The Adelante youth empowerment center will work with at-risk teens from Mexico who are academically demotivated or who have few resources available to them. It will motivate and empower them, supporting young professionals to be agents of change in their communities. The summer program centers will provide teens and communities with a safe haven dedicated to the professional advancement of youth and the development of Mexican communities. The franchise method of providing these centers throughout Mexico will identify local community youth and Mexican college students to lead the center in subsequent years, while the work on the expansion of Adelante youth centers across Mexico continues.
University: UC Berkeley
Mapping Waterways
Mapping Waterways will create a participatory mapping system that involves all aspects of the mapping process: from data collection, to map input, to visualization and organization. The mapping project will incorporate government and community-collected data to bridge current water mapping endeavors. This meets the need to integrate data analysis with community participation and improves access to water-quality information, which communities can then use for political projects. The project will require a collaborative process to implement participatory mapping, and to generate the necessary data to launch the online organizational interface. The team will visit three communities in the summer of 2014 to train and pilot the community data collection process. The data will then be uploaded to a web interface to add local context and community control to the mapping process. This will provide community groups with information on water quality and its impact on local areas that otherwise might require funding for specialists. This web interface stands to save groups in underserved areas funding and time in their efforts secure water rights.
Berkcycle
The Berkcycle system will consist of bicycles and bicycle racks that will be designed and manufactured by the Berkcycle team to fit the need of the students of University of California, Berkeley campus. The bicycle will have one-size-fits-all design that will allow all students to comfortably ride the bicycle anywhere on campus. It will also be fitted with an electric generator and lithium polymer battery so that bicycle can produce electricity, which will be used by the bicycle and the rack as their only energy source, making the system completely self-sustainable in terms of energy. It will be a “smart” rack that will be operated by microprocessors to make renting out and returning bicycle as simple as scanning Cal ID. Combining all these components together, the Berkcycle will be the ideal bike rental system for Cal students, addressing most of the problems that currently exist in using bicycle as transportation today.
Inserting Innovation into Vision: UC Vision Project in Cambodia
The project will deliver vision correction to the poor in Cambodia, using self-adjustable glasses that allow the user to self-diagnose their own prescription. Once individuals determine their own prescriptions, they will be able to choose from standardized eyeglasses that fit a range of prescriptions. This approach allows a reduction in the cost of vision correction in several ways: first, it bypasses the high cost of customized prescriptions by using self-adjustable eyeglasses to diagnose and standardized eyeglasses to wear. Second, standardized eyeglasses allow customers to exchange or return the eyeglasses if they are not satisfied, which is impossible with customized eyeglasses. Third, by applying self-refraction technology and standardized eyeglasses for vision correction, an affordable eyeglasses supply chain can be established with the end price to the consumer being as low as $2.50 USD. Finally, since the process itself of self-diagnosis allows people to experience better vision first-hand even before purchasing, the self-refraction approach can increase their willingness to pay for vision correction compared to the conventional approaches, which merely allow for the optometrist to diagnose without the patient actually experiencing better vision.
m3d: Mass Minable Medical Data
m3d is the “Google for Healthcare”—an intuitive and fast search engine for clinical and biomedical research. Existing technology uses outdated software to manage massive data sets, proves unintuitive with drag-and-drop interfaces, and demonstrates major issues in software architecture and scalability. The m3d software solution utilizes cutting-edge technology that ensures optimum performance analyzing Terabytes of data and ensures the most productive user experience. The end-users of m3d include hospitals, clinics, research centers, and pharmaceutical companies. m3d has partnered with UCSF to build a modern and full software solution built on the existing technology frameworks to provide healthcare with its much-needed intuitive and fast search engine for clinical and biomedical research.
Near Zero
Unlike chemical batteries that have a limited power output and diminishing cycle lives, flywheel batteries can supply quick surges of power in milliseconds with a reliable 20-30 year lifespan. The small footprint of flywheel batteries makes them easily deployable in any environment. Near Zero’s rapid ramping abilities, high cycle life, and low maintenance make it an ideal supplement to current regulation plant operations. While current installed storage capacity is seeking to compete with fossil fuel regulation plants, Near Zero aims to enable more efficient operation of these plants in a collaborative integration. The ability to provide both energy absorption and generation services at fast ramp rates means that less capacity is needed per regulation event, which enables the plant to increase the number of ancillary service market bids and reduce idle time. While the flywheel is ideal for the initial ramping of supply, Near Zero’s customers will increase asset utilization after the ramping period has ended or when installed flywheel capacity has been discharged.
Wallflower Ventilation
Traditional central heating and cooling systems treat an entire house as if it were one room with one uniform temperature. Furthermore, these systems fail to provide room-specific temperature control, instead heating or cooling the entire home based on the readings of a single temperature sensor in the thermostat. By installing a wirelessly controlled vent cover, equipped with temperature sensor and motorized shutter in each room of a house, the Wallflower Ventilation system provides the ability to control room-specific temperature settings. Each vent will communicate with a central thermostat that controls and monitors the network. The thermostat will also record temperature readings to the homeowner’s online account. By accessing the system’s website, the user can update their desired temperature, change settings from their smartphone or office computer, and track their home’s energy use. With this system, the home’s ventilation network can become part of the Internet of Things, offering real-time monitoring, access to weather forecasts, and the incorporation of advanced analytics.
PT-E Generator
PT-E generator proposes to build a device that can harness the energy generated by the impact of moving vehicles onto highway and city road surfaces. This energy is then converted into electricity that can be stored in batteries or uploaded into the electric grids to power residential and public facilities. The device uses the same mechanism of an automatic watch to store and release the mechanical energy collected from vehicles. This project may help solve the ever-increasing energy demands while reducing our reliance on fossil fuels and cutting back the amount of carbon dioxide released into the atmosphere that cause global warming.
Off-Grid Solar Electrification in Africa with Mobile Phone Interface
This project seeks to provide a feasible and sustainable solution for growing energy demand in Africa. Its core innovation is in the village-scale solar power system that is currently being prototyped at UC Berkeley. One team member’s extensive contacts in renewable energy organizations in Ghana gives this team a platform and local access to start implementing pilot systems. Ghana’s growth rates for energy need, population, and development approximate Sub-Saharan Africa’s on a whole, and therefore can be used as a suitable benchmark for testing. This team utilizes an array of inexpensive solar panels to provide remote generation. A predictive back-end will provide energy generation forecasts up to three-days ahead, and will convey expected generation shortfalls through SMS to end-users. Electricity sales will be on-demand and sold via mobile credits, expecting to generate USD $50 per month for a 2kw system.