Objective To introduce the calculation of the DISO index in multi-dimensional data ranking for disease surveillance, and evaluate its applicability. Methods Using the data from the quality supervision and inspection of infectious disease reporting in Jingzhou City in a certain year as an example, the DISO index was used to rank 16 investigated medical institutions and compared with the TOPSIS method. The consistency between the two evaluation results was analyzed using Spearman correlation. Then, The DISO index from different medical institutions was used to evaluate the ranking of 8 counties (cities, districts). The evaluation indicators for the supervision and inspection included six items: report rate, timely report rate, completeness of report card filling, accuracy of report card filling, consistency rate with network information report, and completeness of valid ID number filling. Results Among the 16 medical institutions, 8 institutions had all six evaluation indicators at 100%. Using the two methods to rank the 16 medical institutions, the two methods showed that the 8 medical institutions with all six evaluation indicators at 100% were ranked first. There was a strong correlation between the rankings of the 16 medical institutions using the two methods (r_s=0.992, P=0.000). The three counties (cities, districts) with all six evaluation indicators at 100% were all ranked first, while country G was ranked seventh and country E was ranked eighth. Conclusion The results of the DISO index and the TOPSIS method were similar in one-dimensional ranking. DISO can be used for multi-dimensional ranking of disease surveillance data and deserves to be promoted and applied.

Objective To understand the current status of emergency vaccination of hemorrhagic fever with renal syndrome (HFRS) vaccine in Jingzhou, serological monitoring and the incidence of vaccinated population, and to evaluate the protective effect of emergency vaccination of HFRS vaccine on the control of HFRS epidemic in the city. Methods From 2018 to 2020, HFRS vaccination was carried out in Jianli City, Honghu City, Jiangling County, Gongan County and some townships in Shashi City, Jingzhou City, focusing on people aged 30-59 years old. The incidence of HFRS, vaccination history of cases and HFRS vaccination data of Jingzhou City were collected and analyzed by descriptive epidemiological methods. The sera of those who had not been vaccinated with HFRS vaccine (non-vaccinated group) and those who had been vaccinated with HFRS vaccine (vaccinated group) were collected for IgG antibody detection, and the serum IgG was detected by ELISA method. The correlation between the change in the number of cases in townships where people were vaccinated (comparison between 2017-2018 and 2020) and the vaccination rate before 2019 was analyzed. Results A total of 446 900 doses of HFRS vaccine were vaccinated from 2018 to 2020, covering 22 townships in 5 counties and cities, accounting for 17.19% (22/128) of the total number of townships in the city. A total of 120 953 people completed 3 doses of vaccination, accounting for 11.30% of the total population and 23.77% of the population aged 30-59 in the vaccinated township. The positive rate of IgG in the unvaccinated group in Jingzhou was 9.91% (85/858). The positive rate of IgG in the vaccination group was 40.96% (34/83). The positive rates of IgG in the 1-dose group, 2- dose group, and 3-dose group were 0 (0/2), 18.18% (6/33), and 58.33% (28/48), respectively. From 2017 to 2020, a total of 16 cases had been vaccinated with HFRS before the onset of the disease, and 81.25% (13/16) received 2 doses or less of HFRS vaccine. The changes in the number of cases was negatively correlated with the vaccination rate of the whole population in townships where people were vaccinated (r_s=-0.58, P=0.011). The changes in the number of cases was negatively correlated with the vaccination rate of people aged 30-59 years in townships where people were vaccinated (r_s=-0.46, P=0.055). Conclusion The HFRS vaccination before 2019 has played a certain protective effect on the vaccinated population. However, the inoculation rate of HFRS vaccine in Jingzhou City is still low, and the protective effect on the whole population has not yet appeared.

Objective To analyze the epidemic characteristics and causes of post-exposure immunization failure of rabies in Hubei Province from 2015 to 2021, and to provide evidence for the prevention and control of rabies in Hubei Province. Methods The investigation data of rabies cases in Hubei Province from 2015 to 2021 were collected, and descriptive epidemiological methods were used for data analysis. Results A total of 127 cases of rabies were reported in Hubei Province from 2015 to 2021, with an average annual incidence of 0.31/million, showing a downward trend. The male to female ratio was 1.70:1. Farmers accounted for 82.67% of the total cases, and the 50-79 years old group accounted for 75.59%. The incidence was mainly concentrated in Xiangyang, Shiyan, Yichang and Jingmen, accounting for 77.17%. Most of the cases were concentrated in summer and autumn. Exposure of grade Ⅱand Ⅲ accounted for 24.79% and 75.21%, respectively. Hands, lower limbs below knee, head, arms and lower limbs above knee accounted for 46.15%, 25.21%, 9.40%, 8.55% and 7.69% of the exposed parts, respectively. Dogs, cats and wild animals accounted for 95.73%, 3.42% and 0.85% of the exposed animals, respectively. Stray animals, domesticated animals, neighbors' animals and wild animals accounted for 41.88%, 37.61%, 19.66% and 0.85% of animal sources, respectively. Neither the neighbors’ animals nor domesticated animals were vaccinated against veterinary rabies virus. After exposure, 8.55% of patients went to medical institutions for standard treatment of wounds, 9.40% were vaccinated with human rabies vaccine, and 4.55% of patients with grade III exposure were injected with rabies virus immunoglobulin. The incubation period within 6 months, from 6 months to 1 year, and over 1 year accounted for 72.22%, 14.74%, and 12.04%, respectively. The exposure degree (Z=-1.98, P < 0.05), exposure site (χ²=10.91, P < 0.05) and wound treatment (χ²=15.73, P < 0.05) had statistically significant effects on the incubation period. Among the 11 cases of post-exposure immunization failure, all were grade Ⅲ exposure, 63.63% were exposed to the head and face, 81.81% were not fully vaccinated with human rabies virus vaccine, 63.63% were not immunized with immunoglobulin, and 27.27% were inappropriate wound treatment. Conclusion The key to rabies prevention and control is to standardize dog management, strengthen rabies education, standardize post-exposure wound treatment, timely vaccinate against rabies virus, and inject rabies virus immunoglobulin when necessary.