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February 2018 |
The SSD to trust
The newest edition to the world’s best-selling SATA SSD series, the Samsung 860 EVO. Specially designed for mainstream PCs and laptops, with the latest V-NAND and a robust algorithm-based controller, this fast and reliable SSD comes in a wide range of compatible form factors and capacities.
Enhanced performance
Speeds are more consistent, even with heavy workloads and multi-tasks. The 860 EVO performs at sequential writes up to 520 MB/s with Intelligent TurboWrite technology, and sequential reads up to 550 MB/s. The TurboWrite buffer size is upgraded from 12 GB to 78 GB for faster file transfer.
Boosted endurance
Safely store and render large sized 4K videos and 3D data used by the latest applications, up to 8x higher TBW (Terabytes Written) than the previous 850 EVO. The latest V-NAND technology gives you up to 2,400 TBW, or is backed by a 5-year limited warranty.
Smart compatibility
Benefit from faster, more fluid communication with your host system. The refined ECC algorithm and a new MJX controller generate higher speeds, and the improved queued trim enhances Linux compatibility. Our advanced engineering makes the 860 EVO more compatible with your computing system.
Multi form factors
Whatever size your computer needs, there is an 860 EVO for you. Choose among the 2.5-inch size for desktop PCs and laptops, and the SATA-based M.2 (2280) or the mSATA for ultra-slim computing devices.
General Feature
- Capacity: 1,000 GB
- Form Factor: 2.5 inch
- Interface: SATA 6 Gb/s Interface, compatible with SATA 3 Gb/s & SATA 1.5 Gb/s interface
- Dimension (WxHxD): 100 x 69.85 x 6.8 mm
- AWeight: Max. 51 g
- Storage Memory: Samsung V-NAND 3bit MLC
- Controller: Samsung MJX Controller
- Cache Memory: Samsung 1 GB Low Power DDR4 SDRAM
Performance
- Sequential Read: Up to 550 MB/seconds Sequential Read
- Sequential Write:Up to 520 MB/seconds Sequential Write
- Random Read (4KB, QD32): Up to 98,000 IOPS Random Read
- Random Write (4KB, QD32): Up to 90,000 IOPS Random Write
- Random Read (4KB, QD1): Up to 10,000 IOPS Random Read
- Random Write (4KB, QD1): Up to 42,000 IOPS Random Write
Special Feature
- TBW: 600TB
- TRIM Support: TRIM Supported
- S.M.A.R.T Support: S.M.A.R.T Supported
- GC (Garbage Collection): Auto Garbage Collection Algorithm
- Encryption Support: AES 256 bit Encryption (Class 0) , TCG/Opal, IEEE1667 (Encrypted drive)
- WWN Support: World Wide Name supported
- Device Sleep Mode Support: Yes
- Average Power Consumption (system level): Average: 3.0 W Maximum: 4.0 W
- Reliability (MTBF): 1.5 Million hours Reliability (MTBF)
- Operating Temperature: 0 - 70 °C Operating Temperature
- Shock: 1,500 G & 0.5 ms (Half sine)
Click here to return
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February 2018 |
The SSD to trust The newest edition to the world’s best-selling SATA SSD series, the Samsung 860 EVO. Specially designed for mainstream PCs and laptops, with the latest V-NAND and a robust algorithm-based controller, this fast and reliable SSD comes in a wide range of compatible form factors and capacities. Enhanced performance Speeds are more consistent, even with heavy workloads and multi-tasks. The 860 EVO performs at sequential writes up to 520 MB/s with Intelligent TurboWrite technology, and sequential reads up to 550 MB/s. The TurboWrite buffer size is upgraded from 12 GB to 78 GB for faster file transfer. Boosted endurance Safely store and render large sized 4K videos and 3D data used by the latest applications, up to 8x higher TBW (Terabytes Written) than the previous 850 EVO. The latest V-NAND technology gives you up to 2,400 TBW, or is backed by a 5-year limited warranty. Smart compatibility Benefit from faster, more fluid communication with your host system. The refined ECC algorithm and a new MJX controller generate higher speeds, and the improved queued trim enhances Linux compatibility. Our advanced engineering makes the 860 EVO more compatible with your computing system. Multi form factors Whatever size your computer needs, there is an 860 EVO for you. Choose among the 2.5-inch size for desktop PCs and laptops, and the SATA-based M.2 (2280) or the mSATA for ultra-slim computing devices. General Feature - Capacity: 2,000 GB
- Form Factor: 2.5 inch
- Interface: SATA 6 Gb/s Interface, compatible with SATA 3 Gb/s & SATA 1.5 Gb/s interface
- Dimension (WxHxD): 100 x 69.85 x 6.8 mm
- AWeight: Max. 60 g
- Storage Memory: Samsung V-NAND 3bit MLC
- Controller: Samsung MJX Controller
- Cache Memory: Samsung 2 GB Low Power DDR4 SDRAM
Performance - Sequential Read: Up to 550 MB/seconds Sequential Read
- Sequential Write:Up to 520 MB/seconds Sequential Write
- Random Read (4KB, QD32): Up to 98,000 IOPS Random Read
- Random Write (4KB, QD32): Up to 90,000 IOPS Random Write
- Random Read (4KB, QD1): Up to 10,000 IOPS Random Read
- Random Write (4KB, QD1): Up to 42,000 IOPS Random Write
Special Feature - TBW: 1200TB
- TRIM Support: TRIM Supported
- S.M.A.R.T Support: S.M.A.R.T Supported
- GC (Garbage Collection): Auto Garbage Collection Algorithm
- Encryption Support: AES 256 bit Encryption (Class 0) , TCG/Opal, IEEE1667 (Encrypted drive)
- WWN Support: World Wide Name supported
- Device Sleep Mode Support: Yes
- Average Power Consumption (system level): Average: 3.0 W Maximum: 4.0 W
- Reliability (MTBF): 1.5 Million hours Reliability (MTBF)
- Operating Temperature: 0 - 70 °C Operating Temperature
- Shock: 1,500 G & 0.5 ms (Half sine)
Click here to return |
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January 2018 |
The
New Zealand SKA design alliance team will hold a conference open to the
public on 2018-02-15 Thu and 16 Friday at AUT in Auckland city. This is the 4th edition of the event. In addition to this seminar, the organising committee has scheduled another seminar called Science for SKA for 2018-02-13 Tue and 14 Wed preceding Computing for SKA. The Science event is targeted at astronomers who are interested in cosmology and the state of the universe whereas the Computing event is targeted at computing scientists who are interested in the methods of seeing the universe.
As the audience is unlikely the same for the 2 events, registration is on a per event basis. The registration fee for either event is subsidized in order to allow more people from the public to join the events. Fees are stated on the registration site given below. The venue is professional. Tea, coffee, and snacks are ample.
The Computing event has 9 overseas speakers and 14 New Zealand speakers. Several overseas speakers hold high level positions in the SKA or consortium organisations. As far as Compucon is concerned, the most related speaker is Chris Broekema from ASTRON Netherlands because Chris is the lead of the Data Processor Platform of SDP in which Compucon currently works on.
Compucon plans to speak about a Simple View of the SDP Compute Complexity AS IF
we are the authority in front of many heavy weights from overseas. We
would like to invite you to join this event and to
meet the important people there.
The info, programme and the registration link: https://irasr.aut.ac.nz/news-And-events2/news-And-events/nz-ska-forum-2018
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January 2018 |
The
New Zealand SKA design alliance team will hold a conference open to the
public on 2018-02-15 Thu and 16 Friday at AUT in Auckland city. This is the 4th edition of the event. In addition to this seminar, the organising committee has scheduled another seminar called Science for SKA for 2018-02-13 Tue and 14 Wed preceding Computing for SKA. The Science event is targeted at astronomers who are interested in cosmology and the state of the universe whereas the Computing event is targeted at computing scientists who are interested in the methods of seeing the universe.
As the audience is unlikely the same for the 2 events, registration is on a per event basis. The registration fee for either event is subsidized in order to allow more people from the public to join the events. Fees are stated on the registration site given below. The venue is professional. Tea, coffee, and snacks are ample.
The Computing event has 9 overseas speakers and 14 New Zealand speakers. Several overseas speakers hold high level positions in the SKA or consortium organisations. As far as Compucon is concerned, the most related speaker is Chris Broekema from ASTRON Netherlands because Chris is the lead of the Data Processor Platform of SDP in which Compucon currently works on.
Compucon plans to speak about a Simple View of the SDP Compute Complexity AS IF
we are the authority in front of many heavy weights from overseas. We
would like to invite you to join this event and to
meet the important people there.
The info, programme and the registration link: https://irasr.aut.ac.nz/news-And-events2/news-And-events/nz-ska-forum-2018
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January 2018 |
Modern Compucon systems support NVMe devices and Intel Optane devices.
This article explains what they are in terms of technology.
- NVMe
stands for Non-Volatile Memory via PCI Express and is the latest
interface standard for (and specifically designed for) flash memory devices, set to replace SAS and SATA
(which earlier replaced SCSI and IDE respectively) for more traditional storage devices (mechanical). It can be considered the interface of a storage device with
the motherboard of a PC, but to be exact, it is the interface of a
storage device via PCIe to the CPU (whether it is via a PCIe slot on the
motherboard or via U.2 or M.2 physical interfaces).
- The data
transfer rate between the storage device and the motherboard is the
primary motivation for NVMe. Whilst SAS reached 12Gb per second of
theoretical peak transfer rate as of writing, NVMe reaches 32Gbps for
read or write by using 4 PCIe lanes on version 3 of the PCIe standard
(and more if desired or needed, as it can scale with more lanes of
PCIe).
- Owing to the removal of this interface data transfer
restriction, an SSD device with NVMe interface would be able to read or
write at the peak speed of NAND technology. That is, NAND medium
vendors would be able to improve the technology for higher data transfer
rates until reaching the interface limit. Example performance comparison of consumer devices with their respective interfaces:
- There are several
form factors of the interface as shown in the diagram. The top device
can be inserted directly onto the PCIe slot. The middle device goes
onto the mainboard via a specific M.2 slot. The bottom device goes into
a male-female connector (U.2) which is normally off the mainboard.
- There are many choices of NVMe
SSD on the market. An example is Samsung PM1725 which is based on NVMe
PCIe 3.0 x8 LP interface, and provides a storage size of 6.4TB, 5DWPD
(disk written per day) for 5 years, transfer rates of 6000MB/s and
2000MB/s for Sequential Read and Write respectively, and Random Read and
Write of 1000K and 120K IO per second respectively.

Note: The above information has been presented in the Compucon CPD seminar on 18 October 2017
- On
top of the NVMe interface standard is the NVMe-over-Fabric standard for
connecting external storage devices onto the motherboard of a PC or
server. NVMe-over-Fabric standardization is going to happen over the
next couple of years as it takes time to get all the interoperability
worked out in the industry. Right now, the basics work but hot-plug and
error recovery would take time to become bullet proof.
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