mhurhangee/patent-ind-claim-en huggingface dataset:
A method of shutdown Operation for a fuel cell power plant contained with and supplying electrical power to a mobile vehicle , the vehicle proceeding at intervals to a station for receiving a resupply of one or more resources thereat including at least electrical energy , the fuel cell power plant including a controller for regulating Operation thereof including effecting a shutdown procedure of the fuel cell power plant, the method comprising the step of - operatively connecting the vehicle to at least the electrical energy resource at the station ; characterized in that the method further comprising the steps of H 2 On passivation - removing oxygen from the air side of the fuel cell power plant - stabilizing hydrogen levels in both cathode and anode flow fields of the fuel cell power plant by providing a flow of hydrogen in the fuel cell power plant, and - in response to the vehicle being connected to said electrical energy resource , modifying control of the shutdown procedure, namely without connection to the electrical energy resource 20A, to divert from that procedure prior to reaching a full shutdown state to include a Power On mode comprising maintaining a flow of hydrogen in the fuel cell power plant sufficient to maintain H 2 On passivation thereof while the Power On mode is activated, and to complete the shutdown procedure if a check reveals the condition that Power On mode is not enabled. - operatively connecting the vehicle to at least the electrical energy resource at the station ; characterized in that the method further comprising the steps of H 2 On passivation - removing oxygen from the air side of the fuel cell power plant - stabilizing hydrogen levels in both cathode and anode flow fields of the fuel cell power plant by providing a flow of hydrogen in the fuel cell power plant, and - in response to the vehicle being connected to said electrical energy resource , modifying control of the shutdown procedure, namely without connection to the electrical energy resource 20A, to divert from that procedure prior to reaching a full shutdown state to include a Power On mode comprising maintaining a flow of hydrogen in the fuel cell power plant sufficient to maintain H 2 On passivation thereof while the Power On mode is activated, and to complete the shutdown procedure if a check reveals the condition that Power On mode is not enabled.
A bacteria culture having characteristics identical to that of a strain selected from the group consisting of: the strain having the deposit accession number PTA-7541; the strain having the deposit accession number PTA-7542; the strain having the deposit accession number PTA-7543; the strain having the deposit accession number PTA-7544; the strain having the deposit accession number PTA-7545; the strain having the deposit accession number PTA-7546; the strain having the deposit accession number PTA-7547; the strain having the deposit accession number PTA-7548; the strain having the deposit accession number PTA-7549. the strain having the deposit accession number PTA-7550, the strain having the deposit accession number PTA-7789, the strain having the deposit accession number PTA-7790, the strain having the deposit accession number PTA-7791, the strain having the deposit accession number PTA-7792, the strain having the deposit accession number PTA-7793, or, a mixture of two or more of the strains. the strain having the deposit accession number PTA-7541; the strain having the deposit accession number PTA-7542; the strain having the deposit accession number PTA-7543; the strain having the deposit accession number PTA-7544; the strain having the deposit accession number PTA-7545; the strain having the deposit accession number PTA-7546; the strain having the deposit accession number PTA-7547; the strain having the deposit accession number PTA-7548; the strain having the deposit accession number PTA-7549. the strain having the deposit accession number PTA-7550, the strain having the deposit accession number PTA-7789, the strain having the deposit accession number PTA-7790, the strain having the deposit accession number PTA-7791, the strain having the deposit accession number PTA-7792, the strain having the deposit accession number PTA-7793, or, a mixture of two or more of the strains.
A robotic work tool system , comprising a first and a second robotic work tool , one charging station , a boundary wire , a signal generator for generating and transmitting a signal through said boundary wire for demarcating a work area , said robotic work tool system being configured to: receive user input indicating a functionality through a user control console ; and transmit a first message to the first and/or the second robotic work tool , wherein the first message comprises a command for effecting the indicated functionality; whereby the first and/or the second robotic work tool is configured to: receive said first message and execute the indicated functionality the robotic work tool system being characterized in that said charging station being arranged and configured to service said first and second robotic work tool , wherein the robotic work tool system is further configured to: identify the first robotic work tool when the first robotic work tool is in the charging station , and to transmit a second message to the second robotic work tool to signal to the second robotic work tool that the charging station is occupied and that the second robotic work tool should pause any attempt to reach the charging station . receive user input indicating a functionality through a user control console ; and transmit a first message to the first and/or the second robotic work tool , wherein the first message comprises a command for effecting the indicated functionality; whereby the first and/or the second robotic work tool is configured to: receive said first message and execute the indicated functionality the robotic work tool system being characterized in that said charging station being arranged and configured to service said first and second robotic work tool , receive said first message and execute the indicated functionality the robotic work tool system being characterized in that said charging station being arranged and configured to service said first and second robotic work tool , wherein the robotic work tool system is further configured to: identify the first robotic work tool when the first robotic work tool is in the charging station , and to transmit a second message to the second robotic work tool to signal to the second robotic work tool that the charging station is occupied and that the second robotic work tool should pause any attempt to reach the charging station . identify the first robotic work tool when the first robotic work tool is in the charging station , and to transmit a second message to the second robotic work tool to signal to the second robotic work tool that the charging station is occupied and that the second robotic work tool should pause any attempt to reach the charging station .
An apparatus comprising: a filter housing having an opening for the receipt of water-lubricant mixture and having an open interior into which can be placed a series of vertically stacked filter cartridges , the filter housing having plurality of vertically spaced outlets corresponding to each filter in the series of vertically stacked filter cartridges such as to create a vertically stacked pairing of outlets and cartridges, each of the vertically spaced outlets in the pairing of outlets and cartridges positioned in proximity to a top of the cartridge that corresponds to the vertically spaced outlet in the pairing, the vertically spaced outlets configured to be selectively opened from a closed state by removal of a threaded cover that closes the vertically spaced outlets, characterized in that the housing includes vertically spaced internal registration surfaces useful to locate each filter cartridge of the series of vertically spaced filter cartridges, wherein the internal registration surfaces are protrusions that extend into an internal space defined by the filter housing and wherein each filter cartridge includes a registration surface structured to be placed in cooperative engagement with a registration surface of the filter housing . a filter housing having an opening for the receipt of water-lubricant mixture and having an open interior into which can be placed a series of vertically stacked filter cartridges , the filter housing having plurality of vertically spaced outlets corresponding to each filter in the series of vertically stacked filter cartridges such as to create a vertically stacked pairing of outlets and cartridges, each of the vertically spaced outlets in the pairing of outlets and cartridges positioned in proximity to a top of the cartridge that corresponds to the vertically spaced outlet in the pairing, the vertically spaced outlets configured to be selectively opened from a closed state by removal of a threaded cover that closes the vertically spaced outlets, characterized in that the housing includes vertically spaced internal registration surfaces useful to locate each filter cartridge of the series of vertically spaced filter cartridges, wherein the internal registration surfaces are protrusions that extend into an internal space defined by the filter housing and wherein each filter cartridge includes a registration surface structured to be placed in cooperative engagement with a registration surface of the filter housing .
Single-use cartridge for storing and dispensing dental two-component impression materials with a a closable outer chamber having a cylindrically shaped outer wall, b a cylindrical closable inner chamber being coaxially or eccentrically arranged therein, c a mixing element to be mounted separately or being connected firmly to the outer chamber at its inlet end, a drive shaft running parallelly to the middle axis through the inner cylindrical chamber . a a closable outer chamber having a cylindrically shaped outer wall, b a cylindrical closable inner chamber being coaxially or eccentrically arranged therein, c a mixing element to be mounted separately or being connected firmly to the outer chamber at its inlet end,
An atmospheric sintering method for preparing an anisotropic complex sintered magnet comprising MnBi, the method comprising: (a) preparing a non-magnetic phase MnBi-based ribbon by a rapid solidification process, RSP; (b) subjecting the non-magnetic phase MnBi-based ribbon to heat treatment to convert into a magnetic phase MnBi-based ribbon; (c) pulverizing the magnetic phase ribbon to prepare MnBi hard magnetic phase powders; (d) mixing the MnBi hard magnetic phase powders with rare earth hard magnetic phase powders in the presence of a lubricant; (e) molding the mixture in magnetic field by applying external magnetic field and pressure; and (f) subjecting the molded product to an atmospheric sintering process, characterised in that the MnBi-based ribbon prepared in step (a) has a crystal grain size of 50 to 100 nm, and in that the rapidly solidification process is performed with a wheel speed of 60 to 70 m/s. (a) preparing a non-magnetic phase MnBi-based ribbon by a rapid solidification process, RSP; (b) subjecting the non-magnetic phase MnBi-based ribbon to heat treatment to convert into a magnetic phase MnBi-based ribbon; (c) pulverizing the magnetic phase ribbon to prepare MnBi hard magnetic phase powders; (d) mixing the MnBi hard magnetic phase powders with rare earth hard magnetic phase powders in the presence of a lubricant; (e) molding the mixture in magnetic field by applying external magnetic field and pressure; and (f) subjecting the molded product to an atmospheric sintering process,
A composition comprising a binder comprising one or more siloxane polymers, silicone resins, silicone based elastomers, and mixtures thereof, wherein said binder optionally comprises one or more cross-linker components comprising a silane and/or a siloxane containing silicon-bonded hydrolysable groups; and a hydrophilic powder and/or gel selected from one or more amorphous, porous hydrophilic silica(s) having a thermal conductivity at 20°C and atmospheric pressure of 0.001 to 0.15 W/m·K, determined by ASTM E1225-13, and a surface area (S BET ), determined by ISO 9277, of between 200 and 1500 m 2 /g, one or more hydrophilic aerogel(s) and mixtures thereof, wherein the binder is a solution, an emulsion, or a dispersion in water.
A control apparatus of an engine having a first fuel injection valve for injecting fuel into an intake path of the engine, a second fuel injection valve for injecting fuel into a combustion chamber of the engine, a supercharger for supercharging intake air for the engine, and a waste gate valve for opening and closing an exhaust bypass passage for bypassing a turbine of the supercharger, the control apparatus comprising: fuel injection control means for controlling injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve in accordance with an operating state of the engine; and valve control means for changing an open/closed state of the waste gate valve in accordance with the injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve, wherein the fuel injection control means increases the injection amount of fuel injected from the second fuel injection valve in accordance with an increase in a load or speed of the engine, and the valve control means changes the open/closed state of the waste gate valve in a sequence of an open state, a closed state, and the open state as the injection amount of fuel injected from the second fuel injection valve increases, wherein the open state may not only be a fully open state but also a slightly closed state and the closed state may not only be a fully closed state but also a slightly open state and wherein the fuel injection control means changes injection ratios of fuel injected from the first fuel injection valve and the second fuel injection valve in accordance with an operating range of the engine, and the valve control means sets the waste gate valve in the open state in a first operating range on a low rotation, low load side in which the injection amount of the first fuel injection valve is large. fuel injection control means for controlling injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve in accordance with an operating state of the engine; and valve control means for changing an open/closed state of the waste gate valve in accordance with the injection amounts of fuel injected from the first fuel injection valve and the second fuel injection valve,
A liquefied gas filling station and liquefied gas production station, having: - a first circuit with a liquefied gas tank supplied with gas in the gaseous state by a gas supply line, - a second circuit for coolant fluid fluidically independent of the first circuit with means making it possible to compress this fluid and to expand it, the second circuit being a closed circuit, and - an exchanger for exchanging heat between the first circuit and the second circuit , in which heat exchanger the fluid from the second circuit flows in a first direction after expansion of the fluid from the second circuit, and the gas from the first circuit flows in a second direction, this gas entering the exchanger in the gaseous state and leaving it in the liquid state, the heat exchange being performed upstream of the tank , characterized in that it further comprises: - means (LT) making it possible to determine the level of liquefied gas in the tank , - a device for measuring the temperature (TT) in the first circuit , downstream of the exchanger and upstream of the tank , - additional means for varying the pressure of the fluid within the second fluid circuit , and - a command and control system acting on the means to vary the pressure in the second circuit based on the temperature measured by the temperature measuring device and based on the level of liquefied gas in the tank. - a first circuit with a liquefied gas tank supplied with gas in the gaseous state by a gas supply line, - a second circuit for coolant fluid fluidically independent of the first circuit with means making it possible to compress this fluid and to expand it, the second circuit being a closed circuit, and - an exchanger for exchanging heat between the first circuit and the second circuit , in which heat exchanger the fluid from the second circuit flows in a first direction after expansion of the fluid from the second circuit, and the gas from the first circuit flows in a second direction, this gas entering the exchanger in the gaseous state and leaving it in the liquid state, the heat exchange being performed upstream of the tank , - means (LT) making it possible to determine the level of liquefied gas in the tank , - a device for measuring the temperature (TT) in the first circuit , downstream of the exchanger and upstream of the tank , - additional means for varying the pressure of the fluid within the second fluid circuit , and - a command and control system acting on the means to vary the pressure in the second circuit based on the temperature measured by the temperature measuring device and based on the level of liquefied gas in the tank.
A process for preparing a macromer by catalyzed reaction of a hexafunctional polyol P with at least one unsaturated isocyanate compound V which contains at least one isocyanate group reactive with a Zerewitinoff-active compound, using 1.5 to 1.8 mol of the unsaturated isocyanate compound V, based on the macromer, and a catalyst K, where the unsaturated isocyanate compound V contains precisely one isocyanate group reactive with a Zerewitinoff-active compound and where the polyol P has been prepared by reacting sorbitol with at least one alkylene oxide with catalysis by base.
A wind turbine blade , comprising: - an upwind side shell part and a downwind side shell part ; - the upwind side shell part and the downwind side shell part being bonded together along at least one joint ; - wherein, at said at least one joint, the upwind side shell part and/or the downwind side shell part are bonded at an internal glue flange as well as at an external glue flange , wherein at least one shell part comprises an internal glue flange and an external glue flange, wherein the internal glue flange and the external glue flange together form an L-shaped profile, as seen in a cross section of the shell part. - an upwind side shell part and a downwind side shell part ; - the upwind side shell part and the downwind side shell part being bonded together along at least one joint ; - wherein, at said at least one joint, the upwind side shell part and/or the downwind side shell part are bonded at an internal glue flange as well as at an external glue flange ,
A method of determining a temperature-compensated glucose concentration level, the method comprising: receiving a temperature signal indicative of a temperature parameter of an external component that is a non-subcutaneous temperature sensor ; receiving a glucose signal indicative of an in vivo glucose concentration level measured at a subcutaneous location by a glucose sensor ; and determining a compensated glucose concentration level based on the glucose signal, the temperature signal, and a delay parameter, wherein the temperature parameter is detected at a first time and the glucose concentration level is detected at a second time after the first time, wherein the delay parameter includes a delay time period between the first time and the second time that accounts for a delay between a first temperature change at the external component and a second temperature change proximate the glucose sensor . receiving a temperature signal indicative of a temperature parameter of an external component that is a non-subcutaneous temperature sensor ; receiving a glucose signal indicative of an in vivo glucose concentration level measured at a subcutaneous location by a glucose sensor ; and determining a compensated glucose concentration level based on the glucose signal, the temperature signal, and a delay parameter, wherein the temperature parameter is detected at a first time and the glucose concentration level is detected at a second time after the first time, wherein the delay parameter includes a delay time period between the first time and the second time that accounts for a delay between a first temperature change at the external component and a second temperature change proximate the glucose sensor .
Display device (D) comprising at least one light source as lighting unit and at least one chassis , comprising; - at least one heat dissipation plate , wherein said light source is in communication for heat transfer with said heat dissipation plate , wherein the heat dissipation plate is connected to said chassis so as to dissipate the heat generated by the light source through the chassis , said light source is placed at the at least one corner of the display device (D), characterized in that : the thermal conductivity of the heat dissipation plate is higher than 200W/mk, wherein said heat dissipation plate extends along one edge of the display device (D), and wherein at least one additional heat sink is located between the heat dissipation plate and the chassis . - at least one heat dissipation plate , wherein said light source is in communication for heat transfer with said heat dissipation plate , wherein the heat dissipation plate is connected to said chassis so as to dissipate the heat generated by the light source through the chassis , said light source is placed at the at least one corner of the display device (D), characterized in that : the thermal conductivity of the heat dissipation plate is higher than 200W/mk, wherein said heat dissipation plate extends along one edge of the display device (D), and wherein at least one additional heat sink is located between the heat dissipation plate and the chassis .
An angular sensor, comprising: a Coriolis vibratory gyroscope f resonator , capable of oscillating along: a first pair of normal n=1 modes comprising a first normal mode and a second normal mode ; each of the first and second normal modes having one anti- nodal axis ; and a second pair of normal n=2 modes comprising a third normal mode and a fourth normal mode ; each of the third and fourth normal modes having two anti- nodal axes (92, 96; 94, 90); a drive electrode and a sense electrode aligned along the anti- nodal axis of each of the first and second normal modes ; a drive electrode and a sense electrode aligned along a first anti-nodal axis (92, 96; 94, 90) of each of the third and fourth normal modes; and a pair of bias tune electrodes aligned with a second anti-nodal axis (92, 96; 94, 90) of one of the third and fourth normal modes; wherein the angular sensor does not comprise any drive or sense electrode aligned with said second anti-nodal axis. a Coriolis vibratory gyroscope f resonator , capable of oscillating along: a first pair of normal n=1 modes comprising a first normal mode and a second normal mode ; each of the first and second normal modes having one anti- nodal axis ; and a second pair of normal n=2 modes comprising a third normal mode and a fourth normal mode ; each of the third and fourth normal modes having two anti- nodal axes (92, 96; 94, 90); a drive electrode and a sense electrode aligned along the anti- nodal axis of each of the first and second normal modes ; a drive electrode and a sense electrode aligned along a first anti-nodal axis (92, 96; 94, 90) of each of the third and fourth normal modes; and a pair of bias tune electrodes aligned with a second anti-nodal axis (92, 96; 94, 90) of one of the third and fourth normal modes; wherein the angular sensor does not comprise any drive or sense electrode aligned with said second anti-nodal axis.