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Swap overlays allows you to swap an existing opened overlay for another. In your example, flow 1 does not have an overlay opened prior to trying to swap the overlay with another one. Flow 2 has a overlay opened and then swapped between another overlay.

Hi, I am doing an weighted overlay analysis with five rasters. I am using a common scale from 1 to 10 (10 being most suitable and 1 being the least suitable). I have some questions about two of the rasters:

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I've run into the same problem. Is this really the simplest solution? If I have an arbitrarily long array of points I would have to auto-index into a for loop and calculate the bounding box for each one and then use the overlay oval function? It seems silly that NI wouldn't have included some options in the "overlay points" function to avoid this problem. Overlay points is attractive because it can take multiple points at once (unlike all the other overlay functions, which would need to be implemented inside a loop), and it would have been nice to represent the points with various symbols or a bitmap. I'm displaying the points on a live video feed, so I'm concerned about adding unnecessary overhead. If overlay oval really is the way to do it, then I'll probably just continue to strain my eyes to see the little dots.

In my case, I have a single ROI with multiple rectangular contours for tracking particles. I like to see the bounding rectangles and their centers on the image. Currently, I use overlay ROI to take care of the rectangles, and overlay points to show the center positions.

If I have an overlay, open another overlay, I would like a way to have the previous overlays close. In my example, the typical use case is a tooltip that gets shown on Hover, which opens another overlay like a menu. From that menu, I might open a dialog.

Unfortunately, the previous overlays stay stuck on the screen until I close all of them manually. Is there a solution in terms of prototype triggers/interactions that can solve the issue of the tooltip and menu (previous overlays) from doing this?

The overlay network driver creates a distributed network among multipleDocker daemon hosts. This network sits on top of (overlays) the host-specificnetworks, allowing containers connected to it (including swarm servicecontainers) to communicate securely when encryption is enabled. Dockertransparently handles routing of each packet to and from the correct Dockerdaemon host and the correct destination container.

You can create user-defined overlay networks using docker network create,in the same way that you can create user-defined bridge networks. Servicesor containers can be connected to more than one network at a time. Services orcontainers can only communicate across networks they are each connected to.

Although you can connect both swarm services and standalone containers to anoverlay network, the default behaviors and configuration concerns are different.For that reason, the rest of this topic is divided into operations that apply toall overlay networks, those that apply to swarm service networks, and those thatapply to overlay networks used by standalone containers.

Before you can create an overlay network, you need to either initialize yourDocker daemon as a swarm manager using docker swarm init or join it to anexisting swarm using docker swarm join. Either of these creates the defaultingress overlay network which is used by swarm services by default. You needto do this even if you never plan to use swarm services. Afterward, you cancreate additional user-defined overlay networks.

To create an overlay network which can be used by swarm services orstandalone containers to communicate with other standalone containers running onother Docker daemons, add the --attachable flag:

To encrypt application data as well, add --opt encrypted when creating theoverlay network. This enables IPSEC encryption at the level of the vxlan. Thisencryption imposes a non-negligible performance penalty, so you should test thisoption before using it in production.

When you enable overlay encryption, Docker creates IPSEC tunnels between all thenodes where tasks are scheduled for services attached to the overlay network.These tunnels also use the AES algorithm in GCM mode and manager nodesautomatically rotate the keys every 12 hours.

Create a new overlay network using the --ingress flag, along with thecustom options you want to set. This example sets the MTU to 1200, setsthe subnet to 10.11.0.0/16, and sets the gateway to 10.11.0.2.

The docker_gwbridge is a virtual bridge that connects the overlay networks(including the ingress network) to an individual Docker daemon's physicalnetwork. Docker creates it automatically when you initialize a swarm or join aDocker host to a swarm, but it is not a Docker device. It exists in the kernelof the Docker host. If you need to customize its settings, you must do so beforejoining the Docker host to the swarm, or after temporarily removing the hostfrom the swarm.

Swarm services connected to the same overlay network effectively expose allports to each other. For a port to be accessible outside of the service, thatport must be published using the -p or --publish flag on docker service create or docker service update. Both the legacy colon-separated syntax andthe newer comma-separated value syntax are supported. The longer syntax ispreferred because it is somewhat self-documenting.

The ingress network is created without the --attachable flag, which meansthat only swarm services can use it, and not standalone containers. You canconnect standalone containers to user-defined overlay networks which are createdwith the --attachable flag. This gives standalone containers running ondifferent Docker daemons the ability to communicate without the need to set uprouting on the individual Docker daemon hosts.

Approximately half of all infrastructure dollars are invested in pavements, and more than half of that investment is in overlays. By enhancing overlay performance, State and local highway agencies can maximize this investment and help ensure safer, longer-lasting roadways for the traveling public.

Concrete overlays now benefit from performance-engineered mixtures, including thinner-bonded and unbonded overlays with fiber reinforcement, interlayer materials, and new design procedures that improve durability and performance. Asphalt overlay mixtures have also advanced significantly with the use of stone-matrix asphalt (SMA), polymer-modified asphalt (PMA), and other materials and agents that reduce rutting, increase cracking resistance, and extend pavement life.

Safety. Thousands of miles of rural and urban pavements need structural enhancement and improved surface characteristics, such as smoothness, friction, and noise. Targeted overlay pavement solutions can improve the condition of highways significantly in a relatively short time.

Cost Savings. Timely and well-designed overlay applications are consistently cost-effective because less subsurface work is required. In urban areas, impacts to utilities and pedestrian facilities are minimized.

Performance. Targeting overlay solutions to high-maintenance areas such as intersections, bus lanes, ramps, and curved alignments can pay immediate dividends in terms of reduced maintenance needs, fewer work zones, and improved safety.

Recent improvements to design methods, interlayer technology, slab geometry, and concrete mixtures have broadened concrete overlay surface treatment applicability, reliability, sustainability, and cost-effectiveness. A joint effort by Georgia, Iowa, Kansas, Michigan, Minnesota, Missouri, North Carolina, and Oklahoma resulted in the development of an improved design procedure for jointed unbonded concrete overlays on either concrete or composite pavements.

For asphalt overlays, several State departments of transportation (DOTs) have adopted SMA due to increased service life and performance. The Maryland, Alabama, and Utah DOTs each used over 1 million tons of SMA during a 5-year period. DOTs in Florida, Georgia, New Jersey, New York City, Tennessee, and Virginia found highly modified asphalt in thin overlays is more resistant to reflective cracking. It has increased pavement life by two to four times for DOTs in Alabama and Oklahoma.

Offsets in pixels used when positioningthe overlay. The first element in thearray is the horizontal offset. A positive value shifts the overlay right.The second element in the array is the vertical offset. A positive valueshifts the overlay down.

Defines howthe overlay is actually positioned with respect to its position property.Possible values are 'bottom-left', 'bottom-center', 'bottom-right','center-left', 'center-center', 'center-right', 'top-left','top-center', and 'top-right'.

Whether event propagation to the mapviewport should be stopped. If true the overlay is placed in the samecontainer as that of the controls (CSS class nameol-overlaycontainer-stopevent); if false it is placed in the containerwith CSS class name specified by the className property.

Whether the overlay is inserted firstin the overlay container, or appended. If the overlay is placed in the samecontainer as that of the controls (see the stopEvent option) you willprobably set insertFirst to true so the overlay is displayed below thecontrols.

The overlay CSS property specifies whether an element appearing in the top layer (for example, a shown popover or modal element) is actually rendered in the top layer. This property is only relevant within a list of transition-property values, and only if allow-discrete is set as the transition-behavior.

Note: When transitioning overlay, you need to set transition-behavior: allow-discrete on the transition so that it will animate. overlay animations differ from normal discrete animations in that the visible (i.e. auto) state will always be shown for the full duration of the transition, regardless of whether it is the start or end state. ff782bc1db