合っているかと空欄のところを教えて欲しいです

Question()に入る適切な語を語群から選びましょう。 (1) Your answer is not ( ) wrong. (2) Not ( ) student has a computer. every (3) I didn't make (both ) of them myself. { every / never / necessarily / both / neither}

先生が答えをくれません。 一応自分なりの答えは出したのですが、数学(計算も)あまり得意ではなく、自身がありません。 模範解答を作成していただきたく、質問を作成させていただきました。 何卒宜しくお願い致します。 ③

No9 1.次の広義積分が収束するか､ しないか判定し、 収束する場合はその値を求めよ. 2. 次の広義積分を求めよ. (1) (2) (1) (2) 「 L² (3) L dx 1+22 flog x da dx log sin Ode dx vi dx 1.² √ (12-18) (2-1) 1 x² No10 1. 次の広義積分が収束するようなパラメーターsの範囲を求めよ. (1) 22 (2² + y²) dxdy (3) (1 - cos(x² - y²)) dxdy (1) 120 rdy-ydx, (2) || ( ? – xy + y)dredy 1 2 +92 >1 [0.2m]×[0.2] 2. 次の広義積分が収束するようなパラメーター αβの範囲を求めよ. drdy 1242913083 z²+y² <1 No11 1. 道 Cを時計の逆周りの円+y² = d² とするとき、 次の線積分を求めよ. (2)zdy - yda x² + y² 2. 次の線積分を計算せよ. (1) 道C を z = cos0, y = sin0,z=02, 00 とする. Jo rdx+ydy + zdz, (2) 道 C2 を原点を通らない円 (æ-1)2 + y = 4 とするとき､ rdyydx Ja x² + y² 3. 次の R2 の一次形式のうち、 完全形式となるもの、つまり関数fにより、 df の形 に表せるものを選び、 そのような関数fを一つ与えよ. (1) dy+ydz (2) (3x²+y³)dx + 3xy²dy

至急🚨 生物の質問です。 このモデルの仕組みを教えてください。 なぜ、低レベルのuqプール還元で代替経路とシトクロム経路が活性化されるのでしょうか？

(B) Electron distribution model (reflects current thinking) Alt Alternative oxidase inactive UQ pool Cyt Alt Alternative oxidase active UQ pool Cyt

至急🚨 この仕組みについて教えてください。 また、この電子オーバーフローモデルは時代遅れと思われるって書いているのですが、本当ですか？

(A) Electron overflow model (considered out-of-date) Alt UQ pool Cyt No alternative pathway activity Cytochrome pathway unsaturated Alternative pathway active Alt Cyt Cytochrome pathway saturated

至急お願いいたします🚨 生物の質問です。 ミトコンドリアの経路についての説明だと思うのですが、電子オーバーフローモデルと電子分布モデルの違いを教えていただきたいです。 また、どういう仕組みなのか、何故このように電子が流れるのかも教えていただきたいです。 UQ poolはユ... 続きを読む

(A) Electron overflow model (considered out-of-date) Alt UQ pool Alternative oxidase inactive. Alt No alternative pathway activity Cytochrome pathway unsaturated Cyt (B) Electron distribution model (reflects current thinking) UQ pool Cyt Alternative pathway active Cytochrome pathway saturated Alt Alternative oxidase active Alt UQ pool Cyt Cyt Figure 14.33 Two models for regulation of electron flow through the alternative oxidase. (A) In the electron overflow model, no appreciable electron transfer through the alternative pathway takes place until electron flow through the cytochrome pathway is at or near satu- ration. This could result from the effects of respirato- ry control, if the rate of mitochondrial ATP produc- tion exceeds its rate of utilization in the cytosol, or from some externally imposed stress, such as low temperature. Under such circumstances, the UQ pool becomes sufficiently reduced to allow electrons to flow through the alternative oxidase, the latter re- quiring that the UQ pool be 40% to 60% reduced to attain significant activity. (B) In the electron distribu- tion model, the alternative and cytochrome path- ways both show significant activity at low levels of UQ pool reduction, and electrons are distributed be- tween the two pathways on the basis of the relative activities of each pathway. The activity of the alter- native oxidase under these circumstances is thought to be regulated by the action of a-keto acids and by reduction/oxidation of the intermolecular disulfide bond, as well as by additional regulatory mecha- nisms not yet characterized.

vsコードを使ってJava言語の勉強をしてたんですけど初心者すぎて何が原因で上手くコードの実行ができてないのかわかりません… 勉強の資料として使ってるのは京都大学のJavaによるプログラミング入門 です。

17:43 7月27日 (木) 1.7 使用するサンプルプログラム (TankCalculator.java) 1: public class Tank Calculator { 2: public static void main (String args[]){ final double FLOW_RATE = 1.0; final double TANK_AREA = 20.0; final double INITIAL_LEVEL = 10.0; double time; //s double tankLevel; //m ... ocw.kyoto-u.ac.jp 3: 4: 5: 6: 7: 8: 9: 10: 11: 12: 13: time = 30; 14: tankLevel = INITIAL_LEVEL + FLOW_RATE*time/TANK_AREA; 15: System.out.println("Tank Level at time "+ time + "s = " + tankLevel + "m"); 16: 17: 18: 19: } 20:} 11 System.out.println("Flow Rate = + FLOW_RATE + "m** 3/s"); System.out.println("Tank Area=" + TANK_AREA + "m**2"); System.out.println("Initial Level = " + INITIAL_LEVEL + "m"); time = 60; tankLevel = INITIAL_LEVEL + FLOW_RATE*time/TANK_AREA; System.out.println("Tank Level at time "+ time + "s=" + tankLevel + "m"); 【補足】 // の後ろは,プログラムを後で読解しやすくするための注釈です. Flow Rate = 1.0m**3/s Tank Area = 20.0mm**2 Initial Level = 10.0m 8 Tank Level time 30.0s = 11.5m Tank Level at time 60.0s = 13.0m 1.7.1 サンプルプログラムの入力と実行 先ほどと同じように, 秀丸エディタを開き, 20行のプログラムを書き込んで, Tank Calculator.java と名付け, 保存して, コンパイル, 実行してください. 成功すれば,以下の実行結果が示されます。(失敗してもめげないで, 2.5.1 節を参 考に、原因を考え,再トライしてください) ちなみに, 実行結果をファイルに書き出すにはコマンドプロンプトの「リダイレク ト」 という機能を使います 11. java TankCalculator > result.txt これにより result.txt というファイルが出来ているはずです。 中身は数値や文字列 だけのテキストファイルですのでエディタなどで内容を確認できます。 @91% 11javaプログラムの中で明示的にフ ァイルに出力することもできるので すがここでは安直な方法を取ります

どうしてもわからなくて解答もないので教えて欲しいです

強く発音するところ (9か所)の○を黒く塗りつぶし, ポーズを置くところ(2か所) T.co. に/を書き入れ, CDを聞いて音読しなさい。 1-29 Read Aloud Love is one of life's greatest concerns for men and women, young and old. O ○○ O O O O O

画像の4.2の問題の解き方を教えてください。

106 K M X(T) M. F sin (NT) (1)X 100 -100 ( XImax 80 0 0 4 Dimensional Scaling Analysis + KX = F sin (2T), X(0) = Xo, 1 n 2 10 T 3 Fig. 4.1 The elementary problem of a mass on spring with an applied force: (Left) dimensional parameters, (Right) solutions X(T) for various parameters and (Inset) the amplitude in relation to the forcing frequency ada 4.2 The governing equation for the linear mass-spring system shown in Fig. 4.1 is d²X dT² dX dT\T=0 20 = Vo, where X(T) [m] is the position of the mass as a function of time with mass M [kg], and spring coefficient K [N/m], magnitude of the applied force, F [N], forcing frequency, 2 [s], as well as general initial conditions, Nondimensionalize and select length- and time-scales L, T to normalise the coef- ficients of the terms on the left side of the ODE and the initial condition for position. Write and solve the scaled problem, and identify the dimensionless parameter for the ratio of the forcing frequency to resonant frequency, where the solution's amplitude grows without bound, as shown for 22 in Fig. 4.1. 4.3 Consider the initial value problem for a damped driven nonlinear oscillator:

画像の問題を教えてください！

106 K M X(T) M. F sin (NT) (1)X 100 -100 ( XImax 80 0 0 4 Dimensional Scaling Analysis + KX = F sin (2T), X(0) = Xo, 1 n 2 10 T 3 Fig. 4.1 The elementary problem of a mass on spring with an applied force: (Left) dimensional parameters, (Right) solutions X(T) for various parameters and (Inset) the amplitude in relation to the forcing frequency ada 4.2 The governing equation for the linear mass-spring system shown in Fig. 4.1 is d²X dT² dX dT\T=0 20 = Vo, where X(T) [m] is the position of the mass as a function of time with mass M [kg], and spring coefficient K [N/m], magnitude of the applied force, F [N], forcing frequency, 2 [s], as well as general initial conditions, Nondimensionalize and select length- and time-scales L, T to normalise the coef- ficients of the terms on the left side of the ODE and the initial condition for position. Write and solve the scaled problem, and identify the dimensionless parameter for the ratio of the forcing frequency to resonant frequency, where the solution's amplitude grows without bound, as shown for 22 in Fig. 4.1. 4.3 Consider the initial value problem for a damped driven nonlinear oscillator:

文章を読んで上の1〜4の問題を解くものです。 分からないのでお願いします

3. Answer the following questions. 1 What is the difference between UNIX and Linux? 2 3 4 Choose one of the words in italics in the text. What is the definition of the word you have chosen? What are the three levels of a Linux system? What are the two main functions of the kernel? [Reading Text] UNIX was initially developed by researchers at Bell Labs in the 1970s. Today, UNIX and its variants are widely used mainly on servers. By far, the most well- known UNIX-like operating system is Linux. Linux is available in different distributions which include the Linux kernel and different collections of software. These distributions have various user interfaces, many experienced users preferring the command-line interface, or shell. Linux distributions include a range of software including text editors. memory. While the mechanics of Linux and other Unix operating systems are complicated, the components of a Linux system can be grouped into three levels. The lowest level is the hardware, such as Central Processing Unit (CPU) and The next level is the kernel. It enables communication between hardware and software, by providing instructions to the CPU and other hardware. The programs that are running on the system, or processes, make up the top level known as the user space. Processes in user space generally only have access to a restricted amount of memory and operations, this is called user mode. The kernel runs in kernel mode which allows it unrestricted access to hardware resources. The kernel provides functions such as process management and memory management. A computer only has limited Random Access Memory (RAM) and processor cores. Process management allows the system to run multiple programs (processes) at the same time even if the CPU can only execute only a few processes at a time. Memory management allows applications to share the system's memory while avoiding potential issues such as memory leak. Included with the kernel are device drivers that provide an interface for applications to communicate with hardware, such as hard drives. System calls allow user processes to access features that are executed at kernel mode, for example creating new processes.