| Literature DB >> 33958056 |
Raymund R Razonable1, Nicole C E Aloia2, Ryan J Anderson3, Gokhan Anil4, Lori L Arndt5, Richard F Arndt6, Sara E Ausman6, Sarah J Bell7, Dennis M Bierle8, Marcie L Billings9, Rachel K Bishop10, Carl H Cramer11, Tracy L Culbertson12, Ala S Dababneh13, Amber N Derr14, Kevin Epps15, Susan M Flaker16, Ravindra Ganesh8, Mary A Gilmer17, Eric Gomez Urena18, Christopher R Gulden19, Tamara L Haack20, Sara N Hanson21, Jenna R Herzog22, Alexander Heyliger3, Lex D Hokanson23, Laura H Hopkins24, Richard J Horecki25, Bipinchandra Hirisave Krishna26, W Charles Huskins27, Tammy A Jackson28, Ryan R Johnson29, Betty Jorgenson30, Cory Kudrna31, Brian D Kennedy32, Mary K Klingsporn33, Brian Kottke30, Jennifer J Larsen7, Sarah R Lessard17, Larry I Lutwick5, Edward J Malone34, Jennifer A Matoush7, Ivana N Micallef35, Darcie E Moehnke7, Muhanad Mohamed5, Colleena N Ness36, Shelly M Olson37, Robert Orenstein38, Raj Palraj13, Janki Patel5, Damian J Paulson13, David Phelan13, Margaret T Peinovich6, Wilford L Ramsey39, Taunya J Rau-Kane36, Kevin I Reid40, Karen J Reinschmidt41, Maria Teresa Seville38, Erin C Skold42, Jill M Smith9, Leigh L Speicher43, Laurie A Spielman37, Donna J Springer13, Perry W Sweeten44, Jennifer M Tempelis17, Sidna Tulledge-Scheitel45, Paschalis Vergidis13, Daniel C Whipple41, Caroline G Wilker46, Molly J Destro Borgen39.
Abstract
The administration of spike monoclonal antibody treatment to patients with mild to moderate COVID-19 is very challenging. This article summarizes essential components and processes in establishing an effective spike monoclonal antibody infusion program. Rapid identification of a dedicated physical infrastructure was essential to circumvent the logistical challenges of caring for infectious patients while maintaining compliance with regulations and ensuring the safety of our personnel and other patients. Our partnerships and collaborations among multiple different specialties and disciplines enabled contributions from personnel with specific expertise in medicine, nursing, pharmacy, infection prevention and control, electronic health record (EHR) informatics, compliance, legal, medical ethics, engineering, administration, and other critical areas. Clear communication and a culture in which all roles are welcomed at the planning and operational tables are critical to the rapid development and refinement needed to adapt and thrive in providing this time-sensitive beneficial therapy. Our partnerships with leaders and providers outside our institutions, including those who care for underserved populations, have promoted equity in the access of monoclonal antibodies in our regions. Strong support from institutional leadership facilitated expedited action when needed, from a physical, personnel, and system infrastructure standpoint. Our ongoing real-time assessment and monitoring of our clinical program allowed us to improve and optimize our processes to ensure that the needs of our patients with COVID-19 in the outpatient setting are met.Entities:
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Year: 2021 PMID: 33958056 PMCID: PMC7942148 DOI: 10.1016/j.mayocp.2021.03.010
Source DB: PubMed Journal: Mayo Clin Proc ISSN: 0025-6196 Impact factor: 7.616
Components of an Effective Antispike Monoclonal Antibody Infusion Program for High-Risk Patients With Mild COVID-19 in the Outpatient Setting
| Public health concern | Patients | Providers and health care personnel | Pharmacy | Physical space and electronic infrastructure | Processes and procedures |
|---|---|---|---|---|---|
| A pandemic of a highly infectious pathogen (SARS-coronavirus-2) | High-risk adults: | COVID-19 frontline care team | Bamlanivimab | Dedicated and separate from traditional infusion units that care for patients without COVID-19 | Rapid patient identification and referrals |
| 65 years and older | Family medicine | Casirivimab and imdevimab | Designated parking spaces for patients; patients escorted from and to their vehicles | Equitable and fair allocation of drug upon review of eligibility criteria | |
| Diabetes mellitus | Infectious diseases | Bamlanivimab and etesevimab | Immediate check in and intake process | Patient education, assessment of disease severity and consenting | |
| Chronic kidney disease | Internal medicine | Emergency support medications (for infusion related reactions, anaphylaxis, hypersensitivity) | Infection Prevention and Control | Scheduling for infusion as soon as possible and within 10 days of onset of symptoms | |
| Immunocompromised condition | Pediatrics and adolescent medicine | Compliance with regulations | Symptom severity screen before monoclonal antibody infusion; clinical monitoring | ||
| Immunosuppressive drugs | Primary care providers | Electronic heart records | Follow up mechanism, including call-back number for reporting of adverse effects | ||
| Body mass index ≥35 | Nursing | Monoclonal Antibody Treatment Registry | Real-time and systematic review of outcomes | ||
| At least 55 years of age and hypertension, cardiac disease, or chronic lung disease | Pharmacy | ||||
| Adolescents 12 to 17 years of age with high-risk characteristics | Infection Prevention and Control | ||||
| Healthcare Administration | |||||
| Compliance | |||||
| Legal | |||||
| Medical Ethics | |||||
| Management Engineering and Consulting | |||||
| Clinical and Nursing Informatics | |||||
| Information Technology | |||||
| Facilities |
High risk adolescents included patients with any of the following underlying conditions: poorly controlled type 1 diabetes mellitus (most recent hemoglobin [Hb] A1C >8%) or type 2 diabetes mellitus; end-stage renal disease receiving dialysis (peritoneal or hemodialysis); allogeneic stem cell transplant within the previous 3 months; solid organ transplant within the previous 3 months or currently receiving treatment for rejection; high-risk acute lymphoblastic leukemia with receipt of induction or consolidation chemotherapy during the previous 4 weeks; acute myeloid leukemia with receipt of any chemotherapy during the previous 4 weeks; primary or acquired immunodeficiency with significant cellular immunodeficiency; receipt of immunosuppression with biologic agents such as tumor necrosis factor-alpha (TNF-α) antagonists (eg, adalimumab, certolizumab, infliximab, etanercept, and golimumab), anti–B-lymphocyte monoclonal antibodies (eg, rituximab), anti–T-lymphocyte monoclonal antibodies (eg, alemtuzumab); or daily corticosteroid therapy at a dose ≥20 mg (or >2 mg/kg per day for patients weighing <10 kg) of prednisone or equivalent for ≥14 days; severe obesity, defined as at or above 120% of the 95th percentile; sickle cell disease with ≥1 hospitalization for a sickle cell disease-related complication in the previous 3 years; chronic lung disease requiring daytime home supplemental oxygen or ventilation; severe asthma or poorly controlled asthma; neuromuscular disease with home respiratory support (continuous positive airway pressure, bilevel positive airway pressure, oxygen, cough assist); heart failure and currently listed for cardiac transplant; congenital heart disease with single-ventricle physiology and heart failure, defined as a systemic ventricle ejection fraction <30%, or the presence of protein-losing enteropathy or plastic bronchitis.
Figure 1Interaction among practice providers, patients, and other personnel in the workflow of allocation, education, consenting, infusion, and monitoring for spike monoclonal antibody therapies for mild-to-moderate COVID-19.
Figure 2Simplified workflow for patient identification, clinical evaluation, and monoclonal antibody allocation to high-risk patients with mild-to-moderate COVID-19.
Figure 3Weekly number of antispike monoclonal antibody infusions during the first 10 weeks of the Mayo Clinic Monoclonal Antibody Program across geographically diverse COVID-19–dedicated outpatient infusion centers.