An image display apparatus comprising:na liquid crystal display element in which a plurality of display units including at least a pixel that displays an image for a first eyepoint and a pixel that displays an image for a second eyepoint are arranged in a matrix shape;optical means which distributes light emitted from the pixel that displays the image for the first eyepoint and light emitted from the pixel that displays the image for the second eyepoint in mutually different directions;a first control electrode and a second control electrode disposed on each pixel in the display units; anda plurality of domain regions of which an orientation of liquid crystal molecules is controlled by a diagonal electric field or a lateral electric field formed by the first control electrode and the second control electrode and which have different liquid crystal molecule orientation states,wherein, assuming that a direction of the light distributed by the optical means is a first direction and a direction orthogonal to the first direction is a second direction,the optical principal axis of the optical means effectively passes through the center points of the display units and extends in the second direction;each pixel in the display units is disposed along the first direction;overlapping regions which overlap each other in the second direction are formed on each pixel adjacent to the first direction; andthe display units arranged in the second direction in the overlapping regions comprise different electric field structures which are formed depending on the display units, and respective domain regions disposed according to the electric field structures are disposed along the optical principal axis, andwhereinthe second control electrode disposed on an upper layer of the first control electrode via an insulating film comprises a plurality of slits extending in the first direction;any one of the control electrodes is composed of a pixel electrode which can be independently driven in each of the pixels; anda section between the pixel electrodes adjacent to each other in the first direction tilts in a direction different from the second direction in the overlapping region and is repeatedly disposed across the optical principal axis in each of the display units arranged in the second direction,whereinassuming that an angle between the second direction and a liquid crystal initial orientation direction θLC is (90-θ) degree(s) and an angle between the second direction and a tilt direction between the pixel electrodes is φ, a first region in which an angle between a liquid crystal initial orientation direction θLC and a liquid crystal driving electric field direction φE satisfies (90-θ) degree(s), a second region in which an angle between a liquid crystal initial orientation direction θLC and a liquid crystal driving electric field direction φE satisfies (φ+θ) degree(s), and a third region in which an angle between a liquid crystal initial orientation direction θLC and a liquid crystal driving electric field direction φE satisfies (φ-θ) degree(s) are disposed on at least the optical principal axis and are periodically disposed along the second direction.
›2.↳ 1The image display apparatus according to claim 1, whereinnthe first control electrode is a pixel electrode which can be controlled in each of the pixe…d2
The image display apparatus according to claim 1, whereinnthe first control electrode is a pixel electrode which can be controlled in each of the pixels;the second control electrode is a common electrode in which a plurality of slits arranged in the second direction are disposed on an upper layer of the first control electrode depending on the pixel electrode;the common electrode has a common potential in each pixel;the orientation of the liquid crystal molecules is controlled by a potential of the pixel electrode disposed on each pixel; andsome of the slits are disposed across the optical principal axis in the overlapping region.
›3.↳ 1The image display apparatus according to claim 1, whereinna control wiring line disposed across the optical principal axis in the overlapping region i…d2+1
The image display apparatus according to claim 1, whereinna control wiring line disposed across the optical principal axis in the overlapping region is disposed without overlapping the first control electrode.
›4.↳ 3The image display apparatus according to claim 3, whereinnthe second control electrode is disposed to cover the control wiring line.d3
The image display apparatus according to claim 3, whereinnthe second control electrode is disposed to cover the control wiring line.
›5.↳ 1The image display apparatus according to claim 1, further comprisingna first row in which the display units comprising pixels displaying a data signal…d2
The image display apparatus according to claim 1, further comprisingna first row in which the display units comprising pixels displaying a data signal with same polarity of a positive polarity or a negative polarity are alternately repeatedly disposed in the first direction, anda second row in which the display units comprising pixels with different polarities are repeated in the first direction,wherein the first row and the second row are alternately disposed in the second direction.
›6.↳ 1The image display apparatus according to claim 1, whereinnassuming that a region in which respective pixels in the display units do not overlap each o…d2
The image display apparatus according to claim 1, whereinnassuming that a region in which respective pixels in the display units do not overlap each other in the second direction is a non-overlapping region, a domain region composed of the same electric field structure is disposed in each display unit arranged in the second direction in the non-overlapping region; anda width, in the first direction, of the domain region in the non-overlapping region is set to be larger than widths, in the first direction, of the plurality of the domain regions disposed in the overlapping region.
›7.↳ 1The image display apparatus according to claim 1, wherein the ends of the slits disposed in the second control electrode are shifted and disposed in t…d2
The image display apparatus according to claim 1, wherein the ends of the slits disposed in the second control electrode are shifted and disposed in the first direction and the second direction in a boundary between pixels adjacent to each other in the first direction.
›8.↳ 1The image display apparatus according to claim 1, wherein the ends of the slits are formed in a non-rectangular shape and are disposed along the overl…d2
The image display apparatus according to claim 1, wherein the ends of the slits are formed in a non-rectangular shape and are disposed along the overlapping region.
›9.↳ 1The image display apparatus according to claim 1, wherein the ends of the slits are formed in a rectangular shape.d2
The image display apparatus according to claim 1, wherein the ends of the slits are formed in a rectangular shape.
›10.↳ 1The image display apparatus according to claim 1, wherein the ends of the slits are curved.d2
The image display apparatus according to claim 1, wherein the ends of the slits are curved.
›11.↳ 1The image display apparatus according to claim 1, wherein each of the pixels has an opening with a trapezoidal shape and is disposed to be symmetric w…d2
The image display apparatus according to claim 1, wherein each of the pixels has an opening with a trapezoidal shape and is disposed to be symmetric with respect to the center points of the display units.
›12.↳ 1The image display apparatus according to claim 1, wherein each of the pixels has an opening with a parallelogram shape.d2
The image display apparatus according to claim 1, wherein each of the pixels has an opening with a parallelogram shape.
›13.↳ 1The image display apparatus according to claim 1, wherein an expanded width, in an image separation direction, of the overlapping region enlarged by t…d2
The image display apparatus according to claim 1, wherein an expanded width, in an image separation direction, of the overlapping region enlarged by the optical means is set to be equal or smaller than a width between both eyes of an observer at an observation distance where a three-dimensional vision range is maximum.
›14.↳ 1The image display apparatus according to claim 1, wherein a tilt angle between the pixel electrodes adjacent to each other in the first direction is a…d2
The image display apparatus according to claim 1, wherein a tilt angle between the pixel electrodes adjacent to each other in the first direction is a tilt angle φ or -φ with respect to the second direction; andna range of the tilt angle φ is set at zero degree or more and 55 degrees or less.
›15.↳ 1The image display apparatus according to claim 1, whereinnthe pixel comprises switching means connected to the first control electrode; a gate line fo…d2+1
The image display apparatus according to claim 1, whereinnthe pixel comprises switching means connected to the first control electrode; a gate line for controlling the switching means; and a data line for inputting an image signal into the first control electrode through the switching means;an adjacent pixel pair comprising two pixels disposed across one gate line and arranged in the second direction is composed as a base unit for driving; andthe respective switching means included in the two pixels are controlled by the common gate line sandwiched between the two pixels and are connected to different data lines.
›17.↳ 15A method for driving the image display apparatus according to claim 15, comprising:nscanning the gate lines every two gate lines;reversing the voltage…d3
A method for driving the image display apparatus according to claim 15, comprising:nscanning the gate lines every two gate lines;reversing the voltage polarity of each pixel every one gate line; andreversing the polarity of each transmitted display data every one data line.
›16.↳ 1The image display apparatus according to claim 1, whereinnthe pixel comprises switching means connected to the first control electrode; a gate line fo…d2+1
The image display apparatus according to claim 1, whereinnthe pixel comprises switching means connected to the first control electrode; a gate line for controlling the switching means; and a data line for inputting an image signal into the first control electrode through the switching means;an adjacent pixel pair comprising two pixels disposed across one data line and arranged in the second direction is composed as a base unit for driving; andthe respective switching means included in the two pixels are connected to the common data line sandwiched between the two pixels and are controlled by different gate lines.
›18.↳ 16A method for driving the image display apparatus according to claim 16, comprising:nscanning the gate lines every two gate lines;reversing the voltage…d3
A method for driving the image display apparatus according to claim 16, comprising:nscanning the gate lines every two gate lines;reversing the voltage polarity of each pixel every one gate line; andreversing the polarity of each transmitted display data every one data line.
›19.↳ 1The image display apparatus according to claim 1, whereinnassuming that a region in which respective pixels in the display units do not overlap each o…d2+1
The image display apparatus according to claim 1, whereinnassuming that a region in which respective pixels in the display units do not overlap each other in the second direction is a non-overlapping region, a width, in the second direction, of a light shielding section in the non-overlapping region is set depending on the average transmittance of a liquid crystal layer in the overlapping region.
›20.↳ 19The image display apparatus according to claim 19, whereinnthe light shielding section is curved in the non-overlapping region; andthe width of the li…d3
The image display apparatus according to claim 19, whereinnthe light shielding section is curved in the non-overlapping region; andthe width of the light shielding section in the second direction is largest in the center of the pixels.
›24.↳ 1A portable device comprising the image display apparatus according to claim 1.d2
A portable device comprising the image display apparatus according to claim 1.