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1 ction and excretion during murine chlamydial genital infection.
2 solate lacked virulence in a murine model of genital infection.
3 properties, in a murine model of chlamydial genital infection.
4 erent time points throughout the course of a genital infection.
5 rotective immunity against murine chlamydial genital infection.
6 as tested by use of a murine model of female genital infection.
7 y slightly delayed resolution of the primary genital infection.
8 2 gB2 and gD2 in response to recurrent HSV-2 genital infection.
9 echanisms associated with protection against genital infection.
10 oduce protective immunity against chlamydial genital infection.
11 pregulation and OPTN expression during HSV-2 genital infection.
12 to 97% of latent HSV DNA in mouse models of genital infection.
13 ss of age, are an important reservoir of HPV genital infection.
14 and CCR5-dependent migration observed during genital infection.
15 t Sigmodon hispidus model of HSV-2 and HSV-1 genital infection.
16 ot required for controlling chlamydial lower genital infection.
17 erity of oviduct pathology upon C. muridarum genital infection.
18 the host response in immunity to chlamydial genital infection.
19 response in the male urethra to a chlamydial genital infection.
20 influx or normal resolution of C. muridarum genital infection.
21 r to what has been found in rodent models of genital infection.
22 t trichomonal, gonococcal, and/or chlamydial genital infection.
23 f trichomonal, gonococcal, and/or chlamydial genital infection.
24 accine by using a murine model of chlamydial genital infection.
25 s of IL-1beta expression during a chlamydial genital infection.
26 chlamydial developmental cycle in an actual genital infection.
27 mplex virus type 1 (HSV-1) or type 2 (HSV-2) genital infection.
28 ount >10,000, or gonococcal/chlamydial lower genital infection.
29 llowing the resolution of primary chlamydial genital infection.
30 umoral immune responses during uncomplicated genital infections.
31 correlated with the occurrence of antenatal genital infections.
32 and potentially more difficult to treat than genital infections.
33 rproliferation of primary HSV type 2 (HSV-2) genital infections.
34 dial gastrointestinal infection than against genital infections.
35 ar human pathogen responsible for ocular and genital infections.
36 ccur in the absence of detectable viremia or genital infections.
37 ry effective vaccine against respiratory and genital infections.
38 gainst a variety of enteric, respiratory, or genital infections.
40 ns of patients with confirmed C. trachomatis genital infection: 40 women with pelvic inflammatory dis
41 pisodes (56.6% vs. 51.8%), events suggesting genital infection (9.0% vs. 2.5%), and events suggesting
42 erval: 0.42, 1.38) nor gonococcal/chlamydial genital infection (adjusted hazard ratio = 1.16, 95% con
43 ity against reinfection develops after human genital infection, although it appears, at best, to be p
45 development of PID or gonococcal/chlamydial genital infection among predominantly young, African-Ame
46 this study, we assessed the risk of incident genital infection and 6-month persistent genital infecti
50 le of these cells in resolution of a primary genital infection and in protection of HSV-immune animal
51 acterize the influence of IRF3 on chlamydial genital infection and its relationship to IFN-beta expre
52 our understanding of immunity to chlamydial genital infection and may provide important insight into
53 lication-defective HSV vaccine against HSV-2 genital infection and that B7-1 and B7-2 induce immune r
55 ment with SGLT2i showed an increased risk of genital infections and DKA and a reduced AKI risk compar
56 modified MACE and HHF, an increased risk of genital infections and DKA, and a lower risk of AKI, reg
58 implemented to control Chlamydia trachomatis genital infections and their complications have shown in
59 gout, as well as a positive control outcome (genital infection) and negative control outcomes (osteoa
60 and might increase risk of urinary tract and genital infection, and excessive inhibition of SGLT1 can
61 e of FLG mutations on the risk of AD flares, genital infections, and postpartum problems related to p
62 Joint Infections, Urinary Tract Infections, Genital Infections, and Skin and Soft Tissue Infections;
63 Joint Infections, Urinary Tract Infections, Genital Infections, and Skin and Soft Tissue Infections;
64 he pathologic consequences of C. trachomatis genital infection are well-established, the mechanism(s)
66 levels, except for a more pronounced risk of genital infections associated with SGLT2i for HbA1c leve
67 mpagliflozin, there was an increased rate of genital infection but no increase in other adverse event
68 2 inhibitor initiators showed higher risk of genital infection, but no altered risk of osteoarthritis
70 herefore, it is possible that women cured of genital infection by antibiotics remain infected in the
71 FI) represents 36% of female infertility and genital infection by Chlamydia trachomatis (C. trachomat
73 mmunity is crucial for resistance of mice to genital infection by the obligate intracellular bacteriu
78 oteases, the caspases, during C. trachomatis genital infection causes the disruption of key fertility
80 ing hazard ratios (HRs) among men with prior genital infection, compared with men with no prior genit
81 low-level Chlamydia psittaci and C. pecorum genital infection detected in virgin heifers suggests pr
82 outcomes were hypovolemia, fractures, falls, genital infections, diabetic ketoacidosis (DKA), acute k
85 n individual analyses, men with prior HPV 16 genital infections had a significantly higher risk of su
86 antibiotic intervention of human chlamydial genital infection has a similar effect on protective imm
87 rechallenge in a murine model of chlamydial genital infection has been achieved only by infection or
89 tic evaluation of HSV viremia during primary genital infection has not been performed previously.
90 um and Chlamydia trachomatis mouse models of genital infection have been used to study chlamydial imm
91 homatis (CT) and Neisseria gonorrhoeae (NG), genital infections have classically been the focus for r
93 dapagliflozin initiators had lower risks of genital infections (HR, 0.92; 95% CI, 0.89-0.95) and DKA
94 canagliflozin initiators had a lower risk of genital infections (HR, 0.94; 95% CI, 0.91-0.97) but a h
96 solution of primary and secondary chlamydial genital infection in immunoglobulin A (IgA)-deficient (I
97 he course and outcome of Chlamydia muridarum genital infection in mice genetically deficient in the r
99 linicians should note the increased risk for genital infection in patients receiving SGLT2 inhibitors
100 known about the host response to chlamydial genital infection in the male, particularly about the na
102 A major problem in the study of chlamydial genital infections in animal models has been the use of
106 l infection, compared with men with no prior genital infection, in individual HPV type and grouped HP
108 pigs acquired via sexual contact to those of genital infections induced artificially with known quant
112 the prevalence of human papillomavirus (HPV) genital infection is similarly high in males and females
113 nd disease severity of Chlamydia trachomatis genital infection is whether more prevalent strains or s
115 sponse associated with Chlamydia trachomatis genital infections is thought to be initiated by the rel
116 le of inflammasome components during in vivo genital infection, mice lacking NLRP3, NLRC4, and ASC we
118 n-specific harms, SGLT-2 inhibitors increase genital infections (odds ratio (OR) 3.29 (95% CI 2.88 to
122 cellular pathogen responsible for ocular and genital infections of significant public health importan
124 erpes simplex virus type 2 (HSV-2) and other genital infections on human immunodeficiency virus type
125 otentially useful for patients with isolated genital infection, or for patients who are allergic or i
126 tures, lower limb amputations, ketoacidosis, genital infections, or symptomatic hypovolaemia, althoug
127 ne approach for preventing a chronic, latent genital infection rather than an acute respiratory infec
128 revalent, asymptomatic Chlamydia trachomatis genital infection reduces reproductive sequelae in infec
129 nalyses showed consistent increased risks of genital infections (regulatory submissions 4.75 [4.00-5.
130 er; however, we propose that women, cured of genital infection, remain at risk for autoinoculation fr
131 bserved in women after Chlamydia trachomatis genital infection result from ascension of the bacteria
132 ition, SGLT2 inhibitors doubled the risk for genital infections (RR, 2.69 [CI, 1.61 to 4.52]; high ce
133 oral HPV infection was higher among men with genital infection than among uninfected men (11.4% vs. 5
135 OS2(-/-)) mice resolve Chlamydia trachomatis genital infection, the production of reactive nitrogen s
136 est that type I IFNs exacerbate C. muridarum genital infection through an inhibition of the chlamydia
137 , particularly isolates from respiratory and genital infections to form biofilm, compared with typabl
139 ia trachomatis in an in vitro model of human genital infection using the intracellular iron-chelating
142 ately preceding PID or gonococcal/chlamydial genital infection was not different between women who de
144 r 1998, an outbreak of Chlamydia trachomatis genital infections was reported among 18 residents of a
146 ole of type I IFNs during in vivo chlamydial genital infection, we examined the course and outcome of
147 inoculating dose of C. muridarum modulates a genital infection, we measured innate and adaptive cell
148 ith possible or proven Chlamydia trachomatis genital infection were screened for symptoms of ReA.
149 en douching and PID or gonococcal/chlamydial genital infections were assessed by proportional hazards
151 s, symptoms, and other reports suggestive of genital infections were more frequent in the dapaglifloz
155 ment of a highly efficacious vaccine against genital infection will depend on the generation of a liv
162 ent genital infection and 6-month persistent genital infection with HPV16 in relation to baseline ser
164 greater female-to-male (F-M) transmission of genital infection with human papillomavirus (HPV) relati
166 al studies from sub-Saharan Africa show that genital infection with Schistosoma haematobium [correcte
167 w cytometry the mononuclear cell response to genital infection with the agent of guinea pig inclusion
168 ular adhesion molecule type 1 (ICAM-1) after genital infection with the C. trachomatis agent of mouse
171 The molecular mechanisms of resistance to genital infection with the mouse pneumonitis (MoPn) stra
172 d chlamydial vaccine or repeated abbreviated genital infection with virulent chlamydiae promotes anam
175 rms were largely specific to drug class (eg, genital infections with SGLT-2 inhibitors, severe gastro
176 1 (Th1) response is essential for resolving genital infections with the mouse pneumonitis biovar of