[IDevice Manager Pro 8.7.1.0 Crack Download HERE !
Christel Malden
I have a newish laptop that I've been using for a couple of months. For the most part I love this computer, but there is one headache I absolutely have to solve in order to maximize productivity on this device.
Here's the problem. The Touchpad (technically called a "ClickPad," the latest generation of Synaptic touchpad technology) cannot be disabled. It's large, and though the software used to manage it tries to prevent unwanted taps, moves, selections, etc. while typing, it's less than adequate. I need to be able to disable and enable this touchpad on the fly using a keystroke.
When I go into Device Manager, I find that I'm unable to disable the touchpad even there, as there is no option to do so in the right-click context menu and the "disable driver" button is grayed out in the properties driver tab:
There are no switches or built-in hotkeys (as would normally be present on other HP laptops). I have the most up-to-date driver from HP (literally just a few days old). I've discussed this with HP support and they tell me that the inability to disable the touchpad is "by design, as the unit would have to be sent back to HP to reenable it." Complete nonsense. Just plug in a USB mouse, but you have their position on the matter.
I can disable the touchpad if I use an external mouse, while the external mouse is present. But this isn't what I want to do. I want to be able to just use this computer as is without having to pull out a mouse every time I wish to use it and to be able to disable and enable the touchpad at will with a simple keystroke.
My gut feeling is that there is a way to make it possible to disable/enable this touchpad in the manner I wish to do so, but that this solution is deep and beyond my current abilities. I've studied the INF files and registry entries associated with the touchpad drivers. But nothing stands out as obvious.
I've installed and tried out every touchpad manager utility, without success. One way or the other, they either don't work as desired to limit touchpad interference or they go too far in the other direction, forcing me to wait longer than is comfortable for the touchpad to start accepting input again. There is one utility that lets you assign a keystroke to disabling and enabling the touchpad, but it doesn't recognize my touchpad as being compatible with this feature, possibly for the same reason that devcon can't find it when I try to disable it.
A reboot might be required, but try to see if it works without it.If in reboot Windows reinstalls automatically the Synaptics driver,you might need to disable driver updates to the device as described inthis answer of mine.
And if this does not solve what you are trying to do, then right click on the Synaptics Pointing Device icon,and then select Pointing Device Properties, Under the tab Device Settings/ClickPad Setting, Select the name Synaptics Touchpad and click Disable.
The latest available touchpad driver for windows 10 version 1903 on the HP Support site is 19.5.35.41 sp96678, how is yours 19.5.35.47? Through Windows update? Then completely remove the current(.47) driver and try installing this(.41) one and maybe the option to disable will be clickable.
I have an unorthodox answer. Write a little python3 pynput script which repeatedly moves mouse curser to a dead position in every millisecond, this way it will be stuck there. Assign a keyboard shortcut to disable and enable it.
Well, if you mean a software answer, this is not going to help you. With an Arduino Nano and the V-USB library, you can make the Arduino nano bit-bang as a USB HID device(i.e. pretend to be a mouse) on demand. Hook up a push button and you are set. Although you still need to have external hardware, this can be made to be just about the size of a USB thumb drive, and also just 1 button click.
Instead of customizing the code for Kubernetes itself, vendors can implement adevice plugin that you deploy either manually or as a DaemonSet.The targeted devices include GPUs, high-performance NICs, FPGAs, InfiniBand adapters,and other similar computing resources that may require vendor specific initializationand setup.
Following a successful registration, the device plugin sends the kubelet thelist of devices it manages, and the kubelet is then in charge of advertising thoseresources to the API server as part of the kubelet node status update.For example, after a device plugin registers hardware-vendor.example/foo with the kubeletand reports two healthy devices on a node, the node status is updatedto advertise that the node has 2 "Foo" devices installed and available.
Then, users can request devices as part of a Pod specification(see container).Requesting extended resources is similar to how you manage requests and limits forother resources, with the following differences:
Suppose a Kubernetes cluster is running a device plugin that advertises resource hardware-vendor.example/fooon certain nodes. Here is an example of a pod requesting this resource to run a demo workload:
After successfully registering itself, the device plugin runs in serving mode, during which it keepsmonitoring device health and reports back to the kubelet upon any device state changes.It is also responsible for serving Allocate gRPC requests. During Allocate, the device plugin maydo device-specific preparation; for example, GPU cleanup or QRNG initialization.If the operations succeed, the device plugin returns an AllocateResponse that contains containerruntime configurations for accessing the allocated devices. The kubelet passes this informationto the container runtime.
An AllocateResponse contains zero or more ContainerAllocateResponse objects. In these, thedevice plugin defines modifications that must be made to a container's definition to provideaccess to the device. These modifications include:
A device plugin is expected to detect kubelet restarts and re-register itself with the newkubelet instance. A new kubelet instance deletes all the existing Unix sockets under/var/lib/kubelet/device-plugins when it starts. A device plugin can monitor the deletionof its Unix socket and re-register itself upon such an event.
The canonical directory /var/lib/kubelet/device-plugins requires privileged access,so a device plugin must run in a privileged security context.If you're deploying a device plugin as a DaemonSet, /var/lib/kubelet/device-pluginsmust be mounted as a Volumein the plugin's PodSpec.
Previously, the versioning scheme required the Device Plugin's API version to matchexactly the Kubelet's version. Since the graduation of this feature to Beta in v1.12this is no longer a hard requirement. The API is versioned and has been stable sinceBeta graduation of this feature. Because of this, kubelet upgrades should be seamlessbut there still may be changes in the API before stabilization making upgrades notguaranteed to be non-breaking.
To run device plugins on nodes that need to be upgraded to a Kubernetes release witha newer device plugin API version, upgrade your device plugins to support both versionsbefore upgrading these nodes. Taking that approach will ensure the continuous functioningof the device allocations during the upgrade.
In order to monitor resources provided by device plugins, monitoring agents need to be able todiscover the set of devices that are in-use on the node and obtain metadata to describe whichcontainer the metric should be associated with. Prometheus metricsexposed by device monitoring agents should follow theKubernetes Instrumentation Guidelines,identifying containers using pod, namespace, and container prometheus labels.
The List endpoint provides information on resources of running pods, with details such as theid of exclusively allocated CPUs, device id as it was reported by device plugins and id ofthe NUMA node where these devices are allocated. Also, for NUMA-based machines, it contains theinformation about memory and hugepages reserved for a container.
Starting from Kubernetes v1.27, the List endpoint can provide information on resourcesof running pods allocated in ResourceClaims by the DynamicResourceAllocation API. To enablethis feature kubelet must be started with the following flags:
cpu_ids in the ContainerResources in the List endpoint correspond to exclusive CPUs allocatedto a particular container. If the goal is to evaluate CPUs that belong to the shared pool, the Listendpoint needs to be used in conjunction with the GetAllocatableResources endpoint as explainedbelow:
GetAllocatableResources should only be used to evaluate allocatableresources on a node. If the goal is to evaluate free/unallocated resources it should be used inconjunction with the List() endpoint. The result obtained by GetAllocatableResources would remainthe same unless the underlying resources exposed to kubelet change. This happens rarely but whenit does (for example: hotplug/hotunplug, device health changes), client is expected to callGetAlloctableResources endpoint.
ContainerDevices do expose the topology information declaring to which NUMA cells the device isaffine. The NUMA cells are identified using a opaque integer ID, which value is consistent towhat device plugins reportwhen they register themselves to the kubelet.
The gRPC service is served over a unix socket at /var/lib/kubelet/pod-resources/kubelet.sock.Monitoring agents for device plugin resources can be deployed as a daemon, or as a DaemonSet.The canonical directory /var/lib/kubelet/pod-resources requires privileged access, so monitoringagents must run in a privileged security context. If a device monitoring agent is running as aDaemonSet, /var/lib/kubelet/pod-resources must be mounted as aVolume in the device monitoring agent'sPodSpec.
When accessing the /var/lib/kubelet/pod-resources/kubelet.sock from DaemonSetor any other app deployed as a container on the host, which is mounting socket asa volume, it is a good practice to mount directory /var/lib/kubelet/pod-resources/instead of the /var/lib/kubelet/pod-resources/kubelet.sock. This will ensurethat after kubelet restart, container will be able to re-connect to this socket.
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