Page 1,134«..1020..1,1331,1341,1351,136..1,1401,150..»

Chatbot glossary of terms – Geeky Gadgets

Even though the technology is not new, our the last few months our interaction with chatbots has come stratospheric. Recent developments made available by OpenAI now make it possible for companies and individuals to harness the power of artificial intelligence. Helping businesses with customer support, marketing, product development and more. Individuals are also learning faster and exploring new ideas and applications that are being created on a daily basis.

If you would like to learn more about chatbots and the terminology used when discussing technology, you will find this introductory Chatbot glossary of terms a useful resource. Providing a reference for those terms that you may not fully understand yet.

1. Chatbot: A chatbot is an AI software that is designed to converse with humans in their natural languages. These conversations can take place over various channels such as messaging applications, websites, mobile applications, or through telephone. Chatbots are typically used to automate tasks that would otherwise require human interaction, such as customer service queries, booking appointments, or providing information about a product or service.

2.Intent Recognition: In the context of chatbots, intent recognition refers to the ability of the bot to understand and ascertain the purpose behind the users input. Using Natural Language Processing (NLP) techniques, the bot can infer the users intent and respond accordingly. For example, if a user types Whats the weather like?, the chatbot recognizes the intent as asking about the weather and would ideally respond with a weather update.

3.Context Awareness: Context awareness refers to a chatbots ability to comprehend the surrounding context of a conversation. By keeping track of the conversation history and user preferences, the bot can provide relevant and personalized responses. This attribute is critical for maintaining meaningful interactions and providing the user with accurate information.

4.Rule-Based Chatbot: A rule-based chatbot operates based on a set of predefined rules. These bots can only respond to specific commands or queries theyre programmed for. While they are efficient at handling specific tasks, they tend to falter when faced with complex interactions or unexpected queries as they lack the ability to learn from experience.

5.AI Chatbot: An AI chatbot utilizes artificial intelligence (AI) and machine learning (ML) technologies to learn from previous interactions and refine its responses over time. This ability to learn allows these chatbots to handle more complex interactions than a rule-based chatbot. They use NLP to understand human language, making them capable of more natural and interactive conversations.

6. Conversational AI: Conversational AI refers to technologies that allow machines to engage in human-like conversations. These systems use NLP for understanding the input, natural language understanding (NLU) for processing the input, and natural language generation (NLG) for formulating responses. Conversational AI can be used in various applications, such as chatbots, voice assistants, and messaging apps.

7. Voicebot: A voicebot is a voice-enabled chatbot that can understand spoken language and respond in a conversational manner. Voicebots use voice recognition technology to understand verbal inputs, NLP to process the inputs, and text-to-speech technologies to provide spoken responses. Examples of voicebots include virtual assistants like Siri, Google Assistant, and Alexa.

8. Text-to-Speech (TTS): TTS is a technology that translates digital text into spoken voice output. This technology is crucial in the functionality of voicebots as it allows them to provide audible responses to the users queries. TTS is often used in applications that read out loud text content, like e-books or news articles.

9. Speech-to-Text (STT): STT is a technology that converts spoken language into written text. It is the reverse process of TTS and is used in voicebots to comprehend verbal inputs from users. This technology is commonly used in transcription services and voice-activated systems.

10. Bot Training: Bot training is the process of providing data to a chatbot, allowing it to learn and improve its performance. This process often involves teaching the bot to understand different user intents, derive meaningful entities from the input, and generate relevant responses.

11. Utterance: In the context of chatbots, an utterance refers to the input given by a user for the bot to interpret. This input could be in the form of written text or spoken words.

12. Entity: Entities are important pieces of information that a chatbot extracts from a users utterance. These could be specific details like dates, locations, product names, etc. For example, in the sentence I want to book a flight to Paris, the entities would be book, flight, and Paris. These details are crucial for the chatbot to carry out the required action.

13. Fallback Intent: This is the intent that a chatbot falls back on when it cant match a users input with any of its predefined intents. Its essentially a default response when the chatbot is unsure of how to respond. This could include responses like I didnt understand that, could you please rephrase? or Im sorry, I dont have the information youre looking for.

14. Dialog Flow: This refers to the sequence and structure of messages exchanged between a user and a chatbot within a conversation. A well-designed dialog flow is critical for maintaining a coherent and engaging conversation.

15. Multimodal Interaction: This involves interactions with a chatbot that go beyond text and voice and may include images, videos, and other forms of media. For example, a chatbot might show an image or a video clip in response to a user query, providing a richer and more interactive experience.

16. Omnichannel: This term refers to a sales or support approach that aims to provide a seamless user experience, irrespective of the channel of interaction. This could be online on a desktop or mobile device, or offline in a physical store. An omnichannel chatbot would be able to maintain a continuous conversation with a user across different platforms.

17. Response Time: This refers to the time taken by a chatbot to provide a response after receiving a users input. A faster response time usually leads to a better user experience.

18. Chatbot Platform: This is a software or service that provides the tools and infrastructure required to build, train, and deploy chatbots. These platforms usually offer a range of features, such as NLP, intent recognition, entity extraction, dialog flow management, etc. Examples include Googles Dialogflow, Microsofts Bot Framework, IBM Watson, and Rasa.

19. Human-in-the-Loop (HITL): This is a model where a human intervenes in the decision-making process of a chatbot. Typically, the human steps in when a chatbot is unable to handle a query. This not only helps in addressing user queries more effectively but also provides additional data for training the chatbot.

20. Predictive Suggestions: These are AI-powered suggestions provided by a chatbot based on its understanding of user intent and context. For instance, if a user asks a restaurant chatbot about vegetarian options, the bot could predictively suggest the most popular vegetarian dishes.

21. Widget: A widget is a small software application that can be embedded into another application. In the case of chatbots, a chatbot widget can be added to a website or mobile application, allowing users to interact with the chatbot without leaving the webpage or app.

22. On-Premises Chatbot: This type of chatbot is hosted on the users own servers instead of the cloud. This type of deployment allows for greater control over data and can potentially offer better data security. However, scalability and access can be more challenging compared to cloud-based solutions.

23. Cloud-Based Chatbot: A cloud-based chatbot is hosted on cloud servers and can be accessed from anywhere with an internet connection. While this offers ease of access and scalability, data security and privacy rely on the protocols of the cloud service provider.

24. Application Programming Interface (API): An API is a set of rules and protocols that allow different software applications to communicate with each other. In the context of chatbots, APIs are often used to integrate the chatbot with other software systems, such as CRM software or databases.

25. Active Learning: This refers to a type of machine learning where the model can ask for clarification or more data when it encounters a situation or input its unsure of. By querying the user or another intelligent system, the model can learn more effectively and continuously improve its performance.

26. Sentiment Analysis: This is the process of using natural language processing, text analysis, and computational linguistics to identify and extract subjective information from source materials. By understanding the sentiment behind a users input (e.g., positive, negative, neutral), chatbots can better tailor their responses and handle interactions more effectively.

27. Chatbot Efficacy: This refers to the ability of a chatbot to fulfil a users intent or answer a query accurately and effectively. Its essentially a measure of how well the chatbot is performing its intended function. High chatbot efficacy can lead to improved user satisfaction and efficiency in tasks like customer support or data gathering.

28. Context Switching: This refers to the ability of a chatbot to handle changes in the topic of a conversation, without losing the context from earlier in the conversation. This is important for maintaining a coherent and natural conversation, especially in longer interactions or when users bring up new topics.

29. Training Data: This is the initial set of data used to help a machine learning model (like a chatbot) learn and respond to specific situations. This data is used to train the chatbot to recognize patterns, understand different intents, extract meaningful entities, and generate appropriate responses.

30. Chatbot Analytics: This involves the analysis of data from chatbot interactions to understand its performance, identify areas for improvement, and make informed decisions for future developments. Metrics could include user satisfaction scores, response times, success rates, fallback rates, and more.

31. Conversational Interface: This is a user interface that mimics human conversation. Instead of interacting through traditional UI elements (like buttons, menus, and forms), users interact using natural language. Examples of conversational interfaces include chatbots and voice assistants.

32. Supervised Learning: This is a type of machine learning where the AI model is trained on a labeled dataset. In other words, the correct answers (or outputs) are provided alongside the inputs. This allows the model to learn the relationship between the inputs and outputs and make accurate predictions.

33. Unsupervised Learning: This is a type of machine learning where the AI model is trained on an unlabeled dataset. The model is tasked with finding patterns and relationships in the data without any guidance or predetermined labels.

34. Natural Language Processing (NLP): NLP is a field of AI that focuses on enabling machines to understand, interpret, and generate human language. NLP is the backbone of chatbot technology as it allows bots to understand and respond to user inputs in a conversational manner.

35. Natural Language Understanding (NLU): NLU is a subset of NLP that focuses on understanding the meaning and intent behind human language. This is crucial for chatbots to accurately interpret user inputs and generate relevant responses.

36. Natural Language Generation (NLG): NLG is another subset of NLP that deals with generating human language. In the context of chatbots, NLG is used to formulate human-like responses to user inputs.

37. Artificial Intelligence (AI): AI refers to the capability of a machine or software to mimic human cognitive functions such as learning and problem-solving. In the context of chatbots, AI is used to understand user inputs, learn from interactions, and generate relevant responses.

38. Machine Learning (ML): ML is a subset of AI that involves the development of algorithms that allow computers to learn and improve from experience. In the context of chatbots, ML is used to improve the accuracy and effectiveness of the bot over time by learning from past interactions.

39. Deep Learning: This is a subset of machine learning that is inspired by the structure and function of the human brain. It uses artificial neural networks with many layers (hence deep) to model complex patterns in large amounts of data. In the context of chatbots, deep learning can be used to improve the understanding of user inputs and generate more accurate responses.

40. Transfer Learning: This is a machine learning method where a pre-trained model is used as a starting point for a related task. For example, a chatbot could be pre-trained on a large corpus of general conversation data, and then fine-tuned with specific data relevant to its final task (like customer service for a particular product). This allows the chatbot to benefit from the general language understanding learned from the larger dataset, while also becoming proficient at its specific task.

For more information on the new ChatGPT chatbot created by OpenAI jump over to the official website.

Latest Geeky Gadgets Deals

Read the rest here:
Chatbot glossary of terms - Geeky Gadgets

Read More..

OCEANHOST LLC Implements Robust DDoS Protection Measures for Uninterrupted Online Operations – openPR

California City, 30 June 2023 - OCEANHOST LLC, a leading provider of web hosting solutions, is pleased to announce the implementation of robust Distributed Denial of Service (DDoS) protection measures to ensure uninterrupted online operations for its clients. The company's proactive approach to security strengthens its commitment to providing reliable and secure hosting services.

DDoS attacks pose a significant threat to businesses by overwhelming their websites or applications with a flood of traffic, rendering them inaccessible to legitimate users. Recognizing the severity of this issue, OCEANHOST LLC has invested in advanced DDoS protection measures to safeguard its clients' online presence.

Key features of OCEANHOST's DDoS protection measures include:

Multi-Layered DDoS Mitigation: OCEANHOST employs a multi-layered approach to DDoS mitigation, combining advanced traffic analysis, behavioral profiling, and anomaly detection techniques. This proactive defense strategy enables the identification and blocking of malicious traffic, ensuring uninterrupted online operations.

Scalable Infrastructure: OCEANHOST's infrastructure is designed to handle high-volume DDoS attacks. With powerful network architecture and advanced mitigation systems, the company can absorb and mitigate large-scale attacks, protecting its clients' websites and applications from downtime and performance degradation.

Real-Time Monitoring and Response: OCEANHOST's dedicated security team monitors network traffic in real time, keeping a vigilant eye on potential DDoS threats. Swift detection and response measures are implemented to mitigate attacks before they can disrupt client operations.

Automated DDoS Detection and Mitigation: OCEANHOST employs automated systems that leverage machine learning algorithms and intelligent heuristics to detect and mitigate DDoS attacks. These systems continuously analyze network traffic patterns, quickly identifying anomalous behavior indicative of an attack and applying appropriate countermeasures.

Proactive Security Measures: OCEANHOST regularly updates and fine-tunes its DDoS protection systems to adapt to evolving threats. The company works closely with industry experts to stay ahead of emerging attack techniques, ensuring that its clients' online operations remain secure.

CEO Rakib Chowdhury commented, "At OCEANHOST, we are committed to providing our clients with a secure and reliable hosting environment. By implementing robust DDoS protection measures, we are strengthening our defense against malicious attacks and ensuring uninterrupted online operations for our valued customers. Our proactive approach to security reflects our dedication to delivering exceptional hosting services."

OCEANHOST LLC's implementation of advanced DDoS protection measures reaffirms its position as a trusted provider of secure hosting solutions. Businesses can rely on OCEANHOST's commitment to protecting their online presence from the ever-increasing threat of DDoS attacks.

For more information about OCEANHOST's secure hosting services, please visit http://www.oceanhost.cloud

Media Contact:Jane AndersonPublic Relations ManagerOCEANHOST LLCEmail: press@oceanhost.cloudPhone: +1-(424) 341-3947

8124 Peach AveCalifornia City, CA 93505, USA

OCEANHOST LLC is a leading provider of web hosting solutions, offering a comprehensive range of services including shared hosting, VPS hosting, dedicated servers, and cloud hosting. With a focus on reliability, performance, and customer satisfaction, OCEANHOST has established itself as a trusted partner for businesses and individuals seeking secure hosting solutions.

This release was published on openPR.

Read the rest here:
OCEANHOST LLC Implements Robust DDoS Protection Measures for Uninterrupted Online Operations - openPR

Read More..

Apple iOS 16.6 update fixes bugs and offers security patches – The Hans India

Apple is preparing to roll out the iOS 16.6 update as it recently unveiled iOS 16.6 Public Beta 4 for iPhone users. This upcoming version is expected to focus mainly on bug fixes and security patches, but it will also bring some critical updates for iPhone users.

While everyone is eagerly awaiting the release of iOS 17 later this year, Apple has already previewed its features during the WWDC 2023 event. These features aim to enhance the iPhone experience by offering customization options for the iPhone screen calls, updating the Messages app with live stickers and faster gesture responses, introducing a new Journal app, and much more. Therefore, iPhone users can expect an improved user experience before the iOS 17 update.

Details about upcoming iPhone features with the release of iOS 16.6:

iOS 16.6 is set to introduce a new feature that allows users to verify their interactions with the intended recipient. When several people who have activated this function start a conversation, Apple will send an alert if there is any compromise in the security of cloud servers. This will warn if the conversation becomes vulnerable to unauthorized access.

According to the public beta, a new prompt for iCloud is expected to be introduced on Windows login attempts when iPhone and Windows computers are not connected to the same Wi-Fi network. The notice will recommend using a different network and emphasize the need for both devices to be on the same network to continue.

According to the Gadget Hacks website, the Beats Studio Buds may receive additional icon options by introducing two new coloured icons. Designed specifically for the Beats Studio Buds, these icons represent the ivory and definitive versions of the headphones. After updating to the upcoming iOS 16.6, Beats Studio Buds users can anticipate including either of these new icons on their iPhones.

The exact time to experience these new features is unknown, as Apple has yet to reveal the release date of iOS 16.6. However, it is expected to be available soon.

See original here:
Apple iOS 16.6 update fixes bugs and offers security patches - The Hans India

Read More..

Enterprise Mobility Market is Anticipated to Have a Steady CAGR of … – Future Market Insights

The global enterprise mobility market is anticipated to register a CAGR of 16.5% from 2023 to 2033. The report further estimates the market value to reach up to US$ 2,913,487 million by 2033, growing from US$ 630,994 million in 2023.

The adoption of enterprise mobility is growing as businesses are required to have several complementary process automation solutions. Networking of several systems is necessary to exchange critical data in real time. The use of smartphones and laptops is surging in any commercial setup, and these should be able to integrate with complex business operations effortlessly.

Providing information in context-aware, specific, customized, and standard formats for allowing users to engage through visual search in real time is driving the market. The additional demand for accessing big data and real-time business analytics is poised to accelerate the emerging trends in this market.

The surging demand for cloud servers, unified communications, collaboration applications, video call meetings, and other technological resources is regarded to have encouraged this shift.

Request a Sample of this Report @https://www.futuremarketinsights.com/reports/sample/rep-gb-14553

Key Takeaways from the Enterprise Mobility Market Study Report

Competitive Landscape for the Enterprise Mobility Market Players

Numerous significant competitors are presently controlling the enterprise mobility management & services industry in terms of market share. The businesses operating in this field are heavily investing in the development of improved solutions and business models as per the requirements of their clients. Several companies think that improving their current portfolio of specific services may draw more clients and attention to their brand.

Amtel, Blackberry, Citrix, IBM, Infosys, Microsoft, SAP, Sophos, Soti, and VMware are some leading companies highlighted in the global market report. Integration, partnership agreements, and combining businesses are some other instances of business practices that have helped enterprise mobility management companies remain competitive.

Ask an Analyst @https://www.futuremarketinsights.com/ask-the-analyst/rep-gb-14553

Recent Developments by the Enterprise Mobility Service Providers

Checkmarx Corporation released its static analysis tool, Keeping Infrastructure as Code Secure, in February 2021 for cloud-native apps. This app is free of cost and is designed to give developers more security while using Infrastructure as Code.

To enhance the capabilities of its software-as-a-service (SaaS) application security platform, Qualys Incorporation introduced Qualys SaaS Detection and Response (SaaSDR) in February 2021. As a result, users are now expected to have the security they need to deal with the increasing complexity of SaaS applications.

By January 2021, OpsRamp Corporation had expanded its network of UC monitoring for its work-from-home clients with new functionalities on its platform. These new functionalities offer solution providers a model to assist users in managing hybrid and multi-cloud computer networks and meet the requirements of WFH employees.

Key Segments

By Solution Type:

By Component:

By Deployment:

By Enterprise Size:

By Industry Vertical:

By Region:

Request for Customization @https://www.futuremarketinsights.com/customization-available/rep-gb-14553

About Us

Future Market Insights, Inc. (ESOMAR certified, Stevie Award recipient market research organization and a member of Greater New York Chamber of Commerce) provides in-depth insights into governing factors elevating the demand in the market. It discloses opportunities that will favor the market growth in various segments on the basis of Source, Application, Sales Channel and End Use over the next 10-years.

Contact Us:

Future Market Insights Inc.Christiana Corporate, 200 Continental Drive,Suite 401, Newark, Delaware 19713, USAT: +1-845-579-5705For Sales Enquiries:sales@futuremarketinsights.comBrowse Other Reports:https://www.futuremarketinsights.com/reportsLinkedIn|Twitter|Blogs

Link:
Enterprise Mobility Market is Anticipated to Have a Steady CAGR of ... - Future Market Insights

Read More..

Different types of data transfers – HostReview.com

Data transfer is an essential aspect of modern-day communication and information exchange. With the advancement of technology and the increasing reliance on digital systems, the need to transfer data efficiently and securely has become paramount. Various types of data transfers serve distinct purposes and cater to specific requirements. Understanding these different types of data transfers is crucial for organizations and individuals to make informed decisions about their data management strategies. In this article, we will discuss some of the key types of data transfers, ranging from local file transfers to cloud-based transfers, and highlight their significance in today's interconnected world. Also, we can't ignore the importance of data dictionaries in software engineering.

Different types of data transfers involve various methods and protocols to move data from one location to another. Let's explore some of the common types:

Local File Transfers: This type of transfer involves moving data within a local network or between devices connected physically or through a shared network. Common methods include using USB drives, external hard drives, or transferring files over a local network using protocols like File Transfer Protocol (FTP), Server Message Block (SMB), or Universal Plug and Play (UPnP). Local file transfers involve moving data between devices within a local network or through physical storage media. This type of transfer is commonly used for sharing files between computers, laptops, mobile devices, or any other devices connected to the same network. Local file transfers are typically faster and more reliable than transfers over the internet since they utilize a local network's higher bandwidth and lower latency. However, they are limited to devices within the same network or physically connected through storage media of asynchronous data transfer.

Network Transfers: Network transfers involve transferring data over a computer network, typically the Internet. This includes uploading or downloading files, sending emails with attachments, or accessing remote servers. Common protocols used for network transfers include Hypertext Transfer Protocol (HTTP) for web browsing, Simple Mail Transfer Protocol (SMTP) for email, and File Transfer Protocol (FTP) for file sharing. Network transfers involve data movement over a computer network, typically the Internet, between devices in different locations. This type of transfer enables communication, file sharing, and data exchange between devices connected to the network. Network transfers rely on various protocols and methods to facilitate efficient and secure data transmission. Network transfers are crucial for modern communication, collaboration, and remote work scenarios. They enable the seamless exchange of information, file sharing, and access to resources across different devices and locations. Data security, encryption, and authentication mechanisms play a vital role in ensuring the privacy and integrity of transferred data over the network.

Peer-to-peer (P2P) transfers involve direct communication between two or more devices without relying on a centralized server. P2P transfers are decentralized and allow users to share files directly. BitTorrent is a popular P2P protocol for distributing large files across a network by dividing the file into smaller parts and enabling users to download and upload simultaneously. Peer-to-peer (P2P) transfers involve the direct exchange of data between two or more devices without the need for a centralized server. In this type of transfer, each device acts as a client and a server, allowing users to share files or resources directly with other devices in the network. P2P transfers have been popularized by their ability to distribute large files efficiently, leverage the collective bandwidth of the network, and reduce reliance on centralized servers. They have found applications in various domains, including file sharing, content distribution, collaborative environments, and decentralized networks.

Cloud-based Transfers: Cloud-based transfers involve moving data to and from remote servers hosted on the internet. This includes uploading files to cloud storage platforms like Dropbox, Google Drive, or Microsoft OneDrive, which provide convenient access and synchronization across multiple devices. Cloud-based transfers often utilize secure protocols such as Secure File Transfer Protocol (SFTP) or secure HTTP (HTTPS) to ensure data privacy and integrity.

Streaming Data Transfers: Streaming data transfers are used for real-time transmission of audio, video, or other continuous data streams. Streaming platforms like Netflix, YouTube, or Spotify use protocols such as Real-Time Streaming Protocol (RTSP) or Hypertext Transfer Protocol (HTTP) Live Streaming (HLS) to deliver content seamlessly while minimizing buffering and latency.

Point of Sale (POS) Transfers: POS transfers involve data transmission between point-of-sale systems and payment processors. This includes securely transmitting credit card information and transaction details for processing payments. Payment Card Industry Data Security Standard (PCI DSS) compliance and encrypted communication protocols like Secure Sockets Layer (SSL) or Transport Layer Security (TLS) are crucial for secure POS transfers.

These are just a few examples of the different types of data transfers used in various scenarios. Choosing the appropriate transfer method depends on data size, security requirements, network infrastructure, and user preferences. Advances in technology continue to refine and expand the options available for data transfers, enabling faster, more secure, and more efficient exchange of information.

In conclusion, data transfers are an integral part of our digital lives, facilitating information exchange and seamless communication across various platforms and systems. We have explored different types of data transfers, including local, network, peer-to-peer, and cloud-based transfers. Each type offers distinct advantages and serves specific purposes, catering to the diverse needs of organizations and individuals. Whether it's sharing files within a local network, transferring data over the internet, or leveraging cloud services for storage and synchronization, the choice of data transfer method depends on speed, security, scalability, and accessibility. As technology continues to evolve, so will the methods and techniques of data transfer, ensuring that we can efficiently and effectively exchange information in an increasingly connected world. It is essential to stay updated with the latest advancements in synchronous data transfer and choose the most suitable method to meet our specific requirements and ensure smooth data flow in our personal and professional lives.

See the original post:
Different types of data transfers - HostReview.com

Read More..

Internet of Medical Things Market Assessment, By Component, By Mode of Delivery, By Product, By Type, By Application, By End-user, By Region,…

ReportLinker

Internet of Medical Things Market Assessment, By Component [Hardware, Software, Services], By Mode of Delivery [On-premises, Cloud], By Product [Stationary, Implanted, Portable, Wearable, Others], By Type [Vital Signs Monitoring Devices, Implantable Cardiac Devices, Respiratory Devices, Others], By Application [Telemedicine, Medication Management, Patient Monitoring, and Others], By End-user [Hospitals, Clinics, Home Care, Research & Academic Institutions, Others], By Region, Opportunities, and Forecast, 2016-2030F.

New York, June 28, 2023 (GLOBE NEWSWIRE) -- Reportlinker.com announces the release of the report "Internet of Medical Things Market Assessment, By Component, By Mode of Delivery, By Product, By Type, By Application, By End-user, By Region, Opportunities, and Forecast, 2016-2030F" - https://www.reportlinker.com/p06470936/?utm_source=GNW

Global Internet of Medical Things (IoMT) Market size was valued at USD 152.87 billion in 2022 which is expected to reach USD 561.82 billion in 2030 with a CAGR of 17.67% for the forecast period between 2023 and 2030. IoMT is becoming increasingly popular due to its numerous advantages such as real-time patient monitoring, improved health outcomes, increased patient engagement and better chronic care management.IoT has accelerated the development of telemedicine, remote patient monitoring, interactive medicine, fitness & wellness assessment devices, and automation in healthcare institutions.

The global IoMT market has witnessed significant growth in recent years, driven by several key factors such as increasing focus on active patient engagement & patient-centric care, the rising burden on healthcare facilities with higher incidences of chronic health conditions, and greater usage of mobile computing devices.

For instance, IoMT devices are largely being recommended by doctors for finding the cause of gastrointestinal bleeding, diagnosing cancer, celiac disease, and so on. One such emerging trend is capsule endoscopy which is done via smart or digital pills for the areas which are not easily accessible through traditional endoscopy. Medtronic, Olympus Corporation, and CapsoVision are some of the organizations that manufacture and sell capsule endoscopy.

Additionally, with the help of smart bracelets and AI-synchronized cloud servers, patients now have access to individualized care with real-time monitoring. To automate these procedure s and implement effective safety regulations, sanitation and disinfection manufacturers had also launched UV-based mobile solutions. Medical device manufacturers are introducing AI-based IoT devices and machine learning solutions to promote improved detection and enhance treatment capabilities.

Digitization is Accelerating the Market Expansion

The healthcare industry has adopted digital technology to transition from mechanical and analogue electrical devices to existing digital technology. Digital technology is frequently used in the healthcare industry to monitor patient care quality, enhance clinical supp ort, and search medical information resources. Rapid digitization of healthcare systems has aided in effective patient care. Digitization helps in the improvement of treatment continuity, the promotion of good health, and illness prevention. The use of digital tools has the potential to improve the way health data is used in research and innovation, supporting more individualized treatment, superior health interventions, and improved health and wellness services.

The American Medical Association (AMA) reported that 85% of doctors in the United States acknowledged that telehealth improved the timeliness of care, and more than 70% of them were willing to increase the use of telehealth.

Increasing Demand for Real-Time Patient Health Monitoring

Internet of medical things (IoMT) connects the physical & digital world which tracks and adjusts patient behaviour in real-time to treat chronic illnesses such as- high blood pressure, diabete s, and asthma. Furthermore, IoMT technology can also improve the flow of information and various clinical processes by connecting people (patients, care givers and clinicians), patient or performance data, processes (care delivery and monitoring), and enablers (medical devices and mobile applications). With the help of this technology, patients can receive care at home, in ambulatory care facilities, or elsewhere not connected to a hospital. For instance, in June 2022, GYANT, the patient journey automation company, launched Asynchronous Care Platform to automate patient intake in EHR to making virtual visits more efficient and timesaving with minimal physical contact.

Government Regulations

In June 2022, the American Hospital Association introduced the Protecting and Transforming Cyber Healthcare (PATCH) Act, which represents nearly 5,000 healthcare delivery organizations and millions of healthcare professionals. Under the PATCH Act, device manufacturers would have to exhibit cybersecurity precautions to the FDA before going to the market; provide transparent software bill of materials (SBOM) for transparency and greater security insights into device software components and vulnerabilities; and provide timely device security information throughout their products lifecycles. Depending on their level of cybersecurity maturity, most organisations should look at stricter governance to assess the risk of the new devices they plan to build and apply for FDA approval for to comply with the Patch Acts requirements and upcoming FDA requirements.

Wearable Medical Devices Will Grow at a Faster Rate

Wearable medical devices are becoming popular among patients of all age-groups. Even though they are among the most basic and innovative types of wearable technology, they are enduring because they easily connect with smartphone apps to provide users with priceless health and fitness tips. Companies are allocating a significantly higher percentage of their R&D budget to the development of wearable devices. Many new businesses are approaching the market with cutting-edge wea rables.

Smartwatches, which formerly served merely as timepieces and step counters, have evolved into clinically useful healthcare tools. For instance, in September 2022, Apple unveiled its latest smartwatch models. The Series 8 model is jam-packed with industry-leading health features, such as a temperature sensor that enables sophisticated functions for womens health and crash detection for car accidents. With a faster processor and longer battery life than its predecessor, the second-generation Apple Watch SE is a great Series 8 alternative for those looking for a budget friendly option.

Smart Pills Gradually Gaining Traction

Smart pills are the upcoming trend in remote patient monitoring and personalized medicine applications. Smart pills offer the ability to collect real-time data on medication adherence, vital signs, and other physiological parameters, allowing healthcare providers to monitor patients health remotely and tailor treatment plans accordingly. This trend aligns with the broader shift towards telemedicine and digital health solutions, which aim to improve patient care, increase efficiency, and reduce healthcare costs. For instance, Proteus has developed an FDA-approved smart pill system that combines sensor-enabled medication with a wearable patch and a mobile app. Their system allows for remote monitoring of medication adherence and patient health data.

Remote Patient Monitoring Will Revolutionize Healthcare

Remote patient monitoring aims to decrease healthcare costs by decreasing the requisite for in-patient visits and hospital stays while maintaining timely and efficient care. It also improves patient outcomes by enabling healthcare professionals to identify and address health issues early, lowering the likelihood of complications. The remote patient monitoring segment is anticipated to expand due to the steadily increasing elderly population. Companies are focusing on bringing in new innovative products and monitoring devices that are more convenient for usage at home. For instance, in January 2022, Omron Healthcare launched VitalSight, a remote patient monitoring programme that enables patients to commit to routine heart health monitoring from the convenience of their homes.

World Health Organization (WHO) reports that the percent age of people aged 65 and older has increased from 6% in 1990 to 9% in 2019 and is expected to reach 16% in 2050. Nearly half of Americans are very supportive of integrating remote patient monitoring into medical care.

Impact of COVID-19

The sudden emergence of the COVID-19 virus had put the whole healthcare sector on high alert. It had compelled healthcare facilities, hospitals, and diagnostic centers worldwide to embrace the utilization of IoMT technology. The creation of a new smart healthcare system based on early detection, spreading control, education and medication has been supported by Internet of Medical Things and COVID-19, making living in the new norm easier. Patients with various health conditions were forced to use techno logy-driven approaches and remote care because traditional care facilities were closed or reserved for COVID-19 patients. Telehealth and IoT-enabled wearables were in high demand during the pandemic and helped in treating patients with serious illnesses.

Key Players Landscape and Outlook

Healthcare providers and technology companies are engaging in mergers and acquisitions, joint ventures, and extensive collaborations in the IoMT sector. IoMT applications are becoming more mainstream, which is creating new challenges and opportunities for businesses in the digital health sector and driving up merger and acquisition activity. For instance, Medtronic Plc. and Surgical Theater, Inc. have jointly developed StealthStation S8 , launched in June 2023, which is a surgical navigation system. The unique Stealth-Midas MR8 high-speed drill, provides the ability to easily navigate Midas Rex tools with StealthStation navigation during spinal surgery.

Additionally, Healthcare companies like Philips and Medtronic, as well as technology giants such as Cisco Systems, Inc., IBM Corporation, Abbott Healthcare Pvt Ltd and Boston Scientific Corporation are all creating capabilities in IoMT segment.Read the full report: https://www.reportlinker.com/p06470936/?utm_source=GNW

About ReportlinkerReportLinker is an award-winning market research solution. Reportlinker finds and organizes the latest industry data so you get all the market research you need - instantly, in one place.

__________________________

Story continues

See the rest here:
Internet of Medical Things Market Assessment, By Component, By Mode of Delivery, By Product, By Type, By Application, By End-user, By Region,...

Read More..

Edge AI Market to Hit USD 54.38 Bn by 2029 at a CAGR of 20.1 percent: Says Maximize Market Research – Yahoo Finance

MAXIMIZE MARKET RESEARCH PRIVATE LIMITED

Edge AI Market is segmented into Component, Application, Device Type, Data Sources and Industry for market analysis. Increasing advancement of hardware technology and the increasing demand for real-time and low-latency processing are expected to drive Edge AI Market. The Edge AI Market was estimated using a bottom-up approach.

Pune, June 29, 2023 (GLOBE NEWSWIRE) -- A global Information Technology & Telecommunication business-consulting firm, Maximize Market Research, has delivered a market intelligence and competitive landscape report on the Edge AI Market. The report is a combination of primary data and secondary data and domain expert has analyzed the Edge AI Market from a local as well as a global point of view. Over the forecast period, Maximize Market Research expects the Edge AI market growth from USD 14.54 Bn in 2022 to USD 54.38 Bn in 2029 at a CAGR of 20.1 percent.

Edge AI Market Report Scope and Research Methodology

Market Size in 2022

USD 14.54 Bn.

Market Size in 2029

USD 54.38 Bn.

CAGR

20.1 percent (2022-2029)

Forecast Period

2022-2029

Base Year

2022

Number of Pages

276

No. of Tables

114

No. of Charts and Figures

112

Segment Covered

Component, Application, Device Type, Data Sources and Industry

Regional Scope

North America, Europe, Asia Pacific, Middle East and Africa, South America

Report Coverage

Market Share, Size & Forecast by Revenue | 20222029, Market Dynamics, Growth Drivers, Restraints, Investment Opportunities, and Key Trends, Competitive Landscape, Key Players Benchmarking, Competitive Analysis, MMR Competition Matrix, Competitive Leadership Mapping, Global Key Players Market Ranking Analysis.

Request For Free Sample Report: https://www.maximizemarketresearch.com/request-sample/190417

Edge AI Market Report Scope and Research Methodology

The Edge AI market report includes the extensive usage of both primary and secondary data collection methods. The report involves various factors affecting the industry, including the competitive landscape, historical data, current trends in the market, upcoming technologies, and the market risks, opportunities, barriers, and challenges for the Edge AI market. For the competitive analysis of the Edge AI market, major industry players are mentioned by region, along with their price, financial standing, product, product portfolio, technical developments, mergers and acquisitions, joint ventures, and strategic alliances.

Story continues

The bottom-up approach was used to establish the Edge AI market size and its estimation by various segments. Component, Application, Device Type, Data Sources and Industry are the segments used to analyze Edge AI to determine the favorable and unfavorable aspects that affect market growth. Regional analysis of Edge AI market was conducted at a local, regional and global level to understand Edge AI market penetration, price and demand analysis and competitive landscape. The report offers fundamental information on the Edge AI market such as stakeholders, investors and new entrants used to develop marketing plans and investments. SWOT analysis was used to provide the strengths and weaknesses of the Edge AI Market while PESTLE was employed to understand the potential impact of the micro-economic factors affecting the Edge AI Market.

Edge AI Market Overview

Edge AI is a computing paradigm that combines artificial intelligence (AI) with edge computing. It includes deploying AI algorithms and models directly on edge devices including sensors, cameras, gateways, and edge servers. The concept of Edge AI emerged as a response to the increasing need for real-time data processing and analysis, particularly in scenarios where latency, bandwidth, privacy, and security are critical. By bringing AI capabilities to the edge of the network, Edge AI enables faster decision-making and analysis without the need for continuous connectivity to the cloud.

Edge AI Market Dynamics

Edge AI brings artificial intelligence capabilities directly to edge devices, allowing for real-time processing and this is especially used in applications where low-latency decision-making is critical such as industrial automation, autonomous vehicles and Internet of Things (IoT) deployments. As a result, the increasing demand for real-time and low-latency processing boosts the Edge AI Market growth. The increasing advancement of hardware technology such as edge computing devices, system-on-chips (SoCs), and specialized AI accelerators is the driving factor for the market growth. These hardware advancements enable the efficient execution of AI algorithms on resource-constrained edge devices and help to grow the market. The growth of IoT devices and data, increasing concerns about data privacy and security and increasing need for real-time analytics are also the fuelling factors for the Edge AI Market growth.

The limited computing resources available on edge devices compared to cloud servers act as a major restraint for market growth. Data privacy and security and limited computational capabilities and connectivity on edge devices are also hampering factors for the market growth.

Edge AI Market Regional Insights

North America dominated the Edge AI Market in 2022 and is expected to maintain its dominance over the forecast period. Edge AI brings the power of artificial intelligence and machine learning algorithms closer to the data source, enabling real-time processing and analysis. This is particularly crucial for applications that need low latency including autonomous vehicles, industrial automation and healthcare. The increasing demand for real-time decision-making and immediate insights is driving the adoption of Edge AI technologies in the region. The proliferation of Internet of Things (IoT) devices, increasing concerns about data privacy and security, advancements in hardware technology, industry-specific applications and a supportive regulatory environment are also the boosting factors for the regional Edge AI market growth

Europe is a significantly growing region for the Edge AI market. The strong focus on data privacy and security and the significant adoption of Edge AI in sectors such as industrial automation, transportation, and smart cities are the influencing factors for regional market growth. The countries in Europe emphasize regulations including GDPR, which influence the development of Edge AI solutions.

Edge AI Market Segmentation

By Component

On the basis of the Component, the market is segmented into Hardware, Software, Edge Cloud Infrastructure and Services. The Hardware is expected to have significant growth for the Edge AI Market during the forecast period. Hardware components envelop the physical devices and equipment used in Edge AI deployments. This involves edge servers, gateways, IoT devices, sensors, cameras, AI accelerators, and specialized chips designed to help AI workloads. Hardware is used for the processing, storage, and connectivity capabilities needed at the edge.

Get Customization on this Report for Specific Research Solutions: https://www.maximizemarketresearch.com/request-customization/190417

By Application

Video Surveillance

Access Management

Autonomous Vehicles

Energy Management

Others

Based on application, the market is categorized into Video Surveillance, Access Management, Autonomous Vehicles, Energy Management and Others. Video Surveillance is expected to grow at a significant CAGR for the Edge AI Market. Video surveillance is a widely adopted application of Edge AI. By deploying AI algorithms at the edge, video surveillance systems have been performing real-time video analytics, object detection and anomaly detection. Edge AI enables fast decision-making, minimizes bandwidth needs by transmission of only relevant video footage and enhances security and response times in critical situations.

By Device type

Smartphones

Cameras

Robots

Wearables

Smart speakers

Surveillance Cameras

Edge Servers

Smart Mirrors

By Data Sources

By Industry

Automotive

Manufacturing

Healthcare

Energy and Utility

Consumer Goods

IT & Telecom

Others (Retail)

Edge AI Market Key Players Include:

Apple Inc. (United States)

Oracle Corporation (United States)

NVIDIA Corporation (United States)

Intel Corporation (United States)

Microsoft Corporation (United States)

General Electric Company (GE) (United States)

Honeywell International Inc. (United States)

Hewlett Packard Enterprise (HPE) (United States)

Amazon Web Services (AWS) (United States)

Advanced Micro Devices, Inc. (AMD) (United States)

Google LLC (United States)

Advanced Micro Devices, Inc. (AMD) (United States)

Xilinx, Inc. (United States)

Cisco Systems, Inc. (United States)

Dell Technologies Inc. (United States)

IBM Corporation (United States, but major presence in Europe)

IBM Corporation (United States, but major presence in Europe)

Accenture PLC (Ireland)

Siemens AG (Germany)

SAP SE (Germany)

Huawei Technologies Co., Ltd. (China)

Samsung Electronics Co., Ltd. (South Korea)

MediaTek Inc. (Taiwan)

NEC Corporation (Japan)

Get the Sample PDF of the Report: https://www.maximizemarketresearch.com/request-sample/190417

Key questions answered in the Edge AI Market are:

What is Edge AI?

What was the Edge AI market size in 2022?

What is the growth rate of the Edge AI Market?

Which are the factors expected to drive the Edge AI market growth?

What are the different segments of the Edge AI Market?

Read this article:
Edge AI Market to Hit USD 54.38 Bn by 2029 at a CAGR of 20.1 percent: Says Maximize Market Research - Yahoo Finance

Read More..

Wi-Fi Sensing Technology Application Analysis – Light Reading

The Wi-Fi network has been widely used and become an important communication infrastructure in the current society. In fact, Wi-Fi can not only be used for communication, but also be used to perceive and measure the activity of a particular target in an environment, as it constantly sends wireless electromagnetic waves like radar. Researchers are actively researching the Wi-Fi Sensing technology to expand the use of Wi-Fi network devices.

Wi-Fi Sensing Technical Principles

Influenced by the environment and human activities, Wi-Fi signals have effects such as fading, shadow, and multipath during transmission. By measuring the linear transformation relationship between transmitted signals and received signals, the Channel State Information (CSI) that defines channel properties can be obtained. Based on signal processing, feature analysis, and deep learning technologies, Wi-Fi Sensing filters signal noise and extracts features from CSI, and then identifies the activity status, action types, and activity patterns of a person in the environment.

Wi-Fi Sensing Technical Features

Compared with traditional cameras and infrared technologies, Wi-Fi Sensing has the following technical features:

Wi-Fi Sensing Applications

In recent years, mainstream Wi-Fi chip vendors have gradually launched chips that support real-time output of the CSI information to upper-layer applications. Wi-Fi router vendors at home and abroad have launched routers with the capability of sensing the CSI. At the same time, telecom operators have deployed cloud Wi-Fi Sensing services, which support real-time analysis of CSI flow data, statistics of activity patterns, and exception alarms. At the same time, the IEEE-802.11bf working group is actively promoting the standardization of Wi-Fi Sensing, developing the standard format and process of collecting and distributing the CSI in the Wi-Fi network.It can be concluded that the implementation and application of the Wi-Fi Sensing technology has a certain foundation. With the rapid development of AI and big data processing technologies, we expect to see more products integrating the Wi-Fi Sensing technology in our lives in the Integrated Sensing And Communication (ISAC) era, which will bring convenience to people's lives in terms of home security, intelligent elderly-care, and health monitoring.

Home security

With ubiquitous Wi-Fi signals in the home, the Wi-Fi Sensing system can accurately determine whether anyone in the monitored area is active without increasing extra hardware costs. When the homeowner is at work and there is no one at home, or when the homeowner is sleeping at night, the Wi-Fi Sensing intrusion detection function of the home router can be enabled to ensure the security of the home.

Intelligent elderly-care

In terms of intelligent elderly-care, Wi-Fi Sensing has two major typical application scenarios: fall detection and activity pattern analysis. Wi-Fi Sensing fall detection can timely detect falls of the elderly, inform their children and community assistants to take rescue measures in order to prevent tragedy. Based on the activity analysis capability of Wi-Fi Sensing, data of the elderlys daily activity frequency, trajectory, amplitude, and pattern can be collected, and a behavioral model for the elderly can be established. When the elderly's behavior suddenly changes, exception warnings will be given, and family members will be notified in advance to eliminate health hazards.

Health monitoring

The millimeter wave Wi-Fi device using the 802.11ad protocol has excellent range resolution, direction resolution, and Doppler speed measurement precision. By using the professional Wi-Fi Sensing algorithm for this type of device, the heartbeat frequency and breathing frequency of a person can be analyzed, and whether the person suffers from asphyxiation during sleep can be monitored. If the health data has an exception, the Wi-Fi network can be used to report the result in real time to gain valuable rescue time.

Conventional medical devices often require contact with the human body, and require medical professionals to perform operation and analysis, which results in high costs. In comparison, the Wi-Fi Sensing health monitoring device can implement all-time, passive and non-contact detection, and is characterized by convenient, cheap, real-time, and high accuracy, which can be used as a beneficial supplement to the professional medical devices.

ZTE has designed and trained a deep learning algorithm model that can precisely senses human activities and identify falls. Together with Wi-Fi chip vendors, ZTE is verifying the CSI sampling performance of Wi-Fi baseband chips and building CSI sample libraries related to several types of actions. Taking into account market and customer needs and specific application scenarios, ZTE is poised to combine these algorithms and models into commercial Wi-Fi router devices or cloud servers based on the 802.11bf WLAN sensing standard, and bring more commercial and social value to customers.

This content is sponsored by ZTE.

See the article here:
Wi-Fi Sensing Technology Application Analysis - Light Reading

Read More..

Congratulations to the 2023 Microsoft Partner of the Year Awards … – Microsoft

It is once again my honor to announce our Microsoft Partner of the Year Award winners and finalists. Over the past year, our global and diverse partner ecosystem has supported customers in their digital transformation with Microsoft Cloud applications, services, devices, and AI innovation. Across the cloud and edge, you have delivered unmatched value and helped organizations grow, run, and manage their businesses in new ways. The stories recognized with these awards are a showcase of your success in creating innovative solutions for our customers on the Microsoft Cloud.

We will celebrate these outstanding achievements together with all our partners across the globe at Microsoft Inspire 2023, which were hosting from July 1819. Visit the Inspire website to view event details and register.

Our partners are transforming to address evolving customer needs, responding to their increased demand for the cloud, and delivering IP and services that enable innovation, productivity, and customer success. Along the way, we have seen partners adapt to the opportunities presented by new technology from innovative uses of AI in every industry, to solutions enabling industries to operate more sustainably to drive global impact. Through the strength of our collaboration, our partner community and track record of success has continued to grow: this year we received more than 4,200 nominations across 106 countries/regions for the Partner of the Year Awards.

Your partnership is a key element to the success of our continued mission to empower every person and organization on the planet to achieve more, and is why we come together and celebrate this community every year.Together, we are more agile, inventive, and inclusive with our solutions. Thank you for your ongoing impact and creativity, which keep us on our industrys leading edge.

Congratulations to this years winners and finalists, and to all our partners who have demonstrated innovation, commitment to their customers, and consistent delivery of meaningful, accessible, inclusive, and sustainable solutions around the globe. We look forward to virtually gathering as a community to recognize and celebrate your achievements from the past year, and to share new opportunities to develop and expand your business.

Chief Partner Officer and Corporate Vice President, Global Partner Solutions

Nicole Dezen serves as Chief Partner Officer and Corporate Vice President, Global Partner Solutions (GPS) at Microsoft. She leads the commercial partner business and is responsible for building and selling Microsoft Cloud applications, services and devices with partners. She collaborates with a broad set of commercial partners including Advisory partners, device partners, Global System Integrators (GSIs), Independent Software Vendors (ISVs), and services partners to drive digital transformation, scale, business growth and profitability with partners.Nicole believes in empowering people to drive growth. She works to help partners unlock the virtually limitless power of the Microsoft Cloud to provide solutions that create new value for customers.Prior to leading GPS, Nicole led the Microsoft Device Partner Sales organization, where she successfully drove business growth and innovation across the device ecosystem by developing strategies with the most innovative original device and equipment manufacturers, silicon partners, along with resellers and distributors. Under her leadership, the team delivered opportunity and growth across Microsofts device and edge partner ecosystem spanning Windows PCs, IOT, Collaboration devices, Servers and Mixed Reality.With more than 25 years of sales experience in tech, Nicole's innate curiosity has led her from several years in telecommunications, to leading tech start-ups as CEO, to driving Microsoft's multi-billion-dollar commercial partner business today. Nicole joined Microsoft in 2007 and served in multiple roles in the US, Asia and EMEA.Nicole is a proud Los Angeleno living in the Pacific Northwest. In her personal time, Nicole is a foodie, and loves cooking family recipes, or crushing a Peloton ride. She loves to travel and experience the local culture and food in the cities and countries she visits.

View all posts

View post:
Congratulations to the 2023 Microsoft Partner of the Year Awards ... - Microsoft

Read More..

Wasm: 5 things developers should be tracking – InfoWorld

As browser-based WebAssembly (Wasm) gains interest as a back-end technology, developers are moving from Hmm, that sounds interesting to Lets see what Wasm can really do beyond browsers, video gaming, and content streaming.

At the same time, Wasm itself is starting to morph and shift. All of this makes it a good time to take another look at WebAssembly technology. As you evaluate Wasm for new uses, here are five things you should be keeping in mind.

Wasm was originally designed for the browser, and without a system interface to improve its overall security stance. The authors of the original web-focused Wasm didnt want applications to be able to request resources, in much the same way that Java applets are restrained within a browser.

But back-end developers using Wasm want an interface, so that they can port and use existing programs and programming paradigms (think Python, Ruby, web servers, etc). Enter the WebAssembly System Interface extension, aka WASI, a set of POSIX-like APIs that provide for OS-style functionality such as file systems, networking, and cryptography. WASI improves on execution and portability for existing software as well as new programs written with common, existing paradigms (using files, ports, etc.).

There has been a lot of push and pull between those who think Wasm should remain pure and those who want a POSIX-like systems interface. In fact, its a hotly contested issue in the upstream community. Some in the back-end server community have proposed a kind of compromise, suggesting that those who want to use Wasm as it was originally intended should do so, but that the interface could be added on top for those who want it. Me? I think WASI is necessary for the server side to succeed.

In some benchmark testing, Wasm demonstrates impressive performance. Wasm is fast and efficient, no doubt, but benchmark numbers should be taken with a grain of salt. For example, in the recent Vercel benchmark testing, Wasm performance was excellent. In the e-digit section, which is a computationally intensive assessment, Wasm was much faster than Java. But the dirty secret is, using the native Rust compiler written in C, running on bare metal, is still something in the neighborhood of four times as fast as Wasm. Further, in some of the other Vercel subtests, Java is much faster than Wasm.

Granted, the full performance of an application is going to be some smattering of a number of different benchmarks, but its important to note that Wasm is not a slam dunk performance-wise. This will be especially true if more elementssuch as WASIare laid on top of Wasm. Also, stay tuned for garbage collection, and how that might affect performance.

As noted earlier, Wasm is limited in scope for system security reasons. By making it less restrictive, such as when adding the WASI interface, you increase the attack surface. Its likely that the more popular Wasm gets, the more will be added to it, which will lead to more venues for human error or malicious actions. Multi-tenancy in particular is an area of concern. Is Wasm more secure than containers? Less than virtual machines? Does Wasm create a sweet security spot between the two? Maintaining this balance between functionality and security will be critical moving forward. Developers considering expanding their use of Wasm will need to be on top of (and part of) the debate.

One of Wasms biggest draws is its cross-platform portability. Wasm is a neutral binary format that can be shoved in a container and run anywhere. This is key in our increasingly polyglot hardware and software world. Developers hate compiling to multiple different formats because every additional architecture (x86, Arm, Z, Power, etc.) adds to your test matrix, and exploding test matrices is a very expensive problem. QE is the bottleneck for many development teams.

With Wasm, you have the potential to write applications, compile them once, test them once, and deploy them on any number of hardware and software platforms that span the hybrid cloud, from the edge to your data center to public clouds. A developer on a Mac could compile a program into a Wasm binary, test it locally, and then confidently push it out to all of the different machines that its going to be deployed on.

All of these machines will already have a Wasm runtime installed on them, one that is battle tested for that particular platform, thereby making the Wasm binaries extremely portable, much like Java. And when you compile a program down to that Wasm binary you can ship it out to a container registry, pull it down on another machine that has a Wasm runtime, and then run it anywherewhether the host is an M1 or M2 Mac, or an x86 system, or whatever.

When you look at how Arm and RISC are taking off, you realize that our polyglot world is only going to become more polyglot in the next five years, if not sooner. Containers plus Wasm looks like a big cross-platform win.

Another area of debate around Wasm is whether Wasm binaries should be run natively, alongside containers, or within containers. The beauty is, it really doesnt matter, as long as we all adopt the OCI Container Image format. Whether you run a Wasm binary natively on a Wasm runtime, or if that Wasm runtime runs within an OCI container (remember, theyre just fancy processes), you can create one image that can then be deployed across multiple architectures.

A single image saves disk space and compile time and, as previously noted, prevents your test matrix from getting out of hand. The benefits of running Wasm within a container is that you get defense in depth with very little performance impact. The benefit of running Wasm binaries side-by-side with containers is still to be studied, but either way, we should be able to preserve the value of the Kubernetes ecosystem. If you want to schedule Wasm containers, it will be easy because they'll all live in an OCI registry and youll be able to pull them down in Kubernetes (or Podman or Docker) and run them.

We know Wasm works well in the browser. Now its time to get excited about how Wasm could work on the server side. I think were all still learning about what Wasm might become, but in particular, Im most excited by the cross-platform potential. Could Wasm, combined with containers, truly deliver the promise of ultimate portability? I think its possible, but as technologists, well have to wait and see, and guide it where we need it to go.

Wasm is still emergingand mostly untestedon the back end. It will be important to continue to keep an eye of Wasms progress and think about how it could benefit each of our organizations. Will performance really be as good as bare metal? Will Wasm retain enough security, even with a new systems interface, to enable multi-tenancy? Lets find out together over the coming months and years!

At Red Hat, Scott McCarty is senior principal product manager for RHEL Server, arguably the largest open source software business in the world. Scott is a social media startup veteran, an e-commerce old timer, and a weathered government research technologist, with experience across a variety of companies and organizations, from seven person startups to 12,000 employee technology companies. This has culminated in a unique perspective on open source software development, delivery, and maintenance.

New Tech Forum provides a venue to explore and discuss emerging enterprise technology in unprecedented depth and breadth. The selection is subjective, based on our pick of the technologies we believe to be important and of greatest interest to InfoWorld readers. InfoWorld does not accept marketing collateral for publication and reserves the right to edit all contributed content. Send all inquiries tonewtechforum@infoworld.com.

Follow this link:
Wasm: 5 things developers should be tracking - InfoWorld

Read More..