HMF Production Using Agro-Waste

Project number
23122
Organization
UA Department of Chemical and Environmental Engineering
Academic year
2022-2023
This project focuses on designing a process that can achieve a year-round production of at least 95% 5-hydroxymethylfurfural (HMF) sourced from multiple agricultural waste inputs that are readily available in the state of Arizona, while minimizing the use of hazardous reagents in the process. This process will help farms and farm industries manage their agricultural waste that is harmful to their land and the environment, and will increase the production of HMF, a component readily used in the creation of the biofuel DMF, as well as in potential applications in polyester manufacturing.

Dealcoholization of Red Wine Using Osmotic Distillation

Project number
23121
Organization
UA Department of Chemical and Environmental Engineering
Academic year
2022-2023
Climate change has caused the percent of alcohol by volume (%ABV) of wine to increase by 2% globally which has resulted in undesirable flavor changes in wines. Production of a low alcohol wine would help to control the quality of wine and give more options to consumers. In response to these issues, the demand of no- and low- alcohol drinks have been growing over the last few years. This project focuses on the dealcoholization of wine while attempting to retain the visual, aromatic, and flavor characteristics. Ethanol is removed from red wine using osmotic distillation. This method was chosen as it was found through research to be the most cost effective choice and best at retaining the sensory characteristics of wine. In this process, feed wine and stripping distilled water are run in counter-current flow over a hydrophobic polypropylene membrane. Ethanol moves from the wine into the stripping water, resulting in a reduced alcohol wine.

Bioplastic Synthesis Using Organic Waste Material

Project number
23120
Organization
UA Department of Chemical and Environmental Engineering
Academic year
2022-2023
Plastic takes many years to decompose and continues to pollute the environment. This necessitates the need for biodegradable plastics that can replace the current fossil fuel based plastics. Furthermore, an enormous amount of organic waste is produced every year. This study aims to synthesize cellulose and starch based bioplastic from food waste material. While there are current studies that describe some processes for this synthesis, current bioplastics are unable to match the performance of conventional plastics. Through this project, we examine alternative biodegradable plastics to enhance the mechanical and thermal properties of bioplastics and decrease costs by using waste products as raw materials.

AZ Water Competition: Rainbow Valley Water Reclamation Facility Expansion Project

Project number
23119
Organization
UA Department of Chemical and Environmental Engineering
Academic year
2022-2023
This project focuses on the expansion of the Rainbow Valley Water Reclamation Facilities process capacity from 0.75 MGD to 1.5 MGD. The expansion will take place while keeping the plant operational during construction and will include a liquid and solid processing train to meet A+ reclaimed water and class B biosolid standards, each with operational redundancy. Odor control and improvement on the site's current biosolids storage and treatment process will also be addressed.

Re-injection & Extraction Process for Simulated Crude Oil Plant

Project number
23117
Organization
UA Department of Chemical and Environmental Engineering
Academic year
2022-2023
Enhanced oil recovery is a method of extracting additional oil from oil fields. This process is accomplished by reinjecting liquid and/or gas back into the oil reservoir to re-establish the lost pressure from pumping out the oil. This project focuses on the reinjection of gas into the oil well using the tertiary reinjection of methane, specifically in an Alaskan oil field. Before being reinjected into the reservoir, the methane must be separated from the oil and water that is entrained in it. This is done by using a series of heat exchangers, separators, and compressors to safely and efficiently separate the different components out for use in their own streams. The safety of this process is of utmost importance since many pieces of equipment are operating at a high pressure and high temperature. To reduce operator injuries and prevent the need for maintenance, misters and control valves will be used to maintain safe operations at all times. Optimal operations for this process will yield an increased separation and recovery of oil and natural gas as well as increase safety and decrease the need for maintenance.

Perfume Manufacturing Process

Project number
23116
Organization
UA Department of Chemical and Environmental Engineering
Academic year
2022-2023
Currently within the perfume manufacturing industry, there is a lack of sustainable energy usage and the process is typically solely powered by the electrical grid. By implementing sustainable energy through use of solar panels to power the manufacturing process, the environmental impact is alleviated which sets a standard for other plants to follow.

Perfume has a long history of being worn for a variety of personal or cultural reasons. The perfume industry is a growing market, especially for products targeted towards day to day wear. The perfume formulated in this manufacturing process was Eau de Parfum with 15% essential oil concentration, most common for everyday wear. The scent of the perfume has notes of orange, cinnamon, and vanilla with the orange and cinnamon essential oils extracted from raw materials through steam distillation.

Dial-Assist

Project number
23115
Organization
Kidney ADVANCE Project - NIH/ACABI
Academic year
2022-2023
Hemodialysis functions to remove the build up of salts, water, and toxins from the body when a patient's kidneys are not working adequately. For many patients, receiving hemodialysis treatments means traveling to a hospital or dialysis center several times each week for hours at a time. With an increase in remote healthcare technology, hemodialysis has expanded to the home. Within the hospital or home setting, hemodialysis devices are still a water intensive process that results in all wastewater being disposed of. Dial-Assist supplements commercial portable hemodialysis systems by recycling the effluent wastewater, also known as dialysate, to minimize the need for a tap water connection and increase the independence of the patient. The system is comprised of sorbent canister to remove salts and uremic toxins and utilizes UV sterilization to destroy bacteria. The effluent dialysate is recycled to a purity level that allows it to be reused by the patient once the prescribed amount of salts and other dialysate components are re-added. The entirety of the device fits in a compact container above the portable dialysis system. Dial-Assist will aid in the progression of more independent hemodialysis treatments so that patients dealing with kidney disease may have a higher quality of life.

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