Academic Journal
Q1Matter
About Matter
Matter is a scholarly journal published by Cell Press. SCImago 2025 places it in Q1 with an SJR of 4.959 and an H-index of 131.
Its listed coverage is 2019-2026 and its research categories include Materials Science (miscellaneous) (Q1). The 2025 dataset reports 417 documents and 11437 citations across the latest three-year reporting window.
Matter is the new universal standard that’s revolutionizing the smart home industry. Developed by the Connectivity Standards Alliance (CSA)—with backing from tech giants like Apple, Google, Amazon, and Samsung—Matter aims to solve one of the biggest frustrations smart home users face: device compatibility.
Whether you're setting up a smart thermostat, voice assistant, or smart light bulbs, Matter ensures they all work seamlessly together, regardless of brand. It’s a game-changer for homeowners, developers, and businesses alike.
Why Matter Matters
The current smart home market is cluttered with competing platforms—Zigbee, Z-Wave, Thread, Wi-Fi, and proprietary ecosystems like Apple HomeKit or Google Home. This fragmentation often leaves users stuck with devices that won’t talk to each other unless they’re from the same brand.
Matter eliminates this barrier by providing a unified, open-source connectivity standard. Whether you’re using Alexa, Google Assistant, or Siri, Matter-enabled devices can communicate and work together effortlessly.
Key Benefits of Matter
1. Interoperability
Matter’s most compelling feature is cross-brand compatibility. You can mix and match devices from different manufacturers with confidence that they’ll function together smoothly.
2. Reliability
Matter devices use local communication, which means they don’t depend solely on cloud services. This makes smart home systems more resilient, faster, and more private.
3. Security
Matter is built with end-to-end encryption, ensuring your smart home devices are secure from unauthorized access. It also includes regular over-the-air updates to patch vulnerabilities.
4. Ease of Setup
With a Matter-certified device, onboarding is simple. Using standard QR codes or NFC tags, users can quickly add new devices to their home network through any compatible app or hub.
What Devices Support Matter?
Matter launched in 2022, and since then, a growing list of smart devices has adopted the protocol. You’ll find Matter in:
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Smart bulbs and light switches
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Thermostats
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Smart locks
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Security sensors
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Smart speakers and hubs
Brands like Philips Hue, Eve, Nest, Amazon Echo, and Apple HomePod have rolled out Matter updates or built-in support, making it easier than ever to build a future-proof smart home.
How to Get Started with Matter
To get started, all you need is a Matter-enabled device and a compatible smart home controller like Google Nest Hub, Amazon Echo, or Apple HomePod. From there, setting up is as easy as scanning a QR code and following in-app instructions.
Journal Metrics
Metrics can change by reporting year. Verify time-sensitive values with the publisher or indexing service.
Aims & Scope
In the world of project management, one concept stands out as a foundation for success: scope. Whether you’re leading a software development team, launching a marketing campaign, or managing construction projects, understanding why scope matters can be the difference between delivering a project on time and within budget—or watching it spiral out of control. In this article, we’ll explore what scope means, why it’s critical, and how effective scope management can ensure project success.
What is Project Scope?
Project scope refers to the boundaries and deliverables of a project. It defines what work needs to be done, what the goals are, and what is not included. A well-defined scope includes specific tasks, deadlines, milestones, costs, and resources needed to complete a project.
Scope is usually documented in a Project Scope Statement, which outlines objectives, deliverables, assumptions, and constraints. This document becomes a crucial reference point for everyone involved in the project.
Why Scope Matters
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Clear Expectations
One of the primary reasons scope matters is that it sets clear expectations for stakeholders, clients, and team members. Everyone knows what to expect—and more importantly, what not to expect. This clarity helps prevent confusion, miscommunication, and disappointment later on. -
Prevents Scope Creep
Scope creep—the gradual expansion of a project’s goals beyond its original objectives—is one of the leading causes of project failure. Without a well-defined scope, new requests can easily derail timelines and budgets. Effective scope management keeps the project aligned with original goals. -
Improved Time and Budget Management
A clear scope makes it easier to estimate timelines, allocate resources, and manage budgets. It also helps identify potential risks early in the planning process, allowing teams to create strategies to avoid delays or overspending. -
Better Resource Allocation
When the scope is clearly defined, project managers can assign the right people and tools to the right tasks. This leads to more efficient work and reduces the chances of overburdening team members. -
Stronger Client Satisfaction
Clients and stakeholders appreciate transparency. When a project stays within its defined scope, meets deadlines, and delivers on promised outcomes, it naturally leads to higher satisfaction and trust.
Best Practices for Managing Scope
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Define Clear Objectives: Start with a detailed project brief that outlines goals, deliverables, deadlines, and success metrics.
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Use Scope Management Tools: Tools like Asana, Trello, and Microsoft Project help track progress and changes.
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Communicate Frequently: Regular updates keep stakeholders informed and reduce the chances of misunderstandings.
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Document Changes: If changes are necessary, document them through a change management process to avoid ambiguity.
Recent Research Articles
Latest publications matched automatically by ISSN.
Self-powered magnetoelastic tents for sustainable energy access in unhoused communities
Xiujun Fan, Trinny Tat, Guorui Chen, Sophia Shen et al.
2026-09 · DOI: 10.1016/j.matt.2026.102954Breaking the power ceiling of radiative cooling through evaporative-radiative synergy
Xinpeng Hu, Qisheng Liu, Bingqing Quan, Jiashuo Wang et al.
2026-09 · DOI: 10.1016/j.matt.2026.102881Two modes of entropy-property correlations enabling high-entropy electrocatalytic materials discovery
Li Li, Xi-Xian Yang, Shao-Xi Yang, Liang Gao et al.
2026-09 · DOI: 10.1016/j.matt.2026.102821Tailoring quasi-transparent ceramic as a laser-driven photonic engine for kilometer-level white light communication
Yongsheng Sun, Minbo Wu, Weibin Chen, Gaochao Liu et al.
2026-09 · DOI: 10.1016/j.matt.2026.102822Sustainable gas-quenching strategy enables high-efficiency and stable, flexible perovskite solar cells
Jianqiu Gong, Bohong Chang, Shuai Li, Francesco Vanin et al.
2026-09 · DOI: 10.1016/j.matt.2026.1028235f metal-incorporated 2D clusterphene: Enabling high-efficiency photocatalysis through continuous planar carrier migration
Yi-Xin Liu, Lei Jia, Xiu-Shan Liu, Guo-Cai Yuan et al.
2026-09 · DOI: 10.1016/j.matt.2026.102862Ultra-stretchable and mechanically robust organic photodetectors enabled by a honeycomb network morphology
Zhongxiang Peng, Li Lei, Haozhi Zhen, Rui Chen et al.
2026-09 · DOI: 10.1016/j.matt.2026.102864Rechargeable multilayer all-ceramic micro lithium-ion batteries
Kaixuan Cui, Zhouyang Jiang, Zheng Zhang, Jingren Gou et al.
2026-09 · DOI: 10.1016/j.matt.2026.102860Potential-controlled pre-lithiation of organic framework cathodes for ultra-high current lithium-ion batteries
Zhenwei Ji, Hao Yuan, Qilin Huang, Xingyang Wang et al.
2026-09 · DOI: 10.1016/j.matt.2026.102866Piezoelectric response in ionic liquids and electrolytes through dynamic phase transitions
Žan Simon, Bhagya Dharmasiri, Ben Newman, Peter C. Sherrell et al.
2026-09 · DOI: 10.1016/j.matt.2026.102917Temporal and spatial separations between spin glass and short-range order
Margarita G. Dronova, Feng Ye, Zachary J. Morgan, Yishu Wang et al.
2026-09 · DOI: 10.1016/j.matt.2026.102829Electrostatic-electromagnetic coupling regulates wireless energy interaction for interference shielding
Zhenguo Gao, Xiuyun Ren, Yu Zhang, Siyuan Zhang et al.
2026-09 · DOI: 10.1016/j.matt.2026.103000Filament-level programming and machine learning enable tunable release kinetics beyond material limits
Peihong Chen, Huaqing Zhang, Jianping Zhou, Yang Ding et al.
2026-09 · DOI: 10.1016/j.matt.2026.102912Bioinspired catalysis: Engineering microenvironment from chemical to spatial confinement
Yuanyuan Zhang, Yan Ye, Yucheng Dong, Fangshu Xing et al.
2026-09 · DOI: 10.1016/j.matt.2026.102907Halide ion-modulated crystallization of poly(triazine imide) for efficient photocatalytic overall water splitting
Qian Wang, Wei Xu, Hangyu Zhuzhang, Zhiming Pan et al.
2026-09 · DOI: 10.1016/j.matt.2026.102861Self-sustaining reactive species program morphological evolution across timescales in hydrogels
Mingzhe Nie, Mingxing Peng, Xun Li, Weizhong Xu et al.
2026-09 · DOI: 10.1016/j.matt.2026.103004Copper-tailored d-p-π multi-orbital coupling in sulfurized polyaniline enables ultralong cycling aqueous sulfur batteries
Zhiwei Chen, Chaoyi Qiu, Zhichao Wang, Xiang Liu et al.
2026-09 · DOI: 10.1016/j.matt.2026.102867Ton-scale Ni nanospheres with size-tuned local electric fields enable high-current-density ethylene glycol electrooxidation
Hongyuan Yang, Luolei Shi, Yiying Zhao, Peiran Cao et al.
2026-09 · DOI: 10.1016/j.matt.2026.102997Science with rizz
Steve Cranford
2026-09 · DOI: 10.1016/j.matt.2026.102872High-performance and fast-regenerative passive body cooling enabled by a highly ordered polyacrylamide hydrogel
Peiru Shi, Jinlei Li, Songguo Li, Weixi Lu et al.
2026-09 · DOI: 10.1016/j.matt.2026.102999Reviews
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April 23, 2025