SBIR-STTR Award

Nanoscale Test Strips for Multiplexed Blood Analysis
Award last edited on: 4/1/2023

Sponsored Program
SBIR
Awarding Agency
NASA : JSC
Total Award Amount
$699,998
Award Phase
2
Solicitation Topic Code
X10.01
Principal Investigator
Eugene Yan-Ho Chan

Company Information

The DNA Medicine Institute (AKA: Chan Research, Inc~DNA Medicine Institute)

727 Massachusetts Avenue
Cambridge, MA 02139
   (617) 913-7630
   info@dnamedinstitute.com
   www.dnamedinstitute.com
Location: Single
Congr. District: 05
County: Middlesex

Phase I

Contract Number: NNX09CE32P
Start Date: 1/22/2009    Completed: 7/22/2009
Phase I year
2009
Phase I Amount
$100,000
The goal of our nanoscale test strips, or nanostrips, is to provide rapid, low-cost, powerful multiplexed analyses in a diminutive form so that whole body health checks can be performed on a single drop of blood. The approach is conceptually similar to pH or urinalysis test strips which allow multiple measurements in a linear format. The main difference is that we are proposing test strips at the nanoscale, shrunk in size over 100,000-fold in surface area, allowing multiple sensing elements to be included in a small area. The fluorescence from each element assesses the concentration of each measured analyte. In this Phase I, we will fabricate, test, and characterize test nanostrips and fabricate ones for bone metabolism. For Phase II, we will develop an entire suite of nanostrips for cardiac function, bone metabolism, liver function, lipid analysis, and hormone measurements. The nanoscale test strips are read in a time-of-flight flow-based manner utilizing our rHEALTH (Reusable Handheld Electrolytes & Lab Technology For Humans sensor) sensor, which is a low-cost, handheld sensor that employs a reusable microfluidic chip, developed with NASA funding. At the end of Phase II, the nanostrip assay suite will be delivered together with a handheld rHEALTH sensor.

Potential NASA Commercial Applications:
(Limit 1500 characters, approximately 150 words) Real-time health monitoring the proposed nanostrips are designed to monitor daily astronaut status so that adverse health events can be managed. Real-time intervention monitoring of routine health status allows rapid intervention. Measurement of bone loss during space flight via measurement of PTH, vitamin D, phosphate, calcium, N-telopeptide, and alkaline phosphatase. Liver function measurements in times of need. Measurement of cardiac biomarkers for chest pain to rule out myocardial infarction. Measurement of full body health in response to astronaut illness. Monitoring of astronaut renal function to assess volume status. Tracking of bone biomarkers and calcium levels throughout duration of missions to assess intangible bone loss and remodeling. Study of astronaut health in response to micro- and hypo-gravity environments. Study of space radiation effects on astronaut health. Measurement of astronaut fluid status in response to diets on long space trips. Systematic monitoring of astronaut health status during training on Earth.

Potential NON-NASA Commercial Applications:
(Limit 1500 characters, approximately 150 words) Real-time health monitoring development of the nanostrip panels allows monitoring of health status in real-time at the bedside or doctor's office. Real-time intervention rapid diagnosis allows immediate interventions. Measurement of acute liver damage to diagnose early hepatitis or hepatic encephalopathy. Detection of acute myocardial damage rapidly and outside the hospital so that life-saving therapy can be administered for heart attack patients. Monitoring resolution of a patient's osteoporosis with treatment so that therapy can be optimized. Monitoring daily renal function of patients with kidney transplants or those with renal disease. Measurement of athlete volume status during prolonged training for early diagnosis. Systematic measurement of lipid panels to optimize diet on more frequent intervals. Study of bone health during long journeys. Study dehydration and volume status in field personnel. Measurement of a drug's potential adverse effects on health during clinical trials. Study of myocardial damage by measuring cardiac biomarkers in hypoxic situations. NASA's technology taxonomy has been developed by the SBIR-STTR program to disseminate awareness of proposed and awarded R/R&D in the agency. It is a listing of over 100 technologies, sorted into broad categories, of interest to NASA.

Technology Taxonomy Mapping:
Biochemical Biomolecular Sensors

Phase II

Contract Number: NNX10CA97C
Start Date: 1/26/2010    Completed: 6/1/2012
Phase II year
2010
Phase II Amount
$599,998
The goal of our nanoscale test strips, or nanostrips, is to provide rapid, low-cost, powerful multiplexed analyses in a diminutive form so that whole body health checks can be performed on a single drop of blood. The approach is conceptually similar to pH or urinalysis test strips which allow multiplexed measurements in a linear format. The main difference is that we are proposing test strips at the nanoscale, shrunk in size over a billion-fold in volume, allowing multiple sensing elements to be included in a tiny area. In Phase I, we fabricated, tested, and demonstrated functional parathyroid hormone and vitamin D nanostrips for bone metabolism. Furthermore, we developed thrombin aptamer and immune IgG antibody nanostrips. For Phase II, we will develop a breadth of nanostrips designed to address key space-flight medical needs. These will be for assessment of bone metabolism, immune response, cardiac status, liver metabolism, and lipid profiles. We plan to enhance our technology capabilities by developing a Rapid Nanostrip Assay Capability, mix-and-run assay capability, in-house aptamer production, advanced lyophilization technology, and nanostrip accelerated stability tests. The nanostrips will be read out in a time-of-flight flow-based manner utilizing our rHEALTH sensor.

Potential NASA Commercial Applications:
(Limit 1500 characters, approximately 150 words) Routine assessment of bone biomarkers during space flight enables diagnosis of bone loss and remodeling. Rapid assessment of altered immune response biomarkers allows detection of infection, immunocompromised states, and hematological malignancies. The stresses of space flight put the heart at increased risk for coronary events; measurement of cardiac biomarkers is vital to cardiac health. Liver function assessment gives insight into drug side effects and nutritional status. Lipid measurements allow early diagnosis of elevated levels and can prevent coronary and vascular disease. The technology can be utilized in diagnose-to-treat scenarios, where rapid diagnosis leads to life-saving treatments.



Potential NON-NASA Commercial Applications:
:

(Limit 1500 characters, approximately 150 words) Nanostrips allow comprehensive monitoring of health status in real-time at the bedside or doctor's office. The technology can be utilized in diagnose-to-treat scenarios, where rapid diagnosis allows immediate life-saving treatments. Detection of acute myocardial damage rapidly allows prompt administration of therapy. Point-of-care monitoring of bisphosphonate therapy allows dosage optimization for patients with osteoporosis. Emergent diagnoses of acute cholecystitis correctly triage patients with acute abdominal pain. Point-of-care lipid nanostrips give immediate results to patients. rHEALTH and nanostrips facilitate home-based tests and measurements. Myocardial damage can be studied by measuring cardiac biomarkers in hypoxic situations. Immune function can be assessed daily for patients with autoimmune disorders. Bone remodeling in Paget's disease can be studied. The effects of drugs and diet on liver function can be assessed. The immune system can be studied after exposure to stress, toxins, allergens, and other agents. NASA's technology taxonomy has been developed by the SBIR-STTR program to disseminate awareness of proposed and awarded R/R&D in the agency. It is a listing of over 100 technologies, sorted into broad categories, of interest to NASA.

Technology Taxonomy Mapping:
Biomedical and Life Support Biomolecular Sensors