Abstract: The tree planting machine includes a vehicle main unit, a beam, and a plurality of planting devices. The beam is attached to the vehicle main unit along the vehicle width direction, and is longer than the vehicle width of the vehicle main unit. The plurality of planting devices are attached to the beam.

Abstract: A first machine of a tree planting system includes: a cultivator cultivating soil where a plant for tree planting is to be planted; a first traveling device traveling with the cultivator; and a cultivated position detector obtaining and outputting actual cultivated positions corresponding to positions of the cultivator while the cultivator travels with the first traveling device and cultivates the soil. A management device of the tree planting system stores actual cultivated positions. A second machine of the tree planting system includes: a planting device planting a plant in the soil; a second traveling device traveling with the planting device; a planting device position detector obtaining a position of the planting device; and a controller controlling a position of the planting device based on: actual cultivated positions acquired from the management device; and the position of the planting device at the timing when a plant is planted.

Abstract: The tree planting machine includes a vehicle main unit, a washing water tank, a planting device, a washing water circuit, and a controller. The washing water tank is attached to the vehicle main body and holds water. The planting device is disposed on the vehicle main unit. The washing water circuit connects the washing water tank and the planting devices. The controller controls the washing water circuit so as to supply the water from the washing water tank to the planting devices.

Abstract: The tree planting machine includes a vehicle main unit, a washing water tank, a planting device, a washing water circuit, and a controller. The washing water tank is attached to the vehicle main body and holds water. The planting device is disposed on the vehicle main unit. The washing water circuit connects the washing water tank and the planting devices. The controller control s the washing water circuit so as to supply the water from the washing water tank to the planting devices.

Abstract: The tree planting machine includes a vehicle main unit, a beam, and a plurality of planting devices. The beam is attached to the vehicle main unit along the vehicle width direction, and is longer than the vehicle width of the vehicle main unit. The plurality of planting devices are attached to the beam.

Abstract: A first machine of a tree planting system includes: a cultivator cultivating soil where a plant for tree planting is to be planted; a first traveling device traveling with the cultivator; and a cultivated position detector obtaining and outputting actual cultivated positions corresponding to positions of the cultivator while the cultivator travels with the first traveling device and cultivates the soil. A management device of the tree planting system stores actual cultivated positions. A second machine of the tree planting system includes: a planting device planting a plant in the soil; a second traveling device traveling with the planting device; a planting device position detector obtaining a position of the planting device; and a controller controlling a position of the planting device based on: actual cultivated positions acquired from the management device; and the position of the planting device at the timing when a plant is planted.

Abstract: A living body optical measurement apparatus of the present invention includes: a light irradiation/measurement unit for irradiating light to an object and measuring the light passed through the object, a signal processing unit for processing measurement data of the light irradiation/measurement unit and creating a living body optical measurement image, and a position measurement unit for measuring positions where light is irradiated to an object and where the passing light is extracted from the object, the light irradiation/measurement unit includes plural optical fibers. The light irradiation/measurement unit includes plural optical fibers, plural optical fiber plugs attached to the plural optical fibers respectively, and a holder fixed detachably at a measurement site of an object and holds the plural optical fiber plugs.

Abstract: A bulldozer is equipped with a cab, a cooling device, an engine cover, an engine, and an exhaust emission control device. The cooling device is situated behind the cab. The engine cover is situated in front of the cab. The engine is situated inside the engine cover. The engine includes a crank shaft that extends in the longitudinal direction of the bulldozer. The exhaust emission control device includes a main body pipe part and a connecting pipe part connecting to the main body pipe part. The exhaust emission control device cleans the exhaust from the engine inside the main body pipe part. The main body pipe part is situated in the front of the engine. At least a portion of the main body pipe part is situated to overlap with the engine in the front view of the bulldozer.

Abstract: A living body optical measurement apparatus of the present invention includes: a light irradiation/measurement unit for irradiating light to an object and measuring the light passed through the object, a signal processing unit for processing measurement data of the light irradiation/measurement unit and creating a living body optical measurement image, and a position measurement unit for measuring positions where light is irradiated to an object and where the passing light is extracted from the object, the light irradiation/measurement unit includes plural optical fibers. The light irradiation/measurement unit includes plural optical fibers, plural optical fiber plugs attached to the plural optical fibers respectively, and a holder fixed detachably at a measurement site of an object and holds the plural optical fiber plugs.

Abstract: The cab is situated on the body frame. The engine cover is situated in front of the cab. The engine includes the crankshaft extending in the longitudinal direction of the bulldozer. The air cleaner is situated above the engine. The air cleaner is secured to the engine cover. The duct connects the air cleaner and the engine. The duct includes the first connector and the second connector. The first connector is connected to the engine. The second connector is connected to the air cleaner. The front mounting part supports the engine on the body frame. The rear mounting part supports the engine on the body frame. The rear mounting part is situated behind and above the front mounting part.

Abstract: The cab is situated on the body frame. The engine cover is situated in front of the cab. The engine includes the crankshaft extending in the longitudinal direction of the bulldozer. The air cleaner is situated above the engine. The air cleaner is secured to the engine cover. The duct connects the air cleaner and the engine. The duct includes the first connector and the second connector. The first connector is connected to the engine. The second connector is connected to the air cleaner. The front mounting part supports the engine on the body frame. The rear mounting part supports the engine on the body frame. The rear mounting part is situated behind and above the front mounting part.

Abstract: A bulldozer is equipped with a cab, a cooling device, an engine cover, an engine, and an exhaust emission control device. The cooling device is situated behind the cab. The engine cover is situated in front of the cab. The engine is situated inside the engine cover. The engine includes a crank shaft that extends in the longitudinal direction of the bulldozer. The exhaust emission control device includes a main body pipe part and a connecting pipe part connecting to the main body pipe part. The exhaust emission control device cleans the exhaust from the engine inside the main body pipe part. The main body pipe part is situated in the front of the engine. At least a portion of the main body pipe part is situated to overlap with the engine in the front view of the bulldozer.

Abstract: There is provided a biological light measurement device capable of simply displaying a light irradiation position and a light detection position or a three-dimensional position of a measurement channel without measuring the light irradiation position and the light detection position or the three-dimensional position of the measurement channel. The biological light measurement device includes a display unit, which displays a two-dimensional head image selected from the data regarding the head shape and a two-dimensional probe, and a control unit that has a coordinate transformation section, which performs coordinate transformation of the positional information regarding the two-dimensional probe set on the displayed two-dimensional head image and calculates the light irradiation position and the light detection position or the position of the measurement channel on a three-dimensional head image.

Abstract: An optical fiber setting adequacy evaluation unit is disclosed for evaluating a setting adequacy on a body surface in an inspection area of irradiation use optical fibers. The evaluation unit can also be used for setting the accuracy of light receiving use optical fibers at both ends of respective measurement channels in an optical measurement apparatus for living body. The evaluation unit evaluates the setting adequacy on the body surface of a subject of the irradiation use optical fibers or of light receiving use optical fibers for the respective measurement channels. The evaluation is performed based on pulse wave intensities of the respective measurement channels calculated by a pulse wave calculation unit. The pulse wave calculation unit calculates intensities of the pulse wave due to heartbeats of a subject contained in hemoglobin signals of the respective measurement channels calculated by a hemoglobin signal calculation unit.

Abstract: There is provided a biological light measurement device capable of simply displaying a light irradiation position and a light detection position or a three-dimensional position of a measurement channel without measuring the light irradiation position and the light detection position or the three-dimensional position of the measurement channel. The biological light measurement device includes a display unit, which displays a two-dimensional head image selected from the data regarding the head shape and a two-dimensional probe, and a control unit that has a coordinate transformation section, which performs coordinate transformation of the positional information regarding the two-dimensional probe set on the displayed two-dimensional head image and calculates the light irradiation position and the light detection position or the position of the measurement channel on a three-dimensional head image.

Abstract: An optical fiber setting adequacy evaluation unit (115) for evaluating a setting adequacy on a body surface in an inspection area of irradiation use optical fibers (103) or of light receiving use optical fibers (103?) at both ends of respective measurement channels in an optical measurement apparatus for living body (100) evaluates the setting adequacy on the body surface of a subject of the irradiation use optical fibers (103) or of light receiving use optical fibers (103?) for the respective measurement channels based on pulse wave intensities of the respective measurement channels calculated by a pulse wave calculation unit (114) which calculates the intensities of the pulse wave due to heartbeats of a subject contained in hemoglobin signals of the respective measurement channels calculated by a hemoglobin signal calculation unit (113), thereby the setting adequacy is correctly judged.