calculate the excavation and backfill for the attached trench. there should be 3 answers: excavation quantity of earth, backfill stone (assume pipe does not require a deduct), and backfill quantity of earth.

The 1.5-km main span of a steel suspension bridge would be 30 meters longer for a temperature increase of 20 Celsius.

This is because steel expands 1 part in 100,000 for each 1 Celsius increase in temperature. Therefore, a 20 Celsius temperature increase would result in a 20 x 100,000 = 2,000,000 parts expansion. Since 1.5 km = 1,500,000 parts, 2,000,000 parts expansion would equate to an additional 500,000 parts or 500 meters. Since 1 meter = 100 parts, 500 meters = 500 x 100 = 50,000 parts.

Therefore, the 1.5-km main span of a steel suspension bridge would be 50,000 parts or 30 meters longer for a temperature increase of 20 Celsius.

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In green-sand casting, drafts are essential because they provide a gradual slope in the molds that allows the casting to be released easily.

Drafts are not as important in permanent-mold casting because the mold is generally made of metal and can be more easily broken apart. Drafts can still be used in permanent-mold casting, but they are not as necessary.

Greensand is a mixture of quartz sand, water and bentonite. The sample product used is a 90o elbow measuring 0.5 inches with white cast iron material. The surface roughness was observed by visual observation of the casting results of the two green sand mold compositions.

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The statement "For load-bearing applications, engineered materials are selected by matching their mechanical properties to the component's design specifications and service conditions" is true because when selecting materials for load-bearing applications, one must consider the mechanical properties of those materials.

A load-bearing structure is a structure designed to carry the weight of the building or any other construction's imposed loads (people or objects). Such structures must be capable of holding the loads applied to them without failing (or cracking) under the pressure.

The mechanical properties of materials are used to determine which materials are best suited for bearing loads. A material's ability to sustain external forces without cracking, breaking, or otherwise failing is known as its mechanical properties.

Engineering materials are frequently employed in load-bearing applications. Therefore, when selecting materials for load-bearing applications, one must consider the mechanical properties of those materials.

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The largest torque that can be applied at point A without exceeding the allowable shear stress for either rod is T=44.99 k-in.

The largest torque that can be applied at point A can be determined by using the equation for shear stress of a shaft:
τ=T/J
where τ is the shear stress, T is the applied torque, and J is the polar second moment of inertia.

For the 1.5-in.-diameter steel rod AB:
J=(π/32)D4
where D is the diameter of the rod, so for a 1.5-in. rod, J=(π/32)(1.5)4=3.704 in4.

So, the largest torque that can be applied at point A while maintaining a shear stress of 15 ksi is T=(15 ksi)(3.704 in4)=55.56 k-in.

For the 1.8-in.-diameter brass rod BC:
J=(π/32)D4
where D is the diameter of the rod, so for a 1.8-in. rod, J=(π/32)(1.8)4=5.848 in4.

So, the largest torque that can be applied at point A while maintaining a shear stress of 7.7 ksi is T=(7.7 ksi)(5.848 in4)=44.99 k-in.

Therefore, the answer is T=44.99 k-in.

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To determine the distance that the crate slides relative to the platform, we can use the principle of conservation of linear momentum and the work-energy principle. Here are the steps:

1. First, we need to find the initial velocity of the platform (v_platform_initial). Since the platform is initially at rest, its initial velocity is 0 ft/s.

2. Apply the conservation of linear momentum to the system (crate + platform) before and after the collision:

m_crate * v0 + m_platform * v_platform_initial = (m_crate + m_platform) * v

where m_crate = 200 lb, m_platform = 700 lb, and v = 2.667 ft/s.

3. Solve for the initial velocity of the crate relative to the platform (v_crate_initial_relative):

v_crate_initial_relative = v0 - v = 12 ft/s - 2.667 ft/s = 9.333 ft/s

4. Use the work-energy principle to relate the initial and final kinetic energies of the crate and the work done by friction:

(1/2) * m_crate * v_crate_initial_relative^2 - f_friction * d = 0

where f_friction = μ * m_crate * g, μ = 0.25 (coefficient of kinetic friction), g = 32.2 ft/s^2 (acceleration due to gravity), and d is the distance slid.

5. Solve for the distance (d):

(1/2) * 200 * (9.333)^2 - 0.25 * 200 * 32.2 * d = 0

6. Solve for d:

d = (1/2) * 200 * (9.333)^2 / (0.25 * 200 * 32.2) ≈ 13.49 ft

So the distance that the crate slides relative to the platform is approximately 13.49 ft.

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a) The speed of the link's rotation is therefore: [tex]v_O_Q = 33.54 m/s k[/tex]

b) The acceleration of the slotted link at point P is therefore:

[tex]a_O_Q = a_P + \alpha_OQ x r_PQ - \omega_OQ[/tex]

a. To find the velocity of the peg with respect to the slotted link, we need to subtract the velocity of the slotted link at point P from the velocity of the peg at point P.

The velocity of the slotted link at point P can be found by using the velocity relationship for a slotted link:

v_OQ = v_P + omega_OQ x r_PQ

where:

At the instant shown in the diagram, the slotted link is rotating counterclockwise with an angular velocity of:

[tex]\omega_OQ = d\theta/dt = (15 deg)/(1 s) = 15 rad/s[/tex]

The distance from point P to point Q on the slotted link is:

[tex]r_P_Q = \sqrt{[(0.9 m)^2 + (0.6 m)^2]} = 1.08 m[/tex]

The velocity of the slotted link at point P is therefore:

[tex]v_O_Q = v_P + omega_O_Q * r_P_Q[/tex]

           = 10 m/s + (15 rad/s) x (1.08 m) x k

           = (10 + 16.2) m/s k

           = 26.2 m/s k

The relative velocity of the peg with respect to the slotted link is then:

[tex]v_r_e_l = v_P - v_OQ[/tex]

         = 10 m/s - 26.2 m/s k

         = -26.2 m/s k + 10 m/s b1

Step 2/3

To find the speed of the link's rotation, we can use the relationship between angular velocity and linear velocity for a rotating object:

[tex]v_O_Q = omega_O_Q x r_O_Q[/tex]

where r_OQ is the distance from point O to point Q on the slotted link.

The distance from point O to point Q on the slotted link is:

[tex]r_O_Q = \sqrt{[(2 m)^2 + (1 m)^2]} = 2.236 m[/tex]

The speed of the link's rotation is therefore:

[tex]v_O_Q = omega_O_Q x r_O_Q[/tex]

           = (15 rad/s) x (2.236 m) x k

           = 33.54 m/s k

Step 3/3

b. To find the peg's acceleration relative to the slotted link, we need to subtract the acceleration of the slotted link at point P from the acceleration of the peg at point P. The acceleration of the slotted link at point P can be found using the acceleration relationship for a slotted link:

[tex]a_O_Q = a_P + \alpha_O_Q * r_P_Q - \omega_OQ^2 * r_PQ[/tex]

where a_OQ is the acceleration of point Q on the slotted link, alpha_OQ is the angular acceleration of the slotted link, and all other terms are as previously defined.

At the instant shown in the diagram, the slotted link is rotating counterclockwise with an angular acceleration of:

[tex]\alpha_O_Q = d^2(\theta)/dt^2 = 0[/tex]

Since the angular acceleration is zero, the third term in the acceleration equation for the slotted link is also zero.

The distance from point P to point Q on the slotted link is as previously calculated:

[tex]r_P_Q = \sqrt{ [(0.9 m)^2 + (0.6 m)^2]} = 1.08 m[/tex]

The acceleration of the slotted link at point P is therefore:

[tex]a_O_Q = a_P + \alpha_O_Q x r_P_Q - \omega_O_Q^[/tex]

Therefore,

a)The speed of the link's rotation is therefore:v_OQ = 33.54 m/s k

b)The acceleration of the slotted link at point P is therefore:

a_OQ = a_P + alpha_OQ x r_PQ - omega_OQ

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The rate of energy that refrigerant-134a enters the compressor of a refrigeration system as saturated vapor at 0.14 mpa, and leaves as superheated vapor at 0.8 mpa and 608c at a rate of 0.06 kg/s is thus 24.072 kJ/s.

First, we need to calculate the enthalpy of saturated vapor at 0.14 mpa. This can be found in a vapor table. The enthalpy of saturated vapor at 0.14 mpa is 272.6 kJ/kg. Next, we need to calculate the enthalpy of superheated vapor at 0.8 mpa and 608C. Again, this can be found in a vapor table. The enthalpy of superheated vapor at 0.8 mpa and 608C is 681.2 kJ/kg.

Now, we can calculate the rate of energy that refrigerant-134a enters the compressor of a refrigeration system. We calculate this by subtracting the enthalpy of saturated vapor (272.6 kJ/kg) from the enthalpy of superheated vapor (681.2 kJ/kg) and multiplying the difference by the rate of flow (0.06 kg/s). The rate of energy that refrigerant-134a enters the compressor of a refrigeration system is thus 24.072 kJ/s.

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The maximum voltage gain at 7 kHz input signal frequency is Voltage Gain = Output Voltage/Input Voltage.

At 1.8 MHz, the unity gain of an amplifier circuit occurs, meaning that the voltage gain of the circuit is 1. At 7 kHz, the maximum voltage gain of the amplifier circuit will be different. To calculate the maximum voltage gain at 7 kHz, need to determine the voltage gain at that frequency.

The voltage gain of the amplifier circuit at 7 kHz is calculated using the formula Voltage Gain = Output Voltage/Input Voltage. The voltage gain at 7 kHz can then be determined by plugging in the known values and solving for the output voltage.

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When making a Precision Runway Monitoring (PRM) approach, there is a special requirement for it. The special requirement when making a Precision Runway Monitoring (PRM) approach is to have a second controller in the control tower operating as a monitor.

The PRM approach can be used in situations where parallel runways are too close to each other, and this approach can keep the aircraft on course and on glidepath while keeping a safe distance from the other runway. PRM also assists aircraft in the event of an unexpected equipment failure or any unusual emergency incident.

PRM is an approach for precision runway monitoring that has been developed to enable simultaneous independent instrument approach procedures on closely spaced parallel runways. It incorporates extremely precise monitoring of the aircraft by the controllers. This involves the use of an advanced monitoring system that includes high-resolution radar equipment and modern processing technology, which offers the controller real-time details on the progress of the aircraft during an instrument approach.

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The essence of lean manufacturing is to eliminate waste, improve quality, and involve all employees in continuous improvement, providing value to customers through efficiency, flexibility, and cost-effectiveness.

The essence of lean manufacturing is to eliminate waste, streamline processes, and continuously improve quality through the involvement of all employees.

Lean manufacturing is a set of concepts, tools, and strategies that allow businesses to optimize their production processes and reduce waste.

Toyota is widely recognized as the founder of the lean manufacturing approach. The company has used this approach to achieve significant cost savings and improve the quality of its products.Toyota's approach to lean manufacturing focuses on continuous improvement, waste reduction, and the empowerment of employees to identify and solve problems. This approach has helped Toyota to become one of the most successful and efficient manufacturing companies in the world.

This approach focuses on providing value to customers by delivering high-quality products or services at the lowest possible cost, while being flexible enough to adapt to changing market demands.

By reducing waste and optimizing processes, lean manufacturing aims to improve efficiency, increase productivity, and enhance customer satisfaction.

The philosophy of lean manufacturing emphasizes the importance of continuous improvement, respect for people, and the elimination of all forms of waste, including overproduction, waiting, defects, excess inventory, unnecessary motion, over-processing, and unused talent.

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This process is called dry pressing. Dry pressing is a method of producing particles of nearly uniform size, allowing for the production of solid ceramics without gaps or cracks. It is done by compressing a powder between two flat, parallel dies.

This process creates uniform shapes, with a consistent and uniform distribution of size. The process begins by weighing out a predetermined amount of ceramic powder, which is then mixed with a small amount of liquid binder to form a malleable paste. The paste is then placed in the press cavity and pressed by the two dies until the desired shape is achieved. The pressure used can range from 1-2 tons per square inch, depending on the material and desired shape. The pressure helps to reduce the number of particles, which increases their uniformity.

After pressing, the material is typically heated and sintered. Sintering is a process that reduces the size of the grains, increasing the density of the material. This further increases the strength of the ceramic piece and improves its uniformity.

Dry pressing is a simple and cost-effective method for producing particles of nearly uniform size and making solid ceramics without gaps or cracks. It is used in a variety of industries and applications, from electronics to medical devices.

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Under ideal conditions, the fluid in a tube will rise to a height equal to the level of the fluid in the reservoir.

This is because the fluid pressure in the tube is equal to the atmospheric pressure and the fluid pressure in the reservoir. When the fluid is released from the reservoir, the atmospheric pressure in the tube causes the fluid to rise to the level of the reservoir.

To explain this phenomenon, we can look at Pascal's Law. Pascal's Law states that when pressure is applied to an enclosed system, it is transmitted equally and undiminished in all directions. In this case, the atmospheric pressure is equal in the reservoir and the tube, so the pressure in both areas is the same.

Therefore, when the fluid is released from the reservoir, the atmospheric pressure in the tube causes the fluid to rise to the same level as the fluid in the reservoir. In other words, the height of the fluid in the tube is equal to the level of the fluid in the reservoir. This is true regardless of the size of the tube or the amount of fluid in the reservoir, as long as there is no external force acting on the system.

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The cumulative infiltration and infiltration rate on a silty clay soil after one hour of rainfall at 1cm/h with initial effective saturation of 20 percent are 252 cm and 4.21 cm/h, respectively.

To calculate the cumulative infiltration and the infiltration rate on a silty clay soil after one hour of rainfall at 1cm/h if the initial effective saturation is 20 percent, we need to first calculate the cumulative infiltration (Icum) and infiltration rate (f). The cumulative infiltration is given by the equation: Icum = h0 + ∫f (dt). Here, h0 is negligible and ∫f (dt) = f x t. So, Icum = f x t.

The infiltration rate can be calculated using the Kostiakov equation: f = K x t1/2. Here, K is the Kostiakov coefficient, which is a function of the initial effective saturation (Si). For a silty clay soil, K = 0.0026 x Si0.5 (cm/min1/2). Thus, in this case, K = 0.0026 x 200.5 = 0.164 cm/min1/2. Since the rainfall intensity is 1 cm/h, t = 1 hour = 60 min. So, the infiltration rate, f = 0.164 x 601/2 = 4.21 cm/h. The cumulative infiltration is Icum = 4.21 x 60 = 252 cm. So, the answers are 252 cm and 4.21 cm/h, respectively.

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By measuring the activity of a sample over time, the manganese content of stainless steel can be verified.

The manganese content of certain stainless steel can be verified by an activation measurement. Activation measurements measure the activity induced in a sample by neutron capture during a specific time period. Activity is given by the equation A = N0e-λt, where N0 is the initial number of atoms, e is Euler's number (2.718...), λ is the decay constant, and t is time. In this equation, A is the activity at a time t and N0 is the initial number of atoms. The decay constant λ indicates the probability of a neutron capture reaction and is dependent on the material's manganese content.

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A single-phase, 4600/460 V, 60 Hz transformer connected to a single-phase, 60 Hz, 4600 V power supply requires 46 turns to achieve a maximum flux density of 0.85 T, where the induced per-turn voltage is 10 V.

The maximum flux density in the core of a single-phase, 4600/460 V, 60 Hz transformer is 0.85 T when connected to a single-phase, 60 Hz, 4600 V power supply. This means that for a given core area, the number of turns required to produce the required flux is determined. To determine the number of turns, the induced per-turn voltage must be known. In this case, the induced per-turn voltage is 10 V. Therefore, the number of turns needed to achieve the required flux density is 460/10 = 46 turns.

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Answer:

True

Explanation:

in a single-stream, steady flow system, the mass flow rates for the inlet and outlet must be the same is true

The combined design water capacity of the water treatment facility and distribution system should be 19,221,000 litres per day.

Maximum Day Demand (MDD) x 1.80 W3-01.3 System Parameters = Peak Hour Demand (PHD). A. Average Day Demand (ADD) multiplied by 2.25 to get Maximum Day Demand (MDD).

Average water demand = Population x Average water demand per capita

Average water demand = 55,000 x 170 liters per capita per day

Average water demand = 9,350,000 liters per day

Maximum day water demand = 1.5 x 9,350,000 liters per day

Maximum day water demand = 14,025,000 liters per day

Peak hour water demand = 170 liters per capita per day x 55,000 people x 2 / 24 hours x 4 peak hours

Peak hour water demand = 9,067 liters per hour

Fire demand = 3 liters per second x 60 seconds per minute x 24 hours

Fire demand = 5,400 liters per day

Design water capacity = 14,025,000 liters per day + 5,400 liters per day + (0.2 x 9,350,000 liters per day)

Design water capacity = 19,221,000 liters per day

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When welding with the GTaw process on aluminum, a typical amount of the AC sine wave that should be spent cleaning the material is between 40 and 60%. This will help to ensure a clean and porosity-free weld.

The GTaw (Gas Tungsten Arc Welding) process is an arc welding technique that is commonly used on aluminum materials. When using this process, a typical amount of the AC sine wave that is used for cleaning the material is between 40 and 60%. This is because a lower amperage (around 40A) is used when cleaning the aluminum before welding. This is done to remove any oxide film that may have formed on the surface of the aluminum.

To clean the aluminum, the welder should first use a wire brush to remove any dirt, grease, and rust from the surface of the aluminum. Then the welder should set the current between 40 and 60% of the maximum current on the welding machine. This will help to remove any oxide film on the aluminum material that could cause porosity in the weld. Once the oxide is removed, the welder can increase the current to the recommended level for welding.

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The magnitude response of a first-order low-pass filter at its cutoff frequency is determined by the ratio of the output resistance to the input resistance.

The magnitude response of a first-order low-pass filter at its cutoff frequency is determined by its transfer function. The magnitude response is determined by the ratio of the magnitude of the output to the magnitude of the input. At the cutoff frequency, the magnitude response is equal to the square root of the ratio of the output resistance to the input resistance.

There is a filter there is what is called the cut off frequency, where this frequency is the frequency that is the limit for passing or blocking the input signal which has a higher frequency or a lower frequency than the cutoff frequency.

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The "Detailed Description of Invention" section of a patent application includes engineering specifications, materials and components.  

The section of the patent application that includes engineering specifications, materials, and components is typically referred to as the "Detailed Description" section.

It is essential that the applicant provides a detailed and accurate description of the invention, as any ambiguity or incomplete information may lead to a rejection of the application.

Therefore, it is essential that the applicant take the time to thoroughly research and document the invention before drafting the detailed description section of the patent application.

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Firefighters are most likely to find the following safety hazards in the space between the ceiling and the roof: accumulation of combustible material, poor ventilation, and exposure to hazardous chemicals.

Accumulation of combustible materials such as wood, paper, insulation, and other debris can provide fuel for a fire, which can be difficult to contain in a confined space like the one between a ceiling and a roof.

Poor ventilation in this space can make it difficult for firefighters to breathe, and they can be exposed to hazardous chemicals such as asbestos, lead, and dust. Firefighters have to be careful with that.

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The building envelope is an essential component of any structure, providing a protective barrier between the interior and exterior of the building. By controlling the flow of air, moisture, and heat, the building envelope ensures the indoor air quality and energy efficiency of the building.

The components of the building envelope include the walls, roofs, windows, doors, and foundation of the building, as well as insulation and other materials. The primary purpose of the building envelope is to provide a protective barrier against the elements, ensuring the interior of the building is insulated from the outside climate. The building envelope also helps to maintain indoor air quality, as it reduces the amount of air infiltration from outside. In addition, the building envelope increases the efficiency of the building’s heating and cooling systems, reducing energy consumption and costs.

In order to maintain its protective barrier, the building envelope must be constructed with durable and weather-resistant materials. Additionally, the building envelope should be properly sealed to reduce air leakage. Windows and doors should be designed to minimize the risk of water infiltration, while insulation should be installed to reduce heat transfer.
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The refrigerants, which has the lowest global warming potential (GWP) is R-717. So, option A is correct.

GWP stands for Global Warming Potential. It is a measure of how much a given amount of a greenhouse gas, such as carbon dioxide or methane, will contribute to global warming over a specified time period, usually 100 years. The GWP of a greenhouse gas is calculated by comparing the amount of heat trapped by the gas to the amount of heat trapped by an equivalent mass of carbon dioxide over the same time period.

There are numerous other low-GWP refrigerants out there, that means you as an HVAC expert need to don't have any trouble locating one proper for the packages you address.

Global warming potential (GWP) can vary substantially in not handiest greenhouse gases, however refrigerants. a few refrigerants will have a global warming potential as excessive as eight,000, because of this one ton of the refrigerant gas traps as tons heat over a given time period as 8,000 heaps of carbon dioxide.

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The complete question is:

Which of the following refrigerants, which has the lowest global warming potential (GWP)?

A) R-717

B) R-719

C) R-625

D) R-392

When examining a portable case, a non-licensed user will not have access to file system explorer or registry explorer. This statement is true.

What is a portable case?

Portable case is an all-in-one evidence collection system that can be easily transported to a remote location. They are commonly used by digital forensics specialists to collect evidence from digital devices in the field, such as laptops, desktop computers, and mobile phones. Portable cases can have software pre-installed on them to aid in the collection of evidence. These applications may include file system explorers, registry explorers, and other tools for analyzing digital evidence. Because these tools are proprietary, they must be licensed by the software vendor in order to be used.

A non-licensed user will not have access to these proprietary software tools, which includes file system explorers and registry explorers. Only licensed users who have been given the proper authorization to use these tools can access them when examining a portable case. Thus, the statement that a non-licensed user will not have access to file system explorer or registry explorer is true.

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The maximum force is determined by multiplying the allowable stress (150 MPa) by the area of the larger portion of the bar (π × 0.152) and dividing by 4  is 11.3 kN.

To determine the maximum axial force that can be applied so as not to exceed the allowable stress of 150 MPa, the following formula should be used: Force = Stress × Area. In this case, the Area is the cross-sectional area of the larger portion of the bar, which has a length of 300 mm. Therefore, the maximum Force (F) can be calculated as follows: F = 150 MPa × (π × 0.152) / 4, where 0.15 is the radius of the larger portion of the bar (half the length of 300 mm). The result is F = 11.3 kN.

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Yes, the combined heat transfer coefficient does offer the convenience of incorporating the effects of radiation in the convection heat transfer coefficient. In heat transfer calculations, radiation can be ignored and only the convection component of heat transfer needs to be considered. This is due to the fact that the combined heat transfer coefficient combines the convection and radiation components into a single coefficient.

The combined heat transfer coefficient is a function of the thermal conductivity, the Stefan-Boltzmann constant, and the view factor. This view factor is a measure of how much of the radiation from one surface is intercepted by the other surface. The higher the view factor, the more radiation will be transferred between the two surfaces. By incorporating this view factor into the combined heat transfer coefficient, the effects of radiation in the heat transfer calculation can be taken into account.

In conclusion, the combined heat transfer coefficient offers the convenience of incorporating the effects of radiation in the convection heat transfer coefficient, and to ignore radiation in heat transfer calculations.

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The modern interest in designing the exterior of a building as a reflection of its internal function and organization of spaces is known as "functionalism."

Functionalism emerged in the early 20th century as a response to the excesses of the ornate styles that dominated architecture in previous centuries. It emphasized simplicity, functionality, and a rational approach to design, prioritizing the needs of the occupants over decorative features. The idea was to create buildings that were efficient, flexible, and adaptable, and which expressed their purpose and function through their form and layout.

This approach has had a lasting impact on architecture and continues to influence contemporary design practices.

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This statement is true. In a parallel circuit, there are multiple pathways for the flow of electric current.

If one of these pathways is turned off, such as by a switch, the other pathways may still be conducting current. This means that care must be taken when working with parallel circuits because it is possible for current to be flowing in one part of the circuit even though another part of the circuit is turned off. As a result, it is important to properly isolate and de-energize all parts of the circuit before working on any part of it to prevent electrical shock or damage to equipment. This is a fundamental concept in electrical safety and circuit design.

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The bandwidth of an operational amplifier (op amp) circuit is determined by the gain-bandwidth product (GBP) of the op amp, which is the product of the open-loop gain and the frequency at which the gain drops to 1.

Assuming that the op amp has an ideal gain of infinity (i.e., the open-loop gain is much larger than any closed-loop gain), the GBP is equal to the unity-gain bandwidth of the op amp, which is the frequency at which the gain drops to 1 when the feedback is set to unity gain.

Therefore, if the op amp has a gain-bandwidth of 220 kHz, the bandwidth of the whole amplifier circuit will depend on the closed-loop gain of the circuit.

For a non-inverting amplifier, the closed-loop gain is given by:

A = 1 + (Rf/Rin)

where Rf is the feedback resistance and Rin is the input resistance.

The bandwidth of the circuit can be approximated as:

Bandwidth = GBP / A

Assuming a typical non-inverting amplifier with Rf = 10 kΩ and Rin = 1 kΩ, the closed-loop gain would be:

A = 1 + (10 kΩ / 1 kΩ) = 11

Substituting the values into the formula for bandwidth, we get:

Bandwidth = 220 kHz / 11 = 20 kHz

Therefore, the bandwidth of the whole amplifier circuit would be approximately 20 kHz in this case.