Plastic Solutions in Baltimore

In Baltimore, Maryland, innovation surrounding plastic pollution is cleaning up water bodies.

  1. Waste: Plastic pollution creates a domino effect of impacts on an aquatic ecosystem. Although awareness has been spread about this sustainability problem, there has been little tangible actions and scalable technology that has risen to the challenge.
  2. The Inner Harbor Water Wheel is technology worth watching. Here’s why:
    • The city of Baltimore has prototyped, tested, redesigned, and deployed the Water Wheel
    • It is powered by water current and solar panels
    • A series of rakers that pull floating debris from the water onto a conveyor belt and into a floating dumpster
    • In it’s first trial, the Water Wheel removed 50,000 pounds of trash
  3. Stakeholders that should be involved in deploying this technology are:
    • Team of Professionals from Baltimore city government
    • Project Developer- John Kellett
    • Government employees from cities located near water
  4. This technology should call on the success from deployment in Baltimore to look for next steps.
    1. A task force should be assembled to discuss implementation and the success and flaws from its initial deployment in Baltimore.
    2. Secondly, the task force should identify other areas where the water wheel should be suitable.
    3. A manufacturing team should be assembled to begin constructing additional water wheels, under the supervision of its original creator John Kellett.

For more information, check out the articles below!



Recycle Nation App for Civic Engagement

Have you ever wondered if an object you had was recyclable? A new tech solution from Recycle Nation addresses this issue.

  1. Sustainability Problem: Civic Engagement
  2. The following few points highlight 1800Recycling’s technology:
    • Recycle Nation created an application for your phone or other device
    • the app was formerly known as “My Recycle List”
    • it uses mapping technology to show areas where different materials can be recycled
    • it’s user-friendly filters allow you to search for locations that recycle a range of items
  3. Organizational Stakeholders: Technology developers, Mapping technology stakeholders, GIS analysts, Marketing and Business development team
  4. First 3 Steps to Deploy Technology: In deploying this technology, it would be important to establish app developers to continue to make updates to the application. Secondly, hiring a team of GIS analysts to continue to plot the upkeep of other recycling facilities and update the mapping data points. Lastly, I would implement a development team to promote the application as well as acquire financing.

Check out the link below for more information about the app.


Comment on Solar Bike Paths: I really enjoyed this article and this piece of technology. Solar panels generated 3,000 kWh in 6 months. This outperformed the threshold that was estimated in a lab due to prior testing. It seems that this technology could be easily deployed and has great benefits, despite the cost.



RIPE: Genetic Engineering and Future Food Shortages

The United Nations estimates the world population will increase to 9.6 billion people by 2050. A population rise is be accompanied with growing concerns about resource usage such as water, food, energy, and housing. The RIPE Project is sponsored by the Bill and Melinda Gates Foundation.

1.  Sustainability Problem: Health & Water

2. The following bullet points summarizes sustainability technology that addresses health and water:

  • A project called Realizing Increased Photosynthetic Efficiency (RIPE) is a team of researchers at the University of Illinois at Urbana-Champaign
  • The team is using genetic engineering technology to maximize the photosynthetic capabilities of tobacco
  • Their goal is to increase crop yields and efficiency by targeting inefficiencies in the plant metabolism
  • RIPE is engineering three genes that express how light is processed
  • Thus far, they have increased tobacco yields in a greenhouse by 20%

3. Organizational Stakeholders: Once the RIPE team assembles a procedure that can be reproduced in mass with different plant species, a number of stakeholders will be necessary to implement this technology.

  • Educational stakeholders must recruited trained scientists in genetic engineering.
  • The United Nations Food and Agriculture Organization can use their involvement to bring policy to the mainstream regarding genetically engineered foods internationally.
  • Public Private Partnerships can be used to make technology more affordable.

4. The first step in deploying this technology can be deployed by bringing this to the UNFAO to encourage international acceptance of this technology as a solution to the food crisis as population rises. Following this, the Bill and Melinda Gates Foundation can create a protocol and continue their research with other essential food crops. A team of educational stakeholders should be assembled to encourage genetic engineering at universities.

Check out the link to the article below to check out more images and information.

The Warka Water Tower: Where Accessibility and Innovation Meet

The Warka Water Tower

1. Sustainability Problem: Water and Health

In today’s world, a growing population, global climate change and inefficient water infrastructure raises concerns for equitable access to clean drinking water. Currently it is estimated that 783 million people lack access to potable drinking water. Lack of potable drinking water contributes to a range of public health concerns such as spread of disease and illnesses, deaths, and inability to grow food.

2. Technology: Warka Water Tower

The Warka Water Tower was developed by an Italian architect named Arturo Vittori with his studio Architecture and Vision. It serves as an innovative technology to address concerns for access to water in developing countries in addition to their accompanying public health problems.

Summarized below are some key takeaways from this technology:

  • Warka Water Tower was developed to collect water vapor from the air in areas that lack sufficient water infrastructure for remote or developing communities
  • the device functions at the highest capacity in areas where humidity and fogs are high
  • depending on the conditions, the tower can harvest from 10 to 20 gallons of water daily
  • the tower can be built without electrical tools
  • this design is the winner of the World Design Impact Prize in 2016 and mass production is aimed for 2019

3. Organizational Stakeholders:

Stakeholders in this effort that would be relevant are the existing team of designers, architects, and developers. Additionally, marketing and investment teams would be beneficial to help Warka Water meet their goal of mass production in the year 2019. Outreach and construction teams should be assembled to promote these structures in developing countries to educate community members on how to construct and use the tower along with its other functions such as the Warka garden, drone, toilet, and house.

4. Next Steps

Warka Water’s next steps should involve assembling an investment and marketing team to gain funding for their innovative designs. This will allow them to bring the tower to mass production and enhance funding in their design and development of other Warka products. They should additionally consider NGO partnership to install and promote acceptance of this technology in developing countries.

Check out the following links below for more information!
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