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1 components during spermatid differentiation (spermiogenesis).
2 h protamine for compaction into sperm during spermiogenesis.
3 ation defects, indicating a function in late spermiogenesis.
4 ependent involvement of the Pygo2 protein in spermiogenesis.
5 multiple tissue membranes or act upstream of spermiogenesis.
6 expressed in the testis, specifically during spermiogenesis.
7 erived from transcription that precedes late spermiogenesis.
8 s coevolved to play cooperative roles during spermiogenesis.
9 teins play an earlier structural role during spermiogenesis.
10 centriolar adjunct and acrosomal cap during spermiogenesis.
11 ous sheath, a cytoskeletal element unique to spermiogenesis.
12 e expression of its target mRNAs involved in spermiogenesis.
13 otile spermatozoa through a process known as spermiogenesis.
14 eton-based cell-morphological changes during spermiogenesis.
15 that Rnf17 encodes a novel key regulator of spermiogenesis.
16 is required for normal meiotic division and spermiogenesis.
17 erm cells) in a developmental cascade termed spermiogenesis.
18 modulator gene are sterile due to failure of spermiogenesis.
19 ix5 for both spermatogenic cell survival and spermiogenesis.
20 other chromosome processes during mammalian spermiogenesis.
21 teins, and subsequently by protamines during spermiogenesis.
22 or late pachytene stages of meiosis or early spermiogenesis.
23 histone-to-protamine transition in mammalian spermiogenesis.
24 -binding protein and is essential for normal spermiogenesis.
25 the phenotype of CREM, a master regulator of spermiogenesis.
26 for this novel CLIP derivative during mouse spermiogenesis.
27 single large acrosomic vesicle at step 3 of spermiogenesis.
28 ce are sterile because of a severe defect in spermiogenesis.
29 made from a segment of HIV, had no effect on spermiogenesis.
30 criptional regulation of genes essential for spermiogenesis.
31 nd reorganization of the cytoskeleton during spermiogenesis.
32 such repressed mRNAs become activated during spermiogenesis.
33 C scaffolding protein, during the process of spermiogenesis.
34 e formation of parallel actin bundles during spermiogenesis.
35 a spermatid signaling pathway that initiates spermiogenesis.
36 s a transient structure that develops during spermiogenesis.
37 t sequentially involve mitosis, meiosis, and spermiogenesis.
38 me interval corresponds to the initiation of spermiogenesis.
39 nslational control of the TSOD-1 mRNA during spermiogenesis.
40 ells and is translationally regulated during spermiogenesis.
41 ) that is specifically expressed during late spermiogenesis.
42 ses (DNases) that elevate DNA damage in late spermiogenesis.
43 transcriptional regulator of stage-specific spermiogenesis.
44 CCDC146 expression starts during late spermiogenesis.
45 t for the histone-to-protamine transition of spermiogenesis.
46 eins, which are exclusively expressed during spermiogenesis.
47 altered mice post-meiosis, reflect abnormal spermiogenesis.
48 heir cytoplasmic compartmentalization during spermiogenesis.
49 licins prevents proper calyx assembly during spermiogenesis.
50 l reprogramming with LLPS as a key driver in spermiogenesis.
51 INE1 retrotransposon silencing and defect in spermiogenesis.
52 hylation promotes histone replacement during spermiogenesis.
53 tion specifically in round spermatids during spermiogenesis.
54 n perinuclear theca proteins required during spermiogenesis.
55 disrupts its interactions with SPEM1 during spermiogenesis.
56 odal decomposition during the late stages of spermiogenesis.
57 n the final phase of spermatogenesis, called spermiogenesis.
58 ruit gamma-TuRCs to organize MTs and support spermiogenesis.
59 ing the histone-to-protamine exchange during spermiogenesis.
60 t fails to support round spermatids to enter spermiogenesis.
61 developing flagellum to the head during late spermiogenesis.
62 repressed and chromatin is compacted during spermiogenesis.
63 of the seminiferous epithelium orchestrating spermiogenesis.
64 the maintenance of mitotic cells and normal spermiogenesis.
65 rects gene expression and the progression of spermiogenesis.
66 enesis, post-transcriptional regulation, and spermiogenesis.
67 ositively regulate target genes required for spermiogenesis.
68 of a subset of postmeiotic genes to regulate spermiogenesis.
69 icipating in chromatin remodeling during rat spermiogenesis.
70 maturation of haploid male germ cells called spermiogenesis.
71 s well as meiotic cell cycle progression and spermiogenesis.
72 hromatin remodeling process during mammalian spermiogenesis.
73 found defects in chromatin remodeling during spermiogenesis.
74 to subsequent disruptions in meiosis II and spermiogenesis.
75 n is of critical importance during mammalian spermiogenesis.
76 gamete fusion, oocyst shedding, mitosis and spermiogenesis.
77 oral expression of haploid cell genes during spermiogenesis.
78 onial mitosis, meiosis of spermatocytes, and spermiogenesis.
79 osis, is stably maintained during subsequent spermiogenesis.
80 te structure and function and the control of spermiogenesis.
81 edicted to play an indispensable role during spermiogenesis.
82 equired for spermatid differentiation during spermiogenesis.
83 rotein-to-protamine chromatin remodelling in spermiogenesis.
84 Male mutant mice are sterile with defects in spermiogenesis.
85 te an indispensable role for TSSK 1 and 2 in spermiogenesis.
87 hromatin remodeling process during mammalian spermiogenesis, 90% of the nucleosomal histones are repl
88 WI family member, is required for initiating spermiogenesis, a process that transforms round spermati
91 of TIF2 in Sertoli cells, including abnormal spermiogenesis, age-dependent degeneration of seminifero
92 nthesized as a precursor (pro-AKAP82) during spermiogenesis, an antiserum was raised against a peptid
93 ariants containing CR-B are expressed during spermiogenesis and assemble into the fibrous sheath of t
96 ction for the ubiquitin-proteasome-system in spermiogenesis and define a novel, non-redundant physiol
97 histone H4 at residues K5, K8 and K12 during spermiogenesis and demonstrate corresponding defects in
100 To address this question, we characterized spermiogenesis and fertility in the Ift88(Tg737Rpw) mous
102 ntial for the formation of centrioles during spermiogenesis and for the formation of centrosomes afte
103 collectively progressed through meiosis and spermiogenesis and generated epididymal sperm at approxi
104 in various chromatin-templated events during spermiogenesis and in the establishment of the sperm epi
105 s we found that H2AK119ub1 is present during spermiogenesis and into early embryonic development, hig
106 , spe-27 and spe-29) that specifically block spermiogenesis and lead to hermaphrodite-specific fertil
110 e here that exposure to ATZ affects meiosis, spermiogenesis and reduces the spermatozoa number in the
114 he mammalian sperm head and is important for spermiogenesis and stabilization of sperm structures.
115 tin accessibility and nucleosome eviction in spermiogenesis and that loss of histone acetylation lead
116 sor in the translation of TSOD-1 mRNA during spermiogenesis and thereby fine-tunes the level of Cu/Zn
117 des insights into intrinsic requirements for spermiogenesis, and (iii) establishes a model for studie
118 ses expressed in spermatids, are critical to spermiogenesis, and are required for male fertility in m
120 g various mutants, protein expression during spermiogenesis, and RNAi knockdown of paternal Poc1, we
121 lencing continues from meiosis to the end of spermiogenesis, and we discuss implications for proposed
122 hat the temporal and spatial localization of spermiogenesis are critical determinants of male fertili
124 h azoospermia caused by a complete arrest of spermiogenesis at step 8 of round spermatids and failure
126 ng Cx43 overexpression due to the failure of spermiogenesis because no elongating/elongated spermatid
127 dues, a characteristic of chromatin in early spermiogenesis before eventual replacement of histones b
128 that Huwe1 is not essential for meiosis and spermiogenesis, but can result in accumulation of gammaH
129 tes tissues and is necessary for postmeiotic spermiogenesis, but loss of Blanks is not accompanied by
130 ect on calspermin expression but does impair spermiogenesis by disrupting the exchange of sperm basic
133 re completely infertile because of disrupted spermiogenesis characterized by asynchronous spermatid m
134 curred in elongating spermatids at a step in spermiogenesis coincident with chromatin displacement of
135 g of the spermatid genome early in mammalian spermiogenesis, coincident with the first detectable cha
141 ic AMP response element modulator-tau during spermiogenesis has recently been demonstrated, the trans
145 se genes are essential for normal meiosis or spermiogenesis in mice, only one variant, observed in th
146 on frequency was observed to increase during spermiogenesis in postreplicative cell types when sperma
147 responsible for mRNA elimination during late spermiogenesis in preparation for spermatozoa production
153 our data demonstrate devastating defects on spermiogenesis, including incomplete sperm maturation an
154 tic sex chromatin (PMSC) persists throughout spermiogenesis into mature sperm and exhibits epigenetic
164 rs, we find that the Lh-Lhcgrba induction of spermiogenesis is mediated through a cAMP/PKA signaling
165 on suggests that chromatin remodeling during spermiogenesis is not limited to nucleoproteins as part
168 on of postmeiotic spermatids to spermatozoa (spermiogenesis) is thought to be indirectly controlled b
169 esumably mediated by histone turnover during spermiogenesis, leads to dysregulation of chromatin acce
171 genitor cells (CDKN2B), spermatid maturation/spermiogenesis (metalloproteinase and serine proteinase
173 the transit of developing spermatids during spermiogenesis must be segregated from the BTB to avoid
174 In the male, transcription ceases during spermiogenesis, necessitating the posttranscriptional re
180 of a sperm nucleus is required either during spermiogenesis or for subsequent sperm functions during
182 lop postmeiotic arrest at the first stage of spermiogenesis, phenotypically similar to Trf2(-/-) mice
183 mass nor a sperm pronucleus is required for spermiogenesis, proper egg activation, or the induction
185 SR1 plays an important role in regulation of spermiogenesis-related mRNA synthesis necessary for sper
188 Our data further prove that targeting late spermiogenesis represents an effective strategy for deve
191 undergo histone modification remodelling in spermiogenesis, resulting in reduced H3K27me3 in normal
192 we show that remodelling of histones during spermiogenesis results in the retention of methylated hi
194 high homology to a multicopy gene, Y-linked spermiogenesis-specific transcript (Ssty), and together
196 enesis (spermatid production by meiosis) and spermiogenesis (spermatid activation into actively motil
199 Instead, the arrest of both meiosis and spermiogenesis suggests a control point that may serve t
200 tion, the expression pattern of Pacrg during spermiogenesis suggests that it plays a role in sperm di
202 emical model for how differential defects in spermiogenesis that result in the phenomenon of meiotic
205 step 6, revealing a novel role for Boule in spermiogenesis, the differentiation of round spermatids
208 hromatin remodelling processes occurs during spermiogenesis, the post-meiotic phase of sperm developm
210 s a major event that occurs during mammalian spermiogenesis, the process of spermatid maturation into
211 ere, we show that in Drosophila melanogaster spermiogenesis, the quantity of centrosomal proteins is
212 ic imaging of four organelles during primate spermiogenesis: the nucleus, the mitochondria, the acros
213 Drosophila melanogaster are remodeled during spermiogenesis through protein enrichment and ultrastruc
214 ealed that Cep104 and Cep97 cooperate during spermiogenesis to align spermatids and coordinate indivi
215 hromatin compartmentalization takes place in spermiogenesis to prepare the next generation of life.
216 tablishment of histone H4 acetylation during spermiogenesis to regulation of transcription co-repress
217 e of TSSK1 and 2, TSKS, was localized during spermiogenesis to the centrioles of post-meiotic spermat
219 y role in spermatocyte development, inhibits spermiogenesis until the activation signal is received.
221 transcripts encoding factors required during spermiogenesis were aberrant during preleptonema, and th
224 ding region B of CABYR are translated during spermiogenesis, where they localize, or which CABYR isof
225 r their timely translation at later times of spermiogenesis, which is critical to attain mature sperm
226 sists into the spermatid elongation phase of spermiogenesis, while Pros28.1B expression is prominent
227 riole degenerates during testicular stage of spermiogenesis, while the proximal centriole is lost dur
229 he regulation of spermatid activation during spermiogenesis, with the null phenotype being an absence
230 nduced in successive stages of spermato- and spermiogenesis, X-irradiated male mice were re-mated at