Abstract: An optical system affixed to an electronic apparatus is provided, including a first optical module, a second optical module, and a third optical module. The first optical module is configured to adjust the moving direction of a first light from a first moving direction to a second moving direction, wherein the first moving direction is not parallel to the second moving direction. The second optical module is configured to receive the first light moving in the second moving direction. The first light reaches the third optical module via the first optical module and the second optical module in sequence. The third optical module includes a first photoelectric converter configured to transform the first light into a first image signal.

Abstract: A calibration device includes a calibration member, a handle, a fixing button, and a plurality of first markers. The calibration member includes a calibration body and a calibration groove. The calibration body has a first side and a second side opposite to the first side. The calibration groove is formed on the first side. The handle has a grip portion, and is adjacent to the first side and detachably disposed above the calibration groove. A calibration opening is formed between the handle and the first side. The fixing button is movably arranged in the handle, and has a fixing portion extending toward the calibration groove. The plurality of first markers are disposed on the second side. When the fixing button is pressed, a surgical instrument inserted into the calibration opening is held between the fixing portion and the calibration groove.

Abstract: A medical device is provided. The medical device includes a shaft motor, a parallel manipulator and a shaft coupling. The shaft motor is configured to generate a mechanical force for manipulating a surgical tool. The parallel manipulator includes an end platform used to support the surgical tool, a base platform used to support the shaft motor and a plurality of limbs coupled between the end platform and the base platform. The limbs are configured to control movement of the end platform. The shaft coupling has a first end coupled to the surgical tool and a second end coupled to the shaft motor. The first end is swingable with respect to the second end along a direction, and the shaft coupling is configured to transfer the mechanical force to the surgical tool.

Abstract: A medical device is provided. The medical device includes a parallel manipulator. The parallel manipulator has an end platform coupled to a surgical tool and a base platform coupled to a machine module. The machine module is coupled to the surgical tool through a transmission shaft disposed between the end platform and the base platform. The transmission shaft has a transmission yoke, a runner, a first rod coupled to the transmission yoke, a second rod coupled to the runner, and a universal joint coupled between the first rod and the second rod.

Abstract: A medical device is provided. The medical device includes a shaft motor, a parallel manipulator, a receiving yoke, a runner and a transmission yoke. The shaft motor is configured to generate a mechanical force for manipulating a surgical tool. The parallel manipulator includes an end platform used to support the surgical tool, a base platform used to support the shaft motor and a plurality of limbs coupled between the end platform and the base platform. The limbs are configured to control movement of the end platform. The receiving yoke is coupled to the surgical tool. The runner is slidingly engaged to the shaft motor and configured to receive the mechanical force. The transmission yoke is coupled to the runner and the receiving yoke, and the transmission yoke is configured to transfer the mechanical force to the receiving yoke.

Abstract: A medical device is provided. The medical device includes a shaft motor, a parallel manipulator and a shaft coupling. The shaft motor is configured to generate a mechanical force for manipulating a surgical tool. The parallel manipulator includes an end platform used to support the surgical tool, a base platform used to support the shaft motor and a plurality of limbs coupled between the end platform and the base platform. The limbs are configured to control movement of the end platform. The shaft coupling has a first end coupled to the surgical tool and a second end coupled to the shaft motor. The first end is swingable with respect to the second end along a direction, and the shaft coupling is configured to transfer the mechanical force to the surgical tool.

Abstract: A verification block structure and a verification system for orthopedic surgery are provided. The verification block structure includes a base and an artificial bone block. The base has a carrying portion and a bottom corresponding to the carrying portion. The artificial bone block is detachably fixed to the carrying portion of the base, and a shape or a material of the artificial bone block is determined upon a bone characteristic of a patient and/or a surgical method.

Abstract: A medical device is provided. The medical device includes a parallel manipulator. The parallel manipulator has an end platform coupled to a surgical tool and a base platform coupled to a machine module. The machine module is coupled to the surgical tool through a transmission shaft disposed between the end platform and the base platform. The transmission shaft has a transmission yoke, a runner, a first rod coupled to the transmission yoke, a second rod coupled to the runner, and a universal joint coupled between the first rod and the second rod.

Abstract: A method of fabricating a semiconductor device is provided. In the method, a gate structure is formed on a semiconductor substrate. A photolithography process is performed with a mask having two transparent regions to form a photoresist layer having two openings in the semiconductor substrate. A first photoresist layer of the photoresist layer between the two openings is aligned to the gate structure and formed on the gate structure. The width of the first photoresist layer is shorter than the width of the gate structure such that a first side portion and a second side portion of the gate structure are exposed from both sides of the first photoresist layer, respectively. Next, an ion implantation process is performed to form lightly doped drain regions in the semiconductor substrate which are on two opposite sides of the gate structure of the photoresist layer.

Abstract: A method of fabricating a semiconductor device is provided. In the method, a gate structure is formed on a semiconductor substrate. A photolithography process is performed with a mask having two transparent regions to form a photoresist layer having two openings in the semiconductor substrate. A first photoresist layer of the photoresist layer between the two openings is aligned to the gate structure and formed on the gate structure. The width of the first photoresist layer is shorter than the width of the gate structure such that a first side portion and a second side portion of the gate structure are exposed from both sides of the first photoresist layer, respectively. Next, an ion implantation process is performed to form lightly doped drain regions in the semiconductor substrate which are on two opposite sides of the gate structure of the photoresist layer.

Abstract: A high-voltage semiconductor device is provided. The device includes a semiconductor substrate including a well region of a first conductivity type and an isolation structure in the well region. First and second regions are respectively defined on both sides of the isolation structure. First and second gate structures are respectively disposed on the first and second regions. First and second implant regions of a second conductivity type that is different from the first conductivity type are respectively in the first and second regions and adjacent to the isolation structure. A counter implant region is in the well region under the isolation structure and laterally extends under the first and second implant regions. The counter implant region has the first conductivity type and has a doping concentration that is greater than that of the well region. A method for fabricating the high-voltage semiconductor device is also disclosed.