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i wonder if a good use for copilot ai would be in 'creating' the matter you're seeking, desire, need whether you know it or not. therefore, you can't use a browser.....you need v ip? mle/521/etc? wags.
credit to chris nagel....a guy who stood infront of the doubting thomases of academia.
Twisted light, also known as an optical vortex, is a captivating phenomenon in the field of optics. Let’s unravel its intriguing properties:
Twisting Like a Corkscrew:
In an optical vortex, light waves twist around their axis of travel, resembling a corkscrew.
At the axis itself, the light waves cancel each other out, resulting in a point of zero intensity.
When projected onto a flat surface, an optical vortex appears as a ring of light with a dark hole at the center.
Topological Charge:
Each optical vortex is assigned a topological charge, which represents the number of twists the light undergoes within one wavelength.
The topological charge is always an integer and can be positive or negative, depending on the twist direction.
Higher topological charges indicate faster spinning of light around its axis.
Angular Momentum and Torque:
Twisted light carries orbital angular momentum (OAM) due to its twisting motion.
This OAM induces torque on electric dipoles, affecting the behavior of matter.
Unlike spin angular momentum, which produces circular polarization, OAM is distinct and can be observed in the orbiting motion of trapped particles.
Creation and Study:
Optical vortices are studied by creating them in the lab using various methods:
Direct generation in a laser.
Twisting a laser beam via computer-generated holograms, spiral-phase delay structures, or birefringent materials.
Interfering an optical vortex with a plane wave reveals its spiral phase as concentric spirals.
Applications:
Twisted light has practical applications:
Optical tweezers: Precisely manipulating particles using focused twisted light.
Chiral molecules: Selectively affecting chiral molecules based on polarization and OAM.
Quantum systems: Modifying quantum states using twisted light.
In summary, twisted light’s unique properties make it a fascinating area of study with potential implications in diverse fields. 🌟🔍🔬 12345
The Breit–Wheeler process is a fascinating phenomenon in physics where matter is directly created from light. Let’s explore this intriguing concept:
Process Description:
The Breit–Wheeler process involves the collision of two high-energy photons (particles of light).
When these energetic photons collide, they can spontaneously create an electron–positron pair (a positron and an electron).
Essentially, pure light energy is transformed into matter.
Significance:
The Breit–Wheeler process is the simplest mechanism by which light can potentially be converted into matter.
It follows Einstein’s famous equation E=mc², which relates energy (E) to mass (m) and the speed of light ©.
Experimental Challenges:
Creating a significant number of pairs through this process requires extremely bright, collimated sources of photons with energies close to or above the rest mass energy of electrons and positrons.
Technological challenges remain in manufacturing such sources, such as gamma-ray lasers.
History:
The process was first described theoretically by physicists Gregory Breit and John A. Wheeler in 1934.
Their work built upon earlier theoretical ideas by Paul Dirac on antimatter and pair annihilation.
Observations:
While the Breit–Wheeler process is still challenging to observe experimentally on Earth, its importance lies in understanding the absorption of high-energy photons traveling cosmic distances.
The related multi-photon Breit–Wheeler process has been observed in experiments involving high-energy electrons colliding with intense laser pulses.
In summary, the Breit–Wheeler process bridges the gap between light and matter, offering a glimpse into the fundamental interactions of our universe. 🌟🔬
For more details, you can explore the Wikipedia article on the Breit–Wheeler process1.
The Breit–Wheeler process is a fascinating phenomenon in physics where matter is directly created from light. Let’s explore this intriguing concept:
Process Description:
The Breit–Wheeler process involves the collision of two high-energy photons (particles of light).
When these energetic photons collide, they can spontaneously create an electron–positron pair (a positron and an electron).
Essentially, pure light energy is transformed into matter.
Significance:
The Breit–Wheeler process is the simplest mechanism by which light can potentially be converted into matter.
It follows Einstein’s famous equation E=mc², which relates energy (E) to mass (m) and the speed of light ©.
Experimental Challenges:
Creating a significant number of pairs through this process requires extremely bright, collimated sources of photons with energies close to or above the rest mass energy of electrons and positrons.
Technological challenges remain in manufacturing such sources, such as gamma-ray lasers.
History:
The process was first described theoretically by physicists Gregory Breit and John A. Wheeler in 1934.
Their work built upon earlier theoretical ideas by Paul Dirac on antimatter and pair annihilation.
Observations:
While the Breit–Wheeler process is still challenging to observe experimentally on Earth, its importance lies in understanding the absorption of high-energy photons traveling cosmic distances.
The related multi-photon Breit–Wheeler process has been observed in experiments involving high-energy electrons colliding with intense laser pulses.
In summary, the Breit–Wheeler process bridges the gap between light and matter, offering a glimpse into the fundamental interactions of our universe. 🌟🔬
For more details, you can explore the Wikipedia article on the Breit–Wheeler process1.
lifecycle management:"Service Fabric supports the full application lifecycle, from development through deployment to eventual decommissioning.
It integrates seamlessly with popular CI/CD tools like Azure Pipelines, Jenkins, and Octopus Deploy.
In summary, Azure Service Fabric streamlines microservices development, orchestrates containers, and excels in supporting data-aware, low-latency workloads with stateful containers1234."
sounds like ploinks/puddle?
Certainly! Azure Service Fabric offers several benefits for developing and managing scalable microservices applications in distributed systems:
Scalability:
Azure Service Fabric allows you to build highly scalable applications by creating and managing microservices.
It supports dynamic scaling, enabling applications to handle varying workloads efficiently.
Reliability:
Service Fabric provides built-in support for managing and scaling services.
It ensures high availability and durability, making applications resilient to failures.
Automatic self-healing mechanisms handle faults when they occur.
Stateful Services:
A key differentiator of Service Fabric is its robust support for building stateful services.
Developers can choose between Service Fabric’s built-in programming models or containerized stateful services.
Stateful services maintain data across restarts, improving performance and consistency.
Container Orchestration:
Service Fabric acts as Microsoft’s container orchestrator for deploying and managing microservices.
It benefits from lessons learned running Microsoft services at massive scale.
Applications can be deployed in seconds, with high density (hundreds or thousands of applications or containers per machine).
Any OS, Any Cloud:
You can create Service Fabric clusters anywhere, including Azure, on-premises (Windows Server or Linux), and other public clouds.
The development environment in the Service Fabric SDK is identical to the production environment, ensuring consistency.
Application Lifecycle Management:
Service Fabric supports the full application lifecycle, from development through deployment to eventual decommissioning.
It integrates seamlessly with popular CI/CD tools like Azure Pipelines, Jenkins, and Octopus Deploy.
In summary, Azure Service Fabric streamlines microservices development, orchestrates containers, and excels in supporting data-aware, low-latency workloads with stateful containers1234. 🌟🚀
this is interesting...copilot could get you an A in class assignment. took like 10sec:me'
Pasted from page
to take advantage of copilot/ai/service, the messaging/communications would benefit from being on the same fabric platform for infrastucture like database, ai, etc in the manner of msft fabric?
maybe also considered a network, which could be virtually constituted by using dynamic dns addresses to include the desired virtual servers and virtual services? guesses.
=Generating answer using selected text
Generating answers for you…
Certainly! Let’s break down the key points from the text:
Integration of Copilot/AI/Service:
The author suggests that combining Copilot, AI, and service functionalities would be beneficial.
They propose that these components should operate on the same fabric platform for infrastructure, including elements like databases and AI services.
The comparison is drawn to Microsoft Fabric, which is known for its robust and integrated architecture.
Virtual Network Consideration:
The author also considers creating a virtual network using dynamic DNS addresses.
This network would include desired virtual servers and virtual services.
The goal is to enhance communication and coordination among these components.
Additional Facts:
Microsoft Fabric:
Microsoft Azure Service Fabric is a distributed systems platform for building and managing scalable, reliable, and easily deployable microservices and containers.
It provides features like stateful services, reliable actors, and orchestration.
Azure Service Fabric is used by various organizations for cloud-native applications and services.
Dynamic DNS (DDNS):
DDNS allows domain names to be automatically updated with the correct IP address when the IP address changes.
It’s commonly used for home networks, remote access, and virtual servers.
DDNS services provide a way to map dynamic IP addresses to domain names, ensuring accessibility even when the IP changes.
In summary, integrating Copilot, AI, and service components on a unified fabric platform and considering virtual networks can enhance communication and efficiency in modern architectures. 🌐🚀
would need a snap fabric? for the disappearing data/media?
would need a virtual snap fabric? or network? wags.
eval spiegel is keynote at 2024 ces. snapchat
'Certainly! Let’s explore disappearing messaging in two popular platforms: Snapchat and Facebook Messenger.
Snapchat: Disappearing Snaps and Chats
Chats:
By default, Chats sent between you and another friend are deleted 24 hours after viewing.
You can also set Chats to delete right after viewing them.
In Group Chats, messages are deleted by default after 24 hours.
To change when Chats delete:
Swipe right from the Camera screen to go to the Chat Screen.
Press and hold on a friend’s name.
Tap Chat Settings.
Choose either “After Viewing” or “24 Hours after Viewing”.
Either you or your friend can change this setting.
For Snaps (photos or videos):
If your Chats are set to delete 24 hours after viewing, you can set Snaps to delete after 24 hours as well.
To do this:
Open the one-on-one conversation with your friend.
Tap on “24 hours after viewing” in the Chat to open Conversation Settings.
Toggle on “Keep Snaps in Chat”.
Note that switching from “24 Hours after Viewing” to “After Viewing” will make previously viewed Chats disappear.
Messages won’t delete immediately if someone saves, replies, or reacts to them12.
Facebook Messenger: Vanish Mode
Vanish Mode allows you to send disappearing messages in Facebook Messenger:
Open a conversation with someone you’re friends with.
Use the mobile app for iPhone, iPad, or Android.
While in the conversation view, swipe up from above the text box.
You’ll enter Vanish Mode, where messages disappear after viewing.
The background becomes dark, indicating you’re in Vanish Mode3.
Remember that both Snapchat and Facebook Messenger prioritize ephemerality, ensuring that messages vanish after being viewed, adding an element of privacy and spontaneity to your conversations"
copilot says:
The legal aspects surrounding the discontinuation of perpetual licenses can vary based on the specific terms and language within the licensing agreement. Let’s delve into some key points:
Perpetual Licensing Agreements:
A perpetual licensing agreement typically grants the licensee rights of access and use indefinitely, often in exchange for a one-time fee paid to the licensor.
However, the term “perpetual” doesn’t necessarily mean it lasts forever without any conditions. Instead, it signifies that the license has an unlimited term, as long as neither party chooses to terminate it12.
Termination Language:
The ability to terminate a perpetual license depends on the language used in the agreement.
If the agreement states that it is “revocable at will,” the licensor can likely terminate it for any reason at any time.
Conversely, if the agreement contains the term “irrevocable,” termination becomes more challenging.
The overall interpretation of the agreement plays a crucial role in determining termination possibilities1.
Material Breach:
Even under a truly irrevocable perpetual licensing agreement, if the licensee commits a material breach, the licensor has the right to terminate.
Examples of material breaches include:
Sharing or sublicensing with a third party.
Commercial use of the licensed property.
Unauthorized copying of the property.
The agreement should specify restrictions and describe conduct constituting a material breach1.
Silent Agreements:
If an agreement is silent on restrictions, revocability, and termination (meaning it contains no language regarding these issues), the outcome depends on the agreement’s duration.
Courts have found that non-exclusive perpetual agreements, which are silent about revocability, can be revoked at will.
Conversely, non-exclusive term agreements (with fixed timeframes) that are silent about revocability are generally not terminable during the term.
Precise drafting is essential to avoid relying solely on default rules1.
In summary, the legal reasons for discontinuing perpetual licenses hinge on the specific wording of the agreement, the presence of material breaches, and the overall context. For personalized advice, consulting an experienced licensing attorney is recommended1.=====================
did mills screw v ip in the writing of the agreements/contracts? and for some illegal consideration?
kona, thanks. i'd still be keeping an eye out on the historical v ip licensees and non-licensees with vip stuff.
abolition of perpetual licenses seem an interesting investigative area. i wonder what the legal justification is based on? whim?
The Discrete Cosine Transform (DCT) is a widely used transformation technique in signal processing and data compression. It expresses a finite sequence of data points in terms of a sum of cosine functions oscillating at different frequencies1. Unlike the Fourier Transform, which uses sine and cosine functions, the DCT only employs cosine functions.
Here are some key points about the DCT:
Purpose: The primary purpose of the DCT is to transform data from the spatial domain (such as pixel values in an image) to the frequency domain. It is particularly useful for compressing highly correlated data, such as images and video sequences.
Applications:
Image Compression: In lossy image compression standards like JPEG, the DCT is applied to blocks of pixel data. The resulting coefficients are quantized and encoded to achieve compression.
Video Compression: Video codecs (such as H.264) also use the DCT for compressing video frames.
Audio Compression: Some audio compression formats (like MP3) use variants of the DCT.
Computational Complexity: The DCT involves floating-point arithmetic, which can be computationally expensive. However, there are approximations of the DCT that use only additions and bit-shift operations, making them more suitable for low-cost hardware implementations and battery-operated devices2.
Approximations: Researchers have explored various approximations of the 8-point DCT to balance computational complexity and accuracy. These approximations aim to achieve multiplierless transformations while maintaining acceptable image quality. The scenarios considered include compression, decompression, and both stages2.
Hardware Implementation: The possibility of implementing these approximations in Field-Programmable Gate Array (FPGA) circuits has been investigated. The results indicate low resource utilization, making them feasible for practical hardware implementations2.
In summary, the DCT plays a crucial role in efficient data compression, and its approximations continue to be an active area of research and development.
quantum annealing and quantum model .....on chip manipulation.
arbitrary objects and framework/fabric.
electromagnetic manipulation of soc.
how? by teaching the soc memristors a gate pathway based on a specific electromagnetic state of the soc? wags.
an 'emPath'?
would need a soft fabric in the manner of 8 ip licensed to st micro? wags.
intel licensed 8 admin software, ? for such?
msft virtual trunking of sip variety for such?
arbitrary objects and framework /dct / etl of media to be streamed and the streaming content with the desire to maintain fidelity of the content.
a fabric for such in the manner of msft azure?
:copilot says:hvec and h.265 standards and discete cosign transform
Copy
Searching for: hvec and h.265 standards and discrete cosine transform
Generating answers for you…
Certainly! Let’s delve into the fascinating world of video compression standards and the discrete cosine transform (DCT).
H.265/HEVC (High Efficiency Video Coding):
H.265, also known as HEVC, is a video compression standard that significantly improves the rate-distortion efficiency compared to its predecessor, H.264/AVC.
It achieves better compression by using more advanced techniques.
One of the key components in H.265/HEVC is the discrete cosine transform (DCT).
The DCT is a mathematical operation that transforms spatial information (pixel values) into frequency domain coefficients.
In H.265/HEVC, the DCT is used to approximate original image data and reduce redundancy.
The standard specifies various block sizes for the DCT, including 4x4, 8x8, 16x16, and even 32x32 transforms.
These larger transform units require increased resources due to the extended range of values in the transform matrix.
H.265/HEVC also employs integer basis functions, which better approximate the original DCT.
Overall, H.265/HEVC achieves high compression efficiency while maintaining image quality 12.
Discrete Cosine Transform (DCT):
The DCT is a fundamental operation in video compression.
It aims to decorrelate image data by transforming it from the spatial domain to the frequency domain.
The DCT is widely used in various video coding standards, including H.265/HEVC.
It involves breaking down image blocks into frequency components (cosine waves) and quantizing them.
The resulting coefficients represent the energy distribution across different frequencies.
By focusing on the most significant coefficients, the DCT reduces redundancy and allows efficient compression.
In practical implementations, regular multipliers are used to compute the DCT coefficients.
These coefficients play a crucial role in achieving high compression ratios while preserving visual quality 3.
In summary, H.265/HEVC leverages the discrete cosine transform to achieve impressive compression efficiency, making it a crucial standard for modern video encoding.
discrete cosine transform in image compression treats an image block as if it were periodic and reconstructs any resulting jumps at the boundaries.....if in a quantum computing architecture would it be non-linear motion vector estimation? and periodic is 'time' related and could be transformed to frequency, so that larger blocks would require more high-frequency components to reconstruct these jumps accurately. usina the 8x8 blck size strikes a balance by avoiding excessive blocking artifacts without encoding too much high-frequency information. .....said copilot/parphrasing it.
video compression for streaming?
Merry Christmas to all v ip believers.and the rest of the world.
wade's trust might have been/be the leverage? wags? i will only be happy when we see the money. if this be a conspiracy, i guess it's way bigger than wade and mills and farias alone.
hopefully, these broadcom changes on vmware license and support are related to vcsy new management making changes...."Certainly! As of December 11, 2023, Broadcom has made significant changes to VMware’s licensing model. Here are the key points:
End of Perpetual License Sales:
Broadcom, which recently acquired VMware, has decided to transition VMware into a subscription-based business.
As a result, perpetual licenses for VMware products are no longer available for sale.
Customers can no longer purchase new perpetual licenses with VMware products.
Support and Subscription (SnS):
VMware will also stop selling support and subscription (SnS) for products with perpetual licenses.
Existing customers with active support contracts can continue using their perpetual licenses.
VMware will honor contractual commitments and provide support during the active support period.
However, once the SnS terms expire, perpetual licenses won’t receive any further support.
Subscription-Only Model:
Going forward, VMware will offer term licenses or subscriptions exclusively.
The industry has already embraced subscription models as the standard for cloud consumption.
Broadcom aims to encourage customers to transition from perpetual licensing to subscription-based models.
For customers making this transition, Broadcom is offering upgrade pricing incentives (details not specified in the blog).
In summary, VMware’s licensing model has shifted toward subscriptions, and perpetual licenses are no longer available for purchase. Existing perpetual license holders can continue using them, but they won’t receive support once their SnS terms expire1. 🌟🔒
"
PALO ALTO, Calif., Dec. 22, 2023 (GLOBE NEWSWIRE) -- Broadcom Inc. (NASDAQ: AVGO) announced today that the District Court in Munich, Germany fined Netflix €7.05 million for its infringement of a Broadcom patent. This fine was for Netflix’s continued infringement of the patent in deliberate violation of the court’s September 14, 2023 judgment that Netflix infringes the patent and must cease and desist all further infringement in Germany. The European patent at issue, EP 2 575 366, covers key features often used in HEVC/H.265 video coding, which Netflix uses to encode and stream Ultra HD content to subscribers.===================================
copilot says:
'In summary, the Fourier transform enables efficient video compression by analyzing and representing video frames in the frequency domain, leading to smaller file sizes without significant loss of quality12. 🌟🎥🔢
8x8 and video compression ip....it's in the 8 wheelhouse.
😃
vmw licensing new deals.....no more perpetual license, which could herald v management statement of no perpetual licenses.....cuz wades a crook?
so's mills.
would that tell us something?
Merry Christmas to us. longer lives for all of us good people.
remembering vmw patent based on v ip 266 for 'testing'; lg/broadcom/vmware/vmware and dell; dell sold off vmw for broadcom to buy without alerting the general investing public to their ultimate quest. and it's the lg adopted nephew now trying to cut out the former ceo's family? timing says the old ceo set it up, but the adopted ceo is trying to become the new king over the old samsung family and the rest of soko. heck , they even had the samsung guy in jail, but now he's out and likely trying to negotiate a deal with the wife and daughters. but likely , they already have a deal? but if the deal hinges on v ip.......and the old ceo's stating of legacy for his wife and daughters....a problem for the new guy? or , that 's one scenario? now to complicate things more, mike lynch....security/vip. discussions with lg/sammie/ etc during the v against the world x msft litigation? were they in a deal, which got sidelined by v ip? valde , one would think, should have interesting information or suspicions..meetings he didn't get to attend? or the other boards x wade, farias, mills? But it's just my fantasy/ies.
====
Certainly! Let’s explore the fascinating connection between Broadcom’s Test Data Management (TDM) and time and frequency.
Broadcom’s Test Data Management (TDM):
Broadcom’s Test Data Manager (TDM) is a comprehensive solution for managing test data across various environments.
Key features of Broadcom’s TDM include:
Data Privacy and Compliance: Helps address data privacy and compliance issues related to corporate mandates and regulations.
Discovery and Profiling: Identifies personally identifiable information (PII) across multiple data sources.
Mainframe Support: Allows testing using small, rich subsets of test data directly within the mainframe.
Environment Cloning: Automatically clones data sets provisioned for testing, enabling parallel work by multiple teams.
SAP and Modern Environments: Supports testing in legacy environments (including mainframe and SAP applications) as well as modern mobile and microservices environments123.
Time and Frequency:
Time and frequency are fundamental concepts in physics and metrology.
NIST’s Time and Frequency Division is a leader in time and frequency measurement and control.
Their work includes:
Maintaining standards for time and frequency.
Providing official time to the U.S.
Research and service activities in time and frequency metrology.
NIST’s projects cover topics such as atomic clocks, lasers, cold atoms, and quantum computing45.
In summary, Broadcom’s Test Data Management enhances data privacy and compliance, while NIST’s Time and Frequency Division ensures accurate timekeeping and frequency standards for scientific and technological advancements14. 🌟⏱️
Certainly! Let’s explore the connection between LG Electronics and Broadcom Corporation:
LG Electronics and Broadcom’s 5G WiFi Technology:
LG Electronics has chosen Broadcom’s 5G WiFi technology (based on the IEEE 802.11ac standard) for use in select 2013 LG digital TV models.
By adopting Broadcom’s technology, LG enables consumers to seamlessly stream and share high-resolution content between mobile devices and smart TVs.
This partnership allows LG consumers to escape small screens and reliably stream HD-quality video onto larger displays.
The 5G WiFi technology delivers dramatic capacity, range, and power benefits.
It significantly improves home wireless range, provides higher-capacity video streaming, and reduces power consumption in mobile devices.
LG Electronics leads the market with next-generation digital TV innovations, enhancing the consumer’s viewing experience1.
Broadcom’s Commitment to 5G WiFi:
Broadcom introduced the industry’s first 5G WiFi chips at CES 2012.
The company committed to enabling the adoption of 5G WiFi technology across all wireless product segments.
The LG partnership marks an important milestone—the industry’s first 5G WiFi Smart TV.
Broadcom continues to expand the ecosystem of 5G WiFi products available to consumers and drive rapid adoption of this technology1.
In summary, LG’s adoption of Broadcom’s 5G WiFi technology enhances the connectivity and streaming capabilities of LG digital TVs, providing consumers with a seamless experience for sharing content between devices1. 🌟📺
Certainly! Let’s explore the connection between LG Electronics and Broadcom Corporation:
LG Electronics and Broadcom’s 5G WiFi Technology:
LG Electronics has chosen Broadcom’s 5G WiFi technology (based on the IEEE 802.11ac standard) for use in select 2013 LG digital TV models.
By adopting Broadcom’s technology, LG enables consumers to seamlessly stream and share high-resolution content between mobile devices and smart TVs.
This partnership allows LG consumers to escape small screens and reliably stream HD-quality video onto larger displays.
The 5G WiFi technology delivers dramatic capacity, range, and power benefits.
It significantly improves home wireless range, provides higher-capacity video streaming, and reduces power consumption in mobile devices.
LG Electronics leads the market with next-generation digital TV innovations, enhancing the consumer’s viewing experience1.
Broadcom’s Commitment to 5G WiFi:
Broadcom introduced the industry’s first 5G WiFi chips at CES 2012.
The company committed to enabling the adoption of 5G WiFi technology across all wireless product segments.
The LG partnership marks an important milestone—the industry’s first 5G WiFi Smart TV.
Broadcom continues to expand the ecosystem of 5G WiFi products available to consumers and drive rapid adoption of this technology1.
In summary, LG’s adoption of Broadcom’s 5G WiFi technology enhances the connectivity and streaming capabilities of LG digital TVs, providing consumers with a seamless experience for sharing content between devices1. 🌟📺
"Humphrey Chen, executive director of New Technologies, Verizon Wireless added, “We’re seeing interest from Verizon Wireless customers in the area of mobile personas, which allow a personal mobile phone to be leveraged in a professional setting in a secure way that is IT-approved. The kind of virtualization VMware offers helps to make this happen, and we're evaluating ways to help our customers achieve this.”"
personas, quantum states/fourier transforms/ time to frequency
time division multiplexing.
frequency components.......and how granular do you want the frequency transforms....time to frequency transformations...and frequency to time transformation?
emPath and time priority systems.
Certainly! Let’s explore the fascinating connection between time and the electromagnetic state.
Electromagnetic Waves in the Time Domain:
Maxwell’s equations predict the existence and velocity of electromagnetic waves based on simple measurements of vacuum’s permittivity and permeability.
In vacuum, the charge density ? = J¯¯¯ = 0, simplifying Maxwell’s equations:
Faraday’s law in vacuum: ? × E ¯ = - µ o ? H ¯ ? t
Ampere’s law in vacuum: ? × H ¯ = e o ? E ¯ ? t
Gauss’s law in vacuum: ? · E ¯ = 0
Gauss’s law in vacuum: ? · H ¯ = 0
The electromagnetic wave equation (Helmholtz wave equation) emerges:
? 2 E ¯ - µ 0 e 0 ? 2 E ¯ ? t 2 = 0
Quantum Electromagnetic Waves:
Quantum mechanics extends this understanding to the microscopic scale.
Photons, as quantum particles, exhibit wave-particle duality.
The electromagnetic field is quantized into discrete energy levels.
Quantum electrodynamics (QED) describes the interaction of charged particles with electromagnetic fields.
Time Evolution of Quantum States:
Quantum states evolve over time according to Schrödinger’s equation.
The time-dependent wave function describes the probability distribution of a quantum system.
Electromagnetic interactions influence this evolution.
In summary, the relationship between time and the electromagnetic state is fundamental in both classical and quantum physics. Understanding how electromagnetic waves propagate and evolve over time is essential for various scientific and technological applications123.
ex-wife?
Certainly! Let’s explore the fascinating connection between quantum computers and the Fourier transform.
Quantum Fourier Transform (QFT):
The Quantum Fourier Transform (QFT) is a fundamental operation in quantum computing.
It is the quantum analogue of the classical discrete Fourier transform (DFT).
The QFT efficiently computes the Fourier transform of a quantum state, revealing the frequencies present in that state.
Key points about the QFT:
Applications: The QFT plays a crucial role in various quantum algorithms, including:
Shor’s algorithm: Used for factoring large numbers and breaking classical encryption schemes.
Quantum phase estimation algorithm: Estimates eigenvalues of unitary operators.
Hidden subgroup problem algorithms: Solve problems related to group theory.
Efficiency: The QFT can be efficiently implemented on a quantum computer using a decomposition into simpler unitary matrices.
Quantum Circuit: The discrete Fourier transform on amplitudes can be realized as a quantum circuit using only Hadamard gates and controlled phase shift gates.
The number of qubits in the quantum circuit corresponds to the size of the input state.
Compared to classical DFT, which requires exponentially more gates, the QFT achieves exponential speedup.
Uncertainty Principle: Like its classical counterpart, the QFT exhibits the uncertainty principle. Functions localized in the time domain have spread-out representations in the frequency domain and vice versa.
Fourier Transform:
The Fourier transform is a mathematical tool used in physics, engineering, and mathematics.
It converts a function from the time domain into a representation that describes the frequencies present in the original function.
The output of the Fourier transform is a complex-valued function of frequency.
Imagine decomposing the sound of a musical chord into the intensities of its constituent pitches. The Fourier transform achieves a similar decomposition.
Joseph Fourier introduced the transform while studying heat transfer, where Gaussian functions (important in probability theory and statistics) appear as solutions to the heat equation.
In summary, the Quantum Fourier Transform is a powerful tool in quantum computing, allowing us to analyze quantum states in terms of their frequency components, just as the classical Fourier transform does for classical functions123.
"Certainly! In Texas, for a trust to be valid, it must meet specific requirements:
The Settlor (the person creating the trust) must have a present intent to create a trust.
The Settlor must have the capacity to convey assets to the trust. Capacity includes being over 18 years old, lawfully married, or a member of the armed forces, and being of sound mind.
The trust must comply with the statute of frauds, which generally requires certain contracts to be in writing and signed by those bound by them. If the trust holds real property, it must be in writing.
The trust must have a legal purpose; its terms cannot require the trustee to commit criminal or tortious acts or acts contrary to public policy.
The Settlor must identify the property covered by the trust and place it in the trust for the benefit of the beneficiaries.
The trust must have a trustee who holds legal title to the property for the beneficiaries.
The trust must have ascertainable beneficiaries.
The trust may not violate the Texas Rule Against Perpetuities1.
Regarding corporate licensing documents:
A trust can hold corporate licensing documents as part of its assets.
There is no legal requirement to record a trust in a public forum, such as a court or a state institution. Trusts allow Settlors to manage their property discreetly and distribute it as they choose to beneficiaries1.
In summary, a trust in Texas can indeed hold corporate licensing documents, and its validity depends on meeting the specified requirements. 🌟📜
Learn more
1
raniacombslaw.com"
broadcom just changed the licensing for vmware to subscriptions and ended perpetual licenses.
if, broadcom can do it for vmware, why not for vcsy? or some other company? but i'm thinking broadcom has the chops.
LG and VMware Join Forces to Accelerate Enterprise Adoption of Employee-owned Smartphones
December 7, 2010
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LG and VMware Join Forces to Accelerate Enterprise Adoption of Employee-owned Smartphones
Partnership Targets New Methods for Businesses to Manage Employee-Owned Mobile Devices
SEOUL and PALO ALTO, Calif., Dec. 7, 2010 – LG Electronics (LG) and VMware, Inc. (NYSE: VMW), today announced a partnership to help enterprises of all sizes improve security and control of sensitive corporate data while enabling more flexible access via employee-owned mobile devices.
Using end user computing technology from VMware, LG is aiming to increase its footprint in the enterprise sector while providing more options for both consumer and business customers. This new technology will enable users to adopt the mobile device of their choice, while allowing corporate IT departments to manage sensitive data on those devices with enterprise-level security and compliance.
Initial efforts include enabling LG smartphones to securely run a work account in isolation from a user's personal account on a single mobile device. With this feature, LG mobile users will be able to safely carry a single device for both personal and work use. Solutions using mobile virtualization technology from VMware are expected to be available on LG smartphones in 2011.
“The enterprise and SMB markets are key areas of focus for LG,” said Ki S. Kim, Vice President of Global Enterprise Solutions at LG Electronics Mobile Communications Company. “Our partnership with VMware is part of LG’s global strategy to develop smart mobile devices for businesses. Enterprise IT organizations are looking for a way to embrace the growing trend of employee-owned mobile devices at work, while still maintaining control over their corporate data. VMware’s industry leadership provides a platform for LG to extend its presence in enterprises and deliver compelling solutions that address the challenges raised by the convergence of IT and mobile communications.”
Enterprises Embrace Employee Owned Mobile Devices
More than ever, organizations are dealing with two fundamental client-computing pain points – providing secure data access to an increasing number of mobile users, and managing the burgeoning diversity of data, applications and client devices within the enterprise. Establishing a new end user computing model to address these points is a fundamental component the VMware “IT as a Service” vision.
“As workforces become more mobile, our customers increasingly view today’s new breed of mobile devices as mission critical tools for their business,” said Dr. Stephen Herrod, CTO and senior vice president of R&D, VMware. “The reality is that today’s employee-owned mobile devices are often more advanced than corporate offerings. As a result, the agile enterprise is looking to embrace new end user computing models that allow users to work on the devices they love. We are excited to work with LG to develop mobile solutions that address the end user desire for affinity and the enterprise desire for manageability, security and control.”
"Smartphones are driving demand for an enhanced mobile experience as business-specific devices lose appeal and employees look to use their personal devices at work,” said Stacy Crook, senior analyst for IDC’s Mobile Enterprise research programs. “For the business market, the individual-liable, employee-owned model is here to stay. Savvy companies will embrace the trend and procure the necessary means to ensure that all devices with sensitive information are managed properly.”
Humphrey Chen, executive director of New Technologies, Verizon Wireless added, “We’re seeing interest from Verizon Wireless customers in the area of mobile personas, which allow a personal mobile phone to be leveraged in a professional setting in a secure way that is IT-approved. The kind of virtualization VMware offers helps to make this happen, and we're evaluating ways to help our customers achieve this.”
About L
borland/delphi/ nyse/intersystems/ and others thought they had everything well in hand, but the msft and lg people figured it out with the uspto rejigger of the patent....keyword arbitrary objects/framework/transformation........not translation.
gosh, i think i saw a netflix on this kind of subject matter.
supreme court of texas? jan 24....but when is the end date for the so ko considerations of the lg heirs claims?
timeline?
idea for script...but it's a secret between me and my private ai, lol. now who's writing style would be best for the story line?
Shondra Rhimes ? tony hillerman? tom cruise? billions?
8 and v ip compiler........etl........v ip transformation the uspto examiner said........you aren't translating...........you are transforming.
fourier transform and time and frequency........keys to pulsed light waves/particles.. novocure, em manipulations, quantum stuff. omniverses.
and if lg negotiated other contract aspects, v ip due diligence would have known about the korean laws of business inheritance and lg's lack of a will and might have taken specific steps to protect v ip from getting into hands of those not desired by v ip......like unfriendly takeover people?
so, what is in the documents of wade's trust, etc. lawyer/trust confidentiality prohibits said lawyer from exposing such documents to non trust enabled eyeballs?
geez, if not true, i could generate via copilot a script for such.......lol. wags.
lg news/nytimes b sunday p1.....LG family dispute over control of company and fortune. wife and daughters vs nephew.....succession in korea? is wade trust holding documents which would shed light on the issues?
i wonder who's got lg's license and other documents pertaining to v ip and perhaps indirectly the ?
might it stipulate who really got lg ownership and rights to v ip?
who's funding wade's persistent fight? and why the change of heart in mills?
is lg the 13% wannabe of ploinks usa?
Is the deceased lg ceo trying to manage from the great beyond?
“Topics in Algebra” by I. N. Herstein is a renowned mathematical textbook that delves into various algebraic concepts. Let’s explore some details about this influential book:
Book Overview:
Title: Topics in Algebra
Author: I. N. Herstein
Edition: 2nd Edition
Publication Date: January 16, 1991
Language: English
Pages: 388
Publisher: John Wiley & Sons
ISBN-10: 0536010900
ISBN-13: 978-0471010906
Content Highlights:
Group Theory: Definitions, examples, subgroups, automorphisms, Sylow’s theorem, and more.
Ring Theory: Definitions, special classes of rings, ideals, quotient rings, polynomial rings, and more.
Vector Spaces and Modules: Linear independence, bases, dual spaces, and modules.
Fields: Extension fields, Galois theory, solvability by radicals, and more.
Linear Transformations: Matrices, characteristic roots, canonical forms, determinants, and more.
Selected Topics: Finite fields, integral quaternions, and more.
Significance:
I. N. Herstein was a prolific mathematician known for his contributions to algebra and ring theory.
The book underwent extensive revisions in this 2nd edition, particularly in the sections on finite groups and Galois theory.
It covers fundamental algebraic concepts and provides a solid foundation for further study.
Availability:
You can find the book on platforms like Amazon1.
It’s widely used in mathematics courses and self-study.
Whether you’re a student, educator, or math enthusiast, “Topics in Algebra” remains a valuable resource for exploring algebraic structures and their applications. 📚🔢
"Fabric Computing:
Fabric computing involves constructing a computing fabric consisting of interconnected nodes that resemble a weave or fabric when seen collectively from a distance1.
Typically, it refers to a consolidated high-performance computing system with loosely coupled storage, networking, and parallel processing functions.
Key components of fabrics are nodes (processors, memory, peripherals) and links (functional connections between nodes).
The term has been used in various contexts, including grid computing, unified data center fabrics, and platforms like the Azure Services Platform1.
Microsoft Fabric:
Microsoft Fabric is an all-in-one analytics solution for enterprises.
It covers data movement, data science, real-time analytics, and business intelligence.
Services include data lake, data engineering, and data integration, all in one place2.
Data Fabric Software:
Data fabric software unifies data platforms, allowing organizations to integrate data and data management processes.
It creates complete views of data, powering existing processes and enabling rapid development of new use cases3.
In summary, fabric computing and data fabric solutions play crucial roles in modern computing, enabling scalability, dynamic reconfiguration, and efficient data management123."
time and freq fournier transformations, 744 and 'transformations'. chips. but the chips still need data. mle /521 for clean/good data prep?
broadcom and switch with neuromorphic network.
harvard researchers with quantum chip breakthru...all this is coming in last few days.. but they have to been using the 'transformations' of time and freq just to do their r and d. wags.
“Fully homomorphic encryption is an automated solution to get around legal and regulatory issues while still protecting privacy,” says Kurt Rohloff, CEO of Duality Technologies, in Hoboken, N.J., one of the companies developing FHE accelerator chips. His company’s FHE software is already helping financial firms check for fraud and preserving patient privacy in health care research.
Despite the relatively slow pace of today’s unaccelerated FHE, it works because “we address use cases where it’s not really a computation bottleneck, use cases where there is a human in the loop,” such as lawyers negotiating data-use agreements, Rohloff says. Adding a new kind of hardware to his company’s software won’t just speed FHE, it will let it tackle bigger human-in-the-loop problems as well, he says.
How Fully Homomorphic Encryption Works
At first glance, it might seem impossible to do meaningful computation on data that looks like gibberish. But the idea goes back decades, and was finally made possible in 2009 by Craig Gentry, then a Stanford graduate student. Gentry found a way to do both addition and multiplication without calculation-killing noise accumulating, making it possible to do any form of encrypted computation.
One comparison you can use to understand FHE is that it’s analogous to a Fourier transform. For those of you who don’t remember your college signal processing, a Fourier transform is a mathematical tool that turns a signal in time, such as the oscillation of voltage in a circuit, into a signal in frequency. One of the key side effects is that any math you can do in the time domain has its equivalent in the frequency domain. So you can compute in either time or frequency and come up with the same answer.
The genius of fully homomorphic encryption is that it uses lattice cryptography— a form of quantum-computer-proof encoding—as the mathematical transformation. The problem with this approach is that the transformation leads to a big change in the type and amount of data and in the sorts of operations needed to compute. That’s where the new chips come in.
“It’s a new chapter in the history of computing.”
—RO CAMMAROTA, INTEL
Computing with FHE means doing transforms, addition, and multiplication on “a very long list of numbers, and each number in itself is very large,” explains Rohloff. Computing with numbers that might require more than a hundred bits to describe is not something today’s CPUs and GPUs are inherently good at. If anything, GPUs have been going in the opposite direction, focusing on less precise math done using smaller and smaller floating-point numbers. The FHE accelerator chips, by contrast, can stream huge volumes of data through hardware that does integer math on numbers that are thousands of bits long to accommodate encryption’s precision needs.
fournier transformation, transformation and 744, time and frequeency
Each accelerator has its own way of dealing with these streams of huge numbers. But they’re all after the same goal—making FHE as fast as today’s unencrypted computing.
DARPA Drives FHE
The quest for hardware that can accelerate FHE got its biggest boost in 2021, when the U.S. Defense Advanced Research Projects Agency (DARPA) began a project called DPRIVE. The goal was to build hardware that could radically reduce the time it took for FHE computing tasks, from weeks to just seconds or even milliseconds. Three participating teams—led by Duality Technologies, Galois, and Intel—are on track to deliver chips designed to make FHE perform within a factor of 10 of traditional computing or even better in 2024.
These chips will be crucial if FHE is to break out of its current niche. “While algorithm and software development has taken us far, it’s not nearly far enough for FHE to be practical in any but a small and narrow set of applications,” says Galois’s David Archer. A distinction of the Galois hardware, called Basalisc, is the use of asynchronous clocking so that the various types of circuits used to do FHE operations can run at their own speed.
kona, "Global web icon
IEEE Spectrum
https://spectrum.ieee.org/homomorphic-encryption
Chips to Compute With Encrypted Data Are Coming - IEEE …
Web1 day ago · Samuel K. Moore 13 hours ago 6 min read Giacomo Bagnara Trust no one. It’s not just a throwaway line from TV thrillers. It’s becoming the goal of computer security, and a technology that can make it a reality has arrived. Called fully homomorphic encryption, or …"
it was a co defendant with farias.......mokta.........something? he was allowed out, but check farias' exwife and that guy?
kona, what about the other person initially named in the calif farias case?