19MAY 2024join those two parts together thanks to connectors and lasers that can stretch that beam beyond 10 microns. Could you shed some light on the effectiveness of embedding electronics and the development of sustainable energy technology?As I mentioned before, the way heat is being produced by the increasing use of optics in data centers to address density. Data centers use a lot of electricity. Moving processes a little bit closer by employing optics makes them a little bit more efficient, and a lot of the world's grid power is actually used to power data centers. But it was with regard to solar cells. Solar energy capture with solar cells is a type of alternative energy. In other words, it is a detector that takes in sunlight and converts it into electricity. And the alloys used to make these solar cells are different from those used to make communications optics.They keep improving in terms of efficiency. Therefore, they are still not entirely effective. However, modern solar cells and solar panels that you may install on your roof are significantly better compared to those that were available a generation ago. They are most likely orders of magnitude more efficient and less expensive. Therefore, the ability to increase optical efficiency--the ability to capture sunlight and convert it into electricity--is enabling that industry to do so. Also, it's allowing solar cells to proliferate on everyone's roofs or perhaps in new locations like car roofs or portable solar cells, etc.How do you envision the future with all these potential disruptions and transformations that have happened over the years?The march of speed and density has thus been the major development over that time. The first fiber optic underwater system launched at AT&T with a speed of 2.5 gigabits per second. That was a big phone that had a specific capacity for a number of phone calls, but not sure how many could be made at once. These systems currently use optics that is 100 gigabits in size, and they multiplex it even further so that you can transfer more than terabytes on one device.So, efficiency is exploding. The ability of the internet to send all of this data globally is what actually makes it possible. The production processes have become considerably more under control when you ask me what's changed. In other words, when I started, it was more or less a cottage industry. There weren't really any design guidelines. We created design guidelines for a certain fab, and now we have commercial fabs for the best electronics, where people adhere to their own sector's design guidelines. To encourage more suppliers to expand, you have standards-based products, Trans receivers, and other items. However, it still faces difficulties because it is a capital-intensive industry. Therefore, if we could solve the coupling problem in a much more scalable and automated manner, optical devices would be adopted and used even more. However, I believe that's what's going to happen in the future. Because the dependability of the optics also needed to be established, there were these fairly standardized Trans receivers that allowed for plug-and-play in the center. Again, it took a lot of studies to demonstrate that lasers would last for 20 years before it was profitable to submerge them. Next, they must either be able to be easily removed and replaced or survive long enough in a data center. Placing a device on a board requires considerably more care than placing a C'MO device when you're talking about having to couple tiny amounts of microns of light. It is, therefore, more difficult to get the entire system to accept optics as a method of data communication. Therefore, the robotics of light placement and coupling will enable future applications and the improvement of the devices themselves. They have thus become speedier. Therefore, most of the silicon is needed for optoelectronics to drive signals at 100 Gbps and understand whether they are a zero or a one as they leave the detector. They must also advance in the world of C'MOs. Some of those are made of silicon germanium. Other technologies must therefore advance concurrently, but it has done so quite relentlessly. A factor of three orders of magnitude, a thousand or more, or both, is a lot in 30 years. When I consider that productivity, I believe it even surpasses what has occurred in the silicon and transition industry with Moore's law. However, there is still more to achieve in the optical domain.What would be your advice to your fellow peers or aspiring professional?Optics is quite a fascinating field where we met some fantastic people. We are capable of demonstrating amazing capabilities. The difficulty arises when attempting to scale it for a very high volume application because it is frequently capital demanding, and the methods required to produce a million of anything are frequently different from those required to produce just one. I believe optics presents a special challenge since sometimes the volume isn't at the front, and you need to invest money to establish the market. Therefore, my advice would be to truly consider the capital required if you're trying to develop a new application or scale up a new product. We created design guidelines for a certain fab, and now we have commercial fabs for the best electronics, where people adhere to their own sector's design guidelines
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