Recruitment: (November 2024 - December 2024)

November 2024 - December 2024
  • Hung recruitment fliers in many buildings across campus
  • Reached out to various biology classes along campus
  • Read applications, conducted interviews, and sent out acceptance/rejection letters

Spring Semester 2025

Week 1: January 27 - February 2
  • Conducted preliminary literature reviews about SynBio applications in water and finalized project topic
  • Began trainings in wetlab techniques
  • Researched literature data to understand water synbio software needs and relevant mathematical models
Week 2: February 3 - February 9
  • Developed subproject ideas and experiments
  • Continued trainings in wetlab techniques, understanding safety guidelines
  • Looked into metagenomics data and modeling literature pertaining to subprojects
Week 3: February 10 - February 16
  • Developed case study topics for wet-lab proof of concept, while simultaneously conducting wetlab trainings
  • Conducted literature reviews on detection method, phage dynamics, and reviewed structure of metagenomic data
Week 4: February 17 - February 23
  • Researched cyanobacterial strains from ATCC, UTEX, and Carolina, and reviewed existing bacterial and species databases.
  • Expanded literature review on phage–bacteria dynamics and modeling, while refining earlier searches for detection methods.
Week 5: February 24 - March 2
  • Continued literature reviews for current methods
  • Decided on creating a predictive model
  • Began writing code for simulations of nonlinear systems of differential equations.
Week 6: March 3 - March 9
  • Reviewing literature for cyanophage engineering techniques
  • Reviewing machine learning models pertaining to desired applications
  • Focused on mcy gene expression and HABs
Week 7: March 10 - March 16
  • Ordered M. aeruginosa strain LE3 (UTEX 3037), began planning setup for growth conditions and inoculation
  • Conducted literature reviews on a biosensor and B. subtilis MICI biofilms
  • Confirmed data availability for machine learning model training. Decided on creating database to train a model on
  • Conducted simulations of phage-bacteria system of differential equations
Week 8: March 17 - March 23
  • Refining method for sensor implementation and application in real world
  • Refined initial software idea, decided on lat/long as essential inputs
Week 9: March 24 - March 30
  • Ordered reagents for making BG-11 media for growing cyanobacteria while continuing wetlab training
  • Looked more in depth as to how the parameters affect the phage-bacteria dynamics
  • Reviewed essential python packages for software development
Week 10: March 31 - April 6
  • Wrote up protocols for sensor implementation and conducted microscopy training
  • Looked at the sra database for what it offers.
Week 11: April 7 - April 13
  • Received initial orders of M. aeruginosa. Inoculated subcultures and determined a preliminary setup for culture growth, additionally made BG-11 media.
  • Began collection of studies that perform metaT and do DE gene analysis in HABs
  • Looked at optimal conditions datasets as features.
  • Started working on phage diffusion in biofilm model
Week 12: April 14 - April 20
  • Looked into a toehold riboswitch literature database
  • Inoculated new M. aeruginosa cultures
  • Decided on using real-world environmental data over lab data
  • Designed circuits for B. subtilis for corrosion prevention
Week 13: April 21 - April 27
  • Reanalyzed the geometry of the biofilm-phage mode
  • Started M. aeruginosa subcultures, tested growth in BG-11 media from different sources (premade by Carolina vs. UTEX vs. in house)
  • Continued database/dataset collection
Week 14: April 28 - May 4
  • Continued investigation of toehold riboswitch literature database
  • Found four useful databases
  • Looked into numerical methods for simulating partial differential equations
Week 15: May 5 - May 11
  • NASBA primers creation, targeted regions of mcy genome, and ordered plasmids
  • Determined procedures for creating BG-11 plates and growing M. aeruginosa lawns
  • Started deciding essential features for the software

May Break 2025

Week 16: May 12 - May 18
  • Designed circuits and ordered primers and plasmids
  • Designed experiments and determined assay techniques
  • Verified partial differential equations numerical simulations aligned with analytical solutions
  • Created BG-11 agar plates
  • Attempted to streak and spread M. aeruginosa on BG-11 agar plates and to grow lawns of M. aeruginosa
Week 17: May 19 - May 25
  • Designed circuits and ordered primers and plasmids
  • Designed experiments and determined assay techniques
  • Preparing media for culturing Bacillus subtilis
  • Shortlisting database/website extraction points.

Summer Session 2025

Week 18: May 26 - June 1
  • Began design of an in silico riboswitch for target region
  • Decided on prioritizing true metagenomics over 16s
  • Engineered plasmid encoding for a functional cellulase for mycobacterial biofilm degradation
  • Constructed diffusion model of phage infection of a biofilm
  • Brought up freeze-dried bacteria received from ATCC
  • Miniprepped plasmids received from Addgene
  • Determined procedure for taking M. aeruginosa OD measurements, began testing culture growth under different culturing conditions
  • Collected environmental samples, started cyanophage enrichments
Week 19: June 2 - June 8
  • Inoculated plasmids for riboswitch
  • Finalized databases to extract from
  • Attempted and failed to transform plasmid with cellulase into mycobacteria
  • Extracted genomic DNA for B. subtilis 168 and B. subtilis 3610
  • Successfully began growing M. aeruginosa on agar plates
  • Validated identity of M. aeruginosa cultures via culture PCR
  • Began first cyanophage plating assays
  • Re-analyzed geometry of system for biofilm-phage infection system of PDEs to a 1D cartesian model
Week 20: June 9 - June 15
  • Assembly of mcy trigger plasmid
  • Began growing phage to a high titer
  • Created web scraping scripts for each database
  • Amplify coding regions from B. subtilis genomic DNA
  • Mutated out BsaI restriction cut sites in a coding region and assembled them into an empty plasmid
  • Began first batch of liquid cyanophage assays
  • Constructed 1D advection simulations that demonstrated cyanophage is limited in treatment ability
  • Collected lakewater samples, attempted culture PCR on samples to search for presence of M. aeruginosa
Week 21: June 16 - June 22
  • Collecting trigger plasmid, confirming success
  • Finalized extraction
  • Confirmed success of the coding region plasmid
  • Ordered A. baylyi from Addgene (ADP1-ISx - Bacterial strain 216551)
  • Engineered B. subtilis integration vector to make it compatible with golden gate assembly
  • Attempted 16S culture PCR from environmental samples
  • Attempted environmental DNA extraction from lakewater samples
  • Analyzed mathematical model for phage-biofilm effectiveness
Week 22: June 23 - June 29
  • Assembling switch plasmid
  • Cleaning extracted data for merging.
  • Confirmed success of integration vector.
  • Conducted a session of BLAST science outreach program
  • Identified potential cyanophage plaque on an agar assay
  • Collected more environmental samples, started more enrichments and assays
  • Adapted Acinetobacter and parameters into mathematical model for simulations
  • Constructed novel mathematical model of Acinetobacter-M. aeruginosa dynamics
Week 23: June 30 - July 6
  • Confirming success of switch plasmid assembly
  • Looked into how to process our extracted samples for quantitative data
  • Assembled the promoter, RBS, CDS, terminator into the integration vector for B. subtilis
  • Made B. subtilis competent cells
  • Sequenced the assembly for B. subtilis and found a problem for the RBS
  • Visualized portion of potential cyanophage plaque on SEM, while conducting more cyanophage assays
  • Tested DNA and RNA extraction procedures on M. aeruginosa
  • Conducted parameter sweeps on Acinetobacter-M. aeruginosa dynamics
Week 24: July 7 - July 13
  • Redo-ing switch plasmid assembly, DE gene search
  • Chose Kraken and Bracken as our method of taxonomic processing
  • Ordered RBS as DNA oligos and redo the assembly into the integration vector
  • Ran existing M. aeruginosa sequences through Phastest software, compared existing M. aeruginosa cyanophage sequences with BLAST
  • Advection-reaction PDE models on Acinetobacter-HAB dynamics
Week 25: July 14 - July 20
  • New reporter addition to switch plasmid
  • Created metagenomic pipeline
  • Confirmed success of the integration vector assembly
  • Tested TRIzol procedure for M. aeruginosa RNA extraction
  • Observed substantial plaques on cyanophage assay plate, attempted to propagate plaques
  • Reaction-diffusion equations for phage transport in biofilms expanded for analysis
Week 26: July 21 - July 27
  • Cotransforming mcy switch and trigger
  • Ran samples through metagenomic pipeline
  • Transformed the constructed integration into B. subtilis
  • Conducted a small-scale RNA extraction M. aeruginosa and A. baylyi coculture experiment
  • Observed conditions for proper deployment of phage in pipes
  • Planned lakewater microcosm experiment
Week 27: July 28 - August 3
  • Beginning inducing of mcy co-transformation
  • Merged metagenomic pipeline sample output into a single matrix
  • Confirmed the success of the integration vector integrated into B. subtilis genome
  • Made specific media for B. subtilis biofilm assays
  • Inoculated preliminary lakewater microcosms and began preliminary RNA sequencing experiment
  • Wrote up models of phage pipe transport and HAB suppression

August Break 2025

Week 28: August 4 - August 10
  • Grew sterile biofilms on PVC pipes
  • Mutated single nucleotide mutations in switches
  • Merged taxonomic abundance result with previously extracted metadata
  • Literature reviews for B. subtilis biofilm assays
  • Sample collection for preliminary lakewater microcosm experiment
  • Created a differential equation for B. subtilis deployment & detachment
Week 29: August 11 - August 17
  • Began construction of pipe microcosm and 3D printing prototypes of the microcosm parts
  • Grew nonsterile biofilms on PVC pipes for microcosm innoculation
  • Redid mcy switch co-transformations
  • Created initial aquery database
  • Designed microcosms for B. subtilis corrosion protection ability
Week 30: August 18 - August 24
  • Set up final household pipe microcosms
  • Began inducing second mcy co-transformation
  • Reviewed machine learning models and started predictor script creation
  • Attempted RNA extractions from preliminary lakewater microcosm samples
  • Compiled the python files of the mathematical modeling

Fall Semester 2025

Week 31: August 25 - August 31
  • Began pipe microcosm experiment with flushings and bacterial titer sampling
  • Did a DE gene search in order to prepare to design DE gene (gdhA and cpcB switches)
  • Updated predictor script to utilize three classification models
  • Tested growth curve and biofilm morphology for B. subtilis
  • Attempted more RNA extractions from preliminary lakewater microcosm experiments
  • Compiled information and writeups for mathematical models
Week 32: September 1 - September 7
  • Further prepping to design DE gene (gdhA and cpcB switches)
  • Continued pipe microcosm experiment with titer measurements
  • Flushed pipe microcosm with phage
  • Further analyzed model for B. subtilis biofilm detachmen
  • Trained model on matrix containing environmental features and species abundance
  • Measured the motility for engineered B. subtilis strains
  • Inoculated new lakewater microcosms, began new microcosm experiment
Week 33: September 8 - September 14
  • Finished pipe microcosm experiment
  • Compiling info for wiki
  • Created database SQL format, along with streamlit application and api
  • Made microcosms for B. subtilis and took SEM pictures for the steel plates treated in microcosms
  • Collected samples for lakewater microcosm experiment
  • Extracted DNA and ran 16S PCRs for microcosm experiment samples
  • Tested new RNA extraction procedure for microcosm samples
  • Incorporated fitness score from the software into mathematical model framework
Week 34: September 15 - September 21
  • Flushed biofilms on pipes with phage and placed under HIROX microscope
  • Worked on RNA seq database, began running Transcriptomic pipeline on Galaxy
  • Created predictive model frontend scripts
  • Extracted RNA for RNA seq for all 3 case studies
  • Conducted more DNA extractions and PCRs for lakewater microcosm experiment
  • Compiled simulations and graphs from the mathematical model
Week 35: September 22 - September 28
  • Continuing work on RNA seq database, continued running Transcriptomic pipeline on Galaxy, functional analyses w/DAVID
  • Looked into metatranscriptomic and what it offers. Created metagenomic and metatranscriptomic comparison scripts
  • Extract 16S DNA for all 3 case studies, sent 16S for sequencing
  • Presented mathematical models on synthetic biology in aquatic systems
Week 36: September 29 - October 5
  • Analyzing 16S data for all 3 case studies
  • Writing up wiki pages
  • Utilizing David & Galaxy for RNA-seq analysis
  • Began AI-based T and metaT analysis
  • Saving models publicly available repository
  • Compiled graphs and heatmaps and simulations of mathematical models
Week 37: October 6 - Wiki Freeze!
  • Analyzed RNA-Seq data for all three case studies
  • Completing wiki
  • Continued AI-based T and metaT analysis
  • Completing wiki and pushing software tools