mhurhangee/ep-ind-claims huggingface dataset:
A water balance control system comprising a collecting area for collecting precipitation, a storage space which receives precipitation running off from the collecting area, a delivery device and an application area, an extraction line with which water can be extracted from the storage space to be supplied to the application area via the delivery device, means for controllably conveying the water in the extraction line, a sensor for determining the water level in the storage space, at least one sensor for determining a climatic characteristic, an electronic evaluation unit configured to receive data transmitted by the sensors (S1, S2) and to transmit them to an electronic control device, characterized in that the at least one sensor is a sensor for determining a climatic characteristic in the vicinity of the collecting area, and in that the electronic control device is configured to control, using the data transmitted by the electronic evaluation unit, the means such that a predetermined water balance is achieved over a predetermined time period (t), which water balance is characterized by predetermined proportions of evaporation (v) and runoff (a) for the precipitation quantity which has fallen on the collecting area during the time period (t). a collecting area for collecting precipitation, a storage space which receives precipitation running off from the collecting area, a delivery device and an application area, an extraction line with which water can be extracted from the storage space to be supplied to the application area via the delivery device, means for controllably conveying the water in the extraction line, a sensor for determining the water level in the storage space, at least one sensor for determining a climatic characteristic, an electronic evaluation unit configured to receive data transmitted by the sensors (S1, S2) and to transmit them to an electronic control device, characterized in that the at least one sensor is a sensor for determining a climatic characteristic in the vicinity of the collecting area, and in that the electronic control device is configured to control, using the data transmitted by the electronic evaluation unit, the means such that a predetermined water balance is achieved over a predetermined time period (t), which water balance is characterized by predetermined proportions of evaporation (v) and runoff (a) for the precipitation quantity which has fallen on the collecting area during the time period (t).
A method for determining the minimum number of individual polynucleotide molecules originating from the same genomic region of the same original sample that have been sequenced in a particular sequence analysis configuration or process, including: attaching a degenerate base region to starting polynucleotide molecules; amplifying the DBR-attached starting polynucleotide molecules; sequencing the amplified polynucleotide molecules, wherein the sequence of the DBR as well as a portion of the polynucleotide is obtained; determining the number of different DBRs attached to a polynucleotide of interest; and using the number of different DBR sequences present in the sequencing run to determine the minimum number of individual polynucleotide molecules originating from the same genomic region of the same original sample that have been sequenced in the particular sequence analysis configuration or process; wherein the method includes pooling polynucleotide molecules from a plurality of original samples, wherein the polynucleotide molecules derived from each original sample include a multiplex identifier tag, wherein each original sample is correlated with a unique MID such that the original sample from which each tagged polynucleotide molecule was derived can be determined. attaching a degenerate base region to starting polynucleotide molecules; amplifying the DBR-attached starting polynucleotide molecules; sequencing the amplified polynucleotide molecules, wherein the sequence of the DBR as well as a portion of the polynucleotide is obtained; determining the number of different DBRs attached to a polynucleotide of interest; and using the number of different DBR sequences present in the sequencing run to determine the minimum number of individual polynucleotide molecules originating from the same genomic region of the same original sample that have been sequenced in the particular sequence analysis configuration or process; wherein the method includes pooling polynucleotide molecules from a plurality of original samples, wherein the polynucleotide molecules derived from each original sample include a multiplex identifier tag, wherein each original sample is correlated with a unique MID such that the original sample from which each tagged polynucleotide molecule was derived can be determined.
A train wheel setting mechanism comprising: a first rotating body and a second rotating body that are supported by a main plate; a train wheel setting lever that is provided to be capable of coming into contact with and separating from the first rotating body, and configured to operate in conjunction with a winding stem; a bridge member that supports the second rotating body together with the main plate, and also supports the train wheel setting lever; and a biasing member configured to bias the train wheel setting lever with respect to the bridge member. a first rotating body and a second rotating body that are supported by a main plate; a train wheel setting lever that is provided to be capable of coming into contact with and separating from the first rotating body, and configured to operate in conjunction with a winding stem; a bridge member that supports the second rotating body together with the main plate, and also supports the train wheel setting lever; and
A saw comprising: a base structure (6, 100) having a work surface (102, 104); a cutting unit mounted on the base structure (6, 100) which is capable of cutting a work piece when a work piece is located on the work surface (102, 104); a fence mounted on the base structure (6, 100) which traverses a part of the work surface (102, 104) and which is used to support a work piece when it is being cut; characterised in that there is at least one rib mounted on the base structure (6, 100), the fence abutting against the at least one rib; characterised in that the fence is a fixed fence wherein the fixed fence is mounted on the base structure (6, 100) by a fastener attached to the fence which is inserted into the base structure (6, 100) to attach the fastener to the base structure (6,100) wherein the fastener applies a biasing force to the fence which urges the fence into engagement with the rib as the fastener is inserted into the base structure (6,100). a base structure (6, 100) having a work surface (102, 104); a cutting unit mounted on the base structure (6, 100) which is capable of cutting a work piece when a work piece is located on the work surface (102, 104); a fence mounted on the base structure (6, 100) which traverses a part of the work surface (102, 104) and which is used to support a work piece when it is being cut; characterised in that there is at least one rib mounted on the base structure (6, 100), the fence abutting against the at least one rib; characterised in that the fence is a fixed fence wherein the fixed fence is mounted on the base structure (6, 100) by a fastener attached to the fence which is inserted into the base structure (6, 100) to attach the fastener to the base structure (6,100) wherein the fastener applies a biasing force to the fence which urges the fence into engagement with the rib as the fastener is inserted into the base structure (6,100).
A method, in a wireless device operating in a wireless communication network, the method comprising: receiving, from a source node, a conditional handover command, the conditional handover command including a conditional handover configuration and a triggering condition for execution of handover to a target cell or target beam; starting monitoring the triggering condition; characterized by performing: if the triggering condition for the target cell is met before completion of the conditional handover configuration, skipping a transmission of the conditional handover complete message to the source node, and immediately executing the handover by applying the configuration in the conditional handover command; else, if the triggering condition for the target cell is not met before completion of the conditional handover configuration, sending to the source node a conditional handover complete message at completion of the configuration. receiving, from a source node, a conditional handover command, the conditional handover command including a conditional handover configuration and a triggering condition for execution of handover to a target cell or target beam; starting monitoring the triggering condition; characterized by performing: if the triggering condition for the target cell is met before completion of the conditional handover configuration, skipping a transmission of the conditional handover complete message to the source node, and immediately executing the handover by applying the configuration in the conditional handover command; else, if the triggering condition for the target cell is not met before completion of the conditional handover configuration, sending to the source node a conditional handover complete message at completion of the configuration. if the triggering condition for the target cell is met before completion of the conditional handover configuration, skipping a transmission of the conditional handover complete message to the source node, and immediately executing the handover by applying the configuration in the conditional handover command; else, if the triggering condition for the target cell is not met before completion of the conditional handover configuration, sending to the source node a conditional handover complete message at completion of the configuration.
A heating appliance comprising: a cooktop that is at least partially translucent; an electric burner positioned in thermal communication with an upper surface of the cooktop, the electric burner being operable between a deactive state and at least one active state, wherein the upper surface of the cooktop proximate the electric burner defines a temporary cooldown state after the electric burner is moved from the at least one active state to the deactive state; a light module including at least one light source, wherein the light module is in an illuminated state when the electric burner is in the at least one active state, and wherein the light module remains at least partially in the illuminated state during the temporary cooldown state; and a light guide extending from the light module and extending around a portion of the electric burner, wherein the light guide is positioned such that the light source directs light through the light guide, and wherein an outer surface of the light guide includes a formed surface for directing the light upward and through the cooktop such that the light guide is at least partially visible through the cooktop when the light module is in the illuminated state to define a plurality of illuminative indicia within the cooktop characterized in that the light guide is a silicone light guide that is a solid silicone prism that extends at least partially around the electric burner. a cooktop that is at least partially translucent; an electric burner positioned in thermal communication with an upper surface of the cooktop, the electric burner being operable between a deactive state and at least one active state, wherein the upper surface of the cooktop proximate the electric burner defines a temporary cooldown state after the electric burner is moved from the at least one active state to the deactive state; a light module including at least one light source, wherein the light module is in an illuminated state when the electric burner is in the at least one active state, and wherein the light module remains at least partially in the illuminated state during the temporary cooldown state; and a light guide extending from the light module and extending around a portion of the electric burner, wherein the light guide is positioned such that the light source directs light through the light guide, and wherein an outer surface of the light guide includes a formed surface for directing the light upward and through the cooktop such that the light guide is at least partially visible through the cooktop when the light module is in the illuminated state to define a plurality of illuminative indicia within the cooktop characterized in that the light guide is a silicone light guide that is a solid silicone prism that extends at least partially around the electric burner.
A cationic lipid represented by the formula: wherein any 4 of X 1 - X 6 are each independently a group represented by the formula (X a), a group represented by the formula (X b) or a hydroxyl group (provided that said 4 are not hydroxyl groups at the same time), and the remaining 2 are each independently a group represented by the formula (X c) or a hydroxyl group (provided that said 2 are not hydroxyl groups at the same time), -y 1 -R 1 (X a) wherein R 1 is an aliphatic hydrocarbon group having 8 - 22 carbon atoms or an acyl group having 8 - 22 carbon atoms; Y 1 is -0- or -NH-, wherein R 2 is a sterol residue, a retinol residue, a retinal residue, an ergosterol residue, a 7-hydroxycholesterol residue, a 7-dehydrocholesterol residue, a calciferol residue, a colecalciferol residue, a dihydroergocalciferol residue, a dihydrotachysterol residue, a tocopherol residue or a tocotrienol residue; Z 1 is an alkylene group having 2 or 3 carbon atoms; Y 2 is -O-CO- or -NH-CO-, wherein R 3 and R 4 are each independently an alkyl group having 1 - 6 carbon atoms, R 3 and R 4 are optionally bonded to form a ring; Z 2 is an alkylene group having 1 - 6 carbon atoms; Y 3 is -0-, -O-CO- or -NH-CO-; n is 0 or 1.
Gas analysis device, comprising a conduction block which has a plurality of channels, wherein at least two channels are connected together via an exchangeable pneumatic module, wherein the pneumatic module is designed for adjusting a fluid flow in a gas analysis device and comprises a support sleeve and a flow module which is contained in the support sleeve, wherein the flow module is connected at a first end thereof to the support sleeve in order to achieve greater measuring accuracy of the gas analysis device, characterised in that the support sleeve is designed in the region of the first end of the flow module for assembly on the gas analysis device and is designed to be closed in the region of a second end of the flow module.
Refrigeration appliance having a cooled interior surrounded by a heat-insulating external wall, said interior being divided by an intermediate wall into a main storage compartment and an auxiliary storage compartment, and at least one movable heat-insulating element, characterised in that the heat-insulating element can be moved between a first position resting against the external wall and a second position, in which it forms at least one part of the intermediate wall, and that a heat-insulating layer of the external wall has a weak point which fills the heat-insulating element in the first position.
An antenna apparatus comprising: - a first base plate; - an antenna unit which is disposed at a side of the first base plate and which is supported by the first base plate; - a counterweight unit which is disposed at another side of the first base plate opposite to the antenna unit, and which is supported by the first base plate; - a second base plate which is fixable to a moving object or to a structural object; - a vibration isolation structure that has one end fixed to the first base plate and another end fixed to the second base plate, and wherein the vibration isolation structure is configured to suppress a vibration of the first base plate; and wherein the vibration isolation structure has at least a portion disposed on a plane passing through a centroid of a structure configured by the antenna unit and the counterweight unit, said plane being parallel to the first base plate. - a first base plate; - an antenna unit which is disposed at a side of the first base plate and which is supported by the first base plate; - a counterweight unit which is disposed at another side of the first base plate opposite to the antenna unit, and which is supported by the first base plate; - a second base plate which is fixable to a moving object or to a structural object; - a vibration isolation structure that has one end fixed to the first base plate and another end fixed to the second base plate, and wherein the vibration isolation structure is configured to suppress a vibration of the first base plate;
A sintered refractory product comprising, in percentages by weight based on the oxides: Cr 2 O 3: at least 72.0% 2% < Al 2 O 3 ≤ 20% 0.5%<Ti0 2 <6.0% ZrO 2 < 4.0% SiO 2 ≤ 0.9%. Cr 2 O 3: at least 72.0% 2% < Al 2 O 3 ≤ 20% 0.5%<Ti0 2 <6.0% ZrO 2 < 4.0% SiO 2 ≤ 0.9%.
Method for near net shape manufacturing of high-temperature resistant engine components of geometrically complex structure by metal injection moulding, the engine components including an intermetallic phase of a high melting-point part and a low melting-point part, where the high melting-point part provided as a metal powder is mixed with a binder, and a green compact of the engine component is first produced by metal injection moulding, and a porous brown compact is created after removal of the binder, and subsequently the low melting-point part of the intermetallic phase is infiltrated into the pores of the brown compact in the molten state, characterized in that finally the brown compact such prepared is subjected to a heat treatment generating the intermetallic phase, and that a polymer two-component binder is used, where the first binder component is removed from the green compact created by metal injection moulding, and the second binder component is removed during infiltration of the low melting-point part of the intermetallic phase.
A power feeding device for a vehicle, comprising: a high frequency power driver configured to convert electric power received from a power source into high frequency power that can achieve magnetic field for transmission to a vehicle, a primary LC resonator configured to be magnetically coupled with a secondary LC resonator mounted on the vehicle by magnetic field, and to transmit the high frequency power received from the high frequency power driver to the secondary LC resonator, a communication device configured to receive a detection value of reception power transmitted from the vehicle, and a control device configured to adjust a frequency of the high frequency power by controlling the high frequency power driver such that the reception power is increased based on the detection value of the reception power received by the communication device. a high frequency power driver configured to convert electric power received from a power source into high frequency power that can achieve magnetic field for transmission to a vehicle, a primary LC resonator configured to be magnetically coupled with a secondary LC resonator mounted on the vehicle by magnetic field, and to transmit the high frequency power received from the high frequency power driver to the secondary LC resonator, a communication device configured to receive a detection value of reception power transmitted from the vehicle, and a control device configured to adjust a frequency of the high frequency power by controlling the high frequency power driver such that the reception power is increased based on the detection value of the reception power received by the communication device.
A process for providing at least a portion of steam produced by a boiler to a regenerating system, the regenerating system comprising a regenerator, a reboiler, a first heat exchanger and a second heat exchanger, the process comprising: producing a steam by combusting a fuel source in a boiler; providing at least a portion of the steam to a set of pressure turbines fluidly coupled to the boiler; the set of pressure turbines comprising a high pressure turbine, an intermediate pressure turbine, and a low pressure turbine, extracting at least a portion of a low pressure steam from the low pressure turbine and utilizing the extracted portion of the low pressure steam as a heat source for the regenerating system fluidly coupled to the low pressure turbine, characterized in that utilizing the extracted portion of the low pressure steam as a heat source comprises exchanging heat from the low pressure steam with a split stream of a rich absorbent solution in the first heat exchanger, feeding the split stream into the regenerator of the regenerating system, and mixing the low pressure steam condensate from the first heat exchanger with a medium or high pressure steam condensate from the reboiler for heating in the second heat exchanger another split stream of the rich absorbent solution to be fed into the regenerator. producing a steam by combusting a fuel source in a boiler; providing at least a portion of the steam to a set of pressure turbines fluidly coupled to the boiler; the set of pressure turbines comprising a high pressure turbine, an intermediate pressure turbine, and a low pressure turbine, extracting at least a portion of a low pressure steam from the low pressure turbine and utilizing the extracted portion of the low pressure steam as a heat source for the regenerating system fluidly coupled to the low pressure turbine, characterized in that utilizing the extracted portion of the low pressure steam as a heat source comprises exchanging heat from the low pressure steam with a split stream of a rich absorbent solution in the first heat exchanger, feeding the split stream into the regenerator of the regenerating system, and mixing the low pressure steam condensate from the first heat exchanger with a medium or high pressure steam condensate from the reboiler for heating in the second heat exchanger another split stream of the rich absorbent solution to be fed into the regenerator.