38results about How to "Reduce current load" patented technology

A method and apparatus for providing network based load balancing of medical image data among two or more image archive systems is disclosed. A network element is employed to interface to a network carrying medical image data that may include tasks to be performed on the data. A network service associated with the network element monitors the current load or the available capacity of each of the image archive systems. When a task is received the network service determines the level of complexity of the task and compares the level of complexity to the current load or available capacity of each of the image archive systems. The network service selects the one of the image archive systems to perform the task that has the lowest current load or highest available capacity relative to the level of complexity of the received task.

The invention provides a QLED, which comprises, in sequence, the first electrode, hole injection layer, hole transport layer, emitting layer, electron transport layer and the second electrode. The emitting layer comprises quantum dots luminescent materials and mixed transport materials. The mixed transport materials comprise hole transport material and electron transport material. The hole transport material and electron transport material form double continuous network structure in the emitting layer, with the quantum dots luminescent materials scattered in the double continuous network structure.

A method for automatically determining the amount of currently utilized bandwidth on infrastructure devices such as wireless access points in a wireless network is disclosed. The method begins by a mobile client device receiving load leveling information from infrastructure devices corresponding to media type access categories. Based upon the load leveling information, the amount of currently utilized bandwidth by media type access categories on the infrastructure devices is determined and an infrastructure device with bandwidth sufficient to support at least one of the media type access categories intended for use by the mobile client device is selected.

Disclosed is a precharge circuit of a semiconductor apparatus. The precharge circuit of a semiconductor memory apparatus includes a first precharge unit and a second precharge unit. The first precharge unit applies a first core voltage to a pair of local input/output lines, in response to a first precharge signal, to precharge the pair of local input/output lines. The second precharge unit applies a clamp voltage, which is generated using a first supply voltage, to the pair of local input/output lines, in response to the first precharge signal, to precharge the pair of local input/output lines.

The invention provides a floating type wind power generation platform. The floating type wind power generation platform comprises a floating type foundation and a fan unit. The floating foundation comprises three buoyancy units, three truss units and a fan base arranged on one or two of the buoyancy units. Each buoyancy unit comprises a stand column and a swash deep cabin fixed to the bottom of the stand column. Ballast tanks are arranged in the stand column and the swash deep tank; the section size of the top of the stand column is larger than that of the bottom of the stand column, and any first position and any second position located above the first position in the height direction of the stand column meet the conditions that the section size of the stand column at the second positionis larger than or equal to that of the first position; the swash deep cabin is used as a vertical damping structure; the section size of the swash deep cabin is larger than that of the stand column. The draught fan unit is installed on the draught fan base, and the height of the swash deep cabin of the buoyancy unit where the draught fan unit is located is larger than that of the swash deep cabinof the buoyancy unit where the draught fan unit is not arranged. The wind power generation device has good movement performance, and the power generation efficiency is improved.

System for operating an electric tractive unit. The invention relates to a system (1) for operating an electric tractive unit (10), having a contact line system (20) which is arranged along a route (2) of the tractive unit (10). In this context, a current collector (11) of the tractive unit (10) for transmitting energy can be placed in sliding contact with a contact line (23) of the contact line system (20). In addition, the contact line (23) is divided by a section insulator (24), along which the current collector (11) can travel with sliding contact, into contact line sections (23a, 23b) which are supplied with electricity separately from one another. According to the invention, a detection device (30) is designed to detect when travel over the section insulator (24) by tractive unit (10) is imminent. Said detection device (30) interacts with a drive controller (13) for an electric drive (12) of the tractive unit (10) in such a way that transmission of energy via the current collector (11) while the section insulator (24) is being travelled over is automatically reduced or switched off. As a result, the wear on section insulators (24) can be reduced.

The invention relates to a high-efficiency DC-DC converter which comprises a first full bridge, a second full bridge and a third full bridge, wherein the first full bridge, the second full bridge and the third full bridge are identical in structure. Bridge arms of the full bridges are all connected with an input power supply in parallel, and the difference between the phase position of the first full bridge, the phase position of the second full bridge and the phase position of the third full bridge is 120 degrees. An on-bridge tube of the advancing bridge arm is driven first, and an under-bridge tube of the advancing bridge arm is driven half a period later than the on-bridge tube. An on-bridge tube of the lagging bridge arm is driven X periods of time later than the on-bridge tube of the advancing bridge arm. Due to the fact that in the five states for energy transmission at each order, at least one phase and at most two phases of the first full bridge, the second full bridge and the third full bridge work, in the whole process, currents are shared by the full bridges which work simultaneously, the current load of each full bridge is reduced, as a result, circuit loss is lowered effectively, the current limiting problem generated during power amplification through a traditional full bridge is solved, and the current resisting requirement of a device is also lowered. Due to the fact that the soft switching state is realized in a part of period, switching tube loss caused by the hard switching state of a switching tube is lowered, and the conversion efficiency of the DC-DC converter is improved.

The invention relates to a method for producing a part (1) of a motor with a coil (9) comprising following steps: winding one or more wires (10) to a coil (9), whereby the wire is a baked lacquer wire with an electrically conducting core, an insulating coating and an external baked coating; pressing the wound coil with a pressing tool (8) and baking the pressed coil (9) to fix the geometric shape of the coil.

The invention relates to a lossy triphase low-pass filter having a filter choke, a filter capacitor, and an attenuation element per phase of said the low-pass filter, wherein one filter capacitor and one attenuation element each are electrically connected in series. Two diodes are provided as attenuation elements, which are electrically connected to each other in an anti-parallel manner. In this manner a lossy triphase low-pass filter is obtained, the power loss of which is significantly reduced without any loss of the attenuation effect.

The invention provides a whole equipment cabinet server and a power supply method. The whole equipment cabinet server comprises a cabinet body, at least one first server node, at least one second server node and at least one third server node, wherein the first server nodes are installed on the left side of a front window region of the cabinet body, the second server nodes are installed in the middle of the front window region of the cabinet body, and the third server nodes are installed on the right side of the front window region of the cabinet body. The whole equipment cabinet server further comprises a first power bus bar, a second power bus bar, a third power bus bar and a power module. The first power bus bar is installed on the left side of a rear window region of the cabinet body, the second power bus bar is installed in the middle of the rear window region of the cabinet body, and the third power bus bar is installed on the right side of the rear window region of the cabinet body. Each first server node is connected with the first power bus bar, each second server node is connected with the second power bus bar, and each third server node is connected with the third power bus bar. The power module is connected with the first power bus bar, the second power bus bar and the third power bus bar. Through the technical scheme, electric resources can be saved.

A charge pump system and memory, the charge pump system comprising: a charge pump unit; a clock drive device connected to the charge pump unit, the clock drive device has: a first clock drive unit controlled by a first power supply voltage , enhance the obtained current of the first type clock signal and output it to the charge pump unit; the second clock driving unit controlled by the second power supply voltage enhances the obtained current of the second type clock signal and output it to the said charge pump unit A charge pump unit; a power supply voltage stabilizing unit, configured to adjust the second power supply voltage to obtain the first power supply voltage. Compared with the prior art, the present invention improves charging efficiency and transmission efficiency by setting the first clock driving unit and the second clock driving unit separately and providing different power supply voltages respectively.

The invention discloses a switching apparatus for carrying and disconnecting electric currents, comprising a first mechanical contact arrangement (10), a second mechanical contact arrangement (30) which is connected in series with the first mechanical contact arrangement, a semiconductor switch (20) which is connected in parallel with the first mechanical contact arrangement, and a switching electronics system (50) which is designed to switch on and switch off the semiconductor switch (20), wherein the switching apparatus is designed in such a way that, during a switching process, the two mechanical contact arrangements (10, 30) are closed with a time delay in relation to one another. The invention further provides a control circuit (90) which is designed to ascertain a voltage across thefirst mechanical contact arrangement (10) and to generate an actuation signal for the switching electronics system (50), which actuation signal switches on the semiconductor switch (20), depending onthe ascertained voltage.

The present invention is an electron gun of a monochromatic cathode ray tube with improved structure at least provided with more than two electron current emitting sources (such as: cathode), so that the electron beams produced by each of the electron current emitting sources have a finer The cross-sectional area of ​​the electron beam (Beam Spot Size), and can be projected to the same focus position on the screen of the monochrome cathode ray tube under the convergence of the focusing lens or the common lens of the electron gun, resulting in better resolution and focusing quality , in this way, it can not only effectively improve the problem that the cross-sectional area of ​​the electron beam caused by the mutual repulsion of the electrons in the electron beam is not easy to shrink when the traditional electron gun applies a large current to the single electron current emission source, but also can greatly improve the monochromatic cathode ray. Tube screen brightness for better visual quality.

The invention relates to a load optimization method of an ion membrane electrolyzer, and belongs to the technical field of electrolyzers. The load optimization method is characterized in that the adjusting step is as follows: according to the average load operation situation of each electrolyzer, electrolyzers are divided into high, middle-high, middle, middle-low and low fives grade, under the premise of ensuring the same total current, according to the divided fives grade of the electrolyzers in step 2), partial current of each electrolyzer is adjusted, the partial current of a high grade electrolyzer is reduced to 10% to 30%, the partial current of a middle-high electrolyzer is reduced to 5% to 10%, the partial current of a middle electrolyzer is not changed, the partial current of a middle-low electrolyzer is increased by 5%-10%, and the partial current of a low electrolyzer is increased by 10% to 20%. Through the load optimization method for load optimization of the electrolyzers, low DC power consumption and low acid consumption of the electrolytic device can be achieved, and the operating life of an ionic membrane can be prolonged.