TW201611563A - Enveloping for device independence - Google Patents

Abstract

Cloud computing enables a user to access all his or her applications and documents from anywhere in the world, freeing the user from the confines of the desktop. This invention comprises techniques on how to enhance privacy via enveloping/de-enveloping for device independence in cloud computing. Embedded data by the enveloping techniques may be digital voices, image, video, or other digital data. We use 4-to-4 WF muxing to exemplify the implementations, introducing customized enveloping/de-enveloping with other known digital files or parameters.

Description

Digital seal with device independence

The present invention relates to a method of data packaging (digital encapsulation) for cloud storage and transmission and an architecture thereof. The method and architecture of this digital seal is to use wavefront override (WF override). Its focus is on the appearance of digital seals and digital unsealing and the reliability of data after sealing.

According to a report by mailonline (http://www.dailymail.co.uk) on August 31, 2014, nude photos of highly regarded actors, models, singers, and presenters have been posted online. Apparently it was the result of a hacker leak and the leak of Apple's iCloud service. These photos appear on 4chan (4chan is an image sharing forum) is a 101-person photo uploaded by one of its users; including Jennifer Lawrence, Ariane Glamand, Victoria Gastis, Private photo with Kate Upton. These photos were posted on Sunday night. It is said that the celebrity's mobile phone was hacked because of a vulnerability in iCloud. Apple declined to comment. The privacy of celebrities has been seriously violated.

Better privacy protection in cloud computing and cloud storage is exactly what is needed. Digital packaging technology will enhance the privacy protection of cloud computing and cloud storage.

Wavefront overlying techniques have been used in the above mentioned U.S. patent application (Pa. No. 12/848,953, 13/938,268, 13/953,715). Compared to the cloud computing and storage technologies of the system, the wavefront overlay technology can use less memory space for better redundancy, higher reliability and survivability. In addition, these techniques can also be used to monitor the integrity of stored data without having to review the stored data itself. The same technology can be extended to data streams on the cloud; including cloud video streams and cloud audio streams.

There are two other issues that require more attention. One is related to the provision of secure and encrypted storage services by operators. However, file privacy is based on file encryption on the server side of the carrier. Many operators' operators still have access to encryption programs. Therefore, the customer's file privacy must rely on the operator's and server operators' first-hand ethics and integrity. The second is the concern about the residual rights of cloud storage data; this issue is still under intense debate.

Many patent claims that apply to the invention of the wavefront are intended to address these issues; enhance the privacy and reliability of data cloud transmission and data cloud storage. Many of the data in the cloud can even be image or audio related. Since multiple sets of cloud transported or stored data are pre-processed on the client side, each set of cloud transport or cloud-stored data is a set of data that has been processed by wavefront over-conversion. These overwritten data are no longer the original data that can be interpreted. Therefore, the digital sealing method recommended in the application should give customers more confidence in the privacy and reliability of these cloud storage data, and this confidence no longer depends solely on the operator's first-hand ethics and integrity concerns. In the digital encapsulation method, known image, audio, or multimedia data can be used as a digital envelope as a means of promoting the storage and transportation of private and reliable cloud data. Most business opportunities are aimed at gaming and entertainment cloud communication applications. It can be used in a variety of digital goods copyright management and copy rights applications to protect intellectual property rights holders. The digital “seal or stamp” certified by these multi-layer digital sealing technologies will be a highlight of this patent application.

Digital images will be used to illustrate the digital sealing/unsealing technique of this patent application. Other types of digital streams can be easily incorporated into the proposed sealing technique.

First, a brief introduction and summary of the implementation mode of the "write and read" process. “The process of writing is to use a set of wavefront overlay conversions to process multiple sets of raw data, including digital images and digital messages as digital envelopes, and then store the resulting transformed data in the cloud. "The process of reading 〞 is to reconstruct the original multi-group digital image by transforming the data that exists in the cloud over the set of wavefront decoding. Digital sealing is a writing method under certain functional constraints and a subset of the “writing process”. These digitally sealed data will have some of the characteristics of the original digital envelope. It should store some original image features or other features. These functional restrictions are to ensure that the characteristics of the digital envelope will appear in the converted multi-group data. Digital Decapsulation is a subset of the reading program that has the ability to reconstruct the original digital message from digitally sealed data.

Digital seals are a subset of applications that are applied in wavefronts. The plurality of serial input digital files covered by the wavefront include at least one string of data message files and a series of selected digital envelope files. At the same time, this wave of pre-applied configurations is customized to weight the sum through all the multi-inputs, and it must be ensured that its multi-output data appears to the appearance of the human body with the selected digital envelope image, video, Or the appearance of the audio format is exactly the same. This type of output file is either a sealed file or an embedded message. The embedded message can be restored by the corresponding wavefront decoding processor at the destination with the received sealed file and the known original digital envelope.

In short, digital sealing/unsealing can be achieved by wavefront override and wavefront cancellation. Wavefront-based data after operation is characterized by increased privacy and redundancy in data cloud transmission and cloud storage. On the other hand, for the redundancy of wavefront application applications, data sealing is applied in the opposite direction. Data encapsulation is applied to a limited receiving user team, enhancing the privacy of the digital file after the seal, but minimizing or completely sacrificing the redundancy of the digital file of the post-sealing message.

The wavefront override/demultiplexing function is the invention of Space Digital Systems (SDS) in the field of satellite communications; the most difficult requirements include communication power synthesis, security, reliability and optimization algorithms. This wavefront overlay/disassembly technology not only embodies the communication architecture using multi-dimensional transmission, but also finds that this program can be used in applications beyond the field of satellite communications. One such application is data transmission and data storage in the cloud; data confidentiality, integrity and redundancy are important features of data transmission/storage. Digital sealing and de-sealing can be used for data transfer and data storage. They can be used for gifts and games such as digital fortune cookies. In this application we will use data transfer as an example, such as the delivery of mail, the concept of digital sealing and digital unsealing. Digital unsealing can also be called digital Kaifeng.

The invention of the digital sealing/unsealing technique relates to transmitting a wavefront-converted data string to a destination through a cloud; but instead of transmitting all of the data strings, a filtered partial data string is transmitted. The wavefront overlay converted data string is also referred to as "overriding the converted data string" or "overriding the data string." A set of sealed data streams is transformed by a wavefront overlay with a set of known data strings. As a product of a set of sealing programs. The known data string for this group is a digital envelope, which can be the sender's personal image, which is used to indicate who is sending the digitally sealed data. Different digital envelopes may also be different pictures showing the sender's complex mood, and multiple sets of data sent at the same time can be "covered under different digital envelopes. In the communication between family members, digital envelopes may be the old digital home video clips into new data streams. All family members have old video and new data streams after editing.

Wavefront Overlay/Unclave is used in the field of digital sealing applications. Other known data streams can be set as detection, authentication, and identification function signals. One of the methods is to first seal and then save to the IP cloud. The method includes: first converting the plurality of sets of first data into the plurality of sets of digitally sealed second data, wherein the set of the sealed second data is Is a different weighted sum of all the plurality of sets of first data; and then storing the sealed second set of second data to the IP cloud via the Internet. At the same time, a plurality of different links connected to the stored second data are stored at the transmitting end.

The data processing method includes: converting, at a transmitting end, a plurality of sets of first data sets and a set of known data into a plurality of sets of digitally sealed second data sets, wherein each of the set of sealed second data is Included with a set of weighted sums of all of the first data sets; and restored at the receiving end from some of the "masks" in a second data set after being sealed into a plurality of sets of third data sets and said set of known data sets And wherein each of said sets of third data is a different weighted sum of all of said plurality of digitally sealed sets of second data sets.

A method for storing data in an IP cloud, comprising: converting, at a transmitting end, a plurality of sets of first data sets into a plurality of sets of digitally sealed second data sets, wherein each set of the second data after each set of sealed Is a data image consisting of different weighted sums including all of said first data sets, the intensity of the unique appearance of each piece of data being primarily controlled by a set of said first data. The unique appearance can be images, sounds, and other features of the human body sensor.

Similar to the invention in the field of digital digital rights management using digital sealing/unsealing technology is included in the number 14/517717 titled "Digital Rights Management and Broadcasting Digital Sealing Application Request has been applied in October 2014 Proposed on the 17th. The original digital file is called the master of the file. The other copies are child versions; each child version is created by embedding a unique digital and unique identification file with the master digital envelope technology for digital envelopes. A unique digital logo associated with a child's version can only be recovered with the parent version through the unwrapped process. Publication and distribution files are only sub-versions, and the parent version will be stored securely.

Mathematically, a master file is represented by A, and one of its x subversion files is represented by X. This sub-file unique digital identification file is represented by Dx. Since digital plus-encapsulation processing is a linear process, the relationship between the x-sub-file X and its master file A involves X = M * A + Dx, where M is the amplification factor and should be greater than one. Another boundary condition for this relationship is that the appearance of X is almost identical to the master of the human body. The Dx message is embedded and hidden in this sub-version digital file X, and it is impossible to restore the Dx only through the X file alone.

Another y subversion file of the master file A is represented by Y. This sub-file is uniquely represented by the digital ID file application Dy.

In order to restore and restore this sub-file unique digital identification file Dx from a sub-file X, this file X and its master file A must be restored by Dx= X - M * A operation or equivalent operation process. Restore this digital ID file Dx.

Similar techniques can be extended for rebroadcasting to provide additional messages to viewers. The first master broadcast file can be represented by A. The second broadcast file B is embedded or hidden in the sub-page broadcast file X after being processed by the seal. Since the seal processing is a linear processing, the relationship between the sub-broadcast file X and the master broadcast file A is based on X = M * A + B, where M is the magnification factor and should be greater than 1. Another boundary condition for this relationship is that the appearance of X is almost identical to the master of the human body. B is an additional message file embedded and hidden in this sub-version digital file X, and it is impossible to restore the restored second broadcast file only by the word broadcast file X alone. In order to restore the second broadcast file B of the restored additional message from the sub-digital file X, the sub-broadcast file X and its first master broadcast file A must simultaneously operate through B = X-M * A or equivalent. The operation process restores this additional second broadcast file B.

Re-broadcasting may pass through different channels simultaneously, through the same channel at different times, or through different channels at different times. This technology can be used for live or satellite (DBS), cable, fiber, and other audio or video broadcasts over wireless or wired networks. The embedded or hidden file B can be different television programs, housekeeping data for the set top box, internet data broadcast to selected internet nodes, and/or other data.

Cloud computing allows a user to get the files and applications he or she needs whenever and wherever, freeing the user from his or her desktop context. The present invention relates to the use of digital encapsulation/decapsulation techniques to gain data privacy in a cloud computing operation. The hidden data embedded by digital sealing technology can be digital audio, image, video, or other digital data. In the illustration, we use 4 to 4 wavefronts to implement the seal conversion, and introduce other known digital files and parameters needed for custom seal/unpackage conversion.

The invention will be more fully understood from the following description, taken in conjunction with the accompanying drawings. The drawings are not necessarily to scale, the

Illustrative embodiments are now described. Other embodiments may be used in addition or instead. In order to save space or render more efficiently, obvious or unnecessary details may be omitted. Instead, some embodiments may be implemented without revealing all the details.

The present invention utilizes a set of distributed transmission paths or stored systems and methods that are generated with built-in redundant M to -M wavefront overlay techniques; where M 3 2 must also be an integer. The M-string data stream connected to the input port of the wavefront includes an N-string message data stream and an additional M-N-string known file data stream; wherein N 3 1 is also an integer. These M-string independent input data streams are converted by wavefront to the wavefront components (wfcs) of the M-string output in the multiplexed domain. Only the M' string in the M string output will be used for data cloud transmission and/or data cloud storage, where M-N ≦ M' ≦ M and M' is an integer.

In addition, any of the known data archive streams can be selected as digital transmission envelopes and will be processed for use as part of a set of M-to-M wavefront overfill processes.

Appropriate weighting or weighting to a set of M to -M wavefronts The processor's multi-string input is an efficient way to select a string of inputs as a "carrier" transport embedded message. At least one of the M string outputs will be selected as the sealed data file. Its "carrier" is a weighted digital envelope, and for the human sense, it should have exactly the same appearance as the original digital envelope. These same looks include features that are unique from the data file and easily distinguishable from other files. These features can be intuitive pictures, videos, audio music, text files, or multimedia files.

At least one string of encrypted data will be sent to the destination via the cloud. This encrypted data stream may appear as digital images, video clips, music clips, audio recordings, or digital cartoons in cloud shipping or cloud storage. Just like the function of regular envelopes, these digital envelopes can convey context and embed messages, authors of authors and authors' emotional previews, or messages from embedded mail.

For human organs, the original digital envelope and the digital stream after the seal should have exactly the same appearance. These appearances are identified and distinguished by human hearing organs, visual organs, or both types of organs.

The receiver at the destination should utilize a post-processor, such as wavefront demultiplexing, to reconstruct the embedded message data with the help of the original digital envelope. The original digital envelope must be a known file of the receiver, or a data string that can be learned from other channels.

The present invention discloses the business concept, method, and implementation process of the sealing/unsealing application through wavefront overtaking and cloud transmission. As shown in FIG. 1, a similar technology can be applied to the video stream to ensure data storage service privacy. Ensure file transfer security and other applications that use the Internet cloud. Embodiments of the present invention include three important areas, including (1) pre-processing at the user end, that is, the above-mentioned wavefront override, using a selected digital envelope to seal a digital letter; (2) embedding an embedded message The cloud on the digital stream is sent, and (3) the post-processing on the user side, that is, the wavefront solution described above, and the original digital letter in the digital envelope is restored by de-sealing. We will use a single user as an example to illustrate the concept of pre- and post-processing operations.

In principle, pre- and post-processing are performed in the user segment and on the user's device. For cloud storage, these seals/decapsulations can also be performed in the operator's storage facilities and processes. Operators can distribute aggregated data sets across different cloud storage facilities through cloud remote networks.

Example 1

Figure 1 depicts a communication business concept 110 between a sender of a source and a receiver at a destination. The sender sends a set of message data S(t) into the selected digital envelope E5(t) using a set of 2 to 2 wavefront pre-processors in pre-processing 130. The input data is in the English-language phrase "Open Sesame〞 and its Chinese translation of 4 Chinese characters" in Sesame and the related pronunciation symbols. The digital envelope chosen was a Chinese painter, Xu Beihong, a digital painting of the famous horse in the early 1900s. In addition, in the user envelope, there are 11 digital envelopes in the candidate envelope document 180 that are known to all users in the community; including the sender and receiver of the letter. There are two outputs from the wavefront adder in the pre-processing 130; one is the sealed digital stream Es(t) that will be sent to the cloud, and the other is grounded. The Es(t) is the result of processing pixel by pixel from two input data files; S(t) and E5(t). Wavefront coverage can be done with a set of 2*2 sea aunt transforms. The magnitudes of S(t) and E5(t) will be appropriately "adjusted" so that the appearance of Es(t) and E5(t) is identical for human organs; as in a US patent application publication number 2014 It was discussed in detail in /0081989A1. . In this case, the horse in Es(t) appears to be a flip image of the same horse in E5(t).

After the wavefront is overwritten, Es(t) is a string of sealed data streams, which is also the only file sent to the destination via the IP network or cloud 010. The Es(t) appearance is almost identical to the running horse in the E5(t) famous image in human visual sense. At the destination, the receiver can restore the message enclosed in the digital envelope through a set of 2*2 wavefront de-splits or equivalent processors and original digital envelopes in post-processing 140; , Chinese phrases and Chinese pronunciations are written in China's embedded letters; only when provided to the receiver. The entire operational process package includes three parts discussed below: (1) pre-processing 130, (2) IP transport channel, IP cloud, or cloud 010, and (3) post-processing 140 downstream of the cloud.

Pre-processing 130..

In the pre-processing of mail or message encapsulation, a set of 2 to 2 wavefront pre-processors in pre-processing 130 can be used for processing. It has two strings of inputs; one string is mail data or message data S(t), and the other string is the selected digital envelope or digital envelope string E5(t). There are also two output data strings after the wavefront override, namely Es(t) and Ed(t), where: Es(t) = S(t) + am* E5(t) (1-1) Ed(t ) = S(t) + am* E5(t), (1-2) where am >> 1 is the magnification factor associated with the image, usually set between 5 and 30.

In a set of 2 to 2 sea aunt matrices (HM), all matrix elements are "1" or "-1". This set of matrices can be selected as a set of 2 to 2 wavefront overriding conversion operations. Equations (1-1) and (1-2) can be written in matrix form as O = HM * I (2) where: O = [O1, O2]T = [Es(t), Ed(t)] ^T (2 -1) HM = (2-2) I = [I1, I2] ^T = [S(t), am*E5(t)] ^T (2-3)

The port of the wavefront applicator is often referred to as a "slice" and its output port is referred to as a wavefront component (wfc). Two strings of input data sets S1(t) and am*E5(t) are respectively connected to the input port, that is, slice 1 and slice 2 of the wavefront prep. At the same time, the other two strings of output data, namely O1-O2, are respectively connected to the output ports of the wavefront coverr in the pre-processing 130, that is, wfc1-wfc2.

Usually two sets of orthogonal wavefront vectors or WFVs are generated in a set of 2 to 2 wavefronts. Let us define a set of wavefront conversion coefficients wjk coefficients used to describe the two-dimensional output vectors that the wavefront overlay distributes in the jth and kth columns in preprocessing 130. That is, O1, O2 in the pre-processing 130 the two-dimensional component ports wfc1-wfc2 of the wavefront de-emphasis are defined as a set of two-dimensional vectors. They are mutually orthogonal. The two sets of WFVs of the wavefront applicator 101 are: WFV1 = [w11, w21] ^T = [1, -1] ^T , (3-1) WFV2 = [w21, w22] ^T = [1, 1] ^T , (3-2)

S(t) and E5(t) are "attached" to the two sets of orthogonal wavefronts using two input ports respectively connected to the wavefront overlay in pre-process 130. Both sets of orthogonal wavefronts are represented by two sets of wavefront vectors (WFVs). The two components in each wavefront vector (WFV) involve a linear combination of input and output port numbers or (spatial) sequences, but it is completely independent of the input and output data sets.

The wavefront override conversion math operation can divide a string of data into data blocks, then treat several bytes in different data blocks as digital samples, and then perform multiple sets of multiple and multiple sets of digital operations. All sets of sub-digital streams input in parallel must be matched with the conversion input port on the wavefront to determine that the samples sampled by different sub-digital streams are aligned. Each byte of data can be treated as a single digit sample; the X bytes of a data string can also be treated as a single digit sample. For example, in the mathematical operation of a string of digital streams, we chose X=7, which means that every 7 bytes in the string of digital streams will be treated as a single digit in the mathematical operation of wavefront override conversion. sampling. , will be treated as a block number calculation, wavefront override conversion. Two strings of 7 bytes for digitally sampled digital streams can be connected to two corresponding inputs of a set of 2 to 2 wavefront pre-caps. However, the two corresponding outputs of the wavefront precoder must use X +1 bytes as the sampling size unit to avoid the overflow and underflow problems of the two outputs. In this case, each string of output digital streams requires a conversion operation of 8 bytes. The 8-bit operation output form result yields a 12.5% overhead relative to the 7-byte computed data size. In addition, in different embodiments, we can select the sampling size of 99 bytes for the mathematical operation, that is, the operation data size of X = 99 bytes, which can reduce the operation overhead to 1%.

There are other data block choices in the operation of the wavefront over-converted linear combination or weighted sum. For example, in some imaging processes that retain unique functional applications, pixel-based arithmetic operations may be more important. It is also possible to use a row or column of pixels as a valid use data block for the storage operation.

In this embodiment, only one of the two outputs is transmitted to the destination. The intended recipient must have "more messages" to re-embed the embedded digital message or digital mail in the digital stream after the cover; the English short sentence in the word format "Sesame open door and its Chinese translation and pronunciation written in 4 words" . This group of "more messages" refers to the original digital envelope selected. If both output data can be passed to the receiver, both the embedded message and the selected original digital envelope can be independently restored at the destination through the two data without any additional known messages.

In general, from a higher-order wavefront overlay conversion or a multi-layered multi-string or multi-string output stream, at least one or a string of these sealed digital streams will be sent to the destination through the IP cloud 010 for post-processing. 140. Embedding emails are covered in these serialized digital streams. Higher order wavefront overrides are often referred to as N-to-N wavefront overrides; where N is typically between 4 and 5000. The destination to be sent to should be limited to less than the NCR stringed digital stream. NCR is always an integer smaller than N. Without any other known information, the NCR serialized digital stream does not have enough independent messages to reconstruct the digital message over the NCR stringed digital stream.

Cloud 010..

Only a series of wavefront overlay files are sent from the source to the destination through the cloud 010. The original digital envelope pair is a known digital file for both the sender of the source and the recipient of the destination. Therefore, the channel bandwidth required to give Es(t) transmission in the cloud is roughly the same as the channel bandwidth required to transmit only the embedded message S(t). The difference in the frequency band required to transmit Es(t) and S(t) in the cloud can be regarded as the overhead of the sealing process.

Post processing 140..

The post-processing 140 is for retrieving data from the cloud, including using a set of wavefront decoding processors, converting the data received after the retrieval into an embedded or hidden original data file, and then converting the original data file. Output. The original digital envelope file E5(t) is one of the post-processing 140 input data and is also input to the set of wavefront decoding processors. The data received after retrieval from the cloud should be the pre-appreciation data of the pre-existing cloud. If not contaminated, it is substantially equal to the corresponding output data set, Es(t), after the previous wavefront is applied in the pre-processing 130. Therefore, the original data file outputted can be given to Es(t) or given to Es'(t). Similarly, the converted embedded or hidden original data file is equal to the input data S(t) and thus may be referred to as S(t) or S'(t).

According to the formula (1-1); the hidden message data embedded in the sealed stream can be restored by the received wavefront data Es(t) and the digital envelope E5(t); S(t) = Es(t) - am* E5(t) (4)

Here; the am parameter can be determined experimentally or through a known digital archive set. Therefore, it is also possible to reconstruct the second series of outputs missing in a set of 2 to 2 wavefront overrides according to equations (1-2) and (4). Ed(t) = -Es(t) + 2*am * E5(t) (5)

A set of 2 to 2 sea aunt matrix elements is "1" or the matrix element is "-1" and may be selected as a set of 2 to 2 wavefront decompressors. These relationships can be written in matrix form; SM = HM* D (6) where: D = [D1, D2] ^T = [Es(t), Ed(t)] ^T (6-1) SM = [S( t), am E5(t)] ^T (6-2) HM is a set of 2 to 2 sea aunt matrices in equation (2-2).

The wavefront decapper is in post processing 140. Its input ports are called wavefront components (wfcs), ie wfc1 and wfc2, and its output ports are called slices, ie slice1 and slice2 or slice 1 and slice 2. In this post-process 140 wavefront decomposer example, the input 2 string numbers, Es(t) and Ed(t), are connected to their input ports wfc1-wfc2, respectively. The reassembled message string, S1(t), is output from its first output port. Typically, the second output port of the wavefront de- hopper will be grounded in the post-processing 140 application.

Alternatively, the second output of the wavefront deblocker from post processing 140 can also be used to reconstruct another original digital envelope. This corresponding copy will be compared to known digital envelope files and can be used as a good indicator of integrity for verifying received message data. If the comparison shows that the two digital envelopes are not the same digital file, this means that the received digital string has been damaged during transmission. That is to say, the message data and the reconstructed message data in the sealed digital string may have been damaged.

1A and 1B depict 6 pieces in the candidate envelope first sub-document 180-1 and 5 pieces of candidate digital envelopes in the candidate envelope second sub-document 180-2, respectively. E5(t) is selected for the example in Figure 1. E11(t) in Figure 1B is a commonly known digital archive selected for private communication between a pair of senders and receivers.

Figure 2 is a copy of Figure 5D in U.S. Patent Application Serial No. 13/953,715 and Publication No. 20140081989. It is an example of wavefront override/union as a pre- and post-processing in a cloud data storage application, designed to illustrate the rendering of a rendered image through a set of 4-to-4 wavefront overlays. Like storage to distributed cloud storage. Wavefront overriding/unwrapping can be done numerically through any set of orthogonal matrices or a set of non-orthogonal matrices, as long as its inverse matrix is present. The first column 521 in this figure shows the original input image, the second column 522 shows the image stored after the wavefront is overwritten or the image waiting to be delivered after the wavefront is overwritten, the third column 523 shows an image restored and restored after the destination has been unwrapped. The four images in the first column 521 are four images that were input to a set of 4-to-4 wavefront overlays; the first three were recently taken at the Bronx Zoo in New York City, first. The second and third photos, respectively, are an "Eagle" marked with A1.png, a "Tiger is marked with A2.png, and a "White-headed animal is marked with A3.png." The fourth piece is a classic work by the famous Chinese painter Xu Beihong in 1930. "The running horse is marked with A4.png.

Let us assume that a group of 4 to 4 sea amas are transformed into wavefront override matrices.

It is the 4 pieces of wavefront-covered files Ov, Ox, Oy, and Oz on the second column 522 have camouflage effects; this is the original 4 pieces of input images created by wavefront overlay conversion. The data has been added with different weights. In order to ensure that the A1 image of the running horse is a more prevalent feature in the file after the four wavefront is applied, the converted pixel intensity is transmitted through the following matrix under the condition of weighted A1 image. Operation: (7)

Where am > 1 and is usually set to be greater than 10. It is also assumed that the sizes of the grids of the pixels in the four input images are already completely equal. The weighted weight selection can be applied to any input image depending on the camouflage image. In addition, formula (7) can also be equivalently written as: (7-1)

Therefore, Xu Beihong's "Running Horse" paintings dominated the four images that participated in the conversion, and the images of the running horses appeared in the converted data of all four wavefronts, namely Ov, Ox, Oy. , and Oz. The different images of the running horses with different appearances show different brightness settings with different output images.

For the sealed archive image or appearance relative to the appearance of the digital envelope, other image operations such as "turning over, rotating, zooming in, or zooming in is necessary to be processed before the wavefront is overwritten. .

In order to avoid data overflow and underflow in the image analog operation, each wavefront data (Ov, Ox, Oy, Oz) file is restricted to the original image A1-A4 or the restored image (Sv, Sx, Sy, Sz) is 2 to 3 times larger.

The image in the third column is reorganized through a set of reading processes. This "reading process" also has two steps. The first step involves downloading the 4 pre-filtered files from the cloud. The second step is to convert four pre-filtered files, such as Ov, Ox, Oy, and Oz, into four pieces of recovered or reconstructed files Sv, Sx, Sy, and Sz through wavefront demultiplexing. If the Ov, Ox, Oy, and Oz stored in the cloud are not contaminated, the four reconstructed digital files should be almost identical to the images A1 - A4 before the wavefront is overwritten. The four recovered or reconstructed equalized image files can then be converted into four recovered or reconstructed images by de-equalization processing to substantially correspond to four separate original images A1 to A4.

Assuming all four files Ov, Ox, Oy, and Oz are available, the wavefront solution conversion should follow: (8) Among them, . (8-1)

More specifically, each pixel intensity in each of the four reconstructed images (Sv, Sx, Sy, Sz) is the result of a linear combination of the brightness of a set of images relative to the pixel. This relative pixel refers to the grid of the same row and column of the image file after the four wavefronts are overwritten. For example, in Sv, Sx, Sy, and Sz, the single-pixel intensity of the lattice of the 41st and 51st columns in the reconstructed or restored image is composed of 4 pieces of wavefront-coated images Ov, Ox, Oy, and Oz. The single pixel intensity of row 41, column 51 of each piece is multiplied by the weighted sum of the respective weighting parameters.

In the seal application, only one string of the file is overwritten by the sender through the cloud to the destination. As an example, A 1 may be that message data is delivered to the destination through the cloud, and A4 is the selected digital envelope. For the sender and the receiver at the destination, A2, A3 and A4 are known digits that have been tested first.

Any of the four files in the second column 522 can be used as a sealed digital string, which can communicate the digital message embedded in it (A1) through the cloud. Let us choose Ov to do the post-sequence digital string that is shipped to the destination or to be called the sealed data file. Obviously, the sealed data file Ov shows an image of a horse that is running. This image is basically the same as the image of the running horse on the digital envelope A4. The sealed digital string or the sealed data file Ov is covered with A1 digital information, and is also a file that is sent to the destination through the cloud.

We will not repeat all the mathematical details of the image processing described in this chart here. In summary, we use the same mathematical operations described above to seal digital messages or embed messages that will be transported via the cloud into digital envelopes. We want to show two important features of wavefront application in the sealing/unsealing application. After the selected digital envelope (A4) during the sealing process; 1. The selected message A1 is embedded in the selected seal data (Ov). Seal the data or the digital after sealing, seal the digital string, and seal the data. 2. For human senses, the original digital envelope A4 and the sealed digital string or the sealed data file (Ov) should appear to have the same characteristics, and these same features can be clearly seen from other digital files (A2, A3 and A1) Distinguished in. 3. A2 and A3 may become digital files for verification or identification.

In another scenario, where A 1 is set to data that the digital message will be transmitted to the destination via the cloud, A2 and A3 can be used for verification, and A4 is the selected digital envelope, and Ov and Oz are two strings that will be sent to the cloud. The sealed digital string. At the destination, the first reader has obtained three pieces of data A2, A3, and A4 digital files, so only need to receive a string of two strings of digital strings Ov or Oz to restore and embed in the package. Digital message image in the post-digital string, Sv. It is important for the first reader to be aware of this and to take advantage of redundant wavefront overlay image processing. The restored digital message image Sv should be identical to the original digital message image A1. On the other hand, the second reader did not get the digital file selected as the digital envelope "Ben Ma A4, but there are two other files A2 and A3 original digital files, so you must also receive the download through the cloud. The two strings of digital IDs Ov and Oz can restore the digital message image A1 embedded in the sealed digital string. For the second reader, he can also use the two series of downloaded digital strings to restore the digital file of the digital envelope to prepare for the future unsealing process. It is also important to pay attention to this.

For the third case, where A1, A2, and A3 are three digital files that will be sent to the destination through the cloud (A1 is a digital message), A4 is selected as a digital envelope, Ov, Ox, and Oz are sent to the cloud. Serial string after string. At the destination, the first digital file that the first reader has obtained is only the digital envelope A4, so it is necessary to receive all the three strings of digital IDs Ov, Ox, Oz from the cloud before they can be restored and re-embedded. Digital message image in the digital string, Sv. It is important to note that for the first reader, the wavefront overlay image processing here is not redundant. On the other hand, the second digital reader has not received a digital envelope in the original digital file "Running Horse A4. He can download the three-string digital string Ov, Ox, Oz from the cloud but he will not be able to reconstruct the embedded message image A1.

For the fourth case, where A1, A2 and A3 are three digital files to be sent to the destination via the cloud (A1 is a digital message) is the data set sent to the destination via the cloud, A4 as the selection digital envelope, Ov, Ox Oy, Oz is a four-string digital string that is sent to the cloud. At the destination, the first digital file that the first reader has obtained is only the digital envelope A4, so only need to receive any 3 strings of digital strings from the cloud series of digital strings Ov, Ox, Oy, Oz. It is possible to restore the digital message image embedded in the sealed digital string, Sv. For the first reader, the wavefront overlay image processing here is redundant, which is very important. On the other hand, the second digital reader has not received a digital envelope in the original digital file "Running Horse A4. He will download the three-string digital string Ov, Ox, Oz from the cloud but he will not be able to reconstruct the embedded message image A1. On the other hand, the second reader does not have the number "Ma Ying A4 and he has to download all four strings of digital strings through the cloud to reconstruct A1 in the embedded image. For the second reader, the wavefront overlay image processing here is not redundant, which is very important.

Example 2

Figure 3 depicts the operational concept of adding digital messages to two groups using the wavefront overlay technique described above. There are three parts: (1) pre-processing 130 or encapsulation, (2) transmission through cloud 010, and (3) post-processing 140 or de-seal or unsealing. It is almost the same as the set of operational concepts shown in Figure 1. The technique of Figure 3 is to send a string of digital message data S(t) and a string of original digital envelopes E5(t) to a specified set of receivers. The two series of output signals Es(t) and Ed(t) of the pre-processing 130 are sent to the receiving end.

A message is secretly embedded in the two strings of sealed data files Es(t) and Ed(t), which are then sent by the source to the receiver at the destination. The receiver recovers the embedded digital message and the original digital envelope using the two strings of sealed data files. This original digital envelope can be used for subsequent transmissions between the transmitter and the receiver. The sender and the receiver on both sides of the cloud communication channel, once the digital envelope data becomes known, the sender only needs to string one of the two pre-filtered files, or Es(t) or Ed ( When t) is sent to the cloud, the receiver can recover the reconstructed embedded digital message S(t).

Figure 3 provides a method to simultaneously transmit a set of digital message data and a string of raw digital envelope data to a desired set receiver. The two outputs of the pre-processing 130, the Es(t) and Ed(t) signals are simultaneously transmitted to the receiver, which can be used to reconstruct the embedded digital message data and the original data of the digital envelope.

Example 3

Figure 4 shows the transmission (Tx) business philosophy of using a set of 2 to 2 wavefronts to double-seal a set of message data through a two-layer sequential seal. It shows the first two segments of the three segments set in Figure 1. The three stages in Figure 1 are set: (1) pre-processing 130 or sealing processing, (2) transmission through cloud 010, and (3) post-processing 140 or de-seal processing or unsealing processing.

Here, two sets of sealing processes in Figure 4 are connected in series. Each set of sealing process is the same as the sealing process shown in FIG. In the first pre-processing 130-1, there are two inputs; S(t) and E1(t) and one output x(t). The second output is grounded. S(t) is a digital message delivered to the destination through the cloud, including an English phrase "Sesame Open Door and its Chinese translation and pronunciation symbols. E1(t) is an envelope selected from the candidate envelope document 180, and one of the functions of the first output x(t) of the first pre-processing 130-1 is the appearance with E1(t) It is basically the same for human senses. His second output is grounded.

In the second pre-processing 130-2, there are also two inputs, x(t) and E5(t) and only one output Es(t). E5(t) is also selected from the candidate envelope document 180 as the selected external digital envelope. One of the functions of the first output of the second preprocessing 130-2 is the appearance of Es(t) and E5 ( The appearance of t) is essentially identical to human senses.

The appearance of the digital file Es(t) used for transmission does not appear in the sentence "Sent of sesame opening English sentences and its four-character Chinese translation and pronunciation symbols. The bandwidth required to transmit the sealed digital file Es(t) under appropriately selected E1(t) or E5(t) should be approximately the same as when the S(t) is transmitted through the cloud.

In other embodiments, various image processing steps may be used for digital envelopes for different purposes, such as reducing the dynamic range in a single pixel, or simply verifying the verifiability of the archived file before the wavefront is overwritten. Identifiability. Many pre-image processed digital images can be stored in the digital envelope candidate file as candidate digital envelopes. Of course, these additional pre-processing can be included as part of the pre-processing 130 in FIG. These additional pre-processings can also be used in either the first pre-processing 130-1 or the second pre-processing 130-2 double-sealed in Figure 4, or through two sets of first pre-processing 130-1 and second pre-processing. 130-2 to achieve.

Figure 5 illustrates the operational concept of sequentially setting a double-encapsulated digital message via a receiver (Rx) using a two-layer 2-to-2 wavefront de-spreading method. It describes the last two segments of the three operations in Figure 1. The three operations in Figure 1 are (1) pre-processing 130 or encapsulation processing, (2) transmission through cloud 010, and (3) post-processing 140 or de-seal processing or unsealing processing.

The operational concept consists of a series of two-string unwrapped processing. Each string is the same as the de-sealing process shown in FIG. In the first post-processing 140-1 described in the opening of the external digital envelope, two inputs are respectively connected to the Es(t) and E5(t) digital strings; and one output is outputting the x(t) digital string. . The second output is grounded. Es(t) is the digital data file received at the receiver of the destination. This digital file contains embedded digital messages. E5(t) is a known digital envelope file. An outer digital envelope selected from the candidate envelope document 180 that has been approved by both the sender and the recipient.

The first string of inputs Es(t) is a set of digital archives received at the desired receiver of the destination and should be substantially equal to the unique output of the second pre-process 130-2 as described in FIG. Its appearance, for human senses, should be identical to the appearance of E5(t). Similarly for human senses, a string of x(t) data strings output by the first output of the first post-processing 140-1 and its second output are grounded. The second post-processing 140-2 also has two inputs that respectively access a string of x(t) data strings and a string of E1(t) data strings. The functional appearance of x(t) should be essentially the same as the appearance of E1(t). E1(t) is the selected inner layer digital envelope that is selected from the candidate envelope documents 180 that have been approved by both the sender and the recipient. In the second post-processing 140-2, only one output terminal outputs a string of S(t) data strings; it should be a restored embedded digital message, including a sentence of "Sinus opening English short sentence, its 4-word Chinese translation and pronunciation.

Example 4

Figure 6 depicts the technique of using a higher-order wavefront override conversion technique for encapsulating mail data at the transmitting end (Tx). A set of high-order wavefront overrides is overridden by a set of M-to-M wavefronts; where M is an integer greater than or equal to 4. Let's take a 4 to 4 wavefront overlay as an example of the concept of a seal/unfill operation. The three-packet of the seal/unpackage is the same as that shown in Figure 1. (1) pre-processing 630 or encapsulation processing, (2) transmission through cloud 010, and (3) post-processing 640 or de-encapsulation processing. It shows the first two paragraphs above.

A set of 4 to 4 wavefront pre-processors in pre-processing 630 has four inputs and four outputs. The inputs are connected to S(t), E10(t), E1(t) and E5(t), respectively. The output only outputs a string of Ex(t) and the remaining three outputs are grounded. S(t) includes a sentence saying “The essay opens the English short sentence and its four-character Chinese translation and pronunciation, and it is a digital message that will be delivered to the destination through the cloud. E5(t) is the digital envelope selected by the candidate envelope document 180. The shape of the first output Ex(t) of the overlay and the selected digital envelope E5(t) are substantially identical for human senses. The two strings of digital strings E10(t) and E1(t) connected to the second and third inputs are also digital files selected by the candidate envelope document 180. The digital files in the candidate envelope document 180 are known to both the sender and the recipient.

When we use a set of 4 to 4 sea aunt matrices as the conversion operations for the wavefront, the mathematical derivation of the overriding transformation is the same as those in Fig. 2. The operation of the sets 4 to 4 in the pre-processing 630 in the wavefront is written based on the formula (7); (7-2)

The first output O1 in Figure 6 is named Ex(t) and the other three outputs are grounded. The magnification factor am is set to about 10, and as a result, the shape of Ex(t) is transmitted to the destination through the cloud 010, and is substantially identical to the shape of the E5(t) for the human sense.

Fig. 7 is a block diagram showing the decapsulation process at the destination, and also the inversion processing diagram of Fig. 6. Describes the use of high-order wavefront de-embedding techniques to reduce the received digital (Rx) business philosophy of a string of digital strings after de-encapsulation conversion. A set of high-order wavefront solutions is an operation that uses a set of M-to-M wavefront solutions; where M is an integer greater than or equal to 4. The three-packet of the seal/unpack is the same as that shown in Figure 1. (1) pre-processing 630 or encapsulation processing, (2) transmission through cloud 010, and (3) post-processing 640 or de-seal processing. This figure shows the last two paragraphs above.

Only a string of sealed digital strings sent through the cloud 010 can be received at the destination. The remaining three strings have been grounded at the sender. When the digital envelope E5(t) is properly selected and further optimized pre-processed 630, the bandwidth of the communication channel required for the serialized digital string may be almost the same as the bandwidth of the signal itself of S(t).

A set of 4 to 4 wavefront solutions in post-processing 640 has four inputs; respectively, accessing Ex(t), E10(t), E1(t), and E5(t). (1) Ex(t) is the only received digital string that is received, (2) E10(t) is a piece of known digital data in the candidate envelope document 180, and (3) E1(t) is the candidate digital envelope file 180. Another known digital data, and (4) E5(t) is a known digital envelope selected from the candidate digital envelope file 180. Each digital file of the candidate digital envelope file 180 is known to both the sender and the recipient. According to the formula (7-2); Ex(t)=am* E5(t)+ E1(t)+ E10(t)+ S(t) (8) and S(t)= Ex(t) (am* E5(t)+ E1(t)+ E10(t)) (8-1)

Only one received seal file Ex(t) is used in equation (8-1). The data of the second, third, and fourth inputs of the operation of a set of 4 to 4 wavefronts are known data. The embedded digital information that S(t) solves from the wavefront decoding operation should include a sentence of “Sinus opening English short sentence, its 4 words Chinese translation and pronunciation.

Further, O2, O3, and O4 in the formula (7-2) can be reconfigured based on the restored Ex(t). The reorganized O2, O3, and O4 can be compared to the original number. Its purpose is to enhance the identity of the digital.

In the fifth embodiment

Figures 8 and 9 depict the operation of applying/unwrapping with high order wavefront for unsealing/unwrapping. In this group of 4 to 4 wavefront-converted four-string outputs, two strings are used as a sealed data set to be sent to the destination via the cloud 010.

Figure 8 depicts the transmission (Tx) business philosophy for mail data encapsulation using techniques that are applied with higher-order wavefronts. We use a set of 4 to 4 wavefronts as an illustration of the concept of operation. The three-segment grouping for the sealing/unsealing operation concept is the same as those shown in FIG. 1; includes (1) pre-processing 630 or encapsulation processing, (2) transmission through cloud 010, and (3) post-processing 640 or Unpacking process. This figure shows the first two paragraphs.

In the pre-processing 630, a set of 4 to 4 wavefronts is applied with four inputs connected to S(t), E10(t), E1(t) and E5(t), respectively, and only two outputs are output. A string of Ex(t) and a string of Ey(t) data. The other two outputs are grounded. S(t) consists of a slang open English sentence and its 4 word Chinese translation and pronunciation, and is covered in a digital message delivered to the destination through the cloud. E5(t) is a digital envelope selected by the candidate envelope document 180, and the Ex(t) digital string outputted as the first output terminal and the Ey(t) digital string outputted by the third output terminal. A string, each string shape is basically the same as the shape of E5(t) for human senses. The E10(t) and E1(t) digit strings accessed by the second and third inputs are also files selected by the candidate envelope document 180. The files in the candidate envelope document 180 are known to both the sender and the recipient.

When using a set of 4 to 4 sea aunt matrices for wavefront overriding/unwrapping, the mathematical derivation here is the same as those in Figure 2. A set of 4 to 4 wavefronts in pre-processing 630 can be written as follows according to equation (7): (7-3)

The digital strings output by the first and third outputs, O1 and O3, are named as digital strings of Ex(t) and Ey (t), respectively. The other two outputs in Figure 8 are grounded. Since the scaling factor am is set to ～10, both the appearance of Ex(t) and Ey(t) are transmitted to the destination through the cloud 010, respectively, and the appearance of E5(t) is fundamental to human senses. The above is exactly the same.

Figure 9 is a block diagram of the de-seal at the destination; also the reverse processing diagram of Figure 8. It describes the message data reception (Rx) business philosophy of using the high-order wavefront de-embedding technique to de-encapsulate or unpack the sealed data string.

Only two of the four strings of digital data after the wavefront are transmitted to the destination through the cloud 010, and the total bandwidth of the required communication channel should be about twice that of the S(t) signal itself. When the properly selected digital envelope E5 is further optimized by the pre-processing 630 and converted into two strings of sealed digital strings, the bandwidth of the communication channel required for each string of digital files may be correspondingly the frequency of S(t). The same wide communication bandwidth.

A set of 4-pair 4-wavefront unwrapping operations is used in post-processing 640. Contains four inputs; respectively access (1) Ex(t); received first string of digits, (2) Ey(t); received second string of digits, (3) E10(t); A series of known digital data selected from the candidate envelope document 180, and (4) E5(t); a digital envelope of a string of known digital data selected from the candidate envelope document 180. According to the formula (7-3); Ex(t) = am* E5(t) + E1(t) + E10(t) + S(t) (7-4) Ey(t) = am* E5(t) + E1(t) - E10(t) - S(t) (7-5) and S(t)=[Ex(t) - Ey(t)] /2 - E10(t) (9)

The received two strings of sealed digital strings, Ex(t) and Ey(t), are utilized in equation (9). The third input for this 4 to 4 wavefront solution is E10(t); is a string of known data. The fourth input is E5(t); it is also a known data set. S(t) can be calculated without E5(t) in equation (9). However, there are six different combinations of two strings selected from the four wavefront-converted digital files as two strings of sealed files. The known three sets of data E10, E1 and E5 can be used to recover S(t) recombination operations in these six combinations, but many combinations require more than one set of known recombination operations to recover S(t). data.

The S(t) obtained from the wavefront decoding operation should be the digital message enclosed in the digital envelope, and includes a sentence of “Sinus opening English short sentence, its 4 words Chinese translation and pronunciation.

Further, according to the formula (7-2), the destinations O2 and O4 can be recalculated from the S(t) obtained by the calculation. The result is compared with the original data. The recalculated O2 and O4 can be used for enhanced data identification.

Example 6

Figure 10 shows the business philosophy of using a higher-order wavefront overlay technique for mail data seal transmission (Tx). We use a set of 4 to 4 wavefronts as an operational concept. Three out of the four outputs of the 4 to 4 wavefront are sent as the sealed digital string to the destination through the cloud 010.

This set of 4 to 4 wavefronts in pre-processing 630 is applied with four inputs connected to S(t), E10(t), E1(t) and E5(t). Only three of its four outputs output Ex(t), Ey(t) and Ez(t). The remaining output is grounded. There are 4 possible configuration options for selecting three out of the four outputs. S(t) is a message number that will be delivered to the destination through the cloud and includes an English short sentence with a sap open, with a 4-character Chinese translation and pronunciation. E5(t) is a digital envelope selected from the candidate envelope document 180. Further for human senses, in the first output Ex(t), the second output Ey(t), and the third output Ez(t), each appearance characteristic and those appearance features of E5(t) Basically the same. E10(t) and E1(t) accessed at the second and third inputs are also files selected from the candidate digital envelope archive 180. For the sender and receiver, these are all known digital files. This figure uses a set of 4 to 4 sea aunt matrices as wavefront overrides and solutions. The mathematical derivation is the same as those in Figure 2. According to equation (7), a set of 4 to 4 wavefront override operations in preprocessing 630 is: (7-6)

Its first, second, and third outputs, O1, O2, and O3, are named Ex(t), Ey(t), and Ez(t), respectively. The fourth output in Figure 10 is grounded. Ex(t), Ey (t), and Ez(t) will be delivered to the destination through the cloud 010, respectively. The result of setting the scaling factor am to ～10 is to make any string of appearance features in the three-string output sealed digital string, whether Ex(t), Ey(t), or Ez(t), during the transfer. The organs of the human body are basically the same as the appearance of E5(t).

When the digital envelope E5 is properly selected and further optimized in the pre-processing 630, the three-string digital file, each required channel bandwidth is as large as the S(t)'s own channel bandwidth. Therefore, the communication channel bandwidth required for the transfer process is correspondingly about three times the bandwidth of the S(t) signal itself. The extra bandwidth difference is due to processing overhead.

Figure 11 is a block diagram of the de-seal operation at the destination; also the reverse processing diagram of Figure 10. It describes the business philosophy of understanding the digital operation of the seal (Rx) message. In the destination, it is only necessary to receive the two strings in the sealed digital after the operation of the cloud 010 three-string wavefront. This figure assumes that Ex(t) and Ey(t) are the two strings of first-come, sealed digital strings received at the destination.

A set of 4 to 4 wavefront solutions in post processing 640 operates. There are four input terminals respectively connected to four serial numbers; (1) Ex(t); the first string received digital string, (2) Ey(t); the second string received digital string, ( 3) E10(t) is a known digital archive in the Candidate Envelope Document 180, and (4) E5(t) is another known digital archive in the Candidate Envelope Document 180, which is also an optional digital envelope. According to the formula (7-6); Ex(t)=am* E5(t)+ E1(t)+ E10(t)+ S(t) (7-8) Ey(t)=am* E5(t) - E1(t)+ E10(t) - S(t) (7-9) Ez(t)=am* E5(t)+ E1(t) - E10(t) - S(t) (7-10 ) and S(t)=[Ex(t) - Ey(t)] /2+ E1(t) (10)

Equation (10) contains two pieces of received digital archives Ex(t) and Ey(t). The third input E1(t) of the 4 to 4 wavefront cancellation operation is a known digital file. Also its fourth input E5(t) is also a known data set. However, E5(t) is not required in the operation of equation (10) for S(t).

The S(t) obtained from the wavefront decoding operation should be the message number enclosed in the digital envelope during the transmission process, and include a sentence of "Sesame opening English short sentence, its 4 words Chinese translation and pronunciation. .

Further, according to the formula (7-2), O3 and O4 can be newly calculated by using the new S(t) for the purpose. The reorganized O3 and O4 can be used to enhance the identification of digital data compared to the original digital data.

Figure 12 is a block diagram of another de-seal operation at the destination; also a reverse processing diagram of Figure 10. It describes the business philosophy of understanding the digital operation of the seal (Rx) message. In the destination, it is only necessary to receive the two strings in the sealed digital after the operation of the cloud 010 three-string wavefront. This figure assumes that Ez(t) and Ey(t) are the two strings of first-come, sealed digital strings received at the destination.

In the post-processing 640, a set of 4 pairs of 4 wavefront decoding operations has four inputs; respectively, four series of digital files are accessed; (1) Ex(t) is the first received digital file, ( 2) Ey(t) is the second received digital archive, (3) E10(t) is selected from the known candidate envelope document 180, and (4) E5(t) is also the candidate envelope document One of the known digital data selected by 180 is also the selected digital envelope. According to the formula (7-6); Ey(t)=am* E5(t) - E1(t)+ E10(t) - S(t) (7-11) Ez(t)=am* E5(t) + E1(t) - E10(t) - S(t) (7-12) and S(t)=am* E5(t) - [Ey(t)+ Ez(t)] /2 (11)

Two pieces of received archived files Ey(t) and Ez(t) are used in equation (11). The third input of this set of 4 to 4 wavefront decompression operations is E1(t); it is a known digital data. Its fourth line is entered into E5(t); it is also known digital data. However, E1(t) is not required for the recovery operation of S(t) using equation (11). The new S(t) obtained from the wavefront decoding operation should be the digital message covered in the delivery digital envelope during the transmission process. It should include the English short sentence of the sesame opening and its four-character Chinese translation. And pronunciation. In addition, O1 and O4 can also be calculated from the new S(t) new weight according to formula (7-6), and then compared with the original digital data of O1 and O4 to enhance the identification of digital data.

Figure 13 is a block diagram of another de-seal operation at the destination; also an inverse processing diagram of Figure 10. It depicts the data of the operation information of the seal, and sends the three post-processing digital archives Ex(t), Ey(t), and Ez(t) to the destination for reception in time through the cloud 010. Rx) business philosophy.

In the post-processing 640, a set of 4 pairs of 4 wavefront decoding operations has four inputs; respectively, four digital files are accessed; (1) Ex(t) is the first received digital file, ( 2) Ey(t) is the second received digital archive, (3) E1(t) is a file selected from the known candidate envelope document 180, and (4) Ez(t) Three received digital archives. According to the formula (7-6); Ex(t)=am* E5(t)+ E1(t)+ E10(t)+ S(t) (7-13) Ey(t)=am* E5(t) - E1(t)+ E10(t) - S(t) (7-14) Ez(t)=am* E5(t)+ E1(t) - E10(t) - S(t) (7-15 ) and S(t)=am* E5(t) - [Ey(t)+ Ez(t)] /2 (12-1) or S(t)=[Ex(t)-Ey(t)] / 2 - E1(t) (12-2) or S(t)=[Ex(t)-Ez(t)] /2 - E10(t) (12-3)

For the three received digital archives, Ex(t), Ey(t) and Ez(t), two of them will be used in the calculation of digital mail S(t) recovery using equation (12). Pieces. Equations (12-1), (12-2), and (12-3) respectively depict three options for the recovery operation of the digital mail S(t). They all require a third piece of data to be entered into this set of 4 to 4 wavefront solutions. The third file required for recovery processing according to equation (12-1) is the original digital envelope E5(t). Similarly, according to formulas (12-2) and (12-3) and the third file are digital files of E1(t) and E10(t), respectively.

Using Equation (12), there are three sets of possibilities for recovering the flexibility of the recombination S(t) operation. The receivers of the group can use any of the three pieces of digital data that can be used first to two operations, Ex(t), Ey(t) and Ez. (t). It is also possible to use only the first two pieces of the digital file that have been sent to the destination before the three wavefronts are discarded and to discard the last piece (third piece) sent from the source. This type of cloud-based transmission technology provides timely music or video clips that should enhance the speed of data streams and provide better data stream survivability and reliability in the cloud.

In other applications, the various repair operations described above can be used to distinguish between preferences for multicast mode or broadcast mode services. In the above different examples, for those customers who do not have access to E1 and E10; if only Ey and Ez are only sent to them through the cloud 010, the service is completely invalid and denied. Similarly, if you send Ex(t) through the cloud 010 to do video streaming services for this group of customers, but control the digital flow rate of Ex(t), it will transmit at a slower speed. For example, the first two strings of digital streams are sent to the destination through the cloud 010 at a normal rate of one-third. The result is in the process of restoring the video on the client side. When the transfer rate of Ex(t) is significantly reduced or delayed, the two-thirds of the traffic corresponding to the total flow received is 33% of the normal flow rate.

Figure 14 is a block diagram of another de-seal operation at the destination; also the reverse processing diagram of Figure 10. This solution is to choose to use 3 pieces of wavefront overlay digital data Ex(t), Ey(t), and Ew(t) to send to the destination through cloud 010. It depicts a set of three-in-one digital data through cloud 010, and the digital message reception (Rx) operation at the destination through de-sealing. The digital data that is received in the destination in time for the three wavefronts is Ex(t), Ey(t) and Ew(t).

In the post-processing 640, a set of 4 pairs of 4 wavefront decoding operations has four inputs for respectively accessing four strings of digital data; (1) Ex(t) is the first string of digital data received in time, (2) Ey(t) is the second string of digital data received in time, (3) E1(t) is a known digital file selected from the candidate envelope document 180, and (4) Ew(t) is received in time. The third string of digital data. According to the formula (7-6); Ex(t)=am* E5(t)+ E1(t)+ E10(t)+ S(t) (7-16) Ey(t)=am* E5(t) - E1(t)+ E10(t) - S(t) (7-17) Ew(t)=am* E5(t)-E1(t) - E10(t)+ S(t) (7-18 ) and S(t)= E10(t)+Ey(t)-Ew(t)] /2 (12-4) or S(t)=[Ex(t) - Ey(t)] / 2 - E1 (t) (12-5) or S(t)=[Ex(t)+ Ew(t)] /2 amE5(t) (12-6)

In each of the formulas of equation (12), three strings of received digital files, Ex(t), Ey(t), and Ew(t) are used. Here, there are three options for using the formulas (12-4), (12-5), and (12-6) to perform the restoration processing of the delimited digital mail S(t). Similar to the block diagram of Figure 13, they all require a digital archive that is connected to the fourth input of the 4 to 4 wavefront solution. According to the restoration process of the formula (12-4), the file to be accessed to the third input terminal is the original digital file E10(t). Similarly, the files corresponding to the equations (12-5) and (12-6) are restored to the digital file of E1(t) and E5(t), respectively.

Using Equation (12), there are three sets of possibilities for recovering the flexibility of the recombination S(t) operation. The receivers of the group can use any of the three pieces of digital to receive the first two operations, Ex(t), Ey(t) and Ew. (t). It is also possible to use only the first two pieces of the digital file that have been sent to the destination before the three wavefronts are discarded and to discard the last piece (third piece) sent from the source. This type of cloud-based transmission technology provides timely music or video clips that should enhance the speed of data streams and provide better data stream survivability and reliability in the cloud.

In the seventh embodiment

Figure 15 depicts the business philosophy of double-sending digital message mail by using two sets of wavefront overrides. It shows the first two of the three-stage process of Figure 1. The three-stage processing of FIG. 1 includes: (1) pre-processing 130 or encapsulation processing, (2) transmission through cloud 010, and (3) post-processing 140 or de-encapsulation processing.

The double seal process depicted in Figure 15 contains two sets of seal processes in series. The operation of the inner digital seal and the outer digital seal is the same as the seal operation in Fig. 6 and the seal operation in Fig. 1, respectively. The four inputs in the first pre-processing 630 respectively access 4 strings of digital data files, S(t), E10(t), E1(t) and E4(t). The unique output of its four outputs is distributed to output a digital file of w(t). The other three outputs, x(t), y(t), and z(t), are all grounded. S(t) is a digital message delivered to the destination through the cloud. It should include an English phrase that opens the door and a Chinese translation and pronunciation. E4(t) is an inner digital envelope selected from the candidate envelope document 180. For human senses, the appearance of the first output w(t) is essentially identical to that of E4(t).

The second set of pre-processing 130 has two inputs connected to the w(t) and E5(t) string, respectively, and its first output is designated as the output Es(t) string. Its second output is grounded. The E5(t) digital string is an outer digital envelope selected from the candidate envelope document 180. For human senses, the appearance of the first output Es(t) is essentially identical to that of E5(t).

Only one wave of the digital file Es(t) after the operation is sent to the destination via the cloud 010. The appearance of Es(t) does not have a sentence saying "the essay opens the English phrase or its Chinese translation. When E4(t) or E5(t) is properly selected. The required bandwidth for transmitting Es(t) in time should be very close to the bandwidth required to transmit S(t) through the cloud.

In other embodiments, the image of the sealed archive may have been pre-processed for various purposes, such as to reduce the dynamic range of a single pixel, or simply enhance identity verification and authentication prior to wavefront overwriting. Many pre-processed digital files can be pre-stored in the candidate digital envelope file as an optional candidate digital file. Of course, these additional pre-processings can also be taken as part of the first set of pre-processing 630 and/or the second set of pre-processing 130.

Figure 16 depicts the reception (Rx) business philosophy of using a wavefront solution to de-encapsulate a double-encapsulated digital message. In the two sets of de-seal processing operations in series, the first set of post-processing 140 is to open the outer digital envelope, and the unseal processing as shown in FIG. 1 operates the same. It has two input ports for accessing Es(t) and E5(t) digital files. Es(t) is the sealed digital file that the receiver at the destination expects to receive, containing the digital message mail draped in it. It should be substantially the same as the uniquely output digital file of the second set of pre-processing 130 described in FIG. In addition, the Es(t) appearance characteristics of human senses should be substantially identical to those of E5(t). E5(t) is an outer digital envelope selected from the candidate envelope document 180. The digital files in the candidate envelope document 180 are known to both the sender and the recipient.

Similarly, post processing 140 also has two outputs. A string of digital files w(t) outputted from the first output of post-processing 140 has an appearance that is substantially identical to the appearance of E4(t) for human senses. Its second output is grounded.

The second set of post-processing 640 has four inputs connected to four strings of digital files w(t), E10(t), E1(t) and E4(t). E4(t) is the selected inner layer sealed digital envelope that is also selected from the candidate envelope document 180. E10(t) and E1(t) are also two digital files selected from the candidate envelope document 180. The output of the second set of post-processing 640 is grounded except that the first strip is designated as output S(t). The first output of S(t) is the restored digital message.

It is conceivable to extend the double-sealing shown in Figures 15 and 16 through multiple sets of M-to-M wavefront coatings at the source and multiple sets of post-processing M-to-M wavefront solutions. De-seal operation to multi-layer sealing/unsealing operation, where M is an integer greater than or equal to 2.

Example 8

Digital sealing and unsealing can be used for digital rights management (DRM) tools. We can use Figure 1 to illustrate a set of DRM architectures for a new movie. The original movie that will be released is in the parent version. We will use digital sealing technology to hide and embed various unique and distinctive digital files in different sub-version movies (copy). The encapsulation technique shown in the figure can be processed by digital encapsulation as shown in FIG. 1, FIG. 4, or FIG. The copy and master movies of each new version of the film will basically have the same look and almost identical visual and auditory film functions.

When pirated movies are found, whether they are leaked through the distribution of bad pipelines, or new movies recorded in commercial cinemas through hidden video recorders, we can use pirated and master movies simultaneously through Figure 1 and Figure 5. , or the unwrapped processor of Figure 7, to restore a uniquely differentiated digital file that is hidden in a pirated movie. These unique differences files will identify the subversions from which version of the pirated version.

Em(t) for the pre-processing 130 input in Figure 1 represents the original master video, and Idx(t) represents a unique identification file that is implicitly embedded in a sub-film. The first output of the pre-processing 130 set of 4 to 4 wavefronts is configured as a sub-film copy Echx(t) whose video and audio output will substantially have exactly the same vision as the master movie Em(t). And auditory movie features. The remaining two inputs and three outputs of this wavefront connector are grounded.

The original master movie Em(t) will not be released publicly. They can be stored in a library or in a cloud storage. Sub-versions will be publicly distributed through distributed distribution channels. Each sub-page movie basically has the same picture and audio quality as the master movie. However, each sub-page of the film is implicitly embedded in the uniquely identifiable unique logo file through the digital seal process. The master movie feature becomes the only digital envelope. Hidden embedded logo messages or unique logo files are all part of a sub-page book. The implicit embedding of the identification message is not a technique that utilizes a tangible watermark and an invisible invisible watermark.

Typically, a sub-version of a film, including a post-file created via a set of M-to-M wavefront overrides, where M (2. A set of M-to-M wavefront processors) M relative equations. The selected sub-version movie can only be one of the corresponding M equations. If a person associated with a sub-version movie wants to make more copies and redistribute the selected sub-version movies. When you want to change the embedded logo file, he or she must be able to use this wave to overwrite the processor with other M-1 input digital files. These M-1 inputs can be used for additional detection, more privacy and enhanced authentication. , or for other purposes. Figure 1 shows the digital sealing process for M = 2.

When a pirated copy of a sub-version is captured in the market or intercepted on the distribution network, the source of the sub-film can be restored to the reconstructed identification or unique identification file through the wavefront decoding process shown in Figure 1. And find out. The multi-input wavefront decoding processor of FIG. 1 includes at least two input files; the first is the seized pirated movie Echx(t), and the second is the original master movie Em(t).

We use movie films in DRM applications as examples of digital sealing/digital unsealing techniques. The same digital sealing/digital unsealing technology can also be used in applications such as voice or other audio digital, via cloud or other public IP networks.

In addition, we can also illustrate another DRM architecture applied to the release of a new movie using Figure 17a. The original movie that will be released is in the parent version. We will use digital sealing technology to hide and embed various unique and distinctive digital files in different sub-version movies (copy). The encapsulation technique shown in the figure can be processed by digital encapsulation as shown in FIG. 1, FIG. 4, or FIG. The copy and master moviebooks for each new version of the new movie will basically have the same look and almost identical movie functionality. We chose the pre-processing 630 in Figure 6 as the digital encapsulation processor here.

When pirated movies are found, whether they are leaked through a damaged distribution channel, or new movies recorded in a commercial video theater through a hidden video recorder, we can use pirated and master movies simultaneously through the solution in Figure 17b. The processor is sealed to restore a uniquely differentiated digital file that is hidden in the pirated movie. These unique differences files will identify the subversions from which version of the pirated version.

Em(t) for the pre-processing 630 input in Figure 17A represents the original master video, and Idx(t) represents a unique identification file that is implicitly embedded in a sub-film. The first output of a set of 4 to 4 wavefront pre-processed 630 is configured as a sub-film copy Echx(t) whose video and audio output will be substantially identical to the master movie Em(t). Movie function. The remaining two inputs and three outputs of this wavefront connector are grounded.

The original master movie Em(t) will not be released publicly. They can be stored in a library or in a cloud storage. Sub-versions will be publicly distributed through distributed distribution channels. Each sub-page movie basically has the same picture and audio quality as the master movie. However, each sub-page of the film is implicitly embedded in the uniquely identifiable unique logo file through the digital seal process. The master movie feature becomes the only digital envelope. Hidden embedded logo messages or unique logo files are all part of a sub-page book. The implicit embedding of the identification message is not a technique that utilizes a tangible watermark and an invisible invisible watermark.

Typically, a sub-version of a movie includes an overwritten file generated via a set of M-to-M wavefront overrides. A set of M-to-M wavefront overlay processors have M relative equations. The selected sub-version movie can only be one of the corresponding M equations. If a person associated with a sub-version movie wants to make more copies and redistribute the selected sub-version of the movie and wants to change the embedded identification file, he or she must be able to have this wavefront override processor. M-1 enters a digital file. These M-1 inputs can be used for additional probing, more privacy and enhanced authentication, or for other purposes. Figure 1 shows the digital sealing process for M = 2, and Figure 17a shows another digital sealing process for M = 4.

When a pirated copy of a sub-version is captured in the market or intercepted on the distribution network, the source of the sub-film can be restored to the reconstructed identification or unique identification file through the wavefront decoding process shown in Figure 1. And find out. Figure 17B. In the post-processing 640, the multi-input of the wavefront decoding processor includes at least two input files; the first is the seized pirated movie Echx(t), and the second is the original master movie Em(t). ).

For multi-layer distributions, similar concepts can be extended from sub-films to grandchildren. Each layer of the film distributor has its own tools to track leaks in their respective distribution networks.

In other embodiments, the pre-processing 630 or the other two inputs of the digital seal process may be ungrounded for additional functionality for additional authentication or other privacy.

We use movie films in DRM applications as examples of digital sealing/digital unsealing techniques. The same digital sealing/digital unsealing technology can also be used in applications such as voice or other audio digital, via cloud or other public IP networks.

Example 9

Digital seals and de-seals can provide users with additional information in a re-broadcast. We can again illustrate, with Figure 17A, an architecture 1710 that uses re-broadcast to provide users with additional information. The original broadcast Em(t), as an example, is a 30-minute domestic master news 1800. We will use the digital seal technology to implicitly embed the second special report Idx(t) in the sub-news 2000 broadcast Echx(t). As a result of the digital sealing process in the pre-processing 630 as shown in FIG. 17A, a sub-page news broadcast Echx(t) in the output thereof and the original master news broadcast Em(t) will have the same video and audio appearance. Features.

At the user receiver 1790, only the repeat broadcast message Echx(t) and the original master broadcast file Em(t) are simultaneously shown in FIG. 17B through the corresponding unpacking processor in the post-processing 640 to enable the second segment of the secret special report Idx. (t) The reorganization is resumed. In addition to receiving the repeated broadcast message Echx(t), the user can also see the secret special report Idx(t).

Em(t) used in pre-processing 630 in Figure 17A represents the parent version of the original news broadcast, and Idx(t) is a short special news story. The configuration of a set of 4 to 4 wavefront pre-processing 630s makes its multi-output significantly emphasize the characteristics of Echx(t). Its first output is a sub-version of a news broadcast. And the video and audio look of this subversion is almost identical to the appearance of the master newscast Em(t) for human senses. The remaining two inputs and the three outputs of pre-processing 630 are all grounded.

The news broadcasts of the original master Em(t) and the sub-version Echx(t) will be distributed or broadcasted through various pipes at different time periods, or a combination of the two. The sub-version of the news broadcast Echx(t) and the master newscaster Em(t) should be almost identical in terms of image and sound quality.

In addition, in different implementations, each sub-version can embed different but unique additional news stories. Master news broadcasts are the only feature that shares digital envelopes. The different hidden and unique messages embedded are part of each newscast subversion.

For multiple repeat broadcasts, similar concepts can be extended to the grandchild version of news broadcasts.

In other embodiments, the other two ground ports of the pre-processing 630 or the encapsulation process may be utilized; instead of being grounded, a digital signal string for additional functionality for authentication or other privacy is accessed.

We have used the seal/unpackage technology to deliver additional news examples using the news broadcast model. The same principles apply to the delivery of other hidden and unique IP digital messages provided through the cloud or other distributed networks.

Example 10

Digital seals and de-seals can be used to provide users with additional tools to deliver hidden messaging services. Figure 18A shows a set of architectures that use other unique additional new messages to be broadcasted implicitly between broadcast and rebroadcast. As an example, the mother version of a 30-minute domestic original news Em(t) will be modified before playback. We use the digital seal technology for the copy of the Idx(t) and Isx(t) versions of the news feed, and the second separate special report Ec(t) is embedded in both subversions, where Isx(t) = M Em( t) + Ec(t) and Idx(t)) = M Em(t) - Ec(t) and M is the amplification factor and should be greater than or equal to 1. As shown in Figure 18, the results of the digital seal process in pre-processing 630, two sub-versions of news dissemination, Isx(t) and Idx(t), video of the original master broadcast Em(t) for human senses It is almost identical to the audio look and feel. The first broadcast will play one of the two sub-versions, such as Isx(t), and the re- (second) broadcast will play another sub-version Idx(t).

In the user receiver, only when the first sub-file is played for the first time, Isx(t), and the second sub-file of the second play, Idx(t), while passing through the post-processing 640 The corresponding unpacking processor is as described in Figure 18b, and the special secret message report will be recombined and restored. Therefore, the first sub-file Isx(t) must be properly recorded in the receiving via appropriate buffer storage. In addition to the service of rebroadcasting the message Idx(t), the user also has an option service for viewing the special secret message Ec(t) broadcast through digital sealing.

Many cable TV services and satellite TV providers offer the same program simultaneously or almost simultaneously through multiple channels. On the other hand, many broadcast platforms provide the same program multiple times via the same channel. These repeated message transmission or broadcast opportunities can be used for additional messages or digital documents provided by digital sealing technology.

Digitally sealed broadcast technology can be extended to two-way communication. In addition, they can also provide an opportunity to transmit a new set of data through multiple broadcasts. The digital seal mechanism can be configured to be redundant in restoring embedded secret messages or data streams. For example, a hidden message or data stream can be played back from any of the four groups of replays.

It is conceivable to provide a secret transmission method of new data through the setting of a plurality of repeated broadcast programs. As for the average user, they may see the same repeated broadcast of the program multiple times. However, for other special user groups with digital encapsulation and de-encapsulation capabilities, these existing service providers are already using the excess channel capacity for repeated broadcasts, providing additional data capacity for new data, files, and messaging. The additional channel capacity generated by digital encapsulation technology can be used to deliver more pay-TV programs, real-time messages exchanged by stocks, broadcasts of traffic conditions, and more.

Example 11

Protecting the privacy of private messages or data stored in the cloud has recently become an important topic. Sealing and unsealing technology can greatly enhance the privacy of cloud storage data, including protecting private digital photos stored in the cloud. The personal information stored in the cloud is user-friendly and does not have to be shared with other users. For example, the digital data stored in the cloud may be the sealing process of the original message digital through the PC on the user's office desk. The user can download the encrypted digital data stored in the cloud from the user's mobile phone at any time in the future and in any different city, and then reassemble the digital data of the original private message through the unsealing process. Similar concepts of data storage and retrieval reorganization may be achieved through other personal devices of the user; for example, iPad in a tablet, window, Galaxy, etc.

Figure 19 shows a simplified block diagram of a single user multi-group device data file sharing concept similar to that of Figure 3; showing an illustration of the original storage data file S(t) to cloud 010 on a private device that may be a personal computer or notebook 139. There are three main functional modules in the figure; before storing a set of digital data files in the cloud, the two sets of overwritten digital data Es(t) and Ed(t) are generated through a set of wavefront overrides in the pre-processing 130. The two sets of the overwritten digital data Es(t) and Ed(t) are stored in the cloud 010, and the overwritten data Es(t) and Ed(t) are respectively retrieved from the cloud and then processed through the post processing 140. The set of wavefront solutions is converted into the original data file S(t). After them. The original data file S(t) stored in the user PC or notebook 139 is shared by the user 306 via the cloud 010 for his or her other device. A set of preprocessors 130 performs a set of 2 to 2 wavefronts to convert the two sets of inputs of the original message digital file S(t) and the digital envelope E5(t) to produce two sets of digital outputs Es(t) and Ed(t). In the set of wavefront overlay conversions, a preferential weighting scheme is provided to make the two sets of digital data output Es(t) and Ed(t) almost identical to the visual appearance of the selected digital envelope E5(t). We used the visual appearance of the same digital envelope E5(t) to wrap the original digital message file S(t) in different Es(t) and Ed(t). In other embodiments, we may also embed (hide) the original message digital data using a digital envelope of other appearance, such as an audio or multimedia format.

The selected digital envelope is known to all of the intended devices of a user, which is a very important and important assumption. Both Es(t) and Ed(t) will be uploaded to the cloud. They can be stored on the same storage site, most likely through different cloud storage operators' different storage locations. When the original data of the user is reorganized through different devices of the user, in other devices of the user, such as a device 149 that can only be read, the data Es(t) and Ed must be separately retrieved. t) the function, and then perform a set of wavefront decoding operations on Es(t) and Ed(t) via post-processing 140 to recover the stored original message digital data S(t) and the selected digital Envelope E5(t). S(t) may also be displayed on the read only device 149. The newly recycled digital envelope E5(t) will be stored locally for later use.

Figure 19A shows a similar block diagram of those shown in Figure 19, with a simple block diagram showing the user between multiple devices; uploading data archives to the cloud 010 via a private device that can be a personal computer or laptop 139 the concept of. There are three main modules; a set of original digital data files are stored in the cloud before they are passed through a set of wavefronts in the pre-processing 130 to generate two sets of overwritten digital data Es(t) and Ed(t). ), the two sets of overwritten digital data Es(t) and Ed(t) are stored in the cloud 010, and the overwritten data Es(t) and Ed(t) are respectively retrieved from the cloud and then processed through the post-processing. A set of wavefront solutions in 140 is converted into the original data file S(t). The original data file S(t) stored in the PC or notebook 139 is shared by another device selected by the user via the cloud 010. The pre-processing 130 performs a set of 2 to 2 wavefront overwrite operations on the two inputs of the original data file S(t) and the selected digital envelope E5(t), and produces two outputs Es(t) and Ed(t). . The set of 2 to 2 wavefronts is equipped with a weight-reward feature that enables the visual appearance of the two digital data outputs Es(t) and Ed(t) to be almost identical to the visual appearance of the selected digital envelope E5(t). . The visual appearance of the digital envelope E5(t) we used encapsulated the same original digital data file S(t) in different modes in different digital files Es(t) and Ed(t). In other embodiments, we may also use other appearances of digital envelopes, such as audio or multimedia formats, to hide (embed) the original message data.

Both Es(t) and Ed(t) will be uploaded to the cloud 010. They, Es(t) and Ed(t), can be stored at the same storage site and will likely be stored in different storage locations through various cloud storage operators.

When one of the other read-only devices 149 of the user, such as a smart phone with only a read function, is used to reassemble and restore the original message data of the user, the user device must obtain a wavefront solution for storage in the cloud. The function of the post file Ed(t). And restoring the stored storage with the locally stored E5(t) simultaneously through a set of wavefront decoding operations in the post-processing 140 of the user's set of only read-only devices 149 (such as the smart phone) Original message data S(t). The S(t) can then be displayed on the smartphone.

Figure 19B shows a similar block diagram of those shown in Figure 19, with a simple block diagram showing the user between multiple devices; uploading data archives to the cloud 010 via a private device that can be a personal computer or laptop 139 the concept of. There are three main modules; a set of original digital data files are stored in the cloud before they are passed through a set of wavefronts in the pre-processing 130 to generate two sets of overwritten digital data Es(t) and Ed(t). ), the two sets of overwritten digital data Es(t) and Ed(t) are stored in the cloud 010, and the overwritten data Es(t) and Ed(t) are respectively retrieved from the cloud and then processed through the post-processing. A set of wavefront solutions in 140 is converted into the original data file S(t). The original data file S(t) stored in the PC or notebook 139 is shared by another device selected by the user via the cloud 010. The pre-processing 130 performs a set of 2 to 2 wavefront overwrite operations on the two inputs of the original data file S(t) and the selected digital envelope E5(t), and produces two outputs Es(t) and Ed(t). . The set of 2 to 2 wavefronts is equipped with a weight-reward feature that enables the visual appearance of the two digital data outputs Es(t) and Ed(t) to be almost identical to the visual appearance of the selected digital envelope E5(t). . The visual appearance of the digital envelope E5(t) we used encapsulated the same original digital data file S(t) in different modes in different digital files Es(t) and Ed(t). In other embodiments, we may also use other appearances of digital envelopes, such as audio or multimedia formats, to hide (embed) the original message data.

Both Es(t) and Ed(t) will be uploaded to the cloud. They can be stored on the same storage site, and are likely to be stored in different storage locations through various cloud storage operators.

When restoring the user's original message data through different devices, the user device must have the function of obtaining an overwritten file Es(t) from the cloud, and then use Es(t) and stored E5(t) as input. On the read-only device 149, such as the smart phone, wavefront decoding is performed via post-processing 140 for recombining the restored original message data S(t). S(t) can then be displayed on the smartphone.

Figure 19C shows an example of a tile similar to those shown in Figure 19, a simple block diagram showing the user between multiple devices; a private device that can be uploaded via a personal computer or laptop 139 to the cloud 010 share the concept of. There are three main modules; a set of original digital data files are stored in the cloud before they are passed through a set of wavefronts in the pre-processing 130 to generate two sets of overwritten digital data Es(t) and Ed(t). ), one of the two sets of overwritten digital data Es(t) or Ed(t) is stored in the cloud 010, and the post-recovered data Es(t) or Ed(t) retrieved from the cloud. At the same time, the original digital envelope E5(t) is converted into the original data file S(t) via the wavefront decoding in the post-processing 140. The original data file S(t) stored in the PC or notebook 139 is shared by another device selected by the user via the cloud 010. The pre-processing 130 performs a set of 2 to 2 wavefront overwrite operations on the two inputs of the original data file S(t) and the selected digital envelope E5(t), and produces two outputs Es(t) and Ed(t). . The set of 2 to 2 wavefronts is equipped with a weight-reward feature that enables the visual appearance of the two digital data outputs Es(t) and Ed(t) to be almost identical to the visual appearance of the selected digital envelope E5(t). . The visual appearance of the digital envelope E5(t) we used encapsulated the same original digital data file S(t) in different modes in different digital files Es(t) and Ed(t). In other embodiments, we may also use other appearances of digital envelopes, such as audio or multimedia formats, to hide (embed) the original message data.

Only one of Es(t) and Ed(t) will be uploaded to the cloud 010. Therefore, it is impossible to reconstruct the digital message file S(t) hidden (embedded) in Es(t) or Ed(t) from the messages stored and transmitted in the cloud without the prior known digital envelope.

When restoring the user's original message data through different devices, the user device must have the function of obtaining the first file Es(t) after the file is retrieved from the cloud, and then use Es(t) and store it in the E5(t) on the read device 149, such as on the smart phone, performs post-processing 140 wavefront cancellation for recombination to recover the stored original message data S(t). S(t) can then be displayed on the smartphone.

Embodiment 12

Figure 20 depicts a top-level function for sharing private message privacy protection in which data transmitted and stored by a user in the cloud can be shared with multiple user devices. Cloud computing allows users to get the applications and files they need from anywhere in the world at any time, freeing them from the constraints of the desktop, and facilitating collaboration among team users. But multi-user cloud computing sharing is not suitable for all applications; such network-based computing has advantages and disadvantages. On the other hand, many cloud computing application messages can be shared between multiple devices of a certain user. Personal data stored with private messages, or data collected for the convenience of the user, is not shared with others. Digital encapsulation and de-encapsulation technology enhances privacy protection for private data storage and transmission for Cloud 010. The feature of the example in Fig. 20 is that all stored in the cloud 010 are processed by the PC or notebook 139 on the user's office desk. The user can retrieve the stored data or video clips from the different cities through the cloud 010 at a later time, and reconstruct the video clips from the user's mobile phone, or the ipad, or the read-only device 149. It is also important to note that the digital envelopes used for sealing and unsealing are known or pre-set for all of the user's devices.

Figure 20A shows a similar functional block as those in Figure 19, sharing the concept of storing digital data files in the cloud 010 among multiple devices of the user; the private device illustrated on the simple block diagram can be a personal computer Or notebook 139. There are three main function blocks here. The pre-processing 230 or the sealing process is a function of converting the original message digital into multiple sets of the overwritten digital data through a pre-processing 230 of the M-pair-M wavefront. The plurality of sets of the overwritten digital data are stored in the cloud 010. The post-processing 240 or de-seal processing is to restore the original message digital by performing a conversion process on the over-received digital data taken from the cloud via a set of M-pair-M wavefront solutions.

A stored message data file S(t) in a PC or notebook 139 can be shared with other devices of the user via the cloud by the user's own selection. S(t) is divided into M-1 groups by a piece of dividing device 229; this dividing device 229 can be a TDM splitter or a set of serial-to-parallel converters. A set of M-to-M pre-processing 230 selected M-1 input ports to the M-1 group of divided information and the last input to the digital envelope selected from the local candidate envelope document 180, Then do the wavefront over conversion for this M group of digital. The generated M path is output and output. In this group of wavefront overrides, a preferential weighting scheme is also provided to enable the M group to output a digital data with a visual appearance that is almost the same as the visual appearance of the selected digital envelope. We use the visual appearance of the selected digital envelope to store the original message digital data file S(t); it is used in all different wavefront-applied files in different modes. In other embodiments, we may use other forms of digital envelopes, such as audio or multimedia formats, to hide or embed the original message digital data.

After the wavefront is overwritten, all M outputs will be uploaded to the cloud via WiFi and mobile networks. They may be stored at the same storage site, but it is also likely that different storage locations exist through different cloud storage operators.

When the original message data of the user is reorganized and restored, the user must retrieve any M-1 group from the digital file of the M group in the cloud, and then use the retrieved M-1 data file and a selected set of selected numbers. The envelope performs a set of M-to-M wavefront cancellations in post-processing 240; the set of selected digital envelopes is stored on the user's smartphone 159 or other read-only device 149, such as Figure 20. The illustrated one piece of iPad has a digital envelope in the candidate envelope document 180. A set of M-1 to 1 de-segmentation processes 241 placed after the set of wavefronts in post-processing 240 can reconstruct the original M-1 group to reconstruct a set of original message digital data S(t ). The reorganized restored message digital S(t) may also be displayed on a read-only device 149 such as an iPad.

Figure 20B shows a functional block similar to those in Figure 20A, sharing the concept of storing digital data files in the cloud 010 among multiple devices of the user; the private device illustrated on the simple block diagram may be a smart phone . There are three pieces of personal equipment here; the first one is a smartphone 159 with "write" and "read" capabilities, and the other two have read-only capabilities. The second piece of personal equipment is a read-only device 149; a smart phone that can only be read but not written, and the third private device is another read-only device 149; an iPad. The writing function in the smartphone 159 is similar to the pre-processing 230 or the sealing process in Fig. 20A. After the segmented original message is stored in the cloud 010, a set of M-pair-M waves in the pre-processing 230 is used to convert the plurality of sets of the divided original digital sub-strings into multiple sets of used digital data. The plurality of sets of overwritten digital data are stored in the cloud 010, and the reading capabilities and post-processing 240 or de-sealing of the smart phone 159 and the plurality of read-only devices 149 are similar. The original message number is restored by performing a conversion process on the M-to-M wavefront solution in the post-processing 240 by using the over-received digital data taken from the cloud.

Figure 20C depicts those tiles similar to those shown in Figure 20A. Figure 20C is a concept of sharing of multiple devices of one user among the illustrations. It indicates the "write" function on how to store the original information data file in the cloud 010 via the smartphone 159, and via the same smartphone 159 or from a different device at a different time or in a different city, from A simple block diagram of the cloud "reading" the same data file. In the process of "writing", a group of dividing devices 229, such as a TDM splitter, first divides a digital data file S(t) into groups of M-1 original digital data or small strings. Performing an M-pair-M wavefront pre-over conversion via a set of pre-processing 230; using the M-1 group-divided original digital data string as the M-1 inputs for this wavefront overlay conversion, and then from the local candidate envelope The digital envelope selected in document 180 serves as the input digital string for the last remaining input port. The M wavefronts generated by this wavefront over-conversion are over-applied and output. This group of wavefront overrides is also equipped with a preferential weighting scheme to make the M group output digital data with a visual appearance that is almost identical to the visual appearance of the selected digital envelope. The File Sealing feature uses the visual appearance of the selected digital envelope to wrap the different original message digital file S(t) patterns. In other embodiments, we can use other appearances of digital envelopes, such as audio or multimedia formats, to embed (hide) the original message digital file. The smartphone 159 has the functions of "writing" (uploading) and "reading" (downloading) independently.

All M outputs of the wavefront overlay will be uploaded to the cloud 010 via WiFi and mobile network 011 at the same time. They may be stored at the same storage site, and are likely to be stored in different storage locations through different cloud storage operators.

When the original message data of the user is reorganized and restored, the user must retrieve any M-1 group from the digital file of the M group in the cloud, and then use the retrieved M-1 data file and a selected set of selected numbers. The envelope performs a set of M-to-M wavefront cancellations in post-processing 240; the set of selected digital envelopes is stored on the user's smartphone 159 or other read-only device 149, such as Figure 20. The illustrated one piece of iPad has a digital envelope in the candidate envelope document 180. A set of M-1 to 1 de-segmentation processes 241 placed after the wavefront cancellation in the post-processing 240 can reconstruct the original digital string of the reconstructed M-1 group to recover a set of original digital data. S(t). The reorganized restored message digital S(t) may also be displayed on other read-only devices 149 (such as an iPad). This is an example of a redundant function.

On the other hand, when a user forgets the synchronization setting between the various devices of the user or other reasons, and the digital envelope selected when the available retrieval device is not sealed, the user can use all the M groups stored in the cloud. After the digital is overwritten, the restored original data file S(t) and the selected digital envelope can be recombined at the same time. This will be the technology used to retrieve and reorganize the digital envelopes selected by the user via the cloud. The recovered digital envelope can then be stored locally and then applied to future retrieval of different sealed digital files stored in the cloud.

In addition, when digital envelopes become available for retrieving stored data archives, this can also be used by the user to check the integrity of the stored digital data occasionally or continuously. The user can get all the M files stored in the cloud's sealed file and perform wavefront decoding to regenerate S'(t) and a regenerated digital envelope. Users can then use a regenerated digital envelope to compare the original known digital envelopes. When the result of the comparison is the same, it is a good indicator that the verified data file S'(t) is the original message number S(t). On the other hand, if the results of the comparison are different, its results indicate that the regenerated S'(t) has been impaired.

In other embodiments, a set of data files S(t) to be "written to the cloud 010" is first divided into M-x groups by a segmentation device 229, which may be a TDM splitter. The preprocessing 230 is used to perform an M-pair-M wavefront override on the Mx group into which S(t) is segmented and the y-group digital envelope selected from the candidate envelope document 180 as part of the M group input. Generate M sets of wavefront override outputs. The selected M group input ports include M-x group message input, y group digital envelope file, and y-x group ground input. Where x and y are both positive integers and y 3 x 3 1. This group of wavefront overrides is also equipped with a preferential weighting scheme so that the visual appearance of the M group output digital data is almost the same as that of one of the selected digital envelopes. The File Sealing feature uses the visual appearance of the selected digital envelope to wrap the different original message digital file S(t) patterns. In other embodiments, we can use other appearances of digital envelopes, such as audio or multimedia formats, to embed (hide) the original message digital file. The smartphone 159, as shown in Figs. 20B and 20C, can be "written" (uploaded) and "read" (downloaded) independently. In addition, digital envelopes are known and pre-set for a user and all of the user's predictable devices. This is very important and should be noted.

All M outputs of the wavefront overlay will be uploaded to the cloud via WiFi and mobile networks. They may be stored at the same storage site, and are likely to be stored in different storage locations through different cloud storage operators.

When the original message data of the user is reorganized and restored, the user must retrieve any M-1 group from the digital file of the M group in the cloud, and then use the retrieved M-1 data file and a selected set of selected numbers. The envelope performs a set of M-to-M wavefront cancellations in post-processing 240; the set of selected digital envelopes is stored on the user's smartphone 159 or other read-only device 149, such as Figure 20. The illustrated one piece of iPad has a digital envelope in the candidate envelope document 180. A set of M-1 to 1 de-segmentation processes 241 placed after the set of wavefronts in post-processing 240 may reconstruct the original digital string of the reconstructed M-1 group to recover a set of original digital data S. (t). The reorganized restored message digital S(t) may also be displayed on other read-only devices 149 (such as an iPad). This is an example of a redundant function.

On the other hand, when a user forgets the synchronization setting between the various devices of the user or other reasons, and the digital envelope selected when the available retrieval device is not sealed, the user can use all the M groups stored in the cloud. After the digital is overwritten, it can be used to recombine the restored original data file S(t) and the selected digital envelope. This will be the technology used to retrieve and reorganize the digital envelopes selected by the user via the cloud. The recovered digital envelope can then be stored locally and then applied to future retrieval of different sealed digital files stored in the cloud.

In addition, when digital envelopes become available for retrieving stored data archives, this can also be used by the user to check the integrity of the stored digital data occasionally or continuously. The user can get all the M files stored in the cloud's sealed file and perform wavefront decoding to regenerate S'(t) and a regenerated digital envelope. Users can then use a regenerated digital envelope to compare the original known digital envelopes. When the result of the comparison is the same, it is a good indicator to verify that the restored data file S'(t) is the original message number S(t). On the other hand, when the results of the comparison differ, its results indicate that the regenerated S'(t) has been impaired.

In other embodiments, a set of data files S(t) to be "written to the cloud 010" is first divided into M-x groups by a segmentation device 229, which may be a TDM splitter. The pre-processing 230 is used to perform an M-pair-M wavefront override on the Mx group into which S(t) is segmented and the y-group digital envelope selected from the local candidate envelope document 180 as part of the M-group input, and generate M The group wavefront is overwritten with the output. The selected M group input ports include M-x group message input, y group digital envelope file, and y-x group ground input. Where x and y are both positive integers and y 3 x 3 1. This group of wavefront overrides is also equipped with a preferential weighting scheme so that the visual appearance of the M group output digital data is almost the same as that of one of the selected digital envelopes. The File Sealing feature uses the visual appearance of the selected digital envelope to wrap the different original message digital file S(t) patterns. In other embodiments, we can use other appearances of digital envelopes, such as audio or multimedia formats, to embed (hide) the original message digital file. The smartphone 159, as shown in Figures 20B and 20C, can be independently "written" (uploaded) and "read" (downloaded).

Only the M-x group in the M group's override output will be uploaded to the cloud through different WiFi and mobile networks. They can be stored on the same storage site and will likely be stored in different storage locations through different cloud storage operators.

When restoring a user's original message data, the user should retrieve the wavefront-applied digital file of the Mx group from the cloud, and then the digital file of the retrieved Mx group, the zero input of the yx group, and y The group selected known digital envelopes are subjected to a set of M-to-M wavefront unwrapping processes in post-processing 240. The selected known digital envelopes are stored in the candidate envelope document 180 of the user smartphone 159 or other read-only device 149; for example, in an iPad as shown in FIG. After the set of wavefront decoding processes in post-processing 240, a set of de-segmentation process 241 will reconstruct the Mx group after the digital string recombination into the stored original message digital data S(t), and then the original message digital S(t) may also be displayed on other read-only devices 149 (such as an iPad). The redundancy for wavefront coverage and wavefront cancellation is not shown in this embodiment.

In addition, N sets of overlay output can also be uploaded to the cloud simultaneously through the two types of network interfaces of WiFi and cellular phones, where N is an integer greater than M-x. They can be stored on the same storage site and are likely to be stored in different storage locations through different cloud storage operators. This storage mode has N - (M-x) redundancy. When it is necessary to restore the data of an original user, the user only needs to retrieve the Mx group file from the N group storage files in the cloud, and then perform a set of M-to-M wavefront decoding and utilization in the post-processing 240. The zero input of the known yx group and the y group reorganize the original digital data file of the Mx from the digital envelope selected locally in the candidate envelope document 180. The candidate envelope document 180 is on the user's smartphone 159 or other read-only device 149, such as an iPad as shown in Figure 20A. The original message data that can be displayed on other read-only devices 149 (such as an iPad) can be recovered via a set of Mx to 1 de-segmentation processes 241 after a set of wavefront decoding operations in post-processing 240. S(t).

Additional comments

In the above application for wavefront override, a wavefront predepator can also replace the wavefront override conversion of the multiple input signals with the first set of non-orthogonal matrices. As for the above-described application for wavefront cancellation, a wavefront demultiplexer can replace the wavefront solution conversion for performing multiple input signals with a second non-orthogonal matrix. The second non-orthogonal matrix is an inverse matrix of the first non-orthogonal matrix.

The above-described components, steps, features, advantages and advantages that have been discussed are merely exemplary. Regardless of any patterns, they are not used to limit the scope of protection. Many other embodiments are also contemplated. These include embodiments having fewer, additional, and/or different components, steps, features, benefits and advantages. These are also included in the components, and/or the arrangement of steps, and/or the different embodiments.

All measurements, values, ratios, positions, sizes, dimensions, and other specifications included in the specification, including the specification of the claims below, are intended to be a description rather than a precise description. Their purpose is to have functions that are relevant to them and to what they are accustomed to, within a reasonable range, to be consistent with them. Further, unless otherwise stated, the numerical range is provided for the purpose of including the lower and upper limits. In addition, all material selections and values are merely representative of preferred embodiments unless otherwise indicated; other numerical ranges and/or materials may be used in various embodiments. .

The scope of the protection is to be limited only by the scope of the claims, which are intended to be consistent with the language of the explanation in the claims, and are intended to be consistent with the general meaning of the specification and the subsequent application review history, and include all of its architectures. Under the conditions of the equivalent of function, do as widely explained as possible.

110‧‧‧Communication business concept
130‧‧‧Pretreatment
010‧‧‧Cloud
140‧‧‧ Post-processing
180‧‧‧candidate envelope document
180-1‧‧‧First subdocument of candidate envelope
180-2‧‧‧ Second envelope of candidate envelope
521‧‧‧first column
522‧‧‧second column
523‧‧‧ third column
130-1‧‧‧First pretreatment
130-2‧‧‧Second pretreatment
140-1‧‧‧First post treatment
140-2‧‧‧Second post-processing,
630‧‧‧Pretreatment
640‧‧‧ Post-processing
159‧‧‧Smartphone
229‧‧‧Segmentation equipment,
230‧‧‧Pretreatment
011‧‧‧Mobile network
240‧‧‧ Post-processing
241‧‧ ‧ segmentation process,
149‧‧‧Reading only equipment
139‧‧‧Note
1710‧‧‧ Architecture providing additional information
1800‧‧‧Master News
2000‧‧‧Sub-version news
1790‧‧‧User receiver

Some illustrative embodiments of the invention are disclosed in the drawings. They do not illustrate all of the embodiments. Other embodiments may be used additionally or alternatively. In order to save space or more efficient description examples, many of the omitted details may be obvious or unnecessary. On the contrary, some embodiments may be practiced without all of the details disclosed. In addition, the same reference numbers or reference indicators will appear in the different figures, which may refer to the same or similar components or steps.

The invention in this application is to be understood as being understood by the description of the appended claims. The drawings are not necessarily to scale, the

1 shows a block diagram of a digital envelope for a certain set of digital files, including embedding the set of digital files into a set of digital images through a set of 2 to 2 wavefront overlay processors, in accordance with an embodiment of the present invention. In the envelope, a set of the two sets of outputs of the processor is selected to transmit to the destination through the cloud, and the digital envelope is opened at the destination and the original digital file data collected in the digital envelope is collected. A digital envelope is a set of numbers selected from a plurality of sets of candidate digital envelopes that are known to both the sender and the recipient. It is also a set of digital transmission modes for the sender at the source and the receiver at the destination. . The process of sealing and unsealing a set of digital envelopes is also referred to as sealing and unsealing, respectively.

FIG. 1A illustrates a row of six sets of candidate digital envelopes in accordance with an embodiment of the present invention.

FIG. 1B shows another row of five sets of candidate digital envelopes in accordance with an embodiment of the present invention.

Figure 2 shows a set of images shown in accordance with some embodiments of the present invention, which are reproduced from Figure 5D of U.S. Patent Application Serial No. 13/953,715 (PA Publication No. US 2014-0081989 A1); Computer analogy to prove the feasibility of image camouflage. The four images in the first column are input to a set of 4 to 4 wavefront overlay processors. This "horse image" in the first column was chosen as the image of digital camouflage. Effectively, the four images in the second column are covered with this horse race.

Figure 3 shows some embodiments of the receiver at the destination according to the invention; it is a seal/solution via a set of 2 to 2 wavefront overrides for users who are unable to reach the original digital envelope. Block diagram of the sealing process. It is a block diagram similar to Figure 1. The sender sends the two outputs to the receiver via the cloud, and then restores the original digital envelope and embedded through a set of 2 to 2 wavefront de-emabovers. Digital message.

4 shows a block diagram of a double seal in accordance with some embodiments of the present invention.

Figure 5 shows a block diagram of a double-encapsulation in accordance with some embodiments of the present invention.

6 illustrates a block diagram of a high level seal that is embedded within a set of digital messages for a set of digital messages via a high order wavefront overlay, in accordance with some embodiments of the present invention.

7 illustrates a block diagram of reconstructing an embedded digital message from a set of sealed digital streams through a high-order wavefront decoding, in accordance with some embodiments of the present invention; a high-order de-seal.

8 shows a block diagram of a double-encapsulation of an embedded digital message by high-order wavefront overlay in accordance with some embodiments of the present invention.

9 illustrates a block diagram of de-double-encapsulation of reconstructing an embedded digital message from two subsequent digital streams via high-order wavefront decoding, in accordance with some embodiments of the present invention.

Figure 10 is a block diagram showing the generation of 4 strings of available packed data streams through a set of 4 to 4 wavefront overrides, followed by 3 strings transmitted through the cloud, in accordance with some embodiments of the present invention.

Figure 11 illustrates a block diagram of a de-encapsulation used to restore an embedded digital message by using a set of 4 to 4 wavefront solutions to remove any two of the three strings of digital streams coming down the cloud, in accordance with some embodiments of the present invention.

Figure 12 illustrates another de-blocking block diagram for restoring an embedded digital message by using a set of 4 to 4 wavefront solutions to remove any two of the three strings of digital streams from the cloud, in accordance with some embodiments of the present invention.

Figure 13 illustrates a de-blocking block diagram for restoring an embedded digital message by transmitting a three-string digital stream from the cloud through a set of 4 to 4 wavefront de-splits in accordance with some embodiments of the present invention.

14 illustrates another block diagram of a three-string digital stream from the cloud for restoring an embedded digital message through a set of 4 to 4 wavefront de-splits in accordance with some embodiments of the present invention.

Figure 15 illustrates a dual-encapsulated block diagram for generating a set of transmitted digital envelopes through a cloud through a set of 2 to 2 wavefronts and another set of 4 to 4 wavefronts in accordance with some embodiments of the present invention.

Figure 16 illustrates the use of a set of 2 to 2 wavefront cancellations and another set of 4 to 4 wavefront cancellations and only a set of cloud-sealed digital streams through a cloud in accordance with some embodiments of the present invention. A double-blocked block diagram of embedded digital messages.

Figure 17A is a block diagram of a digital seal applied to Digital Rights Management (DRM) in accordance with some embodiments of the present invention; through a unique identification image embedded in a sub-page digital archive/movie screen, and then stored in the cloud or Sub-file/movie screens issued separately. ,

Figure 17B illustrates a de-blocking block diagram of a digital archive or cloud stored movie image in accordance with some embodiments of the present invention; for restoring a unique identification screen or logo file embedded in a sub-digital file/movie screen.

FIG. 18A illustrates an application block diagram embedded in different modes by digitally encapsulating in two sub-page broadcast digital archives, and then through a cloud or other form of broadcast/rebroadcast application block diagram, in accordance with some embodiments of the present invention. .

Figure 18B shows an application block diagram showing the restoration and restoration of the same additional message embedded in different modes via digital de-seal after receiving two broadcast/re-broadcast two digital broadcast digital files in accordance with some embodiments of the present invention. .

FIG. 19 is a diagram showing an application for storing pre-processed wavefront overlay data in the cloud and pre-processing of reconstructed original digital data from the cloud-preserved wavefront overlay data in accordance with some embodiments of the present invention. block diagram.

FIG. 19A illustrates another embodiment of original digital data recombined and restored via post-processing of pre-processed wavefront overlay data in the cloud and pre-filtered overlay data stored from the cloud in accordance with some embodiments of the present invention. Application block diagram.

FIG. 19B illustrates another embodiment of the original digital data recombined and restored by post-processing in the cloud storage pre-processed wavefront overlay data and cloudfront stored overlay data stored in the cloud, in accordance with some embodiments of the present invention. Application block diagram.

FIG. 19C illustrates another embodiment of the original digital data recombined and restored via post-processing of the wavefront overlay data stored in the cloud and the wavefront overlay data stored from the cloud in accordance with some embodiments of the present invention. Application block diagram.

FIG. 20 is a diagram showing the wavefront overlay data after the original message digit is stored in the cloud by a device of a certain user and the wavefront overlay data stored from the cloud via the user according to some embodiments of the present invention. An application block diagram of the reprocessing of the original message number data by post-processing of another device.

FIG. 20A is a diagram showing the wavefront overlay data after the original message digit is stored in the cloud by a device of a certain user and the wavefront overlay data stored from the cloud via the user according to some embodiments of the present invention. Another application block diagram of the reprocessing of the original message number data by post-processing of another device.

FIG. 20B illustrates a wavefront overlay data and a wavefront overlay data stored from the cloud stored by the user using a handheld device of a certain user in the cloud according to some embodiments of the present invention. An application block diagram of the reprocessing of the original message number data of another handheld device.

FIG. 20C illustrates a wavefront overlay data and a wavefront overlay data stored from the cloud stored by the user using a handheld device of a certain user in the cloud according to some embodiments of the present invention. Another application block diagram of the reprocessing of the original message number data of another handheld device.

110‧‧‧Communication business concept

130‧‧‧Pretreatment

010‧‧‧IP cloud

140‧‧‧ Post-processing

180‧‧‧candidate envelope document

Claims (19)

A set of digital data transmission and storage systems on a private device, a set of documents between destinations; including: a set of documents on a private device; a set of functions capable of performing multiple inputs to multiple output transforms a preprocessor, wherein the plurality of inputs include a first input stream in the private device document, and a second data stream as a digital envelope file; wherein the first output of the preprocessor The terminal includes an encrypted digital data stream and a transport channel configured to connect the first output of the pre-processor to the destination. The system of claim 1, wherein the sealed digital data further comprises a set of weighted sums of the first and second input streams and a weighted sum of the digital forms. The input stream will basically have exactly the same audio characteristics for human audio senses. The digital envelope described is known to all intended reading devices as in the system of claim 1. The system described in claim 1 is configured on a portable private device or a personal computer. The system described in claim 1 is disposed between a portable private device or a personal computer and a distributed storage system. The system of claim 5, wherein the storage system comprises a storage system in the cloud. The system of claim 1, wherein the preprocessor is further configured to have a function of selecting a sealed digital document for display. The system of claim 1, wherein the conversion in the preprocessor further comprises a function of preferentially weighting one of the input digital documents to sense the appearance of all of the plurality of digital outputs, In terms of human body image, video or audio sense, the sensing characteristics of the weighted input digital document described above are basically the same. As described in the system of claim 1, the conversion in the preprocessor further includes wavefront overtaking using orthogonal matrix conversion. The system of claim 9 further includes a Fourier transform. As described in the system of claim 9, the conversion further includes a sea aunt conversion. As described in the system of claim 1, the conversion described in the preprocessor further includes wavefront override using non-orthogonal full-matrix conversion. The system of claim 1, wherein the multiple inputs in the preprocessor are configured to be connectable to a known shared digital file but are different for different input ports. Time delay. A system as claimed in claim 1, wherein one of said plurality of outputs in said preprocessor is grounded. The system of claim 1, wherein the plurality of inputs in the preprocessor further comprise a set of data sets having verification functions. A set of stored documents on the cloud, a set of digital data file transfer and retrieval systems between documents on the receiving destination; including: a set of sealed digital files stored in the cloud document; A post processor on the destination is configured to perform a set of transformations from multiple inputs to multiple outputs, wherein the plurality of inputs includes a first input stream coupled to the stored sealed digital file; The first output of the post-processor includes a first output data stream of the reconstructed original information digit, and a transport channel; the channel is configured to connect to the first output of the post-processor and Store the document on the cloud. The system of claim 16, wherein the reconstituted restored original information number further comprises a weighted sum of the first and second input digital documents and the first input digital file format sensing appearance, For human audio senses, the sensing characteristics of the second input digital file are substantially identical. The system of claim 16, wherein the multiplex input further comprises a second input digital file for use as a digital envelope. The system described in claim 16 is configured on a portable private device or a personal computer.