• 제목/요약/키워드: temperature of different body part

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가축에서 간이 체온측정 비접촉성 체온계 개발을 위한 임상적 연구 (Clinical Studies for the Development of Non-contact Thermometer to Take Easily the Body Temperature of Domestic Animals)

  • 김용준;이대영;한경호
    • 한국임상수의학회지
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    • 제20권3호
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    • pp.357-363
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    • 2003
  • These studies were carried out to develop non-contact thermometer to take easily the body temperature of domestic animals instead of taking rectal temperature. For the studies, 86 cattle, 57 horses, 72 pigs, 43 goats, and 42 dogs were used and body parts as neck, flank, axilla, lateral abdomen, gluteus, inguinal region, or jugular groove were chosen for taking temperature according to different species. Two types of commercial non-contact thermometers were used to take the temperature of certain body part and at the same time the rectal temperature using digital thermo-meter was taken to compare the difference of temperature between rectum and certain body part. The difference of mean temperature in cattle between rectum and axilla and flank were 0.52 and $2.41^{\circ}C$, respectively, using non-contact thermometer I, whereas $3.02^{\circ}C$ between rectum and flank using thermometer II. The difference of mean temperature in horses between rectum and axilla, gluteus, and jugular groove were 0.52, 1.49, and $0.26^{\circ}C$, respectively, using thermometer I, whereas 2.28 ane $0.92^{\circ}C$ between rectum and gluteus or jugular groove using thermometer II. The difference of mean temperature in swine between rectum and flank, inguinal region, and neck were 1.23, 0.21, and $0.8^{\circ}C$, respectively, using thermometer I, whereas 1.42, 0.711, and $1.25^{\circ}C$ using thermometer II The difference of mean temperature in goats between rectum and lateral abdomen and inguinal region were 1.02 and $0.12^{\circ}C$, respectively, using thermometer I, whereas 1.96 and $1.01^{\circ}C$ using thermometer II. The difference of mean temperature in dogs between rectum and lateral abdomen, inguinal region, and neck were 3.26, 0.24, and $2.37^{\circ}C$, respectively, using thermometer I, whereas 3.45, 0.56, and $2.61^{\circ}C$ using thermometer II.

전정맥 전신마취하(下) 복강경 수술환자의 부위별 심부체온의 변화 평가 (Core Temperature Evaluation in Different Body Parts in Patients Undergoing Laparoscope Surgery under Total Intravenous Anesthesia)

  • 함태수;김원호;김남초;유제복
    • 기본간호학회지
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    • 제22권4호
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    • pp.379-386
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    • 2015
  • Purpose: The trend of body temperature change during laparoscopic surgery and the most adequate site for monitoring temperature measurements have not been investigated thoroughly. In this study body temperature change during laparoscopic surgery was measured and measurements of the tympanic, esophageal, and nasopharyngeal core temperatures in surgical patients with total intravenous anesthesia were compared. Methods: From February to October 2013, 28 laparoscopic surgical patients were recruited from a tertiary hospital in Seoul. The patients' core temperature was measured 12 times at ten minute intervals from ten minutes after the beginning of endotracheal intubation. Results: Repeated measure of core temperatures indicated a significant difference according to body part (p=.033), time of measure (p<.001) and the reciprocal interaction between body part and time of measure (p<.027). The core temperatures were highest at tympany location, lowest at nasopharynx. The amount of temperature change was least for the esophagus ($36.10{\sim}36.33^{\circ}C$), followed by nasopharynx and tympany. Conclusion: The esophageal core temperature showed the highest stability followed by nasopharyngeal and tympanic temperature. Therefore, close observations are required between 10~20minutes after the beginning of the operation.

벨트의 피복압이 인체 생리에 미치는 영향에 관한 연구 (A Study of Physiological Influence on Human-body According to Clothing Pressure of Belt)

  • 장지혜
    • 대한가정학회지
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    • 제36권6호
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    • pp.85-94
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    • 1998
  • In this study we tested the physiological influence on human-body according to clothing pressure with reduction rate and varied posture using three kinds of belt with different width. The width of belts were 2.5cm, 3.5cm and 4.5cm, and reduction rates of belts were 0%, 2.5% and 5% of the subject/s waist size respectively. the measured postures were standing state and sitting stste in the chair. The reasults are as follows; 1. Clothing pressure was high in the order of Side part>Front part>Back part and the rate fo change in the side part was highest, according to the reductio rate of belts. The more the width of belt was wide, the less the clothing pressure was small, and this kind of phenomenon could be explained by "The Principle of the power". 2. Both the rate of reduction of belt and the change of average skin temperature in accordance with the width of belt is small, however, the more the width of belts is wider and the reduction rate is bigger, the more the skin temperature at the waist part is increased. 3. The blood pressure and pulse was influenced when the width of belt was narrow and the reduction rate was high. 4. A sense restraining was much influenced by the width of belt, especially when the width of belts was wide, the significant difference was permitted.permitted.

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온도변동에 따른 인체 생리적 반응 -제2보: 맥파를 중심으로- (Physiological Response of Human Body by Temperature Change -Part 2: In Priority to Pulse wave-)

  • 강석중;금종수;김동규;정용현;이낙범
    • 대한설비공학회:학술대회논문집
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    • 대한설비공학회 2007년도 동계학술발표대회 논문집
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    • pp.23-28
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    • 2007
  • In most existing research, it is difficult to evaluate thermal comfort exactly because of reflecting individual ideal or psychological response by subjective questions. Physiological variable was selected in this study to evaluate objectively thermal comfort. MST was appeared very sensitively in indoor temperature and can express correctly thermal comfort of human body. The results of CSV are different each individual feeling sensation, so is difficult to evaluate detailedly thermal comfort unlike TSV. But the results of PP, AIx, ED, SEVR are greatly related to temperature change. So thermal comfort is evaluated more objectively by using PP, AIx, ED, SEVR on behalf of TSV, CSV. Human body was presented physiological feedback by temperature impetus and specially, tendency of heart rate agree with temperature change. Physiological reaction was showed sufficient possibility availing evaluation index of thermal comfort. In the future another one needs to review beside the selected physiological variable.

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한랭환경하에서 운동발한시 인체의 체온조절반응에 대한 내의소재의 생리학적 의의 (Physiological Effects of Different Underwear Materials Thermoregulatory Response during Exercise with Sweating at Cold Environments)

  • 권오경;김태규;손부헌;박승한
    • 한국의류산업학회지
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    • 제1권1호
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    • pp.43-49
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    • 1999
  • This study conducted 4 different kinds of underwear materials, which were A (Cotton 100%), B (Wool 100%), C (Cotton/Wool, 50/50%) and D (Acrylic/Cotton, 50/50%) and were done in a climate chamber under cold ambient $10{\pm}1^{\circ}C$, $40{\pm}5%RH$ by 6 male subjects who were in good health. Physiological parameters such as rectal and local skin temperature(forehead, forearm, hand, trunk, thigh, leg, foot, back and chest), heart rate, body weight loss, clothing microclimate, blood lactic acid concentration, and wearing sensation were measured. Started with a 15-min rest period, 15-min of exercise 1 (the condition of 4.5 mile/hr walking speed equivalent to with 8.5 Kcal energy consumption on the treadmill) period, 15-min rest period, exercise 2 (after 3minutes warming-up at 3.0. 3.7, 4.5. 5.2. 6.0, 6.7 mile/hr) until exhaustion period, and final 15-min of recovery period were performed. The results were as follows: The lowest mean skin temperature was acrylic/cotton in order of wool > cotton/wool > cotton > acrylic/cotton (F=13. 79. p<0.00l). Most of all skin temperature by parts of body had turned out in sequence of temperature wool > cotton/wool > acrylic/cotton > cotton. Fore arm part showed highest temperature about $32.43^{\circ}C$ on wool and had a tendency approximately $1.8^{\circ}C$ higher than cotton which had the lowest temperature, and had the biggest difference among garments in terms of skin temperature. The back temperature within clothing showed about $2^{\circ}C$ higher than the chest temperature within clothing. but the back humidity within clothing showed about 4~12% higher than the chest humidity within clothing. Body weight loss by each garment was this sequence; cotton > acrylic/cotton > wool > cotton/wool.

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스파크 플라스마 소결공정의 전산모사(2부 : 해석) (Computer aided simulation of spark plasma sintering process (Part 2 : analysis))

  • 금영탁;정상철;전종훈
    • 한국결정성장학회지
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    • 제16권1호
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    • pp.43-48
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    • 2006
  • 본 2부의 연구에서는 스파크 플라스마 소결의 온도분포, 상대밀도, 입자성장을 해석 하기 위하여 1부 연구의 시뮬레이션 이론을 바탕으로 스파크 플라스마 소결공정을 유한요소법(FEM)과 몬테카를로법(MCM)으로 전산모사하고 실험치와 비교한다. 전산모사를 통하여 소결체의 소결온도가 높을수록 입자성장이 커지고 밀도가 높아져 기계적 성질이 향상되고, 고상 소결에서 몬테카르로 단계가 증가할 수록 기공의 감소와 입자크기의 증대함을 보여 준다.

Temperature thread multiscale finite element simulation of selective laser melting for the evaluation of process

  • Lee, Kang-Hyun;Yun, Gun Jin
    • Advances in aircraft and spacecraft science
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    • 제8권1호
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    • pp.31-51
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    • 2021
  • Selective laser melting (SLM), one of the most widely used powder bed fusion (PBF) additive manufacturing (AM) technology, enables the fabrication of customized metallic parts with complex geometry by layer-by-layer fashion. However, SLM inherently poses several problems such as the discontinuities in the molten track and the steep temperature gradient resulting in a high degree of residual stress. To avoid such defects, thisstudy proposes a temperature thread multiscale model of SLM for the evaluation of the process at different scales. In microscale melt pool analysis, the laser beam parameters were evaluated based on the predicted melt pool morphology to check for lack-of-fusion or keyhole defects. The analysis results at microscale were then used to build an equivalent body heat flux model to obtain the residual stress distribution and the part distortions at the macroscale (part level). To identify the source of uneven heat dissipation, a liquid lifetime contour at macroscale was investigated. The predicted distortion was also experimentally validated showing a good agreement with the experimental measurement.

부항요법 후 적외선 체열촬영을 통한 관찰 (An observation on the duration of the negative treatment by thermography)

  • 최윤희;조정훈;장준복;이경섭
    • 대한한방체열의학회지
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    • 제4권1호
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    • pp.15-22
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    • 2005
  • Thermal change of thermogram can be induced by heat, drugs, diseases, stress, treatments and so on. Because they changed blood circulation of body surface. Negative treatment have been used in oriental medicine to decrease pain and to purify fluids and it can also change blood circulation of body surface. The purpose of this study was to observe the detail changes of temperature after negative treatment and to know the differences according to the negative pressures by thermography. This study was carried for 5 days and thermogram was operated 15 times. The patient had been treated on the back with electromotive type negative treatment and the treated sites was devides into 4 parts with different negative pressure. The results was that the temperature of all parts rised after treatment and the highest point was 10 minutes after treatment. The differences according to the negative pressures was that the temperature of the 55mmHg part rised particularly than the others and it continued until 40 minutes after treatment. There were no differences between 30mmHg and 40mmHg part. The temperature of 50mmHg part were low than the others during all thermogram.

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군락상태에 있는 초본식물의 엽온의 일조변화 (On the Diurnal Change of Leaf Temperature of Herbaceous Plants in Plant Community)

  • 임양재
    • Journal of Plant Biology
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    • 제17권3호
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    • pp.107-112
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    • 1974
  • Leaf temperature is complicated with the microclimate and the dry matter production in a plant community. But a daily change of leaf temperature varying by the locality in plant body or plant community is not yet clear. To resolve such a question, following experiment was designed; Helianthus tuberosus L., Glycine max L., Zea mays L., Impomoea batatas Lam., and Cucurbita moschata var. toonas Makino were planted in the different sandy loam, $2m{\times}2m-quadrat$, which has a eastern, southern, western and northern edge. In each plot 17-25 plants were planted and the distances between individuals spaced uniformly. And leaf temperature were measured by MR3-C type thermistor from 14th May through 20th August. It is seems that the upper leaf is affected by solar radiation, the lower leaf by released heat from the earth and the middle leaf by the conditions of both zones. Measuring the temperature of a leaf that is on terminal, central, left and right margins and base part, temperature of control plant in a leaf was sloped during about two hours from noon. It is noticeable as a "noon sleeping" phenomenon.henomenon.

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흑연과 지르콘의 상대적인 함량에 따른 마찰특성에 관한 연구 (Influence of the Relative Amount of Graphite and Zirconium Silicate on Friction Characteristics)

  • 김성진;장호
    • 한국윤활학회:학술대회논문집
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    • 한국윤활학회 2000년도 제31회 춘계학술대회
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    • pp.166-172
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    • 2000
  • Friction characteristics of phenolic resin-based friction composites containing threedifferent relative amounts of graphite and zirconium silicate were investigated by using a pad-on-disk type friction tester. Constant temperature test and constant interval test at three different initial temperatures(100. 200, 300$^{\circ}C$) were performed to examine the effects of friction heat on friction characteristics at elevated temperature. The friction composite(FMO.7) with higher content of ZrSiO$_4$showed unstable friction force at higher temperature and resulted in larger fluctuations of vibration during friction test. The abrasive action of ZrSiO$_4$in friction composite impeded stable transfer film and induced higher friction heat at friction interface. Friction oscillations according to the temperature were associated with the formation of transfer film(i'd body layer) on the friction composite and the counter part.

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