Abstract: A semiconductor device including a semiconductor substrate having an upper surface and a lower surface is provided. In a depth direction connecting the upper and lower surfaces of the semiconductor substrate, a donor concentration distribution includes a first donor concentration peak at a first depth, a second donor concentration peak at a second depth between the first donor concentration peak and the upper surface, a flat region between the first donor concentration peak and the second donor concentration peak, and a plurality of donor concentration peaks between the first donor concentration peak and the lower surface. The second donor concentration peak has a lower concentration than the first donor concentration peak. The donor concentration distribution in the flat region is substantially flat. The thickness of the flat region in the depth direction is 10% or more of the thickness of the semiconductor substrate.

Abstract: The sealing film seals a gap between an electrode lead wire and a housing vessel. The electrode lead wire is electrically connected to a battery body. The housing vessel houses the battery body. The sealing film includes one or a plurality of thermoplastic resin layers. At least one of the thermoplastic resin layers includes a hydrogen-bonding resin having a structure allowing hydrogen bonding between molecules thereof.

Abstract: The present invention provides a novel antibody-pyrrolodiazepine derivative and a novel antibody-pyrrolodiazepine derivative conjugate using the same, and a novel CLDN6 and/or CLDN9 antibody.

Abstract: There is provided a semiconductor device, a hydrogen concentration distribution has a hydrogen concentration peak, a helium concentration distribution has a helium concentration peak, and a donor concentration distribution has a first donor concentration peak and a second donor concentration peak; the hydrogen concentration peak and the first donor concentration peak are located at a first depth, and the helium concentration peak and the second donor concentration peak are located at a second depth; each concentration peak has an upward slope; and a value which is obtained by normalizing a gradient of the upward slope of the second donor concentration peak by a gradient of the upward slope of the helium concentration peak is smaller than a value which is obtained by normalizing a gradient of the upward slope of the first donor concentration peak by a gradient of the upward slope of the hydrogen concentration peak.

Abstract: An adhesive for hard tissue bonding which has a sufficient pot life and excellent biocompatibility and is replaced with bone over time, and an adhesive kit for hard tissue bonding are provided. In addition, bone cement is provided which has excellent biocompatibility and is replaced with bone over time. An adhesive for hard tissue bonding includes: a cyanoacrylate monomer; and beta-tricalcium phosphate or hydroxyapatite. An adhesive kit for hard tissue bonding includes: a liquid agent containing a cyanoacrylate monomer; and a powdery agent containing beta-tricalcium phosphate or hydroxyapatite. Bone cement includes: a cyanoacrylate polymer; and beta-tricalcium phosphate or hydroxyapatite.

Abstract: An adhesive for hard tissue bonding which has a sufficient pot life and excellent biocompatibility and is replaced with bone over time, and an adhesive kit for hard tissue bonding are provided. In addition, bone cement is provided which has excellent biocompatibility and is replaced with bone over time. An adhesive for hard tissue bonding includes: a cyanoacrylate monomer; and beta-tricalcium phosphate or hydroxyapatite. An adhesive kit for hard tissue bonding includes: a liquid agent containing a cyanoacrylate monomer; and a powdery agent containing beta-tricalcium phosphate or hydroxyapatite. Bone cement includes: a cyanoacrylate polymer; and beta-tricalcium phosphate or hydroxyapatite.

Abstract: An information providing system includes a distribution device configured to distribute a display information item corresponding to an address information item, a controller configured to link the address information item to an identification information item, a transmitter in a place where an entertainment is held, the transmitter configured to transmit a transmission signal obtained by encoding the identification information item, and a receiving terminal configured to receive the transmission signal from the transmitter and decode the transmission signal into the identification information item. The display information item displays a ranking based on a number of received votes each of entrants for the entertainment has received. The distribution device is configured to update, at predetermined time intervals, the display information item that indicates the ranking based on the number of received votes and to set the address information item to correspond to a plurality of display information items.

Abstract: An apparatus including an original stage that holds an original, a substrate stage that holds a substrate, and a projection optical system that projects a pattern of the original onto the substrate, and being configured to scan and expose the substrate during a period in which the speeds of the original stage and the substrate stage change, comprises a controller configured to correct, a distortion generated in an image transferred onto the substrate due to at least one of deformation of the original stage in response to a change in speed of the original stage and deformation of the substrate stage in response to a change in speed of the substrate stage, based on a correction value determined by an acceleration of the substrate stage.

Abstract: An apparatus including an original stage that holds an original, a substrate stage that holds a substrate, and a projection optical system that projects a pattern of the original onto the substrate, and being configured to scan and expose the substrate during a period in which the speeds of the original stage and the substrate stage change, comprises a controller configured to correct, a distortion generated in an image transferred onto the substrate due to at least one of deformation of the original stage in response to a change in speed of the original stage and deformation of the substrate stage in response to a change in speed of the substrate stage, based on a correction value determined by an acceleration of the substrate stage.

Abstract: An exposure apparatus for illuminating an original through an illumination system and for transferring a pattern of the original onto a substrate. The apparatus includes a movable element having a blade, the blade being provided in the illumination system and blocking at least a portion of illumination light, a stator configured to relatively move the movable element, and a resilient supporting member configured to resiliently support the stator without contacting the stator.

Abstract: An exposure apparatus for illuminating an original through an illumination system and for transferring a pattern of the original onto a substrate. The apparatus includes a movable element having a blade, the blade being provided in the illumination system and blocking at least a portion of illumination light, a stator configured to relatively move the movable element, and a resilient supporting member configured to resiliently support the stator without contacting the stator.

Abstract: An exposure apparatus for projecting, by exposure, a pattern of an original onto a substrate. The apparatus includes a light blocking device for blocking at least a portion of exposure light. The light blocking device includes two plate-like members which are disposed in a vertical direction with a clearance kept therebetween, and two plate-like members which are disposed in a horizontal direction with a clearance kept therebetween. The apparatus further includes a driving member for moving the light blocking device, wherein the driving member includes the stator, and a reaction force absorbing device for absorbing a drive reaction force of the driving member. The reaction force absorbing device absorbs the reaction force by moving the stator of the driving member.

Abstract: Disclosed is an exposure apparatus for projecting, by exposure, a pattern of an original onto a substrate, the exposure apparatus including comprising a light blocking system for blocking at least a portion of exposure light, a driving system for moving the light blocking system, and a reaction force absorbing system for absorbing a drive reaction force of the driving system, wherein the driving system includes a stator, and wherein the reaction force absorbing system absorbs the reaction force by moving the stator of the driving system. With this structure, adverse influence of vibratory external disturbance to be caused by a drive reaction force as the blade of the light blocking system is driven, can be reduced significantly.

Abstract: A stage apparatus has a substrate holding unit which chucks and holds a substrate, and includes a flat surface having a recess where the substrate holding unit is to be mounted. A fixing member fixes a projection support provided to the substrate holding unit onto the flat surface. The substrate holding unit is supported by the fixing member while a distal end of the projection support is in contact with the recess of the flat surface and the remaining portion of the substrate holding unit is not in contact with the flat surface.

Abstract: A stage apparatus has a substrate holding unit which chucks and holds a substrate, and includes a flat surface having a recess where the substrate holding unit is to be mounted. A fixing member fixes a projection support provided to the substrate holding unit onto the flat surface. The substrate holding unit is supported by the fixing member while a distal end of the projection support is in contact with the recess of the flat surface and the remaining portion of the substrate holding unit is not in contact with the flat surface.

Abstract: A stage apparatus is a stage apparatus having a substrate holding unit which chucks and holds a substrate, and includes a flat surface having a recess where the substrate holding unit is to be mounted, and a fixing member which fixes a projection support provided to the substrate holding unit onto the flat surface. The substrate holding unit is supported by the fixing member while a distal end of the projection support is in contact with the recess of the flat surface and the remaining portion of the substrate holding unit is not in contact with the flat surface.

Abstract: The method for producing a mother alloy for an iron-based amorphous alloy has the steps of (a) melting raw materials for elements constituting the amorphous alloy together with at least one oxide of an element constituting the amorphous alloy, the raw materials containing aluminum as an inevitable impurity, and the oxide having a smaller standard free energy of formation than that of Al2O3 in an absolute value; and (b) removing the resultant Al2O3 from the melt, thereby reducing the content of aluminum to 50 ppm or less in the melt.

Abstract: A soft magnetic alloy strip is manufactured by a single roll method. The soft magnetic alloy strip is 0.2×d mm or less (, which “d” is a width of the strip,) in warpage in the widthwise direction of the strip, and has a continuous, long length not less than 50 m, in which a width of an air pockets occurring on a roll contact face is not more than 35 &mgr;m, a length of the air pockets is not more than 150 &mgr;m, and the centerline average roughness Ra of the roll contact face is not more than 0.5 &mgr;m.

Abstract: The method for producing a mother alloy for an iron-based amorphous alloy has the steps of (a) melting raw materials for elements constituting the amorphous alloy together with at least one oxide of an element constituting the amorphous alloy, the raw materials containing aluminum as an inevitable impurity, and the oxide having a smaller standard free energy of formation than that of Al2O3 in an absolute value; and (b) removing the resultant Al2O3 from the melt, thereby reducing the content of aluminum to 50 ppm or less in the melt.

Abstract: Disclosed are a target material for magneto-optical recording medium having a structure formed by sintering of an RE-TM phase (A) having a composition with an RE content higher than that of the composition of an intermetallic compound represented by the chemical formula TM.sub.2 RE, and a TM-RE phase (B) having a composition with an RE content equal to or lower than that of the composition of an intermetallic compound represented by the chemical formula TM.sub.2 E, wherein RE denotes at least one rare earth element selected from the group of elements consisting of Nd, Gd, Tb, Dy, Ho and Er, and TM denotes at least one element selected from the group of metals of the iron group which consists of Fe, Co and Ni; and a process for producing the same.