• 심성연구
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• 제37권2호
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• pp.184-254
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• 2022

본 논문을 통해 한국 민담 '주인집을 망하게 한 하인'의 심리학적 의미를 고찰하였다. 민담 속 주인과 하인의 대립은 보편적인 인간 정신의 문제로, 경화된 기존의 집단적 의식과 이를 보상하고 갱신하려는 새로운 의식의 대립으로 볼 수 있다. 다른 각도에서 설명해보자면 인간의 정신적인 측면과 본능적인 측면 사이의 혹은 의식과 무의식 사이의 대립이며, 자아와 그림자 사이의 대립이라고도 할 수 있다. 민담 속 주인은 애먹이는 막내 하인을 없애버리려 여러 차례 시도하지만, 하인은 꾀와 속임수를 써서 주인으로부터 음식과 말(馬), 막내 누이, 전 재산, 마침내 목숨까지 빼앗아 버리고, 이야기는 막내 하인과 막내 누이의 혼인 생활로 끝을 맺는다. 주인이 죽고 하인이 새로운 주인이 되는 대극반전(enantiodromia)은 낡은 집단적 의식이 파괴되고 집단적 무의식으로부터 올라온 새로운 의식이 지배적 위치에 서게 되는 것으로, 개인의 심리적 상황에서는 기존의 자아의 태도가 해소되고 새로운 태도로 변환되는 것으로 이해해볼 수 있다. 이야기의 중간 과정에서 하인은 그를 죽이려고 주인이 써준 등편지를 순박한 사람들을 이용해 새롭게 바꿔 써서 막내 누이와 혼인한다. 이 모습은 집단적 의식의 도덕관념에서는 부정적으로 이해될 수 있으나, 아낙네, 꿀장수, 배고픈 중으로 상징되는 조선 시대 집단적 의식에서 무시되어오던 정신요소를 통합하는 과정으로 볼 수 있다. 하인으로 대변되는 새로운 의식성은 기존의 틀에 구속받지 않는 트릭스터적 특성을 갖기에 집단적 의식에서 무시되어온 정신적 내용을 통합하여 조선 후기 집단적 의식에 대한 보상과 대안으로서 제시하는 요소라고 할 수 있다. 주인은 다시 하인을 죽이려고 하인을 가죽 부대에 넣어 나무에 매다는데, 가죽 부대 속에 들어가 매달렸더니 눈을 떴다는 하인의 속임수에 넘어간 소경이 대신 매달려 죽고 하인은 달아나게 된다. 주인과 하인의 대극 문제가 마침내 나무로 상징되는 전체 정신(Self)에 맡겨지자 소경이 제거되는 것은 트릭스터에 포함되어있는 맹목성, 어리석음, 탐욕적 요소를 구분하고 정화하려는 자기(Self)의 의도로 이해해볼 수 있다. 이런 과정들을 거쳐 집단적 의식의 새로운 변화 혹은 새로운 자아의 태도를 상징하는 하인은 기존의 문제들을 해결하고 주인의 자리에 서게 된다. 그러나 꾀 많은 하인의 활약상을 들으며 청중들은 유쾌함과 해방감을 느끼는 한편, 소경이 대신 죽고 주인집 식구가 몰살되고 하인이 주인이 되는 부분에서는 하인의 위험성과 통제 불가능에 대한 우려와 두려움의 감정을 경험하기도 한다. 해외 유화들에 등장하는 트릭스터들 역시 철저히 이기적이고 오직 욕구를 채우고 위험에서 빠져나가기 위해 무고한 존재들을 속이거나 죽게 만드는데, 이들 트릭스터를 처단하거나 교화하려는 노력은 허사로 돌아가고 그들은 달아나버린다. 그러므로 본 민담 역시 이런 원형적 그림자가 매우 위험하다는 것, 그리고 의식이 통제하거나 의식에 동화될 수 없다는 것을 알게 해주고, 그것을 외경하고 관조하도록 하는 목적 의미도 있다고 볼 수 있다. 트릭스터는 기존의 구조와 질서가 경화되었을 때 보상작용으로서 무의식으로부터 올라오는 재생시키는(revivifying) 자연 에너지의 비합리적 발현 양상이다. 그 현상은 기존의 집단적 정신의 입장에서는 파괴적이고 비도덕적일 수 있으나, 도덕적으로 규정할 수 없는 보다 근원적 정신인 집단적 무의식의 기능이라고 보아야 한다. 트릭스터 원형상으로 볼 수 있는 하인은 변환을 가져오는 존재로 파괴성과 창조성이라는 양면성과 모순성을 지니고 있다. 본 민담의 유화들의 결말은 여러 갈래인데 이는 트릭스터의 양면성으로 인해 청중의 마음 반응이 그만큼 다양하다는 것을 반영하며, 트릭스터 문제에 대한 무의식의 다양한 반응을 제시하는 것이기도 하다. 또한 트릭스터란 그만큼 결론이 안 나고 논란을 일으키는 모순덩어리 존재로 의식적 합리적 태도로 통제할 수 없다는 것, 우리 안의 트릭스터 원형에 대해 진지하게 관조할 수 있을 뿐이라는 것을 보여준다.

• 한국농공학회지
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• 제16권2호
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• pp.3361-3394
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• 1974

The purpose of this thesis is to disclose some characteristics of water consumption in relation to the quantities of dry matters through the growing period for two statured varieties of paddy rice which are a tall statured variety and a short one, including the water consumption during seedling period, and to find out the various coefficients of evapotranspiration that are applicable for the water use of an expected yield of the two varieties. PAL-TAL, a tall statured variety, and TONG-lL, a short statured variety were chosen for this investigation. Experiments were performed in two consecutive periods, a seedling period and a paddy field period, In the investigation of seedling period, rectangular galvanized iron evapotranspirometers (91cm${\times}$85cm${\times}$65cm) were set up in a way of two levels (PAL-TAL and TONG-lL varieties) with two replications. A standard fertilization method was applied to all plots. In the experiment of paddy field period, evapotanspiration and evaporation were measured separately. For PAL-TAL variety, the evapotranspiration measurements of 43 plots of rectangular galvanized iron evapotranspirometer (91cm${\times}$85cm${\times}$65cm) and the evaporation measurements of 25 plots of rectangular galvanized iron evaporimeter (91cm${\times}$85cm${\times}$15cm) have been taken for seven years (1966 through 1972), and for TONG-IL variety, the evapotranspiration measurements of 19 plots and the evaporation measurements of 12 plots have been collected for two years (1971 through 1972) with five different fertilization levels. The results obtained from this investigation are summarized as follows: 1. Seedling period 1) The pan evaporation and evapotranspiration during seedling period were proved to have a highly significant correlation to solar radiation, sun shine hours and relative humidity. But they had no significant correlation to average temperature, wind velocity and atmospheric pressure, and were appeared to be negatively correlative to average temperature and wind velocity, and positively correlative to the atmospheric pressure, in a certain period. There was the highest significant correlation between the evapotranspiration and the pan evaporation, beyond all other meteorological factors considered. 2) The evapotranpiration and its coefficient for PAL-TAL variety were 194.5mm and 0.94∼1.21(1.05 in average) respectively, while those for TONG-lL variety were 182.8mm and 0.90∼1.10(0.99 in average) respectively. This indicates that the evapotranspiration for TONG-IL variety was 6.2% less than that for PAL-TAL variety during a seedling period. 3) The evapotranspiration ratio (the ratio of the evapotranspiration to the weight of dry matters) during the seedling period was 599 in average for PAL-TAL variety and 643 for TONG-IL variety. Therefore the ratio for TONG-IL was larger by 44 than that for PAL-TAL variety. 4) The K-values of Blaney and Criddle formula for PAL-TAL variety were 0.78∼1.06 (0.92 in average) and for TONG-lL variety 0.75∼0.97 (0.86 in average). 5) The evapotranspiration coefficient and the K-value of B1aney and Criddle formular for both PAL-TAL and TONG-lL varieties showed a tendency to be increasing, but the evapotranspiration ratio decreasing, with the increase in the weight of dry matters. 2. Paddy field period 1) Correlation between the pan evaporation and the meteorological factors and that between the evapotranspiration and the meteorological factors during paddy field period were almost same as that in case of the seedling period (Ref. to table IV-4 and table IV-5). 2) The plant height, in the same level of the weight of dry matters, for PAL-TAL variety was much larger than that for TONG-IL variety, and also the number of tillers per hill for PAL-TAL variety showed a trend to be larger than that for TONG-IL variety from about 40 days after transplanting. 3) Although there was a tendency that peak of leaf-area-index for TONG-IL variety was a little retarded than that for PAL-TAL variety, it appeared about 60∼80 days after transplanting. The peaks of the evapotranspiration coefficient and the weight of dry matters at each growth stage were overlapped at about the same time and especially in the later stage of growth, the leaf-area-index, the evapotranspiration coefficient and the weight of dry matters for TONG-IL variety showed a tendency to be larger then those for PAL-TAL variety. 4) The evaporation coefficient at each growth stage for TONG-IL and PAL-TALvarieties was decreased and increased with the increase and decrease in the leaf-area-index, and the evaporation coefficient of TONG-IL variety had a little larger value than that of PAL-TAL variety. 5) Meteorological factors (especially pan evaporation) had a considerable influence to the evapotranspiration, the evaporation and the transpiration. Under the same meteorological conditions, the evapotranspiration (ET) showed a increasing logarithmic function of the weight of dry matters (x), while the evaporation (EV) a decreasing logarithmic function of the weight of dry matters; 800kg/10a x 2000kg/10a, ET=al+bl logl0x (bl>0) EV=a2+b2 log10x (a2>0 b2<0) At the base of the weight of total dry matters, the evapotranspiration and the evaporation for TONG-IL variety were larger as much as 0.3∼2.5% and 7.5∼8.3% respectively than those of PAL-TAL variety, while the transpiration for PAL-TAL variety was larger as much as 1.9∼2.4% than that for TONG-IL variety on the contrary. At the base of the weight of rough rices the evapotranspiration and the transpiration for TONG-IL variety were less as much as 3.5% and 8.l∼16.9% respectively than those for PAL-TAL variety and the evaporation for TONG-IL was much larger by 11.6∼14.8% than that for PAL-TAL variety. 6) The evapotranspiration coefficient, the evaporation coefficient and the transpiration coefficient and the transpiration coefficient were affected by the weight of dry matters much more than by the meteorological conditions. The evapotranspiratioa coefficient (ETC) and the evaporation coefficient (EVC) can be related to the weight of dry matters (x) by the following equations: 800kg/10a x 2000kg/10a, ETC=a3+b3 logl0x (b3>0) EVC=a4+b4 log10x (a4>0, b4>0) At the base of the weights of dry matters, 800kg/10a∼2000kg/10a, the evapotranspiration coefficients for TONG-IL variety were 0.968∼1.474 and those for PAL-TAL variety, 0.939∼1.470, the evaporation coefficients for TONG-IL variety were 0.504∼0.331 and those for PAL-TAL variety, 0.469∼0.308, and the transpiration coefficients for TONG-IL variety were 0.464∼1.143 and those for PAL-TAL variety, 0.470∼1.162. 7) The evapotranspiration ratio, the evaporation ratio (the ratio of the evaporation to the weight of dry matters) and the transpiration ratio were highly affected by the meteorological conditions. And under the same meteorological condition, both the evapotranspiration ratio (ETR) and the evaporation ratio (EVR) showed to be a decreasing logarithmic function of the weight of dry matters (x) as follows: 800kg/10a x 2000kg/10a, ETR=a5+b5 logl0x (a5>0, b5<0) EVR=a6+b6 log10x (a6>0 b6<0) In comparison between TONG-IL and PAL-TAL varieties, at the base of the pan evaporation of 343mm and the weight of dry matters of 800∼2000kg/10a, the evapotranspiration ratios for TONG-IL variety were 413∼247, while those for PAL-TAL variety, 404∼250, the evaporation ratios for TONG-IL variety were 197∼38 while those for PAL-TAL variety, 182∼34, and the transpiration ratios for TONG-IL variety were 216∼209 while those for PAL-TAL variety, 222∼216 (Ref. to table IV-23, table IV-25 and table IV-26) 8) The accumulative values of evapotranspiration intensity and transpiration intensity for both PAL-TAL and TONG-IL varieties were almost constant in every climatic year without the affection of the weight of dry matters. Furthermore the evapotranspiration intensity appeared to have more stable at each growth stage. The peaks of the evapotranspiration intensity and transpiration intensity, for both TONG-IL and PAL-TAL varieties, appeared about 60∼70 days after transplanting, and the peak value of the former was 128.8${\pm}$0.7, for TONG-IL variety while that for PAL-TAL variety, 122.8${\pm}$0.3, and the peak value of the latter was 152.2${\pm}$1.0 for TONG-IL variety while that for PAL-TAL variety, 152.7${\pm}$1.9 (Ref.to table IV-27 and table IV-28) 9) The K-value in Blaney & Criddle formula was changed considerably by the meteorological condition (pan evaporation) and related to be a increasing logarithmic function of the weight of dry matters (x) for both PAL-TAL and TONG-L varieties as follows; 800kg/10a x 2000kg/10a, K=a7+b7 logl0x (b7>0) The K-value for TONG-IL variety was a little larger than that for PAL-TAL variety. 10) The peak values of the evapotranspiration coefficient and k-value at each growth stage for both TONG-IL and PAL-TAL varieties showed up about 60∼70 days after transplanting. The peak values of the former at the base of the weights of total dry matters, 800∼2000kg/10a, were 1.14∼1.82 for TONG-IL variety and 1.12∼1.80, for PAL-TAL variety, and at the base of the weights of rough rices, 400∼1000 kg/10a, were 1.11∼1.79 for TONG-IL variety and 1.17∼1.85 for PAL-TAL variety. The peak values of the latter, at the base of the weights of total dry matters, 800∼2000kg/10a, were 0.83∼1.39 for TONG-IL variety and 0.86∼1.36 for PAL-TAL variety and at the base of the weights of rough rices, 400∼1000kg/10a, 0.85∼1.38 for TONG-IL variety and 0.87∼1.40 for PAL-TAL variety (Ref. to table IV-18 and table IV-32) 11) The reasonable and practicable methods that are applicable for calculating the evapotranspiration of paddy rice in our country are to be followed the following priority a) Using the evapotranspiration coefficients based on an expected yield (Ref. to table IV-13 and table IV-18 or Fig. IV-13). b) Making use of the combination method of seasonal evapotranspiration coefficient and evapotranspiration intensity (Ref. to table IV-13 and table IV-27) c) Adopting the combination method of evapotranspiration ratio and evapotranspiration intensity, under the conditions of paddy field having a higher level of expected yield (Ref. to table IV-23 and table IV-27). d) Applying the k-values calculated by Blaney-Criddle formula. only within the limits of the drought year having the pan evaporation of about 450mm during paddy field period as the design year (Ref. to table IV-32 or Fig. IV-22).