Abstract: A steering lock device includes a position detector that detects a position of a lock member. The position detector includes a first unlock detecting portion of a digital output type that detects that the lock member is located in an unlock position and a second unlock detecting portion of an analog output type that detects that the lock member is located in an intermediate position, which is between a lock position and the unlock position. A position determination portion determines whether or not the lock member is located in the unlock position based on a detection signal of the first unlock detecting portion and a detection signal of the second unlock detecting portion, which has a parabolic output waveform that changes in accordance with movement of the lock member.

Abstract: A voice recognition device includes a memory and a processor. The processor is configured to store in the memory, digital voice data corresponding to a voice signal input from a voice input unit, recognize a spoken voice utterance from the voice data after a voice input start instruction is received, determine whether to correct the recognition result of the spoken voice utterance based on a time interval from a time when the voice input start instruction is received to a time when the voice signal is input via the voice input unit, and correct the recognition result of the voice utterance based on the time interval.

Abstract: A wire bonding apparatus includes: a bonding tool 40 into and through a wire 42 passes; a control unit 80 that performs a movement process of the bonding tool 40 for cutting the wire 42 after forming a wire loop 90 between first and second bonding points of a bonding target 100; and a monitoring unit 70 that supplies a predetermined electric signal between the wire 42 through the bonding tool 40 and the bonding target 100, and monitors whether the wire 42 is cut or not based on an output of the supplied electric signal. The control unit 80 continues the movement process of the bonding tool 40 while the wire 42 is determined not to be cut, and stops the movement process of the bonding tool 40 when the wire 42 is determined to be cut, based on a monitoring result from the monitoring unit 70. This can shorten the operation time of the wire bonding, and improve the process efficiency of the wire bonding.

Abstract: A semiconductor device manufacturing method includes: raising and moving a bonding tool, while paying out a wire, in a direction from a second toward a first bonding point to form in the wire a cut portion bent in a vicinity of the second bonding point; lowering and moving a tip of the bonding tool to the cut portion; lowering the bonding tool vertically to thin the cut portion; raising the bonding tool while paying out the wire; and moving the bonding tool in a direction away from the first and second bonding points and along a wire direction connecting the first and second bonding points and then cutting the wire at the cut portion to form a wire tail. This allows the length of the wire tail to be adjusted easily and efficiently to be constant.

Abstract: Provided is a wire-bonding apparatus (10) including: a capillary (28) through which a wire (30) inserted; and a controller (80). The controller (80) is configured to execute operations including: a disconnection operation, after the second bonding operation, of moving the capillary through which the wire is inserted within a horizontal plane vertical to an axial direction of the capillary while the wire is held in the clamped state, and thereby disconnecting the wire from the second bonding point; a preliminary bonding operation of feeding the wire from the second bonding point to a predetermined preliminary bonding point, and performing preliminary bonding at the preliminary bonding point; and a shaping operation, after the preliminary bonding operation, of shaping the wire projecting from a tip of the capillary into a predetermined flexed shape.

Abstract: A POS terminal includes a display device, a sensor, and a processor configured to determine an amount of merchandise based on a signal output from the sensor, determine a display pattern of a plurality of content images based on the determined amount of merchandise, and control the display device to display the content images according to the determined display pattern.

Abstract: A semiconductor device manufacturing method includes: raising and moving a bonding tool, while paying out a wire, in a direction from a second toward a first bonding point to form in the wire a cut portion bent in a vicinity of the second bonding point; lowering and moving a tip of the bonding tool to the cut portion; lowering the bonding tool vertically to thin the cut portion; raising the bonding tool while paying out the wire; and moving the bonding tool in a direction away from the first and second bonding points and along a wire direction connecting the first and second bonding points and then cutting the wire at the cut portion to form a wire tail. This allows the length of the wire tail to be adjusted easily and efficiently to be constant.

Abstract: A method of manufacturing a semiconductor device includes: a wire tail forming step of forming a wire loop 130 between a first bonding point and a second bonding point with a bonding tool 40, and then cutting a portion of a wire 42 extending from a tip of the bonding tool 40 to thereby form a wire tail 43 at the tip of the bonding tool 40; and a wire tail bending step of bending the wire tail 43 so as to direct a tip 43a of the wire tail 43 upward by descending the bonding tool 40 toward the second bonding point with the wire loop 130 formed thereat and pressing the wire tail 43 against a portion of the wire loop 130 located above the second bonding point. Thus, the wire tail can be bent easily and efficiently.

Abstract: A wire bonding apparatus includes: a bonding tool 40 into and through a wire 42 passes; a control unit 80 that performs a movement process of the bonding tool 40 for cutting the wire 42 after forming a wire loop 90 between first and second bonding points of a bonding target 100; and a monitoring unit 70 that supplies a predetermined electric signal between the wire 42 through the bonding tool 40 and the bonding target 100, and monitors whether the wire 42 is cut or not based on an output of the supplied electric signal. The control unit 80 continues the movement process of the bonding tool 40 while the wire 42 is determined not to be cut, and stops the movement process of the bonding tool 40 when the wire 42 is determined to be cut, based on a monitoring result from the monitoring unit 70. This can shorten the operation time of the wire bonding, and improve the process efficiency of the wire bonding.

Abstract: Provided is a wire-bonding apparatus 10 including a capillary 28 through which a wire 30 is inserted, a nonsticking determination circuit 36, and a controller 80. The nonsticking determination circuit 36 applies a predetermined alternating-current electrical signal between the wire held by the capillary and the bonding target, obtains a capacitance value between the wire held by the capillary and the bonding target, determines that the wire is disconnected from the bonding target when the capacitance value decreases after the first bonding operation, and determines that the disconnected wire drops down and is brought into contact with the bonding target when the capacitance value returns to an original value before reaching the second bonding point.

Abstract: A semiconductor device includes a common wire that sequentially connects three or more pads; bonding portions at which a side surface of the wire is bonded to the pads; and looping portions looped from the bonding portions onto the other pads adjacent to the pads, the bonding portions and the looping portions are formed alternately. When the pads are recessed from the surface of semiconductor chips, the common wire is crushed to a thickness greater than the recess depth of the pads to be made into a flat shape. Thus, on the semiconductor device, wire connection is performed with a smaller bonding count while reducing damage to the semiconductor chips, and at the same time bonding is performed efficiently to the electrodes recessed from the surface of the semiconductor chips.

Abstract: Provided is a wire-bonding apparatus (10) including: a capillary (28) through which a wire (30) is inserted; a nonsticking determination circuit (36) configured to apply a predetermined electrical signal between a bonding target and the wire (30) in a clamped state and to determine whether or not the wire (30) and the bonding target is sticking as well as whether or not the wire (30) is disconnected based on a response of the application of the predetermined electrical signal; an annular projecting length detection ring (40) disposed coaxially with the capillary (28); and a projecting length determination circuit (38) configured to determine whether or not a projecting length of a wire tail projecting from the tip of the capillary (28) is appropriate based on detection on whether or not power is conductive when a predetermined inspection voltage is applied between the wire (30) and the projecting length detection ring (40) as well as a presence of a discharge spark when a predetermined inspection high voltage

Abstract: Provided is a wire bonding apparatus capable of performing high-speed wedge wire bonding, the apparatus including: a bonding tool having a through hole and a pressing surface for pressing a wire; a clamper for holding the wire; and a control unit. The control unit includes: wire tail extension unit that moves the bonding tool, after wedge bonding of the wire to a first lead, upward and along a second straight line connecting a second pad and a second lead, and causes the wire to extend from the through hole in a direction along the second straight line from the second pad to the second lead; and tail cut unit that, after causing the wire tail to extend, cuts the wire tail by moving the bonding tool in the direction along the second straight line connecting the second pad and the second lead while the clamper is closed.

Abstract: Provided is a wire bonding apparatus capable of performing high-speed wedge wire bonding, the apparatus including: a bonding tool having a through hole and a pressing surface for pressing a wire; a clamper for holding the wire; and a control unit. The control unit includes: wire tail extension unit that moves the bonding tool, after wedge bonding of the wire to a first lead, upward and along a second straight line connecting a second pad and a second lead, and causes the wire to extend from the through hole in a direction along the second straight line from the second pad to the second lead; and tail cut unit that, after causing the wire tail to extend, cuts the wire tail by moving the bonding tool in the direction along the second straight line connecting the second pad and the second lead while the clamper is closed.

Abstract: A semiconductor device includes a common wire that sequentially connects three or more pads; bonding portions at which a side surface of the wire is bonded to the pads; and looping portions looped from the bonding portions onto the other pads adjacent to the pads, the bonding portions and the looping portions are formed alternately. When the pads are recessed from the surface of semiconductor chips, the common wire is crushed to a thickness greater than the recess depth of the pads to be made into a flat shape. Thus, on the semiconductor device, wire connection is performed with a smaller bonding count while reducing damage to the semiconductor chips, and at the same time bonding is performed efficiently to the electrodes recessed from the surface of the semiconductor chips.

Abstract: Provided is a wire-bonding apparatus (10) including: a capillary (28) through which a wire (30) inserted; and a controller (80). The controller (80) is configured to execute operations including: a disconnection operation, after the second bonding operation, of moving the capillary through which the wire is inserted within a horizontal plane vertical to an axial direction of the capillary while the wire is held in the clamped state, and thereby disconnecting the wire from the second bonding point; a preliminary bonding operation of feeding the wire from the second bonding point to a predetermined preliminary bonding point, and performing preliminary bonding at the preliminary bonding point; and a shaping operation, after the preliminary bonding operation, of shaping the wire projecting from a tip of the capillary into a predetermined flexed shape.

Abstract: Provided is a wire-bonding apparatus 10 including a capillary 28 through which a wire 30 is inserted, a nonsticking determination circuit 36, and a controller 80. The nonsticking determination circuit 36 applies a predetermined alternating-current electrical signal between the wire held by the capillary and the bonding target, obtains a capacitance value between the wire held by the capillary and the bonding target, determines that the wire is disconnected from the bonding target when the capacitance value decreases after the first bonding operation, and determines that the disconnected wire drops down and is brought into contact with the bonding target when the capacitance value returns to an original value before reaching the second bonding point.

Abstract: Provided is a wire-bonding apparatus (10) including: a capillary (28) through which a wire (30) is inserted; a nonsticking determination circuit (36) configured to apply a predetermined electrical signal between a bonding target and the wire (30) in a clamped state and to determine whether or not the wire (30) and the bonding target is sticking as well as whether or not the wire (30) is disconnected based on a response of the application of the predetermined electrical signal; an annular projecting length detection ring (40) disposed coaxially with the capillary (28); and a projecting length determination circuit (38) configured to determine whether or not a projecting length of a wire tail projecting from the tip of the capillary (28) is appropriate based on detection on whether or not power is conductive when a predetermined inspection voltage is applied between the wire (30) and the projecting length detection ring (40) as well as a presence of a discharge spark when a predetermined inspection high voltage

Abstract: Provided is a wire bonding apparatus capable of performing high-speed wedge wire bonding, the apparatus including: a bonding tool having a through hole and a pressing surface for pressing a wire; a clamper for holding the wire; and a control unit. The control unit includes: wire tail extension unit that moves the bonding tool, after wedge bonding of the wire to a first lead, upward and along a second straight line connecting a second pad and a second lead, and causes the wire to extend from the through hole in a direction along the second straight line from the second pad to the second lead; and tail cut unit that, after causing the wire tail to extend, cuts the wire tail by moving the bonding tool in the direction along the second straight line connecting the second pad and the second lead while the clamper is closed.

Abstract: According to one embodiment, the flow line recognition system includes a first device, a first recording unit, a second device, a second recording unit and a generation unit. The first device detects a position of a moving object in a monitoring area by laser scanning. The second device detects a position of the moving object in a specific area, which is a part of the monitoring area, more accurately than the first device. The generation unit generates flow line information indicative of a path of the moving object moving in the monitoring area, based on the moving object information for the monitoring area recorded in the first recording unit, and the moving object information for the specific area recorded in the second recording unit.