Download Nimble Firmware !!HOT!!

Hello, I was wondering if someone were to point me into the right direction. I am looking at my Nimble storage and wondering what is the best firmware update path to take. Currently it is on firmware 5.2.1.800. I was searching through to see what the newest firmware is and its released notes but I cant seem to find that. I am fairly new to managing the nimble storage and looking for some documentation as navigating this keeps me going around in circles here at the HP site.

What is the latest stable nimble firmware?

This array is 100% dedicated to VMware shared storage and 100% FC (not FCoE.) The switches were purchased as a bundle with the SAN, and the hosts are HPE Proliant Gen9. I am especially interested in issues that might affect VMware. Issues affecting other OS's may or may not be relevant, unless they are hardware/firmware issues or also affect VMware.

Download Nimble Firmware

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Anyone out their with Nimble/Citrix Hypervisor experience. I really need to upgrade the firmware on the Nimble array, but seem to be only finding bits and pieces of the information i need to know with confidence that all of the correct timeouts are in place on the hypervisor side before upgrading the firmware.

I am trying to set up my Nimble CS220 for SNMP monitoring in Orion NPM, but no matter what I have done to this point the only SNMP options I see are status monitoring options (Ping with ICMP or monitor with SNMP). I don't see any volume info or anything. Am I doing something wrong or is this expected? It did it this when when first discovered and wanting more, I went ahead and found the SNMP document for nimble which mentions family 1.3.6.1.4.1.37447. I set that as a universal device poller and assigned it but still I have no more than before. No interfaces, volumes, fans, etc. Just nothing.

nimble MIB doesn't follow MIB2 if i can trust my memory, and is entirely in the private branch (1.3.6.1.4.1) of the MIB tree. NPM is definitely not going after these OIDs out of the box. So, you are definitely on the right path in using custom pollers (universal device poller).

with that said, use the snmpwalk.exe directly under the NPM install folder on the npm server. Do a MIB walk and reverse engineer the OIDs you need from there. You can also attach the MIB walk output (zip it if it's too big) and let's see what nimble can provide.

The judges scored the CS platform high for ease of use and management and functionality. For instance, CS customers can perform their own firmware upgrades. Nimble Storage Adaptive Flash analytics also won high marks.

The issue involves a change of behavior (relative to previous nimble versions) when both setting data values for some nodes and initial values for other nodes within the same variable (that satisfies the previous condition). Data values for right-hand-side-only nodes were replaced by initial values (inits) if both were provided. Version 1.0.1 reverts to previous behavior that data values are not replaced by initial values in that situation.

If you don't want to recompile your firmware with adjusted microstepping for the extruder, you could also try to lower your retraction speed and retraction acceleration until everythins works fine without your printer getting stuck.

As of writing this I have both controllers running CentOS7 installed to their own partitions on the first drive in the array, and I have /boot and the boot loader installed to the 4G USB drives that nimble had their bootloader installed to.

Welp I got the news I figured I would about the NV1 card from NetList, it is EOL and they stopped driver r development for it. They were nice enough to send me ALL of the documentation and kernel module though, it supports up to kernel 2.6.38 so you could run latest centos 6 and get it supported.. maybe ill mess with that? I attached it here incase anyone wants the firmware or linux kernel module driver for the Netlist NV1. Netlist-1.4-6 Release

The HPE Nimble Storage SmartSecure feature enables encryption and shredding on a per-application basis. It saves storage capacity and operations time. And unlike encryption solutions from other storage system vendors, the flexible SmartSecure requires no custom drives, dedicated firmware, or expensive licensing.

It is possible to downgrade Nimble to the previously used release (as repositories contain not only the latest release but also previous ones), the exact command depends on OS and package manager you're using, e.g. in case of CentOS it should be enough to run "yum downgrade nimble", for deb-based distributions please run "apt-get install nimble-" providing the version you'd like to install.

Nimble OS is the firmware running on all Nimble arrays. Exact the same version runs on all 3 types of series available today. At the time of publication Nimble just announced its newest version 4.0 of Nimble OS.

One of my ToDo tasks was to update the firmware for my Olympus OM-D E-M5 Mark II to version 2.2, so it would be compatible with an Olympus lenses that have the built-in image stabilizing function. (Yes, I'm testing the new Olympus 300mm f4.0 PRO Lens. More on that later next week.)

But these embedded platforms are accessible only by brave PineTime Owners who dare to pry open their watches very carefully... And connect a Raspberry Pi (or ST-Link) to the tiny delicate 4-pin SWD port recessed deep inside... Just to flash the PineTime firmware.

If you're developing firmware for PineTime: Thanks for the great job! I strongly urge you to implement the SMP protocol in your firmware... It will make PineTime Owners a lot happier when updating their watch firmware!

We would like Pine64 to ship PineTime with a FOSS firmware (created by the PineTime Community) that implements the SMP protocol. So PineTime owners can just unbox their watch and start flashing right away from their phones.

The open-source Simple Management Protocol (SMP) was originally created for flashing firmware on devices running Mynewt and Zephyr operating systems. SMP is based on the Bluetooth LE Generic Attribute (GATT) Profile.

Mobile App uses the GATT Characteristic ID for SMP to transmit an encoded request to update PineTime's firmware. In GATT lingo, we call this sending a "Write Request" to the GATT Characteristic for SMP.

The circular DFU icon at top right (Direct Firmware Upgrade) appears when the mobile app detects the presence of the SMP Service and Characteristic. Tapping the DFU icon will transmit a firmware update request to PineTime.

PineTime stores two firmware images in Flash ROM: Active and Standby. PineTime boots from the Active Firmware Image. It activates the SMP service for firmware update over Bluetooth LE.

If the new firmware doesn't start properly, at the next reboot the bootloader swaps back the Active and Standby Firmware images. The bootloader starts the Active Firmware Image (now containing the old firmware)

Thankfully most of this firmware update and rollback logic is built into the MCU Manager Library. For the swapping of firmware we'll use another open-source component: MCUBoot Bootloader. More about MCUBoot in a while.

Standby Firmware Image: Staging area for receiving the new firmware over Bluetooth LE. During firmware update, the Bootloader swaps the Active and Standby Firmware Images, so that the new firmware becomes active.

Mobile App transmits the new firmware to PineTime over Bluetooth LE in mutiple chunks. Mobile App writes each chunk of firmware as an Image Upload Request to the SMP Characteristic on PineTime's GATT interface.

off: Offset of this chunk. Starts at 0.

size: Total size of the firmware image

data_len: Size of this chunk

data_sha_len: Size of the SHA hash

upgrade: If true, the version number of the new firmware must be greater than the Active Firmware version in Flash ROM

size: Total size of the firmware image

write_bytes: Number of image bytes to write to flash for the chunk

area_id: The flash area to write to

proceed: Whether to process the request; false if offset is wrong.

erase: Whether to erase the destination flash area.

To update PineTime's firmware over Bluetooth LE, the MCU Manager Library calls img_mgmt_impl_write_image_data to write each chunk of received firmware to PineTime's Flash ROM. PineTime Firmware Developers would have to implement img_mgmt_impl_write_image_data in C, so let's look inside the function...

To support firmware updates over Bluetooth LE, PineTime Firmware Developers would have to include NimBLE in their firmware. NimBLE takes care of the firmware update process by interpreting GATT Read/Write Requests, and forwarding the SMP Commands to the MCU Manager Library (which writes the new firmware into Flash ROM).

NimBLE runs in the background handling Bluetooth LE packets, so it depends on the multitasking capabilities provided by the operating system embedded in the firmware. This adaptation of NimBLE to the operating system happens in the NimBLE Porting Layer.

RIOT: Callouts are not supported in RIOT, so they are implemented with a combination of RIOT Timers and Event Queues. See riot/nimble_npl_os.h and npl_os_riot.c from the NimBLE Porting Layer for RIOT

FreeRTOS: Callouts are also implemented with Timers and Queues in FreeRTOS. Mutexes are implemented with FreeRTOS Semaphores. See freertos/nimble_npl_os.h from the NimBLE Porting Layer for FreeRTOS

MicroPython: Mutexes, Semaphores, Callouts and Event Queues don't exist in MicroPython, so they are implemented using simple counters and locks. See micropython/nimble_npl_os.h and npl_os.c from the NimBLE Porting Layer for MicroPython

Mynewt: NimBLE was created originally for Mynewt. Thus Mutexes, Semaphores, Callouts and Event Queues are used directly from Mynewt. See mynewt/nimble_npl_os.h from the NimBLE Porting Layer for Mynewt

Now we'll cover the third and final open-source component: MCUBoot Bootloader. When PineTime has been configured for firmware update, the MCUBoot Bootloader is the first thing that PineTime executes when booting. ff782bc1db