Internet Computer价格

(美元)
$4.137
-$0.006 (-0.15%)
USD
无法搜索到该币种。请检查您的拼写或重新搜索币种名称。
市值
$22.22亿 #41
流通总量
5.38亿 / 5.38亿
历史最高价
$750
24 小时成交量
$7,874.77万
4.4 / 5

了解Internet Computer

ICP,全称为互联网计算机,是一种加密货币,支持一个旨在扩展互联网功能的革命性区块链。与传统区块链不同,ICP使开发者能够直接在链上构建完全去中心化的应用程序、网站和服务,而无需依赖于集中式云提供商。其独特的技术支持快速、可扩展且防篡改的应用程序,为比特币DeFi、去中心化人工智能以及跨链集成等创新打开了大门。凭借低延迟智能合约、数据隐私以及与其他网络(如比特币和以太坊)的无缝互操作性等特点,ICP为一个安全、用户所有的互联网奠定了基础。无论您是开发者还是好奇的新人,ICP代表着迈向去中心化数字未来的大胆一步。
本内容由 AI 生成
RWA
Layer 1
游戏代币
CertiK
最后审计日期:2021年4月19日 (UTC+8)

免责声明

本页面的社交内容 (包括由 LunarCrush 提供支持的推文和社交统计数据) 均来自第三方,并按“原样”提供,仅供参考。本文内容不代表对任何数字货币或投资的认可或推荐,也未获得欧易授权或撰写,也不代表我们的观点。我们不保证所显示的用户生成内容的准确性或可靠性。本文不应被解释为财务或投资建议。在做出投资决策之前,评估您的投资经验、财务状况、投资目标和风险承受能力并咨询独立财务顾问至关重要。过去的表现并不代表未来的结果。您的投资价值可能会波动,您可能无法收回您投资的金额。您对自己的投资选择自行承担全部责任,我们对因使用本信息而造成的任何损失或损害不承担任何责任。提供外部网站链接是为了用户方便,并不意味着对其内容的认可或控制。

请参阅我们的 使用条款风险警告,了解更多详情。通过使用第三方网站(“第三方网站”),您同意对第三方网站的任何使用均受第三方网站条款的约束和管辖。除非书面明确说明,否则欧易及其关联方(“OKX”)与第三方网站的所有者或运营商没有任何关联。您同意欧易对您使用第三方网站而产生的任何损失、损害和任何其他后果不承担任何责任。请注意,使用第三方网站可能会导致您的资产损失或贬值。本产品可能无法在所有司法管辖区提供或适用。

Internet Computer 的价格表现

近 1 年
-56.93%
$9.60
3 个月
-13.31%
$4.77
30 天
-18.55%
$5.08
7 天
-13.11%
$4.76

Internet Computer 社交媒体动态

Stefen
Stefen
我在我生日那天
DFINITY
DFINITY
回顾 ⏪ 我们回顾一下我们系列节目《世界计算机技术谈话》的前几集。 在这一集中,我们探讨: 👉 利用主权云技术消除内部威胁 ℹ️ DFINITY 基金会研究主管 Bjoern Tackmann 深入探讨了内部威胁的隐患以及如何通过主权云基础设施消除这些威胁。 立即观看:
crypto.news
crypto.news
最新消息:$HYPE | @BitwiseInvest 提交了 S-1 $HYPE 现货 ETF 的申请。 报告显示 @vaneck_us 也可能很快会这样做,并且会有一个质押功能。👀

快捷导航

Internet Computer购买指南
开始入门数字货币可能会让人觉得不知所措,但学习如何购买比您想象的要简单。
预测 Internet Computer 的价格走势
Internet Computer 未来几年值多少?看看社区热议,参与讨论一波预测。
查看 Internet Computer 的价格历史
追踪 Internet Computer 代币的价格历史,实时关注持仓表现。您可以通过下方列表快捷查看开盘价、收盘价、最高价、最低价及交易量。
持有 Internet Computer 仅需三步

免费创建欧易账户

为账户充值

选择要购买的代币

欧易提供 60 余种欧元交易对,助您优化资产的多元配置

Internet Computer 常见问题

ICP 是 Internet 计算机协议生态系统的原生代币。它用于平台治理,可以转换为 Cycles 代币,为网络提供计算能力。
Internet Computer 协议是世界上最快的公链之一,由于其创新的链密钥加密技术,每秒处理 11,500 笔交易,1 秒完成交易。
Internet Computer 协议由分布在北美、欧洲和亚洲的 48 个数据中心支持,它运行着 1,300 个节点。到 2022 年底,该网络将拥有 123 个数据中心,每个中心有 4,300 个节点。节点经营操作可以是任何人。
2021年5月10日,ICP 达到历史最高交易价格。当时的 ICP 价格为 750 美元每枚。
目前,一个 Internet Computer 价值是 $4.137。如果您想要了解 Internet Computer 价格走势与行情洞察,那么这里就是您的最佳选择。在欧易探索最新的 Internet Computer 图表,进行专业交易。
数字货币,例如 Internet Computer 是在称为区块链的公共分类账上运行的数字资产。了解有关欧易上提供的数字货币和代币及其不同属性的更多信息,其中包括实时价格和实时图表。
由于 2008 年金融危机,人们对去中心化金融的兴趣激增。比特币作为去中心化网络上的安全数字资产提供了一种新颖的解决方案。从那时起,许多其他代币 (例如 Internet Computer) 也诞生了。
查看 Internet Computer 价格预测页面,预测未来价格,帮助您设定价格目标。

深度了解Internet Computer

Internet Computer 协议是一个创新的、去中心化的区块链网络,旨在使区块链技术对公众开放。它寻求扩大智能合约的能力,并将公共互联网转变为全球云计算平台。


针对区块链技术最常见的批评之一是为了获得广泛采用,它需要更快、更方便。Internet Computer 协议旨在通过使区块链功能以网速可用来解决这个问题。同时,确保交易在 1 秒内完成,并支付微量的 GAS 费用。它还为直接在公共互联网上部署智能合约代码提供了无障碍的开发人员环境。这简化了应用程序开发人员和用户的体验。


Internet Computer 协议网络的架构旨在为独立的 数据中心 提供通信的灵活性,并提供一个完全去中心化的云计算平台。Internet Computer 协议团队的主要目标之一是减少社会对中心化替代方案的依赖,如 亚马逊 网络服务和 谷歌 云服务器。


加密货币 ICP 是 Internet Computer 协议生态系统的原生代币,它需要就决定项目方向的治理问题进行投票。持有 ICP 还可以获得持续的加密货币奖励。入股 ICP 可以减少卖出压力,并有助于支撑代币的价格。


Internet Computer 协议的运行方式?

Internet Computer 网络背后的核心思想是创建一个独特的、去中心化的互联网和一个全球性的云计算系统,由互连的、独立的 数据中心 提供动力,以与中心化云提供商(如 Amazon Web Services、谷歌 cloud 和 Microsoft Azure)竞争。


许多人认为目前的互联网存在一个问题,因为它是中心化的,而且流行的应用程序都是近源的,并且保持技术的私密性。由于互联网的大部分存储需求由少数大型的中心化提供商提供,如果一个主要数据中心出现故障,许多企业和用户可能无法使用这些服务。中心化云存储的另一个主要缺点是,集中式提供商有权随意审查或关闭其托管的应用程序。


Internet Computer 协议想要改变这一切。Internet Computer 网络试图创建一个替代版本的互联网,允许开发者使用去中心化服务来托管他们的应用程序,而不用担心审查、去平台化或用户数据丢失。这是为了进一步鼓励全球开源和透明的软件开发。


任何有兴趣的个人或 数据中心,如果有必要的存储容量,并希望以存储节点操作员的身份加入该网络,都可以自由加入。他们为提供的存储空间付费,并进一步获得象征性代币的奖励。


区块链密钥技术

Internet Computer 协议链中最基本的新实现之一是对链密钥技术的重新设想。Internet Computer 协议网络利用单一公钥,这使得链可以快速部署数百万个节点。凭借其独特的链密钥技术,任何设备,如手机或平板电脑,都可以确认链上事件的真实性。


反 GAS 费用模型

虽然大多数区块链都要求用户支付 Gas 费才能完成交易,但 Internet Computer 协议采用了一种新颖的反 Gas 费模型。开发人员付费使用这种机制在 Internet Computer 协议上运行的去中心化应用程序(DApps)。因此,非技术人员可以与区块链技术交互,而不需要特定的加密货币。这使得这项技术更容易获得,并降低了用户的准入门槛。


Motoko 智能合约语言

DFINITY 为智能合约开发了一种新的编程语言 Motoko。它使得使用区块链的独特功能更加简单,并且可以轻松地适应互联网计算机协议的思想,实现完全去中心化的区块链协议。自动内存管理、泛型、类型推断、模式匹配以及任意和固定精度算术都是 Motoko 的生产力和安全特性的例子。


加密货币 ICP 的价格及其经济模型

根据 Coinmarketcap 的数据,Internet Computer 市值 20 亿美元,流通供应量 2.537 亿枚代币,截止目前,在全球市值排名第 30 位的加密货币左右。ICP 的总供应量约为 4.88 亿份,使其完全稀释后的市值接近 40 亿美元。创建 ICP 代币并将其作为对提案进行投票和管理存储节点的参与者的奖励。


Internet Computer 协议还利用另一种称为“循环”的代币,它是从加密货币 ICP 转换而来的,用于支持算力。


Internet Computer 协议在几年的时间里进行了几轮融资,为该项目建立了初步的早期支持。据 Messari 称,第一轮融资已于 2017 年 2 月完成,成功筹集了 400 多万美元用于网络的后续发展。随后在 2018 年 2 月和 8 月的代币销售筹集了超过 1.17 亿美元。


早期投资者能够在融资轮中以每枚 0.035 美元的价格购买 ICP 代币。投机者认为,这就是在 ICP 代币价格走势中可见的强大抛售压力和当代币以每 ICP 365 美元公开交易时 Internet Computer 议价格下跌的原因。


ICP 代币的最初分发几乎全部分配给了 Internet Computer 协议团队和早期投资者。ICP 代币的分配方式如下:

- 天使轮: 24.72%

- DFINITY 基金会: 23.86%

- Internet Computer 协议团队成员: 18.00%

- 早期贡献者: 9.50%

- 战略合作伙伴: 7.00%

- 预售买家: 4.96%

- Internet Computer 协议社区: 4.26%

- 合作伙伴: 3.79%

- 相关第三年代币顾问及投资者: 2.40%

- ICP 社区空投: 0.80%

- 推广商务及社区补助基金: 0.48%

- 网络节点算力: 0.22%


创始人团队

Internet Computer 协议网络是由 DFINITY 基金会建立和发展的,这是一个专注于科学追求的非营利性研究基金会。DFINITY 基金会最初由 Dominic Williams 创建,他担任创始人和首席科学家的角色。Williams 是公认和著名的加密理论家,因发明了创新的加密概念,如阈值中继和概率槽共识。


在创立 DFINITY 基金会并推出互联网计算机协议之前,威廉姆斯是 String Labs 的总裁和首席技术官,该公司是一家为新的加密初创公司提供服务的平台。他还成功地为儿童开发了网络游戏,支持了数百万用户。


DFINITY 基金会位于瑞士苏黎世。它由密码学、编程和分布式系统的世界领导者组成。除了威廉姆斯,DFINITY 基金会受益于一些行业最著名的技术专家的专业知识,包括:

- Jan Camenisch:密码学家和隐私研究员,曾领导 IBM 密码学和研究部门 19 年。

- Andreas Rossberg:WebAssembly 的共同创建者

- Ben Lynn:密码学家和谷歌工程师

- Jens Groth:密码学家,最著名的是开发了一些第一批非交互式零知识证明。

- Timo Hanke:个算法比特币挖矿优化器

- Paul Liu:拥有博士学位和工程师,设计了英特尔使用的 Haskell 编译器

- Johan Georg Granström:曾在谷歌担任高级软件工程师,Granström 还设计了 YouTube 的扩展基础设施。


Internet Computer 协议已经从 15 家投资者那里获得了近 1.67 亿美元的融资,其中包括 Andreessen Horowitz、9Yards Capital、Polychain、Aspect Ventures 和 Village Global。


DFINITY 已经进行了三轮融资。他们最近的一次投资来自 2018 年 8 月 28 日的风险投资,融资 1.02 亿美元。此外,DFINITY 于 2022 年 1 月 20 日向语音机器学习软件公司 SPEEQO 投资 2.5 万美元。


Internet Computer 协议的特点是什么?

拥有各种各样的独特功能,使其有别于其他流行的区块链。例如,因特网计算机协议(Internet Computer Protocol)是除比特币之外唯一由零中心化云计算节点操作的网络。相比之下,大约 70% 的以太坊节点和 50% 的 Solana 节点实际上由中心化机构(如 Amazon Web Services 和谷歌 cloud Service)提供的云服务器托管。


Internet Computer 协议旨在为公众提供更方便的使用体验。因此,它是唯一一个公共区块链,其中运行智能合约并直接向浏览器提供 HTTP 调用。换句话说,没有经验的用户将不知不觉地与 Web3 技术和区块链功能进行交互。


Internet Computer 协议简介

ICP/BTC 集成测试 API

2022 年 8 月 4 日,DFINITY 宣布发布 ICP 的比特币测试网应用程序编程接口(API)的 beta 版本,该接口可以与比特币网络直接交互,消除了中间人或桥梁的需要。通过集成的 API,开发人员可以立即开始开发和测试。


ORIGYN NFT 平台

ORIGYN 基金会是一家瑞士公司,专门识别、认证和解锁 NFT 在奢侈品、美术、媒体和收藏品方面的潜力,它是最早开始在互联网计算机协议上构建的公司之一。在 Impossible Things 即将推出之前,ORIGYN 发行了一个原生实用代币 OGY,这是一个由 ORIGYN 驱动的交易 NFT 的市场,支持经过验证的资产,标志着 ICP 生态系统的重大发展。

ESG 披露

ESG (环境、社会和治理) 法规针对数字资产,旨在应对其环境影响 (如高能耗挖矿)、提升透明度,并确保合规的治理实践。使数字代币行业与更广泛的可持续发展和社会目标保持一致。这些法规鼓励遵循相关标准,以降低风险并提高数字资产的可信度。
资产详情
名称
OKCoin Europe Ltd
相关法人机构识别编码
54930069NLWEIGLHXU42
代币名称
Internet Computer Token
共识机制
The Internet Computer Protocol (ICP) uses a unique consensus mechanism called Threshold Relay combined with Chain Key Technology to ensure decentralized, scalable, and secure operations for its network. Core Components of ICP’s Consensus Mechanism: 1. Threshold Relay: Threshold Relay is a consensus protocol that enables the network to achieve finality without a traditional Proof-of-Work or Proof-of-Stake mechanism. It leverages a group of nodes called "the committee" to generate a random beacon that is used for the selection of the next block producer. The protocol is designed to provide scalability and speed while maintaining decentralization by allowing any node to join the consensus process. The key feature of Threshold Relay is that it utilizes a threshold signature scheme, where a group of nodes must collaborate to create a valid signature, ensuring that consensus is achieved even in the presence of faulty or malicious nodes. 2. Chain Key Technology: Chain Key Technology is used to manage the state of the Internet Computer, allowing it to scale effectively across a vast number of nodes while still providing fast and secure transaction finality. This technology enables the creation and management of many independent blockchains (also known as subnet blockchains), each with its own set of validators. Chain Key Technology allows the Internet Computer to support billions of smart contracts without compromising speed, as it facilitates quick communication between the subnets and enables cross-chain interoperability. 3. Canister Smart Contracts: The Internet Computer utilizes a decentralized model where the computation of canister smart contracts (which hold the application logic) occurs across different nodes in the network. These canisters can run autonomously and scale with the network’s growth. Finality and Security: • The consensus mechanism ensures finality once a transaction is validated, meaning that once a block is added, it cannot be reverted, providing the security required for high-stakes applications. • The use of Threshold Relay provides robust Byzantine Fault Tolerance (BFT), enabling the network to tolerate faulty or malicious behavior without compromising network integrity.
奖励机制与相应费用
The Internet Computer Protocol (ICP) incentivizes network participants (validators, node operators, and canister developers) through various reward mechanisms and transaction fees. Here's a breakdown of the incentive mechanisms and applicable fees related to ICP: Incentive Mechanism: 1. Network Participation and Rewards: Validators: Validators are crucial for maintaining the integrity and security of the network. They stake ICP tokens to participate in consensus and are rewarded for validating blocks, maintaining the integrity of the decentralized network, and ensuring its performance. Rewards for validators are based on their participation in the consensus mechanism and their stake in the network. Node Operators: Node operators who maintain the physical infrastructure of the network (such as hardware and server resources) are also rewarded. These operators run the nodes that participate in the Threshold Relay and provide computational power to the network. 2. Canister Developers and Network Participants: Canister Smart Contracts: Developers of canisters (smart contracts) on the Internet Computer are incentivized through the creation of decentralized applications (dApps). Developers may also benefit from transaction fees generated by the usage of their dApps and the deployment of smart contracts on the network. Usage Fees: Users of decentralized applications (dApps) or canisters are incentivized to pay for their usage through fees. These fees are often paid in ICP tokens, and developers can receive a share of these fees based on the usage of their deployed applications. 3. Governance: The ICP Token is used for governance via the Network Nervous System (NNS), where holders of ICP tokens participate in decisions regarding the protocol, such as network upgrades, incentive adjustments, and the allocation of funds. Token holders are rewarded with the ability to influence the future of the network. 4. Staking Rewards: Staking: ICP token holders can participate in staking their tokens in the NNS, which influences network consensus and governance. By participating in staking, they help secure the network and are rewarded with staking rewards (a form of passive income). The staking rewards are given to token holders who participate in securing the network via the NNS. Applicable Fees: 1. Transaction Fees: Canister Calls: Every interaction with a canister (smart contract) on the Internet Computer incurs a transaction fee. These fees are typically paid in ICP tokens and are used to cover the computational resources required to process requests, store data, and manage execution. Fee Structure: Transaction fees depend on the complexity and resources consumed by the canister call or network operation. For example, operations that require more computational power or data storage may incur higher fees. 2. Storage Fees: Canister Data Storage: Developers and users who deploy applications on the Internet Computer are required to pay fees for storing data. These fees ensure that network resources are used efficiently and that canisters do not waste storage space. The cost of storage is typically paid in ICP tokens. 3. Governance Participation Fees: Voting and Proposal Fees: Participation in the governance process via the NNS (Network Nervous System) may require a small fee, depending on the type of governance action (such as submitting a proposal or voting). These fees ensure that governance is distributed and prevent spam attacks on the governance system. 4. Node and Validator Fees: Fees for Node Operations: Node operators who provide computational power to the network may incur costs related to maintaining hardware and operating nodes. These fees are partially offset by rewards for providing network resources.
信息披露时间段的开始日期
2024-09-25
信息披露时间段的结束日期
2025-09-25
能源报告
能源消耗
5834160.00000 (kWh/a)
可再生能源消耗
30.515000000 (%)
能源强度
0.00720 (kWh)
主要能源来源与评估体系
To determine the proportion of renewable energy usage, the locations of the nodes are to be determined using public information sites, open-source crawlers and crawlers developed in-house. If no information is available on the geographic distribution of the nodes, reference networks are used which are comparable in terms of their incentivization structure and consensus mechanism. This geo-information is merged with public information from Our World in Data, see citation. The intensity is calculated as the marginal energy cost wrt. one more transaction. Ember (2025); Energy Institute - Statistical Review of World Energy (2024) - with major processing by Our World in Data. “Share of electricity generated by renewables - Ember and Energy Institute” [dataset]. Ember, “Yearly Electricity Data Europe”; Ember, “Yearly Electricity Data”; Energy Institute, “Statistical Review of World Energy” [original data]. Retrieved from https://ourworldindata.org/grapher/share-electricity-renewables.
能源消耗来源与评估体系
The energy consumption of this asset is aggregated across multiple components: For the calculation of energy consumptions, the so called 'bottom-up' approach is being used. The nodes are considered to be the central factor for the energy consumption of the network. These assumptions are made on the basis of empirical findings through the use of public information sites, open-source crawlers and crawlers developed in-house. The main determinants for estimating the hardware used within the network are the requirements for operating the client software. The energy consumption of the hardware devices was measured in certified test laboratories. When calculating the energy consumption, we used - if available - the Functionally Fungible Group Digital Token Identifier (FFG DTI) to determine all implementations of the asset of question in scope and we update the mappings regulary, based on data of the Digital Token Identifier Foundation. The information regarding the hardware used and the number of participants in the network is based on assumptions that are verified with best effort using empirical data. In general, participants are assumed to be largely economically rational. As a precautionary principle, we make assumptions on the conservative side when in doubt, i.e. making higher estimates for the adverse impacts. To determine the energy consumption of a token, the energy consumption of the network(s) internet_computer is calculated first. For the energy consumption of the token, a fraction of the energy consumption of the network is attributed to the token, which is determined based on the activity of the crypto-asset within the network. When calculating the energy consumption, the Functionally Fungible Group Digital Token Identifier (FFG DTI) is used - if available - to determine all implementations of the asset in scope. The mappings are updated regularly, based on data of the Digital Token Identifier Foundation. The information regarding the hardware used and the number of participants in the network is based on assumptions that are verified with best effort using empirical data. In general, participants are assumed to be largely economically rational. As a precautionary principle, we make assumptions on the conservative side when in doubt, i.e. making higher estimates for the adverse impacts.
排放报告
DLT 温室气体排放范围一:可控排放
0.00000 (tCO2e/a)
DLT 温室气体排放范围二:外购排放
2047.79016 (tCO2e/a)
温室气体排放强度
0.00253 (kgCO2e)
主要温室气体来源与评估体系
To determine the GHG Emissions, the locations of the nodes are to be determined using public information sites, open-source crawlers and crawlers developed in-house. If no information is available on the geographic distribution of the nodes, reference networks are used which are comparable in terms of their incentivization structure and consensus mechanism. This geo-information is merged with public information from Our World in Data, see citation. The intensity is calculated as the marginal emission wrt. one more transaction. Ember (2025); Energy Institute - Statistical Review of World Energy (2024) - with major processing by Our World in Data. “Carbon intensity of electricity generation - Ember and Energy Institute” [dataset]. Ember, “Yearly Electricity Data Europe”; Ember, “Yearly Electricity Data”; Energy Institute, “Statistical Review of World Energy” [original data]. Retrieved from https://ourworldindata.org/grapher/carbon-intensity-electricity Licenced under CC BY 4.0.
市值
$22.22亿 #41
流通总量
5.38亿 / 5.38亿
历史最高价
$750
24 小时成交量
$7,874.77万
4.4 / 5
SEPA 免费充值,轻松买入Internet Computer