Abstract:
The present invention is related to a method for establishing via an appliance a transport layer protocol connection initiated by a server on a first network to a client connected from a second network to the first network via a secure socket layer virtual private network (SSL VPN) connection. The method includes the step of receiving, by an appliance, a transport layer connection request from a server on a first network to connect to a client connected to the first network via a SSL VPN connection from a second network. The transport layer connection request identifies a client destination internet protocol address and a client destination port on the first network. The method includes establishing, by the appliance, a first transport layer connection to the server on the first network, determining, by the appliance, the client on the second network associated with the client destination internet protocol address on the first network, and transmitting, by the appliance, connection information identifying the client destination port to an agent on the client. The agent establishes a second transport layer connection to the client destination port using a local internet protocol address of the client on the second network and establishes a third transport layer connection to the appliance, which it associates with the second transport layer connection.
Abstract:
A method for intercepting, by an agent of a client, communications from the client to be transmitted via a virtual private network connection includes the step of intercepting communications based on identification of an application from which the communication originates. The agent receives information identifying a first application. The agent determines a network communication transmitted by the client originates from the first application and intercepts that communication. The agent transmits the intercepted communication via the virtual private network connection.
Abstract:
Methods for establishing an SSL/VPN session on behalf of a user of a client where the user has a previously existing session are described. Methods include receiving, by an appliance, a request from a first client operated by a user to establish a virtual private network session; creating, by the appliance, a temporary virtual private network session with the client; identifying, by the appliance, an existing virtual private network session previously established on behalf of the user; terminating the previous session; and creating a new virtual private network session with the client using the temporary session. Other methods may further include transmitting a request to a user corresponding to whether to terminate one or more previous sessions, and transferring session data from a previously existing session to a current session. Corresponding systems are also described.
Abstract:
The present invention relates to systems and methods to identify a level of access for a resource being accessed via a secure socket layer virtual private network (SSL VPN) connection to a network, and to control the action on the resource based on the identified level of access. The appliance described herein provides intelligent secure access and action control to resources based on a sense and respond mechanism. When a user requests access to a resource via the SSL VPN connection of the appliance, the appliance obtains information about the client to determine the user access scenario—the location, device, connection and identify of the user or client. Based on the collected information, the appliance responds to the detected user scenario by identifying a level of access to the resource for the user/client, such as rights to view, print, edit or save a document, Based on the identified level of access, the appliance controls the actions performs on the resource by various techniques described herein so that the user can only perform the allowed action n accordance with the level of access. As such, the present invention allows organization to control and provide the appropriate level of access to valuable, confidential or business critical information accessed remotely or via a pubic network while protecting such information by controlling the types of actions performed or allowed to be performed remotely on the information.
Abstract:
Fire extinguishing mixtures, systems and methods are provided. The fire extinguishing mixtures can include one or more extinguishing compounds, such as, for example, one or more of fluorocarbons, fluoroethers, and fluorocarbons. The fire extinguishing mixtures can also include one or more of nitrogen, argon, helium and carbon dioxide. In an exemplary aspect the extinguishing mixture includes an extinguishing compound, a diluent gas and water.
Abstract:
Growth of SiGe on a significantly lattice mismatched substrate (e.g., Si) is provided by depositing a SiGe buffer layer at a growth temperature, then annealing the resulting structure at a temperature higher than the growth temperature. Additional buffer layers can be included following the same steps. The SiGe buffer is significantly lattice mismatched with respect to the substrate, and is preferably substantially lattice matched with a SiGe device to be grown on top of the buffer. The resulting buffer structure is relatively thin and provides low defect density, and low surface roughness. Disadvantages of thick graded buffer layers, such as high cost, high surface roughness, mechanical fragility, and CTE mismatch, are thereby avoided.
Abstract:
A new variety of Azalea plant found as a seedling in a planned cross between the female Azalea ‘Cherie’ (syn. V12-4) and the male Azalea ‘Indian Summer’ is disclosed. The new variety has a unique blooming period and is extremely cold hardy. It is a compact, dense, and upright growing plant with attractive, coral pink, hose-in-hose flowers.
Abstract:
A voltage variable material (“VVM”) including an insulative binder that is formulated to intrinsically adhere to conductive and non-conductive surfaces is provided. The binder and thus the VVM is self-curable and applicable in a spreadable form that dries before use. The binder eliminates the need to place the VVM in a separate device or to provide separate printed circuit board pads on which to electrically connect the VVM. The binder and thus the VVM can be directly applied to many different types of substrates, such as a rigid (FR-4) laminate, a polyimide or a polymer. The VVM can also be directly applied to different types of substrates that are placed inside a device. In one embodiment, the VVM includes doped semiconductive particles having a core, such which can be silicon, and an inert coating, which can be an oxide. The particles are mixed in the binder with conductive particles.
Abstract:
An active-constraint robot (4), particularly for surgical use, is controlled by means of a series of motorized joints to provide a surgeon with real-time tactile feedback of an operation in progress. The robot system holds, in memory, a series of constraint surfaces beyond which it would be dangerous for the surgeon to go, and a resistive force is applied to the cutting tool (14) as the surgeon approaches any such surface. To improve the overall quality of feedback experienced by the surgeon, the resistive force applied to the cutting tool (14) depends upon the point of intersection (I) between the force factor applied by the surgeon and the surface. Further improvements are achieved by adjusting the tangential resistive force, when the tool is adjacent to the surface, in dependence upon the surrounding shape of the surface.
Abstract:
In connection with an optical-electronic semiconductor device, improved photoluminescent output is provided at wavelengths approaching and beyond 1.3 μm. According to one aspect, a multiple quantum well strain compensated structure is formed using a GaInNAs-based quantum well laser diode with GaNAs-based barrier layers. By growing tensile-strained GaNAs barrier layers, a larger active region with multiple quantum wells can be formed increasing the optical gain of the device. In example implementations, both edge emitting laser devices and vertical cavity surface emitting laser (VCSEL) devices can be grown with at least several quantum wells, for example, nine quantum wells, and with room temperature emission approaching and beyond 1.3 μm.