mhurhangee/ep-ind-claims huggingface dataset:
An optical phase modulator (100, 200, 600, 700, 800, 900, 1000, 1100, 1200, 1500, 1800, 2100) comprising a rib-type waveguide structure (110, 210, 610, 710, 810, 910, 1010, 1110, 1210, 1510, 1810, 2110) and a cladding (120, 620, 720, 820, 920, 1020, 1120, 1220, 1520, 1820, 2120), wherein the rib-type waveguide structure (110, 210, 610, 710, 810, 910, 1010, 1110, 1210, 1510, 1810, 2110) comprises: a PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530;1532, 1830;1832, 2130;2132) or a PIN junction that comprises Si or Si 1-y Ge y,, where 0 ≤ y ≤ 1, and is formed in a lateral direction on a substrate (102, 602, 702, 802, 902, 1002, 1102, 1202, 1502, 1802, 2102); and a Si 1-x Ge x layer (108, 208, 608, 708, 808, 908, 1008, 1108, 1208, 1508, 1808, 2108), where 0 ≤ x ≤ 1, that comprises at least one layer, is doped by an impurity to exhibit a first conductivity type or a second conductivity type, where conductivity type is n-type and p-type, and is stacked on the PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530;1532, 1830;1832, 2130;2132) or the PIN junction to be electrically connected to the PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530; 1532, 1830;1832, 2130;2132) or the PIN junction and in contact with both sides of the PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530;1532, 1830;1832, 2130;2132) or the PN junction, and wherein the cladding (120, 620, 720, 820, 920, 1020, 1120, 1220, 1520, 1820, 2120) is in contact with the Si 1-x Ge x layer. a PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530;1532, 1830;1832, 2130;2132) or a PIN junction that comprises Si or Si 1-y Ge y,, where 0 ≤ y ≤ 1, and is formed in a lateral direction on a substrate (102, 602, 702, 802, 902, 1002, 1102, 1202, 1502, 1802, 2102); and a Si 1-x Ge x layer (108, 208, 608, 708, 808, 908, 1008, 1108, 1208, 1508, 1808, 2108), where 0 ≤ x ≤ 1, that comprises at least one layer, is doped by an impurity to exhibit a first conductivity type or a second conductivity type, where conductivity type is n-type and p-type, and is stacked on the PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530;1532, 1830;1832, 2130;2132) or the PIN junction to be electrically connected to the PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530; 1532, 1830;1832, 2130;2132) or the PIN junction and in contact with both sides of the PN junction (106, 206, 606, 706, 806, 906, 1006, 1106, 1230; 1232, 1530;1532, 1830;1832, 2130;2132) or the PN junction, and wherein the cladding (120, 620, 720, 820, 920, 1020, 1120, 1220, 1520, 1820, 2120) is in contact with the Si 1-x Ge x layer.
A solder composition having a solidus temperature in a range between about 120°C and about 145°C, and having a liquidus temperature in a range between 130°C and about 155°C, and having a mixture of elements consisting of: 11% to 17% by weight tin; 0.5% to 3% by weight antimony; 0.5% to 1.5% by weight copper; 0.5% to 5% by weight nickel; 72% to 77% by weight indium; 4% to 8.5% by weight silver; and 0.3% to 1.5% by weight zinc. 11% to 17% by weight tin; 0.5% to 3% by weight antimony; 0.5% to 1.5% by weight copper; 0.5% to 5% by weight nickel; 72% to 77% by weight indium; 4% to 8.5% by weight silver; and 0.3% to 1.5% by weight zinc.
A method of identifying a component of genetic material, the method comprising the steps of: (a) contacting a composition comprising a cell or capsid with a composition comprising: (i) a quaternary ammonium compound; (b) contacting the composition obtained in step (a) with a composition comprising an proteinaceous washing agent; and (c) using the material obtained in step (b) in an amplification method; wherein there are no purification steps between step (b) and step (c); wherein in step (b) the composition obtained in step (a) is added to a composition comprising the proteinaceous washing agent in a ratio of from 10:1 to 1:100. (a) contacting a composition comprising a cell or capsid with a composition comprising: (i) a quaternary ammonium compound; (i) a quaternary ammonium compound; (b) contacting the composition obtained in step (a) with a composition comprising an proteinaceous washing agent; and (c) using the material obtained in step (b) in an amplification method;
A vibrating actuator, comprising: a stationary magnetic part including at least two magnets arranged with same polarities facing each other; a movable receiving part including a hollow member with a cavity for receiving the magnetic part and having two open ends such that the hollow member forms a tube and at least one coil wrapped around the hollow member and fixed thereto; elastic means interconnecting the magnetic part and the hollow member; a stationary chassis; and stationary attachment means (8, 10), wherein the stationary magnetic part is fixed to the stationary chassis via the stationary attachment means (8, 10); characterized in that the elastic means are attached to the hollow member on both open ends thereof and to the attachment means at the longitudinally outer ends of the arrangement of magnets; and wherein the movable receiving part performs a linear movement with changing direction causing the vibration when an alternating current passes through the at least one coil. a stationary magnetic part including at least two magnets arranged with same polarities facing each other; a movable receiving part including a hollow member with a cavity for receiving the magnetic part and having two open ends such that the hollow member forms a tube and at least one coil wrapped around the hollow member and fixed thereto; a hollow member with a cavity for receiving the magnetic part and having two open ends such that the hollow member forms a tube and at least one coil wrapped around the hollow member and fixed thereto; elastic means interconnecting the magnetic part and the hollow member; a stationary chassis; and stationary attachment means (8, 10), wherein the stationary magnetic part is fixed to the stationary chassis via the stationary attachment means (8, 10); characterized in that the elastic means are attached to the hollow member on both open ends thereof and to the attachment means at the longitudinally outer ends of the arrangement of magnets; and wherein the movable receiving part performs a linear movement with changing direction causing the vibration when an alternating current passes through the at least one coil.
A computer readable medium having stored thereon computer executable instructions for supplying a spray system configuration for a user application, the medium comprising instructions for: receiving a set of application parameters including an application geometry and a fluid identification for the spray system; converting the received fluid identification to an estimated fluid parameter set, wherein the estimated fluid parameter set includes one or more parameters that at least approximate physical characteristics of the fluid corresponding to the fluid identification including a viscosity and a surface tension of the fluid; characterized in that: based on the application geometry and the estimated fluid parameter set, calculating a solution geometry and a solution parameter set, wherein the solution geometry comprises a specified number and type of spray nozzles, a spray angle, a nozzle capacity and corresponding flow rate and pressure specifications at which the fluid is supplied to the spray nozzles relative to the application geometry and providing the solution geometry to the user. receiving a set of application parameters including an application geometry and a fluid identification for the spray system; converting the received fluid identification to an estimated fluid parameter set, wherein the estimated fluid parameter set includes one or more parameters that at least approximate physical characteristics of the fluid corresponding to the fluid identification including a viscosity and a surface tension of the fluid; characterized in that: based on the application geometry and the estimated fluid parameter set, calculating a solution geometry and a solution parameter set, converting the received fluid identification to an estimated fluid parameter set, wherein the estimated fluid parameter set includes one or more parameters that at least approximate physical characteristics of the fluid corresponding to the fluid identification including a viscosity and a surface tension of the fluid; based on the application geometry and the estimated fluid parameter set, calculating a solution geometry and a solution parameter set, wherein the solution geometry comprises a specified number and type of spray nozzles, a spray angle, a nozzle capacity and corresponding flow rate and pressure specifications at which the fluid is supplied to the spray nozzles relative to the application geometry and providing the solution geometry to the user.
A system for controlling a left univentricular pacing therapy using an implantable medical device, the system comprising: electrodes (122, 123, 126 1 -126 4, 132, 134) configured to be located at an atrial site, left ventricular site and right ventricular site of the heart; memory (260, 1204, 1206, 1208) to store program instructions; one or more processors (220, 1202) configured to implement the program instructions to: determine a conduction different Δ based on i) an atrial-ventricular conduction delay (AR RV) between the A site and the RV site, and ii) an atrial-ventricular conduction delay (AR LV) between the A site and the LV site; determine a correction term ε based on intrinsic inter-ventricular conduction delay (IVCD) between the LV and RV; set an LV atrial-ventricular pacing (AV LV) delay based on an interventricular pacing delay that is set based on the following: VV=FCTR(Δ ∗ W 1 + ε ∗ W 2 + PL ∗ W 3), where FCTR is any desired non-zero number, W 1 - W 3 represent weighting factors and PL is a pacing latency; and manage the LUV pacing therapy based on the AV LV delay, wherein the LUV pacing therapy lacks pacing in the RV, wherein the memory (260, 1204, 1206, 1208) is configured to store the AV LV delay. electrodes (122, 123, 126 1 -126 4, 132, 134) configured to be located at an atrial site, left ventricular site and right ventricular site of the heart; memory (260, 1204, 1206, 1208) to store program instructions; one or more processors (220, 1202) configured to implement the program instructions to: determine a conduction different Δ based on i) an atrial-ventricular conduction delay (AR RV) between the A site and the RV site, and ii) an atrial-ventricular conduction delay (AR LV) between the A site and the LV site; determine a correction term ε based on intrinsic inter-ventricular conduction delay (IVCD) between the LV and RV; set an LV atrial-ventricular pacing (AV LV) delay based on an interventricular pacing delay that is set based on the following: VV=FCTR(Δ ∗ W 1 + ε ∗ W 2 + PL ∗ W 3), where FCTR is any desired non-zero number, W 1 - W 3 represent weighting factors and PL is a pacing latency; and manage the LUV pacing therapy based on the AV LV delay, wherein the LUV pacing therapy lacks pacing in the RV, wherein the memory (260, 1204, 1206, 1208) is configured to store the AV LV delay. determine a conduction different Δ based on i) an atrial-ventricular conduction delay (AR RV) between the A site and the RV site, and ii) an atrial-ventricular conduction delay (AR LV) between the A site and the LV site; determine a correction term ε based on intrinsic inter-ventricular conduction delay (IVCD) between the LV and RV; set an LV atrial-ventricular pacing (AV LV) delay based on an interventricular pacing delay that is set based on the following: VV=FCTR(Δ ∗ W 1 + ε ∗ W 2 + PL ∗ W 3), where FCTR is any desired non-zero number, W 1 - W 3 represent weighting factors and PL is a pacing latency; and manage the LUV pacing therapy based on the AV LV delay, wherein the LUV pacing therapy lacks pacing in the RV, wherein the memory (260, 1204, 1206, 1208) is configured to store the AV LV delay.
A wireless terminal comprising; a processor configured: to determine a set of plural pools of resources based on broadcast information, each of the plural pools of resources comprising time-frequency resources; to select a pool of resources from the set of plural pools of resources based on a mapping relationship between priorities and the plural pools of resources signaled from higher layer; and to select, from the selected pool of resources, one or more radio resource[s] used for a sidelink direct transmission data, wherein the wireless terminal further comprises a memory configured to store the broadcast information specifying the set of the plural pools of resources, and wherein the broadcast information specifying the set of the plural pools of resources is configured by a communication network. to determine a set of plural pools of resources based on broadcast information, each of the plural pools of resources comprising time-frequency resources; to select a pool of resources from the set of plural pools of resources based on a mapping relationship between priorities and the plural pools of resources signaled from higher layer; and to select, from the selected pool of resources, one or more radio resource[s] used for a sidelink direct transmission data, wherein the wireless terminal further comprises a memory configured to store the broadcast information specifying the set of the plural pools of resources, and wherein the broadcast information specifying the set of the plural pools of resources is configured by a communication network.
A boundary tarpaulin for autility vehicle body, in particular a tarpaulin semi-trailer, having multiple reinforcement elements, which each have a first strap and, to reduce the strain on the boundary tarpaulin, at least one second strap, the second strap being arranged on the first strap, characterised in that the two straps (11, 12) are arranged one on top of the other along their entire length, wherein the second strap is welded on the first strap, or wherein the second strap is arranged loosely on the first strap and is guided in a tarpaulin pocket.
A mixing appliance for preparing a ready-to-use mass consisting of at least one component (B or H), to be thoroughly mixed before use, in a cartridge with a tubular mixing rod, wherein - the cartridge has a storage and mixing chamber with compensating piston for at least one of the components (B or H) of the mass, - the tubular mixing rod engages, at a bottleneck-like portion of the cartridge, the storage and mixing chamber in a rotatable and laterally displaceable manner, - the tubular mixing rod has a mixing head at its end in the storage and mixing chamber and - the tubular mixing rod has a plate-shaped coupling element at the external end, having - a cartridge receiver for the insertion of the cartridge to be prepared, - a counter-pressure cylinder, associated with the cartridge receiver, for pressure action upon the compensating piston of the cartridge, - a mixing lifting cylinder for lateral motion of the cartridge receiver, - a fixedly arranged holding means for the coupling element of the mixing rod, which element receives the mixing rod in a manner which is rotatable yet is fixed in a longitudinal direction, and - a drive means for generating a rotary motion about a longitudinal axis between mixing rod and cartridge relatively, wherein the cartridge receiver has a clamping means for the cartridge, characterised in that the cartridge is clampable at the bottleneck-like portion by means of the clamping means. - the cartridge has a storage and mixing chamber with compensating piston for at least one of the components (B or H) of the mass, - the tubular mixing rod engages, at a bottleneck-like portion of the cartridge, the storage and mixing chamber in a rotatable and laterally displaceable manner, - the tubular mixing rod has a mixing head at its end in the storage and mixing chamber and - the tubular mixing rod has a plate-shaped coupling element at the external end, - a cartridge receiver for the insertion of the cartridge to be prepared, - a counter-pressure cylinder, associated with the cartridge receiver, for pressure action upon the compensating piston of the cartridge, - a mixing lifting cylinder for lateral motion of the cartridge receiver, - a fixedly arranged holding means for the coupling element of the mixing rod, which element receives the mixing rod in a manner which is rotatable yet is fixed in a longitudinal direction, and - a drive means for generating a rotary motion about a longitudinal axis between mixing rod and cartridge relatively,
A heating cooking apparatus, comprising: a heating chamber; a determination unit configured to determine whether a food product is present in the heating chamber; a reading device configured to read an information code for heating cooking of a food product; a heating control unit configured to perform heating control of the food product placed in the heating chamber, based on the information code read by the reading device; and a reading control unit configured to control a reading operation of the reading device, characterized in that after a time point at which a transition occurs from a state where the determination unit determines that the food product is present in the heating chamber to a state where the determination unit determines that the food product is not present in the heating chamber, the reading control unit is configured to cause the reading device to stop the reading operation for a predetermined time, or in the state where the determination unit determines that no food product is present in the heating chamber, the reading control unit is configured to cancel, for a predetermined time, the information code read by the reading device. a heating chamber; a determination unit configured to determine whether a food product is present in the heating chamber; a reading device configured to read an information code for heating cooking of a food product; a heating control unit configured to perform heating control of the food product placed in the heating chamber, based on the information code read by the reading device; and a reading control unit configured to control a reading operation of the reading device, characterized in that after a time point at which a transition occurs from a state where the determination unit determines that the food product is present in the heating chamber to a state where the determination unit determines that the food product is not present in the heating chamber, the reading control unit is configured to cause the reading device to stop the reading operation for a predetermined time, or in the state where the determination unit determines that no food product is present in the heating chamber, the reading control unit is configured to cancel, for a predetermined time, the information code read by the reading device.
A method of forming a shaped beverage container, comprising: providing a metallic preform with an open end and a closed end; applying a first pressure through blow molding to the metallic preform within a mold of a shaped container to produce a container part with a partially formed container shape; characterized in: at least partially annealing a localized portion of the container part with the partially formed container shape by at least partially annealing the closed end of the container part with the partially formed container shape; and applying a second pressure through blow molding to the container part within the mold to outwardly deform the closed end of the container part with the partially formed container shape to at least partially produce a plurality of integrally formed feet in the closed end of the container part with the partially formed container shape, wherein the plurality of integrally formed feet are configured to form at least a portion of a base of the shaped container. providing a metallic preform with an open end and a closed end; applying a first pressure through blow molding to the metallic preform within a mold of a shaped container to produce a container part with a partially formed container shape; characterized in: at least partially annealing a localized portion of the container part with the partially formed container shape by at least partially annealing the closed end of the container part with the partially formed container shape; and applying a second pressure through blow molding to the container part within the mold to outwardly deform the closed end of the container part with the partially formed container shape to at least partially produce a plurality of integrally formed feet in the closed end of the container part with the partially formed container shape, wherein the plurality of integrally formed feet are configured to form at least a portion of a base of the shaped container.
A method of locating a mirror line for conducting a symmetry analysis of an image, the method comprising: utilizing the image to generate a mirror line, the mirror line dividing the image into at least a first image portion and a second image portion; extracting image content from at least one of the first or second image portions; simultaneously reflecting and overlaying. the extracted image content onto the other of the first or second image portions based upon the location of the mirror line; manipulating the location of the mirror line with respect to the image; updating the reflected extracted image content based upon the then current location of the mirror line; and generating a final mirror line based upon an analysis of the alignment of the reflected extracted image content. overlayed with the underlying image. utilizing the image to generate a mirror line, the mirror line dividing the image into at least a first image portion and a second image portion; extracting image content from at least one of the first or second image portions; simultaneously reflecting and overlaying. the extracted image content onto the other of the first or second image portions based upon the location of the mirror line; manipulating the location of the mirror line with respect to the image; updating the reflected extracted image content based upon the then current location of the mirror line; and generating a final mirror line based upon an analysis of the alignment of the reflected extracted image content. overlayed with the underlying image.
A press cover for a cheese mold, the cross section of the press cover corresponding to the inner cross section of the cheese mold, the press cover consisting of a food-approved plastic and being in one piece or in one part and comprising a single-walled perforated plate and a rib structure (12, 13) formed on the side of the perforated plate facing away from the cheese mold, and the rib structure (12, 13) comprising longitudinal ribs in the form of division bars and annular transverse ribs arranged in a crossing manner.