Drug Development Continues Amid COVID-19

The research community persists through this pandemic for the sake of patients waiting for therapies. We are proud to assist your efforts with a full range of development support.


Coronavirus Services by Modality

What are you working on? Explore the drop-downs below to find the support you need for your program.


    On the hunt for an antiviral therapy? From target identification and hit finding through lead optimization and safety assessment, there’s much to do, and the faster you can complete it, the better. We can help.

    Our partnerships with Distributed Bio gives you access to a developable therapeutic antibody library plus their antibody optimization technology, and with Fios Genomics, AI to mine existing data to repurpose and accelerate treatments.

    In Vitro Screening

    Use in vitro assays to screen for antiviral compounds before moving to testing efficacy in in vivo models. Depending on your antiviral’s mechanism of action, these can be added at different points in the study – before, during, or after viral infection of cells, or pre-incubation with the virus before infecting cells. Relevant screening includes:

    • Expedited in vitro antiviral assay to screen novel and existing antiviral therapies against a set of virus strains
    • Positive hits testing against the BSL-3 SARS-CoV-2 pandemic strain

    Vaccine development is a lengthy process that you can accelerate by working with a single team that offers full support from efficacy through safety and an intimate knowledge of regulatory guidelines. Our coronavirus vaccine-specific services include:

    • In vivo protection studies in mice: immunization and challenge tests, including coronavirus challenge models (HSV-1 and respiratory syncytial virus)
    • In vitro and in vivo immunogenicity testing
    • Immune profiling, mechanism of action studies
    • In vitro assays (cell-based assays and cytotoxicity assays)
    • Vaccine candidate toxicity studies, in compliance with GLPs (up to BSL-3 containment through established partnerships), including:
      • Evaluation of the immune response against the antigen and the vector
      • Biodistribution/shedding studies for viral vector-based vaccines

    SARS-CoV-2 and other respiratory viruses, in some individuals, drive an immune response which leads to tissue damage and loss of tissue function. Whether you are developing a new therapy or investigating a repurposed immunomodulatory compound, you can best assess efficacy in models that recapitulate the features of viral-driven immunopathology. Ours include:

    • Influenza challenge model:
      • Respiratory pharmacology models for the evaluation of acute respiratory distress syndrome (ARDS), chronic obstructive pulmonary disease (COPD) and influenza
      • Lung LPS PD model


Models, Studies, and Services for Your Coronavirus Research


    lvg hamster

    High levels of sequence homology with the human ACE 2 receptor, and strong viral titres within two days of inoculation make the LVG Golden Syrian Hamster an applicable model for your SARS-CoV-2 studies. Easy, yet consistent infection, maximum clinical signs such as alveolar damage, high lung viral load, cytokine activation, spleen and lymphoid atrophy, and development of serum antibodies lay a strong foundation for your studies.



    An animal model that mimics COVID-19 clinical symptoms in human infection is urgently needed to understand transmission routes and to enable efficient and effective testing of antiviral drug and vaccine candidates.

    Due to common anatomical and physiological features they share with humans, ferrets have been used for many years across a broad area of research to examine both the pathogenesis and treatment of a variety of human diseases.

    The ferret species is an optimal model for evaluating antiviral drugs and vaccine candidates against COVID-19 because SARS-CoV-2 replicates efficiently in their upper respiratory tract.

    Ferret Model Assays Include:


    • Multiple routes of both challenge and test item administration; intranasal, intratracheal, transmission, etc.
    • Use of both manual thermometers and telemetry for temperature measurement
    • Evaluation of clinical symptoms
    • Retrieval of key organs, e.g. nasal turbinate’s, lungs, spleens, etc.
    • Preservation and preparation of tissues for pathology, antibody and viral titer estimation, etc.


    • Hemagglutination (HA), hemagglutination inhibition (HAI) and embryo infectious dose (EID50) using embryonated eggs
    • TCID50
    • Histology
    • ELISpot
    • RT-PCR
    • Neutralization assays

    Protect your research with animal health monitoring. Since detection of Sarbecovirus in humans is a recent phenomenon, it is unclear if the virus is present in other species. Our team has developed a novel Sarbecoviruses Assay (PCR and serology) that effectively detects circulating human and known animal coronavirus strains and will likely detect novel coronavirus in other species. 


    HemaCare fully supports the research community’s efforts in understating the immune response to the deadly pathology of COVID-19 by offering a comprehensive array of COVID-19 related cellular products aimed at helping scientists investigate all facets of the disease, from diagnostics to therapeutics, as well as vaccine development and optimization.

    Our portfolio includes:

    • COVID-19 convalescent cellular materials
    • Anti SARS-CoV-2 Antigen-Specific T Cells
    • COVID-19 vaccinated cellular samples (time series)


Additional Support for COVID Programs

Read on to discover extensive support for your ongoing discovery and development endeavors.



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Frequently Asked Questions (FAQs) about Coronavirus Therapeutic Development

  • Which research animals are at the highest risk of having a Sarbecovirus or acquiring from another host?

    Some animal species may have virus receptors that are more susceptible to SARS viruses, but natural transmission from human to research animals has not been reported and is considered unlikely. These species include nonhuman primates, dogs, cats, swine, ferrets, and bats. Research rodents are unlikely to be infected through natural transmission, although infection through high titer inoculation of mice has been demonstrated. Awareness of Sarbecoviruses as a recent phenomenon; it is unclear which other members of this subgenus may be present in other animal species.

  • Should routine testing of study animals be performed?

    Routine testing of laboratory animals is not recommended. There have been no reports of natural infection in research animals. In addition, standard industry practices of good hand hygiene, use of site uniforms, and appropriate PPE (gloves, face masks, etc.) should be sufficient to minimize possible spread from asymptomatic staff to research animals.

  • When should clinical cases be tested for COVID-19?

    In line with governmental and national organizations (CDC, USDA, AVMA), testing of animals is discouraged unless all other, more common causes of illness have been excluded. Further guidance on the decision to test animals is available from the CDC.

  • What is the difference between BSL-2 and BSL-3?

    BSL is the biosafety level at which a microorganism must be handled, the BSL levels are used to identify the protective measures needed to handle a microorganism safely to protect laboratory staff, the public and environment and prevent anyone becoming infected, they range from BSL-1 (lowest risk) to BSL-4 (highest risk).

    Briefly, BSL-2 laboratories can study moderate risk infectious agents that pose a risk if inhaled, swallowed, or exposed to skin, laboratories must have the appropriate equipment in place to allow safe handling of such organisms.

    BSL-3 laboratories can handle infectious agents that may be transmitted through the air and can cause a lethal infection, all experiments are carried out in biosafety cabinets designed to prevent infection alongside other safety measures. SARS-CoV-2 is designated a BSL-3 microorganism, whereas the coronavirus strains OC43 and 229E can be handled in BSL-2 laboratories.

  • What is a cytokine storm?

    A cytokine storm can occur when immune and other cells such as barrier epithelium are triggered by bacteria or a virus to produce cytokines in an excessive and uncontrolled manner. This can drive uncontrolled inflammation resulting in damage to the tissue locally and sometimes spread of the cytokines throughout the blood impacting on blood vessel integrity and function of other organs. Such uncontrolled production of cytokines and immunopathology can seriously affect the ability of organs, such as the lung, to function normally and, in the worst case, can be fatal.

  • What is a protection study?

    A protection study assesses the ability of a vaccine/adjuvant combination to protect an animal from challenge or infection with the virus of interest. Vaccination regimes will be designed to suit each vaccine. Readouts will primarily be a reduction in clinical scores and viral titers following challenge and can also include an assessment of T cell and B cell responses following vaccination and after challenge.

  • What is a challenge model?

    A challenge model is where an animal is challenged or infected with the virus of interest. The ability of antiviral drugs or therapeutic neutralizing antibodies to control and limit infection can then be assessed by measuring clinical scores and viral titers. In some cases where the viral infection may result in immune mediated damage of the infected tissue, immunomodulators can be assessed for their ability to limit tissue damage and control the immune response via assessment of cellular responses and cytokines in the relevant tissue or draining lymph nodes.

  • What can we do to accelerate process development and prepare for production?

    Utilizing rapid, objective methods for in-process control testing and creating sound environmental monitoring programs backed by accurate microbial identification can ensure speed to market safely after approval and during full production.

  • How can companies plan to meet increased demand and mitigate drug shortages?

    Implementing rapid microbial detection technology and bacterial endotoxin tests that produce confident testing and accurate results, and outsourcing quality control testing such as microbial identification can be effectively implemented to match the speed of development with the speed of product quality testing.