Category Archives: Encryption
End-to-End Encryption Is Coming to Android Group Chats – WIRED
- End-to-End Encryption Is Coming to Android Group Chats WIRED
- Google opens beta program for end-to-end encryption in group chats ZDNet
- Google is testing end-to-end encryption for group chats in the Messages app TechCrunch
- Google Messages starts testing end-to-end encryption for RCS group texts Engadget
- Google celebrates 30 years of SMS with end-to-end encryption for group chats in Messages app - GSMArena.com news GSMArena.com
- View Full Coverage on Google News
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End-to-End Encryption Is Coming to Android Group Chats - WIRED
Turn on device encryption – Microsoft Support
Encryptionhelps protect the data on your device so itcan only be accessed by people whohave authorization. Ifdevice encryption isn't available on your device, you might be able to turn on standard BitLocker encryption instead.
Turn on device encryption
Sign in to Windows with an administrator account (you may have to sign out and back in to switch accounts). For more info, seeCreate a local or administrator account in Windows.
Select Start > Settings > Privacy& security > Device encryption. If Device encryption doesn't appear, it isn't available. You may be able to use standard BitLocker encryption instead.Open Device encryption in Settings.
If Device encryption is turned off, turn it On.
Turn on standard BitLocker encryption
Sign in to your Windows device with an administrator account (you may have to sign out and back in to switch accounts). For more info, seeCreate a local or administrator account in Windows.
In the search box on the taskbar, type Manage BitLocker and then select it from the list of results. Or,select Start > Settings > Privacy& security > Device encryption >BitLocker drive encryption.
Note:You'll only see this option if BitLocker is available for your device. Itisn't available on Windows 11Home edition.
Select Turn on BitLocker and then follow the instructions.
Want to learn more and find out if your device supports device encryption? See Device encryption in Windows.
Encryptionhelps protect the data on your device so itcan only be accessed by people whohave authorization. Ifdevice encryption isn't available on your device, you might be able to turn on standard BitLocker encryption instead. (Note that BitLocker isn't available on Windows 10 Home edition.)
Turn on device encryption
Sign in to Windows with an administrator account (you may have to sign out and back in to switch accounts). For more info, seeCreate a local or administrator account in Windows.
Select theStart button, then selectSettings > Update & Security> Device encryption. If Device encryption doesn't appear, it isn't available. You may be able to use standard BitLocker encryption instead.Open Device encryption in Settings.
If device encryption is turned off, select Turn on.
Turn on standard BitLocker encryption
Sign in to your Windows device with an administrator account (you may have to sign out and back in to switch accounts). For more info, seeCreate a local or administrator account in Windows.
In the search box on the taskbar, type Manage BitLocker and then select it from the list of results. Or,select theStartbutton, and then under Windows System, select Control Panel. In Control Panel, select System and Security, and then under BitLocker Drive Encryption, select Manage BitLocker.
Note:You'll only see this option if BitLocker is available for your device. Itisn't available on Windows 10 Home edition.
Select Turn on BitLocker and then follow the instructions.
Want to learn more and find out if your device supports device encryption? See Device encryption in Windows.
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Turn on device encryption - Microsoft Support
CBOR Object Signing and Encryption (COSE) – Internet Assigned Numbers …
Reserved for Private Use less than -65536 [RFC9053] No Unassigned -65536 RS1 -65535 RSASSA-PKCS1-v1_5 using SHA-1 [kty] IESG [RFC8812][RFC9053] Deprecated Unassigned -65534 to -261 WalnutDSA -260 WalnutDSA signature [kty] [RFC9021][RFC9053] No RS512 -259 RSASSA-PKCS1-v1_5 using SHA-512 [kty] IESG [RFC8812][RFC9053] No RS384 -258 RSASSA-PKCS1-v1_5 using SHA-384 [kty] IESG [RFC8812][RFC9053] No RS256 -257 RSASSA-PKCS1-v1_5 using SHA-256 [kty] IESG [RFC8812][RFC9053] No Unassigned -256 to -48 ES256K -47 ECDSA using secp256k1 curve and SHA-256 [kty] IESG [RFC8812][RFC9053] No HSS-LMS -46 HSS/LMS hash-based digital signature [kty] [RFC8778][RFC9053] Yes SHAKE256 -45 SHAKE-256 512-bit Hash Value [kty] [RFC9054][RFC9053] Yes SHA-512 -44 SHA-2 512-bit Hash [kty] [RFC9054][RFC9053] Yes SHA-384 -43 SHA-2 384-bit Hash [kty] [RFC9054][RFC9053] Yes RSAES-OAEP w/ SHA-512 -42 RSAES-OAEP w/ SHA-512 [kty] [RFC8230][RFC9053] Yes RSAES-OAEP w/ SHA-256 -41 RSAES-OAEP w/ SHA-256 [kty] [RFC8230][RFC9053] Yes RSAES-OAEP w/ RFC 8017 default parameters -40 RSAES-OAEP w/ SHA-1 [kty] [RFC8230][RFC9053] Yes PS512 -39 RSASSA-PSS w/ SHA-512 [kty] [RFC8230][RFC9053] Yes PS384 -38 RSASSA-PSS w/ SHA-384 [kty] [RFC8230][RFC9053] Yes PS256 -37 RSASSA-PSS w/ SHA-256 [kty] [RFC8230][RFC9053] Yes ES512 -36 ECDSA w/ SHA-512 [kty] [RFC9053] Yes ES384 -35 ECDSA w/ SHA-384 [kty] [RFC9053] Yes ECDH-SS + A256KW -34 ECDH SS w/ Concat KDF and AES Key Wrap w/ 256-bit key [kty] [RFC9053] Yes ECDH-SS + A192KW -33 ECDH SS w/ Concat KDF and AES Key Wrap w/ 192-bit key [kty] [RFC9053] Yes ECDH-SS + A128KW -32 ECDH SS w/ Concat KDF and AES Key Wrap w/ 128-bit key [kty] [RFC9053] Yes ECDH-ES + A256KW -31 ECDH ES w/ Concat KDF and AES Key Wrap w/ 256-bit key [kty] [RFC9053] Yes ECDH-ES + A192KW -30 ECDH ES w/ Concat KDF and AES Key Wrap w/ 192-bit key [kty] [RFC9053] Yes ECDH-ES + A128KW -29 ECDH ES w/ Concat KDF and AES Key Wrap w/ 128-bit key [kty] [RFC9053] Yes ECDH-SS + HKDF-512 -28 ECDH SS w/ HKDF - generate key directly [kty] [RFC9053] Yes ECDH-SS + HKDF-256 -27 ECDH SS w/ HKDF - generate key directly [kty] [RFC9053] Yes ECDH-ES + HKDF-512 -26 ECDH ES w/ HKDF - generate key directly [kty] [RFC9053] Yes ECDH-ES + HKDF-256 -25 ECDH ES w/ HKDF - generate key directly [kty] [RFC9053] Yes Unassigned -24 to -19 SHAKE128 -18 SHAKE-128 256-bit Hash Value [kty] [RFC9054][RFC9053] Yes SHA-512/256 -17 SHA-2 512-bit Hash truncated to 256-bits [kty] [RFC9054][RFC9053] Yes SHA-256 -16 SHA-2 256-bit Hash [kty] [RFC9054][RFC9053] Yes SHA-256/64 -15 SHA-2 256-bit Hash truncated to 64-bits [kty] [RFC9054][RFC9053] Filter Only SHA-1 -14 SHA-1 Hash [kty] [RFC9054][RFC9053] Filter Only direct+HKDF-AES-256 -13 Shared secret w/ AES-MAC 256-bit key [kty] [RFC9053] Yes direct+HKDF-AES-128 -12 Shared secret w/ AES-MAC 128-bit key [kty] [RFC9053] Yes direct+HKDF-SHA-512 -11 Shared secret w/ HKDF and SHA-512 [kty] [RFC9053] Yes direct+HKDF-SHA-256 -10 Shared secret w/ HKDF and SHA-256 [kty] [RFC9053] Yes Unassigned -9 EdDSA -8 EdDSA [kty] [RFC9053] Yes ES256 -7 ECDSA w/ SHA-256 [kty] [RFC9053] Yes direct -6 Direct use of CEK [kty] [RFC9053] Yes A256KW -5 AES Key Wrap w/ 256-bit key [kty] [RFC9053] Yes A192KW -4 AES Key Wrap w/ 192-bit key [kty] [RFC9053] Yes A128KW -3 AES Key Wrap w/ 128-bit key [kty] [RFC9053] Yes Unassigned -2 to -1 Reserved 0 [RFC9053] No A128GCM 1 AES-GCM mode w/ 128-bit key, 128-bit tag [kty] [RFC9053] Yes A192GCM 2 AES-GCM mode w/ 192-bit key, 128-bit tag [kty] [RFC9053] Yes A256GCM 3 AES-GCM mode w/ 256-bit key, 128-bit tag [kty] [RFC9053] Yes HMAC 256/64 4 HMAC w/ SHA-256 truncated to 64 bits [kty] [RFC9053] Yes HMAC 256/256 5 HMAC w/ SHA-256 [kty] [RFC9053] Yes HMAC 384/384 6 HMAC w/ SHA-384 [kty] [RFC9053] Yes HMAC 512/512 7 HMAC w/ SHA-512 [kty] [RFC9053] Yes Unassigned 8-9 AES-CCM-16-64-128 10 AES-CCM mode 128-bit key, 64-bit tag, 13-byte nonce [kty] [RFC9053] Yes AES-CCM-16-64-256 11 AES-CCM mode 256-bit key, 64-bit tag, 13-byte nonce [kty] [RFC9053] Yes AES-CCM-64-64-128 12 AES-CCM mode 128-bit key, 64-bit tag, 7-byte nonce [kty] [RFC9053] Yes AES-CCM-64-64-256 13 AES-CCM mode 256-bit key, 64-bit tag, 7-byte nonce [kty] [RFC9053] Yes AES-MAC 128/64 14 AES-MAC 128-bit key, 64-bit tag [kty] [RFC9053] Yes AES-MAC 256/64 15 AES-MAC 256-bit key, 64-bit tag [kty] [RFC9053] Yes Unassigned 16-23 ChaCha20/Poly1305 24 ChaCha20/Poly1305 w/ 256-bit key, 128-bit tag [kty] [RFC9053] Yes AES-MAC 128/128 25 AES-MAC 128-bit key, 128-bit tag [kty] [RFC9053] Yes AES-MAC 256/128 26 AES-MAC 256-bit key, 128-bit tag [kty] [RFC9053] Yes Unassigned 27-29 AES-CCM-16-128-128 30 AES-CCM mode 128-bit key, 128-bit tag, 13-byte nonce [kty] [RFC9053] Yes AES-CCM-16-128-256 31 AES-CCM mode 256-bit key, 128-bit tag, 13-byte nonce [kty] [RFC9053] Yes AES-CCM-64-128-128 32 AES-CCM mode 128-bit key, 128-bit tag, 7-byte nonce [kty] [RFC9053] Yes AES-CCM-64-128-256 33 AES-CCM mode 256-bit key, 128-bit tag, 7-byte nonce [kty] [RFC9053] Yes IV-GENERATION 34 For doing IV generation for symmetric algorithms. [RFC9053] No
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CBOR Object Signing and Encryption (COSE) - Internet Assigned Numbers ...
Remember Y2K? Brace for Y2Q, when public encryption keys can be hacked – Techgoondu Techgoondu – Techgoondu
Cybersecurity experts are pondering an emerging challenge known as Years To Quantum, or Y2Q, which is when quantum computers develop to the point where they can break widely used public encryption keys.
With the keys, hackers can access banks, hospitals, transportation systems or any other critical infrastructure to wreak damage, said Shisir Singh, chief technology officer of BlackBerry.
Y2Q is keeping Singh awake at night because it is a cyber catastrophe waiting to happen. The encryption algorithms used in the public encryption keys are very weak. They have been around for 15-20 years. Some one will try to break them.
The implications of Y2Q are many, but the chief concern is the increased vulnerability it brings to smart cities like Singapore. The interconnected digital infrastructure of smart cities means that a hack on part of the system can have a cascading impact on the entire infrastructure.
Said Singh: Like Y2K, which took the industry more than five years and US$100 billion to fix, solving the Y2Q is going to take time, because replacing cryptography is much more difficult than adding a couple of digits to a date field.
In fact, experience tells us it could take even longer, cost much more money, and a whole of industry effort to solve, he added.
There have been many reports around the world about the looming threat posed by Y2Q. Estimations of when Y2Q will hit varies between 2024 and 2030.
From a governments point of view, Singh said that a regulatory framework like standardising post-quantum cryptography can be imposed to ensure critical parts of the economy are quantum ready.
Governments together with the tech industry should consider ways of taking pre-emptive steps safeguard their cryptosystems, he added.
Singh was in Singapore on October 12 to attend Cyber Security World Asia, a two-day expo held at Marina Bay Sands.
He also pointed out that the Covid-19 pandemic have resulted in organisations facing unprecedented cybersecurity challenges.
The emerging Work From Anywhere (WFA) trend, increasing cloud adoption and popularity of software-as-a-service solutions pose cybersecurity headaches for organisations.
In the WFA trend, workers are using their homes, cafes and other public places as remote offices. But these places are not ready to be branch offices, said Singh, and they have no firewalls and little or no Internet security.
This is paradise for hackers because they can easily hack into workers devices and networks to steal identities and passwords which, in turn, can be used to access corporate infrastructure and steal intellectual property, money or other critical information.
Organisations are also using a multitude of security solutions to monitor network activity and detect illegal intrusions. The result is that a lot of data is collected. But the data is not talking the same language making it difficult for cybersecurity professionals to make sense of the data.
Exacerbating these challenges is the popularity of cloud adoption and software-as-a-service solutions which have opened up a torrent of Internet traffic on networks and increased the attack surface for hackers.
Hence the importance of artificial intelligence and machine learning to help make sense of the humongous amount of data that is being collected today by security solutions.
The AI and ML systems can sieve out the noise the unimportant information that makes up the majority of the data stream and only pick out a small part that matters to organisations.
The small part comprises the suspicious network activity and user patterns that could pose as cyber threats.
Cybersecurity professionals can then deal with the data that matters, undertaking the analysis and taking follow-up action. Previously, cybersecurity professionals have to play catch up all the time, Singh explained.
To identify the potential threats from the humongous data stream could take days which means that emerging threats often could go undetected.
BlackBerry has been training its artificial intelligence (AI) and machine learning (ML) systems from the telemetry collected by nearly 500 million end points where its security software is running. With the training, AI and ML systems can sieve out the noise and identify the suspicious activity.
To prepare customers for the next generation of cyber threats, Blackberry is also offering a zero-trust policy framework.
This is about secured connectivity for managed devices which are trying to access data from the data centres or cloud services, said Singh.
It is a very stringent framework where the network is continuously monitored based on user behaviour based analysis and threat protection and data protection, he added.
During the pandemic, he noted that there was a 630 per cent increase in illegal cyber activity in the last two years.
Banking Encryption Software Market Report 2022: Growing Partnerships Between Key Players Facilitating Further Expansion – Yahoo Finance UK
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Global Banking Encryption Software Market
Global Banking Encryption Software Market
Dublin, Oct. 12, 2022 (GLOBE NEWSWIRE) -- The "Banking Encryption Software Market Size, Share & Trends Analysis Report by Component, by Deployment, by Enterprise Size, by Function (Cloud Encryption, Folder Encryption), by Region, and Segment Forecasts, 2022-2030" report has been added to ResearchAndMarkets.com's offering.
The global banking encryption software market size is expected to reach USD 5.03 billion by 2030, expanding at a CAGR of 13.0% from 2022 to 2030, according to this study conducted. The growing need for modern security solutions worldwide is anticipated to drive the growth of the industry. In addition, the rising incidences of cyber-attacks also bode well for growth.
Banking encryption software facilitates the confidential exchange of vital data by encrypting the data at the sender's end in a form not readable without a proper authentication key, which is usually in the form of a password. The receiver can use the authentication key to decrypt the data and read it. The strong emphasis banks and other financial institutions are putting on securing data transactions is driving the adoption of banking encryption software.
The growing partnerships among the encryption software providers are expected to drive market growth. For instance, In April 2021, Google Cloud and Broadcom collaborated. This collaboration increased the integration of cloud services into Broadcom's primary software franchises. In this partnership, Broadcom was able to make enterprise operations software and its security suite available on Google Cloud, enabling organizations to encrypt and decrypt data at the column level.
Banking Encryption Software Market Report Highlights
The software segment is expected to dominate the segment over the forecast period. This is due to its offered benefits such as security and privacy protection to the financial institutes
The cloud segment is anticipated to witness the fastest growth over the projection period. The growth of the segment can be attributed to the inexpensive deployment and customization options
The large enterprise segment dominated the market in 2021. Large organizations are adopting encryption solutions to meet the changing security needs owing to the rising incidences of cybercrimes
The cloud encryption segment is anticipated to witness the fastest growth because of its capability to facilitate a cost-effective and scalable encryption model
The Asia Pacific regional market is expected to witness the fastest growth over the projection period due to an increase in demand for encryption software among banks in developing countries in the Asia-Pacific, including China and India, to safeguard and ensure the privacy of data
Story continues
Key Topics Covered:
Chapter 1 Methodology and Scope
Chapter 2 Executive Summary
Chapter 3 Banking Encryption Software Industry Outlook
Chapter 4 Investment Landscape Analysis
Chapter 5 FinTech Industry Highlights
Chapter 6 Banking Encryption Software Component Outlook
Chapter 7 Banking Encryption Software Deployment Outlook
Chapter 8 Banking Encryption Software Enterprise Size Outlook
Chapter 9 Banking Encryption Software Function Outlook
Chapter 10 Banking Encryption Software Regional Outlook
Chapter 11 Competitive Analysis
Chapter 12 Competitive Landscape
Companies Mentioned
Broadcom
ESET North America
IBM Corporation
Intel Corporation
McAfee, LLC
Microsoft
Sophos Ltd.
Thales Group
Trend Micro Incorporated
WinMagic
For more information about this report visit https://www.researchandmarkets.com/r/y97abs
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