Thank you, Martin. Good afternoon. I would like to take you through a few slides. Last Friday, Dr. Stephen Huhn, our VP of CNS Clinical Research, presented additional data from our long-term follow-up study in PMD that confirms and strengthens the conclusion from the 1-year data we reported last fall. As a reminder, summarizing the slide, our Phase I results, which were published, as I said, in October showed evidence of progressive and durable donor-derived myelination in all 4 patients transplanted with the cells. In addition, we saw gains in motor and/or cavity function in 3 of the 4 patients -- of the forward patient remained clinically stable. Now, 2 years after the transplantation with the cells, the data showed that the MRI evidence of myelination is more pronounced compared to the 1-year post-transplantation. And the gains in neurological function reported in our Phase I study 1 year of transplantation were maintained with no new or emerging safety concern. Now given the generative nature of PMD, those neurological changes and MRI changes measured at time points long after transplantations with the cells suggests a departure from the natural history of the disease. As most of you probably remember, there's a compelling preclinical rational for the use of the cells in PMD. Based on the demonstration of de novo myelination in the hypo myelinated shiverer mouse with the MRI and electronic microscopy demonstration of physiological myelin produced by newly formed human oligodendrocytes. As you know, we injected cells in those children in 4 locations in the frontal lobes, 2 in each hemisphere indicated in this slide by the blue dots. Adjacent to the corticospinal tract, a key conduction area for locomotor function. We published last October the result of the trial, in particular, the MRI data assessing myelination. We measured with VTI the -- sorry, got ahead of ourselves with this slide. We measured with DTI changes in the transplanted areas indicative of myelination. Here in the slide, you see again the transplanted areas in blue, there were 4 of them. And we compared the evolution of the DTI signal before and after transplant. More importantly, we also assessed with the same MRI technique other areas located at a distance from the transplanted areas to serve as an internal control of the natural progression of the disease in the same patients. We have a problem with this slide. We are missing one patient in this slide and I don't know why that is. Okay. So I'll talk you through this slide. In this slide, these are the 4 patients. For some magical, it's the only reason, patient #4 disappeared in the slide presentation that we had 10 minutes ago. But in red, you have the transplanted areas for each of the 4 patients. The first 12 months to the first part of the curve, the left part of the curves correspond to what was published last October. So the new data is the second part of the curve from 12 to 24 months. What we see is that biologically, the transplanted areas in the same brain of those patients behaved differently from the control areas, showing that there is biological activity in the transplanted areas that is different from what's going on in the rest of the brain at a distance from those areas. Please note that the scale on the 3 slides that you can see and the fourth that you can't see, are different. Some going up to 14% and some going to 25% or 40%. But in 3 of the 4 patients, #2, #3 and #4, that unfortunately you can't see, at the end of the 2-year observation period, you see a difference of 8 percentage points in the transplanted areas versus the non-transplanted area. This curves represent what is called fractional and isotropy, which represents the preferential movement of what are protons in one direction of, let's say, constrained by the surrounding myelinated actions. 8%, to give you an idea, when compared the natural evolution of myelination using normal children and adolescents beyond the age of 2, it's bigger. It's the same magnitude or bigger than what you expect to see over 1 year of age at the time points of the steepest increase in myelin. Patient #1 is the one that you see sort of smaller changes. However, for this patient, we do have already year 3 data. So 1 year more than what you see in here and we observe in that patient, sort of a further separation of the transplanted areas versus the controlled areas. As we indicated previously, this is the first biological sign -- or sign of biological activity and targeted engagement of the HuCNS-SC cells, and as such was extremely encouraging a year ago, and as we are extremely pleased now seeing that 2 years later, the results are strengthening. The differences are stronger than they were 1 year ago. Next slide. Now the question is where do we go from here? Having this sign of biological activity was critical. Now we need to relate those MRI changes with clinically relevant benefit. So we plan to meet with the agency, with the FDA in the coming months to determine a viable registration pathways. Now as an update in the rest of the programs, very ambitious programs. First, to the spinal cord injury trial. As we announced previously, we amended that protocol. It's still a study that targets to enroll 12 patients with thoracic spinal cord injury. Now in the new revised [indiscernible], the first 3 patients were to be patients with a complete or ASIA A injury. The next 4 patients, 4 to 7 could be either ASIA A or ASIA B patient with an incomplete lesion. And the last 5 patients, #8 to #12, will be either As, Bs, or Cs patients with other type of incomplete lesions. This protocol has been now authorized by Swissmedic, as we articulate before and recently by Health Canada and we are working diligently to open Canadian sites. The first 3 patients, as you know, completed the 12-month trial and are enrolled in the long-term follow-up study. We have those patients #4 and 5, and with the next 2 additional patients, we will open enrollment to ASIA C patients. Our target has completed enrolling in the study in the first quarter in 2014. Turning now on to the AMD or H-related macular degeneration study. As you know, this is a very severe disease, due to the loss of photo receptors in the macular that lead to central vision loss and blindness. It's very prevalent, accounting for about 90% of all AMD cases, and there is no approved surgical or medical treatment for dry AMD. Can I have the next slide please? So the trial is -- the ongoing trial is an open label dose escalation trial intended to assess specifically, safety. We plan to enroll 16 patients in total. The first cohort include 8 patients with very low visual acuity, so less or equal to 20 out of 400, so these are very handicapped patients. The first 4 patients receive a dose of what we call a low dose of 200,000 cells and the second group of 4 patients in this third cohort will receive the higher dose of 1 million cells. When we would have enrolled these 8 patients, and if there is no safety concerns, we will move to the second cohort that will be 8 patients with better visual acuity, 20/100 or 20/200 that will receive the higher dose, which is 1 million cells. Next slide. We initiated the trial in June last year. We're currently enrolling at 2 sites, The Retina Foundation of the Southwest in Dallas and the Byers Eye Institute at Stanford here in Palo Alto. And we are working also throughout additional sites. We have enrolled already 4 patients, which complete the low dose portion of cohort 1. We target to complete the enrollment in cohort 1, which is 8 patients in total by the end of this year and complete the trial enrollment 16 patients in total in mid-2014. I'll turn it back now to Martin.