grant

Novel Technologies for Detection and Monitoring of Lung Disease

Organization SPIROMATICS, INC.Location CAMDEN, UNITED STATESPosted 16 Sept 2025Deadline 15 Sept 2026
NIHUS FederalResearch GrantFY202521+ years oldAcuteAddressAdultAdult HumanAffectAgeAgreementAir MovementsAlgorithmsAsthmaBiologicalBreathlessnessBronchial AsthmaCOPDCalibrationChronic Obstruction Pulmonary DiseaseChronic Obstructive Lung DiseaseChronic Obstructive Pulmonary DiseaseComputersConsumptionCuesCustomDataData AnalysesData AnalysisData CollectionDetectionDevelopmentDevicesDiagnosisDiagnosticDiagnostic DeviceDiagnostic EquipmentDiseaseDisorderDyspneaElectronicsEmphysemaEthnic OriginEthnicityExhalationExhalingFEV1FEV1%VCFEVtFlareForced Expiratory VolumeForced Expiratory Volume 1 TestForced Expiratory Volume in 1 SecondForced Vital CapacityForced expiratory volume functionFriendsGoalsHealth Care UtilizationHeightHomeIndividualIndustry StandardInhalationInhalingLung DiseasesMachine LearningMeasurementMeasuresMemoryMethodsMonitorNHANESNational Health and Nutrition Examination SurveyObstructionObstructive Lung DiseasesOutcomeOutputPFT/FEV1Patient Self-ReportPatientsPeripheralPhasePhase I StudyPopulationPopulation StudyPrimary CareProceduresProcessPulmonary DiseasesPulmonary DisorderPulmonary EmphysemaPulmonary Function Test/Forced Expiratory Volume 1PumpQOLQuality of lifeReportingRespiratory ExpirationSelf-ReportSpirometrySymptom BurdenSyringesTestingTimeTimed Forced Vital CapacityTimed Vital CapacityTranslatingUnited StatesUpdateVisualVital capacityaccurate diagnosisadulthoodagesair flowairflowairflow limitationairflow obstructionairway limitationairway obstructionapplication in practicebiobankbiologicbiorepositorychronic obstructive pulmonary disordercommercializationcontrolled environment chambercustomsdata interpretationdeep learningdeep learning methoddeep learning strategydemographicsdesigndesigningdetection methoddetection proceduredetection techniquedevelopmentaldisease of the lungdisorder of the lungelectronicelectronic deviceemphysematousergonomicsgenetic epidemiologic studygenetic epidemiologyhealth care service usehealth care service utilizationhomeshuman subjectinnovateinnovationinnovativelung disorderlung functionmachine based learningmachine learned algorithmmachine learning algorithmmachine learning based algorithmmortalitynew technologynovelnovel technologiesobstructed airflowobstructed airwayobstructive pulmonary diseasesphase 1 studypopulation-based studypopulation-level studyportabilitypractical applicationprimary care clinicprototypepulmonary functionrespiratoryrespiratory airway obstructionresponse to therapyresponse to treatmentsensorsexsmall airways diseasestudies of populationsstudy of the populationtherapeutic responsetherapy responsetreatment responsetreatment responsiveness
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Full Description

Project Summary/ Abstract
Obstructive lung diseases such as chronic obstructive pulmonary disease (COPD) and bronchial asthma

affect approximately 42 million individuals in the United States alone. About 70% of those with spirometry-defined

obstruction remain undiagnosed. These individuals without a diagnosis suffer from a high symptom burden,

frequent exacerbations, and high healthcare utilization. Current methods of diagnosing abnormal lung function have

not majorly changed since the 1940s. The diagnosis of airflow obstruction is made using the ratio of the forced

expiratory volume in the first second (FEV1) to the forced vital capacity (FVC). Determining an abnormal ratio

requires adjustment for population demographics that need frequent updates, so they are representative.

Spirometry with forced exhalation is also time-consuming and difficult for many patients to perform; it requires

expert coaching and multiple efforts to be repeatable. The course of disease is punctuated by acute worsening,

termed exacerbations. The detection of exacerbations currently relies on subjective patient self-report, which can

delay diagnosis. There is, therefore, an unmet need for better diagnostic and monitoring.

Spiromatics Inc. is addressing this unmet need through the development of a portable, handheld, miniature,

spirometer equipped with audiovisual coaching and innovative solutions for assessing and diagnosing abnormal

lung function. We have developed novel methods of detecting airflow limitation with which we are able to detect an

additional 11% individuals who would remain undiagnosed using traditional criteria. In addition, we have developed

an easy to use completely innovative way of measuring lung function that takes only two minutes and is extremely

patient friendly. This easier-to-use method of detecting airflow obstruction has several immediate practical

applications. It can enhance the use of spirometry methods in primary care clinics which often do not perform

spirometry due to its complexity; the method can be used for monitoring lung disease at home; and the method can

be used to detect exacerbations or flare-ups of disease earlier than symptomatically reported by patients.

The goal of this proposal is to develop a portable handheld customized miniature spirometer with embedded

firmware to facilitate deployment of our proprietary algorithms. We propose two specific aims. In Aim 1, we will

design and build a customized prototype portable spirometer that meets industry standards. In Aim 2, we will design

and implement firmware enabling efficient data analyses for accurate diagnosis of lung disease, and test these

algorithms in human subjects. The expected outcomes of this Phase I study include a data- and memory-efficient,

spirometer with advanced machine learning capabilities that can be used both in primary care offices for diagnosis

and at patients’ homes for disease monitoring. The successful accomplishment of these goals will set the stage for

population-based studies in Phase II for diagnosis, monitoring disease activity, and assessing response to

treatment.

Grant Number: 1R41LM015295-01A1
NIH Institute/Center: NIH

Principal Investigator: Shiv Bhatt

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