ライフサイエンスコーパス: electrolytic lesion

1 dologies, such as electrical stimulation and electrolytic lesion.

2 recordings were histologically identified by electrolytic lesions.

3 interpositus nucleus (muscimol) or permanent electrolytic lesions.

4 inactivation confirmed previous results with electrolytic lesions.

5 impairments were produced by neurotoxic and electrolytic lesions.

6 stigated using c-fos immunocytochemistry and electrolytic lesions.

7 n (PPI) of the acoustic startle reflex after electrolytic lesions aimed at the central NAcc, the NAcc

8 this question, we ablated the SCN of mice by electrolytic lesion and examined hippocampus-dependent m

9 tudies we tested the effects of bilateral of electrolytic lesions and reversible inactivation of the

10 of the rostral hypothalamus sustained large electrolytic lesions at either the rostral or the caudal

11 ing the anatomical and functional effects of electrolytic lesions at the level of the lateral hypotha

12 Electrolytic lesions before or after training were place

13 Pretraining bilateral electrolytic lesions blocked the acquisition of conditio

14 nd thus may be functionally equivalent to an electrolytic lesion, but without allowing time for neura

15 lesions of the Ce reduced flank marking and electrolytic lesions completely inhibited flank marking

16 However, electrolytic lesions damage both cell bodies and fibers

17 Moreover, electrolytic lesions demarcating physiological tuning pr

18 a by HPLC three weeks following placement of electrolytic lesions in DRN.

19 Using selective electrolytic lesions in rats, here we examined the role

20 9b and 29c/d, and was severely attenuated by electrolytic lesions in the dorsal hippocampus.

21 Three weeks following placement of electrolytic lesions in the DRN, the concentrations of 5

22 We discovered, however, that small electrolytic lesions in the midbrain severely impair a c

23 also inhibited in animals that had received electrolytic lesions in the rostral ventromedial medulla

24 In rats, electrolytic lesions in these regions may give rise to t

25 Large electrolytic lesions including the rostral ventral nucle

26 This electrolytic lesioning method avoids disruptive procedur

27 rats were subjected to either sham (SHAM) or electrolytic lesion of both the dorsal and ventral part

28 This study investigated the effects of an electrolytic lesion of the commissural subnucleus of the

29 We have shown previously that electrolytic lesion of the MnPO attenuated the increased

30 Electrolytic lesion of the SCN 2 d after training for co

31 This study examined whether a prior electrolytic lesion of the tissue surrounding the antero

32 nistration of an NMDA receptor antagonist or electrolytic lesioning of the pontine Kolliker-Fuse nucl

33 these investigations, physical, chemical, or electrolytic lesions of anatomical structures are applie

34 ellar cortex that was confirmed using small, electrolytic lesions of cerebellar cortex.

35 lar response and to CTA learning in general, electrolytic lesions of insular (gustatory) cortex (IC)

36 Electrolytic lesions of insular cortex blocked behaviora

37 ts were given either unilateral or bilateral electrolytic lesions of insular cortex or 'sham' operati

38 Bilateral electrolytic lesions of MCVA significantly reduced, by o

39 Bilateral electrolytic lesions of NaCN sensitive sites of RVL, whi

40 Bilateral electrolytic lesions of RVLM did not affect responses fr

41 Animals were given electrolytic lesions of the ACC and then trained in the

42 In contrast, electrolytic lesions of the AHN and VMH reduced freezing

43 Electrolytic lesions of the amygdala effectively blocked

44 ts were given either unilateral or bilateral electrolytic lesions of the amygdala or "sham' operation

45 lar response and to CTA learning in general, electrolytic lesions of the amygdala were combined with

46 in conscious rats which had received sham or electrolytic lesions of the anteroventral third ventricl

47 th bilateral, electrophysiologically guided, electrolytic lesions of the area was examined in Experim

48 to female rats demonstrating that bilateral electrolytic lesions of the BNST increased immobility an

49 ntrast to ibotenic lesions of the CeA, small electrolytic lesions of the CeA strongly affected both p

50 PPI was significantly reduced by electrolytic lesions of the central NAcc, as well as by

51 M. Kim and M. Davis previously reported that electrolytic lesions of the central nucleus of the amygd

52 ulation) in experimental rats [that received electrolytic lesions of the central nucleus of the amygd

53 After bilateral electrolytic lesions of the cPAGl,vl during gestation or

54 ive experiments that examined the effects of electrolytic lesions of the dlPAG and the vPAG in learne

55 We have shown previously that electrolytic lesions of the dorsal hippocampus (DH) prod

56 In each study, rats with electrolytic lesions of the dorsal hippocampus and sham-

57 startle almost completely, whereas the large electrolytic lesions of the dorsal hippocampus did not b

58 able to replicate our original finding that electrolytic lesions of the dorsal hippocampus render ra

59 Previous studies have shown that electrolytic lesions of the dorsal hippocampus render th

60 In the past, we showed that large electrolytic lesions of the dorsomedial hypothalamus (DM

61 nts for generating HD cell activity, we made electrolytic lesions of the DTN or LMN in rats and scree

62 Experiment I investigated the effects of electrolytic lesions of the entorhinal cortex on LI in a

63 h this observation, ablating LHb outputs via electrolytic lesions of the fasciculus retroflexus (FR)

64 Electrolytic lesions of the fasciculus retroflexus block

65 ions of the parahippocampal region (PARA) or electrolytic lesions of the fimbria-fornix (FNX) and wer

66 Bilateral electrolytic lesions of the globus pallidus (GP), superi

67 The learning capacities of rats with electrolytic lesions of the gustatory thalamus (GT) were

68 taste preferences and aversions of rats with electrolytic lesions of the gustatory thalamus (GT).

69 ive contrast, was eliminated after bilateral electrolytic lesions of the gustatory thalamus.

70 Mice received control lesions or bilateral electrolytic lesions of the habenula and were tested for

71 Bilateral electrolytic lesions of the lateral and ventrolateral ca

72 Importantly, this bias was abolished by both electrolytic lesions of the LHb and selective ablation o

73 den hamsters (Mesocricetus auratus) received electrolytic lesions of the Me or sham surgery and were

74 Electrolytic lesions of the medial septal area were perf

75 Electrolytic lesions of the medial septal region leads t

76 S. Berry and R. Thompson reported that electrolytic lesions of the medial septum significantly

77 n testing this hypothesis, it was found that electrolytic lesions of the medial septum, but not the l

78 anol consumption paradigm by confirming that electrolytic lesions of the NAc core decreased ethanol c

79 Electrolytic lesions of the NAc core increased locomotio

80 anterior thalamus after either neurotoxic or electrolytic lesions of the NPH.

81 Bilateral electrolytic lesions of the nucleus of the solitary trac

82 Adult female rats received either bilateral electrolytic lesions of the PDA or sham lesions.

83 Electrolytic lesions of the PMd did not reduce TMT-induc

84 amine this possibility, effects of bilateral electrolytic lesions of the POM on singing and other beh

85 In Experiment 1, electrolytic lesions of the POR or PER produced impairme

86 n AL and FR groups received either bilateral electrolytic lesions of the PVN (PVNx) or sham lesions (

87 Our laboratory recently demonstrated that electrolytic lesions of the retrosplenial cortex (RSP),

88 t this hypothesis, we produced neurotoxic or electrolytic lesions of the RSP and recorded HD cells in

89 Electrolytic lesions of the RT or MLF but not the LC/PVG

90 Electrolytic lesions of the SCN abolished circadian loco

91 Pretraining electrolytic lesions of the VH reproduced the effects of

92 Small electrolytic lesions of the VLL of ventrolateral tegment

93 Subtotal electrolytic lesions of this division of the Psol caused

94 e, separate animals were prepared with small electrolytic lesions placed in the RVM.

95 Electrolytic lesions placed in the ventromedial hypothal

96 r jaw skin surface representation in SI, and electrolytic lesions, recovered from electrode penetrati

97 essed the possibility that the effect of the electrolytic lesion resulted from damage to fibers origi

98 we present and test a platform for creating electrolytic lesions through chronically implanted, intr

99 nt expression of AVP in the BNST and MeA and electrolytic lesions to eliminate the SCN, effectively e

100 e use the CPP procedure along with selective electrolytic lesions to examine the neural areas underly

101 We have used aspiration and electrolytic lesions to investigate the contributions of

102 Electrolytic lesions to the amygdala, a limbic structure

103 roup than in the sham group, suggesting that electrolytic lesions to the medial septum can enhance LI

104 Experiment 1 explored the role of electrolytic lesions to the MT in the formalin test.

105 It was hypothesized that animals with electrolytic lesions to the MT would have attenuated paw

106 Animals with electrolytic lesions to their cerebellum (targeting the

107 , suggesting that the blockade seen with the electrolytic lesions was caused by damage to fibers of p

108 Electrolytic lesions were made bilaterally in RN inhibit

109 Electrolytic lesions were made in the medial prefrontal

110 However, these electrolytic lesions were nonselective and may have also

111 Electrolytic lesions were produced in the medial or medi

112 Electrolytic lesions, which destroyed 31+/-0.04% of the

113 As expected, bilateral electrolytic lesions within the AV3V region (the ventral