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Ultra-Wideband: Theorizing Pinpoint Construction Asset Tracking

2022-09-10
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Illustration: © IoT For All

If you have a smartphone—which is likely—there’s a good chance it’s an Apple iPhone or a Samsung Galaxy It’s also likely that you’ve heard the term “ultra-wideband” thrown around by both brands. But what is ultra-wideband, and could it have real application in other industries such as construction? We will discuss ultra-wideband (UWB), how it could theoretically apply to construction applications like location finding and security, and particularly how it could improve on current offerings in the market, such as barcoding/equipment tagging, Bluetooth®, and GPS tool tracking.

'With so many possibilities for utilization, we expect ultra-wideband to enter the construction sphere in the coming years.' -Lucas Marshall and Johnny LienauClick To Tweet

Defining Ultra-Wideband (UWB)

Ultra-wideband (UWB) is a wireless technology for transferring data that spreads radio energy over a very wide frequency band, with a very low power spectral density. As its name suggests, it uses a wide spectrum of several gigahertz (GHz). UWB is also characterized by high bandwidth and very high data throughput.

Previously known as “pulse radio,” a UWB transmitter sends billions of pulses across the wide spectrum frequency. A corresponding receiver then translates the pulses into data by listening for a familiar pulse sequence sent by the transmitter. Pulses are sent about once every two nanoseconds. This helps UWB to achieve real-time accuracy. In short, ultra-wideband is intended to transmit vast amounts of data over a short distance without using too much power.

Whether or not you know the exact physics involved, we have all likely experienced the woes of traditional radio systems firsthand. That’s because these systems are susceptible to electromagnetic interference—unwanted radio frequency signals that disrupt and negatively impact your signal. This interference is the downfall of traditional radio systems and what causes degraded sound or picture quality in your TV, radio, cordless telephone, or mobile device. With UWB, this interference is greatly reduced, compliments of the extremely wide bandwidth and low power spectral density.

UWB communications systems are inherently immune to detection and interception. Low transmission power means eavesdroppers would have to be extremely close to the transmitter (in the proximity of 1 meter) to be able to detect the transmitted information. This—coupled with the fact that UWB pulses are time-modulated with codes that are specific to each transmitter/receiver pair—makes UWB transmission promisingly secure, such that possible applications include military operations, even those requiring the highest degree of security

Ultra-Wideband Uses

There are three main applications of ultra-wideband, all of which could have great benefits for construction:

#1: Seamless Access Control

This is a great option for streamlining while increasing security at access points of buildings. UWB can identify an individual’s approach toward or away from a secured entrance, verify security credentials, and let the authorized individual pass through the entrance without physically presenting the credential.

#2: Location-Based Services

UWB delivers highly precise positioning, even in congested multipath signal environments. Location-based services have a wide variety of applications:

  • Allowing people to easily navigate large venues, like airports or shopping malls, or find their car in a multi-story parking garage
  • Digital marketing agencies running targeted campaigns and generate foot traffic data
  • Retailers offering personalized deals
  • Government agencies tailoring notifications
  • Entertainment venues personalizing recommendations during events

#3: Device-to-Device (Peer-to-Peer) Services

Device-to-Device, or Peer-to-Peer, is a great way to locate individuals. Providing precise relative distance and direction between two devices, like yours and a loved one’s smartphone, UWB allows for relative location finding of each other without infrastructures such as anchors and access points. This would allow you to easily find each other in crowded spaces or find misplaced items. It would also come in handy for picking out where your friends are in a sea of people.

Industry Use Cases  

While primarily used in radar imaging in the past, the ultra-wideband market has grown tremendously over the years and there are plenty of both civilian and non-civilian applications, such as:

  • Military Operations: Since its infancy, ultra-wideband has been explored in military applications due to its resistance to interference, scalability, and durability through harsh conditions and environments.

  • Consumer Electronics: We have seen it find its way into the iPhone 11 as well as brands like Samsung and Sony involved in UWB projects. devices. In fact, as the first manufacturer to integrate ultra-wideband in a smartphone, Apple’s ultra-wideband chip, appropriately named U1, is a big deal, a location chip designed with special awareness in mind.

  • IoT devices: UWB’s capacity for transferring lots of data quickly, its high degree of security, and its wide range (which makes it suitable for multiple applications) make it a natural contender for the Internet of Things (IoT). One small caveat—its short range—can be remedied through antenna design.

  • Automotive: UWB shows real promise in the automotive industry, particularly in key FOB design, where it can be used to more accurately predict proximity and the overall efficacy of these devices. In fact, automotive heavy-hitters like VW have already announced their intended use case of this exciting technology.

Ultra-Wideband for Construction

The construction space has two exceptional ultra-wideband uses:

#1: Location Finding

Ultra-wideband has real potential for asset locating in construction projects. Considering that large contractors can face upwards of $1.2 million for replacement tools and lost productivity in a year, a robust tool tracking system is key to staying profitable. Tool managers turn to a few methods to keep track of tools and equipment, and none of them are without their faults:

  • Barcoding: Also known as equipment tagging, is a simple, cost-effective way to keep tabs on a wide variety of tools and equipment. The downside: you only get visibility each time they’re scanned in.
  • GPS Trackers: We all know about GPS. Everybody uses GPS to reliably get from point a to point B, but there are also plenty of downfalls to GPS… like when you can’t get a signal. This is because GPS requires a satellite signal. Not only this, but it can be costly and draw a lot of battery.
  • Bluetooth Trackers: Bluetooth trackers draw on your mobile device’s Bluetooth connection and require your items to come within range of your device to generate a location update. Bluetooth tracking offers greater tracking functionality than having to scan a barcode each time. The biggest drawback is its lack of real-time data and precision locating capabilities of GPS.

#2: Tool & Equipment Tracking

The biggest attraction to GPS for inventory tracking is its accuracy. Its biggest downsides are its exceeding expense and its excessive battery consumption. Ultra-wideband distinguishes itself from GPS because it is able to transfer great volumes of data, with lightning speed, while also being low power. It’s also able to perform with exceptional accuracy in the harshest environments.

Just as short-range Bluetooth Low Energy (BLE) works well for job sites that are off the beaten path, ultra-wideband’s range is short. This range and reception can be improved with multiple UWB receivers throughout building sites, precisely tracking tool movement down to the centimeter level. UWB tags could be embedded in a tool to track it at a job site.

#3: Security

If we consider again the security checkpoints that ultra-wideband delivers in commercial buildings, to verify security credentials, this same principle could be applied across your operations—from entering your headquarters to checking in and out tools from the crib or tool room. Its resistance to interception also helps inhibit attackers from trying to snoop in on what’s happening across your systems. This kind of security, when coupled with embedded smart tool security, brings new meaning to the term 2-factor-authentication (2FA).

A Wireless, Connected World

While it’s not necessarily the new kid on the block, ultra-wideband is finally finding its way into smartphones, and for good reason. Its pinpoint accuracy and security features lend themselves to many industries, from military ops to digital marketing campaigns to construction project management. With so many possibilities for utilization, we expect ultra-wideband to enter the construction sphere in the coming years.

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  • Asset Tracking
  • Bluetooth
  • Connectivity
  • Construction
  • Equipment Tracking

  • Asset Tracking
  • Bluetooth
  • Connectivity
  • Construction
  • Equipment Tracking

参考译文
超宽带:理论化精确建筑资产跟踪
如果你有一部智能手机,很有可能是苹果的iPhone或三星的Galaxy,你也很有可能听过这两个品牌抛出的“超宽带”这个词。但什么是超宽带,它能真正应用于其他行业,比如建筑业吗?我们将讨论超宽带(UWB),如何在理论上应用于建筑应用,如定位和安全,特别是如何改善目前市场上的产品,如条形码/设备标签,蓝牙®和GPS工具跟踪。超宽带(UWB)是一种传输数据的无线技术,它在非常宽的频带上传播无线电能量,功率谱密度非常低。顾名思义,它使用的是几千兆赫(GHz)的广谱。超宽带还具有高带宽和非常高的数据吞吐量的特点。以前被称为“脉冲无线电”的超宽带发射机在宽频范围内发送数十亿个脉冲。然后,相应的接收器通过监听发射机发出的熟悉的脉冲序列,将脉冲转换为数据。脉冲大约每两纳秒发送一次。这有助于超宽带实现实时精度。简而言之,超宽带旨在在短距离内传输大量数据,而不需要使用太多的电力。不管你是否了解其中的确切物理原理,我们都可能亲身体验过传统无线电系统的痛苦。这是因为这些系统容易受到电磁干扰——不受欢迎的无线电频率信号,干扰和负面影响你的信号。这种干扰是传统无线电系统的衰落,也是导致电视、收音机、无绳电话或移动设备音质或图像质量下降的原因。在超宽带下,这种干扰大大减少,极大的带宽和低功率谱密度互补。超宽带通信系统天生不受检测和拦截。低传输功率意味着窃听者必须非常接近发射机(在1米以内)才能探测到传输的信息。再加上UWB脉冲是用特定于每个发射机/接收机对的编码进行时间调制的事实,使得UWB传输非常安全,这样可能的应用包括军事行动,甚至那些需要最高程度安全的应用。超宽带有三个主要应用,所有这些都可能对建设有很大的好处:这是一个很好的选择,在提高建筑接入点的安全性的同时,简化。UWB可以识别个人接近或离开安全入口的方式,验证安全证书,并让获得授权的个人通过入口,而无需实际出示证书。超宽带提供高精度定位,即使在拥塞的多径信号环境。基于位置的服务有各种各样的应用:设备对设备,或点对点,是定位个人的一种很好的方式。在你和爱人的智能手机等两个设备之间提供精确的相对距离和方向,超宽带允许在没有锚点和接入点等基础设施的情况下找到彼此的相对位置。这样你们就能在拥挤的地方很容易找到对方,或者找到放错地方的东西。它还可以在人海中帮你选择朋友的位置。虽然超宽带过去主要用于雷达成像,但近年来超宽带市场增长迅速,民用和非民用应用领域也有很多,例如: 超宽带在建筑项目资产定位方面具有真正的潜力。考虑到大型承包商可能面临超过120万美元的更换工具,并在一年内失去生产力,一个强大的工具跟踪系统是保持盈利的关键。工具管理人员求助于几种方法来跟踪工具和设备,而这些方法都有各自的缺点:GPS用于库存跟踪的最大吸引力在于其准确性。它最大的缺点是超支和过度的电池消耗。超宽带与GPS的区别在于它能够以闪电般的速度传输大量数据,同时功耗也很低。它还能在最恶劣的环境中表现得异常准确。就像近距离低功耗蓝牙(BLE)可以很好地用于那些不常使用的工作场所一样,超宽带的范围很短。这种范围和接收可以通过整个建筑工地的多个超宽带接收器提高,精确跟踪工具的移动到厘米级别。超宽带标签可以嵌入到工具中,以便在工作现场跟踪它。如果我们再次考虑超宽带在商业建筑中提供的安全检查点,以验证安全证书,同样的原则可以应用于您的操作—从进入您的总部到检查婴儿床或工具室的进出工具。它对拦截的抵抗也有助于阻止攻击者试图窥探您的系统中正在发生的事情。这种安全性与嵌入式智能工具安全性相结合,为术语2因素认证(2FA)带来了新的含义。虽然这并不是什么新鲜事物,但超宽带终于找到了进入智能手机领域的方法,而且是有原因的。从军事行动到数字营销活动,再到建筑项目管理,它精确的准确性和安全特性适用于许多行业。有了如此多的利用可能性,我们预计超宽带将在未来几年进入建筑领域。
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