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1 l1 is a phospholipase and a component of the lipid droplet.
2 membranes, capsid localizes in nucleoli and lipid droplets.
3 ids that accumulate in its absence reside in lipid droplets.
4 pids in the Tm6sf2(-/-) mice were located in lipid droplets.
5 mic reticulum membrane, and the formation of lipid droplets.
6 ng the activity of lipases on the surface of lipid droplets.
7 phology of AKT-CAT tumors and caused loss of lipid droplets.
8 d in granules including a protein matrix and lipid droplets.
9 in BAT with accumulation of large unilocular lipid droplets.
10 endoplasmic reticulum in a mutant devoid of lipid droplets.
11 associate with HCV core protein residing on lipid droplets.
12 the lipid and pigment compositions of these lipid droplets.
13 d to triglycerides, and stored as unilocular lipid droplets.
14 rentially modulating the number and sizes of lipid droplets.
15 Atg2 expression, permitting deregulation of lipid droplets.
16 in degradation and the dynamic regulation of lipid droplets.
17 ed with a decreased accumulation of TAGs and lipid droplets.
18 istic insights into these novel functions of lipid droplets.
19 Cos7 cells, brown adipocytes, and artificial lipid droplets.
20 ipophagy, a selective autophagy that targets lipid droplets.
21 myofibroblasts through the quantification of lipid droplets.
22 receptor transcriptional activities but more lipid droplets.
23 iculum, where it is esterified and stored in lipid droplets.
24 n, decreased ATP production, and accumulated lipid droplets.
25 iosynthesis and the formation of cytoplasmic lipid droplets.
26 were able to harvest lipids from macrophage lipid droplets.
28 nents, causes protein hypoglycosylation, and lipid droplets accumulate in fibroblasts from patients w
31 cific class of effectors is unable to induce lipid droplet accumulation, we demonstrate that the para
32 or-activated receptor gamma (PPARgamma)) and lipid droplet accumulation, whereas adenovirus-mediated
37 fferentiation, such as a large number of big lipid droplets, an increase of finger-like protrusions,
38 ted activity of FOXO1&HNF4alpha on CPT2, the lipid droplet and ER-lipid-raft associated PLIN3 and Erl
39 se results provide a direct link between the lipid droplet and proteasomal protein degradation and su
40 are components of the proteinaceous coat of lipid droplets and a single B. bassiana caleosin homolog
41 evealed an association of nsP3 with cellular lipid droplets and examined the spatial relationships be
42 D electron microscopy revealed intracellular lipid droplets and extracellular lipoprotein particles.
43 mechanisms by which autophagosomes recognize lipid droplets and how ATG proteins regulate membrane cu
44 revealed an intriguing relationship between lipid droplets and innate immunity that may represent a
45 SDP1 increased TAG accumulation in cytosolic lipid droplets and markedly enhanced plant tolerance to
47 al, but now there are multiple links between lipid droplets and neurodegeneration: many candidate gen
48 ting lipid catabolism to control the size of lipid droplets and prevent the development of obesity an
49 tion, thereby leading to the accumulation of lipid droplets and promoting tumor-associated macrophage
50 cale proteomics analysis of both cytoplasmic lipid droplets and secreted milk fat globule membranes w
52 re a link between the storage of histones in lipid droplets and the aberrantly structured chromosomes
54 massively accumulated cholesterol ester-rich lipid-droplets and surfactant had an increased proportio
55 olgi, lysosome, peroxisome, mitochondria and lipid droplet) and show how these relationships change o
56 of mitochondria, formation and expansion of lipid droplets, and the rapid and transient ruffling of
57 ifferences in the release of bioactives from lipid droplets, and their solubilization in mixed micell
61 on of neutral lipid storage within adipocyte lipid droplets, as well as the possible metabolic benefi
62 inducible protein 2 (HIG2)/hypoxia-inducible lipid droplet-associated (HILPDA) as lipid droplet (LD)
64 Chlamydomonas reinhardtii and contain major lipid droplet-associated protein and enzymes involved in
65 ts as FSP27 or fat-specific protein 27) is a lipid droplet-associated protein that promotes intracell
67 olysosome formation, and perilipin (PLIN), a lipid droplet-associated protein, suggesting lipophagic
68 ly, we identified a class of plant-specific, lipid droplet-associated proteins (LDAPs) that are abund
70 urring, cholesterol-containing extracellular lipid droplets at the RPE/choroid interface; proteins an
74 iation of the CPT1C mutation with changes in lipid droplet biogenesis supports a role for altered lip
75 and proteins involved in membrane remodeling/lipid droplet biogenesis: VESICLE-INDUCING PLASTID PROTE
76 w area of investigation emerged, centered on lipid droplets' biology and their role in energy homeost
78 served 11-mer repeat regions of PLINs target lipid droplets by folding into AHs on the droplet surfac
79 from intracellular metabolic co-factors and lipid droplets can distinguish the functional states of
80 s two types of lipid droplets: cytoplasmatic lipid droplets (CLD) and beta-carotene-rich (betaC) plas
81 e tissue since fasting and refeeding-induced lipid droplet clearance is also attenuated by Bif-1 loss
82 ) is a constitutively associated cytoplasmic lipid droplet coat protein that has been implicated in f
85 radiolabeled oleic acid into TAG, accumulate lipid droplets containing TAG and develop phenotypic tol
86 ease in the biosynthesis and accumulation of lipid droplets containing TAG and in its tolerance of ri
90 standing how lipophagy clears hepatocellular lipid droplets could provide new ways to prevent fatty l
91 A new paper by Bailey et al. reveals that lipid droplets, crucial organelles for energy storage, c
92 hat it accumulates under stress two types of lipid droplets: cytoplasmatic lipid droplets (CLD) and b
93 , inhibition of PLA2 significantly decreased lipid droplets, decreased oxidative phosphorylation, and
95 , mitochondria, and lipid droplets; however, lipid droplets display weaker mutual activation between
100 description, we computed the morphology of a lipid droplet embedded in between two identical monolaye
101 ogy of the knockout glands showed very large lipid droplets enclosed in the mammary alveolar cells, b
102 ed expression of Fsp27beta or CREBH promoted lipid droplet enlargement and TG accumulation in the liv
103 trophic adipocytes with large and unilocular lipid droplets exhibited impaired insulin-dependent gluc
104 promoted an increase in the size of cellular lipid droplets following transfection of viral RNA.
106 e endoplasmic reticulum for lipid synthesis, lipid droplets for storage and transport, mitochondria a
108 cohort of up-regulated genes associated with lipid droplet formation and lipid transport via lipoprot
110 tophagy are essential for starvation-induced lipid droplet formation and subsequent ketogenesis and,
111 aired preadipocyte proliferation and reduced lipid droplet formation and the induction of peroxisome
112 only enhances adipocyte differentiation and lipid droplet formation but also results in dysfunctiona
114 c pool of phosphatidic acid, associated with lipid droplet formation in the perinuclear ER, is respon
116 lear/endoplasmic reticulum membrane, reduced lipid droplet formation, and temperature sensitivity.
117 pression of adipophilin (PLIN2), a marker of lipid droplet formation, associated with favorable progn
118 doplasmic reticulum membrane morphology, and lipid droplet formation, but not on growth at elevated t
119 esulted in Opi1p being localized to sites of lipid droplet formation, coincident with increased synth
121 enzymatic activity, subsequently increasing lipid droplet formation, thereby providing cells with es
126 ads to changes in genes leading to increased lipid droplets formation in hepatocytes resulting in a d
127 pastic paraplegia also have central roles in lipid-droplet formation and maintenance, and mitochondri
128 alization of a three-dimensional assembly of lipid droplets, functionalized with extracellular E-cadh
131 uring Toxoplasma infection, the induction of lipid droplet generation is conserved not only during in
132 umulation of neutral lipids in intracellular lipid droplets has been associated with the formation an
135 s a mechanism by which cytokines can control lipid droplet homeostasis and consequently resistance to
137 ions including microsomes, mitochondria, and lipid droplets; however, lipid droplets display weaker m
138 scaffold protein at the surface of cytosolic lipid droplets in adipocytes, marked a fundamental conce
141 ion of oleic acid increased the frequency of lipid droplets in both C. neoformans and macrophages.
142 de receptors [(Fprs) 1, 2, and 3], a loss of lipid droplets in cortical cells (index of availability
144 hese actions resulted in the accumulation of lipid droplets in hepatocytes and systemic hyperlipidemi
147 in vol/vol concentration units of individual lipid droplets in living human adipose-derived stem cell
148 the size, number and spatial distribution of lipid droplets in living mouse oocytes and embryos up to
149 t differences in the chemical composition of lipid droplets in living oocytes matured in media supple
150 t staining has previously been used to image lipid droplets in mammalian oocytes and embryos, but thi
151 l role in the homeostasis of TAG -containing lipid droplets in Mtb and influences the entry of the pa
152 eurons can lead to transient accumulation of lipid droplets in neighboring glial cells, an event that
153 We also observed a reduction of mean (SD) lipid droplets in primary cortical neurons isolated from
160 that Tgl4p and Tgl5p, which are localized to lipid droplets in wild type, are partially retained in t
162 ation and suggest that dynamic regulation of lipid droplets is a key aspect of some proteotoxic stres
165 h triacsin C, a fatty acid analogue, impairs lipid droplet (LD) biogenesis and ERAD, suggesting a rol
166 ipodystrophy protein SEIPIN is important for lipid droplet (LD) biogenesis in human and yeast cells.
168 ns constitute an ancient family important in lipid droplet (LD) formation and triglyceride metabolism
169 This study was designed to characterize lipid droplet (LD) formation in EC by manipulating pathw
172 pid droplet-associated protein that promotes lipid droplet (LD) growth and triglyceride (TG) storage
173 ) are stored in the membrane-bound organelle lipid droplet (LD) in essentially all eukaryotic cells.
174 eipin is necessary for both adipogenesis and lipid droplet (LD) organization in nonadipose tissues; h
178 s from Lxralphabeta(-/-) mice have increased lipid droplet (LD) size, but the functional consequences
185 s under hypoxic and acidic stress acquired a lipid droplet (LD)-loaded phenotype, and showed an incre
189 Because the ACSL inhibitors can deplete lipid droplets (LD), we used a cell line where LD synthe
191 ive triglyceride accumulation in the form of lipid droplets (LD); however, mechanisms differ in drug
192 dden glucose depletion, yeast cells activate lipid-droplet (LD) consumption through micro-lipophagy (
193 FAEEs were transiently incorporated into lipid droplets (LDs) and both Yju3p and MGL co-localized
197 Storage and consumption of neutral lipids in lipid droplets (LDs) are essential for energy homeostasi
209 tored in seed tissues, where the assembly of lipid droplets (LDs) coincides with the accumulation of
213 Here we discover that microtubule-associated lipid droplets (LDs) in COS1 cells respond to an optical
214 donor mitochondria; however, the fraction of lipid droplets (LDs) in direct contact with a mitochondr
216 in motors are recruited to triglyceride-rich lipid droplets (LDs) in the liver by the GTPase ARF1, wh
218 tested whether the fraction of PLIN5-coated lipid droplets (LDs) is a determinant of skeletal muscle
219 Even distribution of peroxisomes (POs) and lipid droplets (LDs) is critical to their role in lipid
221 ocation of nuclear CCTalpha onto cytoplasmic lipid droplets (LDs) is proposed to stimulate the synthe
225 that CDCP1 depletes lipids from cytoplasmic lipid droplets (LDs) through reduced acyl-CoA production
226 reactors induces a sustained accumulation of lipid droplets (LDs) without compromising growth, which
227 type: polystyrene nanosphere size standards, lipid droplets (LDs), and large unilamellar vesicles (LU
228 for the first time, that peroxisomes (POs), lipid droplets (LDs), and the endoplasmic reticulum (ER)
229 talize neutral lipids into organelles called lipid droplets (LDs), and while much is known about the
230 TAGs), present in Arabidopsis guard cells as lipid droplets (LDs), are involved in light-induced stom
231 ian cancer cell lines) resulted in increased lipid droplets (LDs), reduced autophagic vacuoles (AVs)
238 olamine activation of the PKA pathway and of lipid droplet lipolysis with transcriptional regulation
239 eletion of AnxA1 or Fpr2/3 in mice prevented lipid droplet loss, but not leukocyte infiltration.
241 ve effect on triglycerides mobilization from lipid droplets, mediated by inhibition of other lipases.
242 physicochemical environment has on both the lipid droplet microstructure and the lipid release patte
243 indices of generalized adipogenesis, such as lipid droplet morphology and fatty acid binding protein
244 d an increase in triacylglycerol content and lipid droplet number in cells expressing the Nem1-Spo7 p
246 , invadolysin is localized on the surface of lipid droplets, organelles that store not only triglycer
248 t these host organelles, which suggests that lipid droplets play a critical role at the coccidian hos
249 ccumulating evidence suggests that the roles lipid droplets play in biology are significantly broader
250 s increasing evidence showing that cytosolic lipid droplets, present in all eukaryotic cells, play a
258 of ATGL, and negatively with mRNA levels of lipid droplet proteins, perilipin, and TIP47 in human su
264 ATG proteins regulate membrane curvature for lipid droplet sequestration, and comment on the possibil
265 HCV infection, YTHDF proteins relocalize to lipid droplets, sites of viral assembly, and their deple
267 pression in 3T3-L1 adipocytes did not affect lipid droplet size or cell viability but did increase au
268 deficiency reduces TG storage and diminishes lipid droplet size through inhibition of Ppargamma expre
269 ipocytes to blue light resulted in decreased lipid droplet size, increased basal lipolytic rate and a
271 pathic helices (AHs) significantly decreased lipid droplet targetingin vivoandin vitro Finally, we de
275 simultaneously help with the accumulation of lipid droplets that are not cleared effectively by autop
276 This study reveals an antioxidant role for lipid droplets that could be relevant in many different
278 otein and the nucleoporin Nup98 at cytosolic lipid droplets that is important for HCV propagation.
281 tion results in increased biogenesis of host lipid droplets through rewiring of multiple components o
283 including components of glucose metabolism, lipid droplet trafficking, and cytoskeletal organization
284 y disrupted lipolysis without affecting ATGL lipid droplet translocation or ABHD5 interactions with p
287 b1 levels were increased and accumulation of lipid droplets was observed, indicative of a blockade of
292 eic acid, away from membranes to the core of lipid droplets, where they are less vulnerable to peroxi
294 ted checkpoint forces these cells to utilize lipid droplets, which could potentially lead to therapeu
295 icles containing granules, mitochondria, and lipid droplets, which we designated as granule-containin
296 SEIPIN1 promoted accumulation of large-sized lipid droplets, while expression of SEIPIN2 and especial
297 d at the point of contact of the cytoplasmic lipid droplet with the apical plasma membrane, in the wi
299 d by a 40-fold increase in PNPLA3 on hepatic lipid droplets, with no increase in hepatic PNPLA3 messe
300 th this, we observed significantly increased lipid droplets, with subsequent mobilization to mitochon
301 by conventional methods, including extensive lipid droplets within glioma cells, collagen deposition
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