scispace - formally typeset
Search or ask a question

What is the history and development of bicubic interpolation? 


Best insight from top research papers

Bicubic interpolation has a rich history and development trajectory. Initially, bicubic interpolation was proposed as a method to compensate for the limited resolution of pixelated detectors in diffraction-limited holographic imaging . Over time, the concept evolved, leading to the introduction of the piecewise planar method (PPM) for constructing basic functions, which included bicubic interpolation as a key example . Further advancements included the implementation of fast fixed-point algorithms on FPGA for efficient bicubic interpolation in image processing systems, achieving significant energy savings and high calculation speeds . Real-time image processing systems widely adopted bicubic interpolation due to its quality, prompting the development of algorithms that combine linear and cubic interpolations to reduce hardware resource consumption while maintaining interpolation quality . Additionally, new algorithms have been introduced to compute interpolating spline surfaces over non-uniform grids with improved computational efficiency .

Answers from top 5 papers

More filters
Papers (5)Insight
Book ChapterDOI
Viliam Kačala, Csaba Török 
11 Jun 2018
1 Citations
The paper introduces a new algorithm for bicubic spline interpolation, enhancing the classic de Boor's method by reducing equation systems and explicit formulas, achieving up to 50% speedup.
Open accessProceedings ArticleDOI
21 Nov 2019
4 Citations
Bicubic interpolation evolved as a computationally complex but high-quality method for image scaling, surpassing nearest neighbor and bilinear methods. The paper focuses on a fast fixed-point FPGA implementation for efficiency.
Not addressed in the paper.
Open accessJournal ArticleDOI
A. Khomchenko, Ievgen Sidenko 
26 Apr 2020
2 Citations
The piecewise planar method (PPM) for bicubic interpolation evolved from Courant's linear bases idea, enabling efficient construction of higher-order triangular finite elements with special zero level lines.
Not addressed in the paper.

Related Questions

Who was the first to work on the birimian?4 answersMarat Abzalov was the first to propose the localized uniform conditioning (LUC) technique for the Birimian-style gold deposit. The Birimian of the West African Craton, known for its mafic magmatism and hosting significant mineral deposits like gold, remains a subject of differing opinions among researchers. The Birimian rocks in the Kedougou-Kenieba-Inlier of Eastern Senegal have been extensively analyzed for their geochemical and isotopic compositions, revealing a juvenile character and shedding light on the complex evolution of the Birimian Supergroups in the West African Craton. The Birimian event, which occurred during the Siderian to Orosirian period, led to the establishment of the crystalline basement of the West African Craton through the accretion of juvenile crust, with the Birimian crust experiencing multiple tectonothermal events and intrusive activities.
What is the history and evolution of fuzzy logic?5 answersFuzzy logic, introduced by Dr. Lotfi Zadeh in the 1960s, stemmed from the need to handle the ambiguity inherent in natural language and other real-world phenomena. It extends Boolean logic by incorporating the concept of degrees of truth through fuzzy sets, allowing for flexibility in reasoning and accommodating imprecision and uncertainties. Initially met with skepticism, fuzzy logic has gained widespread acceptance over the years, finding applications in control systems, artificial intelligence, and decision-making processes. This evolution from philosophical origins to practical implementation has led to the utilization of fuzzy set theories like Basic Fuzzy Logic and T-Norm Fuzzy logics in modern computer systems, showcasing the continuous development and relevance of fuzzy logic in various fields.
What is the History of AI?5 answersThe history of Artificial Intelligence (AI) spans nearly a century, evolving through various stages of development. Initially rooted in the grand European philosophical tradition, AI research gained momentum during the Cold War era, with a focus on the relationship between reason, logic, intelligence, and cognition. Over time, AI progressed from rules to statistics to data-driven methods in fields like computer vision, natural language processing, and machine learning. The history of modern AI, from 1940 to 2021, encompasses significant milestones in hardware, software, algorithms, and technologies. Notably, modern AI is characterized by the dominance of artificial neural networks and deep learning, which have roots in cybernetics and historical mathematical foundations. This historical trajectory underscores the interdisciplinary nature of AI, influenced by philosophical, technological, and societal factors.
What is the evolution and current state of BI technologies?4 answersBusiness Intelligence (BI) technologies have evolved over time to encompass a wide range of applications and tools for gathering, analyzing, and visualizing data to support decision-making activities in organizations. BI has its roots in earlier systems such as MIS, DSS, and EIS, but has expanded to include technologies like data collection and storage, multidimensional data analysis, self-service tools, business analytics, modeling and simulation, text analytics, artificial intelligence, communication and collaboration platforms, and technology deployment issues. BI has transitioned from being focused on structured data to being able to operate on textual data as well, allowing for a more comprehensive analysis of the full spectrum of data within a corporation. Today, BI is considered a strategic initiative and is recognized as instrumental in driving business effectiveness and innovation. It is a process that involves both getting data into a data warehouse and accessing that data for enterprise reporting, OLAP, querying, and predictive analytics. The field of BI is constantly evolving, with new technologies like Big Data analytics and self-service tools gaining popularity.
What is IDW interpolation?4 answersIDW interpolation is a spatial statistics technique used to estimate values at locations where data is not observed. It is commonly used in various fields such as predicting power output of solar power systems, generating continuous surfaces like Digital Elevation Models (DEMs), and mapping 3D distributions of heterogeneous pollutants. IDW interpolation works by assigning weights to neighboring data points based on their distances from the interpolated point. The weights are then used to calculate the estimated value at the interpolated point. The accuracy of IDW interpolation can vary depending on factors such as the number of inputs and the distance between observation points. In some cases, IDW interpolation has been shown to outperform other methods like Artificial Neural Networks (ANNs).
What is interpolation ?5 answersInterpolation is the process of estimating unknown values between known data points. It is widely used in various fields such as data mining, environmental modeling, and scientific and engineering problems. Interpolation allows us to make intelligent estimations of data between known points and simplify complicated functions by fitting a smooth curve through a given set of points. The most commonly used method for interpolation is polynomial interpolation, which includes Lagrange interpolation and Newton interpolation. Other methods include stepwise linear interpolation, Hermite interpolation, cubic splines, and Chebyshev nodes. Interpolation can also be used for data fitting, with the linear squares method being a typical approach. Newton's method is a popular interpolation method that provides smaller error values compared to the Lagrange interpolation method.

See what other people are reading

What is interverning variable in research?
4 answers
In research, an intervening variable is a variable that mediates the relationship between an independent variable and a dependent variable. It plays a crucial role in understanding the underlying mechanisms of cause and effect. Intervening variables are essential in experimental designs, aiding in the interpretation of results by providing insights into how and why certain variables influence outcomes. They help researchers analyze the complex relationships between different factors and outcomes, contributing to a deeper understanding of the research phenomena. By identifying and studying intervening variables, researchers can uncover the underlying processes that link the independent and dependent variables, leading to more comprehensive and insightful research findings. Understanding and accounting for intervening variables are vital in ensuring the validity and reliability of research conclusions.
Is there any generative method for converting low resolution image to high resolution image?
5 answers
Yes, there are several generative methods for converting low-resolution images to high-resolution images. These methods include the Dual Resolution Generative Adversarial Network (DRGAN), the VDVAE-SR model, the reduce dimension super-resolved GAN (RD-SRGAN), and the bicubic-downsampled low-resolution image-guided generative adversarial network (BLG-GAN). These models utilize techniques such as transfer learning on pretrained VDVAEs, leveraging latent representations from AutoEncoders, incorporating sub-pixel motion information, and dividing the super-resolution process into stages for optimal solutions. By employing these advanced generative approaches, these models have shown significant improvements in generating high-quality images from low-resolution inputs, making them effective solutions for enhancing image resolution in various applications.
How does work the VDSR?
4 answers
The Very Deep Super-Resolution (VDSR) method works by utilizing deep convolutional neural networks to enhance the resolution of images. VDSR focuses on learning the residuals between low-resolution and high-resolution images, particularly emphasizing high-frequency details to improve image quality. By increasing the depth of the network, the learning rate can be significantly enhanced, impacting the final image rendering; however, this also increases training time. VDSR-based methods have been applied in various fields such as microwave remote sensing, crop management using RGB imagery, and food quality inspection through machine vision, showcasing its versatility and effectiveness in enhancing image resolution and quality. The VDSR approach has shown promising results in improving image resolution efficiently and in real-time, making it a valuable tool in image processing applications.
What is the insights for IMERG V06 in https://www.sciencedirect.com/science/article/pii/S0022169420302808?
4 answers
The research paper on IMERG V06 provides insights into the interpolation methods used to obtain intermediate values of Biological Activity in QSAR. Additionally, the paper discusses the correction of errors in author names in scientific publications. Furthermore, there is a mention of the overwhelming impact of the hypoxia and inflammatory response associated with SARS-COV-2 on intensive care facilities during the COVID-19 pandemic. Moreover, the paper emphasizes the importance of replicating and modifying experimental procedures to control variables and ensure accurate interpretations of results in animal studies. These insights collectively highlight the significance of accurate data interpolation, authorship integrity, pandemic challenges, and experimental rigor in scientific research.
What are the insights for IMERGE V06 in https://www.sciencedirect.com/science/article/pii/S0169809523003204?
4 answers
IMERGE V06 provides insights into binary program analysis through tools like CFGRecovery and iii, offering a comprehensive environment for program examination and verification. Additionally, the study on Cd isotopes reveals the importance of occupation probabilities in low-lying levels, emphasizing the influence of specific orbits and subshell closures on the systematics of these isotopes. Furthermore, the research on compound semiconductors highlights the evolution in describing and interpreting their properties over a thirty-year period, emphasizing the unifying characteristics within the 4-6 family of compounds. These diverse studies collectively contribute to advancing knowledge in various fields, ranging from program analysis to nuclear structure and materials science.
What papers have studied interpolation using ML techniques?
5 answers
Interpolation using machine learning techniques has been explored in several research papers. One such study by Zheng et al. proposed an accurate image interpolation method utilizing adaptive k-nearest neighbor searching and non-linear regression. Additionally, Gorkin and Wick investigated interpolation in model spaces, specifically focusing on unions of interpolating sequences and the behavior of Frostman sequences under perturbations. Moreover, Mylavarapu et al. employed artificial neural networks for predictive approximation of generalized functions, showcasing results of numerical analysis without encountering the Gibbs phenomenon. Elefante et al. delved into polynomial kernels in the context of approximation theory, establishing conditions for the existence and uniqueness of interpolants and exploring error estimates for smooth functions using Reproducing Kernel Hilbert Spaces.
What are existing problems of spatail interpolation that can Machine learning solve?
5 answers
Spatial interpolation encounters challenges such as sparse and unevenly distributed data, handling spatial autocorrelation and heterogeneity trade-offs, and preserving spatial relations without information loss. Additionally, incomplete geo-referenced datasets due to various factors like poor data collection or measurement errors pose difficulties in applications. In the context of seismic data, missing traces impact processing results, necessitating reconstruction before analysis, which can be addressed by machine learning interpolation methods like support vector regression and neural networks. Machine learning, particularly deep learning approaches, has shown promise in overcoming limitations of conventional deterministic algorithms for spatial interpolation, as seen in the successful estimation of soil temperature and water content in challenging areas. These machine learning techniques offer solutions to enhance spatial interpolation accuracy and efficiency in various domains.
How to calculatr EC50 by aatabio.com software?
5 answers
To calculate EC50 using aatabio.com software, you can utilize fundamental measures of compound potency. The software can help estimate the half maximal response of a compound in a biological system, providing valuable data for structure-activity relationships and computational method development. Additionally, a mathematical prediction model based on solute properties like fractional molar volume, polarity, and hydrogen bond acceptor basicity can be used to predict EC50 values for compounds that block sodium channels. Different methods such as straight-line graphical interpolation, moving average interpolation, and probit analysis can be employed to calculate EC50 values with confidence intervals for various compounds, ensuring accurate toxicity assessments. By incorporating these approaches, aatabio.com software can facilitate robust EC50 calculations for different compounds.
Why is the assumption of singularity crucial in multivariate analysis?
5 answers
The assumption of singularity is crucial in multivariate analysis because it enables the translation of asymptotic expansions of functions around dominant singularities into corresponding expansions of their Taylor coefficients, aiding in capturing topological features of multivariate data rigorously. Singularity analysis plays a vital role in obtaining analytic solutions for equations where standard symmetry analysis fails, especially in higher-dimensional equations with multiple resonances, leading to partial integrability and expanding the scope of singularity analysis for equations with positive leading-order exponents. Additionally, the study of singularity in multivariate Hermite interpolation helps determine the singularity of interpolation schemes and derive regular interpolation schemes based on theoretical arguments and numerical verification.
Is height affects the clahe parameter for enhancing NIR image?
5 answers
Height does not directly affect the CLAHE parameter for enhancing NIR images based on the provided research contexts. Various approaches have been proposed to enhance NIR images, such as optimized bilinear interpolation, undecimated Additive Wavelet Transform combined with homomorphic transform and CLAHE, and a method using discrete stationary wavelet transform and CLAHE. These methods focus on improving contrast, reducing noise, and highlighting image details without mentioning any correlation with height. Additionally, a real-time enhancement algorithm based on CLAHE emphasizes noise suppression and edge/detail highlighting without considering height as a factor. Therefore, the existing research does not suggest a direct relationship between height and the CLAHE parameter in enhancing NIR images.
Did according to this article the deployed DT respect the iso and if no why?
4 answers
The article discusses the deployment of a hierarchical demand response (DR) bidding framework in day-ahead energy markets, focusing on load aggregators submitting aggregated DR offers to the ISO for optimization. The other contexts do not directly relate to the concept of ISO and DR deployment. Therefore, the deployed DT in the article does not pertain to the iso mentioned in the question. The article primarily addresses the optimization of DR contributions in wholesale markets through load shifting, curtailment, and the use of onsite generation and energy storage systems, utilizing mixed-integer linear programming for solution.