ABSTRACT
Neisseria meningitidis serogroup B (MenB) has caused several recent outbreaks of meningococcal disease on US college campuses. In January 2015, a case of MenB was reported at a university in Oregon, culminating in an outbreak with a total of 7 cases (including 1 fatality) identified over a 5-month period. In response to the outbreak, the university organized a mass immunization campaign with 4 “opt-in” immunization clinics. The preparation, challenges, and resources required for organization and implementation of a mass immunization program in response to an outbreak at a large public university are discussed herein. Based on the logistical challenges as well as resource expenditures associated with planning and executing a mass immunization effort, this experience illustrates that proactive, routine immunization of incoming students is the best strategy for MenB outbreak prevention.
Keywords: meningococcal meningitis, serogroup B, outbreak, college campus, student, mass immunization clinic, United States
Introduction
Neisseria meningitidis serogroup B (MenB) is a pathogen that causes invasive meningococcal disease (IMD), a devastating disease associated with isolated cases as well as outbreaks in the United States.1 Overall, the incidence of IMD due to MenB is low in the United States, with the highest incidence rate occurring in adolescents and young adults aged 16 to 23 years in 2016 (0.12 cases per 100,000 population).2 When compared with other disease-causing serogroups in this age group, MenB accounts for the majority of infections (57%).2 MenB outbreaks are unpredictable, may be prolonged, and are associated with substantial morbidity and mortality.3,4
MenB has been responsible for several recent US college campus–based outbreaks.5,6 For example, between March 2013 and March 2014, 9 cases were confirmed at a university in New Jersey, with 1 of the cases occurring at a nearby university after social mixing7; 5 cases were confirmed at a university in California beginning in November of 2013.1,8-10 The duration of these outbreaks was variable, with some cases clustered over a short time frame, and others identified over a prolonged period.11 Importantly, at the time of these outbreaks in 2013–2014, no vaccine for protection against MenB disease was available in the United States. In response to the unmet need for MenB immunization, the US Food and Drug Administration (FDA) granted investigational new drug status for mass immunization on the university campuses for a MenB vaccine formerly approved elsewhere, but not FDA-approved for use in the United States (MenB-4C, Bexsero®, 4CMenB; GlaxoSmithKline Vaccines, Srl, Siena, Italy).1,12 Subsequently, the FDA granted accelerated approval for MenB-FHbp (Trumenba®, bivalent rLP2086; Pfizer Inc, Philadelphia, PA)13 in October 2014 and MenB-4C in January 2015, for active immunization to prevent MenB disease in individuals 10 through 25 years of age.13-15
The Advisory Committee on Immunization Practices (ACIP) recommendations for the use of MenB vaccines were first published in June 2015.8 The ACIP recommendations are “tiered” and include a category A component for individuals aged ≥ 10 years at increased risk of IMD and a category B component for all adolescents and young adults 16 through 23 years of age.1 In October 2015, the ACIP published recommendations that a MenB vaccine series may be administered to adolescents and young adults aged 16 through 23 years to provide short-term protection against most strains causing MenB disease (category B), with the preferred age for immunization being between 16 and 18 years.8 This additional recommendation is designed to protect adolescents and young adults during the period of increased risk (ie, when disease incidence in the United States in adolescents/young adults peaks, between 18 and 23 years of age).1
In early 2015, 2 additional outbreaks of MenB disease occurred on US college campuses: 7 cases at a university in Oregon (described herein as “the University”) starting in January 2015, and 2 cases at a college in Rhode Island in February 2015.5,16 In response to these outbreaks, campus-based immunization campaigns were undertaken in an effort to reduce MenB transmission at both the University (reported herein) and the college in Rhode Island.17
The current article focuses on the MenB outbreak experience at the University. The objectives of this review are to (1) describe the response to a MenB disease outbreak on a college campus, including the real-world use of MenB-FHbp as part of a mass immunization program; (2) identify the actions, challenges, and resources required to implement a campus-based mass immunization program at a large public university; and (3) discuss proactive, routine immunization as a key strategy for prevention of future MenB disease outbreaks.
Results
Overview of the university
This university is located in Oregon on an urban campus of 295 acres. The student population is approximately 24,125 (including 20,552 undergraduate and 3573 graduate students) of which 16% live in residence halls. An on-campus Student Health Center provides basic health services to enrolled students. The University Emergency Management program includes an Incident Management Team (IMT) that is activated for emergencies, including communicable disease outbreaks.
Meningococcal serogroup B cases
The MenB outbreak at the University comprised 7 cases, beginning in mid-January 2015 and lasting through May 2015 (Supplemental Figure). A fourth case (a fatality) occurred 33 days after the initial case was reported. Four days later, a MenB outbreak was declared by state Health officials and subsequently confirmed by the Centers for Disease Control and Prevention (CDC). After initiation of the campus-based mass immunization program on day 47, 3 additional cases were confirmed. Two cases occurred between the first and second immunization clinic. Based on 6 cases identified in students, the attack rate was 30.5 per 100,000 undergraduate students. After the second immunization clinic, 1 case of MenB was reported in a father who had visited the campus approximately 4 months after the first case was reported.
Laboratory investigation
Local testing was performed at the treating hospital, which typically included Gram staining of cerebrospinal fluid and/or blood and PCR in some cases. Latex agglutination for initial serogrouping was performed at associated laboratories and confirmatory serogroup testing at the Oregon State Public Health Laboratory. Isolates were forwarded to the CDC for further molecular characterization, which indicated that all the strains from the 7 cases were ST-32/CC32.18
Mass immunization/emergency response
A timeline of the extensive coordination and communication efforts, and actions implemented by the University during the first 3 months of the outbreak, is outlined (Supplemental Figure). Specifically, within 48 hours of notification of the first confirmed MenB case, the University activated the IMT to assist in the coordination of responses initiated by staff from the Emergency Management program. Team members included an Incident Commander, Public Information Officers, and representatives from the University Health Center and the Registrar’s Office. The IMT implemented a standard protocol developed to address the identification and confirmation of a meningitis case in a university student. Multiple activities defined in this protocol included coordination with the County Public Health Department; notification of close contacts, including roommates, classmates, coworkers, and faculty members; information updates on the Student Health Center website, such as information about signs and symptoms of meningitis; administration of prophylactic antibiotics to close contacts; notifications to university officials; and implementation of additional campus-wide communication plans.
This standard protocol was implemented following each of the 7 cases of MenB that occurred at the University. After the second MenB case was confirmed, University and County Public Health Department staff engaged in planning discussions for large-scale immunization clinics, and several meetings were held to evaluate potential locations, vaccine sources, and staffing. After the third MenB case was confirmed, the CDC threshold in place at that time was met for declaration of an outbreak (≥ 3 confirmed or probable cases within the same serogroup within ≤ 3 months with an attack rate of 10 cases per 100,000, which differs to the current threshold for an institutional outbreak of 2–3 outbreak-associated cases within ≤ 3 months).19,20 However, an outbreak was not declared at this stage because cases 2 and 3 were determined to be close contacts. Following this third case, a campus-wide email message was sent to all students, faculty and staff articulating the signs and symptoms of MenB disease and preventive actions. Suggested proactive strategies to prevent infection included immunization, as well as washing hands, reducing the spread of aerosolized bacteria, and refraining from sharing personal items. Similar information was sent to the Parents’ Association, an “opt-in” group for parents of students at the University. It is important to note that universities generally do not collect and store parent contact information, as the majority of students entering as freshman are ≥18 years of age. Two days after the fourth MenB case resulted in a fatality, an outbreak was officially declared, and the University received a joint recommendation from the CDC, the state Health Authority, and County Public Health officials to implement a clinic to vaccinate approximately 22,000 students at the earliest opportunity. Immunization was recommended by the state Health Authority for current and incoming undergraduate students, graduate students, faculty, and staff who lived or planned to live in residence halls, fraternities, and sororities.21
Because the 2 MenB vaccines, MenB-FHbp and MenB-4C, were only recently approved by the FDA and new to the market, they were not readily available through county or state vaccine provision mechanisms; therefore, funding was not available to offset vaccine purchase costs that the University would incur. At the suggestion of the State, the University contacted both manufacturers, requesting pricing information and the option for a fully supported clinic that could provide support for immunization-related services, because neither the University nor the county or state possessed the resources to implement a large-scale clinic. Because of the time-sensitive nature of the request, the University stipulated that proposals should be received within 48 hours. Ultimately, MenB-FHbp was selected based on the proposal to include a partnership with pharmacies located within the community; these locations served to complement the mass immunization clinics held at the University. MenB-FHbp was available at several local pharmacies, and could be invoiced to insurance, thus ensuring that students would not receive a payment request prior to vaccine administration; such requests could ultimately limit the rate of pharmacy-based immunization during the outbreak. The ultimate goal was to eliminate as many barriers to immunization as possible. In addition to vaccine acquisition, the pharmacies were familiar with vaccine storage procedures and logistics, which included providing additional refrigerators as well as a refrigerated truck that was present on site during the immunization clinics.
In total, 4 mass immunization clinics were held on campus on days 47–50, 118–120, 264–265 and approximately 13 months after the initial case was diagnosed. Additional, smaller immunization clinics also took place. Details pertaining to the immunization efforts, including daily doses administered to the student body, are reported in Table 1. All enrolled students were informed of the availability of vaccine through email messages sent through the University’s emergency notification system. In addition, a marketing and outreach immunization campaign was developed that included materials, such as images of student leaders and athletes with shirt sleeves rolled up to reveal bandages with university logos. These images were included in posters and table tents strategically placed throughout public campus spaces, including housing, dining halls, and the Student Union building. Faculty received a PowerPoint (Microsoft, Redmond, WA) presentation for display at the beginning of classes to inform students of the various clinic locations and hours of operation. The same slides were used for digital displays in several buildings across campus. Notifications of immunization clinics were posted in the University’s class registration system, ensuring students viewed clinic details when logging into the system. Advertisements were also placed in the student newspaper.
Table 1.
MenBa Immunizations | ||||
---|---|---|---|---|
Day After Case 1 Diagnosis | Location | Event | Daily Doses, n | Cumulative Doses, n |
40 | Sports arena, UHC | Surge Clinic | 503 | 503 |
41 | Sports arena, UHC | Surge Clinic | 678 | 1181 |
42 | Sports arena, UHC | Surge Clinic | 666 | 1847 |
43 | Sports arena, UHC | Surge Clinic | 638 | 2485 |
44 | Sports arena, UHC | Surge Clinic | 788 | 3273 |
47 | Sports arena, pharmacy, UHC |
Mass Immunization Clinic | 898 | 4171 |
48 | Sports arena, pharmacy,b UHC | Mass Immunization Clinic | 1110 | 5281 |
49 | Sports arena, pharmacy, UHC | Mass Immunization Clinic | 203 | 5484 |
50 | Sports arena, pharmacy,b UHC | Mass Immunization Clinic | 249 | 5733 |
57 | Off-campus | Clinic | 78 | 5811 |
58 | Off-campus | Clinicc | 181 | 5922 |
83 | On-campus | Clinic | 126 | 6118 |
84 | On-campus | Clinic | 186 | 6304 |
85 | On-campus | Clinic | 337 | 6641 |
90 | On-campus | Mini-clinic | 17 | 6658 |
91 | On-campus | Mini-clinic | 0 | 6658 |
118 | Sports arena, pharmacy, UHC | Mass Immunization Clinic | 637 | 7295 |
119 | Sports arena, pharmacy,b UHC |
Mass Immunization Clinic | 774 | 8069 |
120 | Sports arena, pharmacy, UHC | Mass Immunization Clinic | 1304 | 9373 |
163 | On-campus | Orientation clinic | 163 | 9536 |
167 | On-campus | Orientation clinic | 199 | 9735 |
169 | On-campus | Orientation clinic | 17 | 9752 |
180 | On-campus | Orientation clinic | 169 | 9921 |
184 | On-campus | Orientation clinic | 202 | 10,123 |
187 | On-campus | Orientation clinic | 184 | 10,307 |
191 | On-campus | Orientation clinic | 180 | 10,487 |
195 | On-campus | Orientation clinic | 20 | 10,507 |
198 | On-campus | Orientation clinic | 158 | 10,665 |
202 | On-campus | Orientation clinic | 151 | 10,816 |
264–265 | Sports arena, pharmacy,b UHC | Mass Immunization Clinic | 2641 | 13,457 |
397–398 | Sports arena, pharmacy, UHC | Mass Immunization Clinic | 1198 | 14,665 |
UHC = University Health Center.
aMenB-FHbp and MenB-4C combined total.
bParticipating pharmacies included Safeway, Walgreens, and Albertsons.
cApartment complex of Case 5.
In addition to the mass immunization clinics, several smaller clinics were held during summer freshman orientation to allow incoming freshman to receive 1 dose before their arrival on campus (Table 1). In the fall of 2015, immunization information was readily available during freshman orientation and included information for parents.
Mass immunization clinic logistics
The mass immunization clinics took place at the campus sports arena. This facility provided sufficient space to allow for the several sequential checkpoints and stations required for appropriate handling and flow of approximately 22,000 eligible students. The checkpoints were staffed by key IMT members from Emergency Management, Athletics, Communications, and the Student Health Center. Approximately 30 staff volunteers from the University across a variety of departments participated in each clinic shift; approximately 2000 person-hours were logged by staff over the course of the 4 clinics.
Specific details of the stations at each clinic and activities performed are outlined in Table 2. Briefly, before students were vaccinated, their immunization history was reviewed and eligibility for MenB vaccine receipt was confirmed. Forms pertaining to insurance were completed, along with informed consent forms for a CDC nasopharyngeal carriage study for students willing to participate. Medical information pertaining to MenB immunization was provided in the form of a 1-page informational flier. In addition, students had the option of speaking with a pharmacist to address any questions prior to being immunized. Medical Affairs personnel, employed by the vaccine manufacturer, were on site to provide medical information support to the local pharmacists who were administering the MenB vaccine. After immunization, students were directed to a rest area and provided an additional opportunity to participate in the nasopharyngeal carriage study. Small gift items were provided by the CDC for participation in the study. The University offered a variety of food and gift incentives to motivate student attendance at the clinics. Student apathy towards MenB disease prevention ultimately proved to be the greatest challenge to maximum participation in the immunization campaign; considerable efforts were undertaken via both health marketing and communication to address this challenge.
Table 2.
Station | Activity |
---|---|
Immunization check |
|
Eligibility check |
|
Forms |
|
Form check |
|
Insurance station |
|
Medical station |
|
Immunization station |
|
Rest area |
|
CDC carriage study station registration |
|
Swag table |
|
CDC = Centers for Disease Control and Prevention.
Student participation in the mass immunization clinics was “opt-in,” meaning there was no requirement for student participation from the University. During the first 2 mass immunization clinics, ≤ 1304 students were immunized per day, and 5175 immunizations were administered overall. By mid-April, approximately 6660 students had received a dose of MenB vaccine. During the outbreak, both approved MenB vaccines were available at the Student Health Center as well as local area provider locations, with MenB-FHbp received by the majority of students (Table 1). MenB-FHbp was administered as a 3-dose schedule; receipt by all eligible students was approximately 60% for dose 1, 29% for dose 2, and 10% for dose 3. Approximately half of the immunized students received their vaccines at the on-campus clinics, with the remaining vaccines administered at local community pharmacies and off-campus clinics.
Resources required for the outbreak response
Meningococcal outbreaks are not easily controlled once they occur. They require coordination and advanced planning among multiple stakeholders, as well as significant human and capital resources. Communication with college-aged students can be difficult due to a myriad of competing priorities, further emphasizing the need for concise and direct public health–related messaging for this age group. Outreach campaigns should include input and participation from students or peer-to-peer groups to assist public health and university officials with optimal translation of public health information into modes and formats that will appeal to the general student population. Effective coordination of communication, education, awareness, and counseling, in addition to procurement and storage of vaccine, mass immunization strategies, vaccine clinic staffing, and administrative support, are among the more daunting logistical issues that require effective management and expedited execution during meningococcal outbreaks. The Supplemental Figure provides a detailed timeline of the evolution of the coordinated response to the reported MenB cases at the University, and the corresponding actions taken in response to this rapidly evolving public health threat.
For financial resource expenditure, the out-of-pocket cost of the MenB outbreak at the University was estimated to be $589,800. This amount represents the cost of the vaccine (90%), logistics (6%), marketing (2%), and partner coordination (< 1%). For the University, vaccine procurement represented a majority of the total cost outlay for outbreak management. The uniqueness of this challenge was posed primarily by the timeframe of the outbreak, which occurred very shortly after FDA approval of the vaccine but prior to broad-based insurance coverage. Overcoming this challenge required numerous hours of communication with multiple insurance companies, and ultimately, insurance coverage was provided for approximately 80% of those vaccinated. Lack of health insurance; student ineligibility at the time of immunization (eg, students had insurance but coverage had lapsed), a requirement for primary medical care provider-administered immunization; and absence of a pharmacy benefit under some insurance plans collectively accounted for the approximately 20% of individuals for whom vaccines were not covered. For students whose insurance plans lacked a pharmacy benefit and who were vaccinated at a local pharmacy, the vaccine manufacturer contacted payers for approval. The local pharmacy was not credentialed or contracted for vaccines under all payers’ medical benefits; therefore, full reimbursement was not attained in some cases.
In addition to vaccine procurement–related expenses, other essential and considerable resources required for the execution of a mass immunization clinic included, but were not limited to, university personnel person-hours; immunizers and medical personnel (eg, pharmacist immunizers, medical support, and administrative support); marketing (eg, health promotion and communication materials); rental costs for a facility that provided adequate space for the clinic; and vaccine product management and logistics (eg, transportation, refrigeration, administration cost, and supplies). These resources account for the remaining 10% of outbreak-related expenditures.
Discussion
The benefits of immunization programs, such as that conducted at the university in Oregon, ultimately depend on the rate of infection spread and the ability of vaccines to interrupt carriage and transmission.11,22 For N meningitidis, transmission occurs rapidly,11 resulting in a narrow, early window in which to effectively blunt the outbreak by mass immunization.22 Therefore, it is important for colleges and universities to have proactive strategies to minimize this risk of a MenB outbreak on campus.
Currently, a proactive immunization approach is implemented to prevent meningococcal disease caused by serogroups A, C, Y and W, with many universities and colleges requiring incoming students to be immunized.23 This approach has been effective as evidenced by the fact that recent campus meningococcal outbreaks have been caused by MenB.24 Although similar forward-thinking strategies using proactive immunization against MenB was evident at a university in North Dakota, where in 2018 the university organized a free MenB immunization clinic in the absence of a case on campus for all students 18 to 23 years of age,25 proactive, campus-wide, MenB immunization strategies for students are atypical. As such, MenB cases continue to emerge on college and university campuses. In 2017 alone, confirmed or presumed cases of MenB have been reported on a number of campuses, including 2 campuses in Massachusetts,26,27 1 campus in Oregon,28 and 1 campus in Pennsylvania.29 Additionally, outbreaks have been declared on a campus in Oregon28 and Massachusetts;30 immunization was offered in response to these campus outbreaks.27,28 Based on the geographic proximity to an outbreak or the occurrence of an isolated case, a university in Pennsylvania29 and Massachusetts31 elected to hold proactive immunization clinics targeting MenB.
In response to the identification of a MenB case on campus, expert input and active participation are required to develop a MenB outbreak control plan and to implement containment procedures. Currently, many colleges and universities are likely to be ill-equipped to manage such a comprehensive, rapid, and targeted public health response. Additional and unexpected circumstances were encountered in the course of the University outbreak described in this report; these included an overall lack of student concern for the immediacy of the situation evolving in the community and a general fear of potential vaccine side effects; both situations were addressed through additional measures of communication and education.
In addition to major logistical challenges for campus health and emergency planning personnel, university-based MenB outbreaks require significant expenditures, particularly when strategies are reactive. For example, the cost associated with managing the MenB outbreak at the University was approximately $600,000. To further understand the costs and public health burden associated with IMD outbreaks and the potential benefits of proactive immunization, in 2013 a systematic literature review estimated the cost for large disease containment strategies to range between $105,484 and $1,081,627, with an average cost per IMD case of $55,755.32 While this systematic review assessed IMD outbreaks globally and included both large- and small-scale containment strategies, substantial costs were incurred in all cases. At colleges and universities in the United States, the costs of managing an outbreak vary depending on the status of the campus as a public or private university and the availability of health insurance coverage. These estimates do not take into account lifetime costs to an IMD survivor due to clinical sequelae as well quality of life.32
Ultimately, from the perspective of a large public university, the best approach for the prevention of transmissible diseases, such as MenB, would be to routinely recommend immunization of incoming students prior to their arrival on campus. This approach is embodied in current ACIP recommendations for adolescent MenACWY immunization,8 which favors immunization for the prevention of meningococcal acquisition and carriage, and the interruption of transmission in the adolescent and young adult populations.33 Asymptomatic carriage rates for N meningitidis can be as high as 37% in adolescents and young adults aged 15 to 24 years.34 Because the use of recombinant MenB vaccines is relatively new, data on carriage and transmission after MenB immunization is still forthcoming. The results from the carriage study conducted during the immunization campaign at the Oregon university have been recently published; among 328 students who participated in the analysis, no statistically significant decrease in carriage was observed after MenB vaccination in a multivariate analysis.35A small decrease was observed during an evaluation that occurred after the summer break and was believed to be due to seasonal variation. Similar results were reported for the MenB carriage study in university students at 10 study centers in England after MenB-4C immunization.36 One month after immunization, MenB carriage was not significantly reduced among students, but carriage of all N meningitidis isolates collectively, in addition to others, was significantly reduced by 3 months postimmunization.36 A large study conducted in Australian students aged ≥ 14 years immunized with MenB-4C is currently underway (NCT03089086), and the results are expected to provide important information pertaining to vaccine effectiveness for those immunized as well as the unimmunized. The effect of MenB vaccines on carriage will be of particular importance to college students, since MenB immunization is currently not universally required for this group, and the student body is expected to be heterogeneous with regard to meningococcal immunization. In addition, further elucidation of the duration of protection afforded by MenB vaccines is required to better inform immunization policies, including regarding the necessity of booster dosing for at-risk populations. However, it is of note that ACIP recommends MenB vaccination be considered from the age of 16 years with the preferred age of vaccination at 16 through 18 years, and published data document persistence of protective immunity with MenB vaccines through 4 years after vaccination.8,37,38 When all information is assessed in total, routine (prior) immunization of university students can be reasonably viewed as a more effective proactive strategy overall compared with reactive, mass immunizations undertaken only after an outbreak has occurred, especially since MenB vaccines require ≥ 2 doses for a complete immunization series.
Administration of prophylactic antibiotics to close contacts was included as part of the standard protocol in response to the outbreak. In addition to recommendations for vaccination, the importance of prophylactic antibiotics of close contacts as a means to prevent additional cases has also been emphasized by the ACIP in their guidance for the public health management of meningococcal outbreaks.20 The guidance recommends that antimicrobial chemoprophylaxis of close contacts be initiated if a meningococcal outbreak is suspected and when meningococcal disease is strongly suspected based on laboratory and/or clinical criteria; confirmation of N meningitidis is not required prior to initiation of prophylaxis.
In addition to student apathy, the 3 critical challenges encountered by the University during the 2015 outbreak were cost, resources, and outreach. If private insurance had not reimbursed the cost of the vaccine for most of the immunized students, the University could well have been responsible for millions of dollars in vaccine procurement costs. Mobilizing the considerable resources required to manage this outbreak proved highly taxing for key IMT staff. Furthermore, it delayed and/or preempted normal, daily campus activities, since this outbreak occurred during a period when the University’s health center was originally preparing to implement several large-scale projects that required substantial IMT resources and oversight. Outreach to the student body to communicate the importance of immunization required creative strategies, driven in part by the many competing priorities faced by university students. Therefore, significant time and investment were required to develop communication plans used by the University.
Additional issues compounded those described above and likely served to negatively impact the number of MenB vaccine doses administered via campus-based clinics. For example, the large student body size (> 24,000) necessitated voluntary (ie, opt-in) rather than required (ie, opt-out) student participation. Furthermore, coordination and communication between the University, the County, and the State Health Authority could have been improved during the time frame spanning the first 4 confirmed cases, which occurred prior to outbreak declaration. This experience differs substantially from that described for another US campus outbreak of MenB disease at a college in Rhode Island.16,17 During this outbreak, campus health personnel utilized an opt-out campus immunization clinic approach for approximately 3700 eligible people that resulted in a much higher rate of immunization.17 In addition, close coordination between campus health and the State Health Authority occurred early in the process, prior to outbreak declaration.17 These contrasting experiences illustrate the absolute requirement for advanced planning and interagency coordination to successfully address a rapidly evolving, campus-based public health situation.
In conclusion, outbreaks of MenB disease are an ongoing and increasing concern on US college and university campuses. Recently approved vaccines for the prevention of MenB disease have been used to contain MenB outbreaks on several US campuses, including the University described herein. The necessary and extensive logistics for implementation of immunization clinics at the University required support from many groups, including federal, state, and local health experts, as well as pharmacy and vaccine manufacturer partnerships. Collectively, for the University outbreak, collaboration among these groups focused on removing barriers to immunization and encouraging student participation – both of which were extremely challenging, given the short time frame required for effective implementation. Although the mass immunization efforts were effective at preventing additional cases in students at the University, a proactive strategy of routinely recommended MenB immunization for adolescents, a subset of whom will attend college, could reduce or eliminate the need for the reactive efforts, such as those undertaken by the University, and at other college and university campuses.
Materials and methods
Data pertaining to the cases of meningococcal infections in university students during the outbreak were obtained from a summary of incidence reports that was developed by the University. The medical accuracy of the data reported during the outbreak was overseen by the outbreak response team, which included employees of the University and individuals from the county and state public health authority. The State Health Authority operated in conjunction with the CDC. All information reported by the University in response to the outbreak conformed with local, state, and federal laws, including the federal Health Insurance Portability and Accountability Act and the Family Educational Rights and Privacy Act.
Funding Statement
This manuscript and editorial/writing support were funded by Pfizer Inc.
Supplemental material
Supplementary material for this article can be accessed here.
Acknowledgments
Editorial assistance and medical writing support were provided by Susan E. DeRocco, PhD, of Complete Healthcare Communications, LLC (North Wales, PA), a CHC Group Company, which was funded by Pfizer Inc.
Disclosure of potential conflicts of interest
BC, BA, and CB are employees of Pfizer and may hold stock and/or stock options. KD and AL have no conflicts to disclose.
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