Events & Promotions
|
|
GMAT Club Daily Prep
Thank you for using the timer - this advanced tool can estimate your performance and suggest more practice questions. We have subscribed you to Daily Prep Questions via email.
Customized
for You
Track
Your Progress
Practice
Pays
Not interested in getting valuable practice questions and articles delivered to your email? No problem, unsubscribe here.
Apr 2912:30 AM EDT
-01:30 AM EDT
Learn how Kamakshi achieved a GMAT 675 with an impressive 96th %ile in Data Insights. Discover the unique methods and exam strategies that helped her excel in DI along with other sections for a balanced and high score.
Apr 2808:00 AM PDT
-11:00 AM PDT
Whether you are just beginning your MBA journey or fine-tuning your path to a 700+ score, GMAT Day is designed to give you a competitive edge.
Apr 3001:30 AM EDT
-02:30 AM EDT
At one point, she believed GMAT wasn’t for her. After scoring 595, self-doubt crept in and she questioned her potential. But instead of quitting, she made the right strategic changes. The result? A remarkable comeback to 695. Check out how Saakshi did it.
May 0111:00 AM PDT
-12:00 PM PDT
Free- full-length test + 15 concept videos + 150+ short videos + study plan!
May 0306:30 AM PDT
-08:30 AM PDT
Verbal trouble on GMAT? Fix it NOW! Join Sunita Singhvi for a focused webinar on actionable strategies to boost your Verbal score and take your performance to the next level.
29 Sep 2024, 15:17
Kudos
Bookmarks
Question 1
D
Be sure to select an answer first to save it in the Error Log before revealing the correct answer (OA)!
Difficulty:
65%
(hard)
Question Stats:
49% (03:24) correct
51%
(03:10) wrong
based on 114
sessions
History
Date
Time
Result
Not Attempted Yet
Question 2
D
Be sure to select an answer first to save it in the Error Log before revealing the correct answer (OA)!
Difficulty:
75%
(hard)
Question Stats:
46% (01:46) correct 54%
(01:51) wrong
based on 120
sessions
History
Date
Time
Result
Not Attempted Yet
Question 3
A
Be sure to select an answer first to save it in the Error Log before revealing the correct answer (OA)!
Difficulty:
5%
(low)
Question Stats:
90% (00:31) correct 10%
(00:45) wrong
based on 108
sessions
History
Date
Time
Result
Not Attempted Yet
Question 4
C
Be sure to select an answer first to save it in the Error Log before revealing the correct answer (OA)!
Difficulty:
45%
(medium)
Question Stats:
64% (01:19) correct 36%
(01:13) wrong
based on 115
sessions
History
Date
Time
Result
Not Attempted Yet
Quantum computing represents a paradigm shift poised to transform various domains of computing, particularly cloud computing. Although still in its infancy, quantum computing is characterized by high costs and the necessity for highly isolated operational environments due to its sensitivity to environmental disturbances. These factors make quantum technology challenging for researchers to access and utilize effectively. However, integrating quantum computing with cloud infrastructure offers a promising solution. By embedding quantum processors within secure, remote servers, quantum cloud computing can democratize access to this advanced technology, enabling researchers and businesses to leverage its capabilities without the prohibitive costs associated with standalone quantum systems.
Experts anticipate that quantum computing’s ability to efficiently solve complex, computationally intensive tasks will significantly enhance data-heavy systems such as those found in cloud computing. The synergy between quantum and cloud computing could yield substantial benefits in areas including data processing speed, security, and scalability. For instance, quantum algorithms can accelerate data analysis processes, while quantum cryptography promises unprecedented levels of data security. Moreover, the scalability of cloud platforms can support the extensive resource requirements of quantum computations, facilitating broader adoption and innovation.
Despite these advantages, the integration of quantum computing into cloud systems presents several challenges. Key among them are qubit stability and efficient resource allocation. Qubits, the fundamental units of quantum information, are notoriously unstable and susceptible to errors, necessitating sophisticated error-correction techniques to maintain computational integrity. Additionally, managing quantum resources within a cloud environment requires the development of new frameworks and protocols to ensure optimal performance and scalability. These challenges must be addressed to fully realize the potential of quantum cloud computing.
Current research in quantum cloud computing is focused on overcoming these obstacles, aiming to bridge the gap between theoretical potential and practical application. Identifying and solving issues related to qubit stability and resource management is essential for advancing the field. Future investigations must explore innovative solutions to enhance the reliability and efficiency of quantum cloud services, paving the way for their widespread adoption.
Experts anticipate that quantum computing’s ability to efficiently solve complex, computationally intensive tasks will significantly enhance data-heavy systems such as those found in cloud computing. The synergy between quantum and cloud computing could yield substantial benefits in areas including data processing speed, security, and scalability. For instance, quantum algorithms can accelerate data analysis processes, while quantum cryptography promises unprecedented levels of data security. Moreover, the scalability of cloud platforms can support the extensive resource requirements of quantum computations, facilitating broader adoption and innovation.
Despite these advantages, the integration of quantum computing into cloud systems presents several challenges. Key among them are qubit stability and efficient resource allocation. Qubits, the fundamental units of quantum information, are notoriously unstable and susceptible to errors, necessitating sophisticated error-correction techniques to maintain computational integrity. Additionally, managing quantum resources within a cloud environment requires the development of new frameworks and protocols to ensure optimal performance and scalability. These challenges must be addressed to fully realize the potential of quantum cloud computing.
Current research in quantum cloud computing is focused on overcoming these obstacles, aiming to bridge the gap between theoretical potential and practical application. Identifying and solving issues related to qubit stability and resource management is essential for advancing the field. Future investigations must explore innovative solutions to enhance the reliability and efficiency of quantum cloud services, paving the way for their widespread adoption.
Q1. Which of the following can be most reasonably inferred from the passage regarding the relationship between qubit stability and quantum cloud computing?
A) Enhanced qubit stability would eliminate the need for cloud-based quantum computing solutions.
B) The instability of qubits is a barrier that necessitates the integration of quantum computing with cloud infrastructure to mitigate errors.
C) Quantum cloud computing inherently solves the problem of qubit instability through scalable resources.
D) New standards and procedures are necessary to account for qubit stability in quantum cloud computing
E) The high costs of quantum computing are directly caused by qubit instability issues.
A) Enhanced qubit stability would eliminate the need for cloud-based quantum computing solutions.
B) The instability of qubits is a barrier that necessitates the integration of quantum computing with cloud infrastructure to mitigate errors.
C) Quantum cloud computing inherently solves the problem of qubit instability through scalable resources.
D) New standards and procedures are necessary to account for qubit stability in quantum cloud computing
E) The high costs of quantum computing are directly caused by qubit instability issues.
Q2. Which of the following is an underlying assumption in the passage’s argument that integrating quantum computing with cloud infrastructure will facilitate broader adoption and innovation?
A) Cloud infrastructure providers are willing to invest in quantum technology despite its high costs.
B) Researchers and businesses lack the expertise to manage standalone quantum systems effectively.
C) The current advancements in quantum computing are sufficient to support integration with cloud platforms.
D) Technical challenges in quantum computing can be effectively managed within the cloud environment.
E) Quantum computing will eventually become cost-competitive with classical computing technologies.
A) Cloud infrastructure providers are willing to invest in quantum technology despite its high costs.
B) Researchers and businesses lack the expertise to manage standalone quantum systems effectively.
C) The current advancements in quantum computing are sufficient to support integration with cloud platforms.
D) Technical challenges in quantum computing can be effectively managed within the cloud environment.
E) Quantum computing will eventually become cost-competitive with classical computing technologies.
Q3. The primary purpose of the passage is to:
A) Discuss the integration of quantum computing with cloud infrastructure and explain the benefits and challenges of this integration.
B) Compare quantum computing and classical computing, highlighting their respective strengths and weaknesses.
C) Argue that quantum computing will completely replace classical computing in cloud systems.
D) Provide a historical overview of the development of quantum computing.
E) Describe how quantum computing can enhance existing technologies.
A) Discuss the integration of quantum computing with cloud infrastructure and explain the benefits and challenges of this integration.
B) Compare quantum computing and classical computing, highlighting their respective strengths and weaknesses.
C) Argue that quantum computing will completely replace classical computing in cloud systems.
D) Provide a historical overview of the development of quantum computing.
E) Describe how quantum computing can enhance existing technologies.
Q4. How does the passage suggest that the scalability of cloud platforms contributes to the effectiveness of quantum cloud computing?
A) By providing technical expertise to quantum researchers and businesses
B) By enabling the deployment of quantum processors in multiple isolated environments simultaneously.
C) By providing extensive resources needed to support the requirements of quantum computations.
D) By allowing quantum processors to operate independently of classical computing systems.
E) By facilitating the decentralization of quantum computing resources across various industries.
A) By providing technical expertise to quantum researchers and businesses
B) By enabling the deployment of quantum processors in multiple isolated environments simultaneously.
C) By providing extensive resources needed to support the requirements of quantum computations.
D) By allowing quantum processors to operate independently of classical computing systems.
E) By facilitating the decentralization of quantum computing resources across various industries.
05 Oct 2024, 12:56
Kudos
Bookmarks
Here are the official solutions:
Q1. Which of the following can be most reasonably inferred from the passage regarding the relationship between qubit stability and quantum cloud computing?
Correct Answer: D
Explanation:
- A) Incorrect.
This option overstates the impact of enhanced qubit stability. The passage does not suggest that improving qubit stability would remove the necessity for cloud-based solutions entirely, as cloud integration offers benefits beyond just addressing qubit stability, such as democratizing access and reducing costs.
- B) Incorrect.
While qubit instability is identified as a significant challenge, the passage emphasizes that integrating quantum computing with cloud infrastructure involves more comprehensive solutions, including the development of new frameworks and protocols. This option narrows the rationale to error mitigation alone, which does not fully capture the broader implications discussed.
- C) Incorrect.
The passage does not claim that scalability alone can inherently resolve qubit instability. Instead, it highlights the need for sophisticated error-correction techniques and new management protocols alongside scalable resources to address instability issues effectively.
- D) Correct.
The passage explicitly mentions the requirement for "new frameworks and protocols" to manage quantum resources within a cloud environment. This indicates that establishing new standards and procedures is essential to address the challenges posed by qubit stability in quantum cloud computing.
- E) Incorrect.
While high costs are discussed, the passage attributes them to multiple factors, including the need for specialized hardware and highly isolated operational environments. It does not specifically state that qubit instability is the direct cause of these high costs.
Q2. Which of the following is an underlying assumption in the passage’s argument that integrating quantum computing with cloud infrastructure will facilitate broader adoption and innovation?
Correct Answer: D
Explanation:
- A) Incorrect.
This option overemphasizes the willingness of cloud providers to invest in quantum technology. The passage focuses on the technical feasibility and benefits of integration rather than the investment decisions of providers.
- B) Incorrect.
The passage highlights high costs and the need for specialized environments but does not specifically state that researchers and businesses lack the expertise to manage standalone quantum systems.
- C) Incorrect.
The passage does not claim that current advancements in quantum computing are sufficient for integration. Instead, it emphasizes the need to address technical challenges to make integration viable.
- D) Correct.
The passage argues that technical challenges, such as qubit stability and error correction, must be effectively managed within the cloud environment for the integration to facilitate broader adoption and innovation.
- E) Incorrect.
While cost is discussed, the passage focuses on reducing current high costs through cloud integration rather than assuming that quantum computing will become cost-competitive with classical technologies in the future.
Q3. The primary purpose of the passage is to:
Correct Answer: A
Explanation:
- A) Correct.
The passage focuses on integrating quantum computing with cloud infrastructure, detailing both its benefits (e.g., enhanced data processing, scalability) and challenges (e.g., qubit instability).
- B) Incorrect.
The passage does not directly compare quantum computing with classical computing; instead, it discusses how quantum computing can complement cloud systems.
- C) Incorrect.
There is no assertion that quantum computing will completely replace classical computing. The passage discusses their integration, not a full replacement.
- D) Incorrect.
The passage does not provide a historical overview of quantum computing; it is more focused on current integration efforts and future possibilities.
- E) Incorrect.
Although quantum computing’s ability to enhance technologies is mentioned, the passage also highlights the challenges involved, making this option incomplete.
Q4. How does the passage suggest that the scalability of cloud platforms contributes to the effectiveness of quantum cloud computing?
Correct Answer: C
Explanation:
- A) Incorrect.
The passage does not mention providing technical expertise as a contribution of cloud scalability. It emphasizes infrastructure and resource management rather than technical training or expertise.
- B) Incorrect.
Although cloud platforms provide secure environments, the passage does not explicitly state that scalability involves deploying quantum processors in multiple isolated environments. Instead, it focuses on the ability to handle extensive resource requirements.
- C) Correct.
The passage explains that the scalability of cloud platforms helps in supporting the extensive resource requirements of quantum computations, which contributes to their effectiveness by providing the necessary computational power and environment for quantum processes.
- D) Incorrect.
The passage does not suggest that quantum processors operate independently of classical systems. Instead, the focus is on integration with cloud platforms to enhance their utility.
- E) Incorrect.
Decentralization across industries is not mentioned as a benefit of cloud scalability. The emphasis is on resource provision rather than decentralizing quantum computing resources.
Q1. Which of the following can be most reasonably inferred from the passage regarding the relationship between qubit stability and quantum cloud computing?
Correct Answer: D
Explanation:
- A) Incorrect.
This option overstates the impact of enhanced qubit stability. The passage does not suggest that improving qubit stability would remove the necessity for cloud-based solutions entirely, as cloud integration offers benefits beyond just addressing qubit stability, such as democratizing access and reducing costs.
- B) Incorrect.
While qubit instability is identified as a significant challenge, the passage emphasizes that integrating quantum computing with cloud infrastructure involves more comprehensive solutions, including the development of new frameworks and protocols. This option narrows the rationale to error mitigation alone, which does not fully capture the broader implications discussed.
- C) Incorrect.
The passage does not claim that scalability alone can inherently resolve qubit instability. Instead, it highlights the need for sophisticated error-correction techniques and new management protocols alongside scalable resources to address instability issues effectively.
- D) Correct.
The passage explicitly mentions the requirement for "new frameworks and protocols" to manage quantum resources within a cloud environment. This indicates that establishing new standards and procedures is essential to address the challenges posed by qubit stability in quantum cloud computing.
- E) Incorrect.
While high costs are discussed, the passage attributes them to multiple factors, including the need for specialized hardware and highly isolated operational environments. It does not specifically state that qubit instability is the direct cause of these high costs.
Q2. Which of the following is an underlying assumption in the passage’s argument that integrating quantum computing with cloud infrastructure will facilitate broader adoption and innovation?
Correct Answer: D
Explanation:
- A) Incorrect.
This option overemphasizes the willingness of cloud providers to invest in quantum technology. The passage focuses on the technical feasibility and benefits of integration rather than the investment decisions of providers.
- B) Incorrect.
The passage highlights high costs and the need for specialized environments but does not specifically state that researchers and businesses lack the expertise to manage standalone quantum systems.
- C) Incorrect.
The passage does not claim that current advancements in quantum computing are sufficient for integration. Instead, it emphasizes the need to address technical challenges to make integration viable.
- D) Correct.
The passage argues that technical challenges, such as qubit stability and error correction, must be effectively managed within the cloud environment for the integration to facilitate broader adoption and innovation.
- E) Incorrect.
While cost is discussed, the passage focuses on reducing current high costs through cloud integration rather than assuming that quantum computing will become cost-competitive with classical technologies in the future.
Q3. The primary purpose of the passage is to:
Correct Answer: A
Explanation:
- A) Correct.
The passage focuses on integrating quantum computing with cloud infrastructure, detailing both its benefits (e.g., enhanced data processing, scalability) and challenges (e.g., qubit instability).
- B) Incorrect.
The passage does not directly compare quantum computing with classical computing; instead, it discusses how quantum computing can complement cloud systems.
- C) Incorrect.
There is no assertion that quantum computing will completely replace classical computing. The passage discusses their integration, not a full replacement.
- D) Incorrect.
The passage does not provide a historical overview of quantum computing; it is more focused on current integration efforts and future possibilities.
- E) Incorrect.
Although quantum computing’s ability to enhance technologies is mentioned, the passage also highlights the challenges involved, making this option incomplete.
Q4. How does the passage suggest that the scalability of cloud platforms contributes to the effectiveness of quantum cloud computing?
Correct Answer: C
Explanation:
- A) Incorrect.
The passage does not mention providing technical expertise as a contribution of cloud scalability. It emphasizes infrastructure and resource management rather than technical training or expertise.
- B) Incorrect.
Although cloud platforms provide secure environments, the passage does not explicitly state that scalability involves deploying quantum processors in multiple isolated environments. Instead, it focuses on the ability to handle extensive resource requirements.
- C) Correct.
The passage explains that the scalability of cloud platforms helps in supporting the extensive resource requirements of quantum computations, which contributes to their effectiveness by providing the necessary computational power and environment for quantum processes.
- D) Incorrect.
The passage does not suggest that quantum processors operate independently of classical systems. Instead, the focus is on integration with cloud platforms to enhance their utility.
- E) Incorrect.
Decentralization across industries is not mentioned as a benefit of cloud scalability. The emphasis is on resource provision rather than decentralizing quantum computing resources.
Moderators:
