mhurhangee/patent-ind-claim-en huggingface dataset:
A hydratable concentrated surfactant composition comprising: a) an anionic surfactant, wherein the anionic surfactant comprises an isethionate, taurate, glycinate or a mixture thereof; b) a zwitterionic surfactant; c) from 1 to 16% by weight C 6 -C 14 acid, or a C 6 -C 14 alcohol or a C 6 -C 14 amide, or mixture thereof; with the proviso that when the zwitterionic surfactant to anionic surfactant weight ratio is less than 1.5, lamellar phase agent makes up 27% by weight or less of the total weight of surfactant in the compositions, d) from 30 to 85% by weight water, and e) from 0.5 to 5% by weight of at least one of a mono- di- or tri-ester, the ester or esters having a weight percent of oxygen from 12 to 45, wherein the ester or esters are soluble in the hydratable composition, wherein the amount of oil in the hydratable concentrated surfactant composition is less than 0.3% by weight of the end use composition, and wherein the amount of sulphate is less than 6.0% by weight of the end use composition, and preferably the hydratable concentrated surfactant composition is free of oil and sulphate. a) an anionic surfactant, wherein the anionic surfactant comprises an isethionate, taurate, glycinate or a mixture thereof; b) a zwitterionic surfactant; c) from 1 to 16% by weight C 6 -C 14 acid, or a C 6 -C 14 alcohol or a C 6 -C 14 amide, or mixture thereof; with the proviso that when the zwitterionic surfactant to anionic surfactant weight ratio is less than 1.5, lamellar phase agent makes up 27% by weight or less of the total weight of surfactant in the compositions, d) from 30 to 85% by weight water, and e) from 0.5 to 5% by weight of at least one of a mono- di- or tri-ester, the ester or esters having a weight percent of oxygen from 12 to 45, wherein the ester or esters are soluble in the hydratable composition,
A method of producing polyethylene, comprising: polymerizing ethylene in presence of a catalyst system in a reactor to form polyethylene, wherein the catalyst system comprises a first catalyst and a second catalyst wherein the first catalyst is fed in a slurry to the polymerization reactor and the second catalyst is added as a trim catalyst to a slurry having the first catalyst fed the reactor, wherein the molar ratio of the catalyst compound in the catalyst component slurry to the catalyst compound in the catalyst component solution, after the slurry and solution have been mixed to form the catalyst system is from 500:1 to 1:500, wherein the first catalyst promotes polymerization of ethylene into a high molecular-weight portion of the polyethylene, and the second catalyst promotes polymerization of ethylene into a low molecular-weight portion of the polyethylene; and adjusting reactor conditions and an amount of the second catalyst fed to the reactor to control melt index (MI) and density of the polyethylene based on a target melt flow ratio (MFR) and a desired combination of molecular weight distribution (MWD) and composition distribution (CD) of the polyethylene. polymerizing ethylene in presence of a catalyst system in a reactor to form polyethylene, wherein the catalyst system comprises a first catalyst and a second catalyst wherein the first catalyst is fed in a slurry to the polymerization reactor and the second catalyst is added as a trim catalyst to a slurry having the first catalyst fed the reactor, wherein the molar ratio of the catalyst compound in the catalyst component slurry to the catalyst compound in the catalyst component solution, after the slurry and solution have been mixed to form the catalyst system is from 500:1 to 1:500, wherein the first catalyst promotes polymerization of ethylene into a high molecular-weight portion of the polyethylene, and the second catalyst promotes polymerization of ethylene into a low molecular-weight portion of the polyethylene; and adjusting reactor conditions and an amount of the second catalyst fed to the reactor to control melt index (MI) and density of the polyethylene based on a target melt flow ratio (MFR) and a desired combination of molecular weight distribution (MWD) and composition distribution (CD) of the polyethylene.
A photovoltaic panel, comprising: a photovoltaic module having a photovoltaic cell between a front layer and a back layer , wherein the back layer includes a back surface having a lateral perimeter ; and a distributed support frame including a plurality of support hubs mounted on the back surface of the photovoltaic module inward from the lateral perimeter , and one or more support members extending laterally from each of the plurality of support hubs over the back surface so as to radiate in a transverse or lateral direction between the corresponding support hub and the lateral perimeter , wherein: - each support hub includes an upper end mounted on the back surface inward from the lateral perimeter , and a hub connector at a lower end , the hub connector of the distributed support frame is couplable to a support stand having a stand connector between the upper end of the support hub and a base of the support stand ; - the support member includes a support surface facing the back surface , and wherein the support surface contacts the back surface when a design load presses on the front layer ; and - the support surface is separated from the back surface by a no-load gap when no design load is applied, and wherein the no-load gap is less than a maximum deflection of the photovoltaic module when the design load presses on the front layer . a photovoltaic module having a photovoltaic cell between a front layer and a back layer , wherein the back layer includes a back surface having a lateral perimeter ; and a distributed support frame including a plurality of support hubs mounted on the back surface of the photovoltaic module inward from the lateral perimeter , and one or more support members extending laterally from each of the plurality of support hubs over the back surface so as to radiate in a transverse or lateral direction between the corresponding support hub and the lateral perimeter , a plurality of support hubs mounted on the back surface of the photovoltaic module inward from the lateral perimeter , and one or more support members extending laterally from each of the plurality of support hubs over the back surface so as to radiate in a transverse or lateral direction between the corresponding support hub and the lateral perimeter , - each support hub includes an upper end mounted on the back surface inward from the lateral perimeter , and a hub connector at a lower end , the hub connector of the distributed support frame is couplable to a support stand having a stand connector between the upper end of the support hub and a base of the support stand ; - the support member includes a support surface facing the back surface , and wherein the support surface contacts the back surface when a design load presses on the front layer ; and - the support surface is separated from the back surface by a no-load gap when no design load is applied, and wherein the no-load gap is less than a maximum deflection of the photovoltaic module when the design load presses on the front layer .
Motor vehicle comprising a floor comprising a first compartment for receiving a fuel tank and a second compartment , which is upstream of said first compartment and is separated from said compartment by a rear axle to which two rear wheels are connected, said vehicle being characterized in that it comprises a protection system mounted on the outer surface of the floor and configured to deflect the second compartment upwards in the event of an impact to the rear of the vehicle.
An electric double-layer capacitor comprising: an electrolyte solution including γ-butyrolactone as a solvent and a fluorine-containing anion; and a coated electrode prepared by coating a first slurry onto a current collector which is an aluminum etching foil having a water content of 30 μg/cm 2 or less, the first slurry being formed by dispersing an electrode material , an electrically conductive auxiliary agent, and styrene-butadiene elastomer having an expansion rate of 50% or less in γ-butyrolactone at 85°C after 100 hours as a binding agent into water; wherein a usage temperature of the electric double-layer capacitor is 70 to 85°C. an electrolyte solution including γ-butyrolactone as a solvent and a fluorine-containing anion; and a coated electrode prepared by coating a first slurry onto a current collector which is an aluminum etching foil having a water content of 30 μg/cm 2 or less, the first slurry being formed by dispersing an electrode material , an electrically conductive auxiliary agent, and styrene-butadiene elastomer having an expansion rate of 50% or less in γ-butyrolactone at 85°C after 100 hours as a binding agent into water; wherein a usage temperature of the electric double-layer capacitor is 70 to 85°C.
A wash reagent, comprising: sodium hydroxide in an amount sufficient to provide the wash reagent with an alkaline pH; lauryl dimethyl amine oxide; 2-(2-ethoxyethoxy)ethanol; at least one non-ionic surfactant with an alkoxylated fatty alcohol group; and processed water. sodium hydroxide in an amount sufficient to provide the wash reagent with an alkaline pH; lauryl dimethyl amine oxide; 2-(2-ethoxyethoxy)ethanol; at least one non-ionic surfactant with an alkoxylated fatty alcohol group; and processed water.
An apparatus for catheterization, comprising: a probe adapted for insertion into contact with a target tissue in a body of a subject, the probe having a longitudinal axis, a plurality of temperature sensors on a distal portion of the probe and an ablation electrode thereon, the temperature sensors being distributed circumferentially about the longitudinal axis on the distal portion; a processor operative for applying energy through the ablation electrode to ablate the target tissue in the body, and while applying energy performing the steps of: repetitively recording data from the temperature sensors; establishing a baseline temperature level from the data; thereafter from the data detecting a drop in temperature with respect to the baseline temperature level; responsively to the drop in temperature, concluding that a loss of contact between the probe and the target tissue has occurred; and alerting an operator to the loss of contact; wherein the plurality of temperature sensors are mounted within ribs integral to the ablation electrode, and wherein the ribs are made from metal. a probe adapted for insertion into contact with a target tissue in a body of a subject, the probe having a longitudinal axis, a plurality of temperature sensors on a distal portion of the probe and an ablation electrode thereon, the temperature sensors being distributed circumferentially about the longitudinal axis on the distal portion; a processor operative for applying energy through the ablation electrode to ablate the target tissue in the body, and while applying energy performing the steps of: repetitively recording data from the temperature sensors; establishing a baseline temperature level from the data; thereafter from the data detecting a drop in temperature with respect to the baseline temperature level; responsively to the drop in temperature, concluding that a loss of contact between the probe and the target tissue has occurred; and alerting an operator to the loss of contact; wherein the plurality of temperature sensors are mounted within ribs integral to the ablation electrode, and wherein the ribs are made from metal. repetitively recording data from the temperature sensors; establishing a baseline temperature level from the data; thereafter from the data detecting a drop in temperature with respect to the baseline temperature level; responsively to the drop in temperature, concluding that a loss of contact between the probe and the target tissue has occurred; and alerting an operator to the loss of contact; wherein the plurality of temperature sensors are mounted within ribs integral to the ablation electrode, and wherein the ribs are made from metal.
Overvoltage protection circuit (110; 310) comprising: - a first diode made of a semiconductor material having a bandgap width greater than that of silicon, first diode having its anode and its cathode located on opposite faces of a substrate , and including: a first region doped of the N-type, respectively P-type; a second region doped of the P-type, respectively N-type; an intrinsic region between the first and second regions; a ring region surrounding the second region and extending within the intrinsic region ; and - a second diode made of silicon in antiparallel to the first diode. - a first diode made of a semiconductor material having a bandgap width greater than that of silicon, first diode having its anode and its cathode located on opposite faces of a substrate , and including: a first region doped of the N-type, respectively P-type; a second region doped of the P-type, respectively N-type; an intrinsic region between the first and second regions; a ring region surrounding the second region and extending within the intrinsic region ; and a first region doped of the N-type, respectively P-type; a second region doped of the P-type, respectively N-type; an intrinsic region between the first and second regions; a ring region surrounding the second region and extending within the intrinsic region ; and - a second diode made of silicon in antiparallel to the first diode.
A method of capturing power distribution system data surrounding trigger events, said method comprising: communicatively coupling a plurality of node electronic units to a digital network , said plurality of node electronic units receiving input signals sensed by a device selected from the group consisting of a current sensor, a voltage sensor, a circuit breaker, and any combinations thereof; communicatively coupling at least one central control processing unit, CCPU, to the digital network; executing a data capture module to continuously collect and buffer data received from the plurality of node electronic units , wherein the module comprises a data capture buffer and a secondary buffer operable to collect and store the plurality of data; controlling said at least one central control processing unit to determine whether a trigger event has occurred in the power distribution system; and activating the data capture module in response to said trigger event as to determine a capture time interval surrounding the trigger event and the capture buffer continuing to collect data for a time period corresponding to the determined capture interval and then to cease taking data and assume an inactive state. communicatively coupling a plurality of node electronic units to a digital network , said plurality of node electronic units receiving input signals sensed by a device selected from the group consisting of a current sensor, a voltage sensor, a circuit breaker, and any combinations thereof; communicatively coupling at least one central control processing unit, CCPU, to the digital network; executing a data capture module to continuously collect and buffer data received from the plurality of node electronic units , wherein the module comprises a data capture buffer and a secondary buffer operable to collect and store the plurality of data; controlling said at least one central control processing unit to determine whether a trigger event has occurred in the power distribution system; and activating the data capture module in response to said trigger event as to determine a capture time interval surrounding the trigger event and the capture buffer continuing to collect data for a time period corresponding to the determined capture interval and then to cease taking data and assume an inactive state.
A battery , comprising: - a power generating element composed by stacking a plurality of unit battery cell layers in series with a current collector interposed between adjacent unit battery cell layers and with each unit battery cell layer composed by sequentially stacking a positive electrode , an electrolyte , and a negative electrode ; - a first current collector plate electrically connected to an end current collector provided on a surface of the outermost positive electrode of the power generating element ; - a second current collector plate electrically connected to an end current collector provided on a surface of the outermost negative electrode of the power generating element ; - a conductive convex portion formed at least in a respective end edge of the first and second current collector plates with a width of not less than half of the width of the end edge of the current collector plates ; - a terminal attached to the conductive convex portion and configured to retrieve current from the conductive convex portion ; - a conductive line connected to the terminal ; and - an exterior package housing the power generating element , wherein: - the conductive convex portions and the terminal are provided within an interior of the exterior package and - the conductive convex portions provided on both of the first and second current collector plates are positioned symmetrically with the power generating element as a center. - a power generating element composed by stacking a plurality of unit battery cell layers in series with a current collector interposed between adjacent unit battery cell layers and with each unit battery cell layer composed by sequentially stacking a positive electrode , an electrolyte , and a negative electrode ; - a first current collector plate electrically connected to an end current collector provided on a surface of the outermost positive electrode of the power generating element ; - a second current collector plate electrically connected to an end current collector provided on a surface of the outermost negative electrode of the power generating element ; - a conductive convex portion formed at least in a respective end edge of the first and second current collector plates with a width of not less than half of the width of the end edge of the current collector plates ; - a terminal attached to the conductive convex portion and configured to retrieve current from the conductive convex portion ; - a conductive line connected to the terminal ; and - an exterior package housing the power generating element , - the conductive convex portions and the terminal are provided within an interior of the exterior package and - the conductive convex portions provided on both of the first and second current collector plates are positioned symmetrically with the power generating element as a center.
A linear light fixture comprising: a housing body , the housing body including at least one integrally extruded conduit and a lighting compartment , at least one light emitting diode positioned within the lighting compartment , a power source attached to the housing body and configured to supply electric power to the at least one light emitting diode , and at least one wire electrically connecting the power source to the at least one light emitting diode (125 wherein the at least one wire is arranged in the integrally extruded conduit ; an access pocket in the housing body wherein the integrally extruded conduit can be accessed from a front surface of the housing body via the access pocket , characterised in that the integrally extruded conduit is sealed and the lighting compartment is configured to provide a sealed enclosure around at least one light emitting diode to create an explosion-proof enclosure. a housing body , the housing body including at least one integrally extruded conduit and a lighting compartment , at least one light emitting diode positioned within the lighting compartment , a power source attached to the housing body and configured to supply electric power to the at least one light emitting diode , and at least one wire electrically connecting the power source to the at least one light emitting diode (125 wherein the at least one wire is arranged in the integrally extruded conduit ; an access pocket in the housing body wherein the integrally extruded conduit can be accessed from a front surface of the housing body via the access pocket , characterised in that the integrally extruded conduit is sealed and the lighting compartment is configured to provide a sealed enclosure around at least one light emitting diode to create an explosion-proof enclosure.
A robot cleaner, comprising: a housing comprising a suction inlet configured to suction foreign substances, a suction motor configured to generate a suction force, and a discharge outlet configured to discharge the suctioned air to an outside thereof; a driver configured to move the robot cleaner; an agitator disposed under the housing and configured to move the foreign substances located on the floor to the suction inlet by performing rotation; a constraint prevention filter portion configured to perform a function for blocking entry of an obstacle provided at a position in a moving direction of the robot cleaner into the agitator , the constraint prevention filter portion comprising a constraint prevention filter , a rotary shaft to couple to the constraint prevention filter , and a filter driver to control a position of the rotary shaft ; a sensor disposed on the housing and configured to detect an obstacle positioned in the first direction; and a controller configured to control the operation of each of the driver and the filter driver based on types of obstacles detected by the sensor , characterized in that the constraint prevention filter has a shred shape including a plurality of thin and long strings and prevents the obstacle of a predetermined size or more from entering the inner side of the main housing , and in that the constraint prevention filter is positioned to face the moving direction with respect to the housing . a housing comprising a suction inlet configured to suction foreign substances, a suction motor configured to generate a suction force, and a discharge outlet configured to discharge the suctioned air to an outside thereof; a driver configured to move the robot cleaner; an agitator disposed under the housing and configured to move the foreign substances located on the floor to the suction inlet by performing rotation; a constraint prevention filter portion configured to perform a function for blocking entry of an obstacle provided at a position in a moving direction of the robot cleaner into the agitator , the constraint prevention filter portion comprising a constraint prevention filter , a rotary shaft to couple to the constraint prevention filter , and a filter driver to control a position of the rotary shaft ; a sensor disposed on the housing and configured to detect an obstacle positioned in the first direction; and a controller configured to control the operation of each of the driver and the filter driver based on types of obstacles detected by the sensor , characterized in that the constraint prevention filter has a shred shape including a plurality of thin and long strings and prevents the obstacle of a predetermined size or more from entering the inner side of the main housing , and in that the constraint prevention filter is positioned to face the moving direction with respect to the housing .
A diverter assembly for a manifold of an oil or gas well, comprising a housing having an internal passage, wherein the diverter assembly is adapted to connect to a branch of the manifold, characterised in that the housing includes an axial insert portion.