Connectivity Regulation Challenges in IoT Deployments

2023-06-22 20:23:37
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Illustration: © IoT For All

Cellular networks are widely adopted in IoT as the most scalable and accessible connectivity solution, especially for deployments in multiple countries. However, local connectivity regulations may become a serious challenge. Many countries have already enacted legislation on permanent roaming, data sovereignty, and data localization, and more are about to follow this path. That might impact any cross-border IoT deployment that relies on cellular connectivity – now or in the future.

Regulations & Restrictions

Roaming is very useful for IoT devices – not only because they may be deployed or moved anywhere, but also because a roaming device can use more than one network, which ensures better connectivity and coverage. Yet the contracted duration time for roaming creates challenges. Most roaming agreements allow roaming for a short time, after which the device is considered permanently roaming.

In some countries, permanent roaming is prohibited. Others effectively ban it by requiring the connectivity to be provided by a locally registered operator. Some governments permit permanent roaming, but IoT regulations are always subject to change. Even if permanent roaming is not officially banned by the government, local mobile operators may block it.

Governments may also enforce restrictions on how and where data is stored. Today, 71 percent of countries have data privacy laws and another 9 percent have legislation pending. Data sovereignty and data localization rules define how data should be collected and processed. These regulatory statutes can cause significant problems for IoT devices, especially when it comes to cross-border data requests.

How Connectivity Regulations Become a Problem

Roaming restrictions potentially affect any enterprise that uses cellular networks to connect its IoT devices in multiple countries. Even though only 2 percent of IoT devices with cellular connection roam regularly, while 48 percent never move to other countries (ATMs, elevators, or smart meters) and 50 percent potentially can roam but have a certain home market (like connected cars or smart watches), up to 50 percent of cellular IoT connections might be connected using roaming as it is the simplest way to get global coverage. This is because mobile network operators frequently use roaming to connect devices on other operator networks.

Unless an enterprise complies with local regulations, its roaming IoT devices may be disconnected after a certain period without warning. If, for example, a device deployed to the Middle East from Europe is supposed to receive important updates on its functionality over a cellular network, blocked connectivity might significantly impact their business. Moreover, there will be additional charges and the hassle of reconnection, which may even require replacing SIMs.

Four Types of Requirements

Depending on regulations there are four main types of requirements for IoT deployments that use cellular connectivity

#1: IP Localization

This type of localization requires a local data center for internet breakout. A packet gateway that sends and receives data to/from IoT devices also needs to be deployed locally to avoid traffic being controlled and signaling traffic being transmitted from a foreign country.

#2: Soft Localization

This type of localization demands that a device has an International Mobile Subscriber Identity (IMSI) from a local carrier to be able to use cellular services permanently. An IMSI is a unique number used by an operator to identify the subscriber on its mobile network.  This local IMSI may come from a global provider that has a roaming agreement with a local operator, and it can be managed on a foreign core network.

#3: Full Localization

This type of localization requires a local SIM profile, and the connectivity services should be provided and managed by a local carrier. Technically, this means that an enterprise should have an agreement with at least one local operator in each country it plans to deploy IoT devices to or even several local network operators to make sure that coverage is sufficient. There also may be an issue with the management of connected IoT devices.

#4: e-Call

This type of regulation is specific to the automotive industry. e-Call is an automatic call generated from a sensor inside the vehicle in case of a serious road accident. The call is made to the nearest emergency-response network, and it includes the data on the coordinates and time of the accident to help the rescue services. Depending on the location it may require a local profile on a foreign eSIM.

More Challenges

There are also other challenges that enterprises may face when deploying IoT devices globally and they too need to be considered within the context of regulation compliance.

Multiple SKUs

OEMs usually ship the same products to various countries. But the restrictions on connectivity might force them to have multiple production lines to make different versions of the same product utilizing different carrier SIMs, which increases the cost of manufacturing, supply, and logistics.

Future-Proof

Regulations are always subject to change, which might affect businesses in the future. Back in 2020, when Turkish Information Technologies and Communication Authority required localization of data storage and eSIMs, major automotive OEMs could not import cars that already had foreign eSIMs and had to shut down e-call services so they would not fall under noncompliance with the regulation.

Latency

When devices are roaming, a foreign network typically sends the data to its home network. If data has to be transported across multiple countries to a home operator data center before it goes further to its destination, the latency increases significantly, which can create complications and even safety issues in certain industries such as automotive and healthcare.

SIM Management

Another complexity is managing the SIMs that allow IoT devices to connect to the cellular network.  This may be especially difficult when the devices fleet amounts to thousands of units and it’s virtually impossible to manage the SIMs individually.

Overcoming Challenges

Looking for a solution that helps tackle all these problems might be challenging in itself. It should be eSIM-based and allow for remote provisioning and profile swapping to address profile localization and multiple SKU problems. But on top of that, there are several important things the solution should include:

  • A roaming network is able to provide continuous coverage in any region where the devices are deployed. Since every carrier’s network may have its weaker spots, it’s necessary to find a solution provider with strong strategic partnerships that can provide you with stable connectivity anywhere without the hassle of contracting local carriers and has an economy of scale to ensure optimized price per device without compromising on quality.

  • A distributed network infrastructure. This is a major criterion for two reasons. First, it’ll be crucial for low latency, which some IoT deployments are very sensitive to – the closer any IoT device is to the data center, the lower the latency. Second, it allows us to easily comply with data localization regulations like IP localization requirements.

  • A centralized way to manage SIMs, allowing to set rules for automatic profile swapping, which would enable devices to change the carrier independently in case of location change or connectivity loss. It also needs to be transparent, providing profile and data usage visibility across all devices.

  • In light of the publication of GSMA SGP.32 IoT eSIM specification, the architecture of the solution should align with the new standard, so there will be no problems with compatibility in the future. This is no minor thing, as the lifecycle of IoT devices can span 20 years, and the new GSMA IoT standard will likely become ubiquitous.

Keep Track of Changes

Due to their evolving and ever-changing nature, connectivity regulations stand out from other challenges that enterprises may face with their IoT deployments. Just because you don’t have compliance issues in certain regions now, that doesn’t mean they won’t emerge in the next few years, nor that already deployed devices won’t need updates to meet new requirements in the future.

However, even in this era of emerging legislation on data and connectivity, there’s a good chance you’ll find a future-ready connectivity solution – and to do that you need to keep track not only of changes in regulations but of technology innovations.

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  • Cellular
  • Connectivity
  • Cybersecurity
  • eSIM
  • Mobile

  • Cellular
  • Connectivity
  • Cybersecurity
  • eSIM
  • Mobile

参考译文
物联网部署中的连接性监管挑战
插图:© IoT For All --> 细胞网络在物联网(IoT)中被广泛采用,作为最可扩展和最易获取的连接解决方案,特别是在跨国部署的场景中。然而,本地连接监管可能会带来严重的挑战。许多国家已颁布关于永久漫游、数据主权和数据本地化的立法,而且更多国家正走在这一趋势上。这可能会影响任何依赖于蜂窝连接的跨境物联网部署——无论是现在还是未来。监管与限制漫游对物联网设备非常有用——不仅因为它们可能被部署或移动到任何地方,还因为一个漫游设备可以使用多个网络,从而确保更好的连接性和覆盖范围。然而,漫游的合同期限为设备带来了挑战。大多数漫游协议只允许短期漫游,之后设备被视为永久漫游。在一些国家,永久漫游被禁止;另一些国家则通过要求连接必须由本地注册运营商提供来实际上禁止永久漫游。一些政府允许永久漫游,但物联网相关法规总是可能发生变化。即使政府没有正式禁止永久漫游,本地移动运营商也可能阻止这种行为。政府还可能对数据的存储方式和地点施加限制。目前,71% 的国家已有数据隐私法律,另外9%的国家正在制定相关立法。数据主权和数据本地化规则定义了数据应该如何被收集和处理。这些监管法规可能对物联网设备造成严重影响,尤其是在处理跨境数据请求时。连接性监管为何成为问题 漫游限制可能影响任何在多个国家使用蜂窝网络连接其物联网设备的企业。尽管只有2% 的蜂窝连接物联网设备经常漫游,48% 的设备从来不会移动到其他国家(例如自动取款机、电梯或智能电表),其余50% 的设备可能具备漫游能力但有一定的本地市场(比如联网汽车或智能手表),但高达50% 的蜂窝物联网连接仍会使用漫游,因为这是实现全球覆盖的最简单方式。这是因为移动网络运营商经常会利用漫游功能将设备连接到其他运营商的网络上。除非企业遵守当地法规,否则其漫游物联网设备可能在一定时间后被突然断开连接。例如,如果从欧洲部署到中东的设备需要通过蜂窝网络接收功能更新,被阻断的连接可能会对其业务造成严重影响。此外,还会产生额外费用和重新连接的麻烦,甚至可能需要更换SIM卡。四种类型的需求 根据法规,使用蜂窝连接的物联网部署有四种主要类型的需求。 #1:IP本地化 这种本地化需要本地数据中心进行互联网接入。一个用于发送和接收数据的包网关也必须本地部署,以避免数据流量被控制,并防止信令流量从外国传输。 #2:软本地化 这种本地化要求设备拥有来自本地运营商的国际移动用户识别码(IMSI),以便可以永久使用蜂窝服务。IMSI 是运营商用来在移动网络上标识订阅用户的唯一编号。这种本地IMSI可能来自与本地运营商有漫游协议的全球供应商,并且可以在外国核心网络上进行管理。 #3:完全本地化 这种本地化要求使用本地SIM配置文件,并由本地运营商提供和管理连接服务。从技术角度讲,这意味着企业应与计划在其国家部署物联网设备的至少一个本地运营商达成协议,甚至需要与多个本地运营商合作以确保覆盖范围充足。同时,还可能存在连接物联网设备的管理问题。 #4:e-Call 这种法规专门针对汽车行业。e-Call 是一种在严重交通事故时由车内传感器自动发出的呼叫。该呼叫会发送到最近的紧急响应网络,并包含事故坐标和时间的数据,以帮助救援服务。根据地点不同,这可能要求使用外国eSIM上的本地配置文件。其他挑战 当企业在全球部署物联网设备时,还可能面临其他挑战,这些也需要在法规合规的背景下加以考虑。 多种SKU型号 原始设备制造商(OEM)通常将相同产品出口到不同国家。但连接性限制可能会迫使他们建立多条生产线,制造使用不同运营商SIM卡的不同产品版本,这会增加制造、供应和物流的成本。 未来的法规 法规总是可能发生变化,这可能会影响未来的业务。例如,在2020年,土耳其信息通信技术管理局要求数据存储和eSIM的本地化,导致主要汽车制造商不得不暂停e-Call服务,以便遵守法规。 延迟 当设备处于漫游状态时,外国网络通常会将数据发送回其归属网络。如果数据需要跨多个国家传输到归属运营商的数据中心,然后再传输到最终目的地,延迟将显著增加,这在某些行业(如汽车和医疗)中可能引发问题,甚至安全隐患。 SIM卡管理 另一个复杂性在于管理允许物联网设备连接到蜂窝网络的SIM卡。当设备数量达到数千台时,这尤其困难,几乎不可能逐个管理这些SIM卡。 克服挑战 寻找能够应对所有这些问题的解决方案本身可能就是一项挑战。它应该基于eSIM,并允许远程配置和配置文件切换,以解决本地化配置文件和多种SKU的问题。除此之外,解决方案还应包括以下几项: 提供持续覆盖的漫游网络。由于每个运营商的网络可能都有其信号较弱的区域,因此有必要找到一家拥有强大战略合作伙伴关系的解决方案提供商,能够在全球范围内提供稳定的连接服务,而无需麻烦地与本地运营商签约,并具备规模经济以确保每个设备的最优价格,同时不牺牲质量。 分布式网络基础设施。这是一个重要标准,原因有二。首先,这对低延迟至关重要,而某些物联网部署对此非常敏感——物联网设备离数据中心越近,延迟越低。其次,它有助于我们轻松遵守数据本地化法规,例如IP本地化要求。 集中式SIM卡管理方式,允许为自动配置文件切换设定规则,这样设备在位置改变或连接中断时可以自行更换运营商。同时,该系统需要透明,能够提供所有设备的配置文件和数据使用情况的可见性。 鉴于GSMA SGP.32物联网eSIM规范的发布,解决方案的架构应与新标准一致,以确保未来兼容性不会出现问题。这一点非常重要,因为物联网设备的生命周期可能长达20年,而新的GSMA物联网标准很可能会成为行业标准。 持续关注变化 由于其不断演进和快速变化的特性,连接性法规与其他物联网部署中的挑战不同。即使您现在在某些地区没有合规问题,这也不意味着接下来几年就不会出现,也不意味着已部署的设备不会在未来需要更新以满足新要求。然而,即使在数据和连接性相关立法不断涌现的时代,您也很有可能找到面向未来的连接性解决方案——要做到这一点,您不仅需要持续关注法规的变化,还要关注技术的创新。 推文分享邮件蜂窝连接网络安全eSIM移动
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