30results about How to "Reduction size and cost" patented technology

The present invention provides a data processing apparatus and method for a telecommunications system, the apparatus being operable to pass data packets between a first interface connectable to a first transport mechanism and a second interface connectable to a second transport mechanism. The data processing apparatus comprises a plurality of processing elements including the first and second interfaces, and operable to perform predetermined control functions to control the passing of data packets between the first and second interfaces, predetermined connections being provided between the processing elements. A plurality of buffers are provided, with each buffer being operable to store a data packet to be passed between the first and second interfaces, and a plurality of connection queues are also provided, each connection queue being associated with one of the predetermined connections, and being operable to store one or more queue pointers, each queue pointer being associated with a data packet by providing an identifier for the buffer containing that data packet. Each processing element is then responsive to receiving a queue pointer from an associated connection queue to perform its predetermined control functions in respect of the associated data packet, whereby the passing of a data packet between the first and second interfaces is controlled by the routing of the associated queue pointer between a number of the connection queues.

This invention relates to a method and apparatus for separation of rare stable or radioactive isotopes from their atomic or molecular isobars in mass spectrometry (MS). In the present invention, the approach taken to removing atomic isobars utilizes a high transmission device for decelerating ions in combination with low energy reactions, such as ion-molecule reactions or near resonant electron transfer, in RF ion guides. The isobar is selectively depleted by electron transfer or other reactions between negative ions and gaseous targets in pressurized RF ion guides at low energies. The energy is controlled in such a way as to prevent reaction of the ion of interest while inducing reactions with the undesired isobar interference. The technique is of particular relevance to accelerator mass spectrometry (AMS) for which it allows substantial reductions in the necessary terminal voltage. The effect is to allow reductions in the size and cost of AMS installations.

A data processing apparatus, and in particular to a data processing apparatus for use in a telecommunications system is disclosed which seeks to provide an improved technique for handling asynchronous events in a synchronous processing environment. The data processing apparatus comprises a data processing unit operable to process data from a synchronous data stream. The data processing apparatus also comprises conversion logic operable to receive an asynchronous event for processing by the data processing unit, the conversion logic being further operable to create event data representing the asynchronous event for transmission in the synchronous data stream. Providing conversion logic which converts an asynchronous event into event data transmissible within the synchronous data stream enables the data processing unit, when operating in a synchronous environment, to handle the asynchronous event in the same manner as any other synchronous data it may receive. Hence, the operation of the data processing unit can be effectively decoupled from the asynchronous event, the occurrence of which may undesirably affect the performance of the data processing unit.

An imaging lens substantially consists of six lenses of a negative first lens, a negative second lens, a positive third lens, a positive fourth lens, a negative fifth lens and a positive sixth lens in this order from an object side. When a curvature radius of an object-side surface of the fourth lens is R8, and a curvature radius of an image-side surface of the fourth lens is R9, and an Abbe number of the material of the third lens for d-line is νd3, and an Abbe number of the material of the fifth lens for d-line is νd5, the following conditional formulas (1) and (6) are satisfied:−0.61<(R8+R9) / (R8−R9)<0.44  (1); and38.1<νd3+νd5<45.1  (6).

An imaging lens substantially consists of six lenses of a negative first lens, a negative second lens, a positive third lens, a positive fourth lens, a negative fifth lens and a positive sixth lens in this order from an object side. An object-side surface of the second lens is concave, and an object-side surface of the third lens is concave. A predetermined conditional formula about a combined focal length of the fourth lens and the fifth lens is satisfied.

A high frequency electronic component includes a switch and a balun. The switch performs switching between a first transmission signal in the form of an unbalanced signal received at a first input port and a second transmission signal in the form of an unbalanced signal received at a second input port, and outputs one of the first and second transmission signals from an output port. The balun converts the transmission signal in the form of an unbalanced signal outputted form the output port of the switch to a transmission signal in the form of a balanced signal, and outputs this signal to a balanced input power amplifier.

An imaging lens substantially consists of six lenses of a negative first lens, a negative second lens, a positive third lens, a positive fourth lens, a negative fifth lens and a positive sixth lens in this order from an object side. An object-side surface of the second lens has a shape having negative refractive power at a center, and including a part having positive refractive power in an area between the center and an effective diameter edge, and having negative refractive power at the effective diameter edge (concave shape facing the object side), and the refractive power at the effective diameter edge being weaker than the refractive power at the center. Further, an object-side surface of the third lens is convex toward the object side. Further, a predetermined conditional formula about a combined focal length of the first lens, the second lens and the third lens is satisfied.

An imaging lens substantially consists of six lenses of a negative first lens, a negative second lens, a positive third lens, a positive fourth lens, a negative fifth lens and a positive sixth lens in this order from an object side. An object-side surface of the second lens has a shape having negative refractive power at a center, and including a part having positive refractive power in an area between the center and an effective diameter edge, and having negative refractive power at the effective diameter edge (concave shape facing the object side), and the refractive power at the effective diameter edge being weaker than the refractive power at the center. Further, an object-side surface of the third lens is convex toward the object side. Further, a predetermined conditional formula about a combined focal length of the first lens, the second lens and the third lens is satisfied.

An imaging lens substantially consists of six lenses of a negative first lens, a negative second lens, a positive third lens, a positive fourth lens, a negative fifth lens and a positive sixth lens in this order from an object side. When a curvature radius of an object-side surface of the fourth lens is R8, and a curvature radius of an image-side surface of the fourth lens is R9, and an Abbe number of the material of the third lens for d-line is νd3, and an Abbe number of the material of the fifth lens for d-line is νd5, the following conditional formulas (1) and (6) are satisfied:−0.61<(R8+R9) / (R8−R9)<0.44  (1); and38.1<νd3+νd5<45.1  (6).

This invention relates to a method and apparatus for separation of rare stable or radioactive isotopes from their atomic or molecular isobars in mass spectrometry (MS). In the present invention, the approach taken to removing atomic isobars utilizes a high transmission device for decelerating ions in combination with low energy reactions, such as ion-molecule reactions or near resonant electron transfer, in RF ion guides. The isobar is selectively depleted by electron transfer or other reactions between negative ions and gaseous targets in pressurized RF ion guides at low energies. The energy is controlled in such a way as to prevent reaction of the ion of interest while inducing reactions with the undesired isobar interference. The technique is of particular relevance to accelerator mass spectrometry (AMS) for which it allows substantial reductions in the necessary terminal voltage. The effect is to allow reductions in the size and cost of AMS installations.

An electric power steering apparatus includes a power supply and a power supply management unit that controls an operation of the power supply. The power supply includes a main power supply, an auxiliary power supply connected in series to the main power supply, a boost circuit that charges the auxiliary power supply by boosting an output voltage of the main power supply and applying the boosted output voltage to the auxiliary power supply, and a voltage sensor that detects an output voltage of the auxiliary power supply. When a reduction amount per unit time of the output voltage detected by the voltage sensor exceeds a voltage reduction amount over a predetermined time, the power supply management unit determines that an abnormality has occurred in an output destination of the power supply.

Even when an amplifier has a comparatively narrow linear region in a terminal, it is possible to suppress degradation of the transmission characteristic by using single-carrier transmission between the terminal and a relay device while using multi-carrier transmission between the relay device and a base station on an uplink of a communication system. The relay station (1) includes: a single-carrier signal receiving portion (12) which receives a single-carrier signal from the terminal and performs signal processing; a converting portion (13) which converts a time region symbol output from the single-carrier signal receiving portion (12) into a frequency domain symbol; and a multi-carrier signal transmitting portion (14) which makes the symbol converted by the converting portion (13) to be a multi-carrier signal and transmits the multi-carrier signal to the base station.

An imaging lens consists of a negative first lens, a negative second lens, a third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (3) is satisfied:1.0<|f2 / f|<2.6  (3), wheref: a focal length of an entire system, andf2: a focal length of the second lens.

A discharge lamp lighting apparatus includes an input power supply, a power supply circuit, a bridge circuit having switching elements Q1 to Q4 that performs AC operation of a discharge lamp, a lighting circuit, a control circuit that controls the power supply circuit, and a drive circuit that drives bridge circuit. An overcurrent suppressing circuit having a resistance element and a switching element connected to the resistance element in parallel therewith is connected between the negative side of the bridge circuit and the negative side of the power supply circuit, so that the overcurrent suppressing circuit automatically adjusts current flowing to the switching elements and suppresses the overcurrent upon starting the discharge lamp.

A FET of a power supply reverse connection protection section is connected between a battery and an electronic device, and at a time of reverse connection of the battery, the FET is turned off and a parasitic diode of the FET prevents a current flowing in a direction opposite to a direction at a time of normal connection. A transformer is used in a DC / DC converter of a first power supply section that supplies power to a control section, and a voltage generated in a secondary winding is applied to the FET.

In a gaming table (1), image light L1 emitted from a display surface of a liquid crystal module (2) that carries out a dual image display arrives, directly through a window of a frame (4b), at a player in front of the gaming table. Image light L2 emitted from the display surface of the liquid crystal module (2) is reflected by a reflecting surface of a mirror member (3) so as to also arrive at the player through the window of the frame (4b). The player recognizes a first image formed from the image light L1 and a second image formed from the image light L2. Thus, the first and second images are supplied to the player as a background image on the gaming table (1). This makes it possible to realize a gaming machine having a display device that can display a large screen and can reduce the size and cost of the gaming machine.

An electric power steering apparatus includes a power supply and a power supply management unit that controls an operation of the power supply. The power supply includes a main power supply, an auxiliary power supply connected in series to the main power supply, a boost circuit that charges the auxiliary power supply by boosting an output voltage of the main power supply and applying the boosted output voltage to the auxiliary power supply, and a voltage sensor that detects an output voltage of the auxiliary power supply. When a reduction amount per unit time of the output voltage detected by the voltage sensor exceeds a voltage reduction amount over a predetermined time, the power supply management unit determines that an abnormality has occurred in an output destination of the power supply.

An imaging lens includes negative first lens, negative second lens, third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (6) is satisfied:0.75≦(R8−R9) / (R8+R9)≦1.0  (6), whereR8: a curvature radius of an object-side surface of the fourth lens, andR9: a curvature radius of an image-side surface of the fourth lens.

An imaging lens consists of negative first lens, negative second lens of a biconcave shape, third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (11) is satisfied:3.1<R4 / f  (11),whereR4: a curvature radius of an image-side surface of the second lens, andf: a focal length of an entire system.

An imaging lens consists of a negative first lens, a negative second lens, a third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (3) is satisfied: 1.0<|f2 / f|<2.6  (3), where f: a focal length of an entire system, and f2: a focal length of the second lens.

An imaging lens includes a negative first lens, a negative second lens, a third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (4) is satisfied:1.0<D2 / f<2.5  (4),wheref: a focal length of an entire system, andD2: a distance on an optical axis between the first lens and the second lens.

An imaging lens consists of a negative first lens, a negative second lens, a third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (1) is satisfied:2.25<νd2 / νd3  (1), whereνd2: an Abbe number of a material of the second lens for d-line, andνd3: an Abbe number of a material of the third lens for d-line.

An imaging lens consists of negative first lens, negative second lens of a biconcave shape, third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (11) is satisfied: 3.1<R4 / f  (11), where R4: a curvature radius of an image-side surface of the second lens, and f: a focal length of an entire system.

The invention has an object of providing a printing device and a method of controlling the printing device each capable of reducing the number of signal lines necessary for the connection to the circuit board for controlling the head drive circuit. The printing device includes an input / output section adapted to perform input and output of data, a drive circuit adapted to perform printing based on the data from the input / output section, and output the data, which is input from the input / output section, to the input / output section, and a switching section adapted to switch an input direction and an output direction of the data to the drive circuit in accordance with a switching signal, the drive circuit is provided with a first input section and a second input section to which the data is input, a first output section adapted to output the data from the first output section to the input / output section, and a second output section adapted to output the data from the second input section to the input / output section, and the switching section switches, in accordance with the switching signal, between a state in which the data from the input / output section is input to the first input section while the data input to the first input section fails to be output to the input / output section, and a state in which the data from the input / output section is input to the second input section while the data input to the second input section fails to be output to the input / output section.

An imaging lens includes a negative first lens, a negative second lens, a third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (4) is satisfied: 1.0<D2 / f<2.5  (4), where f: a focal length of an entire system, and D2: a distance on an optical axis between the first lens and the second lens.

An imaging lens includes negative first lens, negative second lens, third lens of a plano-convex shape having a convex surface directed toward an object side or of a positive meniscus shape having a convex surface directed toward the object side, and a fourth lens of a plano-convex shape having a convex surface directed toward an image side or of a positive meniscus shape having a convex surface directed toward the image side, which are arranged in this order from the object side. Further, the following conditional formula (6) is satisfied:0.75≦(R8−R9) / (R8+R9)≦1.0  (6), whereR8: a curvature radius of an object-side surface of the fourth lens, andR9: a curvature radius of an image-side surface of the fourth lens.