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HAIQU (Hospital AIr QUality) (HAIQU)

2026年6月25日 更新者:Connie B. Chang、Mayo Clinic

HAIQU (Hospital AIr QUality): Breathing Life Into Patient Care

The purpose of this research is to assess whether integration of an aerosol biosensor and air quality risk assessment software that integrates into a building management system will improve indoor air quality metrics in hospital environments and reduces risk factors associated with respiratory disease transmission.

調査の概要

状態

まだ募集していません

詳細な説明

Executive Summary. The Hospital AIr QUality (HAIQU) team will develop a biosensor and risk assessment software to detect pathogens in indoor air, to be integrated with building management system (BMS), focusing on improving indoor air quality in hospitals to reduce disease transmission and enhance patient outcomes. The HAIQU biosensor will combine high-flow-rate aerosol collection highly sensitive and specific CRISPR detection, and digital droplet microfluidics to continuously detect multiple viral, bacterial, and fungal pathogens from indoor air. The HAIQU risk assessment software will combine multi-scale modeling into a 'digital twin', or virtual representation of an indoor space to model pathogen distribution and exposure risk to occupants. The HAIQU tools will be applied in clinical studies within the emergency departments (EDs) of Mayo Clinic campuses in MN, WI, AZ, and FL. Integrating with building control systems, the HAIQU biosensor and software will inform strategies to mitigate bioaerosol risks, enhance productivity, save energy and costs, and protect the health of staff and patients. By ensuring clean and safe indoor air, these tools will contribute to smarter, more resilient buildings that improve cognitive performance, wellness, and overall human health.

Goals and Impact. Although people spend the majority of our time indoors, indoor air quality (IAQ) is often overlooked, with more attention given to outdoor air quality. However, clean indoor air is essential for health and well-being. Monitoring of indoor air currently lags behind other 'big data' surveillance technologies, such as wearable health monitors and disease tracking. HAIQU aims to bridge this gap by developing rapid, real-time biosensing and risk assessment tools for healthier and safer hospital buildings. Current biosensing methods are slow, non-autonomous, and limited to detecting only a few pathogens at a time. Typically, aerosol samples are collected onto a filter over two to eight hours, then manually processed for detection, often using nucleic acid amplification. For example, researchers at Mayo performed clinical trials using the Thermo Scientific AerosolSense paired with the Renvo Rapid PCR Test to detect influenza A/B, SARS-CoV-2, and RSV. Though advanced microfluidic nucleic acid amplification methods exist that are more conductive to multiplexing, combining these methods with continuous or semi-continuous aerosol collection for rapid, autonomous detection is still lacking. To detect bioaerosols which are present at very low concentrations (<1 per L), high flow rate sampling must be paired with highly sensitive, multiplexed detection methods. Here, the investigators propose the HAIQU biosensor, a portable device that enables rapid, autonomous, and near real-time bioaerosol detection. It combines high flow rate virtual impactors and condensers for aerosol capture with drop-based microfluidics, CRISPR-Cas-based detection, and multiplexed barcoding. The healthcare environment provides an ideal use case for the proposed technologies. In EDs, patients often present with undiagnosed infectious diseases that can lead to significant exposures and outbreaks among staff, patients, and visitors, sometimes only recognized after diagnosis. Detection of airborne pathogens can prevent and reduce hospital-acquired infections, which are a leading cause of illness and lost worktime.

TECHNICAL AREA 1: The final HAIQU biosensor will be capable of detecting multiple pathogens (25 real-world, viral + bacterial + fungi; 100 lab-based) with >95% sensitivity and >99% specificity, once every 45 minutes.

TECHNICAL AREA 2: HAIQU risk assessment software will include a multiscale modeling framework to predict and assess infectious disease risk in indoor environments. The multi-scale modeling framework incorporates scales from individual events to room-level and system-level information, to yield outputs and predictions of bioaerosol dispersion, infection risk, number infected, intervention recommendations, and energy calculations.

TECHNICAL AREA 3: Multi-site field trials using the HAIQU biosensor and software in Mayo Clinic's emergency departments will be performed targeting a 25% decrease in facility-related incidence of each targeted respiratory illness relative to baseline data. Biosensor data will be combined with air quality sensing data and multi-system building controls and intervention.

研究の種類

介入

入学 (推定)

850

段階

  • 適用できない

連絡先と場所

このセクションには、調査を実施する担当者の連絡先の詳細と、この調査が実施されている場所に関する情報が記載されています。

研究連絡先

研究場所

    • Arizona
      • Phoenix、Arizona、アメリカ、85054
        • Mayo Clinic Arizona
    • Florida
      • Jacksonville、Florida、アメリカ、32224
        • Mayo Clinic Florida
    • Minnesota
      • Rochester、Minnesota、アメリカ、55905
        • Mayo Clinic

参加基準

研究者は、適格基準と呼ばれる特定の説明に適合する人を探します。これらの基準のいくつかの例は、人の一般的な健康状態または以前の治療です。

適格基準

就学可能な年齢

  • 大人
  • 高齢者

健康ボランティアの受け入れ

はい

説明

Inclusion Criteria:

Target Group:

  • Mayo Clinic Staff working in ED with a minimum of .7 FTE in Midwest (MN and WI), Phoenix (AZ), or Jacksonville (FL) and patient contact.

Reference Group:

  • Mayo Clinic Staff working in primary care with a minimum of .7 FTE. in Rochester (MN), Phoenix (AZ), or Jacksonville (FL) and patient contact

Exclusion Criteria:

  • Any participant who does not meet either of the inclusion criteria.

研究計画

このセクションでは、研究がどのように設計され、研究が何を測定しているかなど、研究計画の詳細を提供します。

研究はどのように設計されていますか?

デザインの詳細

  • 主な目的:防止
  • 割り当て:なし
  • 介入モデル:単一グループの割り当て
  • マスキング:なし(オープンラベル)

武器と介入

参加者グループ / アーム
介入・治療
実験的:Emergency Department Employees
Emergency Department employees will act as the target group with the Emergency Department building implementing the HAIQU air quality sensor.
Participants will self-report when they are experiencing respiratory symptoms and will be asked for a self-swab to be used for data analysis.

この研究は何を測定していますか?

主要な結果の測定

結果測定
メジャーの説明
時間枠
Number of participants to experience acute respiratory infection (ARI) symptoms
時間枠:3 years
Symptoms include: at least 2 upper respiratory symptoms for at least 24 hours; OR at least 2 symptoms that include an upper/lower respiratory symptom and a systemic symptom (fever, fatigue, body aches, headache, decreased appetite) for at least 24 hours
3 years

二次結果の測定

結果測定
メジャーの説明
時間枠
Number of confirmed cases of acute respiratory infections
時間枠:3 years
Number of cases confirmed by at least one viral panel-positive swab detected by RT-PCR
3 years
Number of confirmed cases of lower respiratory tract disease
時間枠:3 years
Number of cases of lower respiratory tract disease confirmed by at least one viral panel-positive swab detected by RT-PCR
3 years

協力者と研究者

ここでは、この調査に関係する人々や組織を見つけることができます。

スポンサー

捜査官

  • 主任研究者:Connie Chang, Ph.D.、Mayo Clinic
  • 主任研究者:Chung Wi, M.D.、Mayo Clinic

研究記録日

これらの日付は、ClinicalTrials.gov への研究記録と要約結果の提出の進捗状況を追跡します。研究記録と報告された結果は、国立医学図書館 (NLM) によって審査され、公開 Web サイトに掲載される前に、特定の品質管理基準を満たしていることが確認されます。

主要日程の研究

研究開始 (推定)

2026年10月1日

一次修了 (推定)

2029年9月30日

研究の完了 (推定)

2029年9月30日

試験登録日

最初に提出

2026年6月19日

QC基準を満たした最初の提出物

2026年6月19日

最初の投稿 (実際)

2026年6月26日

学習記録の更新

投稿された最後の更新 (実際)

2026年6月29日

QC基準を満たした最後の更新が送信されました

2026年6月25日

最終確認日

2026年6月1日

詳しくは

本研究に関する用語

その他の研究ID番号

  • 24-013166
  • ARPA-H-SOL-24-107 (その他の助成金/資金番号:ARPA-H BREATHE)

個々の参加者データ (IPD) の計画

個々の参加者データ (IPD) を共有する予定はありますか?

いいえ

IPD プランの説明

Individual participant data (IPD) will not be shared because the study collects detailed longitudinal health, occupational, and location-related information from Mayo Clinic employees. Although data will be coded for research purposes, the combination of respiratory health outcomes, workplace characteristics, and real-time location system (RTLS) data may increase the risk of participant re-identification. To protect participant privacy, confidentiality, and institutional data security requirements, individual-level datasets will not be made available to external researchers. Aggregate and de-identified study results will be reported through scientific publications and presentations in accordance with applicable regulations and institutional policies.

医薬品およびデバイス情報、研究文書

米国FDA規制医薬品の研究

いいえ

米国FDA規制機器製品の研究

いいえ

この情報は、Web サイト clinicaltrials.gov から変更なしで直接取得したものです。研究の詳細を変更、削除、または更新するリクエストがある場合は、register@clinicaltrials.gov。 までご連絡ください。 clinicaltrials.gov に変更が加えられるとすぐに、ウェブサイトでも自動的に更新されます。

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