According to the report from World Health Organization in 2017, 844 million people lack even a basic drinking-water service, including 159 million people who are dependent on surface water. Globally, at least 2 billion people use a drinking water source contaminated with faeces. By 2025, half of the world’s population will be living in water-stressed areas. AguaClara is in the process of solving this challenge. It is a multi-disciplinary program at Cornell University that has designed sustainable water treatment systems committed to long-term environmental, social, and economic sustainability.
Their plants are cheaper and more reliable for communities by using gravity and mechanical device to operate since it is electricity-free.
Communities avoid risks of failure or shut-down that plague projects dependent upon the proprietary expertise and applies.
Their plants are specifically designed to be constructed using materials and labor that are able to be locally-sourced.
To date, AguaClara has assisted in the design of 13 plants in Honduras and 4 village water treatment facilities in India.
So far, water treatment plants built using AguaClara technologies provide clean water to more than 50,000 people.
Residences who live in clean water shortage area
City planners and urban designer
Companies in renewable and sustainable water treatment field
Governmental department relate to environment
Step 1: Build cooperation relationship with government and water management companies
Step 2: Set up pilot study at local communities to show the effectiveness of the technology
Step 3: Monitor the plant together with the locals and adjust the working parameters
Comment: When I check the source of the article, I find out that it is from 2014. And I think there are better ways to solve the air pollution issue in China now. At the presents, they are reducing the use of coal and trying to replace it with clean energy. And they are restricting the number of vehicles on the road each day.
Data centers consume a huge amount of energy and that number is increasing due to the increased production of data centers. A main component in the use of electricity is heat rejection. Typically, CRAC units are installed in the servers to reject heat to an chilled water loop. The problem is through redesign of data centers and different aging of equipment, the design might not be optimal for real world applications and heat rejection may not be occurring optimally.
Vigilent utilizes artificial intelligence to optimally control the CRAC units to provide cooling to the space. It automatically identifies hot spots in the server rooms and adjust the CRAC unit output accordingly to effectively eliminate the hot spot. Power is monitored for Measurement and Verification purposes and as a way to monitor the hot spots in the rooms.
Work with existing control companies and to install at their customer sites and integrate into the existing controls. Get rebates from the utilities.
While urban green space is important for people’s health and well-being, it is getting harder to come by with rising real estate prices and development.
Sustainability Technology: Solar Reflectors
Idled underground space can be transformed to public parks by creative solar technology. The Lowline in the Lower East Side of New York City will be the world’s first underground park with “remote skylight”.
The 60,000 square feet space will be illuminated by an innovative solar technology: above ground, parabolic collector are set up to reflect and gather sunlight at one focal point; the sunlight is then transmitted to a reflective surface on the distributor dish underground through an intricate system of mirrors and tubes.
The technology will transmit the necessary wavelengths of light to support photosynthesis, enabling plants and trees to grow. There are already 50 species of plants growing in the park.
The solar reflectors on the roof will track the sun all day and electricity is not needed when sunlight is available.
Organizational Stakeholders that Will Use the Technology:
City Department of Design and Construction
Businesses and residents in the community
General public and community organizations
First 3 Steps in Deploying the Technology:
Procure underground sites with potentials and benefits of urban greening.
Set up model lab as proof of concept of the technology to convince and educate stakeholders.
Obtain supports from the city and local communities, both in terms of funding and permitting.
Water independence and source reliability is a very pressing issue that many communities are facing today. One of the many solutions that is being adopted today is to build desalination plants to turn sea water into drinkable water. However, building these plants and the process that is desalination can be very expensive. An average desalination plant can cost up to a billion dollars.
A new technology that could ensure cheaper desalination would be Advanced Water Recovery.
-Uses chemicals to turn salt water into drinking water and then, through proprietary process, filters the chemicals back out.
-Costs 70% less than current technologies used for desalination
-A demonstration plant is currently being built in Pennsylvania, cleaning the water used in the fracking process.
Organizational stakeholders that would need this technology would be American states that are looking to become water independent, such as California that is currently looking to build a second desalination plant, that would cost the state millions. The upcoming plant has caused a debate over the real need for such expensive technology for water production.
To deploy the technology, the firm would list and present the advantages this technology has over traditional desalination plants (safer for marine life, cheaper), to the state government and officials who would authorize this technology to be widely used. Once their demonstration plant is complete, these officials will be able to see and experience first hand what they could be enjoying in their own state.
In the last two years, the amount of days where ozone levels have exceeded federal standards is increasing. From 113 days in 2015, to 130 in 2016, and 145 in 2017. Los Angeles already claims some of the worst air quality in the United States, and with the threat of a gradually warming planet, the presence of ozone will only increase. One of the most impactful actions in decreasing ozone would be to minimize emissions from diesel engines, in short, taking diesel trucks of the road and replacing with trucks that use natural gas or electricity. While folks like Elon Musk work on making electric trucks a commercial reality, greater efforts need to be made in incentivizing gas engines over diesel.
When it comes to a city like Los Angeles, the activity of the port and commercial transport on diesel trucks are large targets for emissions reductions. This involves local business and trade departments, automakers, distribution companies, and perhaps a Sustainability and/or Mayor’s Office.
The first step would be to halt the future production of diesel trucks. Local governments could also decrease sales tax on trucks using natural gas or alternative energy, and increase sales tax on the sale of diesel trucks. And the same for the sale of diesel versus natural gas at the pump. Like Paris, LA could prevent trucks with diesel engines from entering city limits, or the ports (by a sort of labeling system).
Fisker reportedly made a breakthrough in solid-state batteries – and their technology could allow an EV to travel 500 miles after a single charge.
The company has filed a patent for a groundbreaking solid-state battery.
Green Car Congress reports that the patent includes claims about manufacturing processes and novel materials, saying, “Fisker’s solid-state batteries will feature three-dimensional electrodes with 2.5 times the energy density of lithium-ion batteries.” Recharging such a battery, they pointed out, would take less time than filling up a tank of gas today.
Here’s a representation of the three-dimensional electrodes:
Fabio Albano, co-founder of Sakti3 and Fisker’s vice president of battery systems.
The project is years away from completion.
Deploy when figure logistics of implementation are figured out
For this particular technology, Fisker says that it will be automotive production grade ready around 2023.
In the meantime, Fisker plans to launch its Emotion electric car at CES 2018 in January 2018
It is very impressive technology considering how slow plastic decomposes. According to the link, “PET plastic takes between 450 – 1000 years to decompose. Most PET bottles end up in a landfill, eventually contaminating lands and groundwater. William Horner, Founder and President of Totally Green Bottles & Caps, believes that the bottled water marketplace is long overdue for a 100% compostable bottle, cap, and label.” This would reduce a lot of waste that could take hundreds of years to decompose. I wonder if there would be any health effects from drinking water out of these bottles all the time.