Ryota MATSUO

6.J Comp Neurol 532, e25600 (2024).

7.Matsuo R, Koyanagi M, Sugihara T, Shirata T, Nagata T, Inoue K, Matsuo Y, and Terakita A.

8.Functional characterization of four opsins and two G alpha subtypes co-expressed in the molluscan rhabdomeric photoreceptor.

9.BMC Biol 21, 291 (2023).

10.Matsuo R, Kotoh S, Takishita K, Sakamoto K, Uebi T, Ozaki M, Matsuo Y, and Nishi T.

11.Opsins in the cephalic and extracephalic photoreceptors in the marine gastropod Oncihdium verruculatum.

12.Biol Bull 243, 339-352 (2022).

13.Nishi T, Sakamoto K, and Matsuo R.

14.Compensation mechanism for membrane potential against hypoosmotic stress in the Onchidium neuron.

15.Comp Biochem Physiol A 274, 111298 (2022).

16.Matsuo R, and Matsuo Y.

17.Regional expression of neuropeptides in the retina of the terrestrial slug Limax valentianus (Gastropoda, Stylommatophora, Limacidae).

18.J Comp Neurol 530, 1551-1568 (2022).

19.Yamanaka A, Kobayashi S, Matsuo Y, and Matsuo R.

20.FxRIamide regulates the oscillatory activity in the olfactory center of the terrestrial slug Limax.

21.Peptides 141, 170541 (2021).

22.Matsuo Y, Nishiyama H, and Matsuo R.

23.Integration of ocular and non-ocular photosensory information in the brain of the terrestrial slug Limax.

24.J Comp Physiol A 206, 907-919 (2020).

25.Matsuo R, Kobayashi S, Furuta A, Osugi T, Takahashi T, Satake H, and Matsuo Y.

26.Distribution and physiological effect of enterin neuropeptides in the olfactory centers of the terrestrial slug Limax.

27.J Comp Physiol A 206, 401-408 (2020).

28.Nishiyama H, Nagata A, Matsuo Y, and Matsuo R.

29.Light avoidance by a non-ocular photosensing system in the terrestrial slug Limax valentianus.

30.J Exp Biol jeb208595 (2019).

31.Matsuo R, Koyanagi M, Nagata A and Matsuo Y.

32.Co-expression of opsins in the eye photoreceptor cells of the terrestrial slug Limax valentianus.

33.J Comp Neurol 527, 3073-3086 (2019).

34.Matsuo Y, Yamanaka A, and Matsuo R.

35.RFamidergic neurons in the olfactory centers of the terrestrial slug Limax.

36.Zoological Lett 4, 22 (2018).

37.Fujisaki Y, and Matsuo R.

38.Context-dependent passive avoidance learning in the terrestrial slug Limax.

39.Zool Sci 34, 532-537 (2017).

40.Matsuo R, Takatori Y, Hamada S, Koyanagi M, and Matsuo Y.

41.Expression and light-dependent translocation of beta-arrestin in the visual system of the terrestrial slug Limax valentianus

42.J Exp Biol 220, 3301-3314 (2017).

43.Suenaga Y, and Matsuo R.

44.Length of memory retention period depends on the extent of protein synthesis in the terrestrial slug Limax.

45.Neurosci Lett 630, 222-227 (2016).

46.Matsuo R, Tanaka M, Fukata R, Kobayashi S, Aonuma H, and Matsuo Y.

47.Octopaminergic system in the central nervous system of the terrestrial slug Limax.

48.J Comp Neurol 524, 3849-3864 (2016).

49.Koga Y, Matsuo Y, and Matsuo R.

50.Olfactory memory storage and/or retrieval requires the presence of the tentacle that was used during acquisition of that memory in the terrestrial slug Limax.

51.Zool Sci 33, 78-82 (2016).

52.Matsuo R, Fukata R, Kumagai M, Kobayashi S, Kobayashi A, and Matsuo Y.

53.Distribution and modulatory effect of histaminergic neurons on the oscillatory activity in the olfactory center of the terrestrial slug Limax.

54.J Comp Neurol 524, 119-135 (2016).

55.Matsuo Y, Uozumi N, and Matsuo R.

56.Photo-tropotaxis based on projection through the cerebral commissure in the terrestrial slug Limax.

57.J Comp Physiol A 200, 1023-1032 (2014).

58.Matsuo R, Kobayashi S, Wakiya K, Yamagishi M, Fukuoka M, and Ito E.

59.The cholinergic system in the olfactory center of the terrestrial slug Limax.

60.J Comp Neurol 522, 2951-2966 (2014).

61.Matsuo R, Yamagishi M, Wakiya K, Tanaka Y, and Ito E.

62.Target innervation is necessary for neuronal polyploidization in the terrestrial slug Limax.

63.Dev Neurobiol 73, 609-620 (2013).

64.Ito E, Matsuo R, and Okada R.

65.Involvement of nitric oxide in memory formation in microbrains.

66.Neurosci Lett 541, 1-3 (2013).

67.Yamagishi M, Ito E, and Matsuo R.

68.Whole genome amplification in large neurons in the terrestrial slug Limax.

69.J Neurochem 122, 727-737 (2012).

70.Kobayashi S, Matsuo R, Sadamoto H, Watanabe S, and Ito E.

71.Excitatory effects of GABA on procerebrum neurons in a slug.

72.J Neurophysiol 108, 989-998 (2012).

73.Matsuo R, Yamagishi M, and Ito E.

74.Analysis of DNA endoreplication in the brain neurons in the terrestrial slug Limax valentianus.

75.Acta Biol Hung 63 (suppl. 2) 171-178 (2012).

76.Matsuo R, Kobayashi S, Morishita F, and Ito E.

77.Expression of Asn-d-Trp-Phe-NH2 in the brain of the terrestrial slug Limax valentianus.

78.Comp Biochem Physiol B 160, 89-93 (2011).

79.Yamagishi M, Ito E, and Matsuo R.

80.DNA endoreplication in the brain neurons during body growth of an adult slug.

81.J Neurosci 31, 5596-5604 (2011).

82.Matsuo R, Kobayashi S, Yamagishi M, and Ito E.

83.Two pairs of tentacles and a pair of procerebra in Pulmonata: optimized functions and redundant structures in the sensory and central organs involved in olfactory learning of terrestrial pulmonates.

84.J Exp Biol 214, 879-886 (2011).

85.Matsuo R, and Ito E.

86.Spontaneous regeneration of the central nervous system in gastropods.

87.Biol Bull 221, 35-42 (2011).

88.Kobayashi S, Hattori M, Elekes K, Ito E, and Matsuo R.

89.FMRFamide regulates oscillatory activity of the olfactory center in the slug.

90.Eur J Neurosci 32, 1180-1192 (2010).

91.Matsuo R, Kobayashi S, Tanaka Y, and Ito E.

92.Effects of tentacle amputation and regeneration on the morphology and activity of the olfactory center of the terrestrial slug Limax valentianus.

93.J Exp Biol 213, 3144-3149 (2010).

94.Matsuo R, Kawaguchi E, Yamagishi M, and Ito E.

95.Unilateral memory storage in the terrestrial slug Limax.

96.Neurobiol Learn Mem 93, 337-342 (2010).

97.Matsuo R, Kobayashi S, Murakami J, and Ito E.

98.Spontaneous recovery of the injured higher olfactory center in the terrestrial slug Limax.

99.PLoS one 5, e9054 (2010).

100.Matsuo R, and Ito E.

101.A novel nitric oxide synthase expressed specifically in the olfactory center.

102.Biochem Biophys Res Commun 386, 274-278 (2009).

103.Matsuo R, Kobayashi S, Watanabe S, Namiki S, Iinuma S, Sakamoto H, Hirose K, and Ito E.

104.Glutamatergic neurotransmission in the procerebrum (olfactory center) of a terrestrial mollusk.

105.J Neurosci Res 87, 3011-3023 (2009).

106.Matsuo R, Misawa K, and Ito E.

107.Genomic structure of nitric oxide synthase in the terrestrial slug is highly conserved.

108.Gene 415, 74-81 (2008).

109.Yamagishi Y, Ito E, and Matsuo R.

110.Redundancy of olfactory sensory pathways for odor-aversion memory in the terrestrial slug Limax valentianus.

111.J Exp Biol 211, 1841-1849 (2008).

112.Matsuo R, and Ito E.

113.Recovery of learning ability after the ablation of the procerebrum in the terrestrial slug Limax valentianus.

114.Acta Biol Hung 59 (suppl.) 73-76 (2008).

115.Kasai Y, Watanabe S, Kirino Y, and Matsuo R.

116.The procerebrum is necessary for odor-aversion learning in the terrestrial slug Limax valentianus.

117.Learn Mem 13, 482-488 (2006).

118.Kataoka M, Kuwahara R, Matsuo R, Sekiguchi M, Inokuchi K, and Takahashi M.

119.Development- and activity-dependent regulation of SNAP-25 phosphorylation in rat brain.

120.Neurosci Lett 407, 258-262 (2006).

121.Fukunaga S, Matsuo R, Hoshino S, and Kirino Y.

122.A novel kruppel-like factor is induced by neuronal activity and by sensory input in the central nervous system of the terrestrial slug Limax valentianus.

123.J Neurobiol 66, 169-181 (2006).

124.Yasui K, Matsuo R, and Kirino Y.

125.Onset of amnesia is delayed with a decrease in inhibition of protein synthesis during odor-taste associative learning in the terrestrial slug Limax valentianus.

126.Zool Sci 21, 1163-1166 (2004).

127.Matsuo R, Hitomi T, Watanabe S, and Kirino Y.

128.Delayed-onset amnesia caused by protein synthesis inhibition in odor-taste associative memory of the terrestrial slug Limax valentianus.

129.Neurosci Lett 334, 201-205 (2002).

130.Matsuo R, Asada A, Fujitani K, and Inokuchi K.

131.LIRF, a gene induced during hippocampal long-term potentiation as an immediate-early gene, encodes a novel RING finer protein.

132.Biochem Biophys Res Commun 289, 479-484 (2001).

133.Yamazaki M, Matsuo R, Fukazawa Y, Ozawa F, and Inokuchi K.

134.Regulated expression of an actin-associated protein, synaptopodin, during long-term potentiation.

135.J Neurochem 79, 192-199 (2001).

136.Matsuo R, Murayama A, Saitoh Y, Sakaki Y, and Inokuchi K.

137.Idetification and cataloging of genes induced by long-lasting long-term potentiation in awake rats.

138.J Neurochem 74, 2239-2249 (2000).

139.Matsuo R, Kato A, Sakaki Y, and Inokuchi K.

140.Cataloging altered gene expression during hippocampal long-term potentiation by means of differential display.

141.Neurosci Lett 244, 173-176 (1998).