BR102021007899A2 - TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE - Google Patents

Abstract

New technology to make messaging data more private Enhancing privacy by enhancing encryption taking into account brain activity and your visual perception, for security and privacy when using screen devices, which enhance information security and privacy by enhancing encryption increasing cryptography by taking into account brain activity and your visual perception in the use of screen communication devices in such a way that visual information does not exist until it is observed. Where the interface image information merges from layers, in order to increase the privacy and security of the information presented on screen for people who work with confidential data, providing a privacy shield, so the information can only be viewed in a screen using the encryption bias filter, so anyone trying to get screen loggers or peeking from the side will only see a dark screen.

Description

TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE

[001] This invention deals with a new technology to make messaging data more private Improving privacy by increasing encryption taking into account brain activity and its visual perception, for security and privacy in the use of screen devices, which improve information security and privacy by increasing encryption by increasing encryption by taking into account brain activity and your visual perception in the use of screen communication devices in such a way that visual information does not exist until it is observed. Said method and device result in private screen filters with a cipher polarization mode through a tokenization system designed to be arbitrary information adding a second layer of cryptography, where interface image information merges from layers, in order to increase the privacy and security of the information presented on the screen for people who work with confidential data, providing a privacy shield, so the information can only be viewed on one screen using the encryption polarization filter, so that any anyone trying to get screen recorders or peeking from the side will only see a dark screen.

APPLICATION FIELD

[002] Technology to make message data more private, object of the present invention, is applied to any field of activity where screen devices are used, that is, smartphones, PCs, notebooks, any device that uses screen displays, more specifically for be used by people who use these devices and need to preserve the information available on the screen from third parties.

OBJECTIVE OF THE INVENTION

[003] Technology to make message data more private, object of the present invention, aims to improve privacy by increasing cryptography in the brain account and visual perception so that visual information does not exist until it is observed, providing a shield of privacy for people working with sensitive data.

PROBLEM TO BE RESOLVED

[004] High-tech manipulation trying to pass for real with the malicious intent to misinform people by deceiving unsuspecting bystanders is all too common. People tend to jump to conclusions and this makes them even more confused. The fact that deepfakes are generated by AI that can continue to learn makes it inevitable that they will outperform conventional detection technology. Another way to approach the problem is a different perspective – a different point of view. Identifying reliable information. Validate media strategies to provide more information with greater clarity and ensure they continue to serve society's needs.

[005] The identifier enables transparency and provides a global directory of publicly available media validation by registered content creators themselves. This tool will allow the user to investigate the evidence and detect possible traces of tampering or other types of inconsistencies. Knowing who is who and who owns who is fundamental for transparency and security in the sharing of information. Allows the user to assess whether the information is from a known media outlet by looking at the publication date, who wrote the content, and whether the author is trustworthy.

[006] Many distinct types of metadata can be tagged. Descriptive Metadata is descriptive information about a resource, used for discovery and identification, which includes elements such as title, abstract, author and keywords, information about image modification and editing, means of creating the data, purpose of the data, time and date of creation, creator or author of the data, location on the computer network where the data was created and the source of the data

[007] Mean ID (Smart Mean) as a certificate of reality. An essential first step is simply to raise public awareness of the possibilities and dangers of deepfakes. An informed citizenry is a crucial defense against widespread misinformation. The certification support structure should also be responsible for maintaining an up-to-date media database, revocation information on issued certificates, indicating whether the certificates are still valid. Providing information through the status of the media certificate.

[008] A user can obtain valid information by avoiding fakenews. A cloud-based blockchain database as a source for validating media source tagging and relevant information (e.g. whether or not it has been reviewed creator history). A database with privacy and encryption controls providing a fast and reliable way to assess the trustworthiness and accountability of your media content. It allows fast, real-time media processing. It would recognize patterns the same way a compression program works.

[009] Before a media creator can upload metadata files they must have an account name and password. The media is not exported as a readable file format (it cannot be processed for data visualization). Data is processed securely as metadata.

[010] One idea to consider is the use of fractal information theory (FIT) to calculate using mathematical sets that exhibit a repeating pattern displayed at all scales. Write metadata like geometric shapes or fractal beats added to a sound. The main takeaway here is that no matter how you slice/segment a video or image or how much you "zoom" the fractal, the patterns you see repeat. Data can also be blended using boundary effects as seen between the matrix and linear interference patterns as holographic data storage principles. Not interfering with the visual and auditory perception and other properties of the original media, the recording will be invisible to the human eye and not audible to the human ear. Unintelligible to humans. It is an encoding of metadata as an interference pattern of variations in opacity, density, or surface profile of the media (for example, subtle background variation or histogram). Or simply developing online information retrieval databases as a service to track digital media and bring traceability.

[011] This solution gives media content and creator a digital identity as a package. Metadata stored by the database is permanently saved and cannot be changed. It can be added later, but you can't delete what's already there. This bonding connection between the media itself and its creator/origin accessible on the blockchain is at the heart of what makes this solution unlike anything that has come before it. Public information about the media, stored on the blockchain, becomes available to the user. It protects content from tampering and improves legitimacy by displaying what the creator intended. Once the fingerprint is attached to the digital media, this data cannot be exchanged for a fake. Loading a media and storing its metadata/fingerprint in a database, the app can help identify a media using data recognition power, making it easy to reference the record on the blockchain and find the truth (presence of sound, videos, written text and images altered with artificial intelligence). It also means that copiers will not be able to register false data related to that job. An important and dangerous new phenomenon in AI: deepfakes. Deepfake technology allows anyone with a computer and an Internet connection to create realistic photos and videos of people saying and doing things they didn't actually say or do. Due to the wide accessibility of technology, such images could be created by anyone: state-sponsored actors, political groups, lone individuals. However, the biggest threat is the potential for deepfakes to be used in political disinformation campaigns. It can be even more dangerous in developing countries, where digital literacy is more limited. If so, you could really impact how society would react. The emergence of deepfakes will make it increasingly difficult for the public to distinguish between what is real and what is fake. The recent rise in fake news has raised fears that we are entering a “post-truth” world. In a world where seeing is no longer believing.

[012] Over time, this will stop people from trying to spoof the media or campaign disinformation. In reality, however, technology will only be part of the solution. That's because deepfakes will likely improve faster than detection methods. Humans and computers must work together as cooperative systems in an effort to combat misinformation. - fake technologies. To detect altered media that could lead to political misinformation, corporate sabotage or cyberbullying. A proactive action against misinformation, empowering the vulnerable population against misinformation. With each passing day society spends more time online, it's time to clean the room for a better life. Prevention and reliable information are the best protection against deepfake.

[013] Thanks to the print screen everyone has the opportunity to share the data of messages received without their consent. As organizations invest heavily in beefing up their security solutions to deal with new super threats they are still finding themselves at odds with the most basic form of shoulder surfing physical hacking. Looking at a strange phone. A prevalent type of simplistic hacking and a risk caused by Laissez's fair attitude towards screens. This so-called visual hacking happens every day in offices, airports, trains and anywhere else we access a device resulting in the theft of sensitive data.

[014] It's perfectly common to read while you watch people in your line of sight writing emails, composing texts and surfing the internet. It's people watching. Anything you say publicly on a blog or in a Facebook post or in a tweet can be shared far beyond the audience you imagined and that wreaks havoc on countless occasions people are more wary of having a permanent record of what they shared Mark Zuckerberg wrote in a post announcing the platforms shift towards prioritizing closed groups and other private communications. In addition many groups enforce privacy through rules and etiquette, but one thing defies all of that – screenshots. Sharing screenshots has become a normal part of our digital behavior. Once-private or semi-private messages circulate online amusing us and causing drama. There are entire online subcommunities dedicated to private drama made public through screenshots; Facebook groups like I'm just a simple moth to the trash fire and that's it a shameful marriage or subreddits like r/texts are built on screenshots of silly exchanges and ridiculous arguments. The popularity of shared screenshots is a reflection of our sluggish privacy sphere. As much as we try to maintain privacy in personal communications what the recipients of our data and messages do with our information is largely out of our hands. On a smaller scale sharing with someone even someone you trust can backfire spectacularly; an investigation revealed that texts and photos of Jeff Bezos with girlfriend Lauren Sanchez were compromised by Sanchez herself when she shared screenshots with her brother. The tech savvy could write code to bypass the anti-screen capture features but there is also an easy, low-tech solution just take a picture of a screen with another screen. How to safely share files online and finally bring secure messaging to the masses? It's a simple question that lacks a simple answer.

[015] But maybe it's not as complicated as you think. A Stealth mode to block spying and prying eyes.

[016] There are many reasons to use 2Mess to share disappearing messages and pictures with friends. Plus it's a great way to share something with the people you want to see, but not the whole world.

[017] The security landscape is becoming more complex as types of threats proliferate. Just because it looks so basic and low-tech don't ignore visual hacking. It is a threat that can be countered.

[018] Screen On/Off Stealth Mode turns off and password protects computers and mobile devices when they are not in use with visual perception (establishing eye contact) wherever they are. A very simple software alternative to privacy screens that prevents visual hackers from gaining access to the information displayed on the monitor.

[019] Recognizing the growing need to protect communications systems from eavesdropping. We want a more private Internet. We want to protect the Screen shot as well. We don't have strong security measures such as precautions against theft or eavesdropping and guidelines for determining when it's appropriate to share a screenshot of a conversation with another person.

STATE OF THE TECHNIQUE

[020] There are some patent documents that describe methods, systems, devices and filters for protecting display and printing screens, but none of these documents describe the invention proposed here. Among these documents, the following can be highlighted:

[021] The document 'US patent 20200081527, GAZE-DEPENDENT DISPLAY ENCRYPTION, Aspects of the technology of the subject are related to visual encryption dependent on the gaze of electronic device screens. Each display frame that is displayed on the electronic device's display may include a bright display region around the location of the user's gaze and a darkened region outside the bright display region. In this way, only the screen content that the user is actively viewing is recognizable and understandable, and an observer, such as an unwanted observer looking over the user's shoulder, cannot understand what is displayed. The obscured region of each display frame can be rendered so that the overall appearance and structure of that region remains unchanged, but the content is unintelligible. In this way, the user's visual experience is not interrupted or distracted by the visual encryption and the viewer's eye is not guided to the clear display region by the visual encryption.

DESCRIPTION OF THE INVENTION

[022] The Technology to make message data more private, object of the present invention, is Private Screen Filters with a cipher polarization mode through a tokenization system designed to be arbitrary information adding a second layer of encryption, where interface image information merges from layers. Being a privacy shield for people working with sensitive data. In such a way that information can only be viewed on one screen using the encryption bias filter so anyone trying to get screenloggers (screen loggers) or peeking from the side will only see a screen with no defined information. Where with the use of polarized crypto-polarized lenses (3) the user is able to retain additional free-form data that can be attached while the image is being created the intensity of light hitting the image element and the overall contrast of the image transmitted to the screen can also be controlled.

[023] The Privacy Filter (2) is a panel or filter placed over a screen as an overlay imaging element. Polarizing filters can be seen as a grid that only allows the passage of light waves in a certain orientation. The polarizing filters on a screen are aligned so that their grids face the same direction. The light passing through the first filter is cryptopolarized.

[024] Crypto-polarized lenses (3) have a special filter that works as a cryptographic key. To transform an encrypted image into a plain image after the image passes through the personal key filter.

[025] Thus, to view anisotropic birefringent the user must be equipped with a polarizer positioned in the light path (a second polarizer) placed in the optical path or additional smart glasses.

[026] The polarizing screen filters aligned with the smart glasses, combined with the cryptographic algorithm for transforming and processing images oriented in different directions followed by a private key alignment screen filter, compose and determine the security device and privacy, and are always complementary to each other together form visual information. For all this to work, the method encodes the data in such a way as to allow encryption with a cell phone camera and an application functioning as an electronic autocollimator optical test tool, for measuring angular displacements of specular reflective surfaces and precise angular alignment of the screen and polarizing the filter parts, resulting in the optimal measurement solution with regard to angle resolution and measurement range that is easily found.

[027] The fundamental idea behind data encoding and decoding is an algorithm that encodes the collected information as a stream of bytes and then modulates it as a '1' and '0' signal. In LCD screens each pixel presents a combination of RGB colors that produce the required composite color. In the proposed modulation the RGB color component of each pixel is slightly changed. A display device changes pixel values to encode the data. Encoding sensitive information as a stream of bytes and then modulating it on the screen by making small changes in its brightness invisible to the human eye to secretly modulate binary information into Morse code-like patterns decoded by the filter.

[028] When a compromised monitor is recorded by a screenlogger, an attacker cannot access and decode it using image processing techniques.

Encryption with spatial argument:

[029] A new concept of encrypting messages. Using AR as a private key. This is where the concept of image enhancement comes in handy. Image augmentation synthetically modifies the images to emulate the different scenarios of how humans might see the image interface. Possible enhancements include: Virtual and real background with back shading and encrypted. Combining digital interfaces with surrounding similarities. It changes as needed to resemble the local background. Active AR cryptographic messages can use either dynamic color change or backlighting. The methods used are matching the background color and pattern and interrupting the outlines. Diffuse lighting accessories, according to the local setting of the environment. It involves an algorithm that refines its behavior in response to positive or negative feedback. User clicks a button or disrupts feedback

[030] Image hiding. Appropriate pixels to blend in with the environment (complementary images / pixels / shadows) causing disruptive camouflage, background blending and counter shading. Complementary visual information (two pices AR pirate map; multi-channel information

[031] The transparent screen allows users to "share" digital content. Provides additional visual information to the brain. Multiplexing (or muxing) is a way of sending multiple signals or streams of information across a communication link at the same time in the form of a single complex signal; the receiver recovers the separate signals, a process called demultiplexing (or demuxing).

[032] Multiplexing is the simultaneous sending of multiple streams of information on a communication medium as a single complex signal which is then retrieved at the receiving end.

[033] Disruptive visual pattern, for encryption as a camouflage used to make images less visible. It uses patterns to disguise image information. This camouflage is designed to blur the visual lines of the image and is used in conjunction with padding, skins, and decals. The purpose of the standards is to avoid visual observation (and to a lesser extent photography), which would later allow screen or monitor reproduction.

[034] It can work independently or in conjunction with other encryption tools. In this tool, the (face recognition authentication and an eye tracking system). It acts as the encryption key, which allows users to view interfaces to control access to data in a very granular way, unlocking information only for the people or applications that want access to that information. Mess 2 introduces a "standardized clutter" encrypted tool interface as part of the security service platform. Help users easily embed encryption on screens This can be as simple as one-to-one communication in an encrypted messaging app, but it can be more complex at the app layer depending on how it's configured It's very powerful to have one user make this decision , but that's not the only use case.

[035] There are many different ways to enable who has visual access to the data.

[036] Regardless of how this is implemented, the user never needs to understand encryption or even know that encryption is in play in the application. All they have to do is install a polarizing filter or wear polarizing sunglasses to view your screen, enter a password like they always have (or replace passwords with, say, face recognition), and then software handles the parts. complex under the hood using encryption algorithms, is able to tweak the interface. Enabled detection and tracking technologies to intelligently understand users' observation of the screen.

[037] By choosing certain phase values for neighboring pixels, similar to focusing light with a lens, the light waves from these pixels can interfere constructively at certain positions in space. At these positions, the light from all these pixels adds up to generate a bright spot in space - a pixel.

[038] A layer mesh adding or subtracting bitmap image. Different areas that contribute to visual perception. Each processes a unique aspect of visual information. These areas are like a cinema with several screens, but here each screen shows a different attribute of the same film - some just the movement, others the colors, etc. Involved in forming conscious representations of the identity of objects. integrating image relationships between AR and our environment.

[039] Create an image to be viewed using the afterimage, a visual illusion in which retinal impressions persist after removal of a stimulus, believed to be caused by continued activation of the visual system. The afterimage can be positive, corresponding in color or brightness to the original image, or negative, being less bright or complementary in color to the original. A common afterimage is the dot of light you see after the camera flash fires. The after-image is the most easily observed of the class of phenomena known as after-feels or after-effects.

[040] Thus, as described above, due to the advantages and characteristics of configuration and operation described above, it can be clearly noted that the TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE is a new system for the State of the Art which has unprecedented conditions of innovation, inventive activity and industrialization, which make it deserve the Invention Patent Privilege.

Claims (4)

TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE, characterized by being Private Screen Filters (2) with a cipher polarization mode through a tokenization system designed to be arbitrary information adding a second layer of cryptography, where the Interface image information merges from layers, forming a privacy shield for people working with sensitive data; where the information only showing a screen without defined information for third parties; where with the use of polarized crypto-polarized lenses (3) the user is able to retain additional free-form data that can be attached while the image is being created the intensity of light hitting the image element and the overall contrast of the image transmitted to the screen can also be controlled. TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE, according to claim 1, characterized in that the Privacy Filter (2) is a panel or filter placed on a screen as an element of generation of superimposed images, where the polarizing filters can be seen like a grid that only allows the passage of light waves in a certain orientation; where the polarizing filters on a screen are aligned so that their grids face the same direction, the light passing through the first filter is cryptopolarized. TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE, according to claim 1, characterized in that the crypto-polarized lenses (3) have a special filter that works as a cryptographic key, which transforms an encrypted image into a flat image after the image passes through the personal key filter. TECHNOLOGY TO MAKE MESSAGING DATA MORE PRIVATE, characterized by using a cryptographic algorithm for transforming and processing the images oriented in different directions followed by an alignment private key screen filter being an algorithm that encodes the collected information as a stream of bytes and then modulates it as signal '1' and '0, improving privacy by increasing encryption taking into account brain activity and your visual perception visual information does not exist until it is observed'; where said cryptographic algorithm transforms and processes the images oriented in different directions followed by an alignment private key screen filter, which compose and determine the security and privacy device, and are always complementary to each other together form visual information, encoding the data as an electronic autocollimator optical test tool, for measuring angular displacements of specular reflective surfaces and accurate angular alignment of screen and polarizing filter parts.