Novel Detection of Hematological Cancer: A Proposed Conductivity Based Analysis for Early Leukemia Cell Identification
CSEF · 2012 Biochemistry/ Molecular Biology
Overview
Objectives/Goals The objective of this research was to define a novel method of detecting hematological malignancies (blood cancers) based on conductivity fluctuations within the blood. This study aimed to lower blood cancer detection costs, with focus on portable cancer detection devices. As opposed to current methods of detection (flow cytometry, cell cytogenetics), which are confined to laboratories; the proposed form of detection was aimed to function in home-based environments, and provide instantaneous blood readings. Such a method could revolutionize blood cancer detection, by simplifying the detection process, and reducing costs. Methods/Materials The research was conducted by isolating cell samples of healthy Canine White Blood Cells (WBCs), and diseased ML3 Leukemia Canine cells. Following this, the cells were separated and re-concentrated through centrifugal process into 4 experimental concentrations. The YSI-80 Conductivity Meter was then used to take milliSiemens/cm Conductivity readings for each of the experimental groups over various trials. The mS/cm Conductivity data was then consolidated to chart the conductivity values of ML3 Leukemia cells in comparison to healthy WBCs. Based on differences in conductivity readings; Leukemia would be distinguishable. Results The data showed a 2% drop in conductivity in Leukemia Cell groups in comparison to healthy WBC samples. The healthy blood cell groups maintained average conductivity readings of 13.7385 mS/cm, while the Leukemia test groups had a 13.57725 mS/cm average reading. This conductivity drop between the samples was proven as a statistically significant trend using T-Test analysis with a P-Value of .002. Furthermore, the data proved the CFU-GM Myeloblastic Absorption Theory, which explains the conjecture behind Leukemia cell conductivity drops, and validated the produced data trends. Conclusions/Discussion The research has shown that Leukemia is distinguishable from healthy blood samples based on Conductivity readings. This method of Leukemia detection reduces detection costs by 99.75%; and could maximize portability by operating in the format of a handheld conductivity meter. The proposed conductivity based method is comparable to a #thermometer# for blood cancer, by providing a low-cost preliminary detection method. Furthermore, the detection method could help Leukemia relapse victims monitor blood health from within their own homes.
Summary statement
I created a novel method of detecting blood cancer based on Conductivity; that could eventually lower costs, and detect Leukemia earlier.
Help received
Dr. Valerie Morris at the Fred Hutchinson Cancer Research Center gave access to lab facility and answered questions. Dr. Majeti from Stanford answered questions through email, and in person.
Competition history
- CSEF 2012
Resources
Related projects
CSEF · 2015
The Role Model Effect: Optimizing Blood Macrophage Signal Transduction in a Novel Treatment Method for Leukemia
ISEF · 2025
A ML Based, Noninvasive Method to Monitor White Blood Cells Count Pre and Post Chemotherapy Sessions
CSEF · 2017
Genome-Based Discovery of Novel CpG Biomarkers for Early Diagnosis and Prognosis of Leukemia
CSEF · 2015
A Handheld Hematology Analyzer Using Acoustic Enhanced Blood Smear Devices
ISEF · 2022
Smart Leukemia Labs: A Low-Cost Microscope and Diagnostic Tool That Use Semantic Segmentation, Image Processing and Object Detection To Detect Acute Lymphoblastic Leukemia
ISEF · 2022
A Novel Approach of Deep Learning on Detection and Classification of Leukemic Cells and BCR-ABL1 Gene
ISEF · 2023
A Novel Imaging Technique: Using Fluorescent Dyed Silica Nanoparticles in Identifying Leukemia Biomarkers
CSEF · 2013
The Study of the Effects of Electromagnetic Fields at Various Frequencies upon Cancerous and Noncancerous Cells
Closest projects by meaning, across every fair and year in the corpus.
Browse more like this
Source: California Science & Engineering Fair public projects