mhurhangee/ep-ind-claims huggingface dataset:
Electrical connector element having at least one contact receiving member for an electrical contact element which can be inserted into the at least one contact receiving member in an insertion direction as far as its end position, having a locking member by means of which the contact element in its locking position can be secured in the end position against being removed from the at least one contact receiving member counter to the insertion direction, and having a securing member which retains the locking member in the locking position in its securing position, wherein the securing member in the securing position, in order to additionally secure the contact element against being removed from the at least one contact receiving member counter to the insertion direction, at least partially protrudes into the at least one contact receiving member, wherein a catch element on a securing portion of the securing member in the securing position is able to engage with a counter-catch element of the connector element that adjoins the at least one contact receiving member, and wherein the securing member has a locking face which is constructed to secure the electrical contact element against being removed from the at least one contact receiving member counter to the insertion direction, wherein the locking member has a catch face formed as a catch projection which in the securing position is directed in the insertion direction and is configured to abut an engagement region, said engagement region being formed as a face or corner on a retention portion of the at least one contact element and being directed counter to the insertion direction, wherein the locking face of the securing portion of the securing member in the securing position is configured to be arranged in the end position in the insertion direction upstream of the engagement region of the retention portion securing the contact element, in addition to the catch face, against movement counter to the insertion direction, so the engagement region of the retention portion is used both by the locking member and by the securing member in order to secure the contact element, characterized in that the catch element has the locking face.
Piping module, by means of which fluid connections (10a', 10b') of main heat exchangers (1a, 1b) constructed for use in an air fractionation plant are linkable to fluid lines in a warm part of the air fractionation plant, wherein the piping module comprises connections on the main compressor side, which are couplable with the fluid lines in the warm part of the air fractionation plant, connections (10a, 10b) on the main heat exchanger side, which are couplable with the fluid connections (10a', 10b) of the main heat exchangers (1a, 1b), and fluid lines connecting the connections on the main compressor side and the connections (10a, 10b) on the main heat exchanger side, and wherein the connections (10a, 10b) on the main heat exchanger side are provided in m sets of connections on the main heat exchanger side, which comprise in each case n connections (10a, 10b) on the main heat exchanger side and are arranged for linking m main heat exchangers (1a, 1b) to in each case n fluid connections (10a', 10b').
A method for detecting a target molecule or particle suspected to be present in a sample, comprising: (a) contacting the sample with (i) a fusion molecule comprising a ligand capable of binding to the target molecule or particle and a binding domain, and (ii) a polymer scaffold comprising at least one binding motif to which the binding domain is capable of binding, under conditions that allow the target molecule or particle to bind to the ligand and the binding domain to bind to the binding motif, wherein the polymer is at least one of a deoxyribonucleic acid, a ribonucleic acid, a peptide nucleic acid, a DNA/RNA hybrid, and a polypeptide; (b) loading the polymer into a device comprising a pore that separates an interior space of the device into two volumes, and configuring the device to pass the polymer through the pore from one volume to the other volume, wherein the device comprises electrodes to apply a voltage differential between the two volumes, wherein the device further comprises a sensor adjacent to the pore configured to identify objects passing through the pore, and wherein the pore is (i) about 1 nm to about 100 nm in diameter or (ii) about 100 nm to about 10000 nm in diameter; and (c) determining, with the sensor, whether the fusion molecule bound to the binding motif is bound to the target molecule or particle, thereby detecting the presence of the target molecule or particle in the sample. (a) contacting the sample with (i) a fusion molecule comprising a ligand capable of binding to the target molecule or particle and a binding domain, and (ii) a polymer scaffold comprising at least one binding motif to which the binding domain is capable of binding, under conditions that allow the target molecule or particle to bind to the ligand and the binding domain to bind to the binding motif, wherein the polymer is at least one of a deoxyribonucleic acid, a ribonucleic acid, a peptide nucleic acid, a DNA/RNA hybrid, and a polypeptide; (b) loading the polymer into a device comprising a pore that separates an interior space of the device into two volumes, and configuring the device to pass the polymer through the pore from one volume to the other volume, wherein the device comprises electrodes to apply a voltage differential between the two volumes, wherein the device further comprises a sensor adjacent to the pore configured to identify objects passing through the pore, and wherein the pore is (i) about 1 nm to about 100 nm in diameter or (ii) about 100 nm to about 10000 nm in diameter; and (c) determining, with the sensor, whether the fusion molecule bound to the binding motif is bound to the target molecule or particle, thereby detecting the presence of the target molecule or particle in the sample.
A photovoltaic device, comprising a DC-DC converter circuit, an inverter circuit, and a controller, wherein an input end of the DC-DC converter circuit is connected to a photovoltaic array, and an output end of the DC-DC converter circuit is connected to an input end of the inverter circuit; characterized in that the controller is configured to: receive a power scheduling instruction, wherein the power scheduling instruction carries a power reference value; and when the power reference value is less than a power at a maximum power point, reduce an input current of the DC-DC converter circuit, to increase an input voltage of the DC-DC converter circuit; or when an input voltage of the DC-DC converter circuit is greater than or equal to a preset voltage, increase an input current of the DC-DC converter circuit, to reduce the input voltage of the DC-DC converter circuit until an output power of the inverter circuit becomes consistent with the power reference value. an input end of the DC-DC converter circuit is connected to a photovoltaic array, and an output end of the DC-DC converter circuit is connected to an input end of the inverter circuit; characterized in that the controller is configured to: receive a power scheduling instruction, wherein the power scheduling instruction carries a power reference value; and when the power reference value is less than a power at a maximum power point, reduce an input current of the DC-DC converter circuit, to increase an input voltage of the DC-DC converter circuit; or when an input voltage of the DC-DC converter circuit is greater than or equal to a preset voltage, increase an input current of the DC-DC converter circuit, to reduce the input voltage of the DC-DC converter circuit until an output power of the inverter circuit becomes consistent with the power reference value.
Dishwasher having a housing which includes a door pivoting about a substantially horizontal axis, encloses a washing tank having at least one opening at the bottom and defines a space beneath the washing tank, a drawer that contains at least one component of the dishwasher being slidably mounted in said space, and said housing having, in a front wall, an opening through which said drawer can be removed from the space, wherein said drawer contains a sump, a discharge pump, and a washing pump, said dishwasher being characterized in that said drawer contains a softener for softening the water fed into the dishwasher.
A three-dimensional position indicator (10, 10A, 10B) that is capable of position indication in an input surface of a position detecting sensor by a tip part on one end side of a bar-shaped part in an axis center direction and is capable of position indication in a three-dimensional space, wherein a spatial position index part for carrying out interaction with an external device to cause the external device to detect a position and a direction in a spatial coordinate system of the three-dimensional space is disposed in such a manner that the tip part is in specific positional relation and directional relation with the detected position and direction, and an interaction part for carrying out interaction with the position detecting sensor is disposed in the bar-shaped part in order to cause a position indicated by the tip part to be detected by the position detecting sensor, wherein the spatial position index part is attached to a holder (13, 13A, 13B) for holding the bar-shaped part, and the bar-shaped part is an electronic pen that is a separate body from the holder (13, 13A, 13B) and has the tip part as a pen tip, and a mounting part for mounting the electronic pen while keeping the specific positional relation and directional relation between the pen tip and the spatial position index part is disposed in the holder (13, 13A, 13B). a spatial position index part for carrying out interaction with an external device to cause the external device to detect a position and a direction in a spatial coordinate system of the three-dimensional space is disposed in such a manner that the tip part is in specific positional relation and directional relation with the detected position and direction, and an interaction part for carrying out interaction with the position detecting sensor is disposed in the bar-shaped part in order to cause a position indicated by the tip part to be detected by the position detecting sensor, wherein the spatial position index part is attached to a holder (13, 13A, 13B) for holding the bar-shaped part, and the bar-shaped part is an electronic pen that is a separate body from the holder (13, 13A, 13B) and has the tip part as a pen tip, and a mounting part for mounting the electronic pen while keeping the specific positional relation and directional relation between the pen tip and the spatial position index part is disposed in the holder (13, 13A, 13B).
An array substrate (240, 300) suitable for a thin-film transistor liquid crystal display, comprising: a first metal area (2402, 303) disposed on the periphery of the array substrate (240, 300) and electrically connected with a common electrode line or common electrodes; an insulating layer disposed on the first metal area (2402, 303); and a second metal area (2406, 502) disposed on the insulating layer on the periphery of the array substrate (240, 300), corresponding to and insulated from the first metal area (2402, 303) by the insulating layer, said second metal area (2406, 502) being configured for the application of a stabilized voltage that is a fixed voltage, wherein at least one capacitor is defined by the first metal area (2402, 303) and the second metal area (2406, 502) characterized in that the first metal area (2402, 303) includes at least two first metal sub-areas which are separately arranged and electrically connected with each other through a first connecting line (2403, 2404, 501) and the second metal area (2406, 502) includes at least two second metal sub-areas which are separately arranged and electrically connected with each other through a second connecting line. a first metal area (2402, 303) disposed on the periphery of the array substrate (240, 300) and electrically connected with a common electrode line or common electrodes; an insulating layer disposed on the first metal area (2402, 303); and a second metal area (2406, 502) disposed on the insulating layer on the periphery of the array substrate (240, 300), corresponding to and insulated from the first metal area (2402, 303) by the insulating layer, said second metal area (2406, 502) being configured for the application of a stabilized voltage that is a fixed voltage, wherein at least one capacitor is defined by the first metal area (2402, 303) and the second metal area (2406, 502) characterized in that the first metal area (2402, 303) includes at least two first metal sub-areas which are separately arranged and electrically connected with each other through a first connecting line (2403, 2404, 501) and the second metal area (2406, 502) includes at least two second metal sub-areas which are separately arranged and electrically connected with each other through a second connecting line.
A transducer apparatus for subsurface use, the apparatus comprising: a tubular configured for subsurface disposal; a cylindrical body having an inner bore and formed of a non-conductive material; the tubular disposed within the inner bore of the cylindrical body such that the body surrounds a section of the tubular; the cylindrical body having a transducer element disposed thereon such that only a surface of the element is exposed along the exterior of the body; the transducer element being linked to a lead (36, 44) routed through the cylindrical body and exiting near the inner bore of the body; and the ends of the cylindrical body being covered with a material to form a hydraulic seal; characterized in that the lead (36, 44) is moulded into the cylindrical body to provide a hydraulic seal with the body therealong. a tubular configured for subsurface disposal; a cylindrical body having an inner bore and formed of a non-conductive material; the tubular disposed within the inner bore of the cylindrical body such that the body surrounds a section of the tubular; the cylindrical body having a transducer element disposed thereon such that only a surface of the element is exposed along the exterior of the body; the transducer element being linked to a lead (36, 44) routed through the cylindrical body and exiting near the inner bore of the body; and the ends of the cylindrical body being covered with a material to form a hydraulic seal; characterized in that the lead (36, 44) is moulded into the cylindrical body to provide a hydraulic seal with the body therealong.
A biologically active synergetic composition characterized in that its aqueous emulsion comprises a bioflavonoid complex of dihydroquercetin, aromadendrin and naringenin, having molar ratio of 1,0: 0,102 - 0,104: 0,014 - 0,016, a solvent and an emulsifier, and aqueous phase of emulsion additionally comprises arabinogalactan and water-soluble triterpenoids in the weight ratio of 1-3: 5-7 in the quantity of 0,3 - 0,7 Wt % of the aqueous phase, and the bioflavonoid complex is divided between the oil phase and the aqueous phase in the weight ratio of 5-10: 1
A soil additive for storing fluids, in particular water, comprising at least one carrier material, which is a rock dust mixture, a mineral mixture, or is formed from a single rock dust type, absorber product, swelling agent, binding agent and lubricating agent, optionally a fertiliser, supplements, in particular of microbiological or mycotic origin, and plant protection products, characterised in that the binding and lubricating agent is glycerol, and in that the constituents of the soil additive can be compacted.
A method of determining the distance and/or acoustic quality between a mobile device having a microphone and a speaker and a base unit comprising a microphone and a speaker, wherein the mobile device is configured to wirelessly communicate with the base unit and the base unit is configured to connect to a remote monitoring station via a communication network, the method comprising: receiving an acoustic signal by a microphone in one of said mobile device and base unit; the method being characterised by: determining a correlation of a second signal with the received acoustic signal, the second signal corresponding to an acoustic signal received by the microphone in the other one of said mobile device and base unit; and determining the acoustic quality and/or the distance between the mobile device and the base unit based on one or more peaks in the result of the step of determining the correlation. receiving an acoustic signal by a microphone in one of said mobile device and base unit; the method being characterised by: determining a correlation of a second signal with the received acoustic signal, the second signal corresponding to an acoustic signal received by the microphone in the other one of said mobile device and base unit; and determining the acoustic quality and/or the distance between the mobile device and the base unit based on one or more peaks in the result of the step of determining the correlation. determining a correlation of a second signal with the received acoustic signal, the second signal corresponding to an acoustic signal received by the microphone in the other one of said mobile device and base unit; and determining the acoustic quality and/or the distance between the mobile device and the base unit based on one or more peaks in the result of the step of determining the correlation.
An apparatus for manufacturing and dispensing a plurality of individual reinforcing elements from a supply of reinforcing stock for use in conjunction with an elastic stapling apparatus for reinforcing the stapling connection point on packaging material while securing products to the packaging material with the elastic stapling apparatus, characterized in that the apparatus comprises: a base plate adapted to support the supply of reinforcing stock and the elastic stapling apparatus, and a pair of modules mounted to the base plate, wherein the pair of modules is aligned with the elastic stapling apparatus, wherein each module comprises a pneumatic element, a linkage drive block engaged by the pneumatic element, a cutting block, and a cam element movably connecting the linkage drive block and the cutting block, and wherein the cutting block is adapted to receive the supply of reinforcing stock, sever the individual reinforcing elements, and deploy the individual reinforcing elements. a base plate adapted to support the supply of reinforcing stock and the elastic stapling apparatus, and a pair of modules mounted to the base plate, wherein the pair of modules is aligned with the elastic stapling apparatus, wherein each module comprises a pneumatic element, a linkage drive block engaged by the pneumatic element, a cutting block, and a cam element movably connecting the linkage drive block and the cutting block, and wherein the cutting block is adapted to receive the supply of reinforcing stock, sever the individual reinforcing elements, and deploy the individual reinforcing elements.
A magnetic toner, having a specific gravity of and comprising toner particles each comprising at least a binder resin and iron oxide dispersed therein, wherein the magnetic toner has a specific gravity distribution of toner particle fractions obtainable through wet sedimentation measured according to the method disclosed in the description and including: at most 15 wt.% of a fraction having a specific gravity of above x 1.000 and at most x 1.025, 0.1 - 20 wt.% of a fraction having a specific gravity of above x 0.975 and a most x 1.000, at least 30 wt.% of a fraction having a specific gravity of above x 0.950 and at most x 0.975, 0.1 - 20 wt.% of a fraction having a specific gravity of above x 0.925 and at most x 0.950, and at most 15 wt.% of a fraction having a specific gravity of above x 0.900 and at most x 0.925 wherein the toner particles contain a sulfur-containing resin. at most 15 wt.% of a fraction having a specific gravity of above x 1.000 and at most x 1.025, 0.1 - 20 wt.% of a fraction having a specific gravity of above x 0.975 and a most x 1.000, at least 30 wt.% of a fraction having a specific gravity of above x 0.950 and at most x 0.975, 0.1 - 20 wt.% of a fraction having a specific gravity of above x 0.925 and at most x 0.950, and at most 15 wt.% of a fraction having a specific gravity of above x 0.900 and at most x 0.925 wherein the toner particles contain a sulfur-containing resin.
An internal combustion engine comprising: - an inlet manifold providing compressed inlet air into a plurality of cylinders; - an exhaust manifold for exhausting combusted gases from the plurality of cylinders; - a turbine provided in an exhaust channel coupled to the exhaust manifold; - a turbocompressor provided in an inlet channel coupled to the inlet manifold; - a pressure monitor arranged to calculate a pre turbine pressure ( p 3), wherein the pressure monitor is programmed to: o derive a normalized turbine speed, normalized for a pre turbine temperature (T 3), and a heat capacity ratio of exhaust gas before the turbine as first inputs; o determine a turbine power normalizing factor as a second input; o determine an actual turbocompressor power value as a third input; o derive, for said first inputs, a linear relation between a turbine expansion ratio and a turbine power value normalized by the second input; o equate the turbine power value to the actual turbocompressor power; thereby deriving the pre turbine pressure (p 3) from said linear relation, as an output. - an inlet manifold providing compressed inlet air into a plurality of cylinders; - an exhaust manifold for exhausting combusted gases from the plurality of cylinders; - a turbine provided in an exhaust channel coupled to the exhaust manifold; - a turbocompressor provided in an inlet channel coupled to the inlet manifold; - a pressure monitor arranged to calculate a pre turbine pressure ( p 3), wherein the pressure monitor is programmed to: o derive a normalized turbine speed, normalized for a pre turbine temperature (T 3), and a heat capacity ratio of exhaust gas before the turbine as first inputs; o determine a turbine power normalizing factor as a second input; o determine an actual turbocompressor power value as a third input; o derive, for said first inputs, a linear relation between a turbine expansion ratio and a turbine power value normalized by the second input; o equate the turbine power value to the actual turbocompressor power; thereby deriving the pre turbine pressure (p 3) from said linear relation, as an output. o derive a normalized turbine speed, normalized for a pre turbine temperature (T 3), and a heat capacity ratio of exhaust gas before the turbine as first inputs; o determine a turbine power normalizing factor as a second input; o determine an actual turbocompressor power value as a third input; o derive, for said first inputs, a linear relation between a turbine expansion ratio and a turbine power value normalized by the second input; o equate the turbine power value to the actual turbocompressor power; thereby deriving the pre turbine pressure (p 3) from said linear relation, as an output.