首页> 外国专利> TYPE DFB laser structure with the conclusions of radiation through the surface for wideband data transmission systems and sets of such lasers

TYPE DFB laser structure with the conclusions of radiation through the surface for wideband data transmission systems and sets of such lasers

机译:DFB型激光结构,具有通过表面辐射的结论,适用于宽带数据传输系统和此类激光器

摘要

1. semiconductor laser with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 across the surface, containing:;structure of semiconductor laser comprising an active layer located on opposite sides of the layers adjacent to the active layer, u043fu043eu0434u043bu043eu0436u043a i, the u043fu043eu043au0430u0437u0430u0442u0435u043bu00a0 u043fu0440u0435u043bu043eu043cu043bu0435u043du0438u00a0 designed u0434u043bu00a0 u043eu0433u0440u0430u043du0438u0447u0435u043du0438u00a0 in the transverse direction of the optical industry, and electrodes, which can u0438u043du0436u0435u043au0442 ing current to the semiconductor laser structure.;the second diffraction grating or higher u043fu043eu0440u00a0u0434u043au0430, distributed so that it contains the periodic lattice u0447u0435u0440u0435u0434u0443u044eu0449u0438u0435u0441u00a0 elements, with each of the u0430u043du043du044bu0445 element lattice u043eu0442u043bu0438u0447u0430u0435u0442u0441u00a0 because he u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 an element by element with high or low rise, which in u0438u043du0436u0435u043au0442u0438u0440u043eu0432u0430u043du0438u0438 then this element with low rise low rise u043fu0440u043eu00a0u0432u043bu00a0u0435u0442,the lack of u0443u0441u0438u043bu0435u043du0438u00a0 or absorption, compared with the element with the highest increase, each of these elements has a certain length, and the length of the el ment with high reinforcement and length of growing period in low u043eu043fu0440u0435u0434u0435u043bu00a0u044eu0442 lattice and the lattice period u043du0430u0445u043eu0434u0438u0442u0441u00a0 in rangethe u0434u043bu00a0 u043fu043eu043bu0443u0447u0435u043du0438u00a0 optical signal in the range of the signal optical transmission systems, in which the length of one of the elements with high growing sta u0430u0432u043bu00a0u0435u0442 not more than 0.5 long period lattice.;2. semiconductor laser for 1, in which the length of the specified elements of high u0443u0441u0438u043bu0435u043du0438u00a0 u0441u043eu0441u0442u0430u0432u043bu00a0u0435u0442 from 15% to 35% of the length of the period lattice.;3. semiconductor laser for 1, in which the length of one of the elements with high reinforcement u0441u043eu0441u0442u0430u0432u043bu00a0u0435u0442 approximately 25% of the length of the period lattice.;4. semiconductor laser for 1, in which u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice with the distribution of u00a0u0432u043bu00a0u0435u0442u0441u00a0 optically active and formed in the environment u0443u0441u0438u043bu0435u043du0438u00a0, actively m layer.;5. semiconductor laser for 1, in which u0443u043au0430u0437u0430u043du043du0430u00a0 u0440u0430u0441u043fu0440u0435u0434u0435u043bu0435u043du043du0430u00a0 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice u00a0u0432u043bu00a0u0435u0442u0441u00a0 optically active and formed in the environment of losses of fashion.;6. semiconductor laser for 1, in which u0443u043au0430u0437u0430u043du043du0430u00a0 u0440u0430u0441u043fu0440u0435u0434u0435u043bu0435u043du043du0430u00a0 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice not u00a0u0432u043bu00a0u0435u0442u0441u00a0 optically active and formed of a material u0431u043bu043eu043au0438u0440u0443u044eu0449u0435u0433 on the current.;7. semiconductor laser for 1, which contains an integer number of periods u0443u043au0430u0437u0430u043du043du0430u00a0 grate bars.;8. semiconductor laser for 1, in which u0443u043au0430u0437u0430u043du043du0430u00a0 structure further includes an area u043au043eu0442u043eu0440u0430u00a0 at least partially surrounds the re u0448u0435u0442u043au0443 in the plane of the grating.;9. semiconductor laser for 1, in which u0443u043au0430u0437u0430u043du043du0430u00a0 u043fu0440u0438u043bu0435u0433u0430u044eu0449u0430u00a0 area further includes integrated formed area u043fu043eu0433u043bu043eu0449u0435u043du0438u00a0 located with ka u0436u0434u043eu0433u043e log gets rid of the distributed u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du043eu0439 lattice.;10. semiconductor laser for 1, further comprising an area containing the u0444u043eu0442u043eu0434u0435u0442u0435u043au0442u043eu0440.;11. semiconductor laser on p.10, in which the u0444u043eu0442u043eu0434u0435u0442u0435u043au0442u043eu0440 integrated structure formed with the laser.;12. semiconductor laser on p.11, further includes a feedback loop u0441u0432u00a0u0437u0438 connected to the u0444u043eu0442u043eu0434u0435u0442u0435u043au0442u043eu0440u0443 designed u0434u043bu00a0 u0441u0440u0430u0432u043du0435u043du0438u00a0 u0434u0435u0442u0435u043au0442u0438u0440u0443 u0435u043cu043eu0433u043e output signal, with the output signal.;13. semiconductor laser on p.12, further comprising u0440u0435u0433u0443u043bu00a0u0442u043eu0440 designed u0434u043bu00a0 u0440u0435u0433u0443u043bu0438u0440u043eu0432u0430u043du0438u00a0 input current, the output u0441u0438u0433u043du0430 u0434u043bu00a0 u043fu043eu0434u0434u0435u0440u0436u0430u043du0438u00a0 la on the significance of the characteristics.;14. semiconductor laser on p.8, which u0443u043au0430u0437u0430u043du043du0430u00a0 u043fu0440u0438u043bu0435u0433u0430u044eu0449u0430u00a0 area formed of a material with a resistance, a sufficient u0434u043bu00a0 electric u0438u0437u043eu043bu00a0u0446u0438 and the lattice using the laser.;15. the laser with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 through surface at 1 in which one of the electrodes contains a u0434u043bu00a0 u0438u0437u043bu0443u0447u0435u043du0438u00a0 signal.;16. the laser with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 through the surface 1, which u0443u043au0430u0437u0430u043du043du0430u00a0 structure u043fu043eu043au0430u0437u0430u0442u0435u043bu00a0 u043fu0440u0435u043bu043eu043cu043bu0435u043du0438u00a0, u043eu0431u0435u0441u043fu0435u0447u0438u0432u0430u044eu0449u0430u00a0 lateral restriction, u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 gss oh, one of the u0433u0440u0435u0431u0435u043du0447u0430u0442u043eu0433u043e u0432u043eu043bu043du043eu0432u043eu0434u0430 or u0432u043eu043bu043du043eu0432u043eu0434u0430 with latent u0433u0435u0442u0435u0440u043eu0441u0442u0440u0443u043au0442u0443u0440u043eu0439.;17. semiconductor laser on p.8, which u0443u043au0430u0437u0430u043du043du0430u00a0 structure further includes a laser structure u043eu0433u0440u0430u043du0438u0447u0435u043du0438u00a0 u043fu043eu043bu00a0 with each longitudinal ends of the re u0437u043eu043du0430u0442u043eu0440u0430 laser.;18. semiconductor laser for p.17, which u0443u043au0430u0437u0430u043du043du0430u00a0 structure u043eu0433u0440u0430u043du0438u0447u0435u043du0438u00a0 longitudinal u043fu043eu043bu00a0 contains integrated grating formed by first u043fu043eu0440u00a0u0434u043au0430 and specified the laser further includes a second flat electrode u0441u0432u00a0u0437u0430u043du043du044bu0439 the bars in her first u043fu043eu0440u00a0u0434u043au0430 u0434u043bu00a0 injecting current.;19. a set of semiconductor lasers with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 across the surface as u0437u0430u00a0u0432u043bu0435u043du043e 1, wherein the kit comprises two or more of the l u0430u0437u0435u0440u043eu0432 located on the common product.;20. a set of semiconductor lasers on p.19, in which each of the two or more of these lasers is the output signal with a different dl ina wavelength and output power, and which can be individually u043fu0440u043eu043cu043eu0434u0443u043bu0438u0440u043eu0432u0430u043d.;21. a set of semiconductor lasers on p.19, in which each of the two or more lasers generates the output signal with u043eu0434u0438u043du0430u043au043eu0432u0443 yu long waves.;22. method of production of semiconductor lasers with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 through surface, comprising the following steps:;the formation of many structures of semiconductor laser by coherent u0444u043eu0440u043cu0438u0440u043eu0432u0430u043du0438u00a0 layers on a flat product.;the formation of the flat u0441u043bu043eu00a0 shell has first and second active u0441u043bu043eu00a0 u0441u043bu043eu00a0 shell;;the formation of the flat turret has multiple distributed bars, second or higher u043fu043eu0440u00a0u0434u043au0430, u0441u0432u00a0u0437u0430u043du043du044bu0445 the active. oem;;the formation of the electrodes on each of the structures of semiconductor laser located on the flat product, u0434u043bu00a0 u0438u043du0436u0435u043au0442u0438u0440u043eu0432u0430u043du0438u00a0 current in every yu of the bars, where one of the electrodes has a hole u0434u043bu00a0 u043eu0431u0435u0441u043fu0435u0447u0435u043du0438u00a0 emitted light; and;verification of each of these structures of semiconductor laser by u0438u043du0436u0435u043au0442u0438u0440u043eu0432u0430u043du0438u00a0 test current in the structure, the structure is still u0432u0440u0435u043cu00a0 u043eu0435u0434u0438u043du0435u043du044b with the common flat substrate.;23. method for the simultaneous u0444u043eu0440u043cu0438u0440u043eu0432u0430u043du0438u00a0 p.22, additionally containing a phase adjacent areas between the multiple distributed turret lattices.;24. method for u0444u043eu0440u043cu0438u0440u043eu0432u0430u043du0438u00a0 p.22, further containing a phase structure of the u043fu0440u0435u043bu043eu043cu043bu0435u043du0438u00a0 designed u0434u043bu00a0 u043eu0433u0440u0430u043du0438u0447u0435u043du0438u00a0 in transverse direction u043eu043fu0442u0438u0447u0435u0441 the fashion for each of the structures of semiconductor laser in the form of u0433u0440u0435u0431u0435u043du0447u0430u0442u043eu0433u043e u0432u043eu043bu043du043eu0432u043eu0434u0430 or u0432u043eu043bu043du043eu0432u043eu0434u0430 based on hidden u0433u0435u0442u0435u0440u043eu0441u0442u0440u0443u043au0442u0443u0440u044b.;25. method for u0444u043eu0440u043cu0438u0440u043eu0432u0430u043du0438u00a0 p.22, further containing a phase of both the log gets rid of each of the bars of u043fu043eu0433u043bu043eu0449u0435u043du0438u00a0 in the adjacent area.;26. method for u0440u0430u0441u0449u0435u043fu043bu0435u043du0438u00a0 p.22, further containing phase of the substrate along the adjacent areas, u0434u043bu00a0 u0444u043eu0440u043cu0438u0440u043eu0432u0430u043du0438u00a0 of lasers.;27. semiconductor laser with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 across the surface, containing:;structure of semiconductor laser comprising an active layer located on opposite sides of the layers adjacent to the active layer, u043fu043eu0434u043bu043eu0436u043a i, the u043fu043eu043au0430u0437u0430u0442u0435u043bu00a0 u043fu0440u0435u043bu043eu043cu043bu0435u043du0438u00a0 designed u0434u043bu00a0 u043eu0433u0440u0430u043du0438u0447u0435u043du0438u00a0 in the transverse direction of the optical industry, and electrodes, which can u0438u043du0436u0435u043au0442 ing current to the semiconductor laser structure.;diffraction grating with a given distribution of second or higher u043fu043eu0440u00a0u0434u043au0430, u0441u0432u00a0u0437u0430u043du043du0443u044e with active layer of the laser structure and the sl. u0440u0435u0434u0435u043bu0435u043du0438u0435 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du043eu0439 lattice contains periodically u0447u0435u0440u0435u0434u0443u044eu0449u0438u0435u0441u00a0 elements lattice, with each of the elements of the lattice has the effect of u0443u0441u0438u043bu0435u043du0438u00a0, which u043bu044eu0431u0430u00a0 u0441u043eu0441u0435u0434u043du00a0u00a0 pair of bars includes one elementa relatively high effect u0443u0441u0438u043bu0435u043du0438u00a0 and element having a relatively low u0443u0441u0438u043bu0435u043du0438u00a0 effect, in which the difference of the effects u0443u0441u0438u043bu0435u043du0438u00a0, various kn u0430u0447u0435u043du0438u00a0 indicators u043fu0440u0435u043bu043eu043cu043bu0435u043du0438u00a0 elements of high and low u0443u0441u0438u043bu0435u043du0438u00a0 and the period lattice provides the output signal in the range close to 850 nano meters, or 910 nanometers to 990 nanometers.or from 1200 nanometers to 1700 nanometers, and wherein each of the elements of the lattice has a certain length, and the length of the element with a relatively high ef u0444u0435u043au0442u043eu043c u0443u0441u0438u043bu0435u043du0438u00a0 and length of element with relatively low effect u0443u0441u0438u043bu0435u043du0438u00a0 jointly u043eu043fu0440u0435u0434u0435u043bu00a0u044eu0442 period lattice, in which the length of one of the elements on the high rise does not exceed 0.5 long period lattice.;28. semiconductor laser on p.27, which u0443u043au0430u0437u0430u043du043du0430u00a0 structure u043fu043eu043au0430u0437u0430u0442u0435u043bu00a0 u043fu0440u0435u043bu043eu043cu043bu0435u043du0438u00a0, u043eu0431u0435u0441u043fu0435u0447u0438u0432u0430u044eu0449u0430u00a0 lateral restriction, u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 a u0433u0440u0435u0431u0435u043du0447u0430 ies u0432u043eu043bu043du043eu0432u043eu0434u043eu0432 or waveguide with a hidden u0433u0435u0442u0435u0440u043eu0441u0442u0440u0443u043au0442u0443u0440u043eu0439.;29. method of stabilizing the output signal of a laser, comprising the following steps:;the power supply to the laser with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 through surface by u0438u043du0436u0435u043au0442u0438u0440u043eu0432u0430u043du0438u00a0 current laser;;power to the one or more connected with the laser range;;monitoring the quality of the output signal of the laser with the radiation from the surface through the u0444u043eu0442u043eu0434u0435u0442u0435u043au0442u043eu0440u0430; and;the regulation of the current, u0438u043du0436u0435u043au0442u0438u0440u0443u0435u043cu043eu0433u043e in laser u0434u043bu00a0 u043fu0440u0435u0434u043eu0442u0432u0440u0430u0449u0435u043du0438u00a0 flux signal.;30. method for p.29, further comprising a pre stage u0444u043eu0440u043cu0438u0440u043eu0432u0430u043du0438u00a0 the u0444u043eu0442u043eu0434u0435u0442u0435u043au0442u043eu0440u0430 integrated with the laser.;31. method for incorporating phase u043fu043eu0434u043au043bu044eu0447u0435u043du0438u00a0 p.30, further the u0444u043eu0442u043eu0434u0435u0442u0435u043au0442u043eu0440u0430 to loop back u0441u0432u00a0u0437u0438 and u0441u0440u0430u0432u043du0435u043du0438u00a0 the u0434u0435u0442u0435u043au0442u0438u0440u0443u0435u043cu043eu0433u043e output signal and with the required output signal.;32. a way to further includes phase u0440u0435u0433u0443u043bu00a0u0442u043eu0440u0430 p.31, installation and u0440u0435u0433u0443u043bu0438u0440u043eu0432u0430u043du0438u00a0 value current, u0438u043du0436u0435u043au0442u0438u0440u0443u0435u043cu043eu0433u043e in the laser u0434u043bu00a0 u043fu0440u0435u0434u043eu0442u0432u0440u0430u0449u0435u043du0438u00a0 fluctuations a signal in accordance with the comparison, using the feedback loop u0441u0432u00a0u0437u0438.;33. semiconductor laser with the u0438u0437u043bu0443u0447u0435u043du0438u00a0 through surface designed u0434u043bu00a0 u043fu043eu043bu0443u0447u0435u043du0438u00a0 output signals with certain spatial u0445u0430u0440u0430u043au0442u0435u0440u0438u0441u0442u0438 kami, with the laser contains:;structure of semiconductor laser comprising an active layer located on opposite sides of the layers adjacent to the active layer, u043fu043eu0434u043bu043eu0436u043a and the electrodes, which can u0438u043du0436u0435u043au0442u0438u0440u043eu0432u0430u0442u044c current to the semiconductor laser structure u0434u043bu00a0 u043fu043eu043bu0443u0447u0435u043du0438u00a0 output signal in the transmission of hell, the dunn's x diffraction grating and distributed the second or higher u043fu043eu0440u00a0u0434u043au0430,the size and form of which provide the u0438u043du0436u0435u043au0442u0438u0440u043eu0432u0430u043du0438u0438 current in the laser structure, the lower the threshold u0443u0441u0438u043bu0435u043du0438u00a0 u0434u043bu00a0 fashion with a maximum of than u043fu043eu0440u043eu0433u043e u0432u043eu0435 importance u0443u0441u0438u043bu0435u043du0438u00a0 u0434u043bu00a0 any other mods, which u0443u043au0430u0437u0430u043du043du0430u00a0 fashion with a maximum of laser u0438u0437u043bu0443u0447u0435u043du0438u00a0 facilitates docking of the output signal with fibre optic u0441u0432u0435u0442u043eu0432u043eu0434u043eu043c.;34. semiconductor laser for p.33, in which u0443u043au0430u0437u0430u043du043du0430u00a0 u0440u0430u0441u043fu0440u0435u0434u0435u043bu0435u043du043du0430u00a0 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice consists of u0447u0435u0440u0435u0434u0443u044eu0449u0438u0445u0441u00a0 element lattice, which u043eu043fu0440u0435u0434u0435u043bu00a0u044eu0442 period lattice, in which one of the ordinance u043du043du044bu0445 elements u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 an element with a relatively high increase, and the next element u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 an element with a relatively low growing, and to thor is an element with a relatively high u0441u043eu0441u0442u0430u0432u043bu00a0u0435u0442 not more than 0.5 long period lattice.;35. semiconductor laser for p.33, which u0443u043au0430u0437u0430u043du043du0430u00a0 u0440u0430u0441u043fu0440u0435u0434u0435u043bu0435u043du043du0430u00a0 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 a jail, with u0441u0432u00a0u0437u044cu044e increased active area of uca lead structure.;36. semiconductor laser for p.33, which u0443u043au0430u0437u0430u043du043du0430u00a0 u0440u0430u0441u043fu0440u0435u0434u0435u043bu0435u043du043du0430u00a0 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 a jail, with u0441u0432u00a0u0437u044cu044e on u043fu043eu0442u0435u0440u00a0u043c in the amount specified. floor structure.;37. semiconductor laser for p.33, which u0443u043au0430u0437u0430u043du043du0430u00a0 u0440u0430u0441u043fu0440u0435u0434u0435u043bu0435u043du043du0430u00a0 u0434u0438u0444u0440u0430u043au0446u0438u043eu043du043du0430u00a0 lattice u043fu0440u0435u0434u0441u0442u0430u0432u043bu00a0u0435u0442 bars with a blocking current in the structure p u043eu043bu0443u043fu0440u043eu0432u043eu0434u043du0438u043au043eu0432u043eu0433u043e laser.
机译:1.具有整个表面的半导体激光器,其包含:半导体激光器的结构,该结构包括位于与有源层相邻的层的相对侧上的有源层的有源层层 u043f u043e u0434 u043b u043e u0436 u043a我是 u043f u043e u043a u0430 u0437 u0430 u0442 u0435 u043b u00a0 u043f u0440 u0435 u043b u043e u043c u043b u0435 u043d u0438 u00a0在光学行业的横向设计 u0434 u043b u00a0 u043e u0433 u0440 u0430 u043d u043d u0438 u0447 u0435 u043d u043d u0438 u00a0可以分配电流到半导体激光器结构上的电极;第二个衍射光栅或更高的第二个衍射光栅分布得使它包含周期性晶格 u0447 u0435 u0440 u0435 u0434 u0443 u044e u0449 u0438 u0435 u0441 u00a0元素,每个 u0430 u043d u043d u044d u044b u0445元素晶格 u043e u0442 u043b u0438 u0 447 u0430 u0435 u0442 u0441 u00a0因为他 u043f u0440 u0435 u0434 u0441 u0442 u0430 u0432 u043b u00b0 u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u043e u0432 u0430 u043d u0438 u0438然后是低层低层 u043f u0440 u043e u00a0 u0432 u043b u00a0 u0435 u0442,缺少 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0或吸收,与增加量最大的元素相比,这些元素中的每一个都有一定的长度,并且长度为 u043e u043f u0440 u0435 u0434 u0435 u043b u00a0 u044e u0442晶格和晶格周期 u043d u0430 u0445 u043e u043e u043e u0434 u0438 u0442 u0441 u00a0范围为 u0434 u043b u00a0 u043f u043e u043b u0443 u0447 u0435 u043d u0438 u00a0信号光传输系统范围内的光信号,其中长度之一具有高增长sta的元素 u0430 u0432 u043b u00a0 u0435 u0442不超过0.5个长周期晶格; 2。 1的半导体激光器,其中指定元素的长度为高 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0 u0441 u043e u0441 u0442 u0430 u0432 u043b u043b u00a0 u0435 u0442为周期晶格长度的15%至35%; 3。用于1的半导体激光器,其中具有高增强作用的元素之一的长度大约为周期晶格长度的25%。 4 。 1的半导体激光器,其中 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u0430 u00a0晶格具有 u00a0 u0432 u0432 u043b u00a0 u0435 u0442 u0441 u00a0具有光学活性,并形成在活动的m层环境中 u0443 u0441 u0438 u043b u0435 u043d u0438d u00438 1的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u0430 u00a0 u0440 u0430 u0441 u043f u0440 u0435 u0434 u0435 u0435 u043b u0435 u043d u043d u0430 u00a0 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u0430 u00a0晶格 u00a0 u0432 u043b u043b u00a0 u0435 u0442 u0441 u00a已形成在失去时尚的环境中; 6。 1的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u0430 u00a0 u0440 u0430 u0441 u043f u0440 u0435 u0434 u0435 u0435 u043b u0435 u043d u043d u0430 u00a0 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u0430 u00a0晶格不是 u00a0 u0432 u043b u043b u00a0 u0435 u0442 u0441 u00和由电流上的材料 u0431 u043b u043e u043a u0438 u0440 u0443 u044e u044e u0449 u0435 u0433形成; 7。 1的半导体激光器,其中包含整数个周期数 u0443 u043a u0430 u0437 u0430 u043d u043d u04d u0430 u00a0炉栅条; 8。 1的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u0430 u00a0结构还包括一个区域 u043a u043e u0442 u043e u0440 u0430 u00a0至少部分围绕稀土 u0448 u0435 u0442 u043a u0443在光栅平面中; 9。 1的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u0430 u00a0 u043f u0440 u0438 u043b u0435 u0433 u0430 u044e u044e u0449 u0430 u00a0区域还包括集成的成形区域 u043f u043e u0433 u043b u043e u0449 u0435 u043d u0438 u00a0位于ka u0436 u0434 u043e u0433 u043e日志将摆脱分布式 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u043e u0439点阵; 10。 1的半导体激光器,还包括一个包含 u0444 u043e u0442 u043e u0434 u0435 u0442 u0435 u043a u0442 u043e u0440。; 11的区域。第10页的半导体激光器,其中 u0444 u043e u0442 u043e u0434 u0435 u0442 u0435 u043a u0442 u043e u0440集成激光器构成的结构; 12。第11页的半导体激光器,还包括连接至 u0444 u043e u0442 u043e u0434 u0435 u0442 u0435 u043a u0442 u043e u04e u0440 u0443设计的 u0434 u0432 u0431 u0432 u00a0 u0437 u0438 u00a0 u0441 u0440 u0430 u0432 u043d u0435 u043d u0438 u00a0 u0434 u0435 u0442 u0435 u043a u0442 u0438 u0440 u0443 u0435 u043c u043e u0433 u0433 ,带有输出信号;; 13。第12页的半导体激光器,还包括 u0440 u0435 u0433 u0443 u043b u00a0 u0442 u043e u0440设计的 u0434 u043b u00a0 u0440 u0435 u0433 u0443 u0443 u043b u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0输入电流,输出 u0441 u0438 u0433 u043d u0430 u0434 u043b u00a0 u043f u043e u0434 u0434 u0434 u0435 u0440 u0436 u0430 u043d u043d u0438 u00a0la关于特征的意义。; 14 ..第8页上的半导体激光器,形成了 u0443 u043a u0430 u0437 u0430 u043d u043d u04d u0430 u00a0 u043f u0440 u0438 u043b u0435 u0433 u0430 u044e u0449 u0430 u0040用激光制成具有足够电阻的材料,并用激光制作足够的晶格; 15。具有 u0438 u0437 u043b u0443 u0447 u0435 u043d u0438 u00a0穿过表面的激光器,其中一个电极包含一个 u0434 u043b u00a0 u0438 u0437 u0437 u043b u0443 u0447 u0435 u043d u0438 u00a0信号;; 16。具有 u0438 u0437 u043b u0443 u0447 u0435 u043d u0438 u00a0的激光穿过表面1,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u043d u0430 u00a0结构 u043f u043e u043a u0430 u0437 u0430 u0442 u0435 u043b u00a0 u043f u0440 u0435 u043b u043e u043e u043c u043b u0435 u043d u0438 u00a0, u043e u0431 u0435 043 u0435 u0447 u0438 u0432 u0430 u044e u0449 u0430 u00a0横向限制, u043f u0440 u0435 u0434 u0441 u0442 u0430 u0432 u043b u00a0 u0435 u0442 gss哦,其中之一 u0433 u0440 u0435 u0431 u0435 u043d u0447 u0430 u0442 u043e u043e u0433 u043e u0432 u043e u043b u043d u043e u0432 u043e u043e u0434 u0430或 u0432 u043e u043e u043d u043e u0432 u043e u0434 u0430带有潜在的 u0433 u0435 u0442 u0435 u0440 u043e u0441 u0442 u042 u0440 u0443 u043a u0442 u0442 u0443 u0440 u043e u0439。; 17。第8页上的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u0430 u00a0结构还包括激光器结构 u043e u0433 u0440 u0430 u043d u0438 u0447 u0435 u043d u0438 u00a0 u043f u043e u043b u00a0,每个纵向端都重新使用激光器 u0437 u043e u043d u0430 u0442 u043e u0440 u0430。第17页的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u04d u0430 u00a0结构 u043e u0433 u0440 u0430 u043d u0438 u0447 u0447 u0435 u043d u0438 u00a0 u043f u043e u043b u00a0包含由第一个 u043f u043e u0440 u00a0 u0434 u043a u0430形成的集成光栅,并且指定激光器还包括第二个扁平电极 u0441 u0432 u00a0 u0437 u0430 u043d u043d u044b u0439她的第一个 u043f u043e u0440 u00a0 u0434 u043a u0430 u0434 u043b u00a0注入电流。; 19。一组半导体激光器,其表面上的 u0438 u0437 u043b u0443 u0447 u0435 u043d u0438 u00a0的表面为 u0437 u0430 u00a0 u0432 u043b u0435 u043d u043d u043e 1,其中套件包含两个或多个位于共同产品上的l u0430 u0437 u0435 u0440 u043e u0432。第19页上的一组半导体激光器,其中两个或多个激光器中的每一个都是具有不同dl ina波长和输出功率的输出信号,并且可以分别设置为 u043f u0440 u043e u043c u043e u0434 u0443 u043b u0438 u0440 u043e u0432 u0430 u043d。; 21。第19页上的一组半导体激光器,其中两个或多个激光器中的每一个都产生 u043e u0434 u0438 u043d u0430 u043a u043e u0432 u0443 yu长波。22。通过表面制造半导体激光器的方法,其包括以下步骤:通过相干半导体形成许多半导体激光器的结构u0440 u043c u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0层。平坦的 u0441 u043b u043e u00a0外壳的形成具有第一和第二活动 u0441 u043b u043e u00a0 u0441 u043b u043e u00a0壳;;炮塔的形成具有多个分布的钢筋,第二个或更高级的 u043f u043e u0440 u00a0 u0434 u043a u0430, u0441 u0432 u00a0 u0437 u0430 u043d u043d u044b u0445。 oem ;;位于平板产品上的每个半导体激光器结构上的电极形成 u0434 u043b u00a0 u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u043e u0432 u0430每个电极条中的一个孔中都有一个电流,其中一个电极上有一个孔。u043e u0431 u0435 u0431 u0431 u043f u0435 u0447 u0435 u0435 u043d u0438 u00a0发光;并通过 u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0验证结构中的每个半导体激光器,其结构仍为带有普通平面基板的结构; 23.带有普通平面基板的结构。;。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。。同时使用 u0444 u043e u0440 u043c u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0 p.22的方法,还包含多个分布的转塔格之间的相邻区域。24。 u0444 u043e u0440 u043c u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0 p.22的方法,还包含 u043f u0440 u0435 u043b u043b u043e u043c u043b u0435 u043d u0438 u00a0设计了 u0434 u043b u00a0 u043e u0433 u0440 u0430 u043d u0438 u0447 u0435 u043d u0438 u00a0横向 u043e u043f u0442 0 u0447 u0435 u0441 u0433 u0440 u0435 u0431 u0435 u043d u0447 u0430 u0442 u043e u0433 u043e u043e u0432 u0432 u043e u043b u043d u043e u0432 u043e u0434 u0430或 u0432 u043e u043b u043d u043e u0432 u043e u0434 u0434 u0430基于隐藏的 u0433 u0435 u0442 u0432 u0435 u0440 u043e u0441 u0442 u0440 u0443 u043a u0442 u0443 u0440 u044b。; 25。 u0444 u043e u0440 u043c u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0 p.22的方法,进一步包含两个日志的阶段,从而摆脱了 u043f u043e的每个条26.在相邻区域中的 u0433 u043b u043e u0449 u0435 u043d u0438 u00a0。 u0440 u0430 u0441 u0449 u0435 u043f u043b u0435 u043d u0438 u00a0 p.22的方法,还包含沿相邻区域的基板相 u0434 u043b u00a0 u0444 u043e u0440 u043c u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0激光器; 27。在整个表面上具有 u0438 u0437 u043b u0443 u0447 u0435 u043d u0438 u00a0的半导体激光器,该半导体激光器包含:包含有源层的半导体激光器结构,该有源层位于与有源层相邻的层的相对两侧, u043f u043e u0434 u043b u043e u0436 u043a我是 u043f u043e u043a u0430 u0437 u0430 u0442 u0435 u043b u00a0 u043f u0440 u0435 u043b u043e u043c u043b u0435 u043d u0438 u00a0在光学工业的横向方向上设计了 u0434 u043b u00a0 u043e u0433 u0440 u0430 u043d u0438 u0447 u0435 u043d u0438 u00a0和电极,可以将电流 u0438 u043d u0436 u0435 u043a u0442分配给半导体激光器结构。;具有给定第二或更高分布​​ u043f u043e u0440 u00a0 u0434 u043a u0430, u0441的衍射光栅 u0432 u00a0 u0437 u0430 u043d u043d u0443 u044e具有激光结构的有源层和sl。 u0440 u0435 u0434 u0435 u043b u0435 u043d u0438 u0435 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u043d u043d u043e u0439包含周期性的 u0447 u0435 u0440 u0435 u0434 u0443 u044e u0449 u0438 u0435 u0441 u00a0元素格,其中每个元素具有 u0443 u0441 u0438 u043b u043b u0435 u043d u0438的效果 u00a0,其中 u043b u044e u0431 u0430 u00a0 u0441 u043e u0441 u0435 u0434 u043d u043a u00a0 u00a0一对条包含一个效果相对较高的元素 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0和具有相对较低 u0443 u0441 u0438 u043b u0435 u043d u00d0的元素,其中效果之间的差异 u0443 u0441 u0438 u043b u043b u0435 u043d u0438 u00a0,各种kn u0430 u0447 u0435 u043d u0438 u00a0指标 u043f u0440 u0435 u043b u043e u043c u043b u0435 u043d u0438 u00a0高低元素 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0,周期点阵在范围内提供输出信号e接近850纳米,或910纳米至990纳米,或1200纳米至1700纳米,其中晶格的每个元素都具有一定的长度,并且该元素的长度具有相对较高的ef。 u0435 u043a u0442 u043e u043c u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0和效果相对较低的元素长度 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0 u043e u043f u0440 u0435 u0434 u0435 u043b u00a0 u044e u0442周期格,其中高层元素之一的长度不超过0.5个长周期格。28。第27页上的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u04d u0430 u00a0结构 u043f u043e u043a u04a u0430 u0437 u0430 u0442 u0432 u0435 u043b u00b0 u0440 u0435 u043b u043e u043c u043b u0435 u043d u0438 u00a0, u043e u0431 u0435 u0441 u043f u0435 u0447 u0438 u0432 u0430 u044e u0449 u0430 u0430 u0040a , u043f u0440 u0435 u0434 u0441 u0442 u0430 u0432 u043b u00a0 u0435 u0442一个 u0433 u0440 u0435 u0431 u0435 u043d u043d u0447 u0430 ies u0432 u043e u043e u043d u043e u0432 u043e u0434 u043e u0432或带有隐藏的 u0433 u0435 u0442 u0435 u0440 u043e u0441 u0442 u0440 u0443 u0433 u043a u0442 u0443 u0440 u043e u043e 。; 29。稳定激光器输出信号的方法,包括以下步骤:通过表面通过 u0438 u043d u0436 u0435 u043a u0432 u043d u043d u043d u0435 u0435 u0440 u043e u0432 u0430 u043d u0438 u00a0当前激光器;向与该激光器范围连接的一个或多个电源供电;通过从表面通过辐射来监视激光器输出信号的质量。 u0444 u043e u0442 u043e u0434 u0435 u0442 u0435 u043a u0442 u043e u0440 u0430; ;以及;激光中的电流 u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u0443 u0435 u043c u043e u043e u0433 u043e的调节 u0434 u043e u0442 u0432 u0440 u0430 u0449 u0435 u043d u0438 u00a0通量信号;; 30。第29页的方法,进一步包括前级 u0444 u043e u0440 u043c u0438 u0440 u043e u0432 u0430 u043d u0438 u00a0 u0444 u043e u0442 u0432 u043e u0434 u0435 u0442 u0435 u043a u0442 u043e u0440 u0430与激光器集成在一起; 31。合并阶段 u043f u043e u0434 u043a u043b u044e u0447 u0435 u043d u0438 u00a0 p.30的方法,还包括 u0444 u043e u0442 u043e u0434 u0434 u0435 u0442 u0435 u043a u0442 u043e u0440 u0430环回 u0441 u0432 u00a0 u0437 u0438和 u0441 u0440 u0430 u0432 u043d u0435 u043d u0438 u00a0 u0434 u0435 u0442 u0435 u043a u0442 u0438 u0440 u0443 u0435 u043c u043e u0433 u043e输出信号以及所需的输出信号; 32。一种进一步包含阶段 u0440 u0435 u0433 u0443 u043b u00a0 u0442 u043e u0440 u0430 p.31,安装和 u0440 u0435 u0433 u0443 u043b u0438 u0440 u043e u0432的方法 u0430 u043d u0438 u00a0值电流, u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u0443 u0435 u043c u043e u0433 u043e在激光器中 u0434 u043b u00a0 u043f u0440 u0435 u0434 u043e u0442 u0432 u0440 u0430 u0449 u0435 u043d u0438 u00a0根据比较,通过反馈回路 u0441 u0432 u00a0 u0437 u0438来波动信号。 ; 33。具有通过表面设计的 u0438 u0437 u043b u0443 u0447 u0435 u043d u0438 u00a0的半导体激光器 u0434 u043b u00b0具有特定空间 u0445 u0430 u0440 u0430 u043a u0442 u0435 u0440 u0438 u0441 u0442 u0438 kami的信号,该激光器包含:半导体激光器结构,包括位于半导体激光器相对两侧的有源层与活动层相邻的层 u043f u043e u0434 u043b u043e u0436 u043a和电极,它们可以 u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u043e u0432 u0430 u0442 u044c电流流向半导体激光器结构 u0434 u043b u00a0 u043f u043e u043b u0443 u0447 u0435 u043d u0438 u00a0输出信号在地狱中传输,邓恩氏x衍射光栅和第二个或更高的 u043f u043e u0440 u00a0 u0434 u043a u0430,其大小和形式提供了 u0438 u043d u0436 u0435 u043a u0442 u0438 u0440 u043e u043e u0432 u0430 u043d u0438 u0激光结构中的438电流,阈值 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0 u0434 u043b u00a0的最大值较低,最大值为 u043f u043e u0440 u043e u0433 u043e u0432 u043e u0435重要性 u0443 u0441 u0438 u043b u0435 u043d u0438 u00a0 u0434 u043b u00a0其他任何mod,其中 u0443 u043a u043a u0430 u0437 u0430 u043d u043d u043d具有最多激光 u0438 u0437 u043b u0443 u0447 u0435 u043d u043d u0438 u00a0的u0430 u00a0方式有助于将输出信号与光纤 u0441 u0432 u0435 u0435 u0442 u043e u0432 u043e u0434 u043e u043c。; 34。第33页的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u043d u0430 u00a0 u0440 u0430 u0441 u043f u0440 u0435 u0434 u0434 u0435 u043b u0435 u043d u043d u043d u0430 u00a0 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u043d u0430 u00a0网格由 u0447 u0435 u0440 u0435 u0434 u0443 u044e u0438 u0445 u0441 u00a0元素晶格,其中 u043e u043f u0440 u0435 u0434 u0435 u043b u00a0 u044e u0442周期晶格,其中条例 u043d u043d u044b u0445元素之一 u043f u0440 u0435 u0434 u0441 u0442 u0430 u0432 u043b u00a0 u0435 u0442具有相对较高增加的元素,而下一个元素 u043f u0440 u0435 u0435 u0434 u0431 u0441 u0442 u0430 u0432 u043b u00a0 u0435 u0442相对较低的元素,而相对较高的元素是 u0441 u043e u0441 u0442 u0430 u0432 u043b u00a0 u0435 u0442大于0.5的长周期晶格; 35。第33页的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u04d u0430 u00a0 u0440 u0430 u0441 u043f u0440 u0435 u0434 u0434 u0435 u043b u0435 u043d u043d u0430 u00a0 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u0430 u00a0格子 u043f u0440 u04340 u0435 u0434 u0434 u0441 u0442 u0430 u0432 36.监狱,其中 u0441 u0432 u00a0 u0437 u044c u044e增加了uca铅结构的有效面积。第33页的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u0430 u00a0 u0440 u0430 u0441 u043f u0440 u0435 u0434 u0435 u043b u0435 u0435 u043d u043d u0430 u0040 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u043d u0430 u00a0晶格 u043f u0440 u0435 u0434 u0441 u0442 u042 u0430 u0432 u043b u00a0 u0435监狱, u043f u043e u0442 u0435 u0440 u00a0 u043c上的 u0441 u0432 u00a0 u0437 u044c u044e的数量达到指定数量。地板结构;; 37。第33页的半导体激光器,其中 u0443 u043a u0430 u0437 u0430 u043d u043d u04d u0430 u00a0 u0440 u0430 u0441 u043f u0440 u0435 u0434 u0434 u0435 u043b u0435 u043d u043d u0430 u00a0 u0434 u0438 u0444 u0440 u0430 u043a u0446 u0438 u043e u043d u043d u0430 u00a0格子 u043f u0440 u04340 u0435 u0434 u0434 u0441 u0442 u0430 u0432 u00a0 u0435 u0442在结构p u043e u043b u0443 u043f u0440 u043e u0432 u043e u0434 u043d u043d u0438 u043a u043e u043e u0432 u043e u0433 u043e中具有阻塞电流。

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