Abstract: An estimation device (200) generates quality prediction data (540) indicating a quality of a drug substance of a biopharmaceutical manufactured by culturing cells, by inputting, into a prediction model (420), measurement data (510) including a measurement result obtained by measuring a substance in a culturing vessel at least one timing after a predetermined time period has passed since the cells have been seeded in a medium. The prediction model (420) is generated by executing a learning process using training data (530) that includes measurement data including a measurement result obtained by measuring a substance in a culturing vessel at a plurality of timings after seeding of the cells in the medium, and quality data obtained by analyzing a drug substance of the biopharmaceutical manufactured from the cells.

Abstract: A pressure sensor has a stem in which a pressure introduction hole into which a pressure medium is introduced and a diaphragm deformable according to the pressure of the pressure medium are formed, and a strain detecting element which is arranged on the diaphragm via an insulating film and being configured to output a detection signal according to the deformation of the diaphragm. The strain detecting element is configured to have a portion made of polysilicon. A low doping layer having a higher electrical resistivity than polysilicon and a higher crystallinity than the insulating film is arranged between the insulating film and the strain detecting element.

Abstract: The culture medium processing system includes a controller (100) configured to control operation of a sample dispensing part (20), a reagent dispensing part (26) and a transport arm (24) to deproteinize a sample, wherein the controller (100) is configured to dispense a methanol solution into an empty filtration container (50) to perform a conditioning of a filtration filter (52) disposed in the filtration container (50), then dispense a sample into the filtration container (50), add an acetonitrile solution as a deproteinization agent to the sample in the filtration container (50), and then perform a filtration process in the filtration part (30).

Abstract: Disclosed is a method for evaluating if there are genomic abnormalities in cells being tested, the cells being tested being pluripotent stem cells cultivated in a culture medium or cells resulting from the induced differentiation of pluripotent stem cells, the method including a step of measuring the amount of an indicator present in the culture supernatant of the test cells, and a step of evaluating, on the basis of the amount of the indicator present, if there are genomic abnormalities in the test cells, wherein the indicator is at least one selected from the group consisting of deoxycytidine, kynurenine, putrescine, alanine, cysteine, cystathionine, and threonic acid, and whether or not there are genomic abnormalities in the test cells is evaluated on the basis of the amount of the at least one indicator present.

Abstract: The culture medium processing system includes a controller (100) configured to control operation of a sample dispensing part (20), a reagent dispensing part (26) and a transport arm (24) to deproteinize a sample, wherein the controller (100) is configured to dispense a methanol solution into an empty filtration container (50) to perform a conditioning of a filtration filter (52) disposed in the filtration container (50), then dispense a sample into the filtration container (50), add an acetonitrile solution as a deproteinization agent to the sample in the filtration container (50), and then perform a filtration process in the filtration part (30).

Abstract: One cycle of a weaving pattern suitable for the shape and material of the base metal to be welded is taught and stored, and a welding torch is made to weave in accordance with the suitable weaving pattern. Consequently, arc welding can be carried out by using a weaving pattern suitable for a shape and a material of each base metal.

Abstract: An industrial robot has a robot unit (10) comprising a fixed base (12) and movable robot components (16, 18, 20) operatively controlled by driving motors (M.theta., MW, MU, M.alpha., M.beta., M.gamma.) provided with absolute position detecting encoders (EC.theta., ECW, ECU, EC.alpha., EC.beta., EC.gamma.). The swivel body (16) among the movable robot components, mounted on the fixed base (12) is mounted, on its mount, with the driving motor (M.theta.) for operatively controlling the same, and is mounted with and holds a battery (46) for supplying a backup voltage to the encoders of the driving motors (MW, MU, M.alpha., M.beta., M.gamma.) for operatively controlling the movable robot components (18, 20). The battery is connected electrically by cables (48, 49) to the encoders (EC.theta., ECW, ECU, EC.alpha., EC.beta., EC.gamma.).

Abstract: Disclosed is a console panel for a robot, which is provided with a dead-man switch always firmly actuated and easy to hold by the hand and does not cause substantial fatigue of the hand. In this console panel, a pressing plate 9 of a dead-man switch having an elliptical recess 91 on the back surface of the console panel at a position where the tips of the respective fingers simultaneously touch when the console panel is held from the side portion thereof, and this console panel is used for various electrically operated industrial robots.

Abstract: The robot control apparatus according to the present invention is so adapted that, with regard to all kinds of motions commanded of a robot, the maximum velocity and time constant conforming to the type of robot motion can be designated for respective robot control axes (3) by a controller (1) which includes a selection table memory (4).

Abstract: An articulated industrial robot has an articulated horizontal arm assembly which includes horizontal arms (20), a vertically movable shaft (20) mounted on the extremity of the horizontal arm assembly, and a motor for driving the vertically movable shaft. When directly teaching motions to the vertically movable shaft through a direct teaching operation by an operator, the current control unit of a motor control unit for driving the motor for driving the vertically movable shaft is disconnected from a signal line connected to a robot control unit, and a torque calculating circuit is provided for deciding a motor torque corresponding to the sum of the weight of the vertically movable shaft and the respective variable weights of an end effector attached to the lower end of the vertically movable shaft.

Abstract: An industrial robot (10) comprising a cylindrical fixed robot body (14), a swivel body (26) mounted on the fixed robot body (14), a robot arm mechanism (60, 64) pivotally joined to the swivel body (26), and a robot wrist (66) connected to the robot arm mechanism is provided with a cable guide member (30). The cable guide member (30) is extended along the outside of the fixed robot body (14) and has a lower end pivotally joined to the fixed robot body (14) by a lower bearing member (42) and an upper end pivotally joined to the swivel body (26) by an upper bearing member (40). The cables (50) of the industrial robot (10) extending from the lower end of the fixed robot body (14) are held by cable holding section (32) formed in the middle portion of the cable guide member (30) and are extended from the upper end of the cable holding member (30) through the swivel body (26) toward the robot arm mechanism.

Abstract: An industrial robot for use in TIG arc welding or the like includes plastic covers for motors or the like. The plastic covers having an electrically conductive coating, and thus have an electrically conductive property, and are connected to a robot body, to thereby obtain a shielding effect similar to that of iron plate covers or the like.

Abstract: An automatic welding apparatus carrying out an arc sensing operation is provided with a memory (2) storing parameters for arc sensing, and these parameters being rewritten by a manual input before beginning the welding, by an input from an on-line computer during the welding, or at a predetermined time by a program which outputs commands to the automatic welding apparatus (FIG. 6).

Abstract: Provided is a compact first arm (12) of an industrial robot having articulated horizontal arms, which first arm has a direct drive motor (19), an electromagnetic brake (25), and a rotary encoder (34, 36) disposed close to each other concentrically between the first arm (12) and a base post (10) supporting the first arm (12), and has another direct drive motor (39), another electromagnetic brake (45), and another rotary encoder (54, 56) disposed close to each other concentrically between the first arm (12) and a second arm (14) rotatably supported by the first arm (12).

Abstract: A method of starting arc sensing applicable to automatic welding apparatuses carrying out an arc sensing operation, which is a control operation comprising: detecting deviations of a welding electrode from a predetermined path in an up or down direction and right or left direction, by variations of a welding current while welding with a weaving operation; and correcting the deviation.In this method of starting arc sensing, the welding electrode is held in the dwell state while the arc is extremely unstable just after the arc is first generated, a weaving is carried out from a first predetermined time (T.sub.1) after the extreme instability of the arc has been eliminated, a detection and correction by an arc sensing of a deviation in the right and left direction only are carried out from a second predetermined time (T.sub.

Abstract: A system for controlling a robot includes a control portion (7) for supplying a control signal to and receiving a control signal from a servo unit (6) for carrying out a signal supply and a signal feedback to an electric motor (5) for driving a shaft executing a Z-axis linear motion, and threshold value supply portion (8) for supplying a threshold value to the control portion. Based on a comparison between a motor torque instruction value and a threshold value supplied from the threshold value supplying portion, an alarm is delivered and the process subsequently proceeds to a step of dealing with an abnormal condition when said motor torque instruction value becomes greater than a predetermined threshold value.

Abstract: A direct-drive-type multi-articulated robot comprising: a stationary support shaft (14), a cylindrical rotary casing (16) surrounding the stationary support shaft (14), a first robot arm (18) joined to the upper end (16a) of the rotary casing (16), a second robot arm (20) pivotally joined to the extremity of the first robot arm (18), a direct-drive motor (M.theta.) interposed between the lower end of the rotary casing (16) and the lower end of the stationary support shaft (14) to drive the rotary casing (16) and the first robot arm (18) together for turning motion, a brake gear (24) interposed between the upper end (14a) of the stationary support shaft (14) and the first robot arm (18) to arrest the turning motion of the first robot arm (18), and an encoder (26) for detecting turning motion, interposed between the upper end (14a) of the stationary support shaft (14) and the first robot arm (18).

Abstract: The arc current is divided into two areas each corresponding to a 1/4 period of weaving, the two areas are compared with each other, and an area corresponding to a predetermined time period at the end portion of the larger area is substrated from the larger area and another area comparison is performed. The movement of the welding torch is compensated in accordance with the predetermined correction function, so that, even when an actual weld line of base metals to be welded deviates from an instructed weld line, the welding torch is correctly moved along the weld line of the base materials and arc welding is performed.

Abstract: A system for converting the welding conditions of a welding robot includes a numerical control unit, which is for controlling the welding robot (8) and a welding machine (7). A memory (3) is included for storing a calculation sequence of a general expression of a given straight line obtained from an X value of a point (U=0) on the given straight line and the slope of the given straight line on a plane in which a welding condition input value is plotted along the X axis and a command value delivered to a digital/analog converter that applies commands to the welding machine is plotted along the Y axis. A value is obtained by substituting a welding condition input value, which is applied when the welding robot is taught, into the general expression stored in the memory (3), the value obtained being adapted as an output value supplied to the digital/analog converter.

Abstract: An industrial robot comprises a robot body having an operating portion (13), a driving motor (19) for driving the operating portion (13) and the a handle (29). A casing (21) of the driving motor (19) is secured to an outer wall of the robot body by bolts (25), and an output shaft (26) of the driving motor (19) is connected to the operating portion (13). An inner brake device of the driving motor (19) secures the output shaft (26) to the casing (21) when the driving motor (19) is stopped. If the driving motor (19) is stopped by a malfunction or the like, the bolts (25) are taken out and the handle (29) is attached to the casing (21) of the driving motor (19). By operating the handle (29), the output shaft (26) of the driving motor (19) is rotated together with the casing (21) and the operating portion (13) of the robot is moved.