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1 vity, phenotypes not observed with the eIF4G loss of function mutant.
2  to photoperiod in a manner similar to a cdf loss-of-function mutant.
3 activated by NaCl are absent from the Atann1 loss-of-function mutant.
4 l in vivo, as they complemented a yeast GLXI loss-of-function mutant.
5 tion mutant of PLN, whereas R14del is a mild loss-of-function mutant.
6  truncated rhBARF1 from clone 16 rhLCV was a loss-of-function mutant.
7 (BL)-insensitive phenotype similar to a bri1 loss-of-function mutant.
8  an avirulent bacterial pathogen in the bap1 loss-of-function mutant.
9 utant than to either wild-type I domain or a loss-of-function mutant.
10 ity phenotype was similar to that of the AS2 loss-of-function mutant.
11 he striking abnormalities of lin-4 and let-7 loss of function mutants.
12 e Dlx1/2 mutant phenotypes, we made compound loss-of-function mutants.
13 nted the observation of strong phenotypes in loss-of-function mutants.
14 enient and effective approach for generating loss-of-function mutants.
15 altered in MPK6 overexpression lines or mpk6 loss-of-function mutants.
16 ctase were increased in rfd1 and the AUX/IAA loss-of-function mutants.
17 ly predicts root growth, as observed in bri1 loss-of-function mutants.
18 ns, R205X and E239X, were shown to be Dyrk1a loss-of-function mutants.
19 d trunk mesoderm, and closely resemble nodal loss-of-function mutants.
20 redundancy was confirmed through analysis of loss-of-function mutants.
21 ted nutations were also eliminated in etr1-7 loss-of-function mutants.
22 s a permissive temperature for wild-type and loss-of-function mutants.
23 ethality that often occurs in both gain- and loss-of-function mutants.
24  what E2F actually does based on analyses of loss-of-function mutants.
25 ina can often complicate the analysis of CBP loss-of-function mutants.
26 f and floral organ production in stm partial loss-of-function mutants.
27 9F, and Y744F), but not in the ADA and W650R loss-of-function mutants.
28 ressed "kinase-dead" ILK fully rescues pat-4 loss-of-function mutants.
29 parable in expressivity to the corresponding loss-of-function mutants.
30 th pathways was confirmed by the analysis of loss-of-function mutants.
31 creased cell migration beyond canonical PTEN loss-of-function mutants.
32 naling, and this effect is blocked in usp-46 loss-of-function mutants.
33 e may be of interest to restore transport in loss-of-function mutants.
34  show an increase in Lys acetylation in srt2 loss-of-function mutants.
35 ark respiration was observed in the eIFiso4G loss of function mutant, a reduction in chlorophyll leve
36 as a promoter, may be mutagenized to isolate loss-of-function mutants able to survive under selection
37 ality of AtCDA in vivo was demonstrated with loss-of-function mutants accumulating high amounts of cy
38                       A previously described loss-of-function mutant affecting both isoforms, sr45-1,
39 r show that removing MUL1 in PINK1 or parkin loss-of-function mutant aggravates phenotypes caused by
40 istant locomotory behavior, resembling slo-1 loss-of-function mutants, albeit to a lesser extent.
41                     We show that the partial loss-of-function mutant alix-1 displays reduced vacuolar
42 on during neural development, we generated a loss-of-function mutant allele of m-numb.
43                                   Seeds of a loss-of-function mutant allele, imb1, show impaired coty
44                                    Biallelic loss-of-function mutant alleles underlie several differe
45                         However, the NAD286G loss-of-function mutant also associated with the host fa
46                     Through a combination of loss-of-function mutant analyses, genetic mapping, and t
47                                            A loss-of-function mutant analysis also revealed that sing
48                             A combination of loss-of-function mutant analysis and protein interaction
49 of violaxanthin de-epoxidase in the eIFiso4G loss of function mutant and an increase in its xanthophy
50  With the combination of two reagents, an HC loss-of function mutant and the green fluorescent protei
51            Experiments using a C5a peptidase loss-of-function mutant and an intranasal infection mode
52 catula development by isolating the lfl/wox3 loss-of-function mutant and performing genetic crosses w
53 q544) allele behaves genetically as a strong loss-of-function mutant and putative null.
54       Accordingly, cells behave like a rad53 loss-of-function mutant and show reduced NHEJ efficiency
55 ta roles of Pht1;1 and Pht1;4, we identified loss-of-function mutants and also created a double mutan
56                                              Loss-of-function mutants and ectopic expression assays r
57                    We utilize both gain- and loss-of-function mutants and gene expression patterns to
58                         The stabilization of loss-of-function mutants and insensitivity of gain-of-fu
59 GR3, named CGR2, and evaluated the effect of loss-of-function mutants and over-expression lines of CG
60        With the enhanced ability to generate loss-of-function mutants and overexpression lines, the f
61  a Drosophila fragile X syndrome model using loss-of-function mutants and overexpression of the FMR1
62                          Analysis of atprx71 loss-of-function mutants and plants overexpressing AtPRX
63      The combined use of cytochrome c (CYTc) loss-of-function mutants and respiratory complex III inh
64  validate genetic experiments performed with loss-of-function mutants and RNA interference (RNAi) lin
65 l fate and polarity, through the analysis of loss-of-function mutants and transgenic plants that ecto
66 riants conferring resistance to malaria are 'loss-of-function' mutants and appear to be recent polymo
67  isolated dominant-negative mutants, unc-108 loss-of-function mutant animals are defective in locomot
68                                      In Lrrk loss-of-function mutants, anterograde movement of GOPs w
69 n oncogene and neuroprotective protein whose loss-of-function mutants are associated with certain typ
70 nd phenotypes of blh6, knat7, and blh6 knat7 loss-of-function mutants are consistent with the existen
71                                 Because BOB1 loss-of-function mutants are embryo lethal, we used a pa
72 d as having highly branched phenotypes, ccd1 loss-of-function mutants are indistinguishable from wild
73 pment of the trophectoderm lineage and Eomes loss-of-function mutants arrest at implantation.
74  present study, several gain-of-function and loss-of-function mutants as well as engineered mutants o
75                                         CYTc loss-of-function mutants, as well as the d-LDH mutants,
76                                       Strong loss-of-function mutants assemble apolar intersecting mi
77    The method involves generation of partial loss-of-function mutants, at either buried or functional
78 eritability of Cas9 activity in heterozygous loss-of-function mutant backgrounds, to rapidly evaluate
79 er Myc mutants, MycDeltaMBIV is not a simple loss-of-function mutant because it is hyperactive for G2
80                         We find that in dfer loss-of-function mutants beta-catenin is hypophosphoryla
81 n of an AWC(ON) marker is initiated in nsy-7 loss-of-function mutants, but subsequently lost, so that
82 n wild-type maize and in the isogenic mop1-1 loss-of-function mutant by using Illumina's sequencing-b
83 action, we circumvented the lethality of keg loss-of-function mutants by silencing KEG using an artif
84                                    In DSAS-6 loss-of-function mutants, centrioles failed to close and
85  We report here characterization of a C-tail loss-of-function mutant, CF327A, and a related suppresso
86 have reduced FLC expression, but, unlike clf loss-of-function mutants, clf-59 mutants do not display
87 , although stomata of the Arabidopsis syp121 loss-of-function mutant close normally in ABA and high C
88 rs1-2 ers2-3 and triple etr2-3 ers2-3 ein4-4 loss-of-function mutants constitutively nutated in air.
89 ucose-fed conditions, the Arabidopsis sr45-1 loss-of-function mutant contains higher amounts of the e
90                                         Ddok loss-of-function mutant (Ddok(PG155)) germ-line clones p
91                        The dominant negative loss-of-function mutant Delta(N)117 was co-immunoprecipi
92 ci appear to be "Myddosomes." The MyD88 S34Y loss-of-function mutant demonstrates how proper cellular
93                Here, we show that single luh loss-of-function mutants develop normal flowers, but lug
94                              Zebrafish rad51 loss-of-function mutants developed key features of FA, i
95  mutants, although it was reported that etr1 loss-of-function mutants display a growth defect limitin
96  demonstrated to be critical in vivo as pux1 loss-of-function mutants display accelerated growth rela
97                         We show that partial loss-of-function mutants display temperature-sensitive (
98                                      A cdf-2 loss-of-function mutant displayed impaired growth and re
99                                          bt2 loss-of-function mutants displayed a hypersensitive resp
100                                     The weak loss-of-function mutant dse1 exhibits pleiotropic phenot
101 activity, but they all appear to manifest as loss-of-function mutants due to defects in solubility, a
102           Here we show that in mef2ca(b1086) loss of function mutant embryos and early larvae, develo
103          Biochemical analysis of single FPGS loss-of-function mutants established that folate polyglu
104 -function ET receptor mutant, etr1-3, or the loss-of-function mutants etr1-7 and ers1-3 and the wild
105                                              Loss-of-function mutants exhibit bouton overgrowth at la
106                Conversely, wdr-20 and wdr-48 loss-of-function mutants exhibit changes in locomotion b
107 associated with vascular tissues, while vup1 loss-of-function mutants exhibit collapsed morphology of
108 ted deletion of the cmpy locus and find that loss-of-function mutants exhibit excessive NMJ growth.
109                At elevated temperatures, dao loss-of-function mutants exhibit seizures associated wit
110                                     Frazzled loss of function mutants exhibited similar defects in sy
111                                     eIFiso4G loss of function mutants exhibited smaller cell, leaf, p
112                              sleepless (sss) loss-of-function mutants exhibited altered Shaker locali
113  the dominant act-5 mutation, or a recessive loss of function mutant, exhibited normal morphology and
114 similar to glh-1/glh-4(RNAi), the kgb-1(um3) loss-of-function mutant exhibits germline over-prolifera
115  root growth after Al exposure, because alt2 loss-of-function mutants fail to halt root growth after
116                                  at4, an At4 loss-of-function mutant fails to redistribute Pi to the
117                                         In a loss of function mutant for genes encoding PHR1 and PHL1
118 onstrated that the alpha 8 G22R isoform is a loss-of-function mutant for alpha 8, as well as a domina
119                        Here, the Arabidopsis loss-of-function mutant for annexin1 (Atann1) was found
120                       In this study, we used loss-of-function mutants for each receptor isoform to de
121 This method can provide homozygous mammalian loss-of-function mutants for forward genetic application
122                                 In gain- and loss-of-function mutants for Gsx1 and Olig1/2, we observ
123 planta by feeding [(3)H]serine to the WT and loss-of-function mutants for OAS-TLs in the cytosol, pla
124 onfers increased Al tolerance similar to the loss-of-function mutants for the cell cycle checkpoint g
125 te this issue, we produced a complete set of loss-of-function mutants for the three annotated Arabido
126 n297, Ala301, Phe307, and Tyr308 represented loss-of-function mutants; furthermore, the measurable re
127                           l(2)tn, along with loss-of-function mutants generated for tn, showed no rel
128 d endoreplicating tissues in Drosophila gatA loss-of-function mutants grow slowly and never achieve w
129                                          UPR loss-of-function mutants, hac1Delta and ire1Delta, are a
130                          Consistently, zat12 loss-of-function mutants had higher Fe content than the
131                         The cpr1-2 (cpr30-1) loss-of-function mutant has constitutive defense respons
132 ment from fertilization, the cyp78a8 cyp78a9 loss-of-function mutant has reduced seed set due to oute
133              Chloroplasts prepared from fro7 loss-of-function mutants have 75% less Fe(III) chelate r
134                                              Loss-of-function mutants have a pleiotropic phenotype in
135                          Both NUA and AtMAD2 loss-of-function mutants have a shorter primary root and
136                                         rte1 loss-of-function mutants have an enhanced ethylene respo
137 tory molecules is wide-ranging, however, few loss-of-function mutants have been identified in miRNA g
138                                   Because no loss-of-function mutants have been identified, the impor
139 ate earlier than the wild type, whereas etr2 loss-of-function mutants have increased sensitivity to A
140                      Large-scale screens for loss-of-function mutants have played a significant role
141                                        msca1 loss-of-function mutants have reduced meristem size and
142                                Instead, etr1 loss-of-function mutants have reduced sensitivity to abs
143 eproductive and social behaviors, yet rodent loss-of-function mutants have relatively subtle behavior
144 ession phenotypes closely resembles those of loss of function mutants in the para-encoded sodium chan
145  recordings identified the R215H mutant as a loss-of-function mutant in inducing GABAergic synaptogen
146                                            A loss-of-function mutant in Kif20b, magoo, was found in a
147                             We report here a loss-of-function mutant in the Arabidopsis homolog of RA
148                             By screening for loss-of-function mutants in a Caenorhabditis elegans kil
149 natural ELF3 polyQ variants phenocopied elf3 loss-of-function mutants in a common reference backgroun
150                                    All three loss-of-function mutants in Arabidopsis (Arabidopsis tha
151 toperiod-dependent flowering in plants, with loss-of-function mutants in barley (Hordeum vulgare), le
152        Generation of all major OAS-TL double loss-of-function mutants in combination with radiolabele
153                                              Loss-of-function mutants in dPIP4K show reduced body wei
154              In particular, pink1 and parkin loss-of-function mutants in Drosophila show similar phen
155 rgan defects and indeterminacy that resemble loss-of-function mutants in E-function floral organ spec
156 ies converge on similar causes for olfactory loss-of-function mutants in evolutionary transitions to
157 te that the phenotypes associated with novel loss-of-function mutants in EXO70, are entirely consiste
158      Here, we report single and higher-order loss-of-function mutants in members of the cation/proton
159                                              Loss-of-function mutants in one of the genes, designated
160                                              Loss-of-function mutants in PRC2 subunits initially deve
161                   In this study, we isolated loss-of-function mutants in the Arabidopsis MIPS1 gene f
162                                              Loss-of-function mutants in the corresponding genes had
163            Here, by generating and analyzing loss-of-function mutants in the liquid facets-Related (l
164 ole of tomosyn in neurosecretion we analysed loss-of-function mutants in the single Caenorhabditis el
165 utant hearts of heartstrings (hst), the tbx5 loss-of-function mutants in zebrafish.
166 rate that the gonadogenesis defects of gon-2 loss-of-function mutants (including a null allele) can b
167  in addition to classical screens for simple loss-of-function mutants, including genetic modifier scr
168 psis resistance to Pst DC3000, whereas ADPG2 loss-of-function mutants increase the resistance to the
169              Analyses of BR-C, E74A, and E93 loss-of-function mutants indicate that these genes regul
170 tantly, the BIG signature was reduced in Bmp loss-of-function mutants, indicating Bmp-regulated targe
171 similar to those seen in ced-10;mig-2 double loss-of-function mutants, indicating that they interfere
172 sion was drastically reduced in beta-catenin loss-of-function mutants, indicating that Wnt signaling
173                                  The AtSAP18 loss- of-function mutant is more sensitive to NaCl, and
174     The ABA hypersensitive phenotype of FyPP loss-of-function mutants is ABI5 dependent, and the amou
175 osmotic stress, while the growth of erf5erf6 loss-of-function mutants is less affected by stress.
176 h and show that their derepression in miR164 loss-of-function mutants is likely to account for most o
177                           The ability of two loss-of-function mutants, L31A and L31C, of phospholamba
178 n wild-type (WT) STAT1 cells, as well as the loss-of-function mutants L706S and Y701C.
179                                  While elt-7 loss-of-function mutants lack a discernible phenotype, s
180 een called "master control" proteins because loss-of-function mutants lack eyes and ectopic expressio
181                             These C-terminal loss-of-function mutants lacked a dominant negative phen
182 phenotype of the etr1-6;etr2-3;ein4-4 triple loss-of-function mutant line was examined.
183             Genomic profiling of H3K27me3 in loss-of-function mutant lines for Maize Enhancer of zest
184 importance of Nisch, here we generated Nisch loss-of-function mutant mice and analyzed their metaboli
185                               In contrast to loss-of-function mutants, moderate overexpression of BLF
186                                      Using a loss-of-function mutant mouse lacking the guanylate kina
187 al prefrontal cortex (n = 21); and 4) a Nrg3 loss-of-function mutant (n = 59) to functionally implica
188 d-type FIT2, whereas FIT1 and a FIT2 partial loss-of-function mutant, N80A, had significantly lower t
189 ll three alleles are similar to those of the loss-of-function mutants obtained by RNA interference or
190         Leaf reticulation in the re and rer3 loss-of-function mutants occurred, along with accumulati
191 etion mutant of FOF2 (FOF2DeltaF), or double loss of function mutant of FOF2 and FOL1 (FOF2-LIKE 1) p
192                                              Loss of function mutants of BGD2 are acyanogenic in leav
193                                              Loss of function mutants of NM1, Phe-1136 and dS2, that
194  (GBP) interact with the N terminus of GluTR Loss-of function mutants of ClpR2 and ClpC1 proteins sho
195 ants of AGL15, alone or when combined with a loss-of-function mutant of a closely related family memb
196 ressing bcl-xL, ced-9, and bcl-xL (G138A), a loss-of-function mutant of bcl-xL.
197 t, a constitutively active Toll mutant and a loss-of-function mutant of Cactus, an I kappa B-like fac
198 rel map development using barrelless mice, a loss-of-function mutant of calcium/calmodulin-activated
199 e biological function of GIF1, we isolated a loss-of-function mutant of GIF1 and prepared transgenic
200                            R9C is a complete loss-of-function mutant of PLN, whereas R14del is a mild
201                           Co-expression of a loss-of-function mutant of polycystin-2 in CHO cells doe
202          We also studied the phenotypes of a loss-of-function mutant of Prosalpha6T generated by targ
203                                          The loss-of-function mutant of SR1IP1 is more susceptible to
204  multi-copy suppressors of a cold-sensitive, loss-of-function mutant of the cyclin-dependent kinase C
205  expression phenotypes in overexpression and loss-of-function mutants of 15 Arabidopsis A-type heat-s
206                          Here we report that loss-of-function mutants of AGL15, alone or when combine
207                We also construct conditional loss-of-function mutants of AGO1 to allow transcript pro
208 , we generated double, triple, and quadruple loss-of-function mutants of all four members of the RWA
209 n content and vein density were increased in loss-of-function mutants of Arabidopsis MYC2, a suppress
210 scriptional machinery during leaf senescence Loss-of-function mutants of Arabidopsis thaliana were us
211                                              Loss-of-function mutants of AtCAND1 were resistant to si
212                  Pheromone preparations from loss-of-function mutants of daf-22, a gene required for
213                                      Because loss-of-function mutants of ftsZ(Bbu) might be lethal, t
214 we investigated the binding of A1 to GOF and loss-of-function mutants of GP Ibalpha with mutations in
215                                We found that loss-of-function mutants of LecRKA4.2 and LecRKA4.3 exhi
216                                              Loss-of-function mutants of LOX6 were more attractive to
217 ype A. nidulans versus temperature-sensitive loss-of-function mutants of nudA and nudF.
218                                              Loss-of-function mutants of PALM1 develop dissected leav
219                                        Using loss-of-function mutants of Ros and inducible epidermal
220                                              Loss-of-function mutants of rtp replicate this axonal pr
221                              Using gain- and loss-of-function mutants of seven transcription factors
222 tants plcS and dsbA, we show that Drosophila loss-of-function mutants of Spatzle, the extracellular l
223 cal neurons and impaired root hair growth in loss-of-function mutants of the ATL1 ortholog rhd3 in th
224                                              Loss-of-function mutants of the gene goa-1, which codes
225                            Here, we analyzed loss-of-function mutants of the unicellular cyanobacteri
226                             Furthermore, the loss-of-function mutants of these genes in the fly cause
227                                     Although loss-of-function mutants of UBP27 do not show obvious ph
228 ysis of root phenotypes induced by gain- and loss-of-function mutants or in treatments with GLV-deriv
229                             We also examined loss-of-function mutants ourselves, identifying new guid
230                          In addition to this loss of function, mutant p53 can have a dominant negativ
231                                     In mrg-1 loss-of-function mutants, pairing is compromised specifi
232                                          The loss of function mutant phenotype and localization of an
233  comprehensive dataset of 2,400 genes with a loss-of-function mutant phenotype in Arabidopsis.
234                                Generally the loss-of-function mutant phenotype is simplified from the
235  silencing in Drosophila embryos resulted in loss-of-function mutant phenotypes for 43 genes, which i
236 or neurons - where it recapitulates expected loss-of-function mutant phenotypes.
237  GATA17, and GATA17L (GATA17-LIKE), based on loss-of-function mutant phenotypes.
238 tor mutant, myb57-2, closely phenocopied the loss-of-function mutant pin6-2.
239 an phenotypes reported in the literature for loss-of-function mutant plants.
240                    In unc-6/netrin and unc-5 loss-of-function mutants, presynaptic components misloca
241                                       In the loss-of-function mutant pro(DeltaGRAS), all examined GA
242 es as either a recessive gain-of-function or loss-of-function mutant protein, depending on signaling
243 NA (mtDNA) in Arabidopsis thaliana Gain- and loss-of-function mutants provided evidence for a role of
244 and continuously on vWF-A1 surface while the loss-of-function mutant, Q232V, showed fast, saltatory m
245       Progressive loss of KANADI activity in loss-of-function mutants results in progressive transfor
246                                    The RCAR7 loss-of-function mutant revealed no changes in ABA respo
247                             Analysis of bhlh loss-of-function mutants revealed that the single bhlh m
248 fted onto PC synthase cad1-3 atpcs2-1 double loss-of-function mutant root tissues.
249 e intestine and interneurons and that ehbp-1 loss-of-function mutants share with rab-10 mutants speci
250                                              Loss-of-function mutants show an elongated hypocotyl und
251            We report that both recN and recJ loss-of-function mutants show decreased DNA repair abili
252 AtSWEET2 sequesters sugars in root vacuoles; loss-of-function mutants show increased susceptibility t
253                                              Loss-of-function mutants show irregular, uncoordinated c
254                                     The recX loss-of-function mutant showed decreases in pilus phase
255 plants with defective CIA components, grxs17 loss-of-function mutants showed some degree of hypersens
256 scopy of isolated lipid droplets from cgi-58 loss-of-function mutants showed they contain triacylglyc
257 istent enhanced collagen binding whereas the loss-of-function mutants showed variable degrees of func
258        With the help of a mitochondrial SOD2 loss-of-function mutant, Sod2(n283), we measured the sen
259           Similar to unc-43, tir-1 and nsy-1 loss-of-function mutants, specific disruption of microtu
260                                   In sprouty loss-of-function mutants, splitting of gene expression d
261 on of a phoPR promoter-lacZ fusion in a scoC loss-of-function mutant strain grown in low-phosphate de
262 ant for Pan1p inhibition, and a pan1 partial loss-of-function mutant suppressed the temperature sensi
263                        AURKC p.L49Wfs22 is a loss-of-function mutant that perturbs localization of th
264 netic screen in the Drosophila to search for loss-of-function mutants that are sensitive to low O2.
265 transferred into etr1-6;etr2-3;ein4-4 triple loss-of-function mutants that have constitutive growth i
266                                    In unc-89 loss-of-function mutants that lack the SH3 domain, param
267                    We identified 18 presumed loss-of-function mutants that reduced the growth of the
268                            Moreover, in such loss-of-function mutants the levels of acetylated H4K5,
269                          We used the soc1ful loss of function mutant - the woodiest genotype known in
270                                     In syd-2 loss of function mutants, the normal polarized localizat
271                                      In rsp1 loss-of-function mutants, the eMTOC persists and organiz
272                               alt2-1 and atr loss-of-function mutants, the latter of which affects th
273                             In SAC gain- and loss-of-function mutants, the levels of PtdIns monophosp
274                                           In loss-of-function mutants, the zygote does not elongate p
275            Furthermore, we show that in cftr loss-of-function mutants, there is a deficiency of larva
276 ction of secondary roots are impaired in the loss-of-function mutant, thus identifying AtANN1 as a ke
277                                 We have used loss-of-function mutants to confirm a role for mes-3, -4
278                                 Here, we use loss-of-function mutants to show that RNA polymerase II
279                                          Two loss-of-function mutant transporters (Y335A and D79G) th
280                                         BRG1 loss-of-function mutant tumours respond to EZH2 inhibiti
281 ues the late-flowering phenotype of the gi-2 loss-of-function mutant under both short-day and long-da
282 erences in germination between etr1 and etr2 loss-of-function mutants under salt stress could not be
283                         By analyzing an rdr2 loss-of-function mutant using two different parallel seq
284                        A newly isolated ACD6 loss-of-function mutant was less responsive to BTH and u
285  Consistent with these results, a Col-0 rfo1 loss-of-function mutant was more susceptible to f. matth
286                                    An atfs-1 loss-of-function mutant was partially resistant to the e
287               The enhanced resistance in the loss-of-function mutants was associated with increased i
288              The phenotype displayed by etr1 loss-of-function mutants was rescued by treatment with a
289                              Using gain- and loss-of-function mutants, we demonstrate that acetylatio
290  with green fluorescent protein in different loss-of-function mutants, we demonstrate that dynactin a
291             Through an extensive analysis of loss-of-function mutants, we demonstrate that the Arabid
292 ting them in the respective four Arabidopsis loss-of-function mutants, we experimentally proved that
293    Using RNA interference (RNAi) to generate loss-of-function mutants, we show dramatic defects in ce
294 pressed AtLTPI-4 Crown galls of the atltpI-4 loss-of-function mutant were much smaller compared with
295 cumulation in wild-type roots, whereas Atao1 loss-of-function mutants were unresponsive to the hormon
296 psis plants expressing HaRxL44 and in med19a loss-of-function mutants, whereas SATI is elevated in pl
297 s found in the arr1-3 arr10-5 arr12-1 triple loss-of-function mutant, which showed almost complete in
298                           In contrast to the loss-of-function mutant with large embryo and small endo
299                             The isolation of loss-of-function mutants with enhanced disease susceptib
300  this function was only apparent when double loss-of-function mutants with pp2ca-1/ahg3 were generate

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