M.2 NVMe RAID carrier board, 8TB storage, 6GB/s speed
- Mako Driver Download For Windows 10 32-bit
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- Mako Driver Download For Windows 10
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Mako 400 The MAKO 400 represents ECRM’s highest quality imaging output with resolution sets from 1200 – 3556 dpi, and is one of the fastest 4-page CTP units in its class, imaging over 24 Speedmaster 74 plates per hour at 2400 dpi.
UHD is compatible with Python 2.7, and 3.5 through 3.8. The default Python install will be 32 bit. To get the 64-bit install, you have to select it specifically - 'Download Windows x86-64 executable installer' for Python 3.0+ or 'Download Windows x86-64 MSI installer' for Python 2.7 (any version). The Mako M.2 NVMe RAID carrier board is straightforward to install and use as a high-speed, high-capacity disk drive in Linux or Windows systems. The Mako can be configured as a software RAID using standard methods for the respective OS: Windows 7; Windows 8, 10; Windows Server 2012; Linux; System Requirements: Windows – 7, 8, 10, Server 2012.
The Mako is a PCI Express Gen 3.0 carrier board for up to four high-speed M.2 NVMe SSDs [not included] that can be configured as an NVMe RAID for up to 8TB of storage capacity with read / write speeds of up to 6GB/sec*.
Adding a populated Mako board to a Windows or Linux based computer can provide immediate and significant performance improvements for just about any application. Software development, simulation, graphic design, animation, video editing, financial analysis, and gaming are just a few of the applications that can benefit from such an upgrade.
The Mako M.2 NVMe RAID carrier board is straightforward to install and use as a high-speed, high-capacity disk drive in Linux or Windows systems. The Mako can be configured as a software RAID using standard methods for the respective OS:
System Requirements:
- Windows – 7, 8, 10, Server 2012
- Linux – standard distributions, kernels 4.x and above
- OS standard NVMe driver (available from NVM Express website)
- PCIe Gen 3.0 x8 slot (previous generations and less lanes are supported at reduced bandwidth)
- Up to four M.2 NVMe SSDs (PCIe Gen 3.0 x4)
- Bootable drives are supported if BOIS/UEFI supports booting from a PCIe device
Optional:
- S.M.A.R.T. Monitoring Tools (Open Source) for disk inspection and monitoring, available for download from SourceForge
- Manufacturer specific NVMe drivers available from drive manufacturer (for example, Samsung)
* Maximum achievable speeds can vary widely depending on the OS and system hardware. Older Mac Pro systems (e.g. 5,1) use PCIe Gen 2.0 x16 slots. While the Mako will work in these systems, it will do so at the reduced rate of PCIe Gen 2.0 x8. This will reduce the maximum achievable read and write speeds to between 2.5GB/s and 3.0GB/s. Below are EDT generated test results on Linux and Windows systems.
Motherboard | Gigabyte GA-AX370 Gaming K5 |
Operating System | Ubuntu 16.04.1 |
PCIe Slot | PCIe Gen3 x16 |
M.2 SSDs | Samsung 960 PRO (2TB) x 4 in software RAID 0 configuration |
Benchmark Software | Diskspeed (EDT disk IO test software) |
Average Seq.Read | 6.6 GB/s |
Average Seq.Write | 6.1 GB/s |
Motherboard | ASRock OC Formula Z170 |
Operating System | Windows 10 version 1803 (OS Build 17134.81) |
PCIe Slot | PCIe Gen3 x16 |
M.2 SSDs | Samsung 960 PRO (2TB) x 4 in software RAID 0 configuration |
Benchmark Software | CrystalDiskMark 6.0.0 x64 (32GB file, 9 iterations, Q=32, T=1) |
Average Seq.Read | 6.4 GB/s |
Average Seq.Write | 5.4 GB/s |
Benchmark Software | ATTO Disk Benchmark 4.00.0f2 (32GB file, 1MB IO size, direct IO, QD=9) |
Average Seq.Read | 6.4 GB/s |
Average Seq.Write | 5.8 GB/s |
MySQL and Redis are two popular databases. The following tutorial shows how to use these two databases by using a plugin we have designed. The plugin is a Lua module that provides a minimal translation layer for the OpenResty platform, thus making it possible to use the two OpenResty components lua-resty-mysql and lua-resty-redis.
Download
Download OpenResty.zip. This ZIP file includes MySQL and Redis drivers and an OpenResty to Mako Server translation layer that makes it possible to use these two drivers on the Mako Server. All source code in OpenResty.zip is licensed under the BSD license, including MySQL and Redis drivers.
Using
You do not need to unzip OpenResty.zip. Start the Mako Server as follows:
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where my-app-dir is a directory with your application's resource files.
MySQL Example
Download the MySQL.lsp test program and copy the file to your 'my-app-dir'. You can then run the LSP MySQL test by entering the LSP pages's URL in your browser. However, before running the LSP page, you must install MySQL and create the following database:
After performing the above MySQL commands, open MySQL.lsp in an editor and change the password. Save the file and enter the following URL in your browser: http://localhost/MySQL.lsp
You should see a response message in your browser and a response message being printed in the Mako Server's console window.
Redis Example
Install and start the Redis database on your computer. Download the Redis.lsp test program and copy the file to your 'my-app-dir'. Enter the following URL in your browser: http://localhost/Redis.lsp
You should see a response message in your browser and a response message being printed in the Mako Server's console window.
Blocking v.s. non Blocking Sockets
The MySQL and Redis drivers are internally using sockets when communicating with the database. It is, for this reason, important that you understand the difference between how sockets work in the Mako Server and in OpenResty.
The Mako Server supports both blocking and non blocking sockets, in contrast to the OpenResty environment, which only supports non blocking sockets. Non blocking sockets in OpenResty are referred to as Cosockets and are similar to the Mako Server's (and the Barracuda App Server's) non blocking sockets.
Sockets in the Mako Server are, by default, blocking, thus the drivers will be using blocking socket calls. This works great when used by LSP pages since each LSP page has its own native worker thread.
The following figure from the documentation illustrates how the server's socket dispatcher delegates HTTP requests to a thread in the Barracuda Server's Thread Pool. See the documentation, section Thread Mapping and Coroutines for details.
If you study the MySQL.lsp and the Redis.lsp example programs, you will notice that all database interactions are encapsulated in one function. The following is an excerpt from MySQL.lsp:
In the above example, function mySqlTest opens a database connection and interacts with the database. All socket calls will be blocking when the function is called on line 6. The function will not return until all database interaction has completed, thus the HTTP response will not be committed before the function returns.
A Non Blocking Socket Coroutine is created on line 10. The function ba.socket.event returns immediately and the LSP page exits; however, the mySqlTest function is now running as a Socket Coroutine Thread (similar to Cosockets in OpenResty). All socket interactions are now managed directly by the Socket Event Dispatcher as shown in the above figure.
Notice how we redirect the print function, which by default emits data to the HTTP response, on line 9. The mySqlTest function is using function print to emit the results from the database interaction. This would fail if it attempted to use the print function in the expired LSP page. The global print function is Lua's original print function which prints to the console.
When to use blocking sockets and when to use non blocking sockets
Blocking database sockets connections should be used when accessing the database from an LSP page and when the response data from the database should be part of the HTTP response message. A non blocking socket works asynchronously and the LSP page will not be able to render a response message with data from the database if the database socket connection is in non blocking mode.
Non blocking database socket connections should be used when the database connections are used in combination with other non blocking APIs such as when using a persistent socket/WebSocket for say an IoT protocol or when used in combination with our SMQ IoT protocol.
Limitations
Mako Driver Download For Windows 10 64-bit
The OpenResty compatibility layer is currently not implementing the connection pool; thus a socket added to the pool is simply closed.
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