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1 ressed in freshly dispersed than in cultured sebocytes.
2 d synthesis in primary and transformed human sebocytes.
3 esteryl esters, and wax esters in OG-treated sebocytes.
4 will drive inflammatory gene expression from sebocytes.
5 y of antimicrobial peptide activity in human sebocytes.
6 AMP)-mediated innate immune defense of human sebocytes.
7 ic acid did not induce cytotoxicity to human sebocytes.
8 1, and stearoyl-CoA desaturase mRNAs in SZ95 sebocytes.
9 pression, in turn, stimulates lipogenesis in sebocytes.
10 and time-dependent decreases in viable SEB-1 sebocytes.
11 amma activation and COX-2 expression in SZ95 sebocytes.
12 can influence cytokine expression from human sebocytes.
13 ncreased PPARgamma reporter activity in SZ95 sebocytes.
14 entiation into interfollicular epidermis and sebocytes.
15 stimulates proliferation of undifferentiated sebocytes.
16 uman facial skin, human sebocytes, and SEB-1 sebocytes.
17 n the hair follicle infundibulum, and in the sebocytes.
18 matory changes were associated with abnormal sebocyte accumulation of lipid, defective sebum delivery
19 follicles into interfollicular epidermis and sebocytes and causes loss of LRC primarily through proli
23 wed a subnormal level of FATP4 expression in sebocytes and exhibited abnormal development of both seb
24 ion by pilosebaceous epithelial cells (i.e., sebocytes and follicular keratinocytes) has been propose
28 stem cell compartment and differentiate into sebocytes and interfollicular epidermis at the expense o
29 ndritic cells was opposite to this action on sebocytes and keratinocytes and did not correlate with t
32 P450c17, and steroidogenic factor 1 in SEB-1 sebocytes and sebaceous glands was compared to mRNA leve
33 is expressed by epidermal keratinocytes and sebocytes and serves as an antimicrobial protein that is
35 us glands IHH is expressed in differentiated sebocytes and the transcription factor GLI1 is activated
36 nd activity of PPARs in human skin and SEB-1 sebocytes and to assess the effects of PPAR ligands on s
38 ivated receptor-gamma, which is expressed in sebocytes, and contribute to secretory differentiation i
41 otein-1 (SREBP-1) signaling pathway in SEB-1 sebocytes, and reduced inflammation by suppressing the N
43 uclei and resistin in the cytoplasm of basal sebocytes, and stearoyl CoA desaturase in the cytoplasm
44 lti-modal lipid profiling, keratinocytes and sebocytes are implicated in lipid changes, which correla
46 he hair follicle-associated sebaceous gland, sebocytes are specialized lipid-producing cells that can
47 l peptides showed an age-related decrease in sebocyte area and increases in natural moisturizing fact
49 rt that 13-cis RA induces apoptosis in SEB-1 sebocytes as shown by increased Annexin V-FITC staining,
51 ubset of differentiated keratinocytes called sebocytes, as demonstrated by Northern blot analysis, in
54 ted receptor gammal mRNA was demonstrated in sebocytes, but not in epidermal cells; it was more stron
55 cycle arrest and induces apoptosis in SEB-1 sebocytes by a RAR-independent mechanism, which contribu
57 he Hedgehog pathway thus plays a key role in sebocyte cell fate decisions and is a potential target f
58 is and immunofluorescence of an immortalized sebocyte cell line (SZ95) revealed the presence of hista
63 performance liquid chromatography, untreated sebocytes contained 6.27 (+/-0.73) nmol squalene per 10(
64 athways of differentiation in adipocytes and sebocytes could be similar and therefore further underst
65 le by western blotting in the supernatant of sebocyte culture incubated with each FFA, but not with a
67 show the presence of histamine receptors on sebocytes, demonstrate how an antagonist to these recept
69 the Hedgehog pathway selectively suppressed sebocyte development, Hedgehog pathway activation led to
70 aceous glands expressed molecular markers of sebocyte differentiation and were functional, secreting
72 PTCH1 and IHH are up-regulated during human sebocyte differentiation in vitro and inhibition of hedg
77 As lipogenesis is key to both adipocyte and sebocyte differentiation we hypothesize that sebocytes f
79 mis Blimp1 is important for keratinocyte and sebocyte differentiation, its role in dermal fibroblasts
80 ltiple aspects of skin physiology, including sebocyte differentiation, keratinocyte proliferation, ep
84 The hallmark of sebaceous epithelial cell (sebocyte) differentiation is the accumulation of fused n
85 palmitic acid, or oleic acid (OA) with human sebocytes dramatically enhanced their expression of huma
87 sebocyte differentiation we hypothesize that sebocytes follow a similar program of differentiation to
90 tween mitochondrial dysfunction and abnormal sebocyte function within sebaceous and modified SGs thro
91 When overexpressed in immortalised human sebocytes, GATA6 triggers a junctional zone and sebaceou
92 ribosomal RNA gene sequencing, whereas host sebocyte gland area, skin lipids, natural moisturizing f
94 the roles of specific retinoid receptors in sebocyte growth and differentiation, by testing the effe
95 etinoid X receptors differ in their roles in sebocyte growth and differentiation: (i) retinoic acid r
96 xpressed TNF receptor ligands, which limited sebocyte growth by repressing Notch signaling pathway.
97 ow that deletion of Acbp in mouse results in sebocyte hyperplasia and sparse, matted hair with a grea
102 expression is restricted to differentiating sebocytes located in the suprabasal layers of the sebace
103 rget genes but also stimulated expression of sebocyte markers, suggesting that it may determine the d
104 tivation and long chain fatty acids finalize sebocyte maturation and are capable of stimulating epide
105 .1 mM stimulated significantly more advanced sebocyte maturation than any other treatment, including
108 sheath and hair shaft and in the most mature sebocytes of the sebaceous gland and preputial, meibomiu
110 erentiation of the sebaceous gland, with the sebocytes producing little or no sebum and undergoing ab
111 d hyperplasia resulted from expansion of the sebocyte-producing zone in sebaceous glands, with partic
112 he transcription factor GLI1 is activated in sebocyte progenitors, suggesting a paracrine signaling m
114 noleic acid and testosterone, and suppressed sebocyte proliferation via the activation of transient r
116 (termed 4.1) possesses activity to suppress sebocyte-specific expression and induce expression in th
118 s failed to elicit a PGE(2) response in SZ95 sebocytes stably expressing a dominant-negative PPARgamm
121 on and lipid metabolism, their expression in sebocytes suggests they may also play a similar role in
123 lectin-12 is a lipogenic factor expressed in sebocytes that affects their differentiation and prolife
124 , the progressive transcriptional changes of sebocytes that lead to sebum production have never been
125 , lipogenesis assays were performed in SEB-1 sebocytes that were treated with PPAR ligands and isotre
126 amines were investigated for their effect on sebocytes, the major cell of the sebaceous gland respons
128 in, further characterize the contribution of sebocytes to epidermal immunity, and demonstrate how cha
129 CL26 upregulation by IL-4 was reversed after sebocyte treatment with inducers of endoplasmic reticulu
131 histone H4 in the antimicrobial activity of sebocytes was confirmed by a specific neutralizing antib
135 d3, which is expressed exclusively in mature sebocytes, we established a mouse line with sebocyte-spe
136 Although not previously demonstrated in sebocytes, we report that 13-cis RA induces apoptosis in
144 upregulate the expression of hBD-2 in human sebocytes, which may enhance the disinfecting activity o
145 ecause genetic tools that allow targeting of sebocytes while maintaining intact epidermal lipids are
146 lays a unique role in the differentiation of sebocytes, while peroxisome proliferator-activated recep
147 )36 fatty acid translocase on the surface of sebocytes with anti-human CD36 IgG or blocking the NF-ka