33 results about "Substrate network" patented technology

A semiconductor device analyzer has a substrate model reading module, a Y-matrix entry module, a discriminating module, a matrix reduction module, and an output format discriminating module. The substrate model reading module reads a substrate network model of three-dimensional meshes representing the substrate of a semiconductor device. The substrate network model is a network of resistive and capacitive elements and is used for the simulation and analysis of the semiconductor substrate. The Y-matrix entry module prepares a Y-matrix from the substrate network model, each element of the Y-matrix being expressed with a polynomial of differential operator "s". The discriminating module discriminates internal nodes to be eliminated from external nodes to be left among the nodes of the substrate network model. The matrix reduction module eliminates the internal nodes, thereby reducing the Y-matrix. The output format determining module determines an output format for an operation result.

Embodiments encompasses 6^th and 5^th generation broad network and communications technology, including next generation “G⁵, G⁶, Gⁿ and N^∞.” The G⁵, G⁶, Gⁿ and N^∞ comprises BETTER network disposed with metamaterial substrate, plasmonic substrate, fluorescent substrate, and photonic substrate for optical network and data center applications. The network configured with multiple antennas on chip for communications, energy harvesting, and interactive user interface applications. The chip configured to boost signal receptions and to provide faster data transmission speed. Embodiments encompass three communication modes—the Cell phone, wireless network applications, and Global communication and media information. Embodiments provide communication apparatus to enhance mobile communication efficiency. The network disposed with charging circuit board configured with memories, processors, sensors, and modules. Embodiments further provide the communication apparatus comprising gaming device, wireless media configured with sensors embedded in silicon substrate and fused in nano-fiber/microfiber material having excellent electrical characteristics for voice enabled and texting applications.

The invention provides an automatic batch refreshing method for general mainboard bios, which utilizes the guiding function of a client network card pxe to transmit an image file and a refreshing procedure of the client mainboard bios while transmitting guide modules of a substrate network by a pxe server, and then the goal of automatically refreshing bios after client machine network guidance by specially written DOS automatic batch processing program is achieved. Compared with the prior art, the automatic batch refreshing method has the advantages that batch refreshing can be realized as long as the client machine has a network card (independent or integrated) with the pxe function.

The invention relates to an MOS (Metal Oxide Semiconductor) transistor radio frequency macro model establishing method which comprises the steps of: establishing an MOS transistor, a grid electrode node, a source electrode node, a drain electrode node and a substrate node, connecting a grid electrode to the grid electrode node by a grid resistor, connecting a source electrode to the source electrode node by a source resistor, and connecting a drain electrode to the drain electrode node through a drain resistor; establishing a source electrode junction capacitor, a drain electrode junction capacitor, a first substrate resistor, a second substrate resistor, a substrate bulk resistor and a substrate well resistor; and connecting the first substrate resistor, the second substrate resistor, the substrate bulk resistor and the substrate well resistor together by resistor network nodes. A simulation macro model obtained by the method of the invention has a four-resistor substrate network of a T-shaped structure; and by using the resistor substrate network, the utilization frequency of the MOS transistor radio frequency macro model can be ensured to be above 20 GHz, thereby greatly expanding the application frequency range of CMOS (Complementary Metal Oxide Semiconductor) radio frequency integrated circuit EDA (Electronic Design Automation) design.

The invention discloses a parameter calculation method for RFCMOS models of expansibility. The model adds a sub circuit based on the MOS field transistor of BSIM3V3 model, wherein the sub circuit comprises a parasitic resistance of grid electrode, a parasitic resistance of source electrode, a parasitic resistance of drain electrode and a substrate network. The substrate network comprises a parasitic diode between the source electrode and the substrate, a parasitic diode between the drain electrode and the substrate, a coupling resistance between the source electrode and the substrate, a coupling resistance between the drain electrode and the substrate, and a coupling resistance of the substrate. The parasitic resistance of the grid electrode and the components forming the substrate network are calculated from variable parameters which at least comprise one of transistor channel length, channel width and the number of parallel grid electrodes. The parameter calculation method improves model precision, effectively realizes model expansibility and effectively reduces the design cost of radio frequency circuits.

Techniques are described for managing communications between multiple computing nodes, such as computing nodes that are separated by one or more physical networks. In some situations, the techniques may be used to provide a virtual network between multiple computing nodes that are separated by one or more intermediate physical networks, such as from the edge of the one or more intermediate physical networks by modifying communications that enter and/or leave the intermediate physical networks. In some situations, the computing nodes may include virtual machine nodes hosted on one or more physical computing machines or systems, such as by or on behalf of one or more users (e.g., users of a program execution service). The managing of the communications may include using substrate network addresses that are configured to embed virtual network addresses for a virtual network that is overlaid on the underlying physical substrate network.

Compound amur cork-tree temperature-sensitive gel for treating sore and ulcer and traumatic infection and a preparing method thereof are provided. The temperature-sensitive gel comprises 5-15% by weight of a compound amur cork-tree extract liquid, 18-20% by weight of poloxamer 407, 1.5-2.5% by weight of poloxamer 188, 5-10% by weight of propylene glycol, 5-10% by weight of glycerol, 0.5-1% by weight of ethyl p-hydroxybenzoate and 41.5-65% by weight of distilled water. A problem that gel structures are irreversibly destroyed because traditional Chinese medicine extracts at present are complex in components and react with base auxiliary materials, or because traditional Chinese medicine extract liquids are hypertonic systems and cause exosmosis of water in gel substrate network structures is overcome. A gel substrate adopted can be primarily determined according to physical and chemical properties and dosage forms of effective components.

The invention discloses an optimal task scheduling method and system based on a pseudo-tree structure in a data center network, wherein the mapping cost is the target; a constraint optimization problem model COP is established according to a workload request WK and a substrate network SN; a pseudo-tree is established for a virtual node in the workload request WK; starting from a leaf node of the pseudo-tree, a parent node is reported to step by step and an optimal partial solution set is generated until a root node of the pseudo-tree generates a final optimal partial solution set; starting from the root node of the pseudo-tree, a solution message is transmitted to the child node step by step; and each node confirms the value according to the solution message. The optimal task scheduling method and system based on a pseudo-tree structure in the data center network in the invention can realize applications such as virtual network mapping in a moderately sized environment and resource allocation under a data center network, thereby realizing efficient and even optimal task resource scheduling.

The invention discloses a radio frequency complementary metal oxide semiconductor (RFCMOS) RF correlation noise model; a noise source circuit is additionally arranged based on a metal oxide semiconductor (MOS) transistor circuit in a berkeley short-channel Igfet model (BSIM); and the noise source circuit comprises a grid induction noise current source, a grid leakage current shot-noise current source, a grid parasitic resistor thermal noise voltage source, a source electrode parasitic resistor thermal noise voltage source, a drain electrode parasitic resistor thermal noise voltage source, a channel thermal noise current source, a source electrode substrate parasitic diode shot-noise current source, a drain electrode substrate parasitic diode shot-noise current source and a substrate network parasitic resistor thermal noise voltage source. The RFCMOS RF correlation noise model comprises the grid induction noise and the correlation between the grid induction noise and channel noise, thus better conforming to the physics and improving the simulation degree of RF noise.

A self-contained service function network layer between a chain (e.g., a logical chain or service function chain) and a substrate network is described. And techniques are provided for constructing logical chains for service function networks using chain tables, organizing chain tables using APIs, deploying service function networks to substrate networks, routing packets through a service function network and a substrate network, and inserting, deleting, re-routing, moving and substituting service functions in logical chains.

The invention belongs to the technical field of wireless communication, specifically a decision method for a mapping policy in a virtual network. The method comprises the steps of establishing a Markov decision process optimization model according to mapping resources; solving a centralized optimum mapping policy through adoption of a Markov decision process; defining various virtual network requesters as buyers and defining substrate networks as sellers, and establishing a Stackelberg buying and selling model; solving a current equilibrium solution of a Stackelberg game and taking the currentequilibrium solution as the optimum resource capacity and the optimum selling price in a current phase; predicting a future equilibrium solution, and taking the future equilibrium solution as the optimum resource capacity and the optimum selling price in a future phase; and evaluating a mapping relationship between the buyers and the sellers according to the current equilibrium solution and the future equilibrium solution, thereby determining a distributed optimum mapping policy. According to the method, the load balance of the substrate networks is effectively improved, and the network performance is optimized.

For allowing an efficient consumption of resources of a physical substrate network a method for operating at least one virtual network on a substrate network is claimed, especially within a framework of a self-organizing model for optimizing resource consumption of the substrate network, wherein the virtual networks are including a plurality of virtual nodes each being assigned to respective substrate nodes of the substrate network and wherein two adjacent virtual nodes of the same virtual network are connected by a virtual link which is corresponding to one or more respective substrate node links, including the following steps: Identifying a traffic pattern within at least two substrate nodes with regard to the resources individually consumed by the virtual networks; reallocating of the resources depending on an evaluation of the identified traffic patterns for optimizing resource consumption within the substrate nodes, wherein the identifying step and the evaluation and decision to execute the reallocation of resources is performed locally at each individual substrate node. Further, an according virtual network environment on a substrate network is claimed, preferably for carrying out the above mentioned method.

The invention discloses a distributed loop-opening automatic control system utilizing electronic communication equipment. The system comprises the electronic communication equipment, a message receiving and dispatching module, a message identification and transmission module, a main control module connected with a substrate network and a storage module for storing a control program sequence, wherein the electronic communication equipment sends a control instruction to the message receiving and dispatching module; the message receiving and dispatching module receives the control instruction and sends the control instruction to the message identification and transmission module; the message identification and transmission module receives the control instruction, identifies the control instruction, and sends the identified control instruction to the main control module; and the main control module receives the identified control instruction, extracts the control program sequence matched with the control instruction from the storage module according to the identified control instruction, and controls the operation of a controlled element according to the control program sequence. The invention also discloses a distributed loop-opening automatic control method utilizing the electronic communication equipment. The system and the method can be widely applied to different industrial control fields and have precise control and good working stability.

The invention provides an LED color screen substrate electric performance test method. The LED color screen substrate network is split and the electric performance of different networks is tested in batches so that the objective that different test area data are combined to judge the electric performance of the test product. Compared with the methods in the prior art, the beneficial effects are that the difficulties of insufficient equipment test capacity and insufficient arrangement space for the test mould manufacturing columns of the electric performance test of the LED color screen substrate manufacturers can be solved so that the method is suitable for high density lamp PAD and the product of hundreds of thousands of test points, high equipment purchasing fund can be saved for the LEDcolor screen substrate manufacturers and the present equipment resources and technical methods can be reasonably utilized.

The invention discloses a three-dimensional-structured sulfur-copper compound/carbon fiber composite material and a preparation method and an application thereof. The composite material comprises a conductive substrate network mainly formed by carbon fibers, and sulfur-copper compound nanosheets for coating the surfaces of the carbon fibers. The preparation method comprises the steps of dissolvinga copper source and a carbon source into an organic solvent to form a uniform spinning solution; performing processing on the spinning solution by an electrostatic spinning method to obtain a spinning material; performing pre-oxidization and carbonization treatment on the spinning material in sequence to obtain a three-dimensional composite material precursor; and performing a mixed reaction on the precursor and a sulfur source solution to obtain the composite material. The three-dimensional-structured sulfur-copper compound/carbon fiber composite material disclosed in the invention has the advantages of large specific surface area, high active material loading amount, excellent conductivity and the like, and can be used for establishing a supercapacitor with high capacity; and in addition, the preparation process is simple and easy to control, the production efficiency is high, the cost is low, and large-scale implementation can be facilitated.

Provided are polymer compositions made by a process comprising: (a) providing a first reactive composition containing: (i) a polymerization initiator that is capable, upon a first activation, of forming two or more free radical groups, at least one of which is further activatable by subsequent activation; (ii) one or more ethylenically unsaturated compounds; and (iii) a crosslinker; (b) subjecting the first reactive composition to a first activation step such that the first reactive composition polymerizes therein to form a crosslinked substrate network containing a covalently bound activatable free radical initiator; (c) contacting the crosslinked substrate network with a grafting composition containing one or more ethylenically unsaturated compounds, wherein the contacting is conducted under conditions such that the grafting composition penetrates into the crosslinked substrate network; and (d) activating the covalently bound activatable free radical initiator at one or more selective regions of the crosslinked substrate network such that the grafting composition polymerizes with the crosslinked substrate network at the selective regions.

The invention provides a high-strength composite material used for special cables and a preparation method thereof. In the invention, high-performance engineering-use polyether ether ketone, polyethylene and polyimide are employed as basic polymer materials. Hyperbranched polyurethane is used for modifying molybdenum trioxide and magnesium oxide filling materials and an ethylene-vinyl acetate copolymer is used for modifying silicon nitride and zirconium oxide crystal whiskers, thereby improving binding force between inorganic filling materials and organic substrates. Meanwhile, the hyperbranched polymer penetrates the organic substrate network, thereby improving total strength. The composite material ensures high-temperature resistance, fire-proofing performance and the like and reduces defect generation rate between organic and inorganic interfaces. Compared with special cable materials with non-modified filling materials, the composite material improves strength by more than 33%, thereby effectively improving the durability and reliability of the special cables in use.

Systems and methods for highly-available host networking with active-active or active-backup traffic load-balancing are disclosed herein. The method can include selecting a compute instance from an overlay network residing on a substrate network, identifying a plurality of Network Virtualization Devices (“NVD”) for association with the compute instance, creating a loopback interface on each of the NVDs, each of which loopback interfaces can include a shared IP address that can be in the substrate layer, prepopulating a table in each of the NVDs, the table linking the shared IP address to the compute instance, and each of the plurality of NVDs advertising a unique route to the compute instance via the shared IP address.

The invention discloses a service combination reconstruction method under a dynamic network environment. According to the invention, at a phase of execution of service combination, a family of cost functions is combined and real-time tracking is carried out on a suboptimal path by a client node by a low-flow pseudo service flow mode; and on the basis that a reason of a service failure is determined by a detection method during interruption of a service, a crosslevel decision algorithm decides to execute route restoration at a substrate network or/ and execute service replacement in a service network. The concrete process is as follows: a reason on service combination interruption is detected and identified at full speed; a link interruption module is detected by an IEEE802.11ACK frame module at a mechanism substrate, a route interruption module is detected by a handshake mechanism module at a route layer and a service interruption module is detected by a node time efficient module at a service layer; service combination reconstruction is divided into two levels; on the condition that the service combination is failed, a cross level service combination reconstruction module decides to execute route restoration at a substrate network or/ and to execute service replacement in a service network.