36results about How to "Without their problem" patented technology

A color conversion type organic EL display can comprise an organic EL substrate that includes a substrate, a lower reflective electrode, a bank, and an organic EL layer sandwiched between the lower reflective electrode and an upper transparent electrode. The color conversion type organic EL display can further comprise a color filter substrate in which a black matrix and a color filter are formed in a pattern on a transparent substrate by a photo process, and which has a pixel region separated by the black matrix. The organic EL substrate and the color filter substrate can be bonded together and positioned such that the pixel region of the EL substrate and the pixel region of the color filter substrate are opposed.

A switching amplifying method or a switching amplifier for obtaining a linearly amplified replica of an input signal, is highly efficient, and does not have the disadvantage of “dead time” problem related to class D amplifiers. Another aspect of the present invention provides a switching amplifier that is completely off when there is no input signal. Yet another aspect of the present invention further comprises an act of comparing an input signal with an output feedback signal for detection and correction of overall system signal processes therefore does not require a power supply regulator and is substantially immune to power supply and load perturbations.

A color conversion type organic EL display can comprise an organic EL substrate that includes a substrate, a lower reflective electrode, a bank, and an organic EL layer sandwiched between the lower reflective electrode and an upper transparent electrode. The color conversion type organic EL display can further comprise a color filter substrate in which a black matrix and a color filter are formed in a pattern on a transparent substrate by a photo process, and which has a pixel region separated by the black matrix. The organic EL substrate and the color filter substrate can be bonded together and positioned such that the pixel region of the EL substrate and the pixel region of the color filter substrate are opposed.

A plural camera images capturing and processing apparatus includes a plurality of cameras that capture images of a plurality of adjacent imaging regions which overlap each other, a plurality of laser devices that give a marker to each common imaging region in which imaging regions overlap each other, an imaging control unit that controls each camera and each laser device and acquires a markerless image group to which no marker is given and a marker-given image group to which the marker is given, a non-visible light image processing unit that calculates a correction parameter, which is information for aligning the inclinations, sizes, and positions of the imaging regions, on the basis of the marker-given image group, and a visible light image processing unit that composes the markerless image group to generate a composite image, on the basis of the correction parameter.

The invention relates to a pre-table system (V) for container handling machines, comprising at least in-feed and out-feed starwheels (A, Z), arranged such as to be driven on support housings (1), defining a starwheel configuration (K) in the pre-table system (V), within which the support housing (1) is fixed to a floor-standing support structure (S) whereby the support structure (S) has a tube and / or profile section frame (6) of sections (7) directly or indirectly detachably connected to each other at points (N) by means of the support housing and floor support feet (8), within which the support housings are arranged in a free-standing manner such that free areas (15) are formed around the support housings and at least some sections (7) may be combined together and with support housings such that the starwheel configurations (K) may be optionally altered.

A method for applying a thin-walled, flat substrate, such as a wafer, to an assembly carrier with a preferably level protective layer, for example a wax. With respect to the protective layer, the substrate is arranged at a spacing and is curved in a convex manner. The substrate is contacted with the protective layer. Finally, the substrate is laid over the entire protective layer from the contact point towards the edge of the substrate.

A lens position adjustment system (10) permits adjustment of the position of a projection lens (5) relative to a projector (100) for making a Scheimpflug adjustment. The projection lens (5) has an optical axis (6). The system (10) comprises: a first support part (20) for fitting to, or forming part of, the projector (100); a second support part (40) for fitting to, or forming part of, the projection lens (5); and a connecting part (30). The connecting part (30) is pivotally connected to the first support part (20) and pivotally connected to the second support part (40) and configured to permit independent adjustment of the second support part (40) relative to the first support part (20) about two axes of rotation (7, 8) which intersect, and are perpendicular to, the optical axis (6) of the projection lens (5). A locking mechanism (28, 29, 51-58) is provided for securing a position of the second support part (40) relative to the first support part (20).

Disclosed is a scan test data compression method and decoding apparatus for multiple-scan-chain designs. The apparatus comprises a on-chip decoder connected to a tester. The decoder includes a decoding buffer configured as a multilayer architecture, a controller, and a switching box for receiving a shift signal or a copy signal. The decoding buffer is used to store decoded test data. While the decoder decodes the encoded data, it transmits control signals to both the decoding buffer and the switching box from the controller, and sends the decoded data to scan chains of a CUT for testing through the decoding buffer. This invention has the advantages of simple encoding method, high compression rate, low power consumption in testing, and without the fault coverage loss.

The invention relates to a transport container (1) comprising a superinsulation in the form of an evacuated insulating container (2) comprising a vacuum maintaining material (55). The transport container is provided with a cooling container (16) comprising a heat-conducting metal wool filling (57) and an organic coolant which undergoes a solid / liquid phase change in the temperature range of between −30° C. and −850° C. and has a heat of fusion of at least 50 J / ml. A slim cylindrical sample chamber (24) is used to receive deep-frozen tissue samples (26), said chamber being surrounded by the cooling container (16) and merging into a long neck opening (25) forming a single component therewith, said opening being largely filled by the insulating shaft (30) of a screwable plug (28) and sealed from the sample chamber (24). The air in the ring gap (32) created can be evacuated by means of an evacuating system (48). The plug (28) is provided with a stopper (38) protruding into the sample chamber (24) and a data logger (41) for recording the temperature in the sample chamber (24). Following the freezing of the coolant, the transport container (1) enables distribution times and intermediate storage of up to 14 days without any risk of damage to the tissue samples (26) received therein.

A switching amplifying method or a switching amplifier for obtaining one or more than one linearly amplified replicas of an input signal, is highly efficient, and does not have the disadvantage of “dead time” problem related to the class D amplifiers. Said switching amplifying method comprises the steps of: receiving the input signal; pulse modulating the input signal for generating a pulse modulated signal; switching a pulsed current from a direct current (DC) voltage according to the pulse modulated signal; conducting said pulsed current positively or negatively to a filter according to the polarity of the input signal; filtering said pulsed current positively or negatively conducted to the filter for outputting an output signal by the filter.

The present invention covers zwitterionic, non-surface-active compounds in the form of carboxymethylated, short-chain dialkylaminoalkylamides and use thereof as therapeutic agent.

A cascaded fuel cell stack (9a) includes a plurality of groups (10-12) of fuel cells (13) connected electrically in series by means of conductive separator plates (58, 59) and current collecting pressure plates (56, 57). Each group has an inlet fuel distributing fuel inlet manifold (17a, 19c, 20c), a fuel exit manifold (19a, 20a) of each group except the last feeding the inlet manifold of each subsequent group. A microcontroller responds to signals from a plurality of voltage sensing devices (48a-48c) to cause corresponding switches (50a-50c) (a) to connect each group, and all preceding groups in the sequence, to a voltage limiting device (VLD) (45), or (b) to connect each group to its own (VLD (45a-45c), in response to sensing a predetermined average cell voltage across the corresponding group. When normal operation occurs, the microcontroller connects the main load and disconnects the voltage limiting device (53) (25).

The present invention comprises novel “one-step” methods for the production of gold sol and gold sol conjugates. The methods disclosed herein produce gold sol and colloidal gold conjugates with product with yields on the order of about 20 ODs. Since current methods in the art yield conjugates at concentrations on the order of about 2 ODs, the present invention represents an approximately 10-fold increase in production over conventional methods. The novel method provided herein also does not result in the production of undesired aggregate by-products that, in conventional methods, must be removed via centrifugation, filtration or other means. The new method is therefore less labor intensive and requires less time to complete than standard methods in the art for synthesizing pure colloidal gold conjugates.

A method for producing a liquid crystal display cell comprising processes of applying a sealing agent on a sealing portion of at least one liquid crystal display cell substrate, dropping liquid crystal on the substrate, and bonding substrates to each other under vacuum, wherein the sealing agent comprising a material to be cured and a curing agent is applied to the sealing portion without mixing the material to be cured and the curing agent, and then the substrates are bonded to each other under vacuum at room temperature to cure the sealing agent, is disclosed. A sealing agent for a liquid crystal display cell wherein the above material to be cured comprise a radically polymerizable resin and an organic peroxide, and the above curing agent comprises a radically polymerizable resin and a decomposition accelerator, is also disclosed.

An improved device for providing the magic touch effect during a double repetition in an upright piano wherein the device comprises a plurality of keys swingably mounted on a keyboard frame and supporting a suitably inclined slanted drive element, which can be screw adjusted and is intercoupled to a slanted swinging arm that operates as a control lever that is pivoted to an abruptly clockwise downstream slanted main bridge having an escapement lever coupled to a butt roller of a hammer, pivoted to a first pillar element, that supports adjusting buttons for adjusting a first and second escapements. The main bridge assembly is coupled to a second pillar element, that is pivoted to the lever of the second escapement.

The present invention comprises novel “one-step” methods for the production of gold sol and gold sol conjugates. The methods disclosed herein produce gold sol and colloidal gold conjugates with product with yields on the order of about 20 ODs. Since current methods in the art yield conjugates at concentrations on the order of about 2 ODs, the present invention represents an approximately 10-fold increase in production over conventional methods. The novel method provided herein also does not result in the production of undesired aggregate by-products that, in conventional methods, must be removed via centrifugation, filtration or other means. The new method is therefore less labor intensive and requires less time to complete than standard methods in the art for synthesizing pure colloidal gold conjugates.

The invention provides a lighting device configured to generate lighting device light, wherein the lighting device light includes an emission band in the visible part of the spectrum which represents at least 80% of the total power (W) of the lighting device light in the visible part of the spectrum, wherein the emission band has a full width half maximum of at maximum 60 nm, and wherein the emission band has a peak maximum (MM3), wherein said emission band includes luminescent material light, wherein the lighting device includes (i) a solid state-based light source, configured to generate light source light having a peak maximum (MX2), and (ii) a luminescent material, configured to convert at least part of the light source light into said luminescent material light, wherein the solid state-based light source is configured to provide said light source light with 0<MM3−MX2<60 nm.