117results about How to "Reduce relative shift" patented technology

A transfer fixing apparatus including an intermediate transfer member having an outer surface onto which a toner image is transferred, a transfer fixing member having an outer surface onto which the toner image is transferred by the intermediate transfer member, a heating member configured to heat the toner image on the outer surface of the transfer fixing member, and an opposite member formed opposite the transfer fixing member. A nip is formed between the transfer fixing member and the opposite member, the toner image being fixed onto the recording medium while passing through the nip. The transfer member is separated by a space from the intermediate transfer member by a thickness of the toner image.

For an image forming apparatus, a transfer fixing apparatus and a transfer fixing method fix a toner image onto a record medium. The fixing apparatus and the image forming apparatus have a structure to reduce adverse heat influences impacting on an intermediate transfer member, and can further reduce vibrations generated to the intermediate transfer member and to a recording medium onto which a visualized image is transferred from the intermediate transfer member. Further, a heating value and a heat distribution in the fixing apparatus can be controlled to be optimized.

A linear vibration motor includes a base including an accommodation space; a vibration unit; and a first elastic unit suspending the vibration unit in the accommodation space. The first elastic unit includes two elastic pieces located on two opposite sides of the vibration unit, each the elastic piece having a main elastic arm, a first auxiliary elastic arm and a second auxiliary elastic arm extending reversely in a bending way respectively from an end of the first auxiliary elastic arm and an end of the second auxiliary elastic arm. The main elastic arm is perpendicular to the vibration direction, the first auxiliary elastic arm and the second auxiliary elastic arm are respectively located on the two opposite sides of the main elastic arm, the first fixed arm is fixed to the vibration unit, and the second fixed arm is fixed to the base.

In an active matrix display device, electric characteristics of thin film transistors included in a circuit are important, and performance of the display device depends on the electric characteristics. Thus, by using an oxide semiconductor film including In, Ga, and Zn for an inverted staggered thin film transistor, variation in electric characteristics of the thin film transistor can be reduced. Three layers of a gate insulating film, an oxide semiconductor layer and a channel protective layer are successively formed by a sputtering method without being exposed to air. Further, in the oxide semiconductor layer, the thickness of a region overlapping with the channel protective film is larger than that of a region in contact with a conductive film.

Conductor layers 2A and insulating layers 4A are alternately stacked so as to prepare a base material 17. A plurality of grooves 18 having a predetermined width are formed in a surface of the base material 17 in such a manner that these plural grooves 18 are located parallel to each other along a stacking layer direction in order to form a coil inner peripheral portion. Embedding materials 5 are filled into the grooves 18. Surfaces 16 of the base material into which the embedding materials 5 have been filled are flattened by polishing. The conductor layers 2A located adjacent to each other are connected to each other, so that helical coils which constitute inductive elements are constructed. Then, both the front plane and the rear plane of the resultant base material are covered by an insulating layer, which is cut so as to obtain respective chips.

A conductor connection terminal (1) comprising an insulating housing (2) and comprising at least one spring-force clamping connection (5) in the insulating housing (2) for making the terminal connection of an electrical conductor is described. The spring-force clamping connection (5) has a base plate (6) and at least one spring tongue (7), which is at an angle to the base plate (6), is connected in a root region (8) to the base plate (6) and extends with its tongue end (9), which is movable in spring-elastic fashion, in a conductor plug-in direction (L). The free tongue end (9) is spaced apart from the base plate (6) by a gap (15). The insulating housing (2) has at least one actuating pushbutton (4), which interacts with the tongue end (9) opposite the base plate (6) and has an actuating section (14), which extends in the direction towards the base plate (6), for deflecting the spring tongue (7) transversely to the direction of extent of the spring tongue (7). The actuating pushbutton (4) has at least one resting section (20), which is designed in each case at an associated tongue end (9) to rest on a lateral peripheral edge (19) of the associated tongue end (9) and to shift the tongue end (9) in the direction of the base plate (6) whilst reducing the width of the gap (15) when the actuating pushbutton (4) is shifted in the direction of the base plate (6) so as to open a clamping connection formed by the spring tongue (7) for an electrical conductor of which a terminal connection is intended to be made.

A magnetic random access memory (MRAM), and a method of manufacturing the same, includes a cell including a transistor and a magnetic tunneling junction (MTJ) layer connected to the transistor, wherein the MTJ layer includes a lower electrode, a lower magnetic film, a tunneling film having a uniform thickness and a substantially flat upper surface, and an upper magnetic film, wherein the lower electrode includes a first lower electrode and an amorphous second lower electrode. An amorphous flattening film may be further formed between the lower electrode and the lower magnetic film.

A signal Data1 and Data2 are output from a DQPSK signal source. The output signal is input to the modulator drivers 1 and 2 of the differential output. A drive signal is applied from the drivers 1 and 2 to a modulator, and modulated light is output. An optical coupler 20 branches modulator output, and a power monitor 21 detects the power of the branched light. A detection result is transmitted to an amplitude control unit 22. The amplitude control unit 22 adjusts the amplitude of the drivers 1 and 2 such that the detection result of the power monitor 21 can be the maximum.