mhurhangee/ep-ind-claims huggingface dataset:
A food equipment device, comprising: - a powered component, the powered component being one of a heating element or a pump or a fan; - a power line path for delivering power to the powered component; - a contactor for controlling power delivery to the powered component, the contactor including main power contacts connected in the power line path and auxiliary contacts that operate the same as, or opposite to, the main power contacts; - a monitoring system operatively connected to the auxiliary contacts to monitor an open or closed state of the auxiliary contacts; wherein the auxiliary contacts include a first auxiliary contact and a second auxiliary contact; wherein the monitoring system includes a voltage source operatively connected to the first auxiliary contact and an electrical sensor (116, 180) for detecting one of (i) a voltage condition of the second auxiliary contact or (ii) a current flow condition between the first auxiliary contact to the second auxiliary contact, characterized in that the monitoring system includes a controller operatively connected to a control input of the contactor for commanding an open state or a closed state of the main power contacts, which are the command states of the main power contacts, and wherein the monitoring system further comprises a temperature sensor for detecting a temperature condition, and the controller is configured to identify abnormal contactor operation based upon at least each of (a) the command state of the main power contacts, (b) the voltage condition or the current flow condition and (c) the temperature condition. - a powered component, the powered component being one of a heating element or a pump or a fan; - a power line path for delivering power to the powered component; - a contactor for controlling power delivery to the powered component, the contactor including main power contacts connected in the power line path and auxiliary contacts that operate the same as, or opposite to, the main power contacts; - a monitoring system operatively connected to the auxiliary contacts to monitor an open or closed state of the auxiliary contacts; wherein the auxiliary contacts include a first auxiliary contact and a second auxiliary contact; wherein the monitoring system includes a voltage source operatively connected to the first auxiliary contact and an electrical sensor (116, 180) for detecting one of (i) a voltage condition of the second auxiliary contact or (ii) a current flow condition between the first auxiliary contact to the second auxiliary contact, characterized in that the monitoring system includes a controller operatively connected to a control input of the contactor for commanding an open state or a closed state of the main power contacts, which are the command states of the main power contacts, and wherein the monitoring system further comprises a temperature sensor for detecting a temperature condition, and the controller is configured to identify abnormal contactor operation based upon at least each of (a) the command state of the main power contacts, (b) the voltage condition or the current flow condition and (c) the temperature condition.
An apparatus, comprising a plurality of optical devices (100 1, 100 2, 100 3, 100 4, 100 5) supported on a planar surface, each of the optical devices (100 1, 100 2, 100 3, 100 4, 100 5) being configured to receive light, emit light, or receive and emit light substantially orthogonally to the planar surface; wherein the plurality of optical devices (100 1, 100 2, 100 3, 100 4, 100 5) include a first optical device and a second optical device; wherein the first optical device is configured to operate as an optical device of a first type; wherein the second optical device is configured to operate as an optical device of a second type different from the first type; wherein the first type and the second type are selected from a device-type set consisting of a vertical-cavity surface-emitting laser, a semiconductor optical amplifier, a reflective optical modulator, and a photodetector, wherein each of the optical devices comprises a respective semiconductor diode that includes respective multiple quantum wells; and wherein the apparatus further comprises an electrical circuit connected to electrically bias the respective semiconductor diodes to change the operation of the optical device to a type from the device-type set. wherein the plurality of optical devices (100 1, 100 2, 100 3, 100 4, 100 5) include a first optical device and a second optical device; wherein the first optical device is configured to operate as an optical device of a first type; wherein the second optical device is configured to operate as an optical device of a second type different from the first type; wherein the first type and the second type are selected from a device-type set consisting of a vertical-cavity surface-emitting laser, a semiconductor optical amplifier, a reflective optical modulator, and a photodetector, wherein each of the optical devices comprises a respective semiconductor diode that includes respective multiple quantum wells; and wherein the apparatus further comprises an electrical circuit connected to electrically bias the respective semiconductor diodes to change the operation of the optical device to a type from the device-type set.
A method of electrolytic copper plating employing a phosphorous copper anode when performing electrolytic copper plating on a semiconductor wafer, wherein the phosphorous content of the phosphorous copper anode is 50 to 2000wtppm, the method comprising: forming in advance a minute crystal layer having a crystal grain size of 1 to 100 μm on the surface of the phosphorous copper anode, and electrolytic copper plating with an anode current density during electrolysis of 3A/dm 2 or more using a phosphorous copper anode having a crystal grain size of 10 to 1500 μm; OR electrolytic copper plating with an anode current density during electrolysis of less than 3A/dm 2 using a phosphorous copper anode having a crystal grain size of 5 to 1500 μm. forming in advance a minute crystal layer having a crystal grain size of 1 to 100 μm on the surface of the phosphorous copper anode, and electrolytic copper plating with an anode current density during electrolysis of 3A/dm 2 or more using a phosphorous copper anode having a crystal grain size of 10 to 1500 μm; OR
A surgical portal apparatus, which comprises: a portal housing defining a longitudinal axis and having a longitudinal passageway (101, 201) therethrough for receiving a surgical object; an adjustable seal (120, 220) disposed within the longitudinal passageway (101, 201) adapted to permit passage of the surgical object in substantial sealed relation therewith; and an adjustment member (130, 230) mounted within the portal housing and operatively connected to the adjustable seal (120, 220), the adjustment member (130, 230) positioned to intersect the longitudinal passageway (101, 201) to engage the surgical object and move relative to the portal housing characterised by the adjustable seal (120, 220) including first and second seal elements (106, 122, 222) having inner seal portions (107, 124) to establish the substantial sealed relation with the surgical object, the adjustment member (130, 230) being operatively connected to the second adjustable seal element (122, 222) such that, during movement of the adjustment member (130, 230) upon engagement with the surgical object, the second adjustable seal element (122, 222) moves relative to the first seal element and in a lateral direction relative to the longitudinal axis to thereby cause corresponding relative displacement of the inner seal portions (107, 124) of the first and second adjustable seal elements (106, 122, 222) and thereby facilitate passage of the surgical object through the adjustable seal (120, 220). a portal housing defining a longitudinal axis and having a longitudinal passageway (101, 201) therethrough for receiving a surgical object; an adjustable seal (120, 220) disposed within the longitudinal passageway (101, 201) adapted to permit passage of the surgical object in substantial sealed relation therewith; and an adjustment member (130, 230) mounted within the portal housing and operatively connected to the adjustable seal (120, 220), the adjustment member (130, 230) positioned to intersect the longitudinal passageway (101, 201) to engage the surgical object and move relative to the portal housing characterised by the adjustable seal (120, 220) including first and second seal elements (106, 122, 222) having inner seal portions (107, 124) to establish the substantial sealed relation with the surgical object, the adjustment member (130, 230) being operatively connected to the second adjustable seal element (122, 222) such that, during movement of the adjustment member (130, 230) upon engagement with the surgical object, the second adjustable seal element (122, 222) moves relative to the first seal element and in a lateral direction relative to the longitudinal axis to thereby cause corresponding relative displacement of the inner seal portions (107, 124) of the first and second adjustable seal elements (106, 122, 222) and thereby facilitate passage of the surgical object through the adjustable seal (120, 220).
A housing for a battery pack, wherein the housing comprises: a main body, wherein the main body comprises a battery accommodation space, and the battery accommodation space is configured to accommodate a battery; and an installation panel, wherein the installation panel and the main body are separately formed, the installation panel is installed at the main body, and the installation panel comprises a base and a connection device installation portion connected to the base, and the connection device installation portion is where a connection device is to be installed and the connection device is connected to the battery, wherein the connection device installation portion comprises a high-voltage installation portion, and the high-voltage installation portion comprises a positive installation portion and a negative installation portion, and wherein the negative installation portion comprises a negative output installation portion where overall output negative terminal of the battery pack is to be installed, characterized in that, the positive installation portion comprises a safety device installation portion where a safety device of the battery pack is to be installed and a positive output installation portion where an overall output positive terminal of the battery pack is to be installed, and the safety device installation portion is disposed between the positive output installation portion and the negative output installation portion in a length direction of the installation panel. a main body, wherein the main body comprises a battery accommodation space, and the battery accommodation space is configured to accommodate a battery; and an installation panel, wherein the installation panel and the main body are separately formed, the installation panel is installed at the main body, and the installation panel comprises a base and a connection device installation portion connected to the base, and the connection device installation portion is where a connection device is to be installed and the connection device is connected to the battery, wherein the connection device installation portion comprises a high-voltage installation portion, and the high-voltage installation portion comprises a positive installation portion and a negative installation portion, and wherein the negative installation portion comprises a negative output installation portion where overall output negative terminal of the battery pack is to be installed, characterized in that, the positive installation portion comprises a safety device installation portion where a safety device of the battery pack is to be installed and a positive output installation portion where an overall output positive terminal of the battery pack is to be installed, and the safety device installation portion is disposed between the positive output installation portion and the negative output installation portion in a length direction of the installation panel.
A method for inspecting a pressure pulse wave sensor which includes a sensor chip and a substrate, the sensor chip including a pressure-sensitive element array constituted by a plurality of pressure-sensitive elements arranged in one direction, the sensor chip put into use so that a pressure-sensitive face of the sensor chip where the pressure-sensitive element array is formed is pressed against a body surface of a living body in a state in which the one direction intersects with a traveling direction of an artery of the living body, the sensor chip fixed to the substrate, wherein the substrate includes a through hole and a substrate-side terminal portion (11B, 11C, 11E), the sensor chip includes a recess which is recessed in a direction perpendicular to the pressure-sensitive face and on an opposite side to the pressure-sensitive face, and the pressure-sensitive element array is formed on the pressure-sensitive face in a portion of the sensor chip whose thickness is reduced in the perpendicular direction due to the recess, and the sensor chip further includes a chip-side terminal portion (10B, 10C, 10E) which is electrically connected to the pressure-sensitive element array and which is provided at one or each of opposite ends of the pressure-sensitive element array extending in the one direction, the sensor chip is bonded and fixed onto the substrate so that the recess communicates with atmospheric air through only the through hole of the substrate; the substrate-side terminal portion (11B, 11C, 11E) of the substrate to which the sensor chip is bonded and fixed, and the chip-side terminal portion (10B, 10C, 10E) are connected through an electrically conductive member (W1, W2); the electrically conductive member (W1, W2) connecting the substrate-side terminal portion (11B, 11C, 11E) and the chip-side terminal portion (10B, 10C, 10E) is covered with a protective member, the method characterized by, a step of performing characteristic evaluation about a variation among the plurality of pressure-sensitive elements of the sensor chip, before the electrically conductive member (W1, W2) is covered with the protective member, based on a signal outputted from the substrate-side terminal portion (11B, 11C, 11E) in a state in which air is sucked through the through hole of the substrate to thereby apply negative pressure to the pressure-sensitive face.
A method of producing drimenol comprising: i) contacting farnesyl diphosphate with a polypeptide having drimenol synthase activity and comprising an amino acid sequence having at least 70% sequence identity to a sequence of SEQ ID NO: 2 to produce the drimenol; and ii) optionally isolating the drimenol. i) contacting farnesyl diphosphate with a polypeptide having drimenol synthase activity and comprising an amino acid sequence having at least 70% sequence identity to a sequence of SEQ ID NO: 2 to produce the drimenol; and ii) optionally isolating the drimenol.
Tablet containing: - febantel, praziquantel and pyrantel as active pharmaceutical ingredients, - at least 28% by weight of meat flavouring, - at least 2% by weight of croscarmellose sodium as stabilizing agent and - starch or a modified starch, the modified starch being selected from the group comprising physically pretreated starches, hydroxyethyl starch, hydroxypropyl starch, methyl starch, carboxymethyl starch, starch acetate, hydroxypropyl starch acetate, hydroxyethyl starch acetate, starch phosphates, starch sulfates, distarch phosphates, phosphates of hydroxypropylated starches, starch dicarboxylic diesters and salts of anionic starch derivatives. - febantel, praziquantel and pyrantel as active pharmaceutical ingredients, - at least 28% by weight of meat flavouring, - at least 2% by weight of croscarmellose sodium as stabilizing agent and - starch or a modified starch, the modified starch being selected from the group comprising physically pretreated starches, hydroxyethyl starch, hydroxypropyl starch, methyl starch, carboxymethyl starch, starch acetate, hydroxypropyl starch acetate, hydroxyethyl starch acetate, starch phosphates, starch sulfates, distarch phosphates, phosphates of hydroxypropylated starches, starch dicarboxylic diesters and salts of anionic starch derivatives.
A nodal lighting system, comprising: a controller; a plurality of lighting nodes configured to wirelessly communicate with the controller; a control unit within each of the plurality of lighting nodes configured to store and interpret commands received from the controller, wherein the commands comprise commands to recreate a lighting environment; characterised in that the plurality of lighting nodes is configured to recreate the lighting environment - being the lighting environment of a remote location - in real-time based on one or more light parameters measured in real-time at the remote location; and by a projector configured to display images from the remote location in concert with the lighting environment. a controller; a plurality of lighting nodes configured to wirelessly communicate with the controller; a control unit within each of the plurality of lighting nodes configured to store and interpret commands received from the controller, wherein the commands comprise commands to recreate a lighting environment; characterised in that the plurality of lighting nodes is configured to recreate the lighting environment - being the lighting environment of a remote location - in real-time based on one or more light parameters measured in real-time at the remote location; and by a projector configured to display images from the remote location in concert with the lighting environment.
Use of a composition comprising a nucleotide sequence encoding the amino acid sequence of SEQ ID NO:2 for the improvement of the tolerance of a plant to a drought stress.
A self-contained biological indicator, comprising: a first ampule having a first top and a first bottom, the first ampule containing a first volume of a first growth medium; a second ampule having a second top and a second bottom, the second ampule containing a second volume of a second growth medium; a cap; a vial coupled to the cap; a growth reservoir; a spore disk disposed on a base of the growth reservoir, and an insert disposed above the spore disk, wherein at least a portion of the first ampule and a portion of the second ampule is disposed within the vial, wherein the cap is disposed above the first ampule and the second ampule, the first ampule is disposed adjacent to the second ampule, and the first top is disposed closer to the cap than the second top, and wherein the indicator is configured such that the first ampule is broken by depressing the cap from a first position to a second position, and the second ampule is broken by depressing the cap from the second position to a third position. a first ampule having a first top and a first bottom, the first ampule containing a first volume of a first growth medium; a second ampule having a second top and a second bottom, the second ampule containing a second volume of a second growth medium; a cap; a vial coupled to the cap; a growth reservoir; a spore disk disposed on a base of the growth reservoir, and an insert disposed above the spore disk, wherein at least a portion of the first ampule and a portion of the second ampule is disposed within the vial, wherein the cap is disposed above the first ampule and the second ampule, the first ampule is disposed adjacent to the second ampule, and the first top is disposed closer to the cap than the second top, and wherein the indicator is configured such that the first ampule is broken by depressing the cap from a first position to a second position, and the second ampule is broken by depressing the cap from the second position to a third position.
An apparatus for producing defect-critical articles from a molding resin comprising at least 98% clear polymer and additives including a heat stabilizer and a UV blocker in an injection molding machine comprising: an injection molding machine having: a hopper; a resin delivery assembly comprising a hollow cylindrical barrel and a screw rotatably disposed within said barrel and terminating in a nozzle; and a mold; and a molding resin fed from said hopper to said resin delivery assembly and being injected via said nozzle into the mold, characterized in that said resin delivery assembly is made from a powder metallurgy formed into solid non-coated parts having a Chromium-Vanadium (Cr/V) blend over about 20%, and that between said hopper and said mold, the resin only contacts said solid non-coated parts. an injection molding machine having: a hopper; a resin delivery assembly comprising a hollow cylindrical barrel and a screw rotatably disposed within said barrel and terminating in a nozzle; and a mold; and a hopper; a resin delivery assembly comprising a hollow cylindrical barrel and a screw rotatably disposed within said barrel and terminating in a nozzle; and a mold; and a molding resin fed from said hopper to said resin delivery assembly and being injected via said nozzle into the mold, characterized in that said resin delivery assembly is made from a powder metallurgy formed into solid non-coated parts having a Chromium-Vanadium (Cr/V) blend over about 20%, and that between said hopper and said mold, the resin only contacts said solid non-coated parts.
A mobile terminal, comprising: a camera; a wireless communication unit configured to perform communication with an external mobile photographing device; a display unit configured to output a preview image captured by the camera and detect a touch input for designating a capturing area to be captured by the mobile photographing device; and a controller characterized in that the controller is configured to control in response to the touch input for designating the capturing area being applied to the preview image, the wireless communication unit such that capturing guide information calculated based on the capturing area is transmitted to the mobile photographing device and a preview image captured by the mobile photographing device according to the capturing guide information is received, and control the display unit to output the preview image captured by the mobile photographing device. a camera; a wireless communication unit configured to perform communication with an external mobile photographing device; a display unit configured to output a preview image captured by the camera and detect a touch input for designating a capturing area to be captured by the mobile photographing device; and a controller characterized in that the controller is configured to control in response to the touch input for designating the capturing area being applied to the preview image, the wireless communication unit such that capturing guide information calculated based on the capturing area is transmitted to the mobile photographing device and a preview image captured by the mobile photographing device according to the capturing guide information is received, and control the display unit to output the preview image captured by the mobile photographing device.
A gas turbine engine component comprising: a structure including a first wall and a second wall that provide a cooling passage, the cooling passage extends a length from a first end to a second end, a cluster of impingement inlet holes is provided in the second wall at the first end, and an outlet is provided at the second end, a first region is provided within the cooling passage adjacent the cluster of impingement inlet holes, and a second region includes turbulators, the first region extends in the range of 25-65% of the length L and has lower fluid friction than the second region due to said turbulators; characterised in that the structure includes multiple discrete cooling passages provided parallel to one another and arranged in a circumferential direction, each having the outlet; and the cluster of impingement inlet holes provided in the second wall; and wherein the structure is a blade outer air seal.