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1 rugs for targeting to specific tissues (e.g. olfactory mucosa).
2 ransporters in mouse nasal tissue containing olfactory mucosa.
3 olated by DNA-affinity purification from rat olfactory mucosa.
4 rthologs are expressed preferentially in the olfactory mucosa.
5 f glial cell which can be harvested from the olfactory mucosa.
6  patterns of neural receptor activity on the olfactory mucosa.
7 roteins among non-neuronal cell types of the olfactory mucosa.
8 pression of the CYP1A2 gene in the liver and olfactory mucosa.
9 e immunostaining, and decreased depth in the olfactory mucosa.
10 found to be expressed at a high level in the olfactory mucosa.
11 o reacts to pressure pulses delivered to the olfactory mucosa.
12 hat excluded circulating antibodies from the olfactory mucosa.
13  cells are the major target cell type in the olfactory mucosa.
14 ) in intercellular signaling pathways in the olfactory mucosa after target ablation.
15  element and nuclear extracts from liver and olfactory mucosa, all of which were supershifted in the
16 , we transplanted lamina propria (LP) of the olfactory mucosa alone or in combination with cultured o
17 nt stimuli, namely mechanical stimuli to the olfactory mucosa and a large number of amino acids.
18 onstrated that EGFR mRNA is expressed in the olfactory mucosa and also in the positive control tissue
19 T) isozymes (alpha, mu, and pi) in the mouse olfactory mucosa and characterize the zonal expression o
20 owed by transplantation of lamina propria of olfactory mucosa and cultured olfactory ensheathing cell
21    CYP2A3 is expressed preferentially in rat olfactory mucosa and is believed to play important roles
22 nation reduced H5N1 virus replication in the olfactory mucosa and prevented subsequent virus spread t
23 event influenza virus replication within the olfactory mucosa and subsequent spread to the CNS.
24     Influenza A viruses can replicate in the olfactory mucosa and subsequently use the olfactory nerv
25 n of CR-ir olfactory receptor neurons in the olfactory mucosa and their bulbar projections.
26 application of horseradish peroxidase to the olfactory mucosa and were subsequently sacrificed.
27 t studies point to an important role for the olfactory mucosa as a barrier to both respiratory pathog
28 rat CYP2A3, which has been detected in human olfactory mucosa as well as in liver.
29 e study combined psychophysical testing with olfactory mucosa biopsy analysis, single-cell RNA-Sequen
30 ytochrome P-450 isoform in the liver and the olfactory mucosa but is essentially not expressed in oth
31 ted with the CYP2A3 promoter in vivo, in rat olfactory mucosa, but essentially not in the liver where
32                  We have found OPs in monkey olfactory mucosa, but none in rodents.
33 f the CYP2A3 gene with nuclear extracts from olfactory mucosa, but not from liver, lung, kidney, or b
34                                          The olfactory mucosa can serve as a conduit for a number of
35                                        Human olfactory mucosa cells (hOMCs) have been transplanted to
36                                       In the olfactory mucosa containing the olfactory receptor neuro
37    This mechanism of prion shedding from the olfactory mucosa could contribute to prion transmission.
38 ique immunologically relevant anatomy of the olfactory mucosa, describing what is known of olfactory
39  nervous system (CNS) anterogradely from the olfactory mucosa following intranasal infection.
40 iseases, can readily enter the brain via the olfactory mucosa, have led to the hypothesis that Alzhei
41 ed with unique proteins detected only in the olfactory mucosa in electrophoretic mobility shift assay
42  research highlights the significant role of olfactory mucosa in nose-to-brain delivery, with an effi
43 to obtain the cells from the more accessible olfactory mucosa in the nasal lining.
44 ed rabbit P450s known to be expressed in the olfactory mucosa, including 1A2, 2A10/11, 2B4, 2E1, 2G1,
45                                    The mouse olfactory mucosa is a complex chemosensory tissue compos
46                                          The olfactory mucosa is a component of the nasal airway that
47  COVID-19 pandemic has demonstrated that the olfactory mucosa is an integral part of a heterogeneous
48                                   The rodent olfactory mucosa is characterized by a mosaic of gene ex
49   Furthermore, we show that NCX1 mRNA in rat olfactory mucosa is expressed as 8 alternative splice va
50                              Inserted in the olfactory mucosa lining of the nasal cavity, they are ex
51 ociated with CYP2A13 promoter in vivo in the olfactory mucosa of CYP2A13-transgenic mice.
52 own to cause tissue-specific toxicity in the olfactory mucosa of rodents at very low doses.
53 e-specific toxicity at very low doses in the olfactory mucosa of rodents.
54 ll cultures (neurosphere-derived cells) from olfactory mucosa of schizophrenia patients have signific
55 y highlights the importance of including the olfactory mucosa, olfactory nerve, and CNS tissues in fu
56 e two major olfactory organs of rodents, the olfactory mucosa (OM) and the vomeronasal organ (VNO), u
57              In 2017, we have shown that the olfactory mucosa (OM) collected from FFI patients contai
58  antibody were determined for lung and nasal olfactory mucosa (OM) from Cyp2abfgs-null, CYP2A13-human
59                                          The olfactory mucosa (OM) is exposed to environmental agents
60 rion protein in cerebrospinal fluid (CSF) or olfactory mucosa (OM) samples.
61 ptors and cell adhesion molecules across the olfactory mucosa (OM).
62 liver, nasal-associated lymphoid tissue, and olfactory mucosa (OM).
63                                     Although olfactory mucosa possesses long-lived horizontal basal s
64 tion element potentially responsible for the olfactory mucosa-predominant expression of the CYP2A3 ge
65 gene and nuclear extracts from rat liver and olfactory mucosa revealed a single protected region corr
66 id not prevent H5N1 virus replication in the olfactory mucosa sufficiently, resulting in CNS invasion
67 stentacular cells and Bowman's glands of the olfactory mucosa suggests that these cells play a signif
68 scernibly different flux patterns across the olfactory mucosa that may contribute to the encoding of
69 n of flux (or imposed patterning) across the olfactory mucosa, that carries information concerning od
70                                          The olfactory mucosa, the organ of smell in the nose, is a n
71 the anterograde spread of the virus from the olfactory mucosa to the bulb.
72  an NFI isoform previously identified in the olfactory mucosa, transactivated the CYP2A3 promoter, wh
73  different tissue compartments (e.g. kidney, olfactory mucosa) via organic anions.
74 ed, and infiltration of these cells into the olfactory mucosa was also observed.
75 nce delay and phagocytic dysfunction in aged olfactory mucosa were accompanied by a decline of phagoc
76                     Biopsies of the skin and olfactory mucosa were obtained, and expression levels of