Good morning and thank you, Greg. As many of you know, I was appointed as Chief Executive Officer of StemCells in January of this year and so this is my first quarterly meeting with you as CEO. By way of background, I have almost 40 years of experience in the pharmaceutical and biotech field. I have held senior positions at Syntex and Roche where I was Head of Research and Development for its Palo Alto site in California. In 2006, I co-founded and was the President and Chief Executive Officer of Synosia Therapeutics, a company focused on the development of treatment for neurodegenerative diseases. Synosia under reverse merger with Biotie Therapies in 2011 and Biotie was recently acquired by Acorda. After leaving Biotie Therapies, I spend time at Versant Ventures, a leading healthcare venture capital group as an entrepreneur in residence. I was brought into StemCells as President and Chief Operating Officer in March 2015 by Martin McGlynn, our previous CEO. As COO, I was responsible for all aspects of product development, including clinical development in operations, manufacturing, quality and regulatory. Martin drove me into the company with the expectation that I would succeed him as CEO. The company shift in strategy at the end of last year, leading us to focus on our spinal cord program with the corresponding reduction and size of the organization created a natural transition point. I have a history of building and leading science-driven business focused organizations that have created value by delivering robust, clinical proof-of-concept data for novel therapeutic agents. Over the years, I have been associated with bringing over a dozen products to the market including CellCept to prevent organ rejection following transplantation. Naproxen for treatment of pain and particularly for prevention of stroke. Personally, I’m driven by the development of novel therapies and therapeutic approaches to treat important and serious unmet medical needs, especially in the area of central nervous system disorders. I believe that rigorous science created translational medicine approaches based on robust pre-clinical data and strong team work are central for the successful development of novel therapies. It was therefore an easy decision for me to join StemCells early last year. I was compelled by the death and quality of the science and by a high degree of correlation between the pre-clinical animal data and the human clinical data. It is indeed exciting to join a company that is well on the way towards generating key clinical data to validate a cutting-edge stem cell therapy for the treatment of serious central nervous system disorders especially ones that currently have no treatment options. During my first nine months with the company the senior leadership team and I took a very hard and detail look at the company’s strategy, programs and portfolio. From a high level perspective considering the company’s cash burn and history we decided that we needed a strategy that would deliver a major value inflation point within the next two years. We agreed that at this stage of our company’s development the most meaningful value inflation point would be the generation of clinical data from a well controlled Phase II proof of concept clinical study in at least one indication. We expect that statistically meaningful Phase II data would create value for our stakeholders from two perspectives. First, it would demonstrate that our neural stem cells have a therapeutic and commercial potential in at least one specific indication. And secondly, it was substantially enhanced confidence in our stem cell based platform for the treatment of other central nervous system disorders. When I joined the company we have two Phase II clinical programs underway. One for the treatment of spinal cord injury and one for the treatment of geographic atrophy, the most advanced form of dry age related macular degeneration, the leading cause of blindness in the elderly patients. These diseases indication represents a large unmet medical need both are multibillion dollar opportunities. However, we felt that it would be extremely difficult fully fund and resource these two programs given our current market valuation, the state of the financial markets, and the challenges of raising capital for generative medicine companies in general. Furthermore, we believe that running two programs if sub optimally resourced and finance could significantly increase the risk of delaying the completion of both studies and jeopardize our key strategic objective of achieving a value inflection point within the next two years. For these reason we believe it was in our stakeholder’s best interest to fully focus our resources on one program only. Based on the consideration of the scientific rationale, available clinical data, current clinical status, potential time lines and probability of success of our two programs, we decided that the best approach forward was to focus our efforts on our program in spinal cord injury in order to increase our confidence that we will successful deliver convincing Phase II proof of concept clinical data from our Pathway Study by the end of 2017. With this, we made a difficult decision to suspend enrollment in the Radiant Study of Phase II study in AMD even though we will continue to follow the patients already transplanted. As you probably saw following this decision to focus on spinal cord injury we undertook a careful evaluation of our organization and staff and we restructured to create a company with a laser like focus on A, completing the Pathway Study as soon as possible, and by no later in the end of 2017 and B, insuring that we have a process for producing the cells that will support moving into a Phase III program as quickly as possible following a successful completion of the ongoing Pathway Study. By doing this we expect to reduce our cash requirements to achieve this key value inflection point by $20 million. With our efforts totally focused on spinal cord injury we are now well-positioned to generate convincing proof of concept data within the next 24 months, a critical value creating milestone in the company’s history. As a reminder, the Pathway Study is a study in patients with chronics cervical spinal cord injury that is design to evaluate the effects of our neural stem cells on upper extremity motor strength function and improvements in motor level of injury. All patients enrolled in this study are in the chronic phase of injury. In other words, patients who are between four and 24 months post injury. The Pathway Study has three cohorts. Cohort 1 is an open label cohort that enrolled six patients with motor completes spinal cord injury. Cohort 2 is a single-blinded 1:1 randomize control cohorts in 40 motor complete patients. Cohort 3 which can be initiated at our discussion is an open-label cohort in six motor incomplete patients. Treated patients are transplanted with our neural stem cells above and below the level of injury and are then allowed – and then followed for one year of post-transplant. Motor function is assessed of baseline and three, six, nine and 12 months post-transplantation using two scales. First, the International Standards for Neurological Classification of Spinal Cord Injury known as the ISNCSCI, and second the Graded Assessment of Strength Sensibility and Prehension known as GRASSP. These are two independent and complementary scales. The ISNCSCI assess its upper motor strength using five key muscles and also assesses the neurological level of injury. The GRASSP accesses upper motor strength using 10 key muscles, but also measures upper extremity dexterity and fine motor skills. The primary purpose of Cohort 1, the open label cohort which together an initial read on the safety of transplanting cells into the cervical cord above and below the level of injury and to select the highest dose for using the second cohort of the study. Cohort 1 would also permit us to get some early read [ph] on efficacy that could help optimize the design and selection of endpoints for Cohort 2. In Cohort 1 two patients received 15 million cells, two received 30 million cells, and two received 40 million cells. All doses were safe and well-tolerated and the 40 million cell dose was selected for using Cohort 2. In November of last year we reported the six months data from the six patients in the open label Cohort 1. It’s important to note that these six patients entered the study between 10 and 23 months after injured, a time period well beyond when most spontaneous recovery would have occurred. The efficacy measure showed that five of the six patients had improvement of upper motor strength. Four of these five patients also showed a meaningful improvement in test of dexterity as determined by GRASSP. Four patients had an improvement in the unilateral motor level of injury of at least one level as assess by the ISNCSCI. The improvements in upper motor strength and dexterity observed to Cohort 1 patients, a significantly different from what would be expected based on what we know about the natural history of the condition. The natural history data would suggest that for patients 10 to 23 months post-injury that were enrolled in the study, only 10% would be expected to show any meaningful improvement in motor function. In other words, no more than one patient in a group of six versus the five patients for which we actually demonstrated a meaningful improvement, we believe that these data not the first to ever show a therapeutic effect of a cellular intervention on motor function and chronic cervical spinal cord injury. Previously in the company’s spinal cord program we reported last May the result of our study in chronic thoracic spinal cord injury. This Phase I/II study enrolled 12 patients with either complete AIS A spinal cord injury or incomplete AIS B spinal cord injury. Seven of the 12 patients showed improvements in sensory function to multiple segments below the level of injury as access by Pinprick, light touch, electrical or thermal stimulation. Indeed two of the patients converted from complete to incomplete spinal cord injury. These clinical changes were first seen at three months post transplantation and were sustained or even enhanced to 12 months post transplantation. The incomplete patients had a somewhat better response than the patients with complete spinal cord injury. These results are particularly exciting because the patients enrollment study were four to 24 months post injury and are not expected to show any significant degree of spontaneous sensory recovery. These are the first and only data generated showing a clinical improvement in patients with chronic thoracic spinal cord injury after cellular transplantation. Furthermore, the treatments in the study were safe and well tolerated. Looking forward with our new laser focus on spinal cord injury we can expect several key milestones and news flow events over the next 18 to 24 months. First the Pathway Study is well underway and we are enrolling patients into Cohort 2, the single-blind randomized cohort. Currently, we have 13 sensors in the U.S. and Canada that are actively enrolling patients. We have now enrolled nearly half of the 40 patients required. We are planning to complete the enrollment of all 40 patients by the end of Q3 this year. Second, we will have the 12 months data from the open label Cohort 1 patients by the end of Q2, 2016. Third, we plan to have a blinded interim analysis for Cohort 2 patients in the second half of 2016. The interim analysis is currently based on a superiority threshold and is planned to be performed when approximately half of the patients in Cohort 2 have completed their six months evaluations. We are still targeting to release final data for the Pathway Study in the second half of 2017. While our very clear focus is on driving towards completion of the Pathway Study with final data expected by end of 2017, we also have an initiative to maximize the value of other assets through either partnering or strategic transactions. In this regard, we have two assets that we are attempting to leverage. First, our AMD program, to test our proprietary human neural stem cells in patients with retinal diseases and second, our program to create genetically modified human neural stem cells as a potential therapeutic. First in our AMD program, we reported last June, clinical data from our Phase I/II study in geographic atrophy, the most advanced form of dry AMD. It’s important to recognize that this fist clinical trial was designed to demonstrate safety and many of the patients enrolled in the study were very advanced in the disease progression. These patients have very large and complex lesions and as such are enough patients that would be enrolled into a study focused on efficacy. The data from our Phase I/II study shows that the sub-retinal transplantation of our neural stem cells was safe and well tolerated. In addition, the data showed that in a subset of patients with GA lesions that would have met the criteria established for entry into the efficacy focused Phase II Radiant Study, these patients showed a substantial rate of reduction of the growth of geographic atrophy in the treated eye versus the fellow eye. Because of reduction in the rate of growth of geographic atrophy is considered to be an approval endpoint, these were indeed very encouraging data, which for us supported moving forward with Radiant Study. Furthermore, 11 of the patients from the Phase I/II study enrolled in a long-term follow-up study and outcomes continued to be collected in these patients. Data from this long-term follow-up continue to suggest a beneficial effect of our neural stem cells in terms of slowing the rate of geographic atrophy, which appears to be maintained at least for up to two years. We are also starting to see some very interesting indication of an improvement in visual acuity in the treated eye as compared to the untreated eye, as we examine the longer term outcomes. In relation to this, we now have evidence that in pre-clinical models, sub-retinal transplantation of our neural stem cells results in proliferation of the retinal pigment epithelial cells, which could represent an important regenerative mechanism of action. This is a novel finding that we are presenting for the first time today and which could have a very important implications for the treatment of geographic atrophy. These data will be presented in detail at an upcoming scientific conference. As stated previously, dry AMD is an area of major unmet medical need because we have already generated preliminary data showing safety and evidence of efficacy in our Phase I/II study in dry AMD, we are currently in discussions with potential partners about how best to advance on monetizing this asset. The second major asset that we want to partner is gene modified neural stem cells. We have been able to demonstrate that we can stably gene modify ourselves so that they are able to deliver specific neurotrophic factors and other key proteins while still retaining all their properties to self renew, engraft, migrate and differentiate into neurons, astrocytes and oligodendrocytes. As such, this creates a cellular platform with a proven safety profile for pursuing a gene therapy approach for the treatment of serious disorders of the central nervous system. This could encompass the modification of cells to produce enzymes that are known to be deficient and the cause of various often diseases related to lysosomal storage disorders and leukodystrophies. All modification of the cells to produce neurotrophic factors for the treatment of neurodegenerative diseases such as Alzheimer’s, Parkinson’s and Huntington’s and various disorders of the eye. Along these lines, you may recall that we have previously conducted studies with our neural stem cells in patients with advanced Battens disease. This disease is caused by deficiency in an enzyme palmitoyl protein thioesterase 1, PPT-1. Our cells modified to produce PPT-1 could provide a major therapeutic improvement over the unmodified cells for treating this fatal inherited disorder. To conclude, I summarize the current state of the business as follows. Stem cells now has data in spinal cord injury from two clinical studies with 18 patients, showing a therapeutic benefit, both in patients with chronic thoracic spinal cord injury and patients with chronic cervical spinal cord injury. We believe this is the world’s first clinical program involving cellular transplantation that is showing a clinically therapeutic effect on chronic spinal cord injury patients. Our Phase II Pathway Study in chronic cervical spinal cord injury is well designed to generate robust proof-of-concept data by the end of 2017. Enrollment is taking place at 13 sites in the U.S. and Canada and nearly half of the required 40 patients in Cohort 2 have been enrolled to date. We believe strongly the statistical significant data from Cohort 2 of Pathway, confirming the improvements in motor function we saw at six months in the open-label Cohort 1, would be transformative for the company in the field of spinal cord injury. Based on the scientific and clinical strength of the spinal cord injury program and the interest in focusing company resources, at the end of last year we made a strategic decision to focus all our development efforts on our more advanced program. We have therefore, suspended patient enrollment in our Phase II Radiant Study in the AMD Program and this reduces our cash burn to the completion of the Pathway Study by over $20 million. Meanwhile, we are in active discussions with partners, both with the AMD Program and our genetically modified neural stem cells. And both of these opportunities provide the potential for bringing non-dilutive capital into the company. Given our growing clinical data, our recent operational changes and our laser-light focus on spinal cord injury, we feel increasingly confident in our ability to execute our plan between now and release of statistically meaningful Phase II data in 2017. I will now turn the call back to Greg.