Abstract: In a solar cell module, a first encapsulant and a second encapsulant are provided between a first protective member and a second protective member, and solar cells are provided between the first encapsulant and the second encapsulant. A connecting tab wire cover is laminated on the first encapsulant. A connecting tab wire encapsulant is laminated on the connecting tab wire cover. The multiple solar cells are laminated on the first encapsulant. Through a slit formed on the connecting tab wire encapsulant, fixing members fix a connecting tab wire, which connects multiple solar cells, and the connecting tab wire cover.

Abstract: A solar cell module includes: a substrate; a back sheet; a plurality of solar cells arranged between the substrate and the back sheet; a transition wire common-connecting tab wires connected to the plurality of solar cells; a concealment sheet covering the transition wire from a substrate side; and a filling member filling at least a space between the transition wire and the concealment sheet, wherein the concealment sheet includes: a first sheet layer in contact with the filling member; and a second sheet layer placed over the first sheet layer, the first sheet layer and the second sheet layer are each made of any of: a material of a same type of color as a material of the back sheet or the filling member; a transparent material; and a semitransparent material, and the first sheet layer has adhesiveness to the filling member.

Abstract: In a solar cell module, a first encapsulant and a second encapsulant are provided between a first protective member and a second protective member, and solar cells are provided between the first encapsulant and the second encapsulant. A connecting tab wire cover is laminated on the first encapsulant. A connecting tab wire encapsulant is laminated on the connecting tab wire cover. The multiple solar cells are laminated on the first encapsulant. Through a slit formed on the connecting tab wire encapsulant, fixing members fix a connecting tab wire, which connects multiple solar cells, and the connecting tab wire cover.

Abstract: When causing manual movement of a moving section of a machine tool, shape data of the moving section is made to move in a movement direction that has been input manually, and it is confirmed whether there is no interference with shape data of a surrounding interfering object. If interference occurs, a position returned a specified distance from the position where interference occurs is made a stop position, the moving section is moved to this stop position, and stopped at that position.

Abstract: In a position measuring device in which data, which requires buffering, may be held without accommodating a high-capacitance capacitor in the inside of the encoder, a backup current source may be exchanged while the circuits required for the operating capability state remain operable. In addition, current usage during the buffering time may be held low, and the service life of the backup current source may be extended, so that the demand for maintenance may be reduced. The position measuring device may include an encoder main part, arranged to measure the extent of the shift in position of an object to be measured, and a backup current source arranged to supply backup current when main current source, that supplies encoder main part with current, is interrupted. Outside of the encoder main part, an auxiliary current source is provided which, during the exchange of a main battery of the backup current source, undertakes supplying backup current in place of this main battery.

Abstract: To provide a low-cost magnetic detection circuit, in which the differential detection function accomplished by outputting differential signals may not be lost, and which may be hardly affected by temperature fluctuations and may be resistant to noise, and in which the number of magnetic detection elements may be reduced, and to provide an encoder, the costs of which may be further reduced by using such a magnetic detection circuit for the multi-revolution detection part, etc., a magnetic detection circuit includes a bridge circuit formed by two bridge sections between the current-source terminal and the grounding terminal. The first bridge section and the second bridge section of the bridge circuit include magnetic detection elements MR1, MR2, respectively, and, viewed from the output-signal output points, the magnetic detection elements MR1, MR2 in the two bridge sections are arranged on only one of the sides that include the current-source side and the grounding-terminal side.

Abstract: A modular encoder includes an encoder housing and a printed circuit board mounted in the encoder housing. The modular encoder also includes a mounting bracket adapted to electrically couple to the printed circuit board and a mounting screw adapted to couple the encoder housing to a motor and to electrically couple the mounting bracket to the motor.

Abstract: A modular encoder includes an encoder housing and a printed circuit board mounted in the encoder housing. The modular encoder also includes a mounting bracket adapted to electrically couple to the printed circuit board and a mounting screw adapted to couple the encoder housing to a motor and to electrically couple the mounting bracket to the motor.

Abstract: When causing manual movement of a moving section of a machine tool, shape data of the moving section is made to move in a movement direction that has been input manually, and it is confirmed whether there is no interference with shape data of a surrounding interfering object. If interference occurs, a position returned a specified distance from the position where interference occurs is made a stop position, the moving section is moved to this stop position, and stopped at that position.

Abstract: In a position measuring device in which data, which requires buffering, may be held without accommodating a high-capacitance capacitor in the inside of the encoder, a backup current source may be exchanged while the circuits required for the operating capability state remain operable. In addition, current usage during the buffering time may be held low, and the service life of the backup current source may be extended, so that the demand for maintenance may be reduced. The position measuring device may include an encoder main part, arranged to measure the extent of the shift in position of an object to be measured, and a backup current source arranged to supply backup current when main current source, that supplies encoder main part with current, is interrupted. Outside of the encoder main part, an auxiliary current source is provided which, during the exchange of a main battery of the backup current source, undertakes supplying backup current in place of this main battery.

Abstract: A rotation number data detection-type encoder may reduce costs and power consumption by reducing the number of expensive magnetic detection elements. An encoder main body for measuring the displacement magnitude of a measured object includes a rotation detection portion for counting n rotations (an integer not including n=0) of the measured object and a displacement magnitude detection portion for measuring the displacement magnitude of the measured object. The rotation detection portion has a magnetic detection portion for detecting the magnetic change in a magnetic rotating body and an optical detection portion for detecting a slit in an encoding plate.

Abstract: To provide a low-cost magnetic detection circuit, in which the differential detection function accomplished by outputting differential signals may not be lost, and which may be hardly affected by temperature fluctuations and may be resistant to noise, and in which the number of magnetic detection elements may be reduced, and to provide an encoder, the costs of which may be further reduced by using such a magnetic detection circuit for the multi-revolution detection part, etc., a magnetic detection circuit includes a bridge circuit formed by two bridge sections between the current-source terminal and the grounding terminal. The first bridge section and the second bridge section of the bridge circuit include magnetic detection elements MR1, MR2, respectively, and, viewed from the output-signal output points, the magnetic detection elements MR1, MR2 in the two bridge sections are arranged on only one of the sides that include the current-source side and the grounding-terminal side.

Abstract: In a tracking apparatus for tracking an object by the use of a plurality of detecting data sets supplied from a detecting device, a velocity presuming portion is provided together with a position presuming portion. The position presuming portion finds a presumed position of the object at the latest detecting time of the detecting data sets by the use of the latest detecting time and regression curves found on the basis of the detecting data sets. The velocity presuming portion finds a presumed velocity of the object at the latest detecting time by the use of the regression curves and at least one of former detecting times different from the latest detecting time.

Abstract: In a tracking apparatus for tracking an object by the use of a plurality of detecting data sets supplied from a detecting device, a velocity presuming portion is provided together with a position presuming portion. The position presuming portion finds a presumed position of the object at the latest detecting time of the detecting data sets by the use of the latest detecting time and regression curves found on the basis of the detecting data sets. The velocity presuming portion finds a presumed velocity of the object at the latest detecting time by the use of the regression curves and at least one of former detecting times different from the latest detecting time.