grant

ARCHERY: Artificial Intelligence based Radiotherapy treatment planning for Cervical and Head and Neck cancer

Organization UNIVERSITY COLLEGE LONDONLocation LONDON, UNITED KINGDOMPosted 1 Sept 2022Deadline 31 Aug 2027
NIHUS FederalResearch GrantFY2025AI basedAI systemAddressAnatomic SitesAnatomic structuresAnatomyAreaArtificial IntelligenceAutomationBreastCAT scanCT X RayCT XrayCT imagingCT scanCancer BurdenCancer CenterCancer HospitalCancer PatientCancer TreatmentCancersCervicalCervical CancerCervix CancerComputed TomographyComputer ReasoningComputer softwareCost SavingsCountryDiseaseDisorderEconomic IncomeEconomical IncomeEffectivenessEnsureEsophageal CancerEsophagus CancerEuropeanFederation of MalayaFutureHead and Neck CancerHead and Neck CarcinomaHealth StatusHuman ResourcesImprove AccessIncidenceIncomeIndiaInternationalJordanLMICLevel of HealthLow incomeLungLung Respiratory SystemMachine IntelligenceMalay FederationMalayaMalaysiaMalignant Cervical NeoplasmMalignant Cervical TumorMalignant Esophageal NeoplasmMalignant Esophageal TumorMalignant Head and Neck NeoplasmMalignant Neoplasm TherapyMalignant Neoplasm TreatmentMalignant Neoplasm of the CervixMalignant NeoplasmsMalignant TumorMalignant Tumor of the CervixMalignant Tumor of the Cervix UteriMalignant Tumor of the EsophagusMalignant Uterine Cervix NeoplasmMalignant Uterine Cervix TumorMalignant neoplasm of cervix uteriMalignant neoplasm of esophagusManpowerManualsMedicalModalityModelingMulti-center studiesMulticenter StudiesNational Cancer BurdenOncologistOrganOutcome MeasurePathway interactionsPatient ParticipationPatientsPositionPositioning AttributeProcessProspective StudiesProtocolProtocols documentationPublic HealthPublic SectorQOLQuality of lifeRadiationRadiation OncologyRadiation induced damageRadiation therapyRadiotherapeuticsRadiotherapyResearch ResourcesResourcesRiskSample SizeShapesSocietiesSoftwareSouth AfricaSpecialistState HospitalsSurvey InstrumentSurveysTimeTomodensitometryUterine Cervix CancerWomanX-Ray CAT ScanX-Ray Computed TomographyX-Ray Computerized TomographyXray CAT scanXray Computed TomographyXray computerized tomographyanti-cancer researchanti-cancer therapyartificial intelligence basedburden of diseaseburden of illnesscancer researchcancer therapycancer typecancer-directed therapycatscanclinical validationcomputed axial tomographycomputer tomographycomputerized axial tomographycomputerized tomographycostcurative interventioncurative therapeuticcurative therapycurative treatmentsdesigndesigningdisease burdeneconomic impacthead/neck cancerhealth levelimprovedincomeslow and middle-income countrieslow income countrymalignancymalignant head and neck tumormeasurable outcomemeetingmeetingsmenmortalityneoplasm/cancernon-contrast CTnoncontrast CTnoncontrast computed tomographyoesophageal canceroutcome measurementpalliationpathwaypersonnelprospectiveradiation damageradiation riskradiation treatmentsecondary outcometherapy optimizationtime usetreatment optimizationtreatment planningtreatment with radiationtumorweb servicesweb-based service
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Full Description

PROJECT SUMMARY
50% of cancer patients require radiotherapy during their disease course, however, only 10-40% of patients

in low and middle-income countries (LMICs), have access to it. A shortfall in the specialised workforce to

deliver radiotherapy has been identified as the most significant barrier to expanding radiotherapy capacity.

The current radiotherapy workflow is inefficient requiring several labor intensive processes and takes

weeks to months to deliver in LMICs. The growing demand for cancer treatment means that the ratio of

incidence to mortality will continue to worsen without a scalable solution.

Artificial intelligence (AI) based software has been developed to automate two components of the

radiotherapy planning pathway 1. Delineation of anatomical areas that are at risk of tumour spread and at

risk of radiation damage. 2. Definition of the position, size and shape of the radiation beams. Proposed

advantages include improved treatment accuracy, as well as a reduction in the time (from weeks to less

than a day) and human resources needed to deliver radiotherapy.

We propose a non-randomised prospective study to evaluate the quality and economic impact of AI based

automated radiotherapy treatment for cervical cancer and head and neck cancers, which are endemic in

LMICs, and for which radiotherapy is the primary curative treatment modality. The sample size of 706

patients (353 for each cancer type) has been calculated based on an estimated 95% treatment plan

acceptability rate. Time and cost savings will be analysed as secondary outcome measures to establish

the cost and resource impact of automation using the time-driven activity-based costing model.

The 48-month study will take place in six public sector cancer hospitals in India (n=2), Jordan (n=1), Malaysia

(n=1), and South Africa (n=2) to ensure we include a broad range of patients and the representativeness of

the findings will support implementation of the software in LMICs.

If the study objectives are met, the AI based software will be offered as a not-for-profit web service to

public sector state hospitals in LMICs to support expansion of high quality radiotherapy capacity, improving

access, and affordability of this key modality of cancer cure and control.

Grant Number: 3U01CA269143-03S3
NIH Institute/Center: NIH

Principal Investigator: Ajay Aggarwal

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