mhurhangee/ep-ind-claims huggingface dataset:
Cogeneration plant, in particular a fuel cell system, for providing electric power and heat, wherein the heat is able to be supplied to at least one heat- consuming process, having - an electrical energy source, in particular a fuel cell stack containing at least one fuel cell, and - an inverter arrangement, connected downstream of the energy source, for connection to at least one electrical consumer, in particular a power grid, wherein the inverter arrangement has a first, input-side DC chopper and an output-side inverter, and possibly a link circuit, wherein a controlled resistive load is connected in parallel with the energy source, characterized in that the inverter arrangement has first control electronics for controlling an electric power, a voltage and/or a current of the energy source and that are assigned to the first DC chopper. - an electrical energy source, in particular a fuel cell stack containing at least one fuel cell, and - an inverter arrangement, connected downstream of the energy source, for connection to at least one electrical consumer, in particular a power grid, wherein the inverter arrangement has a first, input-side DC chopper and an output-side inverter, and possibly a link circuit,
An electrochemical etching process for the enrichment and preparation of porous silicon by anodic etching of any starting metallurgical grade silicon pieces with a minimum 67.7 At% Si content in an anhydrous aprotic organic solvent containing a dissolved tertiary ammonium salt resulting from the corresponding amine and a mineral acid as supporting electrolyte.
A telescoping panel door system for an aircraft compartment, comprising: a door frame; a first panel (504, 602, 702) configured for hinged connection to the door frame; a second panel (506, 604, 704) adapted to move with respect to and slideably extend from the first panel; and at least one fixed-length linkage (610, 710) hingedly attached to the door frame and the second panel; characterised by at least one elongate aperture (512, 612, 712) in an edge of the first panel, the at least one fixed-length linkage being attached to the second panel through the at least one elongate aperture; wherein the second panel is adapted to slideably extend from and retract within the first panel; wherein the door frame, first and second panels, at least one fixed length linkage, and at least one elongate aperture are configured such that in a closed operational position, the second panel is extended from an interior of the first panel, the first and second panels cooperate to completely cover an opening defined by the door frame, and the fixed-length linkage is generally parallel to the plane defined by the door frame, and in an open operational position, the second panel is retracted into the interior of the first panel by operation of the first linkage and the first and second panels are nested to reduce a distanced spanned by the first panel and second panel. a first panel (504, 602, 702) configured for hinged connection to the door frame; a second panel (506, 604, 704) adapted to move with respect to and slideably extend from the first panel; and at least one fixed-length linkage (610, 710) hingedly attached to the door frame and the second panel; characterised by at least one elongate aperture (512, 612, 712) in an edge of the first panel, the at least one fixed-length linkage being attached to the second panel through the at least one elongate aperture; wherein the second panel is adapted to slideably extend from and retract within the first panel; wherein the door frame, first and second panels, at least one fixed length linkage, and at least one elongate aperture are configured such that in a closed operational position, the second panel is extended from an interior of the first panel, the first and second panels cooperate to completely cover an opening defined by the door frame, and the fixed-length linkage is generally parallel to the plane defined by the door frame, and in an open operational position, the second panel is retracted into the interior of the first panel by operation of the first linkage and the first and second panels are nested to reduce a distanced spanned by the first panel and second panel.
A method of controlling a computer system with a plurality of processors having a hardware-assisted virtualization and a memory, the computer system comprising a first processor group of the processors having hardware-assisted virtualization set disabled among the plurality of processors, and a second processor group of the processors and having hardware-assisted virtualization set enabled among the plurality of processors, the method characterized by comprising: a first step of booting a first OS, which executes a block based data access to a storage, by assigning the first processor group to the first OS; a second step of booting a virtual machine monitor to boot a virtual machine by assigning the second processor group to the virtual machine monitor; a third step performed by the virtual machine monitor, the third step booting a second OS, which requests the first OS to execute the block based data access to the storage device in response to receiving a file based data access request from a client, by assigning a certain area of the memory to the second OS; and a fourth step performed by the virtual machine monitor, the fourth step setting a data path through which the first OS and second OS communicate with each other, the data path being set in the memory. a first step of booting a first OS, which executes a block based data access to a storage, by assigning the first processor group to the first OS; a second step of booting a virtual machine monitor to boot a virtual machine by assigning the second processor group to the virtual machine monitor; a third step performed by the virtual machine monitor, the third step booting a second OS, which requests the first OS to execute the block based data access to the storage device in response to receiving a file based data access request from a client, by assigning a certain area of the memory to the second OS; and a fourth step performed by the virtual machine monitor, the fourth step setting a data path through which the first OS and second OS communicate with each other, the data path being set in the memory.
A method comprising (a) partitioning organelles into a plurality of partitions, wherein each partition comprises on average less than five organelles per partition; (b) lysing said organelles in the plurality of partitions, wherein the lysing releases RNA from said organelles; (c) generating tagged cDNA from said released RNA in said plurality of partitions with adaptors comprising a barcode, wherein each partition in the plurality of partitions comprises adaptors with a unique barcode. (a) partitioning organelles into a plurality of partitions, wherein each partition comprises on average less than five organelles per partition; (b) lysing said organelles in the plurality of partitions, wherein the lysing releases RNA from said organelles; (c) generating tagged cDNA from said released RNA in said plurality of partitions with adaptors comprising a barcode, wherein each partition in the plurality of partitions comprises adaptors with a unique barcode.
A process for mask-free localized grafting of organic molecules capable of being electrically activated onto a surface, by placing said organic molecules in contact with said surface, in which said molecules are grafted by electrografting, said electrografting being performed in a single step on chosen, defined areas of said surface, said areas being brought to a potential higher than or equal to a threshold electrical potential determined relative to a reference electrode, said threshold electrical potential being the potential above which electrografting of said organic molecules takes place, characterized in that said surface is a composite surface comprising conductive and/or semiconductive portions.
Connecting element (6, 7) for electrically connecting windings (3, 4, 5), which are at a distance from one another, of an inductive electrical component, the connecting element (6, 7) comprising - an electrically conductive tubular electrode with open electrode ends which each face a winding (3, 4, 5), - and at least one electrical conductor which is routed through the electrode and can be electrically connected to a winding (3, 4, 5), characterized in that the electrode has two straight end sections (16, 17) and one bent middle section which connects the two end sections (16, 17), so that the longitudinal axes of the two end sections (16, 17) intersect at an angle of intersection which lies between 90 degrees and 180 degrees. - an electrically conductive tubular electrode with open electrode ends which each face a winding (3, 4, 5), - and at least one electrical conductor which is routed through the electrode and can be electrically connected to a winding (3, 4, 5),
A method of removing fines from a hydrocarbon-containing fluid, comprising: a. preparing a bed media of particulate hydrocarbonaceous material, said particulate hydrocarbonaceous material comprising any particulate hydrocarbon-containing material from which hydrocarbon products can be extracted or derived; b. passing the hydrocarbon-containing fluid having fines therein through the bed media by gravity drain wherein the fines have a size less than 0.2 mm; and c. recovering the filtered hydrocarbon-containing fluid from the bed media; characterized in that the hydrocarbon-containing fluid is passed via gravity drain at a flow rate such that a portion of the fines are retained in the bed media to form a filtered hydrocarbon-containing fluid, said flow rate being sufficient to maintain a wetting film comprising a liquid of the hydrocarbon-containing fluid resulting in void spaces between at least some neighboring wetted particles across at least a majority portion of the particulate hydrocarbonaceous material which is contacted by the hydrocarbon-containing fluid such that the fines are retained in the bed media primarily via adsorption rather than physical entrapment, wherein the bed media is substantially stationary during the passing the hydrocarbon-containing fluid through the bed media. a. preparing a bed media of particulate hydrocarbonaceous material, said particulate hydrocarbonaceous material comprising any particulate hydrocarbon-containing material from which hydrocarbon products can be extracted or derived; b. passing the hydrocarbon-containing fluid having fines therein through the bed media by gravity drain wherein the fines have a size less than 0.2 mm; and c. recovering the filtered hydrocarbon-containing fluid from the bed media; characterized in that the hydrocarbon-containing fluid is passed via gravity drain at a flow rate such that a portion of the fines are retained in the bed media to form a filtered hydrocarbon-containing fluid, said flow rate being sufficient to maintain a wetting film comprising a liquid of the hydrocarbon-containing fluid resulting in void spaces between at least some neighboring wetted particles across at least a majority portion of the particulate hydrocarbonaceous material which is contacted by the hydrocarbon-containing fluid such that the fines are retained in the bed media primarily via adsorption rather than physical entrapment, wherein the bed media is substantially stationary during the passing the hydrocarbon-containing fluid through the bed media.
A method for providing a safe limited force producing power in a motor, the method comprising the steps of: receiving a first value of a current present in each phase of a stator of the motor at a motor drive, wherein the first value of the current is measured with a first set of current sensors and wherein the motor drive is operatively connected to control operation of the motor; determining a second value of the current present in each phase of the stator of the motor at the motor drive, wherein determining the second value of the current present in each phase of the stator is synchronized in time with measuring the first value of the current present in each phase of the stator; determining a first value of a force produced by the motor as a first function of the value of the current present in each phase of the stator; determining a second value of the force produced by the motor as a second function of the value of the current present in each phase of the stator, wherein: the first function is different than the second function, the first function uses the first value of the current, and the second function uses the second value of the current; comparing the first value of the force to the second value of the force in the motor drive, and stopping operation of the motor with the motor drive when the first value of the force differs from the second value of the force by more than a predefined value. receiving a first value of a current present in each phase of a stator of the motor at a motor drive, wherein the first value of the current is measured with a first set of current sensors and wherein the motor drive is operatively connected to control operation of the motor; determining a second value of the current present in each phase of the stator of the motor at the motor drive, wherein determining the second value of the current present in each phase of the stator is synchronized in time with measuring the first value of the current present in each phase of the stator; determining a first value of a force produced by the motor as a first function of the value of the current present in each phase of the stator; determining a second value of the force produced by the motor as a second function of the value of the current present in each phase of the stator, wherein: the first function is different than the second function, the first function uses the first value of the current, and the second function uses the second value of the current; the first function is different than the second function, the first function uses the first value of the current, and the second function uses the second value of the current; comparing the first value of the force to the second value of the force in the motor drive, and stopping operation of the motor with the motor drive when the first value of the force differs from the second value of the force by more than a predefined value.
An active load circuit for performing tests on a Device Under Test, hereafter DUT,, comprising: a diode bridge having a first, a second, a third and a fourth node, the first node being opposite to the third node and the second node being opposite to the fourth node, wherein a voltage buffer, configured to buffer an input voltage, is connected with the first node, a source current mirror is connected with the second node and a sink current mirror is connected with the fourth node; a first current mirror connected with the source current mirror and a second current mirror connected with the sink current mirror; a first differential pair connected with the first current mirror, the first differential pair being fed a first biasing current from a first constant current source, wherein the first differential pair has a first input and a second input; and a second differential pair connected with the second current mirror, the second differential pair being fed a second biasing current from a second constant current source, wherein the second differential pair has a third input and a fourth input. a diode bridge having a first, a second, a third and a fourth node, the first node being opposite to the third node and the second node being opposite to the fourth node, wherein a voltage buffer, configured to buffer an input voltage, is connected with the first node, a source current mirror is connected with the second node and a sink current mirror is connected with the fourth node; a first current mirror connected with the source current mirror and a second current mirror connected with the sink current mirror; a first differential pair connected with the first current mirror, the first differential pair being fed a first biasing current from a first constant current source, wherein the first differential pair has a first input and a second input; and a second differential pair connected with the second current mirror, the second differential pair being fed a second biasing current from a second constant current source, wherein the second differential pair has a third input and a fourth input.
An addition curing silicone rubber composition comprising 100 parts by weight of a polyorganosiloxane containing, on average, at least two alkenyl groups which are bonded to silicon atom; 0.3 to 20 parts by weight of an organohydrogenpolysiloxane containing at least two hydrogen atoms which are bonded to silicon atom (SiH functional groups) per molecule; and a catalytic amount of a addition reaction catalyst; wherein content of the polyorganosiloxane having a degree of polymerization of up to 10 and containing at least one SiH functional group per molecule, which is an organohydrogen silox-ane - diorganosiloxane cyclic copolymer, is up to 0.20 % by weight in relation to the entire composition and is up to 10.0 % by weight in the component, and wherein molar ratio of the SiH functional group in the component to the alkenyl group bonded to the silicon atom in the component (SiH/Alkenyl group) is in the range of 0.6 to 3.0. 100 parts by weight of a polyorganosiloxane containing, on average, at least two alkenyl groups which are bonded to silicon atom; 0.3 to 20 parts by weight of an organohydrogenpolysiloxane containing at least two hydrogen atoms which are bonded to silicon atom (SiH functional groups) per molecule; and a catalytic amount of a addition reaction catalyst; wherein content of the polyorganosiloxane having a degree of polymerization of up to 10 and containing at least one SiH functional group per molecule, which is an organohydrogen silox-ane - diorganosiloxane cyclic copolymer, is up to 0.20 % by weight in relation to the entire composition and is up to 10.0 % by weight in the component, and wherein molar ratio of the SiH functional group in the component to the alkenyl group bonded to the silicon atom in the component (SiH/Alkenyl group) is in the range of 0.6 to 3.0.
A silicone resin transparent substrate, comprising one or more than one prepreg containing a silicone resin composition containing no filler and a fibrous base, wherein the silicone resin transparent substrate has: an attached amount of the silicone resin composition to the fibrous base of 60% by mass or more and 99% by mass or less determined by the following numerical formula 1; a total light transmittance of 80% or more at 450 nm, as measured by a method disclosed in JIS K 7375:2008 in a thickness of 0.1 mm to 0.4 mm; and a water vapor permeability of 65 g/m 2 ·day or less, as measured by Lyssy method in conformity with JIS K 7129:2008 in a thickness of 0.1 mm to 0.4 mm; attached amount of silicone resin composition to fibrous base mass % = mass of silicone resin transparent substrate g − mass of fibrous base g / mass of silicone resin transparent substrate g × 100
An orthopedic device (10, 100), comprising: a rigid frame (12, 102) defining lateral and medial sides, the frame including a plurality of structural elements (14, 16, 104, 106); and at least one strap (66, 176, 180, 182) connecting to the lateral and medial sides of the frame (12, 102); characterized in that a resilient subshell (46, 93, 128, 144) is connected to and extending flexibly and laterally outwardly from the frame (12, 102), the subshell having a main body (48, 94, 130, 146) and a perimeter edge portion (50, 95, 132, 148) secured along the periphery of the main body (48, 94, 130, 146), the perimeter edge portion (50, 95, 132, 148) being formed from a material having a lower hardness than a hardness of a material used to form the main body (48, 94, 130, 146); wherein a first end of the at least one strap (66, 176, 180, 182) is connected to least one end portion of the subshell (46, 93, 128, 144). a rigid frame (12, 102) defining lateral and medial sides, the frame including a plurality of structural elements (14, 16, 104, 106); and at least one strap (66, 176, 180, 182) connecting to the lateral and medial sides of the frame (12, 102); a resilient subshell (46, 93, 128, 144) is connected to and extending flexibly and laterally outwardly from the frame (12, 102), the subshell having a main body (48, 94, 130, 146) and a perimeter edge portion (50, 95, 132, 148) secured along the periphery of the main body (48, 94, 130, 146), the perimeter edge portion (50, 95, 132, 148) being formed from a material having a lower hardness than a hardness of a material used to form the main body (48, 94, 130, 146); wherein a first end of the at least one strap (66, 176, 180, 182) is connected to least one end portion of the subshell (46, 93, 128, 144).
Locking device for locking a wheel track of a carton flow bed rack to an end beam (10; 20) of the carton flow bed rack in a mounting position, the locking device comprising: - a locking plate for connecting the wheel track to the end beam (10; 20) and - a cover rail for fixing the locking plate to the wheel track; wherein - the locking plate is provided as a flat element and comprises a mounting end configured to engage the end beam (10; 20) in the mounting position; - the locking plate further comprises an elongated protrusion configured to protrude out of the end beam (10; 20) in the mounting position; - the cover rail is configured to encase at least partially both the protrusion of the locking plate and an end section of the wheel track in the mounting position; and - the cover rail is configured to encompass the wheel track from two substantially vertically aligned sides, a substantially horizontally aligned bottom side, and at least partially from a substantially horizontally arranged upper side. - a locking plate for connecting the wheel track to the end beam (10; 20) and - a cover rail for fixing the locking plate to the wheel track; - the locking plate is provided as a flat element and comprises a mounting end configured to engage the end beam (10; 20) in the mounting position; - the locking plate further comprises an elongated protrusion configured to protrude out of the end beam (10; 20) in the mounting position; - the cover rail is configured to encase at least partially both the protrusion of the locking plate and an end section of the wheel track in the mounting position; and - the cover rail is configured to encompass the wheel track from two substantially vertically aligned sides, a substantially horizontally aligned bottom side, and at least partially from a substantially horizontally arranged upper side.
A stopper safety system for a stopper to be installed in a pipeline via an opening in the pipeline, the stopper having a first end that is furthest away from the opening when installed and a second end that is closest to the opening when installed, the stopper safety system comprising: a housing (30; 130) configured to adhere to an external portion of the first or second end of the stopper, the housing holding a pressure sensor and a transmitter, the transmitter being positioned in the housing such that the transmitter abuts the respective end of the stopper; a receiver; and a monitor; wherein the transmitter is configured to wirelessly transmit a measured pressure reading from the pressure sensor to the receiver, and wherein the monitor is configured to display the measured pressure. a housing (30; 130) configured to adhere to an external portion of the first or second end of the stopper, the housing holding a pressure sensor and a transmitter, the transmitter being positioned in the housing such that the transmitter abuts the respective end of the stopper; a receiver; and a monitor; wherein the transmitter is configured to wirelessly transmit a measured pressure reading from the pressure sensor to the receiver, and wherein the monitor is configured to display the measured pressure.