Abstract: The present invention relates to a data transmission device, a data transmission method, and a display device using the data transmission device. The data transmission device comprises a multichannel V-By-One interface module, which comprises a receiving end, a transmitting end, and a buffer module arranged between the receiving end and the transmitting end. The receiving end transmits a plurality of control signals for a plurality of channels to the buffer module. The buffer module transmits one low-level control signal to the transmitting end when all the received control signals are at a low level. After receiving the one low-level control signal, the transmitting end simultaneously transmits output data corresponding to the respective channels, realizing time synchronization of all the output data, thus avoiding abnormal display of images, enhancing display quality of the images, and finally achieving the effect of optimizing and improving user experience.

Abstract: A testing system includes a circuit board, and an inserting unit. The circuit board includes a first serial interface and a serial chip connected to the first serial interface. The first serial interface connects a second serial interface of a motherboard to receive a first signal of the second serial interface. The inserting unit includes a first plug connected to a pin Transmit Data of the first serial interface. The first plug connects a testing device. When the first signal is transmitted to the first serial interface by the second serial interface, the serial chip receives the first signal and sends the first signal back to the first serial interface. The first plug sends a second signal of the pin Transmit Data to the testing device to be tested.

Abstract: A simulation card is configured to insert into an insertion slot, and the insertion slot is connected to a main chip via an Inter-Integrated Circuit (I2C) bus. The simulation card includes a slave chip, a connecting unit, an address setting unit. The connecting unit is connected to the slave chip and the insertion slot. The address setting unit is coupled to the slave chip and configured to match an address of the slave chip with an address of the insertion slot. The slave chip is configured to be in communication with the main chip, to get signal transmission data of the I2C.

Abstract: Certain embodiments of the present invention provide systems and methods for detecting septal defects. In an embodiment, the method may include acquiring gated MRI data and heart atlas data. A registration of the gated MRI data and the heart atlas data may be performed as well as a flow-balance measurement. An atrial septal detection and ventricular septal detection may be performed, as well as a septal measurement. A diagnostic report may be generated detailing the location and properties of the septal defects. A physician may utilize the diagnostic report for surgery planning. After surgery, the diagnostic report may be compared with a post-surgery diagnostic report to determine the success of the surgery.

Abstract: Embodiments of the present disclosure provide a liquid crystal display driving circuit, a driving method thereof and a liquid crystal display, and relate to a field of display technique. The liquid crystal display driving circuit comprises a timing control circuit and at least two source driving circuits, and further comprises a polarity inversion circuit; the timing control circuit is configured to transmit a polarity inversion signal to the polarity inversion circuit; the polarity inversion circuit is configured to convert the polarity inversion signal into a first polarity inversion signal and a second polarity inversion signal which are output to the at least two source driving circuits, respectively, so that voltages of source signals driven by the at least two source driving circuits have opposite polarities with each other; wherein a phase of the first polarity inversion signal is different from that of the second polarity inversion signal.

Abstract: Certain embodiments of the present invention provide methods and systems for triple region image segmentation. Certain embodiments provide a method for triple region image segmentation on a picture archiving and communication system. The method includes forming an initial contour for an image including three regions using principal component analysis and a support vector machine. The method also includes segmenting the image into three regions using a single level set function based on the initial contour. Certain embodiments provide an image processing system facilitating triple region segmentation of an image. The system includes a pattern classifier including a support vector machine, the pattern classifier forming an initial contour for an image including three regions using principal component analysis and the support vector machine. The system also includes a triple region segmenter segmenting the image into three regions using a single level set function based on the initial contour.

Abstract: Certain embodiments of the present invention provide for a system and method for performing medical image registration. Pixel and voxel correspondences are formulated as energy minimization problems and are optimized with graph cuts. The method includes processing a first set of data and a second set of data using a graph cuts algorithm to determine a minimum value of an energy function. The energy function has a data term and a smoothness term. The method also includes performing registration for the first set of data and the second set of data based on the data term and the smoothness term of the energy function. The system includes a computer system for performing medical image registration. The computer system comprises a processor and a memory in communication with the processor. The memory includes program code executable by the processor for executing a medical image registration algorithm.

Abstract: A heat dissipation apparatus includes a heat absorbing base, a heat conductive core, two fin assemblies and two heat pipes. The heat conductive core is attached to the heat absorbing base, and includes an elliptical, cylindrical body having an elliptical, cylindrical side surface. The two fin assemblies are located at two opposite sides of a major axis of the heat conductive core, respectively, and attached to the side surface of the heat conductive core. The two heat pipes connect the two fin assemblies with the heat absorbing base, respectively, transferring heat from the heat absorbing base to the fin assemblies.

Abstract: A heat dissipation device includes a fan (10) and a fin assembly (20). The fan has an air inlet and an air outlet mating with the air inlet. The fan is mounted on the fin assembly. The fin assembly has a plurality of fins (221) arranged one by one and a plurality of channels (222) formed between adjacent fins. Each fin has a main body (2210), a first flange (2211a) and a second flange (2213a). The first flange and the second flange are slantwise extended from an edge portion of the main body towards the air outlet of the fan. The first flange and the second flange are inclined with respect to the main body, and an airflow produced by the fan is guided into the channels of the fins by the first flange and the second flange of the each fin.

Abstract: A recycling system for hydroxylamine formation and oximation is proposed. The recycling system includes a hydroxylamine formation zone, an oximation zone, a purification zone, and an adjusting zone having a nitrate absorption tower. An inorganic process solution, used by the recycling system, partially enters the nitrate absorption tower supplementing nitrate, followed by mixing with the residual inorganic process solution, thereby reducing the loss rate of hydroxylamine in the inorganic process solution due to degradation. In addition, the organic impurities with high boiling point in the inorganic process solution can be effectively removed in the purification zone. As a result, the reduced activity or selectivity of the catalyst for hydroxylamine formation, caused by the toxic effects of these organic impurities on the catalyst, can be avoided, and hence, a high concentration of hydroxylamine can be obtained.

Abstract: A clip (50) for securing a heat dissipating device to a heat source comprises a spring arm (510) and an ear (530). The spring arm comprises two wires (512) substantially parallel to each other, a hook (514) formed at one end of the spring arm to connect ends of the wires and two barbs (516) each formed at another end of each of the wires. A central portion of each of the wires projects downwardly. The ear comprises a main body (530a), two notches (532) in an upside of the main body and a clamping unit (537) at a downside of the main body. Each of the notches comprises from above to below an insertion slot (5321), an elongated sliding slot (5323) and a retaining slot (5325). The spring arm engages with the ear with the barbs extending into the insertion slots, and the wires are slideable downwardly along the sliding slots to be fixed in the retaining slots.

Abstract: A heat dissipation apparatus includes a heat absorbing base, a heat conductive core, two fin assemblies and two heat pipes. The heat conductive core is attached to the heat absorbing base, and includes an elliptical, cylindrical body having an elliptical, cylindrical side surface. The two fin assemblies are located at two opposite sides of a major axis of the heat conductive core, respectively, and attached to the side surface of the heat conductive core. The two heat pipes connect the two fin assemblies with the heat absorbing base, respectively, transferring heat from the heat absorbing base to the fin assemblies.

Abstract: A system for purifying an aqueous solution of crude caprolactam is provided, which includes a filtration zone (A), an inspection unit (B), a purification zone (C), and a first temporary storage tank (D). The filtration zone (A) contains a filtration apparatus though which an aqueous solution of crude caprolactam is filtered to remove ionic impurities therein, so as to obtain caprolactam-containing filtrate; the inspection unit (B) is used for judging the filtrate from the filtration zone (A) meets the preset inspection standards; the purification zone (C) is used for concentrating and further purifying filtrate meeting the preset inspection standards, thereby forming a final caprolactam product; and the first temporary storage tank (D) is used for receiving the filtrate not meeting the preset inspection standards, which is then mixed with the aqueous solution of crude caprolactam and delivered back to the filtration zone (A).

Abstract: Provided is a process of producing cyclohexanone oxime comprising the steps of: pre-mixing an inorganic process solution containing a high concentration of hydroxylamine phosphate with a first stream of cyclohexanone such that the concentration of hydroxylamine phosphate is reduced to 80% or less of its initial concentration; and subjecting hydroxylamine phosphate in the premixed inorganic process solution to an oximation reaction with a second stream of cyclohexanone. According to the process, oximation is performed after the inorganic process solution containing a high concentration of hydroxylamine phosphate has been pre-mixed with the first stream of cyclohexanone to reduce the concentration of hydroxylamine phosphate. As a result, not only that the efficiency of oximation and the yield of cyclohexanone oxime are increased, but also the organic content of the inorganic process solution discharged from the oximation tower is reduced.

Abstract: A heat dissipation device includes a heat sink and a fan. The heat sink includes a first fin assembly and two second fin assemblies located on two opposite sides of the first fin assembly respectively. The first fin assembly includes a plurality of parallel first fins arranged side by side. A first airflow channel is formed between each two neighboring first fins and communicates with a top side of the heat sink. Each of the second fin assemblies includes a plurality of parallel second fins. A second airflow channel is formed between each two neighboring second fins and communicates with the top side of the heat sink. The first fins are perpendicular to the second fins with the first airflow channels and the second airflow channels communicating with four sides of the heat sink, respectively.

Abstract: A heat dissipating apparatus includes a heat spreader (20) for thermally connecting with a heat generating electronic component, a heat sink (10) thermally connected with the heat spreader, and a heat pipe (30) thermally connecting the heat sink with the heat spreader for transferring heat from the heat spreader to the heat sink. The heat pipe includes an evaporation section (31) attached to the heat spreader, two semicircular condensation sections (33, 34) thermally engaging with the heat sink, and two connecting sections (35, 36) each interconnecting a corresponding condensation section and the evaporation section.

Abstract: A heat dissipation device includes a heat sink and a heat pipe. The heat sink includes a first fin assembly and two second fin assemblies located on two opposite sides of the first fin assembly respectively. The heat pipe includes an evaporator section, a first condenser section and a second condenser section extending from two opposite ends of the evaporator section in the same directions, and a third condenser section extending from a free end of the second condenser section towards a free end of the first condenser section. The third condenser section extends through the first fin assembly. The first condenser section interconnects one of the second fin assemblies to the first fin assembly. The second condenser section interconnects the other second fin assembly to the first fin assembly.

Abstract: A heat dissipation device includes a heat pipe and a heat sink. The heat pipe includes an evaporator section and a rectangular condenser section extending from one end of the evaporator section and surrounding the evaporator section. The heat sink includes a main body and a plurality of fins extending outwardly from four lateral sides of the main body. The main body defines a groove on an end surface thereof for receiving the evaporator section therein. Each of the fins includes a plate-shaped body and a flange extending perpendicularly from an end of the plate-shaped body. The top flanges cooperatively form a rectangular supporting surface for supporting the condenser section thereon. The supporting surface is lower than the end surface of the main body.

Abstract: This invention provides a method for removing organic contaminants from an inorganic processing solution, comprising the step of: introducing the inorganic processing solution comprising organic contaminants into steam stripping treatment; heating the inorganic processing solution; reintroducing the inorganic processing solution into the steam stripping treatment; and removing the organic contaminants from the inorganic processing solution, thereby the inorganic processing solution comprises a total carbon content not more than 300 ppm, based on the total amount of the inorganic processing solution; wherein the step of heating is performed by heat exchange between the inorganic processing solution and desuperheated steam.

Abstract: A method of making a heat sink (10) includes the following steps: providing a base (11) and a plurality of individual fins (13), and welding the fins successively to the base by ultrasonic welding method.