Abstract: A semiconductor manufacturing apparatus according to the present embodiment includes a vacuum chamber. A stage mounts a semiconductor substrate thereon within the vacuum chamber. An electrostatic chuck fixes the semiconductor substrate onto the stage. A sensor detects a height of a surface of the semiconductor substrate fixed onto the stage by the electrostatic chuck. A processor determines whether the surface of the semiconductor substrate is distorted based on the height of the surface of the semiconductor substrate. The processor calculates correction values for a pattern transferred onto the surface of the semiconductor substrate by exposure based on the height of the surface of the semiconductor substrate when the surface of the semiconductor substrate is distorted. An exposure part exposes the surface of the semiconductor substrate to light using the correction values.

Abstract: In one embodiment, a method for cleaning a reticle stage of an extreme ultraviolet exposure apparatus is disclosed. The method can include pressing a particle catching layer of a cleaning reticle onto the reticle stage, and the cleaning reticle includes the particle catching layer formed on a substrate. The method can include peeling the cleaning reticle from the reticle stage. The method can include removing the particle catching layer from the substrate. I addition, the method can include forming a new particle catching layer on the substrate having the particle catching layer removed.

Abstract: A method for generating data on mask pattern used to form a device pattern formed on a reflective exposure mask, wherein data on the mask pattern is generated based on a position correction amount table used to correct an amount of transfer position error occurring depending on at least one of pattern size and pattern pitch of the mask pattern when the mask pattern is transferred onto an exposure target member.

Abstract: According to one embodiment, a nanoimprint template using a pattern transcription to a substrate by a nanoimprint technique, the template includes a transcription pattern and an alignment mark on a main surface of a main body, wherein the alignment mark comprises a polarizer.

Abstract: A reflective mask comprising: a reflective layer that is arranged on a surface on a side on which EUV light is irradiated and reflects the EUV light; a buffer layer containing Cr that is arranged on a side of the reflective layer on which the EUV light is irradiated and covers an entire surface of the reflective layer; and a non-reflective layer that is arranged on a side of the buffer layer on which the EUV light is irradiated and in which an absorber that absorbs the irradiated EUV light is arranged in a position corresponding to a mask pattern to be reduced and transferred onto a wafer.

Abstract: A reflective mask comprising: a reflective layer that is arranged on a surface on a side on which EUV light is irradiated and reflects the EUV light; a buffer layer containing Cr that is arranged on a side of the reflective layer on which the EUV light is irradiated and covers an entire surface of the reflective layer; and a non-reflective layer that is arranged on a side of the buffer layer on which the EUV light is irradiated and in which an absorber that absorbs the irradiated EUV light is arranged in a position corresponding to a mask pattern to be reduced and transferred onto a wafer.

Abstract: In one embodiment, a method for cleaning a reticle stage of an extreme ultraviolet exposure apparatus is disclosed. The method can include pressing a particle catching layer of a cleaning reticle onto the reticle stage, and the cleaning reticle includes the particle catching layer formed on a substrate. The method can include peeling the cleaning reticle from the reticle stage. The method can include removing the particle catching layer from the substrate. I addition, the method can include forming a new particle catching layer on the substrate having the particle catching layer removed.

Abstract: According to one embodiment, a monitoring pattern is transferred to a wafer by irradiation with EUV light by using a reflective mask including the monitoring pattern. Then, the line width of the monitoring pattern transferred to the wafer is measured, and a flare intensity distribution to be generated on the wafer is calculated in accordance with the reflecting region area of the mask and the layout direction of the monitoring pattern. After that, the measured line width of the monitoring pattern is corrected based on the calculated flare intensity distribution. Finally, the exposure dose of the monitoring pattern on the wafer is obtained from the corrected line width.

Abstract: An exposure device according to an embodiment includes an exposure light source for irradiating a reflective mask with an exposure light, an alignment light source for irradiating the reflective mask with an alignment light and an optical element having a structure that a light path of the exposure light extending from the alignment light source to the reflective mask shares at least part in common with a light path of the alignment light extending from the alignment light source to the reflective mask.

Abstract: A reflective mask comprising: a reflective layer that is arranged on a surface on a side on which EUV light is irradiated and reflects the EUV light; a buffer layer containing Cr that is arranged on a side of the reflective layer on which the EUV light is irradiated and covers an entire surface of the reflective layer; and a non-reflective layer that is arranged on a side of the buffer layer on which the EUV light is irradiated and in which an absorber that absorbs the irradiated EUV light is arranged in a position corresponding to a mask pattern to be reduced and transferred onto a wafer.

Abstract: A method for generating data on mask pattern used to form a device pattern formed on a reflective exposure mask, wherein data on the mask pattern is generated based on a position correction amount table used to correct an amount of transfer position error occurring depending on at least one of pattern size and pattern pitch of the mask pattern when the mask pattern is transferred onto an exposure target member.

Abstract: A microfabrication apparatus for pressing an original plate including a pattern down on a substrate to transfer the pattern on the substrate includes a first measurement unit for measuring relative positional displacement between the substrate and the plate above the substrate, a position correction unit for correcting relative position between the substrate and the plate such that the pattern is to be transferred on a first predetermined position of the substrate based on the relative positional displacement measured by the first measurement unit, a pressing unit for pressing the plate above the substrate down on the substrate to transfer the pattern on the substrate in a state that the relative positional displacement between the substrate and the plate is corrected by the position correction unit, and a second measurement unit for measuring relative positional relationship between the pattern transferred on the substrate and a pattern previously formed on the substrate.