Abstract:
A cloud computing environment providing a network service for a client computing entity. The network service is not an application level service, but rather a service that operates at or below the network layer in the protocol stack. For instance, the network service might be a network endpoint service such as a network address service (such as DNS) or a dynamic network service (such as DHCP), or a network traffic service such as a firewall service or a secure tunneling service (such as VPN). The service might also provide a pipeline of network services for network level traffic to and from the client computing entity. The cloud environment uses policy to determine which of a plurality of communication channels to use when exchanging cloud service data for the network service.
Abstract:
Load balancing for single-address tenants. When a load balancer detects that a virtual address is associated with a single destination address, the load balancer sets a flag to distinguish the virtual address from virtual addresses that are associated with a plurality of destination addresses. The load balancer instructs the router to bypass the load balancer for network packets that are addressed to the virtual address, and refrains from storing subsequent flow state for the virtual address. When the virtual address is to be scaled up with an additional destination address, the load balancer sets a flag to distinguish the virtual address from virtual addresses that are associated with a single destination addresses. The load balancer instructs the router to route network packets that are addressed to the virtual address through the load balancer, instead of bypassing the load balancer, and starts storing flow state for the virtual address.
Abstract:
Described herein are systems and methods for configuring access control devices. In overview, some embodiments provide for a method whereby a smartcard is used to configure a disconnected access control device. A user presents this smartcard to a connected access control device which, in response to the presentation of this card, allows the user to download to the smartcard one or more aspects of configuration data for a specified disconnected access control device. The user subsequently presents the smartcard to the relevant disconnected access control device, which uploads and selectively applies the one or more aspects of configuration data.
Abstract:
An access control system (1) for a secure facility includes an authorisation system having an interface, in the form of an interrogator (7), for receiving the request signal indicative of a user seeking authorisation for a predetermined action, where that action is to unlock a door that presently blocks a doorway. If that action occurs, the user will be able to progress through the doorway. A processor (8) is responsive to the request signal for determining if the access is to be granted to that user at that particular time. If access is to be granted, processor (8) generates the secure signal. An operating device, which is collectively defined by ports (13), processor (14) and locking device (15), is physically spaced apart from processor (7) and responsive to the secure signal for initiating the action. That is, the action is to progress the locking device to the second configuration. This, in turn, will allow the user to subsequently gain access through the doorway. The action of progressing the locking device to the second configuration is initiated ultimately by device (15)—after processor (14) provides the required signals via one of ports (13)—to allow the user to then physically progress through the doorway.
Abstract:
The invention relates to a new microorganism Streptomyces glaucescens MTCC 5115 and a process for producing the immunosuppressant agent, tacrolimus (FK-506) utilizing the new microorganism Streptomyces glaucescens MTCC 5115. The invention also relates to pharmaceutical compositions that include the tacrolimus (FK-506) and use of said compositions for treatment or prevention of the transplantation rejection of organs or tissues such as heart, kidney, liver, medulla ossium, skin, etc.
Abstract:
The movement of a Virtual IP (VIP) address from cluster node to cluster node is coordinated via a load balancer. All or a subset of the nodes in a load balancer cluster may be configured as possible hosts for the VIP. The load balancer directs VIP traffic to the Dedicated IP (DIP) address for the cluster node that responds affirmatively to periodic health probe messages. In this way, a VIP failover is executed when a first node stops responding to probe messages, and a second node starts to respond to the periodic health probe messages. In response to an affirmative probe response from a new node, the load balancer immediately directs the VIP traffic to the new node's DIP. The probe messages may be configured to identify which nodes are currently responding affirmatively to probes to assist the nodes in determining when to execute a failover.
Abstract:
An access control system (1) for a secure facility includes an authorization system having an interface, in the form of an interrogator (7), for receiving the request signal indicative of a user seeking authorization for a predetermined action, where that action is to unlock a door that presently blocks a doorway. If that action occurs, the user will be able to progress through the doorway. A processor (8) is responsive to the request signal for determining if the access is to be granted to that user at that particular time. If access is to be granted, processor (8) generates the secure signal. An operating device, which is collectively defined by ports (13), processor (14) and locking device (15), is physically spaced apart from processor (7) and responsive to the secure signal for initiating the action. That is, the action is to progress the locking device to the second configuration. This, in turn, will allow the user to subsequently gain access through the doorway. The action of progressing the locking device to the second configuration is initiated ultimately by device (15)—after processor (14) provides the required signals via one of ports (13)—to allow the user to then physically progress through the doorway.
Abstract:
An access control system for a secure facility includes an authorization system having an interface, in the form of an interrogator, for receiving the request signal indicative of a user seeking authorization for a predetermined action, such as gaining access through a door. In one example, an authorization system may include an interface for receiving a request signal indicative of a party seeking authorization for a predetermined action. A first processor, that is responsive to the request signal, determines if the authorization is to be granted. If so, the first processor may generate an authorization signal that includes information that is securely coded, and which is indicative of the determination. An operating device, physically spaced from the first processor, may receive the authorization signal, and may decode the securely coded information and subsequently initiating the action, if appropriate.
Abstract:
When a load balancer detects that a virtual address is associated with a single destination address, the load balancer sets a flag to distinguish the virtual address from virtual addresses that are associated with a plurality of destination addresses. The load balancer instructs the router to bypass the load balancer for network packets that are addressed to the virtual address, and refrains from storing subsequent flow state for the virtual address. When the virtual address is to be scaled up with an additional destination address, the load balancer sets a flag to distinguish the virtual address from virtual addresses that are associated with a single destination addresses. The load balancer instructs the router to route network packets that are addressed to the virtual address through the load balancer, instead of bypassing the load balancer, and starts storing flow state for the virtual address.