mhurhangee/ep-ind-claims huggingface dataset:
A refrigerator comprising: a main body having a storage space therein; a first door hinged to the main body for opening and closing the storage space; a door frame provided at the first door; a second door hinged to the first door, the second door having a side wall, at least a portion of which is inserted into the door frame, and a catching part provided in the side wall; and a locking device for selectively allowing the second door to be turned with respect to the first door, wherein the locking device comprises: a moving member, a displacement of which is changed depending on an open or closed state of the first door; and a catching member, a displacement of which is changed depending on the displacement of the moving member, whereby a protruding length of the catching member from the door frame is changed, characterized in that (i) the side wall of the second door includes an upper side wall and the catching part is provided on the upper side wall (ii) the catching member being selectively caught in the catching part in a vertical direction. a main body having a storage space therein; a first door hinged to the main body for opening and closing the storage space; a door frame provided at the first door; a second door hinged to the first door, the second door having a side wall, at least a portion of which is inserted into the door frame, and a catching part provided in the side wall; and a locking device for selectively allowing the second door to be turned with respect to the first door, wherein the locking device comprises: a moving member, a displacement of which is changed depending on an open or closed state of the first door; and a catching member, a displacement of which is changed depending on the displacement of the moving member, whereby a protruding length of the catching member from the door frame is changed, characterized in that (i) the side wall of the second door includes an upper side wall and the catching part is provided on the upper side wall (ii) the catching member being selectively caught in the catching part in a vertical direction. a moving member, a displacement of which is changed depending on an open or closed state of the first door; and a catching member, a displacement of which is changed depending on the displacement of the moving member, whereby a protruding length of the catching member from the door frame is changed, characterized in that (i) the side wall of the second door includes an upper side wall and the catching part is provided on the upper side wall (ii) the catching member being selectively caught in the catching part in a vertical direction. (i) the side wall of the second door includes an upper side wall and the catching part is provided on the upper side wall (ii) the catching member being selectively caught in the catching part in a vertical direction.
A computer implemented method for recording data relating to the performance of an oil and gas flow network, the method comprising: gathering data covering a period of time, wherein the data relates to the status of one or more control point(s) within the flow network and to one or more flow parameter(s) of interest in one or more flow path(s) of the flow network; wherein the method further comprises: identifying multiple time intervals in the data during which the control point(s) and the flow parameter(s) can be designated as being in a category selected from multiple categories relating to different types of stable production and multiple categories relating to different types of transient events, wherein the data hence includes multiple datasets each framed by one of the multiple time intervals; assigning a selected category of the multiple categories to each one of the multiple datasets that are framed by the multiple time intervals; and extracting statistical data representative of some or all of the datasets identified in step to thereby represent the original data from step in a compact form including details of the category assigned to each time interval in step. gathering data covering a period of time, wherein the data relates to the status of one or more control point(s) within the flow network and to one or more flow parameter(s) of interest in one or more flow path(s) of the flow network; wherein the method further comprises: identifying multiple time intervals in the data during which the control point(s) and the flow parameter(s) can be designated as being in a category selected from multiple categories relating to different types of stable production and multiple categories relating to different types of transient events, wherein the data hence includes multiple datasets each framed by one of the multiple time intervals; assigning a selected category of the multiple categories to each one of the multiple datasets that are framed by the multiple time intervals; and extracting statistical data representative of some or all of the datasets identified in step to thereby represent the original data from step in a compact form including details of the category assigned to each time interval in step.
A multilayer coated film forming method which includes an intermediate coat formation step in which a waterborne intermediate-coat coating material is coated onto an electrodeposited and hardened coated film to form the intermediate coat, a basecoat formation step in which a waterborne basecoat coating material is coated onto the intermediate coat to form the basecoat without performing flash-off following the intermediate coat formation step, a clearcoat formation step in which a clearcoat coating material is coated onto the unhardened basecoat to form the clearcoat, and a heating and hardening step in which these three coats are simultaneously heated and hardened, where, in said multilayer coated film forming method, the aforesaid waterborne intermediate-coat coating material and the aforesaid waterborne basecoat coating material include a core/shell type resin emulsion in which the core portion is an acrylic resin and the shell portion is a polyurethane resin, a water-soluble or water-dispersible polyurethane resin, a water-soluble or water-dispersible polyester resin, and a melamine resin, and the hydroxyl value of aforesaid acrylic resin is 10-30 mgKOH/g, the acid value is 0-10 mgKOH/g, and the glass transition temperature is 0-100°C, the hydroxyl value of aforesaid polyurethane resin is 20-80 mgKOH/g, the acid value is 10-60 mgKOH/g, and the number average molecular weight is 2 000 - 10 000, the solids content mass ratio denoted by {aforesaid component /aforesaid component} is 0.80-1.25, and, based on the combined resin solids content by mass of aforesaid components to, the solids content by mass of aforesaid component is 5-25 mass%, the solids content by mass of aforesaid component is 45-65 mass%, the solids content by mass of aforesaid component is 20-40 mass%, and the solids content by mass of aforesaid component is 35-45 mass%.
A belt splicer comprising: first and second clamp jaws (12, 13) in a confronting relationship; wherein the belt splicer further comprises means for rapidly releasing the clamp jaws connected to the first and second clamp jaws; characterised in that the means for rapidly releasing the clamp jaws directs a force impulse against the first and second clamp jaws (12, 13) in opposite directions to accelerate the first and second clamp jaws (12, 13) rapidly apart at a greater speed than the clamp jaws are moved towards each other. first and second clamp jaws (12, 13) in a confronting relationship; wherein the belt splicer further comprises means for rapidly releasing the clamp jaws connected to the first and second clamp jaws; characterised in that the means for rapidly releasing the clamp jaws directs a force impulse against the first and second clamp jaws (12, 13) in opposite directions to accelerate the first and second clamp jaws (12, 13) rapidly apart at a greater speed than the clamp jaws are moved towards each other.
A braking circuit for a motor, comprising: an arrangement of power cells electrically connected to receive power from a source comprising a three phase supply and deliver power to a motor through a single phase output, the arrangement comprising: a first rank (250, 270) of single-phase regenerative power cells (251-253, 271-273) which have the capability of absorbing regenerative power; and a second rank (260, 280) of single-phase non-regenerative power cells (261-263, 281-283) which do not have the capability of absorbing regenerative power; wherein the second rank of single-phase non-regenerative power cells is connected in series with the first rank of single-phase regenerative power cells; and wherein the braking circuit further comprises a control circuit connected to the arrangement of power cells, wherein the control circuit is configured to generate pulse width modulation voltage commands for controlling the single-phase regenerative power cells and the single-phase non-regenerative power cells. an arrangement of power cells electrically connected to receive power from a source comprising a three phase supply and deliver power to a motor through a single phase output, the arrangement comprising: a first rank (250, 270) of single-phase regenerative power cells (251-253, 271-273) which have the capability of absorbing regenerative power; and a second rank (260, 280) of single-phase non-regenerative power cells (261-263, 281-283) which do not have the capability of absorbing regenerative power; a first rank (250, 270) of single-phase regenerative power cells (251-253, 271-273) which have the capability of absorbing regenerative power; and a second rank (260, 280) of single-phase non-regenerative power cells (261-263, 281-283) which do not have the capability of absorbing regenerative power; wherein the second rank of single-phase non-regenerative power cells is connected in series with the first rank of single-phase regenerative power cells; and wherein the braking circuit further comprises a control circuit connected to the arrangement of power cells, wherein the control circuit is configured to generate pulse width modulation voltage commands for controlling the single-phase regenerative power cells and the single-phase non-regenerative power cells.
A child seat configured to be secured to a vehicle seat in both a rear-facing and front facing orientation with a seat belt of the vehicle defining a lap section and a shoulder section, the child seat comprising: a seat base defining a seat portion and a backrest portion, wherein the seat base is configured to receive a portion of the lap section and a portion of the shoulder section of the belt in an untensioned state to secure the child seat to the vehicle seat in an untensioned configuration; and a tensioning mechanism attached to the seat base, wherein the tensioning mechanism is movable between a first position substantially adjacent to the seat base and a second position displaced therefrom, wherein placing the tensioning mechanism in the second position allows the tensioning mechanism to engage with the portion of the lap section and the portion of the shoulder section of the belt, and movement of the tensioning mechanism from the second position to the first position applies tension to both the shoulder section and the lap section of the belt engaged with the tensioning mechanism to secure the child seat to the vehicle seat in a tensioned configuration. a seat base defining a seat portion and a backrest portion, wherein the seat base is configured to receive a portion of the lap section and a portion of the shoulder section of the belt in an untensioned state to secure the child seat to the vehicle seat in an untensioned configuration; and a tensioning mechanism attached to the seat base, wherein the tensioning mechanism is movable between a first position substantially adjacent to the seat base and a second position displaced therefrom, wherein placing the tensioning mechanism in the second position allows the tensioning mechanism to engage with the portion of the lap section and the portion of the shoulder section of the belt, and movement of the tensioning mechanism from the second position to the first position applies tension to both the shoulder section and the lap section of the belt engaged with the tensioning mechanism to secure the child seat to the vehicle seat in a tensioned configuration.
A bearing component of steel such as component of a linear bearing of a rolling element bearing and a sliding bearing, for example a component selected from the group comprising a bearing race, a rolling element such as a tapered roller, a barrel roller, a needle roller, a bearing ball and a rolling element cage, the bearing component having at least one layer (112; 112, 112'; 112, 112'; 112") having a high hardness and a high current insulation property applied by a PVD (physical vapor deposition) process, by a CVD (chemical vapor deposition) process, or by a PECVD (plasma enhanced chemical vapor deposition) process but excluding an ALD process or a plasma enhanced ALD process at at least one surface region of said component, said at least one layer (112; 112, 112', 112, 112'; 112") comprising a non-conductive oxide layer selected from the group of materials comprising an Al 2 O 3 layer, a Ta x O y layer, an SixOy layer, a mixed layer comprising two or more of the foregoing oxides, a multilayer structure comprising alternating layers of two or more of the foregoing oxides and/or a DLC layer such as a ta-C layer, there being at least one ALD layer comprising at least one layer of a material deposited by an ALD (atomic layer deposition) process on said at least one layer having a high hardness and a high current insulation property, the ALD layer itself having a high current insulation property and comprising a material or layer structure selected from the group of materials comprising an Al 2 O 3 layer, a Ta x O y layer, an Si x O y layer, a TiO 2 layer or an HfO 2 layer, a mixed layer comprising two or more of the foregoing oxides, and a multilayer structure comprising alternating layers of two or more of the foregoing oxides.
A method for a first device to communicate with a second device in a wireless network, the method comprising: receiving, by the first device, location information of at least one antenna (510, 520) in the second device; characterized in that the method comprises overlaying, by the first device, a graphical illustration of the second device with the location information of the at least one antenna and origin information in a visual or audiovisual representation, and providing, by the first device the visual or audiovisual representation to a user of the first device. receiving, by the first device, location information of at least one antenna (510, 520) in the second device; characterized in that the method comprises overlaying, by the first device, a graphical illustration of the second device with the location information of the at least one antenna and origin information in a visual or audiovisual representation, and providing, by the first device the visual or audiovisual representation to a user of the first device.
A drilling system including a drill string which extends into a borehole, and a well closure system (18, 20) which contains fluid in the annular space in the borehole around the drill string, the well closure system (18,20) having a side port whereby controlled flow of fluid out of the annular space in the borehole around the drill string is permitted, the side port being connected to fluid return line which extends from the side port to a fluid reservoir, there being provided in the fluid return line a valve which is operable to restrict flow of fluid along the fluid return line to variable extent, and a flow meter operable to measure the rate of flow of fluid along the fluid return line, the flow meter being located between the valve and the side port in a branch line off the fluid return line which extends between a first portion of the fluid return line and a second portion of the fluid return line, the first portion being located between the side port and the second portion, characterised in that a filter is provided between the flow meter and the side port at or adjacent to the junction between the branch line and the first portion of the fluid return line, the filter including a plurality of apertures which have a smaller cross-sectional area than the smallest fluid flow lines in the flow meter.
A zinc finger peptide comprising the sequence: N'- [(Formula 2) - X 6] n0 - {[(Formula 2) - X 5 - (Formula 2) - X 6] n1 - [(Formula 2) - X 5 - (Formula 2) - X L]} n2 - [(Formula 2) - X 5 - (Formula 2) - X 6] n3 - [(Formula 2) - X 5 - (Formula 2)] - [X 6 - (Formula 2) -] n4 -C', wherein n0 is 0 or 1, n1 is from 1 to 4, n2 is 1 or 2, n3 is from 1 to 4, n4 is 0 or 1, X 5 is a linker sequence of 5 amino acids, X 6 is a linker sequence of 6 or 7 amino acids, and X L is a linker sequence of at least 8 amino acids, and Formula 2 is a zinc finger domain of the sequence - X 0-2 C X 1-5 C X 2-7 X -1 X +1 X +2 X +3 X +4 X +5 X +6 H X 3-6 H / C -, wherein X is any amino acid, the numbers in subscript indicate the possible numbers of residues represented by X at that position, and the number in superscript indicates the position of the amino acid in the recognition sequence of the zinc finger domain; wherein at least one X -1 X +1 X +2 X +3 X +4 X +5 X +6 sequence is the amino acid sequence QRATLQR (SEQ ID NO: 1).
A system for communicating data between an application server and at least one machine-to-machine, M2M device wherein the at least one M2M device is connected to a base station in a network and the network Is connected to the application server via the internet network and wherein a network element is located on a boundary between the network and the internet network via which the application server communicates with the at least one M2M device, wherein the network element configured to schedule delivery of the data between the application server and at least one M2M device based on network information, the system characterized by: the network element is configured to schedule delivery of the data by transmitting a control signal Including a notification to the at least one M2M device indicating when the application server has requested the data and when the application server is ready to receive the data and, based on the control signal, the data is delivered from the at least one M2M device to the application server, without the data being passed through the network element.
Valve having a housing, a solenoid which is arranged in the housing, a pin which can be moved by the solenoid, a piston which is connected to the pin and a seal, characterized in that the piston has an annular base member having a sealing edge, in that the annular base member has a base which is constructed as a membrane, in that the membrane has a bushing at the center thereof and in that the bushing is connected to the pin.
A power interruption method by a power interruption device according to claim 8, comprising: receiving a first detection signal and a second detection signal detected by using a current transformer and a voltage detector coupled to a power supply line supplying power to a load, respectively; generating a control signal by sensing generation of arc in the load for a first target signal (611, 621) and a second target signal (612, 622) input based on the first detection signal and the second detection signal, respectively; and interrupting the power supply to the load according to the control signal, wherein in the generating of the control signal, analog to digital converter, ADC, values of the first and second target signals (611, 621, 612, 622), respectively are generated to generate the control signal based on a phase difference of each of the first and second target signals (611, 621, 612, 622) at a predetermined signal magnitude level, wherein the power is AC power, wherein for an application to a complex load, the predetermined signal magnitude level includes a plurality of levels corresponding to respective loads, wherein the control signal is generated based on a phase difference at each level, the method being characterized in that for each of the plurality of levels, respective thresholds for interrupting the power supply to the load by an arc trip are set to different values, and wherein for each of the plurality of levels the phase difference is compared to the respective threshold. receiving a first detection signal and a second detection signal detected by using a current transformer and a voltage detector coupled to a power supply line supplying power to a load, respectively; generating a control signal by sensing generation of arc in the load for a first target signal (611, 621) and a second target signal (612, 622) input based on the first detection signal and the second detection signal, respectively; and interrupting the power supply to the load according to the control signal, wherein in the generating of the control signal, analog to digital converter, ADC, values of the first and second target signals (611, 621, 612, 622), respectively are generated to generate the control signal based on a phase difference of each of the first and second target signals (611, 621, 612, 622) at a predetermined signal magnitude level, wherein the power is AC power, wherein for an application to a complex load, the predetermined signal magnitude level includes a plurality of levels corresponding to respective loads, wherein the control signal is generated based on a phase difference at each level, the method being characterized in that for each of the plurality of levels, respective thresholds for interrupting the power supply to the load by an arc trip are set to different values, and wherein for each of the plurality of levels the phase difference is compared to the respective threshold.
Street sweeper comprising - a dirt container, - a suction device comprising a suction mouth, a suction channel and a suction fan for guiding a suction flow into the dirt container, - a recycling system comprising a separating device, configured to separate and reuse sucked-in dirty water from the dirty water tank as recycled water, and further comprising a recycling conduit, wherein the recycling water flows in a first flow direction from the dirt container through the recycling conduit, - a fresh water tank containing fresh water, - a cleaning device configured to clean at least part of the recycling system by means of the fresh water from the fresh water tank, characterised in that - at least one section of the recycling conduit can be cleaned by means of the cleaning device by means of a high-pressure water jet or by means of a pulsating water jet, and/or - the cleaning device is adapted to guide fresh water in a second flow direction through at least one section of the recycling conduit, wherein the first flow direction and the second flow direction within the recycling conduit are opposite, in particular wherein the second flow direction is in the direction of the dirt container. - a dirt container, - a suction device comprising a suction mouth, a suction channel and a suction fan for guiding a suction flow into the dirt container, - a recycling system comprising a separating device, configured to separate and reuse sucked-in dirty water from the dirty water tank as recycled water, and further comprising a recycling conduit, wherein the recycling water flows in a first flow direction from the dirt container through the recycling conduit, - a fresh water tank containing fresh water, - a cleaning device configured to clean at least part of the recycling system by means of the fresh water from the fresh water tank, - at least one section of the recycling conduit can be cleaned by means of the cleaning device by means of a high-pressure water jet or by means of a pulsating water jet, and/or - the cleaning device is adapted to guide fresh water in a second flow direction through at least one section of the recycling conduit, wherein the first flow direction and the second flow direction within the recycling conduit are opposite, in particular wherein the second flow direction is in the direction of the dirt container.