138results about How to "Ensure process" patented technology

A local area network having a telephone line medium in a home network environment includes physical layer transceivers having transmit and receive state machines enabling each network station to determine a link status on the telephone line medium. The transmit state machine is configured for transmitting a link packet within a prescribed interval (T), less than a minimum packet length of a data packet, and having a preamble and a sufficient number of bytes to allow for transmission. Hence, the link packet will be detected by the other stations on the network, but will not be processed, since it is classified as a runt packet by the media access control layers. The receive state machine monitors the telephone line medium, and if after a prescribed interval (2T) the station has not detected a valid preamble from a data packet or a link packet, then the link status indicator for that station is set to an invalid condition, and subsequently supplied to the station operating system.

On an insulation layer 12 formed on a silicon substrate 10, there are formed in an NMOS transistor region 16 an NMOS transistor 14 comprising a silicon layer 34, a lattice-relaxed silicon germanium layer 22 formed on the silicon layer 34, a tensile-strained silicon layer 24 formed on the silicon germanium layer 22 and a gate electrode 28 formed on the silicon layer 24 with a gate insulation film 26 formed therebetween and in a PMOS transistor region 20 a PMOS transistor 18 comprising a silicon layer 34, a compression-strained silicon germanium layer formed on the silicon layer 34 and a gate electrode 28 formed on the silicon germanium layer 36 with a gate insulation film 26 formed therebetween.

A delay tracker for a signal processing system, which delay tracker utilizes a special code or pulse on the active portion of the tracked signal with the system including a pulse detector later in the system subsequently recognizing the special code or pulse in order to identify such signal and ascertain any delays associated with the signal for use by the system including possible resynchronization of the tracked signal with another signal associated therewith.

The invention relates to the distribution of electronic messages which fall within one or more message classes or categories. One aspect of the invention provides an electronic message distributing apparatus for distributing electronic messages from a database to one or more agents, the database storing, in respect of each electronic message to be distributes, a set of one or more message classes into which the message is deemed to belong. The apparatus causes the message to be rendered to one or more agents in succession, each having the capability to deal with one or more of the message classes in said set, until the message is processed in respect of all message classes for which there is a capable agent. The invention removes the onus on individual agents to forward messages to other agents if they cannot deal with all aspects of a message themselves. This reduces the likelihood that an inadequate response is sent to the customer.

The application provides methods, devices and a system of live-streaming content processing. The system includes: an anchor client, which is used for generating a recording starting instruction according to speech contents issued by an anchor, and sending the same to a service end; the service end, which is used for starting video recording according to the recording starting instruction, carryingout data association on recorded video data and a question to generate a question answering video carrying the question, and sending the question answering video to an audience client; and the audience client, which is used for receiving the question answering video, and displaying the question answering video on a live-streaming page. Therefore, the technical solution provided by the applicationcan implement mining on the question answering video in a live-streaming process, maximize a value of live-streaming contents on the basis of the question answering video, avoid data resource waste,and improve live-streaming experience of a user.

A method for processing network traffic loading balance is adapted for balancing the load of a session of various data packet processing threads in a network equipment. The method includes the following steps. First, a plurality of data packet processing threads is executed, a queue is assigned to each thread for storing the received data packets, and the data packet is read from the queue by the thread for processing. Then, it is determined whether the number of the data packets in the queue satisfies a traffic threshold value. If the number of the data packets in a certain queue satisfies an operating threshold value, new data packets are allocated by the network equipment to other queues without affecting the integrity of the session. Therefore, the present method not only maintains the integrity of the session, but also ensures the uniformity in load among the data packet processing threads.

Embodiments described include systems and methods for management and pre-establishment of network application and secure communication sessions. Session logs may be analyzed to identify an application or secure communication sessions likely to be accessed, and prior to receiving a request to establish the session, an intermediary (e.g. another device such as an intermediary appliance or other device, or an intermediary agent on a client such as a client application) may pre-establish the session, performing any necessary handshaking or credential or key exchange processes. When the session is subsequently requested (e.g. in response to a user request), the system may immediately begin using the pre-established session. This pre-establishment may be coordinated within the enterprise providing load balancing and scheduling of session establishment to prevent large processing loads at any one point in time.

A method is provided to steadily produce a gas discharge panel, such as a PDP, in which a panel and the top of the barrier ribs are in intimate contact in entirety. First a surrounding unit for the gas discharge panel is formed, then a process for sealing the surrounding unit with a sealing material inserted between two panels at the rim is performed while pressure is adjusted so that pressure inside the surrounding unit is lower than pressure outside. With this construction, the panels constituting the surrounding unit are bonded together while they are pressurized from outside. As a result, a panel and the top of the barrier ribs on the other panel are bonded together while they are in intimate contact in entirety. To fully acquire these effects, it is preferable that the adjustment of pressure starts before the sealing material hardens. During, before, or after the sealing step, an energy such as laser beams or ultrasonic waves may be radiated onto the top of the barrier ribs to bond a panel and the top of the barrier ribs in entirety almost without a gap between them.

A surface of the gas turbine blade is smoothed by way of a drag finish process. A first ring-shaped container is filled with a liquid abrasive medium. A second container which is arranged next to the first container is filled with a second liquid abrasive medium. A pivoting arm is arranged between and above the containers and can be pivoted along a pivoting direction. A drag device is arranged on the pivoting arm. The drag device leads a gas turbine blade on a carrier arm through the abrasive medium.

A main processor includes a notification control unit that receives a time setting and prevents the reception of a processing completion notification for a predetermined time. Upon instructing a sub processor to start processing, the main processor sets the predetermined time in the notification control unit when switching task processing so as to process a task with a different priority. As a result, the main processor can process the task with a different priority for at least the predetermined time, regardless of a processing time of the sub processor, thereby ensuring real-time ability while processing the task with a different priority.

A semiconductor device includes a silicon substrate having an active region, a memory transistor having a pair of source/drain regions and a gate electrode layer, a hard mask layer on the gate electrode layer having a plane pattern shape identical with that of the gate electrode layer, and plug conductive layers each electrically connected to each of the pair of source/drain regions. An extending direction of the active region is not perpendicular to that of the gate electrode layer, but is oblique. Upper surfaces of the hard mask layer and each of the plug conductive layers form substantially an identical plane. This can attain a semiconductor device allowing significant enlargement of a margin in a photolithographic process, suppression of an “aperture defect” as well as ensuring of a process tolerance of a “short” by decreasing a microloading effect, and decrease in a contact resistance, and a manufacturing method thereof.

The disclosure provides methods, apparatuses, and systems for downloading Docker images using a P2P distribution system. In one embodiment, a method comprises receiving, by a supernode from a client device, a download request for a layer of a container image file, the supernode selected from a supernode list comprising a plurality of supernodes; generating, by the supernode, slice information of each slice of the layer; and transmitting, by the supernode, the slice information and at least one target node to the client device, the transmitting of the slice information and the target node causing the client device to initiate a download of slices from the supernode to the at least one target node. By means of embodiments of the disclosure, the efficiency and stability of Docker image downloading can be improved.

Embodiments described include systems and methods for encoding and decoding data for a network application. A client application may include an embedded browser. The embedded browser may establish a session with a network application. The client application may identify a policy specifying a type of data to encode upon input. The embedded browser may detect the type of data of an input field of the network application being displayed in the embedded browser. The embedded browser may, responsive to the detection and the policy, encode the data inputted into the input field or decode encoded data displayed in the input field.

The invention discloses building wall automatic construction equipment. The building wall automatic construction equipment comprises a bearing table; a rotating table is arranged on the top of the bearing table; a steering motor is arranged on one side of the rotating table, and a control cabinet is arranged on the other side of the rotating table; a single chip microcomputer is arranged inside the control cabinet; lifting hydraulic cylinders and a winding mechanism are arranged on the top of the rotating table, and the winding mechanism is arranged between the lifting hydraulic cylinders; a top plate is arranged on the tops of the lifting hydraulic cylinders; a fixed straight rod is arranged on the top of the top plate; telescopic hydraulic cylinders are arranged on the side face of the fixed straight rod; connection transverse rods are arranged at the ends of the telescopic hydraulic cylinders; flattening rollers are arranged at the ends of the connection transverse rods; and a booster pump is arranged on the front side of the fixed straight rod. Compared with a traditional plastering process, a scaffold does not need to be erected, high-place operation of workers is not needed,safety is high, the plastering steps are simplified, the design cost is reduced, unnecessary manpower waste is avoided, the automation degree is high, and the plastering efficiency is improved effectively.

Disclosed is a thermo-shrinkable polyester film having superior thermal shrinkage properties. The thermo-shrinkable polyester film has a strength of 3.5˜6.5 kg/mm² in a direction perpendicular to a main shrinking direction at an initial elongation less than 10%, an elongation at rupture of 50˜700% in a direction perpendicular to a main shrinking direction, a thickness uniformity (ΔR) of 4 or less and a shrinkage ratio of 5% or less in a direction perpendicular to a main shrinking direction, thus preventing the rupture thereof in a rolling process and so on and ensuring process stability and productivity.

A client application installed on a client device may monitor communications flows between embedded browsers of the client application and one or more servers, including enterprise servers and non-enterprise servers, at upper layers of a network stack of the client device including the application layer, session layer, and presentation layer. Communications to different endpoints may be classified as enterprise or non-enterprise, measured, and aggregated to provide disambiguation of enterprise and non-enterprise communications of the device transiting a single communications link (e.g. cellular data connection). Server and network policies may be applied in accordance with the measurements with higher accuracy than policies based on total bandwidth utilized by the device without regard to its classification. These policies may include load balancing, communication pooling, multiplexing, buffering, pre-fetching or edge caching of data, instantiating or halting execution of virtual machines in a cloud environment, or other such functions.

Embodiments described include systems and methods for determining the compatibility of network applications with different browser engines. For example, SaaS and web application can be deployed using different web browsers and on different cloud service platforms. These different web browsers and different could service platforms can have different compatibility and security profiles when executing a web application. The compatibility issues can cause security challenges and can prevent the web application from being properly executed or rendered.

Method and system for scheduling tasks in a computing device in a manner that ensures substantially seamless processing of an active job while preventing starvation of background tasks. In one aspect, a method for scheduling tasks in a computing device comprises the steps of statically allocating processor time (P) to a background task class (S) and dynamically allocating processor time (p) to background tasks within the background task class (S) based at least in part on a current count (n) of the background tasks. The background task processor time (p) may equal the background task class processor time (P) divided by the current count (n). The method may further comprise, in each of successive processing periods, assigning a processor to each of the background tasks for their respective background task processor times (P_1-n) and assigning the processor to active job tasks when the processor is not assigned to any of the background tasks. The computing device may be a printing device.

Embodiments described include systems and methods for providing multilink connections in a wide area network (WAN). A client application including an embedded browser executed by a processor of a client device splits a plurality of packets generated by the embedded browser while accessing a network application executed by one or more servers into a first portion and a second portion based on application-layer information of the plurality of packets. The client application transmits the first and second portions of the first plurality of packets via first and second network paths of a multilink connection to a network device, respectively. The network device aggregates the first portion of the plurality of packets and the second portion of the plurality of packets into a single packet stream and forward the single packet stream via a single network connection to a server of the one or more servers.

Embodiments described include systems and methods for managing sessions to one or more network applications accessed via a client application including an embedded browser. The client application establishes sessions to one or more network applications. The client application identifies a session timeout policy for managing the sessions of the client application. The session timeout policy specifies a time period for which a session is determined to be inactive. The client application monitors activity in the embedded browser for each of the sessions. The client application detects that inactivity of a first session of the sessions has reached the time period of the session timeout policy. The client application detects the inactivity responsive to the monitoring. The client application terminates each of the sessions via the embedded browser responsive to the detection.