Tanween Mega Challenge - Ithra

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Tanween Mega Challenge Power Track The Power of Hope


Content • Tanweem Mega Challenge • The Challenge • Research Process • Site Analysis • Problem Statment • Analysis • Idea/Proposed Sulotion • Ideation • Feasibility • Impact


MegaChallenge The global refugee crisis is ongoing and continues to grow with every conflict. With limited basic resources and abilities, refugees face uncertain futures and struggle to lead secure lives. From here, the "Design Solutions for Refugees Challenge" program was launched. Motivated by humanitarian efforts to alleviate hardships that have altered the course of countless lives, Tanween presents an opportunity through its mega challenge for innovators from all over the world to provide solutions that address this global crisis by creating sustainable and empowering solutions that improve the quality of life of refugees inside camps around the world.


Team Renad Al Omaigan Architect

Abdulmohsen Al Sharyan Mechanical Engineer

Stefanie Kay Industrial Designer

Nourah Al Marshad Interior Architect

Sedra Mando Architect

Mentor Dr. Manu Prakash

Associate Professor, Dept of Bioengineering at Stanford University.


The Challenge

Solar panels hold great importance within the camps at Cox's Bazar, serving as a source of hope and providing essential services. However, due to inadequate repair and maintenance support, along with a lack of local expertise, many of these systems do not function properly, which not only affects their well-being but also contributes to the issue of electronic waste


Research Process

1. One to One Interview Meeting with Siraj, a camp resident

2. Case Study Research 4 scientific papers talk about energy in cox bazar camp

3. Process of Observation Observing local residents in the camp by photos and videos


Site Analysis

Bangladesh 79.5M Displaced People 26M Refugees 1M The Rohingya Refugee

cox's bazar 1.000.000 The Rohingya Refugee 500.000M Tents 20.000 Solar Panels


25%

75%

75% of the Rohingya refugee population in Cox's Bazar, Bangladesh has no access to mains electricity


Problem Statement The Kutupalong Refugee Camp in Cox's Bazar, Bangladesh, is grappling with a severe shortage of accessible and sufficient electricity. This deficit impacts essential services, safety, and overall living conditions for its over one million Rohingya refugees. Addressing the electricity crisis in the camp is critical to enhancing the well-being and quality of life for its residents.


Analysis Functional Requirement Total Power Usage (per person \ per day ) capital cost

scale\ energy density w\m^2

Environmental \ health \ safety scale\ energy density w\m^2

portable\not

Efficiency

Distributed facturing

manu-

Energy used per person : Lighting \ cell phone\ tv \Health facility Business \ small factory \ production \shop Energy solution as economy driver (exchange \arrange)

Design Parameters 1. LI BATTERY lithium ions (Li+) move between the cathode and anode internally. Electrons move in the opposite direction in the external circuit. This migration is the reason the battery powers the device—because it creates the electrical current 2. GRAVITY BATTERY is a type of electricity storage device that stores gravitational energy, the energy stored in an object resulting from a change in height due to gravity 3. CLAY BATTERY Filling the jar with an acidic liquid, such as vinegar or fermented grape juice, and you have yourself a battery capable of generating a small current. 4. SAND BATTERY storage that uses sand or sand-like materials as its storage medium. It stores energy in sand as heat.

Analysis LIFETIME : 2-3 year RECHARGE TIME : 300 to 500 charge cycles CHANGE TIME: 3 per year MOVING PARTS : not movable PART LIST : anode \ cathode \ separator\

LIFETIME : 35 YEAR RECHARGE TIME : 2-18 hours CHANGE TIME: depends on the type of battery chemistry MOVING PARTS : not movable PART LIST : loade \ structure \ gravity

LIFETIME : unknown RECHARGE TIME :120 time CHANGE TIME: MOVING PARTS :movable easy to install PART LIST : neg & pos terminal\clay pot\iron LIFETIME : 20-200 YEAR RECHARGE TIME : 2 WEEK - 6 MONTH CHANGE TIME: CHANGING THE SAND ANY TIME MOVING PARTS : Easy & Simple to install PART LIST : solar panel\ sand \converter\wire


Analysis Functional Requirement Total Power Usage (per person \ per day ) capital cost

scale\ energy density w\m^2

Environmental \ health \ safety scale\ energy density w\m^2

portable\not

Efficiency

Distributed facturing

manu-

Energy used per person : Lighting \ cell phone\ tv \Health facility Business \ small factory \ production \shop Energy solution as economy driver (exchange \arrange)

Design Parameters 1. LI BATTERY lithium ions (Li+) move between the cathode and anode internally. Electrons move in the opposite direction in the external circuit. This migration is the reason the battery powers the device—because it creates the electrical current 2. GRAVITY BATTERY is a type of electricity storage device that stores gravitational energy, the energy stored in an object resulting from a change in height due to gravity 3. CLAY BATTERY Filling the jar with an acidic liquid, such as vinegar or fermented grape juice, and you have yourself a battery capable of generating a small current. 4. SAND BATTERY storage that uses sand or sand-like materials as its storage medium. It stores energy in sand as heat.

Analysis LIFETIME : 2-3 year RECHARGE TIME : 300 to 500 charge cycles CHANGE TIME: 3 per year MOVING PARTS : not movable PART LIST : anode \ cathode \ separator\

LIFETIME : 35 YEAR RECHARGE TIME : 2-18 hours CHANGE TIME: depends on the type of battery chemistry MOVING PARTS : not movable PART LIST : loade \ structure \ gravity

LIFETIME : unknown RECHARGE TIME :120 time CHANGE TIME: MOVING PARTS :movable easy to install PART LIST : neg & pos terminal\clay pot\iron LIFETIME : 20-200 YEAR RECHARGE TIME : 2 WEEK - 6 MONTH CHANGE TIME: CHANGING THE SAND ANY TIME MOVING PARTS : Easy & Simple to install PART LIST : solar panel\ sand \converter\wire


Functional Requirement Total Power Usage (per person \ per day ) capital cost

scale\ energy density w\m^2

Environmental \ health \ safety scale\ energy density w\m^2

portable\not

Efficiency

Distributed facturing

manu-

Energy used per person : Lighting \ cell phone\ tv \Health facility Business \ small factory \ production \shop Energy solution as economy driver (exchange \arrange)

Design Parameters 1. LI BATTERY lithium ions (Li+) move between the cathode and anode internally. Electrons move in the opposite direction in the external circuit. This migration is the reason the battery powers the device—because it creates the electrical current 2. GRAVITY BATTERY is a type of electricity storage device that stores gravitational energy, the energy stored in an object resulting from a change in height due to gravity 3. CLAY BATTERY Filling the jar with an acidic liquid, such as vinegar or fermented grape juice, and you have yourself a battery capable of generating a small current. 4. SAND BATTERY storage that uses sand or sand-like materials as its storage medium. It stores energy in sand as heat.

Analysis LIFETIME : 2-3 year RECHARGE TIME : 300 to 500 charge cycles CHANGE TIME: 3 per year MOVING PARTS : not movable PART LIST : anode \ cathode \ separator\

LIFETIME : 35 YEAR RECHARGE TIME : 2-18 hours CHANGE TIME: depends on the type of battery chemistry MOVING PARTS : not movable PART LIST : loade \ structure \ gravity

LIFETIME : unknown RECHARGE TIME :120 time CHANGE TIME: MOVING PARTS :movable easy to install PART LIST : neg & pos terminal\clay pot\iron LIFETIME : 20-200 YEAR RECHARGE TIME : 2 WEEK - 6 MONTH CHANGE TIME: CHANGING THE SAND ANY TIME MOVING PARTS : Easy & Simple to install PART LIST : solar panel\ sand \converter\wire


Analysis


Idea/Proposed Solution Sand Battery We are defining our concept as the decentralized production of environmentally sustainable batteries constructed from sand. These innovative sand-based batteries are intended to store solar energy and can be customized to accommodate a range of storage capacities, allowing us to cater to the specific energy needs of individuals.



Idea/Proposed Solution Sand Battery

Solar Panel

Aluminum Frame

Sand Battery



Ideation

Sand Battery

one Battery

Group of battries

contained in Holder

Connected to the solar Panels

How to create social communication and solidarity


60-200 w

600 w

2000 w

x 10

Different Sizes for different functions


Feasibility Sand Battery

• Bismuth(III) telluride is available in the market and can be easily purchased anywhere. •

In a feasibility study done by Fransisco Montero, a professor at University of Chile in 2022. The study shows that the calculated levelized cost of energy (LCOE) of the HPV-TEG system is 0.071 USD/kWh.

• This cost is relatively low and quantifies the advantages of HPV-TEG system over current solutions and opens the possibility for HPV-TEG systems to be competitive in the market.


Impact

Sand Battery

Environment -

Sustainable Available Unharmful

Economey

Socitey -

Enhance Social Participation Expandable

-

Distributed Manufacturing Help People start their own business.


Thank you!


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