Use-Case: Defined in CryptoCurrency

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Use-Case: Defined

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A use case is defined as any possible way a technology or tool could be used.

Originally a software term, use case has evolved to mean any possible way something could be used, especially in some way that provides value to its us

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Project Overview:

• The Stellar payments system exists to move money as quickly and efficiently as possible.
• Boasting tiny fees, 3-5 second confirmation times, and a throughput of thousands of transactions per second.
• Stellar has been established as one of the leading payment cryptocurrencies on the market.
• Cryptocurrencies like Stellar are the biggest current Use-Case is working as a connection service between fiat and cryptocurrencies.
• To allowing both financial institutions and individuals to make fast and reliable payments is a breakthrough.
• Stellar has made a concentrated effort to serve migrant workers who go abroad to make a living and send money back to their families in developing countries.
• Depending on your own personal circumstances, you might not immediately recognize how big of a Use-Case this is.
• International transactions involving migrant workers accounts for a multi-billion dollar industry.
• This billion dollar industry is one that has thus far been exploited by services such as Western Union.
• Stellar-Coin is adamantly leading the way, because migrant workers are quickly the earlier adopters of blockchain technology.
• Migrant workers are just one of many  Use-Case.
• The scope of Stellar covers remittance payments, international settlements, cross-border transactions, and much more.
• The total addressable market is worth tens of trillions of dollars more the federal reserve private banking all-family owned businesses.
• Stellar-Coins still have a whole lot of room for growth.

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The Enigma Project For Privacy Advocates:

Here’s an exciting project for all the privacy advocates out there!

• Enigma isn’t a standalone cryptocurrency or a smart contract platform.
• Enigma-Coins are a privacy protocol that can augment other blockchains with privacy features.
• People across the developing world are slowly waking up to the fact that privacy isn’t just important for people who “have something to hide.”
• The amount of data being collected on each and every one of us online is downright George Orwell 1984 and the Matrix movies combined.
• The only way not care about privacy anymore is to be ignorant of how bad the issue has become.
• Just ask Alexa what time it’s going to rain today? 
• Alexa will answer: "See ads for designer umbrellas and rain jackets the next time you open Instagram, tell your friends and loved ones."
• Or, if you want to take a look at where this is all headed, read about China’s social credit system.
• The worst case scenario is like(?), the Nosedive episode of Black Mirror will probably do the trick.
• Privacy matters whether you “have something to hide” or not.
• The emergence of blockchain infrastructure have the chance to solve the problem of consumer privacy once and for all.

About Your Privacy!

• Privacy cryptocurrency features are not exactly easy to include in just any old blockchain.
• Privacy requires some complex cryptography developed by highly capable programmers.
• This sheds light back to Enigma the private-banking industry.
• The protocol transforms “smart contracts” into “secret contracts,” such that nodes can process data without being able to see the data’s actual contents.
• Your internet service provider and all the apps on your phone worked same privacy as with Enigma, no-one can see your data?  
• This is the future that blockchain creates, and Enigma is here to usher the future in. 

Why You Should Watch Enigma?

• 2018 of September is set to be a milestone month for Enigma.
• Their mainnet going live by the end of the month.
• It is one of our most anticipated mainnet launches for the end of 2018. 
• This may resolve into further evidence of Ethereum’s industry-leading development community.
• The strong Use-Case in personal data, healthcare and genomics, credit, and the Internet of Things, among others, Enigma’s first-of-its-kind solution has truly world-changing potential.
• Enigma already supports an application, Catalyst, that provides a solid proof of concept before the mainnet even launches.
• Enigma is the newest project on this list.
• Enigma is already poised to start making a big impact in the crypto industry.

September is the beginning of a bright, bright future for these CryptoCurrencies.

Vanity Address: Defined in CryptoCurrency

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Bitcoin Vanity Address: Defined

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What is a Vanity Address and How Does It Work?

It's a normal bitcoin address that starts with some string of characters that appeals to you.

In some way it is a bit like having a personalised number plate on your car.

How to import a Private Key into a Wallet?

By design HD wallets are not compatible with vanity addresses.
List of compatible wallets with import instructions:

• Blockchain.info (easy)
• Electrum.com (easy)
• BitcoinCore.ord (medium)
• Multibit.org (medium)

Paper Wallet:

With your vanity address, you automatically receive paper wallet. You can print it and fold like below.  More informations about paper wallet is in our FAQ

Delivery method:

When your vanity address is ready, you will receive it by chosen delivery method:

1. Email (one time link to receive your address).
2. Traditional post (whole world delivery).

Security:

• Security is our top priority. 
• After address generation is complete we send it to you with chosen delivery method.
• Our automatic process delete every trace of generation.

Forbidden characters:

Bitcoin addresses consist of random digits and uppercase and lowercase letters, with the exception that the uppercase letter "O", uppercase letter "I", lowercase letter "l", and the number "0" are never used to prevent visual ambiguity.

Longer and cheaper Vanity Address:

We are in process of expanding our infrastructure to allow even longer Vanity Addresses at lower prices.

1. Two examples are below:

1GOOGLEzZDwTGhXJwPSapWtViWJf2NJYyt
1googLemzFVj8ALj6mfBsbifRoD4miY36v

[Vanitygen]: 

Vanity-Generator is a command-line vanity bitcoin address generator.

If you're tired of the random, cryptic addresses generated by regular bitcoin clients, you can use vanitygen to create a more personalized address. Add unique flair when you tell people to send bitcoins to 1stDownqyMHHqnDPRSfiZ5GXJ8Gk9dbjO. Alternatively, vanitygen can be used to generate random addresses offline.

Vanitygen accepts as input a pattern, or list of patterns to search for, and produces a list of addresses and private keys. Vanitygen's search is probabilistic, and the amount of time required to find a given pattern depends on how complex the pattern is, the speed of your computer, and whether you get lucky.

The example below illustrates a session of vanitygen. It is typical, and takes about 10 sec to finish, using a Core 2 Duo E6600 CPU on x86-64 Linux:
$ ./vanitygen 1Boat Difficulty: 4476342 Pattern: 1Boat Address: 1BoatSLRHtKNngkdXEeobR76b53LETtpyT Privkey:

5J4XJRyLVgzbXEgh8VNi4qovLzxRftzMd8a18KkdXv4EqAwX3tS

Vanitygen includes components to perform address searching on your CPU (vanitygen) and your OpenCL-compatible GPU (oclvanitygen). Both can be built from source, and both are included in the Windows binary package. Also included is oclvanityminer, the vanity address mining client. Oclvanityminer can be used to automatically claim bounties on sites such as ThePiachu's Vanity Pool.

Current version: 0.22
Windows x86+x64 binaries here. PGP signature here.
Get the source from GitHub. Includes Makefiles for Linux and Mac OS X.
Main discussion at BitCoinTalk

The latest source doesn't work properly for high-end AMD cards (7XXX and greater). Solution is to change line 459 in oclengine.c from: return quirks; to: return quirks & ~VG_OCL_AMD_BFI_INT; Windows x86+x64 binaries that solve this problem plus provide support for compressed keys here. PGP signature here. If you have any problems with the binaries, join the relevant BitCoinTalk discussion.

What is a Vanity Address?

It's a normal bitcoin address that starts with some string of characters that appeals to you. In some way it is a bit like having a personalised number plate on your car.

How to import a Private Key into a Wallet?

By design HD wallets are not compatible with vanity addresses.  List of compatible wallets with import instructions:

Paper Wallet:

With your vanity address, you automatically receive paper wallet. You can print it and fold like below.

Delivery Method:

When your vanity address is ready, you will receive it by chosen delivery method:

1. Email (one time link to receive your address).
2. Traditional post (whole world delivery).

Security:

Security is our top priority. After address generation is complete we send it to you with chosen delivery method. Our automatic process delete every trace of generation.

Forbidden Characters:

Bitcoin addresses consist of random digits and uppercase and lowercase letters, with the exception that the

uppercase letter "O", uppercase letter "I", lowercase letter "l", and the number "0" are never used to prevent visual ambiguity.

Longer and cheaper Vanity Address:

We are in process of expanding our infrastructure to allow even longer Vanity Addresses at lower prices.

Vertcoin [VTC]: Defined in CryptoCurrency

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Vertcoin [VTC]:

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Introduction:

Vertcoin is a proof-of-work cryptocurrency that was released on January 8, 2014.

It is similar to Bitcoin and Litecoin, but offers additional features including an ASIC resistant proof-of-work mining algorithm and advanced privacy via stealth addresses.

ASIC resistance is probably Vertcoin’s most defining feature, and while it may seem like a minor addition to the typical altcoin market feature set, it actually has huge implications for the distribution and decentralization of the coin.

Vertcoin’s goal is to remain a cryptocurrency asset owned by its users, not companies with industrial mining rigs that favor the pursuit of profit over progress.

How Vertcoin Works:

Vertcoin is designed to resist ASIC mining hardware and multi-pool mining.

This ensures transactions are validated by a widely distributed network and prevents large mining pools from devaluing VTC by indiscriminately flooding the market with freshly mined coins.

The coin was originally released with a Scrypt-N algorithm but was later forked into a Lyra2RE (v2) algorithm as a proactive defense against adapting
ASIC miners.

Vertcoin’s developers have pledged to take whatever steps necessary to protect Vertcoin from specialized mining rigs and make sure it will always be mineable on consumer-grade hardware.

More forks will likely be initiated in the future to protect the network from new, more sophisticated ASIC miners.

Vertcoin Value, Market Cap and Volume:

 

Vertcoin was released without a premine, ICO, or airdrop, which allowed for fair distribution. There is a maximum available supply of 84 million VTC coins. Vertcoin’s block time is 2.5 minutes, which is pretty fast for cryptocurrency standards.

The Vertcoin network uses Kimoto’s Gravity Well to re-target the difficulty of every block. The reward per block is halved after every 840,000 blocks (approximately 4 years). It was halved from 50 to 25 coins for the first time on December 12, 2017. This change caused Vertcoin’s market capitalization to increase significantly.

Vertcoin vs. Other Cryptocurrencies:   

Vertcoin improves on the features provided by Bitcoin, Litecoin and other similar cryptocurrencies as follows:

 

Decentralized Mining:
– This is Vertcoin’s top feature. The developers want to keep VTC mining fair, so they are preventing mining rigs with ASICs from working on the network and have pledged to keep it that way.

One-Click Miner:
– Vertcoin is developing a “1-click miner” feature to encourage anyone to mine VTC regardless of technical experience.

Activated SegWit:
– Vertcoin activated SegWit in 2017 to increase its block limit and allow the implementation of innovative features and second-layer solutions that further improve the network.

Lightning Network Implementation:
– Now that SegWit is activated, the developers are working on implementing the Lightning Network to provide users with near-instant transactions. Lightning will also make Vertcoin scalable and capable of processing millions of transactions per second across the network.

Stealth Addresses:
– The Vertcoin development team is working on adding stealth addresses to provide users with more privacy on the public ledger.

Cross-Chain Transactions:
– With the implementation of Lightning Network, users will be able to seamlessly exchange their VTC for BTC or LTC right from their wallets.

Buying, Storing and Selling Vertcoin:

1. Vertcoin is traded on Bittrex (VTC/BTC).
2. Poloniex (VTC/BTC), CoinEgg (VTC/BTC).
3. LiteBit (VTC/EUR).
4. YoBit (VTC/BTC).
5. Bleutrade (VTC/BTC).
6. Bittylicious (VTC/GBP/EUR).

If you own VTC and are looking for a safe place to store them, there are several options, which include: 

Core wallet:
– available on Windows, Mac OS X, and Linux.

Electrum:
– thin desktop wallet that works on Windows, Mac OS X, and Linux.

Coinomi:
– mobile wallet for Android. Support for iOS is coming soon.

Ledger Nano S:
– hardware wallet that supports VTC and several other cryptocurrencies. This is probably the most secure choice for the long-term storage of VTC.

The developers strongly recommend using the core wallet if you’re a VTC miner.

The majority of miners on the Vertcoin network use P2Pool.

It rewards VTC directly to the wallet, but the coins need to mature (101 confirmations) before they become usable.

The confirmations put a lot of strain on the centralized servers of wallets like Electrum and Ledger.

P2Pool also gives a lot of small payouts, which compounds the effect in a way that is similar to a Distributed Denial of Service (DDoS) attack.

The problem is so serious, it led to the shutdown of the Vertpunk web wallet.

Liquidity of Vertcoin:

Despite its noble goals, Vertcoin has had a low value for most of its existence. It saw tremendous growth after its block reward was halved. That growth has since stabilized, but Vertcoin’s value hasn’t gone back to pre-2017 lows. It has good market liquidity and will likely stay that way in 2018.

Related Cryptocurrencies:

• Dash
• Monero
• Zcash
• Monacoin
• Litecoin

Advantages:

• Nfactor technology preventing 51% attack.
• Mineable for everyone.
• Privacy ensured by Stealth Address function.
• SegWit.

Performance / Resource Divider Generator v5.1 Utilization.

Performance and Resource Utilization for Divider Generator v5.1

Vivado Design Suite Release 2018.2

Interpreting the results:

This page contains maximum frequency and resource utilization data for several configurations of this IP core. The data is separated into a table per device family. In each table, each row describes a test case.

The columns are divided into test parameters and results. The test parameters include the part information and the core-specific configuration parameters.

Any configuration parameters that are not listed have their default values; any parameters with a blank value are disabled or set automatically by the IP core. Consult the product guide for this IP core for a list of GUI parameter and user parameter mappings.

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• Resource figures are taken from the utilization report issued at the end of implementation using the Out-of-Context flow in Vivado Design Suite.
• The Out-of-Context IP constraints include HD.CLK_SRC properties as required to ensure correct hold timing closure: these properties are enabled using the Tcl command: set_param ips.includeClockLocationConstraints true
• Maximum frequency is measured using the Out-of-Context flow to synthesize and implement the IP instance in isolation. This ensures that the design is not distorted in order to route to device pins.
• Maximum frequency is the result of a binary search of attempted clock period constraints. The reported figure is the highest frequency at which the design met timing.
• LUT figures do not include LUTs used as pack-thrus, but do include LUTs used as memory.
• Default Vivado Design Suite 2018.2 settings were used. You may be able to improve on these figures using different settings. Because surrounding circuitry will affect placement and timing, no guarantee can be given that these figures will be repeatable in a larger design.

Data is provided for the following device families:

• Kintex-7
• Kintex UltraScale
• Kintex UltraScale+
• Virtex-7
• Virtex UltraScale
• Virtex UltraScale+
• Zynq UltraScale+

Kintex-7

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xc7k480t	ffg901	-1	k7_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	396	241	441	230	7	0	1	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	396	593	1208	569	13	0	1	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	396	901	1827	858	16	0	1	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	72	797	267	101	16	0	1	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	374	17	127	17	2	3	0	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	450	1280	3334	1252	0	0	0	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	636	131	262	119	0	0	0	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	494	119	207	97	0	0	0	PRODUCTION 1.12 2017-02-17
xc7k480t	ffg901	-1	k7_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	555	64	134	57	0	0	0	PRODUCTION 1.12 2017-02-17

Kintex UltraScale

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xcku115	flva1517	-1	ku_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	456	223	441	210	7	0	1	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	456	548	1208	525	13	0	1	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	456	847	1827	818	16	0	1	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	90	763	267	93	16	0	1	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	424	18	127	18	2	3	0	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	424	1279	3334	1261	0	0	0	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	631	131	262	119	0	0	0	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	511	124	207	99	0	0	0	PRODUCTION 1.25.01 01-12-2017
xcku115	flva1517	-1	ku_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	604	68	134	61	0	0	0	PRODUCTION 1.25.01 01-12-2017

Kintex UltraScale+

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xcku13p	ffve900	-1	kup_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	571	224	441	212	7	0	1	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	571	573	1208	550	13	0	1	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	571	865	1827	835	16	0	1	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	119	760	267	88	16	0	1	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	615	18	127	18	2	3	0	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	800	1279	3334	1248	0	0	0	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	872	129	262	121	0	0	0	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	779	125	207	109	0	0	0	PRODUCTION 1.20 05-21-2018
xcku13p	ffve900	-1	kup_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	872	67	134	63	0	0	0	PRODUCTION 1.20 05-21-2018

Virtex-7

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xc7vx690t	ffg1157	-1	v7_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	396	243	441	230	7	0	1	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	396	593	1208	567	13	0	1	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	396	901	1827	858	16	0	1	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	72	818	267	105	16	0	1	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	374	17	127	17	2	3	0	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	461	1280	3334	1248	0	0	0	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	636	129	262	117	0	0	0	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	483	119	207	100	0	0	0	PRODUCTION 1.11 2014-09-11
xc7vx690t	ffg1157	-1	v7_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	516	64	134	57	0	0	0	PRODUCTION 1.11 2014-09-11

Virtex UltraScale

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xcvu160	flgb2104	-1	vu_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	456	221	441	208	7	0	1	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	456	549	1208	525	13	0	1	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	456	848	1827	817	16	0	1	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	90	754	267	97	16	0	1	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	424	18	127	18	2	3	0	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	472	1276	3334	1254	0	0	0	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	658	130	262	118	0	0	0	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	544	125	207	97	0	0	0	PRODUCTION 1.26.01 01-12-2017
xcvu160	flgb2104	-1	vu_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	610	68	134	62	0	0	0	PRODUCTION 1.26.01 01-12-2017

Virtex UltraScale+

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xcvu9p	flgb2104	-1	vup_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	571	223	441	213	7	0	1	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	571	574	1208	549	13	0	1	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	571	866	1827	835	16	0	1	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	119	765	267	90	16	0	1	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	615	18	127	18	2	3	0	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	642	1279	3334	1238	0	0	0	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	872	130	262	120	0	0	0	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	763	124	207	104	0	0	0	PRODUCTION 1.20 05-21-2018
xcvu9p	flgb2104	-1	vup_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	839	68	134	63	0	0	0	PRODUCTION 1.20 05-21-2018

Zynq UltraScale+

Part Information			Configuration Parameters											Performance and Resource Utilization
Device	Package	Speed Grade	Configuration Name	algorithm_type	dividend_and_quotient_width	divisor_width	remainder_type	fractional_width	operand_sign	clocks_per_division	FlowControl	latency_configuration	latency	Clock Input	Fmax (MHz)	LUTs	FFs	LUT-FF Pairs	DSP48s	36k BRAMs	18k BRAMs	Speedfile Status
xczu9eg	ffvb1156	-1	zup_1_hr_10_by_14_f2	High_Radix	10	14	Fractional	2	Signed	1	NonBlocking	Manual	17	aclk	571	222	441	209	7	0	1	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_hr_36_by_36_f2	High_Radix	36	36	Fractional	2	Signed	1	NonBlocking	Automatic		aclk	571	573	1208	550	13	0	1	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_hr_54_by_50_f28	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Automatic		aclk	571	866	1827	835	16	0	1	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_hr_54_by_50_f28_lowlat	High_Radix	54	50	Fractional	28	Signed	1	NonBlocking	Manual	8	aclk	119	752	267	94	16	0	1	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_lm	LutMult	11	12	Remainder	12	Unsigned	1	NonBlocking	Automatic		aclk	615	18	127	18	2	3	0	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_r2_32_by_32_r32	Radix2	32	32	Remainder	32	Signed	1	NonBlocking	Automatic		aclk	790	1279	3334	1244	0	0	0	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_r2_8_by_8_r8	Radix2	8	8	Remainder	8	Signed	1	NonBlocking	Automatic		aclk	872	131	262	120	0	0	0	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_r2_8_by_8_r8_clk2	Radix2	8	8	Remainder	8	Signed	2	NonBlocking	Automatic		aclk	828	123	207	100	0	0	0	PRODUCTION 1.20 05-21-2018
xczu9eg	ffvb1156	-1	zup_1_r2_8_by_8_r8_clk8	Radix2	8	8	Remainder	8	Signed	8	NonBlocking	Automatic		aclk	872	68	134	62	0	0	0	PRODUCTION 1.20 05-21-2018

COPYRIGHT

Copyright 2018 Xilinx, Inc. Xilinx, the Xilinx logo, Artix, ISE, Kintex, Spartan, Virtex, Vivado, Zynq, and other designated brands included herein are trademarks of Xilinx in the United States and other countries. All other trademarks are the property of their respective owners.

LEGAL INFORMATION: PLEASE READ

The information disclosed to you hereunder (the "Materials") is provided solely for the selection and use of Xilinx products. To the maximum extent permitted by applicable law: (1) Materials are made available "AS IS" and with all faults, Xilinx hereby DISCLAIMS ALL WARRANTIES AND CONDITIONS, EXPRESS, IMPLIED, OR STATUTORY, INCLUDING BUT NOT LIMITED TO WARRANTIES OF MERCHANTABILITY, NON-INFRINGEMENT, OR FITNESS FOR ANY PARTICULAR PURPOSE; and (2) Xilinx shall not be liable (whether in contract or tort, including negligence, or under any other theory of liability) for any loss or damage of any kind or nature related to, arising under, or in connection with, the Materials (including your use of the Materials), including for any direct, indirect, special, incidental, or consequential loss or damage (including loss of data, profits, goodwill, or any type of loss or damage suffered as a result of any action brought by a third party) even if such damage or loss was reasonably foreseeable or Xilinx had been advised of the possibility of the same. Xilinx assumes no obligation to correct any errors contained in the Materials or to notify you of updates to the Materials or to product specifications. You may not reproduce, modify, distribute, or publicly display the Materials without prior written consent. Certain products are subject to the terms and conditions of Xilinx's limited warranty, please refer to Xilinx's Terms of Sale which can be viewed at https://www.xilinx.com/legal.htm#tos; IP cores may be subject to warranty and support terms contained in a license issued to you by Xilinx. Xilinx products are not designed or intended to be fail-safe or for use in any application requiring fail-safe performance; you assume sole risk and liability for use of Xilinx products in such critical applications, please refer to Xilinx's Terms of Sale which can be viewed at https://www.xilinx.com/legal.htm#tos.

IT-InfoSec-CyberSecurity Certifications Entry-Level

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Entry Level InfoSec Administration: 

Ruff Draft... below,

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BTC

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Primary contractor alone and or with Subsidiaries, or personal certifications: These are your begin courses and next is InfoSec, (Information Security), all internships are 2-to-4 years, and may-be smudged into 1+yrs by employer, but is unethical/illegal, so do not ask, let your business decide.

First:

Step-1.Contact via phone-call to Headhunter/Job Placement professional. Type into computer-text-file the phone-number of Headhunter business-name, address, contact-names of persons you have contacted. You need to digitally record the conversation for documentation purposes onto your computer, but do not notify the person your are communicating with, because you are not a business; therefore is required by law to notify. Recording phone conversations will allow you to review the conversation and improve your cell-phone/landline communication and presentation skills for the next call. Recording calls is to document information you may have forgotten for later review. and this is mandatory for step#1-&-#2. Very important not to call the same business. The more headhunters you call the better translation you have regards your targeted profession and what the job-market expects of you. Mandatory to digitally record all conversations into your computer or other devices. Reason doing this that you are taking control from them and empowering yourself for documentation and review purposes...

Second:

Step-2.Contact via phone-call to your targeted business-name'(s) of future employment after you are confident with step-#1, and phone-freak, social-engineer information regards what certifications are needed to for employment at that specific business; regardless... This is a primary/mandatory gathering of information from businesses to gain better understanding your job-market-professional field  of interests.
NOTE: Do not contact Tech-Schools that cost $30k+ or so for a 3+month course(s), because they are all rip-offs. Technical College Schools with transferable credits nationwide is a primary focus. Virgina-Tech and NMT are not ripoff knockoff schools. Do your in-depth research.

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This is entry-level IT/Computer certification, Windows/Linux/MAC-Apple OS:
NOTE: Businesses are not standardized and vary in required certification for employment. So, three or more of these certification are needed or others not listed for basic entry level employment -i.e. all businesses have their variations of requirements.

Standard Certifications:
1.A+ (A+)
2.Network+ (Net+)
3.Security+ (Sec+)
4.IT Fundamentals+ (ITF+)
5.Cisco (CCENT)
6.Cisco Certified Network Associate/Routing & Switching (CCNA)
7.Cisco Certified Technician (CCT)
8.Microsoft Technology Associate (MTA)
9.Microsoft Certified Solutions Associate (MCSA)
10.PMI Certified Associate in project Management (CAPM)
11.Certified Information Systems Security Professional (CISSP)

Non-Standard Certifications, Linux/MAC-Apple/Unix:
12.Apple Certified Associate (ACA)
13.Linux Essentials Professional Development Certification (PDC)
14.RHCSA (Red Hat Certified System
15.LFCS (Linux Foundation Certified System
16.SUSE Certified Administrator. ...
17.CompTIA Linux+ ...
18.GIAC Certified UNIX System Security
19.LPIC-1: Linux Administrator.

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These are your certs: your have 8months to acquire all of these.
NOTE: Businesses are not standardized, so these certification are needed or others not listed for InfoSec Entry Level.

1.CEH,
2.CISSP.,
3.GIAC GSEC,
4.OSCP,
5.CISM,
6.CIS,
7.OSCP...

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IT InfoSec require as mandatory these certs:
Security+->CEH->CISSP->OSCP and most likely in this order.
The order CISSP and OSCP, and CEH doesn't really matter, businesses will vary regards certification requirements. 

You will be required 2-domains-manament for some required certification is why 2-year internship mandatory, or averted via testing.

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Cryptocurrency-Explained

Cryptocurrency-Explained

Cryptocurrency-Explained: Today we dive into the future of finance and talk about cryptocurrencies! What they are, how they work, and their implications for the future. Grab your juice bottle and let's get this going!

A cryptocurrency (or crypto currency) is a digital asset designed to work as a medium of exchange that uses strong cryptography to secure financial transactions, control the creation of additional units, and verify the transfer of assets.^[1][2][3]

Cryptocurrencies use decentralized control as opposed to centralized digital currency and central banking systems.^[4]
 
Cryptocurrency-Explained: The decentralized control of each cryptocurrency works through distributed ledger technology, typically a blockchain, that serves as a public financial transaction database.^[5]
 
Bitcoin, first released as open-source software in 2009, is generally considered the first decentralized cryptocurrency.^[6]

Since the release of bitcoin, over 4,000 altcoins (alternative variants of bitcoin, or other cryptocurrencies) have been created.

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Political Juice - What is Cryptocurrency?