such populations differently. Our cells are not cultured Secondly, the process of cell culture requires the application of Good Manufacturing Processes and expensive, highly purified reagents to ensure that the cell output is not contaminated by infectious agents or animal products that could cause an immune or allergic reaction. This is a very costly process which is avoided by avoiding cell culture. The therapeutic cells that we are developing contain cells with the ability to differentiate into multiple cell types (stem cells), cells that make growth factors that stimulate the growth of blood vessels (for example VEGF and Placental Growth Factor) and the survival and growth of injured cells (for example HGF), and cells that can form blood vessels. Each of these capacities has been independently demonstrated in published studies. (Mark H. Hedrick) The above fact, that the extracted cells are non cultured and non-manipulated autologous (own body) cells, most likely will have an impact on the approval process required by the FDA. All main competitors like Osiris, Aastrom Biosciences and StemCells are in the process of entering- or have entered clinical phases in accordance with the common IND – standard (Investigational New Drug) for FDA approval of their products. This approval process normally requires a time line which varies from 5 to 10 years depending on many variables and of course positive results. Cytori will however, most likely, be allowed by the FDA to achieve commercialisation of their therapies according to the FDA rules and regulations surrounding medical devices. The Celution system and its disposables carrying the compounds, which extract the required autologous cells, can be approved trough the 510k procedure and gain the status of IDE (Investigational Device Exemption). Normally this is clinical process, which requires 2-3 years and supports the company’s view that Cytori will come to the market with their main cardiovascular therapy, at least 2-3 years ahead of the competition. Business Unit Bio-resorbable Products Originally started as a medical device company, Cytori built up tremendous experience concerning the regulation process with its bio-resorbable products. Since 1997 Cytori´s team developed 3 bio-material product lines comprised of more than 800 individual products and 50 regulatory approvals and clearances worldwide. This has resulted in ownership or rights to 14 issued patents and more than 120 pending domestic and international patents. The name change from MacroPore Biosurgery to Cytori in July 2005 emphasised the changed focus of the entity on the development of cell therapies, however the bio-resorbable business, which now operates under the name MacroPore as a Division of Cytori, also has developed some real cutting-edge technological products. What is the function of bio-resorbable products? Bioresorbable polymer implants are made from essentially the same lactic acid molecular building blocks that occur naturally in the human body. (Lactic acid is produced in the muscle during strenuous activity.) Long molecular polymer chains are created by combining lactic acid derivatives known as lactides. The resulting polymers are generally referred to as polylactides or PLa. MacroPore Biosurgery implants, used for hard tissue (bone) and soft tissue applications are made from Poly-lactide: a copolymer of 70:30 Poly (L-lactide-co-D, L-lactide). Bioresorbable implants are used as containment implants that are both biologically and biomechanically active, for spinal fusion and spine graft fixation, as well as other applications for treating diseases, deformities or trauma of the musculo-skeletal system. How are bio-resorbable implants absorbed by the body? The copolymer maintains its strength during the healing process and through hydrolysis slowly breaks down into lactic acid molecules. The re-sorption process occurs in two phases: (1) H2O (water) penetrates the implant, reacts with the polymer and breaks the polymer chains (hydrolysis); (2) hydrolysis converts the long chains into shorter chains until the polymer fragments into single lactic acid molecules. Lactic acid molecules are then metabolized by the liver into CO2 and H2O and released through the lungs. Cytori´s Product Lines Two of the three developed product lines have been sold to third parties, in order to be able to fund the stem cell business unit without diluting current shareholders. In 2002 the company sold their CMF product line (bio-resorbable bone fixation implants for the face and skull, and associated instruments and accessories) to sales & marketing partner Medtronic. For almost the same amount Cytori sold its SurgiWrap product line (bio-resorbable product for soft tissue indications) to Mast Biosurgery AG. The only remaining product line is Hydrosorb. The HYDROSORB™ family consists of five unique surgical devices for spine and orthopedic applications. HYDROSORB™ implants provide the early and intermediate stability required for healing, but without the potential long-term complications of metal, such as stress shielding or migration. They are also the first bioresorbable alternative to allograft cadaver bone implants, offering safe and predictable performance, while eliminating the disadvantages of disease transmission and unreliable supply issues. The HYDROSORB™ Boomerang Ò , HYDROSORB™ Cornerstone™ HSR, HYDROSORB™ Mesh and HYDROSORB™ Telamon® products have received FDA clearance in the United States for certain graft containment applications, and have received the CE Mark in Europe Illustrations depict MacroPore OS Spine™ 1 for spinal inter-body fusion procedures. The HYDROSORB™ Spine System has received FDA clearance in the United States for use in spinal fusion procedures, in conjunction with traditional rigid fixation, as a means to maintain the relative position of weak bony tissue such as autografts. The HYDROSORB™ Shield has received FDA clearance in the United States for minimizing the attachment of soft tissue, and has received the CE Mark in Europe for the control of post-operative adhesions in spine surgery. As stated above, Hydrosorb products are exclusively marketed through Medtronic. Both companies signed an extension of the distribution agreement in 2002 which contains a supply contract until 2012 and a “first right of marketing” clause to Medtronic for all of Cytori´s products up to 2006. Medtronic has a stake in Cytori, holding 1 million shares of Cytori´s stock, which represents 5.5% of outstanding shares. Hydrosorb revenue growth has been pretty disappointing so far. Below is a summary of the quarterly revenue development: Q1 2003 Q2 2003 Q3 2003 Q4 2003 Q1 2004 Q2 2004 Q3 2004 Q4 2004 Q1 2005 Q2 2005 991K 1.967K 3.483K 3.441K 1.652K 887K 298K 966K 1.755K 1.541K As the table indicates there has been a significant slow down of Hydrosorb sales in 2004 after initial stock build-up by Medtronic in the second half of 2003. In fact the relationship between both companies has been very icy during that time. Cytori had market indications, that the product was very well received by the medical community and blamed Medtronic of doing a bad marketing job. But as quarterly revenue is growing again somewhat the stressed relationship is easing slightly. However, product sales from first half of 2005 are also based on stocking orders by Medtronic for the new product Mystique. As CFO Saad indicated in a recent phone call Medtronic is pretty enthusiastic about Mystique, which is quite a change from their apparent attitude towards Hydrosorb. The Mystique The MYSTIQUE Plate is made of HYDROSORB® PLDLA co-polymer. This co-polymer consists of 70 percent Poly (L-lactide) and 30 percent Poly (D, L-lactide). More than 10 years of clinical experience and research have shown that implants manufactured from PLDLA materials provide clinicians with a higher level of surgical versatility. The MYSTIQUE Resorbable Graft Containment Plate received U.S. Food and Drug Administration clearance in July 2004, for non-load bearing indications using additional rigid fixation. The MYSTIQUE Plate is the first implant of its kind for spinal surgery. When surgery is needed to alleviate nerve or spinal cord compression, a surgeon may perform a procedure called an anterior cervical discectomy and fusion. In this procedure the surgeon makes a small incision in the front of the neck to reach the cervical spine. The disc is removed and the space is filled with bone graft. The MYSTIQUE plate is used for stabilizing the weak bony tissue around the fusion, preventing bone graft dislodgement and facilitating healing. The new plate is flexible and made of material that dissolves in the body within 18 to 36 months after implantation. Nearly 200,000 cervical spinal fusions are performed each year to treat degenerative disc disease. Degenerative disc disease, which affects approximately half of the population age 40 and older, can cause a variety of symptoms, including back or neck pain, nerve root pathology and spinal cord compression. Spinal fusion, a surgery commonly used to treat degenerative disc disease after conservative treatments have failed, stabilizes the vertebrae to eliminate the pain caused by a degenerated disc. The plate's transparent nature allows doctors to visualize the spine during surgery and can improve the reading of postoperative X-rays. The plate can also be contoured to better match the patient's unique anatomy before insertion. Medtronic introduced the product into the market in August this year and holds an approx. 50% market share in spinal fusions. For this reason Cytori management is also “muted” enthusiastic for the current prospects of the product line. Competition Bio-resorbable Products The spinal- and orthopaedic field of medicine is presently still dominated by autograft- (own) and allograft (cadaver) materials, whereby the fixation products are often made of metal (titanium) having the disadvantage of requiring additional surgery for removal from the body after a period of time. Synthetic products are on the move and gaining market share, but presently are only at 15-20%. Innovative products are only slowly accepted by the conservative market, dominated by Stryker, Zimmer, Medtronic and others, requiring many years of clinical experience. Long term commercial “relations” often also play a role, as indicated by the recent SEC probe in this business. Management In spite of being a relatively small enterprise with round about 120 employees Cytori has always been able to hire very talented and knowledgeable individuals and some very experienced business angels. Here are the most important ones: Christopher J. Calhoun, Chief Executive Officer: Christopher J. Calhoun is a co-founder of Cytori Therapeutics and has served as the Company's Chief Executive Officer, Vice-Chairman and Director of the Board since 1997 and as President from April 2002 to May 2004. Additionally, Mr. Calhoun previously served as the Company's President from 1996 through 1998. Mr. Calhoun is also the co-inventor on multiple U.S. and International patents used for the Company's bio-resorbable implant technology. Mr. Calhoun received a B.A. from the University of California, San Diego and an M.B.A. from the University of Phoenix. Marc H Hedrick, MD, President and Chief Scientific Officer: Dr. Marc H. Hedrick was appointed President in May 2004. Dr. Hedrick joined Cytori Therapeutics as Chief Scientific Officer, Medical Director and Director in October 2002. Previously, Dr. Hedrick co-founded, and served as President and Chief Executive Officer of StemSource, Inc., a company specializing in stem cell bioengineering, research and technology. Dr. Hedrick is a plastic surgeon, and an Associate Professor of Surgery and Pediatrics at the University of California, Los Angeles (UCLA). Since 1998, he has directed the Laboratory of Regenerative Bioengineering and Repair for the Department of Surgery at UCLA. Dr. Hedrick obtained his M.D. degree from the University of Texas Southwestern Medical School, Dallas. Mark E. Saad, Chief Financial Officer: Mark E. Saad joined Cytori Therapeutics as Chief Financial Officer in June 2004. Previously, Mr. Saad served as Chief Operating Officer of UBS, Healthcare Investment Banking, New York, where he was responsible for global investment banking operations. Upon joining UBS, Mr. Saad served as Director/Executive Director covering life sciences sectors - biotechnology and medical devices. Mr. Saad held a significant role in building the UBS franchise to become the largest healthcare group on Wall Street. Prior to joining UBS, Mr. Saad held the position of Financial Analyst/Associate with Salomon, Smith Barney, Healthcare Investment Banking, New York, where he managed public and private transactions. Mr. Saad holds a B.A. from Villanova University, Philadelphia, PA. Additionally the company impressively demonstrated their will to speed up their clinical developments by adding 3 experienced executives to their management team during the last 6 months: Dr. Kai Pinkernell, a cardiologist and stem cell scientist, has been named to the position of Director of Clinical Applications. Dr. Douglas Arms, was named Vice President of Product Development for Regenerative Cell Technology and brings 8 years experience from InterPore/Biomet developing sophisticated cell processors and disposable products. Dr. Alex Milstein has been awarded to the position of Vice President of Clinical Development. Dr. Milstein spent the past 5 years at Medtronic and Guidant in development and execution of clinical strategies for cardiovascular products primarily focused on drug and device combinations. And last but certainly not least, the appointment of an important Scientific Advisor: The Company also announced the appointment of Kenneth R. Chien, M.D., Ph.D., as a scientific advisor. Dr. Chien is the Charles R. Sanders Endowed Chair in Medicine, at Harvard Medical School, and Director, Massachusetts General Hospital Cardiovascular Research Institute. Dr. Chien serves as a Board member of the Pasarow Medical Foundation, and as an advisor to multiple biotechnology/pharmaceutical companies including Genentech and F. Hoffman-LaRoche. Due Diligence: Business Modell Neil Gagnon, owner of Gagnon Securities, said not too long ago, “Cytori is the only practical stem cell company that I know”. We think, that this is really the case. The Celution system as the base hardware of the system with the different extraction disposables for different therapies, appear a most practical- and efficient business platform for the future. Most likely this will be like a razor- razorblade approach, whereby Celution (the razor) is heavily subsidized or brought for free into the clinics and the therapy disposables (razorblades) are sold at “market” depending on usage by the clinic. As an example, Cytori has indicated that the extraction of cells to be used for the cardiovascular therapy will be sold for $5.000 per therapeutic dose. Take that as market value of the therapy (there is presently no therapy for repair of the heart muscle anywhere, i.e. no guideline) and knowing that of the 1 Million Americans, who suffer a heart attack annually, approx. 390.000 require some sort of repair of the heart muscle, one is looking at a potential market of approx. 2 Billion $, which most likely will be entered first by Cytori. Schumpeter economic theory re-visited. The other therapies to be developed with partners (Olympus, Baxter?) look similarly promising in respect of the potential and timeline, although not as “blockbuster” like as the heart therapy. If one compares Cytori with its peers (to which it is extremely undervalued – see later), it should also be noted that the bio-resorbable business is kind of a freebee on top of it. Highly attractive in our opinion. Financial Reporting First of all, it has to be said that the quality of Cytori´s financial reporting is very high. Especially quarterly- and annual reports are extensive and transparently written, so that every investor, who is interested in gaining further information about historic company developments, accounting standards and competitive developments etc. is well informed. Presently they are also compliant to the Sarbanes-Oxley Act, which even many S&P companies only fulfilled very recently. Enclosed is a summarized balance sheet as of 6/30/2005: (in thousands) Assets Liabilities & Stockholders´ Equity cash & cash equivalents short-term investments available-forsale Accounts receivable Inventories Other current assets Total current assets Property and equipment Other assets Intangibles Goodwill Long term Assets Total assets 3.076 Accounts payable and accrued expenses 2.489 11.746 491 532 901 16.746 2.900 393 1.987 4.387 9.667 26.413 Current portion of long term obligations Total current liabilities Long-term liabilities Total liabilities Preferred & common stock Additional paid in-capital Accumulated deficit Treasury stock, at cost Several Positions Total stockholders´ equity Total liabilities & stockholders´ equity 773 3.262 17.109 20.371 18 77.817 -61.361 -10.414 36 6.042 26.413 Outlook 2005 Cytori´s fixed cost block will probably be in the range of 24-25 Mio $ in 2005 (120 employees), covering all GA, Selling and R&D expense. Contrary to its peers, where these amounts virtually represent the net loss for the business, Cytori will have 3 types of income generated. First component is the gross margin and cash from the bio-resorbable business, which will be in the range of 5 to 7 Mio $ for 2005. Secondly, the (non-cash) income from deferred profits of the sale of businesses cashed in 2004, which will be 6 to 7 Mio $. And thirdly, (cash) income from the partnership most likely to be closed with Olympus (Upfront payment, Research cost sharing). In view of SAB 101 any upfront payment are likely to be deferred over the anticipated lifetime of the partnership, so no income is to be assumed for 2005, however could have a major impact on future financials (Cytori has stated that the financing of the heart therapy development is assured by cash from future partnerships). The outlook for 2005 therefore should be a loss of 10 to 14 Mio $. Current structure of ownership First of all it has to be mentioned that Cytori is following an absolute shareholder friendly antidilution strategy. Instead of financing their R&D through selling of stock, they preferred to sell their non core product lines and even bought back round about 3 million shares during 2002 and 2003 for prices between $3 and $4. This is a clear indication, that they consider their stock to be significantly undervalued in this current price range. Note that that buyback has been finished two years before where they were far behind their current scientific standard. As of 6/30/05 they had 18,040,018 and 16,820,018 shares issued and 15,167,184 and 13,947,184 shares outstanding in 2005 and 2004, respectively. In the balance sheet the repurchased stocks are valued as treasury stock. The Olympus options are included in each of the leading numbers. In a phone Call with the management CFO Saad said that they intended to void the treasury stock so that the number of shares issued and outstanding would be reduced to 16,820,018 and 13,947,184 respectively. The investor relations group provided the information that middle and upper management hold roughly 1 million stock of the company, in addition to the official stock option plan. CFO Saad suggested indirectly, that further equity placements are not planned until the stock price has passed the price of Olympus´ options ($10). Current structure of ownership (calculation based on 18,040,018 issued and outstanding) Holder In millions in % Treasury stock: Gagnon Securities: Olympus Corp.: Medtronic Inc: Management: Retail investors 3 2.25 3.3 1 1 7.53 16.63% 12.25% 18.29% 5.54% 5.54% 41.74% (derived from SEC filings, Cytori press releases, phone calls with management, nasdaq.com) Peer Group Comparison Cytori Therapeutics Aastrom Biosciences StemCell Inc Employees 120 49 36 Market Capitalization approx. 80 Mio $ approx. 240 Mio $ approx. 340 Mio $ Acc. Deficit 60 Mio $ 126 Mio $ 165 Mio $ Main Therapy Cardiovascular Disease Severe Bone Fractures Central Nervous System (juvenile Batten´s Disease) Other Therapies Cell Source Spine and Orthopaedics Ischemic vascular disease Wound healing (Crohn´s) Cosmetic- & Reconstructive Breast Augmentation Jaw reconstruction Spinal Fusion Liver Disease Pancreas Disease Adipose Tissue Bone Marrow Tissue Organ Tissue From the above table, the main variances can immediately be recognized - despite possessing proprietary intellectual rights on the base extraction technology and having a broader therapy development base, Cytori is severely undervalued, when compared to its peers. Reason for that is the obvious disconnect, the German investors have, with the Life Science business in general and who do not see its potential. To illustrate the discrepancy between the financing strategies of Aastrom and StemCell (both are already members of the RUSSEL 3.000) on the one hand and Cytori´s antidilutive strategy on the other hand and what this would indicate towards Cytori´s low number of outstanding shares once arbitration players notice that there is an additional serious player on the radar now we added the following table. Cytori Therapeutics Aastrom Biosciences StemCell Inc Ticker XMP.F ASTM STEM Recent stock price €4.23 $2.24 $5.07 52wk Range €1.72 - 4.83 0.84 - 4.36 1.45 - 6.77 Outstanding shares 18,040,018 102,328,785 63,545,160 Free Float 7,500,000 92,000,000 52,100,000 Daily Trading Volume 29,833 3,425,080 3,142,410 Institutional and insider ownership 58% 10% 18% Sources: SEC filings, yahoo.finance.com The management decision to list on the NASDAQ (small cap market) will in our view change this situation, since we believe that the former (UBS) Head of Life Science Investment banking, Marc Saad, now CFO of Cytori, will be “capable enough” to explain the companies business model to US analysts and investors. Pros / Cons for an investment in Cytori Stock + "IDE" regulatory appeals significantly more attractive in terms time, approval, costs, bureaucracy - IDE regulatory not yet accepted by FDA + ADAS cells superior as source for regenerative cells - Poor revenue stream up till now + Significant "IDE" experience with almost 50 applications - Additional financing via equity placement expected + Adult stem cells avoid ethical political discussions - Regenerative Medicine still need a long way until commercialization + No Danger of allergic reactions/infections + Pool of very skilled, experienced and enthusiastic scientific staff + Financing of Clinical Trials for "Cardiovascular-Therapy" already secured + Strong institutional shareholder base Anti-dilution / Shareholder oriented capital strategy + Chart Analysis Monthly Chart As the above chart indicates, Cytori has been declining in a downtrend for almost 41/2 years. The stock bottomed in January with an all time low of 1.75€. A reversal has been initiated then. After having announced the $10 per share equity placement with Olympus and the intention of Gagnon Securities to acquire up to 20% of Cytori´s stock in May, the stock broke its downtrend and started a rally until €4.6. The OBV shows continued capital accumulation in this stock since the beginning of the year. If Cytori´s stock can break through the major resistance at €5.18 all hurdles are broken until round about 12€. The theoretical price target based on the bullish wedge is €15 some time in 2006. Weekly Chart Cytori´s stock has consolidated this rally in the pattern of a symmetrical triangle since the middle of June. Actually it has just left the upper side of that triangle. The MACD and Slow Stochastic gave a fresh buying signal which had been a reliable indicator of midterm bottoms in the past. Volume is in steady rise since the beginning of May but has been declining during the recent consolidation. Next small resistance is at €4.45 which – once broken – should leave room to €5.20. Trend is still in good condition. Daily Chart Upcoming Catalysts for next 6 months - NASDAQ Small Cap Listing European CE Certification for Celution Announcement of first major commercial Partnership (Olympus) Begin clinical studies in Europe in early 2006 Reporting of Profit in 3rd Quarter (Nov 15), due to 5,6 Mio $ credit to income. Summary / Conclusion The conclusion of the above analysis is relatively simple: Based on peer group comparison the value of Cytori stock at the German stock exchange is extremely low, which is most likely to disappear within a relatively short timeframe as soon as the stock is also listed on a respectable US exchange This is expected to happen within 2 to 6 weeks from the time of writing this report. A tripling of present value would be a logical consequence. Further upwards momentum is likely to occur based on the anticipated partnership with Olympus to be announced within 2005, from which we expect a considerable cash flow, because of the appreciation by the partner of the significance of the acquired technology. A logical development from this event would be that analysts and institutional investors in the US would take a closer look at the prospects of this technology and discover the strong intellectual property position on the core extraction technology, the encouraging pre-clinical results in a number of important indications and foremost, the relatively short timeframe required for commercialisation thereof, because of its unique and practical approach. We look forward in welcoming you as co-shareholders in the stock of the “future leader in regenerative medicine”!!! How can I buy Cytori Therapeutics shares in the United States? Contact a U.S. broker with the following information: Cytori Therapeutics Shares are traded on the Frankfurt Stock Exchange in Germany in the Prime Standard Segment. The security ID number is ISIN USU233441018 or WKN A0ETV5. Otherwise you have to order the Pinkies (cytdf.pk) until they are listed on the NASDAQ Small Cap. Sources www.cytoritx.com, www.hypeandhope.com, www.wikipedia.com, www.ifats.org, www.nih.gov, www.fda.gov, www.sec.gov, www.wallstreet-online.de, www.bloomberg.com, www.nasdaq.com, finance.yahoo.com, several Company presentations, conference calls and conversations with management and investor relations. Disclaimer: The information in this report was written by Sheepshead and Gulliver, and was derived from sources they consider to be reliable, but whose accuracy cannot be guaranteed. This report should be considered informational in nature and should not be construed as investment advice. No investment decision should be based solely on its contents. All investors should do their own Due Diligence before making any investment decision. The securities referenced are speculative in nature and may not be suitable for your investment objective. We retain no liability for any decisions made based on material contained in this report.