User:Awake.kp/Choose an Article
Proposed potential articles for edits, providing their evaluation and sources
New page
== Article Selection ==
Please list articles that you're considering for your Wikipedia assignment below. Begin to critique these articles and find relevant sources.
=== Option 1 ===
; Article title:[[Self-incompatibility#cite note-xue1996-6]]
; Article Evaluation:Introduction & Evolutionary Origins: The introduction briefly mentions what SI is and its role in preventing inbreeding but lacks information on its evolutionary origins. Gametophytic Self-Incompatibility (GSI): The article lumps RNase mechanisms together and has missing pieces regarding the S-glycoprotein mechanism in Papaveraceae. Sporophytic Self-Incompatibility (SSI): The section accurately identifies SRK, SCR/SP11, and MLPK in Brassica, but misses downstream targets and dominance genetics. Other Mechanisms of Self-Incompatibility: Mentions Poaceae (Two-locus) and Heteromorphic SI but lacks molecular specifics. Self-Compatibility (SC) & Plant Breeding: Very briefly mentions that SC is useful for breeding and can arise from mutations, but lacks modern biotechnology context.
; Sources:https://www.cell.com/plant-communications/fulltext/S2590-3462(23)00265-1?_returnURL=https%3A%2F%2Flinkinghub.elsevier.com%2Fretrieve%2Fpii%2FS2590346223002651%3Fshowall%3Dtrue
=== Option 2 ===
; Article title:[[Flower induction]]
; Article Evaluation:The current page "Flower Induction" article is heavily underdeveloped and misrepresents the modern scientific consensus on the topic. Overly simplistic and outdated focus: The page relies primarily on the role of cytokinins and a specific physiological example in kiwifruit. It entirely misses the massive genetic and molecular framework discovered over the last few decades, which reveals that flowering induction is driven by a complex network of environmental and endogenous signaling pathways. Confuses "competence" with "induction": The page defines flower induction as the process by which the meristem "becomes competent to develop flowers". However, reproductive competence is actually a prerequisite stage governed by plant age; a plant must usually transition from a juvenile to an adult phase before it can successfully respond to the environmental cues that actually induce flowering. Omission of Florigen: The page fails to mention "florigen" (the universal flowering signal), which is one of the most critical concepts in flowering physiology and genetics.
; Sources:https://academic.oup.com/plcell/article/36/5/1334/7606657
=== Option 3 ===
; Article title:[[Sex-determination system]]
; Article Evaluation:The major weakness of the page "Sex-determination System" is a severe underrepresentation of plant sex-determination mechanisms and the evolutionary origins of sex chromosomes, fields that have seen rapid genomic advancements in recent years. It lacks a discussion on how separate sexes (dioecy) and sex chromosomes actually evolve from a hermaphroditic ancestor. The page treats XY and ZW systems as static endpoints rather than dynamic evolutionary states. Under the "Y-centered sex determination" section, the Wikipedia page only mentions animal genes like SRY and DMRT1. It entirely misses the recent discoveries of master sex-determining genes in commercially and biologically important plant species. It completely ignores how whole-genome duplication (polyploidy) and epigenetics can override or alter chromosomal sex determination.
; Sources:https://www.annualreviews.org/content/journals/10.1146/annurev-arplant-042817-040615 https://academic.oup.com/plcell/article/36/5/1242/7499156
=== Option 4 ===
; Article title:[[Flower differentiation]]
; Article Evaluation:The current page for "Flower differentiation" is highly incomplete and narrowly focused. Over-reliance on a single specific species: The page bases its entire definition of the differentiation stages on a single study of ''Magnolia sinostellata''. Describing the formation of "yellow-brown hairs" or "spathe-like bracts" is far too specific and does not represent the universal process of floral differentiation across angiosperms. Complete omission of the genetic framework''':'''The page solely describes visual, morphological changes but entirely fails to mention the foundational genetic mechanisms that dictate how these organs form. Missing the core paradigm (The ABC Model): It ignores the most widely accepted and heavily researched framework in plant developmental biology—the ABC model of flower development, which explains how different floral organs are specified.
; Sources:https://academic.oup.com/plcell/article/36/5/1334/7606657
=== Option 5 ===
; Article title:[[ABC model of flower development]]
; Article Evaluation:Outdated Molecular Mechanics: It mentions that B-class proteins form dimers, but it completely omits the widely accepted "Floral Quartet Model," failing to explain ''how'' these proteins actually interact with DNA to build organs. Oversimplification of the "A-Class": The page presents A-class genes as a rigid, universal rule. In reality, the A-function is highly debated, poorly conserved outside the mustard family, and relies heavily on microRNA regulation, which the page barely touches on. Missing Upstream Context: The page lists the ABC genes but doesn't explain what turns them on, leaving a gap between the process of floral induction and floral differentiation. Limited Evolutionary Scope: While it mentions a modified model for tulips and ''Agapanthus'', it misses the massive evolutionary adaptations of the ABC model seen in grasses, orchids, and gymnosperms
; Sources:https://academic.oup.com/plcell/article/36/5/1334/7606657
Please list articles that you're considering for your Wikipedia assignment below. Begin to critique these articles and find relevant sources.
=== Option 1 ===
; Article title:[[Self-incompatibility#cite note-xue1996-6]]
; Article Evaluation:Introduction & Evolutionary Origins: The introduction briefly mentions what SI is and its role in preventing inbreeding but lacks information on its evolutionary origins. Gametophytic Self-Incompatibility (GSI): The article lumps RNase mechanisms together and has missing pieces regarding the S-glycoprotein mechanism in Papaveraceae. Sporophytic Self-Incompatibility (SSI): The section accurately identifies SRK, SCR/SP11, and MLPK in Brassica, but misses downstream targets and dominance genetics. Other Mechanisms of Self-Incompatibility: Mentions Poaceae (Two-locus) and Heteromorphic SI but lacks molecular specifics. Self-Compatibility (SC) & Plant Breeding: Very briefly mentions that SC is useful for breeding and can arise from mutations, but lacks modern biotechnology context.
; Sources:https://www.cell.com/plant-communications/fulltext/S2590-3462(23)00265-1?_returnURL=https%3A%2F%2Flinkinghub.elsevier.com%2Fretrieve%2Fpii%2FS2590346223002651%3Fshowall%3Dtrue
=== Option 2 ===
; Article title:[[Flower induction]]
; Article Evaluation:The current page "Flower Induction" article is heavily underdeveloped and misrepresents the modern scientific consensus on the topic. Overly simplistic and outdated focus: The page relies primarily on the role of cytokinins and a specific physiological example in kiwifruit. It entirely misses the massive genetic and molecular framework discovered over the last few decades, which reveals that flowering induction is driven by a complex network of environmental and endogenous signaling pathways. Confuses "competence" with "induction": The page defines flower induction as the process by which the meristem "becomes competent to develop flowers". However, reproductive competence is actually a prerequisite stage governed by plant age; a plant must usually transition from a juvenile to an adult phase before it can successfully respond to the environmental cues that actually induce flowering. Omission of Florigen: The page fails to mention "florigen" (the universal flowering signal), which is one of the most critical concepts in flowering physiology and genetics.
; Sources:https://academic.oup.com/plcell/article/36/5/1334/7606657
=== Option 3 ===
; Article title:[[Sex-determination system]]
; Article Evaluation:The major weakness of the page "Sex-determination System" is a severe underrepresentation of plant sex-determination mechanisms and the evolutionary origins of sex chromosomes, fields that have seen rapid genomic advancements in recent years. It lacks a discussion on how separate sexes (dioecy) and sex chromosomes actually evolve from a hermaphroditic ancestor. The page treats XY and ZW systems as static endpoints rather than dynamic evolutionary states. Under the "Y-centered sex determination" section, the Wikipedia page only mentions animal genes like SRY and DMRT1. It entirely misses the recent discoveries of master sex-determining genes in commercially and biologically important plant species. It completely ignores how whole-genome duplication (polyploidy) and epigenetics can override or alter chromosomal sex determination.
; Sources:https://www.annualreviews.org/content/journals/10.1146/annurev-arplant-042817-040615 https://academic.oup.com/plcell/article/36/5/1242/7499156
=== Option 4 ===
; Article title:[[Flower differentiation]]
; Article Evaluation:The current page for "Flower differentiation" is highly incomplete and narrowly focused. Over-reliance on a single specific species: The page bases its entire definition of the differentiation stages on a single study of ''Magnolia sinostellata''. Describing the formation of "yellow-brown hairs" or "spathe-like bracts" is far too specific and does not represent the universal process of floral differentiation across angiosperms. Complete omission of the genetic framework''':'''The page solely describes visual, morphological changes but entirely fails to mention the foundational genetic mechanisms that dictate how these organs form. Missing the core paradigm (The ABC Model): It ignores the most widely accepted and heavily researched framework in plant developmental biology—the ABC model of flower development, which explains how different floral organs are specified.
; Sources:https://academic.oup.com/plcell/article/36/5/1334/7606657
=== Option 5 ===
; Article title:[[ABC model of flower development]]
; Article Evaluation:Outdated Molecular Mechanics: It mentions that B-class proteins form dimers, but it completely omits the widely accepted "Floral Quartet Model," failing to explain ''how'' these proteins actually interact with DNA to build organs. Oversimplification of the "A-Class": The page presents A-class genes as a rigid, universal rule. In reality, the A-function is highly debated, poorly conserved outside the mustard family, and relies heavily on microRNA regulation, which the page barely touches on. Missing Upstream Context: The page lists the ABC genes but doesn't explain what turns them on, leaving a gap between the process of floral induction and floral differentiation. Limited Evolutionary Scope: While it mentions a modified model for tulips and ''Agapanthus'', it misses the massive evolutionary adaptations of the ABC model seen in grasses, orchids, and gymnosperms
; Sources:https://academic.oup.com/plcell/article/36/5/1334/7606657
