72 research outputs found
λ‘λμ¨ μλλ¦°(R. Shchedrin, 1932- ) <νΌμλ Έ ν주곑 4λ²>μ μ°μ£ΌλΆμ λ° ν΄μμ κ³ μ°°
νμλ
Όλ¬Έ (λ°μ¬)-- μμΈλνκ΅ λνμ : μμ
κ³Ό, 2017. 2. μ₯νμ€.λ³Έκ³ λ λ¬μμμ μκ³‘κ° λ‘λμ¨ μλλ¦°(Rodion Shchedrin, 1932-)μ νΌμλ
Έ ν주곑 4λ² (Sharp Keys,1991)μ λΆμνκ³ , μ΄λ₯Ό ν λλ‘ μ°μ£Όν΄μμ μ μν μ°κ΅¬μ΄λ€. κ·Έμ μμ
κ΄μ λμλλ₯Ό ν¨ κ» μ΄μκ°κ³ μλ μ°μ£Όμ λ° μ²μ€λ€κ³Όμ μν΅μ κ°μ₯ μ°μ μ μΌλ‘ μΆκ΅¬ν΄μλ€. μ΄λ¬ν κ·Έμ μ² νμ λ°μν κ·Έμ μλ§μ μνλ€μ κ·Έλ μ μΈκ³μ μΈ μ°μ£Όμλ€κ³Όμ νμ
μ ν΅ν΄ λ°νλμ΄ μκ³ , μ΄λ κ·Έμκ² λ¬μμλΏλ§ μλλΌ μ λ½μ μ΄λ₯΄λ μΈκ³μ μΈ λͺ
μ±κ³Ό μΈμ§λλ₯Ό κ°μ Έλ€μ£Όμλ€. μ곑κ°μ΄μ νΌμλμ€νΈμ΄κΈ°λ νλ μλλ¦°μ νΌμλ
Έ μνλ€μ μ
κΈ°μ ν¨μ¨μ μ¬μ©μ ν΅ν΄ μ°μ£Ό κΈ°μ μ μΌλ‘ μ©μ΄νλ©΄μλ λμμ νλ €ν μ¬μ΄λμ κΈ°κ΅λ₯Ό ν¨κ³Όμ μΌλ‘ 보μ¬μ€λ€λ μ μμ μ°μ£Όμμ μ²μ€ λͺ¨λμκ² ν° λ§€λ ₯μΌλ‘ λ€κ°κ°λ€. νΉν κ·Έλ ν주곑μ μμ
μ μ€νμ μ₯μΌλ‘ μ¬κΈ°λ©° μ΄ μμμ μ€μν λκ΅¬λ‘ μΌμλλ°, μ΄ μ€ μ λ¨μν μμ
μ μμ¬λ₯Ό λ€μν ννλ‘ λνλ΄λ©΄μ μ°μ£Όμμ ν΄μ κ°λ₯μ±μ λμ± νμ₯μν¨ μνμ΄λΌλ μ μμ μ£Όλͺ©ν λ§νλ€.
λ³Έκ³ μμλ λ¨Όμ μλλ¦°μ μμ λ° μκΈ°λ³ μνκ²½ν₯κ³Ό μ£Όμ μνλ€μ μ΄ν΄λ³Έ ν, μ νμ λ° μ£Όμ , κ·Έλ¦¬κ³ μμμ¬λ₯Ό λΆμνκ³ μ΄λ₯Ό ν λλ‘ μ°μ£Όμμ κ΄μ μμ μ΄λ₯Ό μ΄λ»κ² ν΄μνκ³ ννν μ§λ₯Ό κ³ μ°°νλ€. νΉλ³ν μ°μ£Ό ν΄μμ μνμ¬ νλλ νΌμλμ€νΈμΈ μ¬λ¦¬ 무μ€ν λ¨μ μ°μ£Ό μμμ λΆμνμ¬ κ·Έμ ν΄μμ νμμ ν΄μμ μν κ·Όκ±°λ‘ μΌμ λ
Όμνλ€. μ΄λ¬ν μ°κ΅¬λ₯Ό ν΅ν΄ νμ
ν μ μλ μ΄ μνμ μΈ κ°μ§ μ£Όμ νΉμ§μ λ€μκ³Ό κ°λ€. 첫째, μ΄ κ³‘μ νλμ μ£Όμ κ° μ΄ κ³‘ μ 체λ₯Ό ꡬμ±νλ ν΅μ¬ μμκ° λλ©°, μ£Όμ λ₯Ό ν¬ν¨νμ§ μλ λλ¨Έμ§ λΆλΆλ€μ λ
μ£Όμ±λΆμ κΈ°κ΅λ₯Ό 보μ¬μ£Όλ μ₯μΌλ‘ νμ©λκ³ μλ€λ μ μ΄λ€. λμ§Έ, μ΄λ¬ν μ£Όμ μ μ¨μ μνμ£Όμ μ λ³ν, μμ΄μλ¦¬λ¬ κΈ°λ²κ³Ό κ°μ μ ν΅μ μΈ μ κ°κΈ°λ²μ ν΅ν΄ μ μλκ³ μλ€. μ
μ§Έ, μ£Όμ μ μ¨μ μμμ¬λ μ ν΅μ μΈ 3νμ ννμΈ Eμ₯3νμμ ν λλ‘ νκ³ μμΌλ©°, μ΄λ μ¬λ¦Ό μ‘°λ€μ΄λΌλ λΆμ μ μμ§μ±μ ꡬ체νμν¨λ€. ννΈ μ΄λ¬ν λΆμ κ²°κ³Όλ₯Ό ν λλ‘ μΈ κ°μ§ κ΄μ μμ μ°μ£Όλ₯Ό μν ν΄μμ μ μΈν μ μλ€. 첫째, λ μ
μ₯μμ μλ‘ λμ‘°μ μΈ νΉμ±μ 보μ΄λ λμΌν μ£Όμ μ μ¨μ λΆλͺ
νκ² κ΅¬λΆνλ κ²μ΄ νμνλ€. λμ§Έ, λμΌν μΉμ
μ΄ μ¬νλλ λΆλΆλ€μ΄ λ¨μνκ² λ°λ³΅λμ§ μλλ‘ μμ
μ λ§₯λ½μ κ³ λ €νμ¬ κ΅¬μ²΄μ μ΄κ³ μΈλΆμ μΈ νν μ₯μΉλ€μ΄ μ μ© λμ΄μΌ νλ€. μ
μ§Έ, νλ €ν κΈ°κ΅κ° μꡬλλ λΆλΆμ κ°λ³μ μΈ μνμ μ κ΅ν ννλΏλ§ μλλΌ μ
ꡬμ μ 체μ μΈ νλ¦ μμ μ€μμλμ΄μΌ νλ€.
λ³Έκ³ λ μ΄ μνμ ꡬμ±νλ λ΄μ μμλ€κ³Ό ν주곑μΌλ‘μμ κΈ°κ΅μ νΉμ§λ€μ λ°νκ³ , μ΄λ₯Ό κ³ λ €ν λ€κ°μ μΈ ν΄μκ³Ό λ
Όμλ₯Ό ν΅ν΄ μ°μ£Όμλ€μκ² κ·Έμ μμ
μΈκ³μ μνμ μ΄ν΄λ₯Ό μν μ μ©ν μλ£λ‘ μ μλ―Έλ₯Ό μ§λλ€. 무μ보λ€λ μλλ¦°μ κ΅λ΄μ μκ°νκ³ λ―Έν‘ν μ νμ°κ΅¬λ€μ 보μνμ¬ λμλλ₯Ό λννλ μκ³‘κ° μ€ νλμΈ κ·Έμ μΆκ³Ό μμ κ΄, κ·Έλ¦¬κ³ μνλ€μ λμ± κΉμ΄ μ΄ν΄ν μ μλ λ°νμ΄ λ κ²μ΄λ€.β
. μλ‘ 1
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‘. λ‘λμ¨ μλλ¦°μ μνμΈκ³ 6
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1. ꡬ쑰 λ° νμ 30
1.1. 1μ
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1.2. 2μ
μ₯ 44
2. μ£Όμ μ΄μ© λ°©μ 65
2.1. 1μ
μ₯ 67
2.1.1. μνμ λν λ¨μλ³ν 68
2.1.2. μννμ μ΄μ©ν μ£Όμ λ³ν 81
2.1.3. μ€μΌμ€νΈλΌμ νΌμλ
Έμ λμμ μΈ μ£Όμ μ μ 83
2.2. 2μ
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3. μμμ¬ λ° νμ± 92
3.1. μμμ¬ 92
3.2. νμ± 94
3.2.1. 3νμμ ν λλ‘ ν λΆλΆ 94
3.2.2. λ²μ¨μκ³μ£Όμ(pandiatonicism) νμ 101
3.2.3. μμΈ΅(tone cluster) 104
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£. μ°μ£ΌλΆμ λ° ν΄μμ κ³ μ°° 106
1. μνμ£Όμ μ λν ν΄μ 109
1.1. μκ°μ μΈ‘λ©΄ 109
1.1.1. βΆ: λΉλ°μ μ 110
1.1.2. β·: λ°μ μ 115
1.1.3. βΆβ²: λΉλ°μ μ 117
1.2. ννμ μΈ‘λ©΄ 118
1.2.1. νΉμ μμ κ°μ‘° 119
1.2.2. μ°μλλ μλ€μ μ°κ²° 126
1.2.3. μλ 132
2. λ°λ³΅λλ μμμ λν ν΄μ 137
2.1. μΉμ
μ λ°λ³΅ 137
2.2. νΉμ μνμ λ°λ³΅ 155
3. νλ €ν κΈ°κ΅λ₯Ό μꡬνλ μνλ€μ λν ν΄μ 163
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μ₯: μλ₯΄νμ§μ€ 163
3.2. 2μ
μ₯: μ€μΌμΌ 167
3.3. μΉ΄λ΄μ°¨: νΈλ λͺ°λ‘, λΆμ 리λ¬, μ€μΌμΌ 170
β
€. κ²°λ‘ 175
μ°Έκ³ λ¬Έν 179
λΆλ‘ 186
Abstract 194Docto
μκ°μμ λ²νν ν΄μμ μν μ£Όνμ μμ‘΄μ μΈ κ³΅λ ₯ μ΄λλ―Έν΄μ€ ν¨μμ μ°μ λ²
νμλ
Όλ¬Έ (μμ¬)-- μμΈλνκ΅ λνμ : 건μ€ν경곡νλΆ, 2013. 8. κΉνΈκ²½.μ΄ μ°κ΅¬λ 곡λ ₯ μ΄λλ―Έν΄μ€ ν¨μλ₯Ό κ³ λ €ν μκ°μμ λ²νν
ν΄μλ°©λ²μ μ μνλ€. μ£Όνμ μμ‘΄μ μΈ κ³΅λ ₯ μ΄λλ―Έν΄μ€ ν¨μμ νλ¬ν° κ³μλ₯Ό μκ°μμμμ κ³ λ €νκΈ° μν΄μ νΈλ¦¬μ κΈμλ₯Ό μ΄μ©νμλ€. μ 리 ν¨μλ₯Ό μ΄μ©ν μ κ·Ό λ°©λ²μ κΈ°μ€μΌλ‘ νμ¬, νΈλ¦¬μ κΈμλ₯Ό μ΄μ©ν λ°©λ²μ νλΉμ±μ κ²μ¦νλ€. μ€μ κ΅λλ¨λ©΄μ μ΄μ©νμ¬ κ³΅λ ₯ μ΄λλ―Έν΄μ€ ν¨μκ° μ€νμ ν΅ν΄μ μΆμΆλλ€. μ΄ μΈ‘μ λ 곡λ ₯ μ΄λλ―Έν΄μ€ ν¨μλ μ μ νμ μμ΄ν¬μΌ λ¨λ©΄μΌλ‘λΆν° μ΄λ‘ μ μΌλ‘ μ λλ Sears ν¨μμλ λ€λ₯Έ μμμ 보μΈλ€. νΈλ¦¬μ κΈμ μ κ°λ₯Ό μ΄μ©νλ©΄ μΈ‘μ ν 곡λ ₯ μ΄λλ―Έν΄μ€ ν¨μλ₯Ό μ±κ³΅μ μΌλ‘ κ·Όμ¬ν μ μλ€.
μ μλ λ°©λ²μ μ νμμ μ κ΅ λͺ¨νμ μ μ©νμ¬ λ²νν
ν΄μμ μννκ³ , Sears ν¨μμ μΈ‘μ λ 곡λ ₯ μ΄λλ―Έν΄μ€ ν¨μλ₯Ό κ°κ° μ μ©νμ¬ μλ΅μ ꡬνλ€. μλ‘ λ€λ₯Έ μ΄λλ―Έν΄μ€ ν¨μλ₯Ό μ μ©νμ¬ μ»μ μλ΅μ μ°¨μ΄μ λν΄μ λ
Όμνλ€.A time-domain buffeting analysis considering aerodynamic admittance function is presented. The Fourier series approach (FSA) is adopted and extended to consider frequency-dependent aerodynamic admittance function and self-excited force. This adopted method is verified by comparing with a conventional method, the rational function approach (RFA). The admittance function of a bridge deck is extracted from experiments. The admittance function measured from the experiment showed difference with theoretical Sears function for airfoil cross-sections. This measured aerodynamic admittance function is approximated successfully by FSA. The introduced scheme is applied to the full FEM model of a cable-stayed bridge. Comparison of the response from the Sears function and experimentally extracted admittance function is dis cussed.1. Introduction 1
2. Fourier Series Approach for Aerodynamic Admittance Function 3
3. Admittance Function Extraction Experiment 7
3.1. Devices and Test Setting 7
3.2. Post Process of Raw Data 9
4. FSA Applications and Buffeting Analysis 13
4.1. Rectangular section of B/D=20 13
4.2. Large-scale Bridge: 2nd Jindo Bridge 17
5. Summary and Conclusions 23Maste
A Study on the Torsional Vibration Control for Propulsion Shafting System with Slow Steaming on 2-Stroke Main Engine
Currently, there are two highly controversial topics in ship industry, which are the reducing the cost of oil used and decreasing the emission of chemical gas through efficient energy consumption with technological innovation. This paradigm shift caused the ship industries to become involved in green shipping. This phenomenon is not only visible in domestic markets but also in international markets as well.
In order to reduce emission gases and operating expenses, increasing number of newly constructed ships are integrating the slow steaming system. Slow steaming system restricts the air flow of compressor and the turbine to increase the efficiency of turbocharger in the operating range of a main engine with two or more turbocharger. However, fuel saving engines equipped with slow steaming system are causing the harmful vibration on the exhaust gas manifold of the main engine.
Furthermore, if additional torsional stress and amplitude of the shafts exceed the limit value regulated by classes with in the operating range of the shaftβs torsional vibration exceeds the limitation within the normal operating range of the engine, it could result in fatigue of the shaft and accelerate the wear in the gear system it may be caused to broke the shafts. Since shaft vibration also causes vibrations such as local vibration of the engine room and hull vibration, it is essential to limit the revolution of the shaft or limit the additional torsional stress in the design stage.
There are several ways to control torsional vibration, which are controlling the exciting force, avoiding the critical revolution from operating area, and reducing the response level of the vibration. Changing the ignition sequence of the engine or changing the angle of the crank to unequal interval are mostly used method to control exciting force changing ignition sequence helps to control torsional vibration from critical revolution, and changing the angle of the crank to unequal interval helps to control torsional vibration of main critical revolution or particular sub-main revolution. This method should consider both the engineβs revolution and engineβs structural vibration. Next, increasing the mass moment of inertia of tuning/turning wheel allows to avoid the critical revolution from operating area. Also, changing the stiffness by changing the diameter of the counter shaft or propeller shaft helps to avoid the critical revolution. To reduce the response level of the vibration, mostly used method is to use a torsional vibration damper and increase the damping energy to control additional torsional stress.
In conclusion, onboard vibration was measured by analytical analysis of vibration from shafts torsional vibration response and vibration from engineβs major component exhaust manifold that changed exciting force in shipβs main engine due to Integration of Slow Steaming. As a result, the integration of slow steaming causes the increase of exciting force in the main engine and affects the shaftβs torsional vibration and hull vibration. Thus, pre-inspection is crucial and countermeasures in case of resonance is essential.μ 1μ₯ μ λ‘
1.1 μ°κ΅¬ λ°°κ²½ λ° λͺ©μ
1.2 μ°κ΅¬ λ΄μ© λ° κ΅¬μ±
μ 2μ₯ Slow steamingμ΄ μ μ©λ κΈ°κ΄μΆκ³μ λΉνλ¦Όμ§λ κΈ°μ§λ ₯ ν΄μ
2.1 Slow steamingμ΄ μ μ©λ κΈ°κ΄μ λΉνλ¦Όμ§λ μ΄λ‘ μ κ³ μ°°
2.2 κ³ΌκΈκΈ° μ°¨λ¨ μνλ
2.3 κ³ΌκΈκΈ° μ°¨λ¨μ΄ μ μ©λ κΈ°κ΄μ κΈ°μ§λ ₯ ν΄μ
μ 3μ₯ Slow steamingμ΄ μ μ©λ κΈ°κ΄μΆκ³μ λΉνλ¦Όμ§λ ν΄μ
3.1 12RTA96C-B κΈ°κ΄μ κ°λ μΆμ§μΆκ³μ λΉνλ¦Όμ§λ ν΄μ
3.1.1 λΉνλ¦Ό μμ μ§λ ν΄μ
3.1.2 λΉνλ¦Ό κ°μ μ§λ ν΄μ
3.2 12RTA96C-B κΈ°κ΄μ κ°λ μΆμ§μΆκ³μ λΉνλ¦Όμ§λ κ³μΈ‘
3.3 8RT-flex68T-D κΈ°κ΄μ κ°λ μΆμ§μΆκ³μ λΉνλ¦Όμ§λ ν΄μ
3.3.1 λΉνλ¦Ό μμ μ§λ ν΄μ
3.3.2 λΉνλ¦Ό κ°μ μ§λ ν΄μ
μ 4μ₯ κ²° λ‘
μ°Έ κ³ λ¬Έ
μ£Όμ λ λλ₯κ°λμ κ²½κ³μΈ΅ μλ₯μ μνΈμμ©μ΄ νν μ΄μ λ¬μ λ―ΈμΉλ μν₯μ κ΄ν μ°κ΅¬
νμλ
Όλ¬Έ(μμ¬)--μμΈλνκ΅ λνμ :κΈ°κ³κ³΅νκ³Ό,1998.Maste
μ§νλ‘ μ μ€λ¦¬νμ λν λΉνμ κ³ μ°° : 루μ¦μ λ€μμ£Όμ μ€λ¦¬νμ μ€μ¬μΌλ‘
νμλ
Όλ¬Έ(μμ¬)--μμΈλνκ΅ λνμ :νλκ³Όμ κ³Όνμ¬ λ° κ³Όνμ² νμ 곡,1998.Maste
μ΄λνλ μ§μ§λ¨μμ μ κ°λλ μ μ°ν λΆκ° ꡬ쑰물μ μ§λνΉμ± λ³ν μ°κ΅¬
νμλ
Όλ¬Έ(μμ¬)--μμΈλνκ΅ λνμ :ν곡μ°μ£Όκ³΅νκ³Ό,2000.Maste
Preparation of unagglomerated polypyrrole nanoparticles without using templates and surfactants
Thesis(master`s)--μμΈλνκ΅ λνμ :μ¬λ£κ³΅νλΆ,2005.Maste
Relationship between Ferritin and metabolic syndrome
μνν΅κ³νκ³Ό/μμ¬[νκΈ]
λμ¬μ¦νκ΅°(Metabolic syndrome)μ μΈμλ¦° μ νμ±μ μμΈμΌλ‘ λ°μνλ κ²μΌλ‘ κ³ νμ, κ³ μ§νμ¦, ν리λλ , λΉλ¨λ³, HDLκ°μλ₯Ό λλ°νλ μ¦μΈλ‘ μ¬νκ΄ μ§ν μ¦κ°μ μμΈμΌλ‘ λλλκ³ μλ€.μ² μ΄ μ·μ₯μ κ³Όλ€νκ² μΆμ λ κ²½μ°, μ΄λ μ΄μ°¨μ μΈ μμΈμΌλ‘ λΉλ¨λ³μ μ λ°ν μ μμΌλ©°, μ΄μ λ°λΌ μ²΄λ΄ μ² κ²°ν©λ ₯μ΄ κ°ν Ferritinκ³Ό λμ¬μ¦νκ΅°κ³Όμ μκ΄κ΄κ³λ₯Ό μμλ³΄κ³ μ νμλ€.μ°κ΅¬λμμ 2002λ
1μ1μΌλΆν° 2005λ
12μ11μΌκΉμ§ μμΈμ§μ 1κ° μ’
ν©κ²μ§μΌν°μμ 건κ°κ²μ§μ λ°μ μκ²μ 19,661λͺ
μ€, μ 체κ³μΈ‘μΉ(μ μ₯, 체μ€, ν리λλ , νμ)κ³Ό νμ‘κ²μ¬(곡볡νλΉ, HDL-μ½λ μ€ν
λ‘€, μ€μ±μ§λ°©, Ferritin)κ° λλ½λ μμ§μλ₯Ό μ μΈν 20μΈμ΄μ 69μΈκΉμ§ μ±μΈ 2,969λͺ
μ λμμΌλ‘ νμλ€. λ¨λ
λ³ νκ· ferritin λλλ λ¨μ±μ΄ 152.29οΌ}81.87ng/mL, μ¬μ±μ΄ 50.74οΌ}43.41ng/mLμΌλ‘ λ¨μ±μ΄ μ¬μ±μ΄ λΉν΄ 3λ°° μ λ λκ² λνλ¬λ€ ( p<.0001). λν λ¨λ
λ³ λμ¬μ¦νκ΅° λΆν¬μ λ°λΌ κ°μ ꡬνλ©΄ λμ¬μ¦νκ΅°μ΄ μμ κ²½μ°, κ°μ΄ 컀μ§λ©°, λμ¬μ¦νκ΅° 5λ μμλ³ μ 무μ λν νκ· κ°μμλ λ¨λ
λͺ¨λ μ μνκ² λνλ¬λ€. Ferritinμ λΆν¬λλ λ¨μ±μ 120-200ng/mL μ μ£Όλ‘ λΆν¬νλ λ°λ©΄, μ¬μ±μ 80ng/mL μ΄νμ λλΆλΆ λΆν¬νμλ€.κ·Έλ¬λ Ferritin μ μ¬λΆμ νν, Multiple logistic regression analysisλ₯Ό ν κ²°κ³Ό, λ¨μ±μμ 2.01λ°°(95% CI 1.34-3.03, p=0.0008), μ¬μ±μμ 0.37λ°°(95% CI 2.51-3.67, p=0.0229) λ‘ λμ¬μ¦νκ΅° μ¬λΆμλ ν΅κ³μ μΌλ‘ μ μνλ, λμ¬μ¦νκ΅° λ€μ―κ°μ§ κ°λ³ μμλ³λ‘λ λ¨λ
κ°μ κ°κ° λμΌνκ² μ μνμ§λ μμλ€.λ³Έ μ°κ΅¬κ²°κ³Ό, Ferritinκ³Ό λμ¬μ¦νκ΅°μ μν μ¦κ°μμ μκ΄κ΄κ³λ₯Ό λͺ
ννκ² κ·μ νκΈ°μ μμ§κΉμ§ λ―Έν‘νλ€. μμΌλ‘ μ’λ λ§μ νλ³Έμλ₯Ό ν΅ν κ³μμ μΈ μ°κ΅¬κ° μλ§λλ€
[μλ¬Έ]Ferritin is an important predictor for diabates mellitus. However, the relationship between metabolic syndrome and ferritin has not been fully understood. We defined the metabolic syndrome, according to the ATPοΌ guideline and Korean waist circumference (male: 90cm > , female: 80cm > ). The purpose of this study was to investigate the risk factors of metabolic syndrome in Korean adults.A total of 2.969(Males 1,876, Females 1,903) subjects aged from 20 to 70years who visited Friendodtor Hospital health care system Center between January 2002 and December 2005 were studied.We excluded those who were not available for physical parameters andblood test results. We estimated the prevalence of the metabolic syndrome according to the ATPοΌ diagnostic guideline. Waist circumference, HDL- cholesterol, triglyceride, diabetes medication, hypertension medication, and age, were investigated. Multiple logistic regression analysis was conducted to identity correlation between each factors and elevated Ferritin value.In men, with mean increase Ferritin(οΌ195 ng/mL) there was a statisticallysignificant positive correlation between metabolic syndrome and Ferritin. A significant negative correlation was found between CRP and triglyceride, hypertension and Ferritin. In women there was a significant positive correlation between metabolic syndrome, diabetes mellitus and Ferritin.In this study, elevated serum Ferritin concentration was associated with an increased risk of triglyceride for men and metabolic syndrome for women.Therefore, this study suggests that Ferritin is an important predictor for metabolic syndrome.ope
An Experimental study on the parallel implementation of interior point method for linear programming
Maste
Mobile bio-scaffold controlled by magnetic field
μκΈ°μ₯ μ μ΄ κ°λ₯ν μ΄λμ μ체 μ§μ§μ²΄(bio-scaffold)λ₯Ό μ 곡νλ€. λ³Έ λ°λͺ
μ κ΄κ²½ν ν΄λ¦¬λ¨Έλ₯Ό ν¬ν¨νλ 3μ°¨μμ μ
체ꡬ쑰μ λ€κ³΅μ± μ체 μ§μ§μ²΄(bio-scaffold); λ° μΈλΆμμ μ 곡λλ μκΈ°μ₯μ μν΄ μ체 λ΄μ ν¬μ
λ μ체μ§μ§μ²΄λ₯Ό μνλ μ§μ κΉμ§ μμΉμ΄λμν¬ μ μλλ‘ μκΈ° μ체 μ§μ§μ²΄μ νλ©΄μ μΌμ λκ»λ‘ μ½ν
λ μμ±μ²΄μΈ΅; μ ν¬ν¨νλ€.곡극μ ν΅ν΄ μΈν¬κ° λΆμ°© λ° μ¦μλλ 3μ°¨μ λ€κ³΅μ± μ체 μ§μ§μ²΄(bio-scaffold) : λ°μκΈ° μ체 μ§μ§μ²΄κ° μΈλΆ μκΈ°μ₯μ μν΄ μ체 λ΄μμ μμΉμ΄λ κ°λ₯νλλ‘ μκΈ° μ체 μ§μ§μ²΄μ νλ©΄μ νμ±λλ, μκΈ° 곡극μ νμνμ§ μμ μ λμ λκ»λ‘ μ½ν
λλ μμ±μ²΄μΈ΅; μ ν¬ν¨νλ μκΈ°μ₯ μ μ΄ κ°λ₯ν μ΄λμ μ체 μ§μ§μ²΄(bio-scaffold)
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