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1 ation, melanocyte development and apoptosis, hair growth).
2 , and cellular development (for example root hair growth).
3 ding of the complex network governing cyclic hair growth.
4 ing certain phases of normal or pathological hair growth.
5 e active phase), thereby facilitating robust hair growth.
6 neurogenic skin inflammation, which inhibits hair growth.
7 med calcium spiking) and alterations in root hair growth.
8 o Peronospora parasitica infection, and root hair growth.
9 pheomelanogenesis and eumelanogenesis during hair growth.
10 tion of TAT-Cre recombinase failed to affect hair growth.
11 reduced inflammatory response and increased hair growth.
12 plays a critical role in the maintenance of hair growth.
13 AtSfh1 activity in supporting polarized root hair growth.
14 n and cytoprotection to appetite control and hair growth.
15 rate the dermal papilla, a key component for hair growth.
16 novers and five cycles of depilation-induced hair growth.
17 been used to address the cyclical nature of hair growth.
18 morpha rhizoid and Arabidopsis thaliana root hair growth.
19 act in the same pathway in the regulation of hair growth.
20 follicle cycle, with concomitant accelerated hair growth.
21 of mice, and have investigated their role in hair growth.
22 ir follicles to enter anagen with consequent hair growth.
23 oisomer, 17-alpha-estradiol, did not inhibit hair growth.
24 telogen and enter anagen, thereby initiating hair growth.
25 re may have therapeutic potential to promote hair growth.
26 ablishment and maintenance of polarized root hair growth.
27 ify genes regulated by RSL4 that affect root hair growth.
28 in inflamed tissues, skin sensitization, and hair growth.
29 ges in root length, root branching, and root hair growth.
30 aling promoted adipocyte differentiation and hair growth.
31 ial therapeutic targets for modulating human hair growth.
32 ities to fine tune Wnt signaling for desired hair growth.
33 transit-amplifying cells (TAC) that maintain hair growth.
34 B to activate Shh in matrix cells to sustain hair growth.
35 me mobilized to fuel tissue regeneration and hair growth.
36 sm to restore both DP cell number and normal hair growth.
37 he population dynamics resulting in rhythmic hair growth.
38 hh signaling contributes to DP formation and hair growth.
39 otheses about the impact of interventions on hair growth.
40 s the role of the inner root sheath in human hair growth.
41 tle is known of their functions in postnatal hair growth.
42 ar structure of root hairs, and reduces root hair growth.
43 PS, used as a control, had no effect on root hair growth.
44 ling pathway with an essential role in human hair growth.
45 n Arabidopsis resulted in inhibition of root hair growth.
46 major effect of altered lipid metabolism on hair growth.
47 rther suggest a crucial role of LIPH gene in hair growth.
48 s an important role in the control of normal hair growth.
50 ssion of these constructs results in stunted hair growth, a phenotype that has also been observed in
52 % of Epi-Insig-DKO mice exhibited defects in hair growth along with other skin abnormalities, includi
53 e results support the hypothesis that murine hair growth and attendant melanogenesis can be regulated
56 ucidate a molecular mechanism that regulates hair growth and development, particularly in controlling
60 eatment, the hydrogel scaffolds promoted new hair growth and epidermal morphology and thickness simil
61 ras(G12D)) in the skin had strong effects on hair growth and hair shape, steady state changes in down
62 t improved follicle vascularization promotes hair growth and increases hair follicle and hair size.
63 e role of Bcl-2 expression in the control of hair growth and keratinocyte apoptosis, we have used tra
65 microtubule cytoskeleton is involved in root hair growth and orientation, we applied microtubule anta
66 ies of hair matrix progenitors that regulate hair growth and pigmentation, partly by creating an SCF-
67 The molecular mechanisms controlling human hair growth and scalp hair loss are poorly understood.
68 zed role for WNT signaling in the control of hair growth and structure, as well as presenting the fir
69 t be guided largely by patient distress with hair growth and subjective perceptions as opposed to cli
70 including the dermal papilla that regulates hair growth and the arrector pili muscle, which controls
71 ose their stem cell potency to contribute to hair growth and undergo premature differentiation instea
72 ated from tissue prior to, during, and after hair growth and used to probe Affymetrix Drosophila gene
74 vulgaris, acne scars, skin rejuvenation and hair growth, and for therapeutic applications including
75 decreased body mass, lordokyphosis, reduced hair growth, and generalized fat, muscle and organ atrop
76 ollicular dermal papilla is known to control hair growth, and steroid hormones regulate receptor and
77 immunosuppressive therapy display excessive hair growth, and unveil a functional role for calcium-NF
78 l labyrinth morphology, lung lobe septation, hair growth, and vascularization of kidney glomeruli.
80 as undetectable in telogen, increased during hair growth, and, after reaching the highest values in a
83 reservoir of epidermal stem cells, promoting hair growth, as well as stimulating tissue repair after
86 root hair tip is not only essential for root hair growth, but also dependent on the cytoplasmic calci
87 within the hair follicle maintain the cyclic hair growth, but whether these stem cells also contribut
89 m, corresponding to approximately 10 days of hair growth, by using a high spatial resolution exit con
91 sing in vivo imaging we found that, early in hair growth, cells have multiple actin bundles and hairs
93 minoxidil and that tolbutamide may suppress hair growth clinically; novel drugs designed specificall
94 of Krox20 lineage cells results in arrest of hair growth, confirming the critical role of KROX20(+) c
96 Most strategies to enhance Wnt signaling for hair growth create a state of constitutive Wnt activatio
98 jagged 1 (Jag1) results in inhibition of the hair growth cycle and conversion of hair follicles into
99 sting hair follicles were recruited into the hair growth cycle and epithelial outgrowths formed from
101 adverse effect may produce insights into the hair growth cycle as well as potential therapeutic targe
103 ave made use of the fact that in rodents the hair growth cycle is synchronized, well characterized, a
105 was delivered during different stages of the hair growth cycle, followed by histologic and gross obse
106 eted by adipocytes are known to regulate the hair growth cycle, it is unclear whether the epidermis c
108 ts in the follicle outer-root sheath and the hair growth cycle, respectively, the hair defect in the
109 ent increased hair survival during the first hair growth cycle, the level of protection having a slig
110 elanocytes in epidermis to UV nonresponsive, hair growth cycle-coupled melanogenesis in hair follicle
123 l and spatial expression patterns during the hair-growth cycle by quantitative real-time PCR and in s
124 icroarray dataset of mRNA expression for the hair-growth cycle in mouse back skin, predicting both pr
127 t many more genes may be associated with the hair-growth cycle than have been identified in the liter
131 nt, using a model of predictable synchronous hair growth cycles in the infantile and adolescent mice.
133 atonin has been experimentally implicated in hair growth cycling, pigmentation physiology, and melano
135 known as GC13 mice), known to develop severe hair growth defects and alopecia, as a tool for defining
136 aging and pharmacologic modification of root hair growth defects in rhd3 suggest that there is interp
141 y mice showed almost complete restoration of hair growth, dermal ridges, sweat glands and molars.
142 e of vitamin D receptor in the regulation of hair growth directly, we used the human keratin 14 promo
143 y provide useful therapeutic tools for human hair growth disorders based on premature or retarded cat
144 agonists may be useful for the management of hair growth disorders characterized by premature entry i
146 HF cycling abnormalities underlie many human hair growth disorders, the accurate classification of in
148 often ensue, such as strictures, infection, hair growth, graft shrinkage, diverticuli, and even mali
149 psychoemotional stress can have an impact on hair growth has been treated with skepticism and assigne
151 y RHD2/AtrbohC NADPH oxidase is required for hair growth; here we show that SCN1/AtrhoGDI1 is a compo
152 ors involved in wound healing and regulating hair growth; however, their role in skin regeneration af
156 ve identified FGF5 as a crucial regulator of hair growth in humans for the first time, to our knowled
157 leted rat cortical neurons and impaired root hair growth in loss-of-function mutants of the ATL1 orth
159 owed marked acceleration of the onset of new hair growth in the region of AdShh administration to ski
160 the PPR in the hair cycle, we have evaluated hair growth in the traditional K14-PTHrP (KrP) and an in
161 ture has been established for some time, but hair growth in vitro is limited and generally terminates
163 ose their HF-inducing properties, but during hair growth in vivo, they reside within the HF bulb and
166 a-Catenin activation is sufficient to induce hair growth independently of mesenchymal dermal papilla
167 otection was maintained during two cycles of hair growth indicated that the clonogenic cells had been
168 ation of a specific COX-2 inhibitor restored hair growth, indicating that the alopecia was attributab
170 ase induction in postnatal skin and that the hair growth-inducing effect of noggin is mediated, at le
171 preactivation reduced premature catagen and hair growth inhibition induced by oxidative stress (H2O2
174 These data confirm that the cessation in hair growth is not due to a loss of the inductive capaci
175 ing high levels of E2F1, mice have decreased hair growth likely as a result of aberrant apoptosis in
176 ponses to pathogen infection and normal root hair growth, linking defense response regulation with th
177 cyclical and initially synchronous nature of hair growth makes the hair follicle an ideal system with
178 testing may facilitate testing of candidate hair growth modulatory agents in human HF organ culture
182 r genitalia growth, Tanner stage 5 for pubic hair growth, or testicular volume (TV) >/= 20 mL in eith
184 s, including increased body weight, abnormal hair growth pattern, lymphoma, mammary tumors, and endom
186 ction in embryonic skin, initiation of a new hair growth phase in postnatal skin requires neutralizat
187 administration of noggin protein induces new hair growth phase in postnatal telogen skin in vivo.
188 of BMP4 signaling by noggin is essential for hair growth phase induction in postnatal skin and that t
189 ws that MadB1-4 contribute to polarized root hair growth, phenocopying myosins, whereas MadA1-4 are r
192 f the agouti signaling protein (ASIP) during hair growth produces the red/yellow pigment pheomelanin.
193 d phenotype toku is characterized by delayed hair growth, progressive hair loss, and excessive accumu
195 cells, which do not normally participate in hair growth, re-populate the lost stem-cell compartment
196 e as well as the apical localization of root hair growth regulator ROP2 is oscillated in rhd3 Interes
197 DPCs secreted higher levels of the negative hair growth regulators transforming growth factor beta 1
198 onic hair follicle development and postnatal hair growth rely on intercellular communication within t
201 es in both mouse and man suggest that proper hair growth requires their spatio-temporally coordinated
203 ith a neutralizing anti-VEGF antibody led to hair growth retardation and reduced hair follicle size.
204 mutant, which is defective in sustained root hair growth, showed an altered [Ca2+]c distribution comp
206 ely related dermal fibroblasts, can maintain hair growth suggesting cell type-specific molecular sign
207 our data identify Sox2 as a key regulator of hair growth that controls progenitor migration by fine-t
208 We find that the DKO mice have a defect in hair growth that is markedly worse than that of SGK3(-/-
209 ur understanding of the regulation of normal hair growth, the basis of hereditary hair loss diseases,
210 s, e.g., minoxidil and diazoxide, can induce hair growth, their mechanisms require clarification.
211 mouse hair follicle stem cells generates new hair growth through oriented cell divisions and cellular
213 ynamic adipogenic program that occurs during hair growth to uncover an unrecognized regulator of ASC
217 aBK allele, somatic, testicular, genital and hair growth were grossly affected and influenced by the
218 Moreover, isolated dermal tissue induced hair growth when implanted into inactivated hair follicl
219 retards anagen entry and consequently delays hair growth, whereas loss of Msi2 enhances hair regrowth
220 duced a profound and prolonged inhibition of hair growth while treatment with the biologically inacti
221 efects were found in HAT-L4 knockout mice in hair growth, wound healing, water repulsion and body tem
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