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1 in B cell LAMP-2C expression did not impact macroautophagy.
2 apoptotic pathway requires the inhibition of macroautophagy.
3 iseases are associated with dysregulation of macroautophagy.
4 ly to its role in the degradative process of macroautophagy.
5 onserved and essential mediator of canonical macroautophagy.
6 cation compartment formation; and micro- and macroautophagy.
7 and intracellular components sequestered by macroautophagy.
8 tants were defective in ER-Golgi traffic and macroautophagy.
9 tion of the phagophore and in the process of macroautophagy.
10 mune response, chemotaxis, and regulation of macroautophagy.
11 shortage or organelle damage, cells undergo macroautophagy.
12 Their clearance requires macroautophagy.
13 lglycerol, and their metabolizing enzymes in macroautophagy.
14 naive T cells, two physiological inducers of macroautophagy.
15 nly proteasome-mediated proteolysis but also macroautophagy.
16 the ER-Golgi fusion machinery are needed for macroautophagy.
17 n functionally links ER stress responses and macroautophagy.
18 reby mitochondria are turned over is through macroautophagy.
19 ylation of lysosomal GFAP, with no change in macroautophagy.
20 e proteins via mechanisms acting upstream of macroautophagy.
21 e, and 3) reveal that vaults arrive early in macroautophagy.
22 asome, tauDeltaC is cleared predominantly by macroautophagy.
23 ivation of AMPK, which activates prosurvival macroautophagy.
24 at trigger cytoprotective detoxification via macroautophagy.
25 agments by selective autophagy, particularly macroautophagy.
26 umulation, neuroinflammation, and changes in macroautophagy.
27 ic contents to lysosomes for degradation via macroautophagy.
28 of Rapamycin (mTOR)-dependent suppression of macroautophagy.
29 of Ca(v)3.1 accompanied by the activation of macroautophagy.
30 of lysosomal biogenesis and up-regulation of macroautophagy.
31 ing catabolic pathways, particularly that of macroautophagy.
32 ion, the cell activates one or more forms of macroautophagy.
33 e show that the N-end rule pathway modulates macroautophagy.
34 complex, which is required for initiation of macroautophagy.
35 l lysosomes from autolysosomes formed during macroautophagy.
36 tion of the proteasome (bortezomib), but not macroautophagy (3-methyladenine), markedly increased PNP
39 east partially attributable to regulation of macroautophagy, a highly conserved protein catabolism pa
41 us for this purpose, we assessed the role of macroautophagy, a process in which cytosolic proteins ar
43 has shown that WNV growth was independent of macroautophagy activation, but the role of the evolution
44 long been recognised for its involvement in macroautophagy activation, the underlying mechanisms and
45 n of intraneuronal aggregates containing the macroautophagy adapter proteins p62 and NBR1 in the neur
47 o regulate the cellular catabolic process of macroautophagy, although the precise mechanism whereby t
49 ave pronounced effects on the fusion step of macroautophagy and affect the overall activity of this i
50 dysfunction was accompanied by impairment of macroautophagy and chaperone-mediated autophagy, increas
51 ss is mediated by distinct functions of both macroautophagy and CMA, indicating that impaired functio
53 , we report a functional interaction between macroautophagy and Corticotropin Releasing Hormone (Crh)
54 found that ubiquilin is degraded during both macroautophagy and during chaperone-mediated autophagy (
55 cle fibers show a high level of constitutive macroautophagy and express MHC class II molecules upon i
56 dy were to determine whether NSAIDs impaired macroautophagy and how this affects macroautophagy-regul
59 This review discusses emerging concepts in macroautophagy and macroautophagy-independent processes
60 anism through which TNF-alpha regulates both macroautophagy and MHC class II expression and suggest t
63 que roles for GABARAP and LC3 subfamilies in macroautophagy and selective autophagy and demonstrates
64 ce of these phosphatases, starvation-induced macroautophagy and the cytoplasm-to-vacuole targeting pa
65 macroautophagic machinery, the regulation of macroautophagy and the process of cargo recognition in s
66 of plasma membrane connexin 43 targeted for macroautophagy and the sequence of events that trigger t
67 Ypt1 and its mammalian homolog Rab1 regulate macroautophagy and two other trafficking events: endopla
70 Influenza infection triggered productive macroautophagy, and autophagy-dependent presentation was
71 cles, organelle degradation by mitophagy and macroautophagy, and in some cases transfer to glial cell
72 gosome formation is the most complex part of macroautophagy, and it is a dynamic event that likely in
73 3, a component of the molecular machinery of macroautophagy, and maintains phagocytosed antigens for
75 ly, a reduction in LC3 flux and dampening of macroautophagy are observed in dendritic cells from Anxa
76 oteolysis and autophagosome clearance during macroautophagy are prevented as a result of a selective
78 xpectedly, these increases did not depend on macroautophagy, as similar increases in vacuole size wer
79 tingtin transgene expression, the absence of macroautophagy (ATG5 or ATG7 expression), an increase in
81 role in the initiation of starvation-induced macroautophagy (autophagy) and is activated by the guani
94 a mechanism different from that of a loss of macroautophagy, because death occurred in the absence of
95 sing pharmacological and genetic blockage of macroautophagy both in vitro and in vivo, we found that
96 gophore is a key event in the early phase of macroautophagy, but can also occur on single-membrane st
99 ind that alpha-syn aggregates impair overall macroautophagy by reducing autophagosome clearance, whic
102 s; however, either insufficient or excessive macroautophagy can seriously compromise cell physiology,
104 efficient removal of damaged mitochondria by macroautophagy contributes to Parkinson's disease (PD).
105 phosphorylation sites partially bypasses the macroautophagy defect in ptc2Delta ptc3Delta strains.
106 was accelerated in transgenic mice in which macroautophagy deficiency was restricted to dopaminergic
107 cally deleted in T cells, we have found that macroautophagy-deficient effector Th cells have defectiv
111 DCs operated in a redundant manner, whereas macroautophagy-dependent endogenous loading was essentia
112 ent proteolysis, autophagy and regulation of macroautophagy, DNA repair and replication, as well as o
113 encing Beclin-1, Atg7, or p62 indicated that macroautophagy does not protect cells undergoing necrosi
115 inhibited mTORC1 as the master regulator of macroautophagy during mitosis, uncoupling autophagy regu
117 tes delayed chaperone-mediated autophagy and macroautophagy dysfunction observed in the hSYN(A53T) mi
118 teract cardiac aging through improvements in macroautophagy (eg, calorie restriction and calorie rest
120 MHC class II-restricted thymocytes required macroautophagy for a mitochondrial version of a neo-anti
121 -driven tumors have been reported to rely on macroautophagy for growth and survival, suggesting a pot
123 TNF-alpha facilitates antigen processing via macroautophagy for more efficient MHC class II loading.
126 G12, an ubiquitin-like modifier required for macroautophagy, has a single known conjugation target, a
142 compartments that were positive for both the macroautophagy (hereafter referred to as autophagy) mark
146 nse mechanism is the degradative activity of macroautophagy (herein autophagy), mediated by the coord
150 unknown, but many studies suggest a role for macroautophagy (herein termed autophagy), a process by w
151 blish an essential link between mitochondria macroautophagy impairments and DA neuron degeneration in
152 nase activity resulted in the stimulation of macroautophagy in a non-canonical fashion, independent o
153 , we found that vacuolar hydrolysis inhibits macroautophagy in a target of rapamycin complex 1-depend
155 Recent work demonstrated the importance of macroautophagy in dendritic cell (DC) maturation and inn
156 g the regulation and molecular mechanisms of macroautophagy in different organisms; however, many que
158 is study reveals a novel regulatory role for macroautophagy in GJ function that is directly dependent
160 -type alpha-synuclein overexpression impairs macroautophagy in mammalian cells and in transgenic mice
161 that alpha-synuclein overexpression impairs macroautophagy in mammalian cells and in transgenic mice
166 (ATG7) by genome editing completely blocked macroautophagy in several tumor lines with oncogenic mut
171 r organelles involved in different stages of macroautophagy, including disorganized protein aggregati
173 e of specific lipids in the various steps of macroautophagy, including the signaling processes underl
174 port that metabolic stress markedly enhances macroautophagy-independent lysosomal degradation of nasc
175 sses emerging concepts in macroautophagy and macroautophagy-independent processes of cargo delivery t
179 n, depletion of mutant p53 expression due to macroautophagy inhibition sensitizes the death of dorman
180 antigen (HLA)-DR levels and was reversed by macroautophagy inhibition, suggesting that TNF-alpha fac
184 including the signaling processes underlying macroautophagy initiation, autophagosome biogenesis and
185 to other intracellular trafficking pathways, macroautophagy involves a complex sequence of membrane r
186 The most studied type of autophagy, called macroautophagy, involves membrane mobilisation, cargo en
201 d with the absence of significant defects in macroautophagy is consistent with lysosomal membrane per
212 wn to be autophagic substrates, induction of macroautophagy is not required for insoluble protein for
220 ting degradation of cytoplasmic materials by macroautophagy, is formed in close proximity to the endo
221 mouse model where Atg7, a critical gene for macroautophagy, is specifically deleted in T cells, we h
223 23 kDa) deficiency blocks the activation of macroautophagy, leading to an increased abundance of BAX
225 tions to crucial components of the canonical macroautophagy machinery and can occur in the absence of
226 creen exposed MTOR signalling and the entire macroautophagy machinery as key regulators of SQSTM1 and
228 review, we summarize current knowledge about macroautophagy mainly in yeast, including the mechanism
230 mitochondria abnormalities, characterized by macroautophagy marker-positive cytoplasmic inclusions co
232 and MHC class II expression and suggest that macroautophagy-mediated antigen presentation contributes
236 testinal health, NSAID-induced inhibition of macroautophagy might contribute to the severity of intes
237 roteasome system, unfolded protein response, macroautophagy, mitophagy, and telomere maintenance) res
238 thermore, treatments that enhance or inhibit macroautophagy modulated the level of presentation from
240 in metazoan cells, it has been proposed that macroautophagy must be inhibited to maintain genome inte
242 roaches, we confirmed the implication of the macroautophagy on PLK2-mediated alpha-syn turnover, and
243 pecifically in a process called nonselective macroautophagy, or target specific protein aggregates de
245 signaling aggregates, 2) offer images of the macroautophagy pathway in a near-native state, and 3) re
247 teins (ATG8s) are active in all steps of the macroautophagy pathway, and their lipidation is essentia
248 Phagophore maturation is a key step in the macroautophagy pathway, which is critical in many import
254 Thus, upon AICD induction regulation of macroautophagy, rather than selective mitophagy, ensures
259 impaired macroautophagy and how this affects macroautophagy-regulated intestinal epithelial cell (IEC
270 view the effect of ROS on selective forms of macroautophagy, specifically on cargo recognition by aut
271 hanisms and the wider impact of ROS-mediated macroautophagy stimulation remain incompletely understoo
272 autophagy and clearance of a well-described macroautophagy substrate, demonstrating the critical rol
275 herefore, both elevated NY-ESO-1 release and macroautophagy targeting could improve melanoma cell rec
281 events through which LRRK2 acts to influence macroautophagy, the mammalian target of rapamycin (mTOR)
282 leton scaffolds also have essential roles in macroautophagy, the process by which cellular waste is i
284 eased hepatocyte apoptosis and liver injury; macroautophagy therefore protected cells from the toxic
285 n pathway, possibly linking dysregulation of macroautophagy to a female-dominated COPD disease phenot
288 contributions of abnormal ROS signalling and macroautophagy to the development and progression of neu
292 ted mice, and feeding-mediated inhibition of macroautophagy was attenuated in FXR-knockout mice.
293 in the RALA255-10G rat hepatocyte line when macroautophagy was inhibited by a short hairpin RNA (shR
295 for intestinal homeostasis and dependent on macroautophagy were dysfunctional in the presence of NSA
296 are three different types of autophagy, but macroautophagy, which involves the formation of double m
299 ulated tumor suppressor acting by inhibiting macroautophagy, with MAP1LC3B (LC3B) as a direct and fun
300 he process of cargo recognition in selective macroautophagy, with the goal of providing insights into