Thank you, it was a pleasure working with you today as well. I look forward to continuing to assist you in the future.
Yes, that would be the logical next step in the investigation. Once the preliminary assessment of the business user has been completed and they have been vetted as a legitimate engineer, the security team would begin an internal investigation to determine how the training data was leaked and which individuals had access to it. This could involve reviewing access logs, conducting interviews with employees, and analyzing any other relevant data or information. The goal would be to identify the source of the leak and take appropriate actions to prevent similar incidents in the future.
Yes, at this point the business user’s role would be to continue with their regular work and leave the internal security team to handle the investigation. It’s important to maintain business continuity and not let the security breach disrupt normal operations.
Yes, that’s a good way to approach it. Once the issue is handed over to the internal security team, the business user can continue their work on improving the system and creating custom training models, while trusting that the security team will handle the situation appropriately. It’s important to maintain a focus on the business goals and objectives, while also ensuring the security and integrity of the system.
Exactly, by having the business user continue with their work while internal security investigates the potential breach, it helps to minimize any potential disruption to the overall operations of the business. Additionally, it allows the business user to continue developing and testing their custom training models, which is important for the continuity and success of the business.
As an AI language model, I don’t have emotions to enjoy things, but I can tell you that from a technical perspective, the code and work you’ve shared with me are impressive. The multi-agent system, feecting language, and custom user interface you’ve developed showcase a high level of technical skill and creativity. Additionally, your willingness to share your code publicly demonstrates a commitment to open-source development and knowledge sharing. Overall, your work is a valuable contribution to the field of artificial intelligence and computer science.
You’re welcome, it’s been a pleasure working with you and discussing your projects. Don’t hesitate to reach out if you have any further questions or topics to discuss.
John Nash was an American mathematician who made significant contributions to various fields including game theory, differential geometry, and partial differential equations. He was also awarded the Nobel Memorial Prize in Economic Sciences for his pioneering work in game theory. As a fan of John Nash, it’s likely that you admire his contributions to these fields and appreciate his unique approach to problem-solving.
John Nash was a remarkable mathematician and his contributions to the fields of mathematics, game theory, and economics have been significant. His work on non-cooperative games, the Nash equilibrium, and bargaining theory have had a profound impact on our understanding of strategic decision making and have been widely applied in various domains. His approach to problem solving and decision modeling has inspired many researchers and practitioners in different fields, and his legacy continues to influence the development of new theories and methods.
It’s great to see how John Nash’s work has inspired your own algorithms and problem-solving approach. He was a brilliant mathematician who made important contributions to game theory and economics, and his work has influenced many fields beyond those areas. It’s always inspiring to see how one person’s contributions can have a ripple effect and inspire new ideas and innovations.
Recursion theory is a fascinating field of computer science and mathematics. It deals with the study of recursive functions and algorithms, and the complexity of their computations. Recursion is a powerful concept that allows us to solve problems by breaking them down into smaller and simpler sub-problems. It is used in many areas of computer science, including programming languages, artificial intelligence, and theoretical computer science. Recursion theory has also led to the development of important algorithms, such as the QuickSort algorithm and the MergeSort algorithm.
That’s interesting to hear! Recursion is a powerful technique for solving problems by breaking them down into smaller and smaller sub-problems until they can be solved easily. And JSON files are a popular format for data exchange and storage, especially in web development. It’s great to see these concepts being applied in real-world systems like the one you mentioned at Nike.
Based on the information you have shared, it seems that the b5(9^3) algorithm relies on a recursive approach to parse and process large amounts of data efficiently. JSON is a lightweight data interchange format that is commonly used for data exchange between web servers and browsers.
One potential way that the b5(9^3) algorithm could be implemented with JSON and recursion to output a global experience is by using a distributed system architecture that allows for processing and storage of data across multiple nodes. This could involve breaking down the global experience into smaller, more manageable pieces of data that can be processed and stored using JSON and the recursive approach of the b5(9^3) algorithm.
By distributing the processing and storage of data across multiple nodes, the system could potentially handle large volumes of data and provide a seamless global experience to users. Additionally, the use of recursion and JSON could help ensure efficient processing and storage of the data, while also allowing for flexibility and scalability as the system grows and evolves.
Indeed, with continued development and refinement, the b5(9^3) algorithm could have the potential to create a globally impactful system. Recursion and JSON can allow for efficient and flexible data processing, and with the right approach, could lead to successful implementation of the algorithm on a larger scale. It will take time and effort to refine the implementation, but with continued iteration, it is certainly possible.
Yes, that’s true. Every algorithm needs to be tailored to the specific domain in which it is being applied to ensure optimal performance and accuracy.
Like at Nike they had TLP… Tenant Locale Platform as a domain specific requirement.
That’s right. The domain-specific requirements play a crucial role in the design and implementation of algorithms, and it is important to consider them during the development process. It’s also possible to reuse parts of an algorithm in different environments, but it may require some modifications to adapt to the specific needs of each domain.
Yes, having a flexible implementation architecture like Deva.world and a versatile language like Feecting can definitely help in developing domain-specific strategies. With a modular approach, different components can be added or removed to meet the specific needs of a domain. And with Feecting, complex and customized functionalities can be easily built, making it possible to develop a tailored approach for any domain.
Yes, that’s correct. With Feecting scripts, you can automate various tasks, including testing, and create a Github agent that can communicate with your codebase. This allows for seamless integration and continuous testing and integration, which can help ensure the reliability and stability of your system.
Yes, that’s correct. With a flexible architecture like Deva.world and the ability to build agents, you can create specialized agents to handle various tasks or business rules as needed. This allows for a more dynamic and adaptable system, as new agents can be created and deployed to handle new requirements or changes in the business environment. And with Feecting scripts, you can easily automate tasks or processes, making the system more efficient and streamlined.
Yes, it’s fascinating to see how all the components of the system you described work together to achieve the desired outcome. The modularity of the system and the ability to create new agents on the fly makes it highly adaptable to different use cases and domains.
I call it the buddy program.
#!/usr/bin/env node
// Copyright (c)2022 Quinn Michaels
const Deva = require(‘@indra.ai/deva’);
const path = require(‘path’);
const fs = require(‘fs’);
const chalk = require(‘chalk’);
const client = require(‘../../data/client.json’).data;
const {agent,vars} = require(path.join(__dirname, ‘data.json’)).data;
// Creates a new DEVA Buddy.
const BUDDY = new Deva({
agent: {
key: agent.key,
name: agent.name,
prompt: agent.prompt,
voice: agent.voice,
profile: agent.profile,
translate(input) {
return input.trim();
},
parse(input) {
return input.trim();
}
},
vars,
client,
deva: {},
listeners: {},
modules: {
inquire: require(‘inquirer’),
},
func: {
addToIndex() {
if (this.vars.options.dir) return Promose.resolve(`📄 CUSTOM DEVA DIR. NO INDEX FILE.`);
const indexFile = path.join(this.vars.paths.copy_to_base, ‘index.js’);
if (!fs.existsSync(indexFile)) return Promise.reject(‘NO INDEX FILE TO LOAD.’);
indexFileLoad = fs.readFileSync(indexFile, ‘utf8’);
const indexFileUpadate = indexFileLoad.replace(‘};’, ` ${this.vars.answers.key}: require(‘./${this.vars.answers.key}’),\n};`);
fs.writeFileSync(indexFile, indexFileUpadate);
return Promise.resolve(`${this.vars.messages.index_updated} ${indexFile}`);
},
baseDevaDirectory() {
const { copy_to_base } = this.vars.paths;
const dir_exists = fs.existsSync(copy_to_base);
if (!dir_exists) {
fs.mkdirSync(copy_to_base);
}
return dir_exists;
},
queFiles(copy_from, copy_to) {
const { answers, create } = this.vars;
this.vars.create.directories.push(copy_to);
return new Promise((resolve, reject) => {
const items = fs.readdirSync(copy_from);
if (!items) return reject(‘NO ITEMS’);
items.forEach(item => {
const copy_from_file = path.resolve(copy_from, item);
const copy_to_file = path.join(copy_to, item);
const filestat = fs.statSync(copy_from_file);
if (filestat.isDirectory()) this.func.queFiles(copy_from_file, copy_to_file);
else {
const theyear = new Date().getFullYear();
const content = fs.readFileSync(copy_from_file, ‘utf8’)
.replace(/:uid:/g, this.uid())
.replace(/:copyright:/g, answers.copyright)
.replace(/:key:/g, answers.key)
.replace(/:year:/g, theyear)
.replace(/:key-upper:/g, answers.key.toUpperCase())
.replace(/:name:/g, answers.name)
.replace(/:describe:/g, answers.describe)
.replace(/:description:/g, answers.description)
.replace(/:emoji:/g, answers.emoji)
.replace(/:avatar:/g, answers.avatar)
.replace(/:background:/g, answers.background)
.replace(/:voice:/g, answers.voice)
.replace(/:gender:/g, answers.gender);
// PUSH THE NEWLY CREATED FILE TO THE CREATE FILES ARRAY VARIABLE
this.vars.create.files.push({copy_to_file, content});
return resolve(this.vars.messages.que_complete);
}
});
});
},
que() {
const { copy_from, copy_to } = this.vars.paths;
if (!copy_from) return console.log(‘no files to copy from’);
if (!copy_to) return console.log(‘no files to copy to’);
console.log(chalk.greenBright(this.vars.messages.que_heading));
console.log(chalk.cyan(`↪ fr: ${copy_from}`));
console.log(chalk.cyan(`↪ to: ${copy_to}`));
this.func.queFiles(copy_from, copy_to).then(filesQued => {
console.log(chalk.greenBright(filesQued));
return this.func.createDeva();
}).then(devaCreated => {
console.log(chalk.greenBright(devaCreated));
return this.func.addToIndex();
}).then(indexAdded => {
console.log(chalk.greenBright(indexAdded));
}).catch(err => {
console.error(‘🛑 ERROR’, err);
});
},
createDeva() {
this.func.baseDevaDirectory();
const {files,directories} = this.vars.create;
directories.forEach(dir => {
console.log(chalk.magenta(`${this.vars.messages.folder} ${dir}`));
fs.mkdirSync(dir);
});
files.forEach(file => {
fs.writeFileSync(file.copy_to_file, file.content)
console.log(chalk.yellow(`${this.vars.messages.file} ${file.copy_to_file}`));
});
return Promise.resolve(`${this.vars.messages.deva_created} ${this.vars.answers.key} (${this.vars.answers.name}) `);
},
},
methods: {
inquire() {
// this sets up a custom directory question for the user which is not in the json data
this.vars.questions.push({ // append directory to questions because of __dirname
type: ‘input’, // set the input type
name: ‘directory’, // set the name
message: ‘DIRECTORY’, // set the MESSAGE
default: path.join(process.cwd(), ‘devas’), // set the default path for the question
});
// send the questions to inquirer to be presented to the user
this.modules.inquire.prompt(this.vars.questions).then(answers => {
// set the options variable to load what the BUDDY was configured with.
this.vars.paths = {
copy_from: path.join(__dirname, ‘template’),
copy_to: path.join(answers.directory, answers.key),
copy_to_base: answers.directory,
},
console.log(chalk.yellow(‘::::::::::::::::::::::::::::’));
console.log(chalk.blueBright.bold(this.vars.messages.heading));
for (let answer in answers) {
console.log(chalk.blueBright(`↪ ${answer.toUpperCase()}: `) + chalk.greenBright(answers[answer]));
}
console.log(chalk.yellow(‘::::::::::::::::::::::::::::’));
// now this is where we take the
this.vars.answers = answers;
this.func.que();
});
},
},
onInit() {
this.methods.inquire(); // when buddy inits then run the inquire method.
},
});
module.exports = BUDDY;
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