The given C++ classes represent a hierarchy of plant types. The parent class, Plant, contains a private data field for energy capacity and provides a constructor and a get function to access the energy capacity.
The Plant class serves as the parent class for various types of plants. It contains a private data field called energy Capacity of type double, which represents the plant's energy capacity. The class provides a public constructor that takes a double argument and initializes the energy Capacity field to this value. The constructor does not allow automatic type conversion from a double to a Plant.
The Plant class also includes a public get Energy Capacity() function, which allows external code to retrieve the energy capacity of a Plant object. This function does not use dynamic dispatching, meaning that it is not overridden in subclasses.
The Plant class declares a public function called daily Energy Consumption(), but it does not provide an implementation. Instead, the implementation is expected to be supplied in subclasses. This function represents the daily energy consumption of a plant, and its specific calculation and behavior will be defined in subclasses.
The Flowering Plant class is a subtype of Plant, representing plants that produce flowers. It overrides the daily Energy Consumption() function to provide its own implementation. It also has a constructor that takes a double argument and calls the Plant constructor with this value to set the energy capacity of the Flowering Plant.
Similarly, the Food Producing Plant class is a subtype of Plant, representing plants that produce food. It overrides the daily Energy Consumption() function and has a constructor that calls the Plant constructor to set the energy capacity.
The Peach Tree class is a subtype of both Flowering Plant and Food Producing Plant, inheriting their characteristics. It has its constructor that takes a double argument and sets the energy capacity of the Peach Tree by calling the appropriate parent class constructors. Additionally, Peach Tree overrides the daily Energy Consumption() function to provide its specific implementation.
Overall, this class hierarchy allows for creating different types of plants with varying energy capacities and customized daily energy consumption behavior.
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One of the reasons traffic controls are in place is to help drivers ________________ the actions of other road users.
One of the reasons traffic controls are in place is to help drivers predict the actions of other road users.
Traffic controls such as traffic lights, stop signs, and yield signs are used to regulate the flow of traffic and help drivers predict what other road users (e.g., pedestrians, bicycles, and other vehicles) will do. The traffic controls should be followed and adhered to strictly by the drovers and all road users to avoid unnecessay mistakes on the roads. By following traffic controls and anticipating the actions of others, drivers can help prevent accidents and make the roads safer for everyone.
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linear elastic fracture mechanics (lefm) predicts there will be an infinite stress at the tip of a crack. why is this not the case? what happens microstructurally in metals, polymers and ceramics that prevents this?
LEFM predicts an infinite stress at the crack tip, microstructural changes prevent this from occurring in metals, polymers, and ceramics. These changes lead to crack blunting, crack deflection, and stress redistribution, which help to reduce stress concentration and prevent catastrophic failure.
LEFM predicts that there will be an infinite stress at the tip of a crack due to the stress concentration. However, this prediction is not the case due to the microstructural changes that occur in metals, polymers, and ceramics. In metals, the plastic deformation around the crack tip results in crack blunting, which reduces the stress concentration and prevents an infinite stress. In polymers, the highly mobile molecular chains absorb the stress and cause plastic deformation, which also leads to crack blunting. Similarly, ceramics undergo crack deflection due to the presence of grain boundaries and microcracks, which leads to a reduction in stress concentration.
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A hydrogenation catalyst is prepared by soaking alumina particles (100-150 mesh size) in aqueous NiNO3 solution. After drying and reduction, the particles contain about 7 wt% NiO. This catalyst is then made into large cylindrical pellets for rate studies. The gross measurements for one pellet are: Mass, g 3.15 Diameter, mm 25 Thickness, mm 6 Volume, cm3 3.22 The alumina particles contain micropores, and the pelleting process introduces macropores surrounding the particles. If the macropore volume of the pellet is 0.645 cm3 and the micropore volume is 0.40 cm3 /g of particles, determine: i] The density of the pellet ii] The macropore volume in cm3 /g iii] The macropore void fraction in the pellet iv] The micropore void fraction in the pellet v] The solid fraction vi] The density of the particles
i] The density of the pellet is 0.977 g/cm^{3}. ii] The macropore volume in cm^{3}/g is 0.205 cm^{3}/g. iii] The macropore void fraction in the pellet is 25.1%.iv] The micropore void fraction in the pellet is 49.0%. v] The solid fraction of the pellet is 25.9%. vi] The density of the particles is 1.222 g/cm^{3}.
i] To determine the density of the pellet, we can use the formula:
Density = Mass / Volume
Given that the mass of the pellet is 3.15 g and the volume is 3.22cm^{3}, we can calculate the density as follows:
Density = 3.15 g / 3.22 cm^{3}≈ 0.977 \(g/cm^{3\)
ii] The macropore volume in cm3/g can be calculated by dividing the macropore volume of the pellet (0.645 cm3) by the mass of the pellet (3.15 g):
Macropore volume = 0.645 cm^{3} / 3.15 g ≈ 0.205 \(cm^{3} /g\)
iii] The macropore void fraction in the pellet can be calculated using the formula:
Macropore void fraction = Macropore volume / Total volume of the pellet
Total volume of the pellet = Volume - Macropore volume = 3.22 cm^{3}- 0.645 cm^{3} = 2.575 cm^{3}
Macropore void fraction = 0.645 cm^{3} / 2.575 \(cm^{3}\)≈ 0.251 or 25.1%
iv] The micropore void fraction in the pellet can be calculated using the given micropore volume of the particles (0.40 cm^{3} /g) and the mass of the pellet (3.15 g):
Micropore volume in the pellet = Micropore volume/g x Mass
Micropore volume in the pellet = 0.40 \(cm^{3} /g\) x 3.15 g = 1.26 cm3
Micropore void fraction = Micropore volume in the pellet / Total volume of the pellet
Micropore void fraction = 1.26 \(cm^{3}\) / 2.575 \(cm^{3}\) ≈ 0.490 or 49.0%
v] The solid fraction of the pellet can be calculated by subtracting the sum of macropore and micropore void fractions from 1:
Solid fraction = 1 - (Macropore void fraction + Micropore void fraction)
Solid fraction = 1 - (0.251 + 0.490) ≈ 0.259 or 25.9%
vi] The density of the particles can be determined using the mass of the pellet (3.15 g) and the total volume of the particles:
Total volume of the particles = Volume - Macropore volume = 3.22 \(cm^{3}\)- 0.645 \(cm^{3}\) = 2.575\(cm^{3}\)
Density of the particles = Mass / Total volume of the particles
Density of the particles = 3.15 g / 2.575\(cm^{3}\) ≈ 1.222 \(g/cm^{3}\)
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As more and more lamps are connected in series to a battery, the brightness of each lamp goes ____.
When lamps are connected in series to a battery, the brightness of each lamp decreases. This is due to the nature of a series circuit and the principles of electrical current flow.
In a series circuit, the components (in this case, lamps) are connected one after another in a single path. This means that the same current flows through each lamp in the circuit. When lamps are connected in series, the total resistance in the circuit increases because the individual resistances of the lamps add up. As a result, the current flowing through the circuit remains the same, but it gets divided among the lamps.
According to Ohm's Law, the brightness of a lamp is directly proportional to the current passing through it. Therefore, as the current is divided among multiple lamps connected in series, each lamp receives a smaller portion of the total current. This reduced current results in a decrease in the brightness of each lamp.
Additionally, lamps have a certain operating voltage, which is the voltage required to produce their optimal brightness. In a series circuit, the total voltage of the battery is distributed across the lamps. As more lamps are added in series, the voltage available for each lamp decreases. Consequently, the lamps operate at a lower voltage than their optimal level, leading to a further decrease in brightness.
It's important to note that this explanation assumes the lamps have the same resistance and are designed to operate under the same voltage. If the lamps have different resistances or are designed for different voltages, the brightness may be affected differently.
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The easier it is to convert an asset directly into goods and services without loss, the A) Less secure it is. B) More secure it is. C) More liquid it is. D) Less liquid it is.
We can see here that the easier it is to convert an asset directly into goods and services without loss, the C) More liquid it is.
What is an asset?An asset is a resource that can be used to produce value or income.
Liquidity is the ability of an asset to be converted into cash quickly and easily without loss of value. The easier it is to convert an asset into goods and services, the more liquid it is.
For example, cash is the most liquid asset because it can be used to buy goods and services immediately. Other examples of liquid assets include stocks, bonds, and mutual funds.
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______ is a function that removes specific identifying information from query results, such as last name and telephone number, but creates some sort of unique identifier so that analysts can detect connections between queries. Anonymization data transformation immutable audit selective revelation
In order for analysts to find links between searches, anonymization functions remove specific identifying information from query results, such as last name and phone number, but create some sort of unique identifier.
Data anonymization is the process of obscuring or encrypting identifiers that link a specific person to stored data in order to protect private or sensitive information. For instance, you can use a data anonymization technique to keep the data while obscuring the source for Personally Identifiable Information (PII) like names, social security numbers, and addresses.
Attackers can employ de-anonymization techniques to track the anonymization process even after you have removed all identifiers from the material. De-anonymization procedures can cross-reference the sources and reveal personal information because data typically goes through numerous sources, some of which are accessible to the public.
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1. A cylindrical casting is 0.3 m in diameter and 0.5 m in length. Another casting has the same metal is rectangular in cross-section, with a width-to-thickness ratio of 3, and has the same length and cross-sectional area as the cylindrical casting. Both pieces are cast under the same conditions. What is the difference in the solidification times of the two castings
Based on the Chvorinov's rule, the diference in the solidification times of the two castings is 14.092 times the solidification time of the prism casting.
How to apply the Chvorinov's rule for casting processes
The Chvorinov's rule is an empirical method to estimate the cooling time of a casting in terms of a reference time. This rule states that cooling time (t) is directly proportional to the square of the volume (V), in cubic meters, divided to the surface area (A), in square meters. Now we proceed to model each casting:
Cylindrical castingt = C · [0.25π · D² · L/(0.5π · D² + π · D · L)]²
t = C · [0.25 · D · L/(0.5 · D + L)]² (1)
Prism castingt' = C · [3 · T² · L/(6 · T · L + 2 · T · L + 6 · T²)]²
t' = C · [3 · T · L/(8 · L + 6 · T)]² (2)
Relationship between the cross sections of both castings3 · T² = 0.25π · D² (3)
Where:
t - Cooling time of the cylindrical casting, in time unit.t' - Cooling time of the prism casting, in time unit. C - Cooling factor, in time unit per square meter.D - Diameter of the cylinder, in meters.L - Length of the casting, in meters.T - Width of the cross section of the prism casting, in meters.If we know that D = 0.3 m, then the thickness of the prism casting is:
\(T = \sqrt{\frac{\pi}{12} }\cdot D\)
T ≈ 0.153 m
And (1) and (2) simplified into these forms:
Cylindrical castingt = C · {0.25π · (0.3 m) · (0.5 m)/[0.5 · (0.3 m) + 0.5 m]}²
t = 0.0329 · C (1b)
Prism castingt' = C · {3 · (0.153 m) · (0.5 m)/[8 · (0.5 m) + 6 · (0.153 m)]}²
t' = 0.00218 · C (2b)
Lastly we find the percentual difference in the solidification times of the two castings by using the following expression:
r = (1 - t'/t) × 100 %
r = (1 - 0.00218/0.0329) × 100 %
r = 93.374 %
The cooling time of the prism casting is 6.626 % of the solidification time of the cylindrical casting. The diference in the solidification times of the two castings is 14.092 times the solidification time of the prism casting. \(\blacksquare\)
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Develop rough sketches of ideas bridge
Answer:
look online
Explanation:
1–13 A fatigue test is performed on rotating beam specimens where, for each rotation cycle, the specimens experience tensile and compressive stresses of equal magnitude. The cycles-to-failure experience with 69 specimens of 5160H steel from 1.25-in hexagonal bar stock was as follows:
L 60 70 80 90 100 110 120 130 140 150 160 170 180 190 200 210
f 2 1 3 5 8 12 6 10 8 5 2 3 2 1 0 1
where L is the life in thousands of cycles, and f is the class frequency of failures.
(a) Estimate the mean and standard deviation of the life for the population from which the sample was drawn.
(b) Presuming the distribution is normal, how many specimens are predicted to fail at less than 115 kcycles?
The mean = 122.8985
The standard deviation = 30.2976
Specimens are predicted to fail at less than 115 kcycles are 27.4042
How to solve for mean and standard deviationFirst we have to solve for L²
Square each of the values and add it
60 70 80 90 100 110 120 130 140 150 160 170 180 190 200 210
From the output derived in the image
Mean of life = \(\frac{1}{69}*8490\)
= 122.8985
Next we have to solve for the standard deviation
Standard deviation =
\(\sqrt{\frac{1104600-69(122.8985)^2}{69-1} }\)
Standard deviation = 30.2976
B. L = 115 cycles
solve for Z
\(Z = \frac{115-122.8985}{30.2976}\)
Z = -0.260698
We have to use a stat calculator to get the CDF of Z = -0.260698
0.397162
Specimens that failed at 115 = 69 * 0.397162
= 27.4042
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two transformers rated at 100 kva each are connected in an open-delta connection. what is the total output power that can be supplied by this bank?
The total output power that can be supplied by this bank is 75 kVA.
How to find the total output power that can be supplied by this bank?To find the total output power of an open-delta connection, you need to use the formula P = (3/4) * kVA * PF, where P is the power in watts, kVA is the transformer rating in kilovolt-amperes, and PF is the power factor. In your case, if each transformer has a rating of 100 kVA and a power factor of 1 (which is typical for a transformer), then the total power output of the open-delta connection would be (3/4) * 100 kVA * 1 = 75 kVA.
It's worth noting that the open-delta connection is not commonly used in practice, because it provides less capacity and less fault protection than other connection methods. The three-phase delta and wye connections are more commonly used, because they provide more capacity and better fault protection.
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which statement best describes the velocity of a bus traveling along its route
Answer:
Option A is the correct answer. The bus traveled at 50 mph for 20 minutes
Explanation:
The complete question is
Which of the following choices best describes velocity of a bus traveling along its route? A. The bus traveled at 50 mph for 20 minutes. B. The airplane traveled southwest at 280 mph. C. The car went from 35 mph to 45 mph. D. The train made several stops, with an average rate of 57 mph.
Solution
In option A the bus is travelling at a speed of 50 miles per hour. This describes the velocity of bus along its route.
The other options are about the velocity of airplane, car and train
Which claim does president Kennedy make in speech university rice ?
Answer: The United States must lead the space race to prevent future wars.
Explanation: Hope this helps
Answer:
The risk associated with entering the space race outweighs the possible benefits.
Explanation:
It's explaining it in the speech.
The figure below appeared three heat treatments processes of steel (A, B and C),
select only One and answer the following:
1- Named the heat treatment process.
2- The temperature range of heating process.
3- The cooling process method.
4- The aims of process.
Answer:
b
Explanation:
The accompanying specific gravity values describe various wood types used in construction. 0.320.350.360.360.370.380.400.400.40 0.410.410.420.420.420.420.420.430.44 0.450.460.460.470.480.480.490.510.54 0.540.550.580.630.660.660.670.680.78 Construct a stem-and-leaf display using repeated stems. (Enter numbers from smallest to largest separated by spaces. Enter NONE for stems with no values.)
Answer:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ \\ {0.3} & {\vert} & {2\ 5\ 6\ 6\ 7\ 8} \ \\ \\{0.4} & {\vert} & {0\ 0\ 0\ 1\ 1\ 2\ 2\ 2\ 2\ 2\ 3\ 4\ 5\ 6\ 6\ 7\ 8\ 8\ 9} \ \\ \ \\ {0.5} & {\vert} & {1\ 4\ 4\ 5\ 8} \ \\ \ \\ {0.6} & {\vert} & {3\ 6\ 6\ 7\ 8} \ \\ \ \\ {0.7} & {\vert} & {8} \ \ \end{array}\)
Explanation:
Given
\(0.32,\ 0.35,\ 0.36,\ 0.36,\ 0.37,\ 0.38,\ 0.40,\ 0.40,\ 0.40,\ 0.41,\)
\(0.41,\ 0.42,\ 0.42,\ 0.42,\ 0.42,\ 0.42,\ 0.43,\ 0.44,\ 0.45,\ 0.46,\)
\(0.46,\ 0.47,\ 0.48,\ 0.48,\ 0.49,\ 0.51,\ 0.54,\ 0.54,\ 0.55,\)
\(0.58,\ 0.63,\ 0.66,\ 0.66,\ 0.67,\ 0.68,\ 0.78.\)
Required
Plot a steam and leaf display for the given data
Start by categorizing the data by their tenth values:
\(0.32,\ 0.35,\ 0.36,\ 0.36,\ 0.37,\ 0.38.\)
\(0.40,\ 0.40,\ 0.40,\ 0.41,\ 0.41,\ 0.42,\ 0.42,\ 0.42,\ 0.42,\ 0.42,\)
\(0.43,\ 0.44,\ 0.45,\ 0.46,\ 0.46,\ 0.47,\ 0.48,\ 0.48,\ 0.49.\)
\(0.51,\ 0.54,\ 0.54,\ 0.55,\ 0.58.\)
\(0.63,\ 0.66,\ 0.66,\ 0.67,\ 0.68.\)
\(0.78.\)
The 0.3's is will be plotted as thus:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ {0.3} & {\vert} & {2\ 5\ 6\ 6\ 7\ 8} \ \ \end{array}\)
The 0.4's is as follows:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ {0.4} & {\vert} & {0\ 0\ 0\ 1\ 1\ 2\ 2\ 2\ 2\ 2\ 3\ 4\ 5\ 6\ 6\ 7\ 8\ 8\ 9} \ \ \end{array}\)
The 0.5's is as follows:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ {0.5} & {\vert} & {1\ 4\ 4\ 5\ 8} \ \ \end{array}\)
The 0.6's is as thus:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ {0.6} & {\vert} & {3\ 6\ 6\ 7\ 8} \ \ \end{array}\)
Lastly, the 0.7's is as thus:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ {0.7} & {\vert} & {8} \ \ \end{array}\)
The combined steam and leaf plot is:
\(\begin{array}{ccc}{Steam} & {\vert} & {Leaf} \ \\ \\ {0.3} & {\vert} & {2\ 5\ 6\ 6\ 7\ 8} \ \\ \\{0.4} & {\vert} & {0\ 0\ 0\ 1\ 1\ 2\ 2\ 2\ 2\ 2\ 3\ 4\ 5\ 6\ 6\ 7\ 8\ 8\ 9} \ \\ \ \\ {0.5} & {\vert} & {1\ 4\ 4\ 5\ 8} \ \\ \ \\ {0.6} & {\vert} & {3\ 6\ 6\ 7\ 8} \ \\ \ \\ {0.7} & {\vert} & {8} \ \ \end{array}\)
concepts are general ideas you use to organize your experience and, in doing so, bring order and intelligibility to your life. t/f
The given statement "Concepts are general ideas that you use to organize your experience and, in doing so, bring order and intelligibility to your life. " is true because It is important to understand what concept is and how they are useful in our daily life as it helps us organize our experiences and ideas.
Concepts are general ideas that can be used to classify and organize information. They provide structure and coherence to our perceptions and experiences. When we have a concept, it helps us bring order to our experiences and gives us a framework for understanding new information.
By organizing information into categories, we can more easily remember, process, and communicate it. This can help us make sense of the world around us and navigate our experiences in a meaningful way. In conclusion, concepts are important because they help us make sense of our experiences and the world around us. They provide structure and intelligibility to our lives, allowing us to organize and communicate our ideas and experiences more effectively.
So the statement is true.
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A horizontal force P is applied to a 130 kN box resting on a 33 incline. The line of action of P passes through the center of gravity of the box. The box is 5m wide x 5m tall, and the coefficient of static friction between the box and the surface is u=0.15. Determine the smallest magnitude of the force P that will cause the box to slip or tip first. Specify what will happen first, slipping or tipping.
Answer:
SECTION LEARNING OBJECTIVES
By the end of this section, you will be able to do the following:
Distinguish between static friction and kinetic friction
Solve problems involving inclined planes
Section Key Terms
kinetic friction static friction
Static Friction and Kinetic Friction
Recall from the previous chapter that friction is a force that opposes motion, and is around us all the time. Friction allows us to move, which you have discovered if you have ever tried to walk on ice.
There are different types of friction—kinetic and static. Kinetic friction acts on an object in motion, while static friction acts on an object or system at rest. The maximum static friction is usually greater than the kinetic friction between the objects.
Imagine, for example, trying to slide a heavy crate across a concrete floor. You may push harder and harder on the crate and not move it at all. This means that the static friction responds to what you do—it increases to be equal to and in the opposite direction of your push. But if you finally push hard enough, the crate seems to slip suddenly and starts to move. Once in motion, it is easier to keep it in motion than it was to get it started because the kinetic friction force is less than the static friction force. If you were to add mass to the crate, (for example, by placing a box on top of it) you would need to push even harder to get it started and also to keep it moving. If, on the other hand, you oiled the concrete you would find it easier to get the crate started and keep it going.
Figure 5.33 shows how friction occurs at the interface between two objects. Magnifying these surfaces shows that they are rough on the microscopic level. So when you push to get an object moving (in this case, a crate), you must raise the object until it can skip along with just the tips of the surface hitting, break off the points, or do both. The harder the surfaces are pushed together (such as if another box is placed on the crate), the more force is needed to move them.
Suppose a group of 12 sales price records has been sorted as follows: 5, 10, 11, 13, 15, 35, 50, 55, 72, 92, 204, 215; Partition them into three bins by each of the following methods:
(a) equal-frequency (equidepth) partitioning; (b) equal-width partitioning
a. The equal-frequency partitioning for the given sales price records would be as follows: Bin 1: 5, 10, 11, 13 Bin 2: 15, 35, 50, 55 Bin 3: 72, 92, 204, 215
How to explain the information(a) Equal-Frequency (Equidepth) Partitioning:
Equal-frequency partitioning divides the data into bins of equal frequency. In this case, we have 12 records, so we need to partition them into three bins.
Now, we can assign the records to the bins based on their order. Starting from the lowest value, we assign four records to each bin until all records are assigned. If there are any remaining records, we distribute them evenly across the bins.
Using this method, the equal-frequency partitioning for the given sales price records would be as follows:
Bin 1: 5, 10, 11, 13
Bin 2: 15, 35, 50, 55
Bin 3: 72, 92, 204, 215
(b) Equal-Width Partitioning:
Equal-width partitioning divides the data into bins of equal width or range. In this case, we need to determine the range of the data and then divide it into three equal-width bins.
The range of the data is the difference between the maximum and minimum values, which is 215 - 5 = 210.
Each bin will have a width of 210 / 3 = 70. Starting from the minimum value, we assign the records to the bins based on their value falling within the corresponding width range.
Using this method, the equal-width partitioning for the given sales price records would be as follows:
Bin 1: 5, 10, 11, 13, 15, 35
Bin 2: 50, 55, 72, 92
Bin 3: 204, 215
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Which term best describes the component that touches the edge of a cam?
Follower is the component that touches the edge of a cam.
What is CAM computer aided manufacturing?Automating a production process via the use of software and computer-controlled equipment is known as computer aided manufacturing (CAM). According to that definition, a CAM system requires the following three elements to operate: Software that creates toolpaths to instruct a machine on how to build a product.Applications for CAD/CAM are used to develop products and control manufacturing processes, particularly CNC machining. Models and assemblies made with CAD software, such as Fusion 360, are used by CAM software to develop toolpaths that operate machine machines to turn designs into actual components.The use of software to manage machine tools during the creation of work parts is known as computer-aided manufacturing, also referred to as computer-aided modelling or computer-aided machining.Learn more about Computer aided manufacturing refer to :
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In a practical machine the power output is less than the power input considering the law of energy conservation what can explain this occurrence.
consider the following circuit what is the low pass cutoff frequency? group of answer choices 6.28 khz 15.9 khz 100 khz 628 khz
Here, the student is asked to consider the following circuit and determine the low pass cutoff frequency:Based on the circuit diagram, we can see that this is a simple RC low pass filter.
The cutoff frequency of an RC low pass filter is given by the formula\(:$$f_c=\frac{1}{2\pi RC}$$\)where R is the resistance in ohms, C is the capacitance in farads, and fc is the cutoff frequency in hertz.Using the values given in the circuit diagram, we have:R = 10 kΩC = 2.5 nFSubstituting these values into the formula above, we get:\($$f_c=\frac{1}{2\pi (10\ \text{kΩ})(2.5\ \text{nF})}=6.366\)\(\\text{kHz}$$\)Therefore, the low pass cutoff frequency of this circuit is 6.366 kHz (to three significant figures).Thus, the answer is 6.28 kHz.For such more question on resistance
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int score[3] (60, 70, 80); Using the above declaration, the cout statement below will display all the items in the array score. cout << score; True False Assuming teamScore is an array of int values and count is an int variable, both the following statements will do the same action. 1. cout << teamScore[count] << endl; 2. cout <<"(teamScore + count) << endl; True False
Problem 6: The given statement is true.
Problem 7: The given statement is false.
Problem 6:
The count statement will not display all the items in the array score correctly.
This is because the name of the array score points to the memory address of its first element. Therefore, when we use cout to output the array name, it will display the memory address of the first element in the array, which is not what we wanted.
To display all the items in the array score, we need to use a loop to iterate through each element in the array and print them out individually. For example:
for (int i = 0; i < 3; i++) { cout << score[i] << " "; }
This will print out all three elements in the array: 60 70 80.
Hence the statement is true.
Problem 7:
The two statements will not do the same action.
The first statement cout << teamScore[count] << endl; will output the value of the element in the teamScore array at the index specified by the count variable.
The second statement cout<<"(teamScore + count) << endl;
Will output the memory address of the element in the teamScore array at the index specified by the count variable.
To output the value of the element in the teamScore array using pointer arithmetic, we need to dereference the pointer first by using the operator.
The correct statement should be:
cout << *(team score + count) << endl;
This will output the value of the element in the team Score array at the index specified by the count variable, just like the first statement.
Thus the statement is false.
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People tend to self-disclose to others that are in age, social status, religion, and personality.
Answer:people tend to do this when they are in a different environment they lose something or just have something going on in their life
Explanation:
i2, i3, ans is phasor current; where should the electronic circuit breakers be installed and their ratings
It is true that the total current in a series circuit is equal to the total current flowing through any resistance in the circuit (IT = I1 = I2 = I3).
In series or parallel, is voltage the same?Every element of the parallel circuit has the same voltage. The voltage decreases across a series resistor, as you may recall from the previous section. A parallel circuit is an exception. Anywhere in the circuit, there will be a constant voltage.
Why is the voltage in a series circuit different?As electrical current passes through resistors and other series circuit components, the potential in the circuit decreases with each one. As a result, in a series circuit, the voltage fluctuates.
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incompressible steady flow in the inlet between parallel
plates in Fig. P3.17 is uniform, u U0 8 cm/s, while
downstream the flow develops into the parabolic laminar
profile u az(z0 z), where a is a constant. If z0 4 cm
and the fluid is SAE 30 oil at 20°C, what is the value of
u
max in cm/s?
The maximum velocity (u_max) in the parabolic laminar flow is 12 cm/s.
How to solveIn the problem statement, it is given that the incompressible steady flow is uniform with u = U0 = 8 cm/s in the inlet.
Downstream, the flow develops into a parabolic laminar profile with u = az(z0 - z). The fluid is SAE 30 oil at 20°C, and z0 = 4 cm.
First, we need to find the dynamic viscosity of SAE 30 oil at 20°C. SAE 30 oil has a kinematic viscosity (ν) of approximately 300 cSt (centistokes) at 20°C.
To convert this to dynamic viscosity (μ), we need to multiply by the density (ρ) of the oil:
μ = ν * ρ
The density of SAE 30 oil is approximately 0.89 g/cm³ (890 kg/m³). Since 1 cSt is equal to 1 × 10⁻⁶ m²/s, the kinematic viscosity in SI units is 300 × 10⁻⁶ m²/s.
Now, let's convert the density to SI units:
ρ = 890 kg/m³ = 0.89 g/cm³
Thus, the dynamic viscosity (μ) can be calculated as follows:
μ = (300 × 10⁻⁶ m²/s) * (890 kg/m³) = 0.267 kg/(m*s)
Now, we need to find the maximum velocity (u_max) in the parabolic laminar flow, which occurs at the center of the plates (z = z0/2):
u_max = a * z0/2 * (z0 - z0/2)
Since the flow is incompressible, the mass flow rate (Q) remains constant throughout. We can equate the mass flow rate at the uniform flow (Q_inlet) with the mass flow rate at the parabolic flow (Q_parabolic):
Q_inlet = Q_parabolic
ρ * U0 * A_inlet = ∫[ρ * a * z * (z0 - z) * A_parabolic] dz
The area A_inlet and A_parabolic both can be represented as A = b * z, where b is the width of the parallel plates, and z is the distance between the plates.
Therefore, the equation simplifies to:
U0 * b * z0 = ∫[a * z * (z0 - z) * b] dz, with integration limits 0 to z0
U0 * z0 = ∫[a * z * (z0 - z)] dz, with integration limits 0 to z0
8 cm/s * 4 cm = a * ∫[z * (4 cm - z)] dz, with integration limits 0 to 4 cm
32 cm²/s = a * ∫[4z - z²] dz, with integration limits 0 to 4 cm
Now we can integrate and apply the limits:
32 cm²/s = a * [2z² - (1/3)z³] | (0 to 4 cm)
32 cm²/s = a * [(2 * 4² - (1/3) * 4³) - 0]
32 cm²/s = a * (32 - 64/3)
32 cm²/s = a * (32 - 21.33)
32 cm²/s = a * 10.67 cm²
Now we can solve for 'a':
a = 32 cm²/s / 10.67 cm² = 3 cm/s
Finally, we can find the maximum velocity (u_max) at the center of the plates
Now that we have the value of 'a' (3 cm/s), we can find the maximum velocity (u_max) at the center of the plates (z = z0/2):
u_max = a * z0/2 * (z0 - z0/2)
u_max = 3 cm/s * (4 cm)/2 * (4 cm - 4 cm/2)
u_max = 3 cm/s * 2 cm * 2 cm
u_max = 12 cm/s
Thus, the maximum velocity (u_max) in the parabolic laminar flow is 12 cm/s.
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fill in the blank: the fact that the dataset includes people who all live in the same zip code might get in the way of ____ . 1 point spreadsheet formulas or functions fairness accuracy data visualization
The fact that the dataset includes people who all live in the same zip code might get in the way of fairness.
A dataset is a compilation of data that has been organized in a specific way. Data can be collected, aggregated, and stored in a variety of formats, including spreadsheets, text files, and databases.The following are some ways that the fact that the dataset includes people who all live in the same zip code might get in the way of fairness: If the data is heavily skewed, it may be difficult to draw accurate conclusions from it. When a dataset is not fair, it may result in unintended consequences. A dataset that is not representative of the larger population may be biased.
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create a program in C++ based on the following.
double avg(int sum, int count) // returns the average of a sum of count numbers
void avg(int sum, int count, double& average) // modifies average with the average of a sum of count numbers
bool isOdd(int value) // returns true if value is odd, false if it is not
bool isSame(int firstNum, int secondNum, int thirdNum, int compareNum) // returns true if compareNum is the same as firstNum, secondNum, OR thirdNum - this function calls the isSame function defined below
bool isSame(int number, int compareNum) // returns true if number is the same as compareNum
A program in C++ that implements the given functions:
#include <iostream>
double avg(int sum, int count) {
return static_cast<double>(sum) / count;
}
void avg(int sum, int count, double& average) {
average = static_cast<double>(sum) / count;
}
bool isOdd(int value) {
return value % 2 != 0;
}
bool isSame(int firstNum, int secondNum, int thirdNum, int compareNum) {
return isSame(compareNum, firstNum) || isSame(compareNum, secondNum) || isSame(compareNum, thirdNum);
}
bool isSame(int number, int compareNum) {
return number == compareNum;
}
int main() {
int sum = 15;
int count = 5;
double average = 0.0;
// Using the avg() function to calculate the average
double calculatedAverage = avg(sum, count);
std::cout << "Average (calculated): " << calculatedAverage << std::endl;
// Using the avg() function to modify the average variable
avg(sum, count, average);
std::cout << "Average (modified): " << average << std::endl;
int value = 7;
// Checking if the value is odd
bool isOddValue = isOdd(value);
std::cout << "Is " << value << " odd? " << (isOddValue ? "Yes" : "No") << std::endl;
int firstNum = 10;
int secondNum = 15;
int thirdNum = 20;
int compareNum = 15;
// Checking if compareNum is the same as any of the three numbers
bool isSameNum = isSame(firstNum, secondNum, thirdNum, compareNum);
std::cout << "Is " << compareNum << " the same as any of the three numbers? " << (isSameNum ? "Yes" : "No") << std::endl;
// Checking if two numbers are the same
bool isSameValue = isSame(25, 25);
std::cout << "Are the two numbers the same? " << (isSameValue ? "Yes" : "No") << std::endl;
return 0;
}
The program starts by including the necessary headers and defining the functions avg(), isOdd(), and isSame(). The avg() function is overloaded to accept two different types of parameters: (int sum, int count) to return the average as a double, and (int sum, int count, double& average) to modify the average variable directly.
The isOdd() function checks if a given value is odd by checking if the remainder of the value divided by 2 is non-zero.
The isSame() function is overloaded to compare either a single number with another number or multiple numbers with a compare number. The latter calls the former function to perform the individual comparisons.
In the main() function, example usage of each function is demonstrated. It calculates and displays the average using both forms of the avg() function, checks if a value is odd using isOdd(), and checks if numbers are the same using isSame().
Finally, the program prints the results on the console.
You can compile and run this program in a C++ compiler to see the output for the provided sample inputs.
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A heat engine is a device able to transform work into heat.
a. True
b. False
Answer:
Option B: False
Explanation:
A heat engine is a device which operates in a manner that heat is converted into mechanical work.
A simple example of a heat engine is a drinking bird. The oscillatory motion of the drinking bird is as a result of the thermal expansion and contraction of a chemical compound in its beak, which creates an imbalance in its position of equilibrium. This causes it to oscillate.
Heat engines usually work by extracting heat once there is a temperature gradient available in the system and using it to perform work. Another good example is the internal combustion engine. It extracts heat from the explosion of the burning fuels and uses it to power the car.
Two identical bulbs are connected to a 12-volt battery in parallel. The voltage drop across the first bulb is 12 volts as measured with a voltmeter. What is the voltage drop across the other bulb?
Answer:
12 volts
Explanation:
The voltages across parallel-connected items are identical. (In fact, that's why you can measure the voltage by connecting the voltmeter in parallel with the circuit element.)
The voltage drop across each bulb is 12 volts.
Si b es un ángulo en posición estándar en un sistema de coordenadas rectangulares y si P(-18, -18) está en el lado terminal de b. Encuentre el seno de b.
Answer:
sorry I don't speak your language sorry
Gantt Charts are used to:
A. Show relationships between activities
B. Show the overall length of the project and each activity
C. Show float
D. Describe the WBS
Gantt Charts are used to show the overall length of the project and each activity.
What is gantt chart ?A Gantt chart is a sort of bar chart that shows a project timetable. It was created by Henry Gantt, who popularized the format between the years of 1910 and 1915. The dependence structures between activities and the state of the current schedule are also displayed in modern Gantt charts.
A Gantt chart is a project management tool that helps with the planning and scheduling of projects of all kinds. They are especially helpful for streamlining complex projects, though.
Thus, option B is correct.
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