Skip to content
Free planNo credit card requiredStart writing

Search 250 million research papers

Read the abstract, see who wrote it and who cites it, and get the citation in APA, MLA, Chicago or Harvard.

About 10,000 papers for “Algorithm”

Algorithm v. Algorithm

Coglianese, Cary, Lai, Alicia · eYLS (Yale Law School) · 2022

Critics raise alarm bells about governmental use of digital algorithms, charging that they are too complex, inscrutable, and prone to bias. A realistic assessment of digital algorithms, though, must acknowledge that government is already driven by algorithms of arguably greater complexity and potential for abuse: the algorithms implicit in human decision-making. The human brain operates algorithmically through complex neural networks. And when humans make collective decisions, they operate via algorithms too—those reflected in legislative, judicial, and administrative processes. Yet these human algorithms undeniably fail and are far from transparent. On an individual level, human decision-making suffers from memory limitations, fatigue, cognitive biases, and racial prejudices, among other problems. On an organizational level, humans succumb to groupthink and free riding, along with other collective dysfunctionalities. As a result, human decisions will in some cases prove far more problematic than their digital counterparts. Digital algorithms, such as machine learning, can improve governmental performance by facilitating outcomes that are more accurate, timely, and consistent. Still, when deciding whether to deploy digital algorithms to perform tasks currently completed by humans, public officials should proceed with care on a case-by-case basis. They should consider both whether a particular use would satisfy the basic preconditions for successful machine learning and whether it would in fact lead to demonstrable improvements over the status quo. The question about the future of public administration is not whether digital algorithms are perfect. Rather, it is a question about what will work better: human algorithms or digital ones.

Cited by 0

Algorithm vs. Algorithm

Coglianese, Cary, Lai, Alicia · eYLS (Yale Law School) · 2022

Critics raise alarm bells about governmental use of digital algorithms, charging that they are too complex, inscrutable, and prone to bias. A realistic assessment of digital algorithms, though, must acknowledge that government is already driven by algorithms of arguably greater complexity and potential for abuse: the algorithms implicit in human decision-making. The human brain operates algorithmically through complex neural networks. And when humans make collective decisions, they operate via algorithms too—those reflected in legislative, judicial, and administrative processes. Yet these human algorithms undeniably fail and are far from transparent. On an individual level, human decision-making suffers from memory limitations, fatigue, cognitive biases, and racial prejudices, among other problems. On an organizational level, humans succumb to groupthink and free-riding, along with other collective dysfunctionalities. As a result, human decisions will in some cases prove far more problematic than their digital counterparts. Digital algorithms, such as machine learning, can improve governmental performance by facilitating outcomes that are more accurate, timely, and consistent. Still, when deciding whether to deploy digital algorithms to perform tasks currently completed by humans, public officials should proceed with care on a case-by-case basis. They should consider both whether a particular use would satisfy the basic preconditions for successful machine learning and whether it would in fact lead to demonstrable improvements over the status quo. The question about the future of public administration is not whether digital algorithms are perfect. Rather, it is a question about what will work better: human algorithms or digital ones.

Cited by 7

Previous Algorithm Improved Algorithm

Wenjun Xie, Sai Sravan, Bharadawaj Karri et al. · 2012

Axonal transport is related to neuron function and neuro-degradation; usually a large number of transport data need to be analyzed to get statistically significant result.

Cited by 0

Extinction Algorithm "Extinction Algorithm"

Extinction Algorithm · Bulletin of Miscellaneous Information (Royal Gardens Kew)

Extinction Algorithm is the first solo product of Mr.S, the mastermind of Satanochio. This is more than just a simple record, it is an artistic protest, regarding the dehumanization procees of the nowadays society. This is the alarm signal, born from the depression of the artist, regarding individualityâs extinction. The human soul is an endagered species but we can change itâs extinction algorithm. How? Remembering. That is the main purpose of this somehow unexplainable black metal rooted , dark cinematic anthem collection. Do yourself a favor and share this record with as much people you can, maybe this way youâll not reach that day when youâll live alone on this dying planet surrounded by smiling monsters. Recommended especially for dreamers. This medicine can help you recover your native soul capacities. â Dungeon chamber guitars sessions lead by Mr.S Artwork by Costin Chioreanu â Twilight13media âUnder these stars my journey has begun Above this earth I keep my shadow flat Until Iâll become a part of one space, equilibrium shall be the purpose of my raceâ

Cited by 0

Algorithm 3: Sieve algorithm.

Meng-Tsung Tsai (238271), Tsurng-Chen Chern (238272), Jen-Hsiang Chuang (210836) et al. · Figshare · 2015

Cited by 0Open access

Algorithm 1. DiME algorithm.

Yunpeng Liu (379288), Daniel A. Tennant (206938), Zexuan Zhu (296894) et al. · Figshare · 2015

Cited by 0Open access

Algorithm 1: Naive algorithm.

Meng-Tsung Tsai (238271), Tsurng-Chen Chern (238272), Jen-Hsiang Chuang (210836) et al. · Figshare · 2015

Cited by 0Open access

GENETIC ALGORITHM FOR GENETIC ALGORITHM FOR GENETIC ALGORITHM FOR GENETIC ALGORITHM FOR

Ritu Verma, Sunita Dhingra · 2011

Multiprocessor task scheduling (MPTS) is an important and computationally difficult problem. Multiprocessors have emerged as a powerful computing means for running real-time applications especially due to limitation of uni-processor syste m for not having sufficient enough capability to execute all the tas ks. This paper describes multiprocessor task scheduling in the for m of permutation flow shop scheduling, which has an objective function for minimizing the makespan. Here, we will conclude how the performance of genetic algorithms (value of the makespan of the schedule) varies with the variation of Genet ic Algorithm (GA) control parameters (population size, crossover probability and mutation probability).

Cited by 0

1.1 Pseudocode of Ellipsoid Algorithm Algorithm 1.1 (Ellipsoid Algorithm).

Notes Taken Shizhong Li, Input A B · 2005

Summary: In the spring of 1979, the Soviet mathematician L.G.Khachian discovered a polynomial algorithm for LP called Ellipsoid Algorithm. This discovery classifies the linear programming problem in class P for the first time. After the high level introduction of the algorithm in the last class, we turn to discuss it in details in this lecture. Ellipsoid Algorithm.

Cited by 0

Megscammell/METOD-Algorithm: METOD-Algorithm

Megscammell · Zenodo (CERN European Organization for Nuclear Research) · 2021

Multistart with early termination of descents (METOD) algorithm source code, tests and examples.

Cited by 0Open access

feiyunzhuiyancehng/LandTrendr-algorithm: GEE_LandTrendr algorithm

LIzengnan · Zenodo (CERN European Organization for Nuclear Research) · 2026

This project includes the full processing workflow implemented in Google Earth Engine (GEE), covering cloud masking, NBR calculation, annual optimal pixel compositing, and time series disturbance detection ands results using LandTrendr algorithms.

Cited by 0Open access