mhurhangee/ep-ind-claims huggingface dataset:
A hob extractor for extracting cooking vapors in a vertically downward direction, comprising a cooking vapor inlet opening and a device for reversibly closing and opening the cooking vapor inlet opening, characterized in that the device for reversibly closing and opening the cooking vapor inlet opening comprises one or more groups of plates, which - as a function of the shape of the cooking vapor inlet opening - can be reversibly inserted adjacent to or in the width edge area or areas and/or in the length edge area or areas and/or in the area of the areas of the cooking vapor inlet opening of the hob extractor located therebetween, in each case in an outlet position, wherein each group of plates comprises two or more horizontally oriented plates, which are only marginally vertically spaced apart from one another when the plates are pushed back into the respective starting position, wherein the lowermost or the topmost plate of each group of plates can be stationarily fixed in its starting position and wherein, in addition to the lowermost or topmost plate, each group of plates comprises two or more horizontally displaceable plates, which can be displaced horizontally back and forth across the length or across the width of the cooking vapor inlet opening - by opening or by closing the cooking vapor inlet opening, wherein a displacement of a non-fixed plate inevitably causes the rest of the likewise non-fixed plates, located at a higher or lower level, to also be displaced therewith and wherein the tracks for moving the plates back and forth are oriented horizontally and run on top of one another or underneath one another so as to be only marginally spaced apart from one another in vertical direction, and the plate, which is fixed in its starting position, as well as the plates, which are non-fixed in their starting position, can be engaged with the respective adjacent, non-fixed plate or fixed plate, when the respective adjacent non-fixed plate for displacing the cooking vapor inlet opening is largely displaced in the direction of the cooking vapor inlet opening.
An internal heat exchanger assembly for an air conditioning system, comprising: a housing having a first end, a second end axially opposed to said first end, and an interior surface therebetween defining a substantially cylindrical cavity having a cylindrical cavity diameter about an axis; a helically coiled tube disposed about said axis within said cylindrical cavity and having a coil outer diameter, wherein said tube includes a basic tube diameter; and an elongated strip coaxially disposed within said cylindrical cavity extending from said first end to said second end, wherein said elongated strip is twisted along said axis and includes means to maintain said helical coiled tube in a predetermined position; characterized in that said cylindrical cavity diameter is between 25 mm to 45 mm and said basic tube diameter is between 6 mm to 10 mm and, wherein said means to maintain said helical coiled tube in a predetermined position includes: said helical coiled tube includes a plurality of adjacent coils having a predetermined pitch defining a gap between adjacent coils; and said elongated strip includes opposing edges having a plurality of radially extending fingers defining a double helix; wherein each of said fingers includes two opposing sides substantially perpendicular to said axis abutting said adjacent coils, thereby inhibiting lateral movement of coils. a housing having a first end, a second end axially opposed to said first end, and an interior surface therebetween defining a substantially cylindrical cavity having a cylindrical cavity diameter about an axis; a helically coiled tube disposed about said axis within said cylindrical cavity and having a coil outer diameter, wherein said tube includes a basic tube diameter; and an elongated strip coaxially disposed within said cylindrical cavity extending from said first end to said second end, wherein said elongated strip is twisted along said axis and includes means to maintain said helical coiled tube in a predetermined position; characterized in that said cylindrical cavity diameter is between 25 mm to 45 mm and said basic tube diameter is between 6 mm to 10 mm and, wherein said means to maintain said helical coiled tube in a predetermined position includes: said helical coiled tube includes a plurality of adjacent coils having a predetermined pitch defining a gap between adjacent coils; and said elongated strip includes opposing edges having a plurality of radially extending fingers defining a double helix; said helical coiled tube includes a plurality of adjacent coils having a predetermined pitch defining a gap between adjacent coils; and said elongated strip includes opposing edges having a plurality of radially extending fingers defining a double helix; wherein each of said fingers includes two opposing sides substantially perpendicular to said axis abutting said adjacent coils, thereby inhibiting lateral movement of coils.
Apparatus for supplying build material to a three-dimensional printing system, comprising: a build material supply module; a build material delivery system to deliver build material to the build material supply module; a distribution mechanism to distribute build material within the supply module; and a rotatable vane to move a portion of build material from the build material supply module to a feed position, the vane comprising a build material support section and a build material return section, the vane arranged such that as the build material support section is moved to the feed position, excess build material slides down the build material return section and returns to the build material supply module, thereby leaving a predeterminable quantity of build material on the build material support section. a build material supply module; a build material delivery system to deliver build material to the build material supply module; a distribution mechanism to distribute build material within the supply module; and a rotatable vane to move a portion of build material from the build material supply module to a feed position, the vane comprising a build material support section and a build material return section, the vane arranged such that as the build material support section is moved to the feed position, excess build material slides down the build material return section and returns to the build material supply module, thereby leaving a predeterminable quantity of build material on the build material support section.
An array coil system comprising: a detector coil which includes a plurality of coils arranged in an array, each of the plurality of coils having two terminals; a resonant capacitive element which includes a plurality of capacitive elements, wherein each capacitive element is connected between both terminals of an associated one of the plurality of coils of the detector coil, thereby forming a resonance circuit; a transmission circuit which is configured to generate a power signal having a predetermined frequency and to output the power signal to the detector coil; and a switch circuit which is connected between the transmission circuit and the detection coil and is configured to perform switching to selectively output the power signal generated by the transmission circuit to one of the plurality of coils of the detector coil, wherein both terminals of each of the plurality of coils of the detector coil, which is neither selected by the switch circuit nor connected to the transmission circuit, are connected to a ground or a DC voltage via associated ones of a plurality of resistances included in a resistance element. a detector coil which includes a plurality of coils arranged in an array, each of the plurality of coils having two terminals; a resonant capacitive element which includes a plurality of capacitive elements, wherein each capacitive element is connected between both terminals of an associated one of the plurality of coils of the detector coil, thereby forming a resonance circuit; a transmission circuit which is configured to generate a power signal having a predetermined frequency and to output the power signal to the detector coil; and a switch circuit which is connected between the transmission circuit and the detection coil and is configured to perform switching to selectively output the power signal generated by the transmission circuit to one of the plurality of coils of the detector coil, wherein both terminals of each of the plurality of coils of the detector coil, which is neither selected by the switch circuit nor connected to the transmission circuit, are connected to a ground or a DC voltage via associated ones of a plurality of resistances included in a resistance element.
A dynamic digital input filtering system comprising: a power supply; a remote device having a two-state switch; a logic device having an impedance adjusting circuit electrically in series with the power supply and the two-state switch of the remote device, the logic device producing a logic signal based on whether the two-state switch of the remote device interrupts the flow of power from the power supply to the logic device or completes the circuit path between the power supply and the logic device; and a control device monitoring the logic signal of the logic device and adjusting the impedance of the impedance adjusting circuit in response to a change of state of the monitored logic signal such that: when a state change of the logic signal is detected, the impedance of the impedance adjusting circuit is lowered from an initial impedance value; and if the state of the monitored logic signal remains unchanged during a momentary period of time when the impedance of the impedance adjusting circuit is lowered, then, upon restoration of the impedance to the initial impedance value, a change of state of the two-state switch is reported via controller outputs. a power supply; a remote device having a two-state switch; a logic device having an impedance adjusting circuit electrically in series with the power supply and the two-state switch of the remote device, the logic device producing a logic signal based on whether the two-state switch of the remote device interrupts the flow of power from the power supply to the logic device or completes the circuit path between the power supply and the logic device; and a control device monitoring the logic signal of the logic device and adjusting the impedance of the impedance adjusting circuit in response to a change of state of the monitored logic signal such that: when a state change of the logic signal is detected, the impedance of the impedance adjusting circuit is lowered from an initial impedance value; and if the state of the monitored logic signal remains unchanged during a momentary period of time when the impedance of the impedance adjusting circuit is lowered, then, upon restoration of the impedance to the initial impedance value, a change of state of the two-state switch is reported via controller outputs.
A set of polypeptides comprising: a first polypeptide P1 comprising (i) a targeting moiety T1, wherein said targeting moiety T1 specifically binds to an antigen A1, and (ii) a fragment F1 of a functional domain F, wherein neither said fragment F1 by itself nor said polypeptide P1 by itself is functional with respect to the function of said domain F, and a second polypeptide P2 comprising (i) a targeting moiety T2, wherein said targeting moiety T2 specifically binds to an antigen A2, and (ii) a fragment F2 of said functional domain F, wherein neither said fragment F2 by itself nor said polypeptide P2 by itself is functional with respect to the function of said domain F, wherein said antigen A1 is different from said antigen A2, wherein said polypeptide P1 and said polypeptide P2 are not associated with each other in the absence of a cell that has both antigens A1 and A2 at its cell surface, wherein, upon dimerization of said fragment F1 of said polypeptide P1 with said fragment F2 of said polypeptide P2, the resulting dimer is functional with respect to the function of said domain F, and wherein said fragment F1 comprises a V L domain of an antibody and said fragment F2 comprises a V H domain of the same antibody; or wherein said fragment F1 comprises a V H domain of an antibody and said fragment F2 comprises a V L domain of the same antibody. a first polypeptide P1 comprising (i) a targeting moiety T1, wherein said targeting moiety T1 specifically binds to an antigen A1, and (ii) a fragment F1 of a functional domain F, (i) a targeting moiety T1, wherein said targeting moiety T1 specifically binds to an antigen A1, and (ii) a fragment F1 of a functional domain F, wherein neither said fragment F1 by itself nor said polypeptide P1 by itself is functional with respect to the function of said domain F, and a second polypeptide P2 comprising (i) a targeting moiety T2, wherein said targeting moiety T2 specifically binds to an antigen A2, and (ii) a fragment F2 of said functional domain F, (i) a targeting moiety T2, wherein said targeting moiety T2 specifically binds to an antigen A2, and (ii) a fragment F2 of said functional domain F, wherein neither said fragment F2 by itself nor said polypeptide P2 by itself is functional with respect to the function of said domain F, wherein said antigen A1 is different from said antigen A2, wherein said polypeptide P1 and said polypeptide P2 are not associated with each other in the absence of a cell that has both antigens A1 and A2 at its cell surface, wherein, upon dimerization of said fragment F1 of said polypeptide P1 with said fragment F2 of said polypeptide P2, the resulting dimer is functional with respect to the function of said domain F, and wherein said fragment F1 comprises a V L domain of an antibody and said fragment F2 comprises a V H domain of the same antibody; or wherein said fragment F1 comprises a V H domain of an antibody and said fragment F2 comprises a V L domain of the same antibody.
A method of obtaining an image of a region of interest of a target object, the method comprising: obtaining a first image of the target object, wherein a portion of the region of interest is missing in the first image; providing a plurality of selectable imaging modes for reimaging the target object; and obtaining a second image of the target object according to a selected imaging mode of said plurality of imaging modes, such that the second image includes the missing portion; wherein said providing of a plurality of selectable imaging modes is performed such that a selection of an imaging mode can be made after obtaining said first image and before obtaining said second image. obtaining a first image of the target object, wherein a portion of the region of interest is missing in the first image; providing a plurality of selectable imaging modes for reimaging the target object; and obtaining a second image of the target object according to a selected imaging mode of said plurality of imaging modes, such that the second image includes the missing portion; wherein said providing of a plurality of selectable imaging modes is performed such that a selection of an imaging mode can be made after obtaining said first image and before obtaining said second image.
A method for controlling the operation of a washing machine comprising a wash tub, a washing and/or rinsing water tank, a water-distributing hydraulic circuit, wherein said water-distributing hydraulic circuit connects said wash tub of said washing machine to said water tank, said method comprising a step of filling said water tank with washing and/or rinsing water, characterized in that the step of filling said water tank with water comprises a step of cleaning a filtration barrier set above a sump of said wash tub by turning on a water recovery pump supplying said water tank with water and by turning on a water circulation pump supplying at least one means of spraying water, so as to spray said filtration barrier.
Method for producing a sensor, in particular a pressure sensor, for detecting at least one property of a medium, in particular a fluid medium, wherein the method comprises the following steps: a) providing a compression spring, wherein the compression spring has at least a first end and at least a second end; b) connecting the first end of the compression spring to a circuit carrier; c) providing at least one housing, wherein at least one electrical contact is accommodated in the housing; d) bringing the second end of the compression spring into contact with the electrical contact of the housing; wherein in step d) the second end of the compression spring is brought into contact with the electrical contact by means of at least one guide element of the sensor, wherein the guide element accommodates the compression spring wholly or partly and guides it towards the electrical contact and is configured to hold the compression spring firmly in its position in such a way that displacement and/or slippage in the guide element is at least partly reduced, wherein at least one guide channel is introduced into the guide element, wherein the guide channel is formed in such a way that the guide channel has a conical basic shape and the guide element is at least partly produced from at least one plastic material. a) providing a compression spring, wherein the compression spring has at least a first end and at least a second end; b) connecting the first end of the compression spring to a circuit carrier; c) providing at least one housing, wherein at least one electrical contact is accommodated in the housing; d) bringing the second end of the compression spring into contact with the electrical contact of the housing;
A variant of a parent Glycoside Hydrolase Family 53 galactanase having a change in the pH activity profile as compared to the parent; said variant comprising at least one of the following substitutions: H91 N,L,D; A90S+H91D; D181N; wherein the variant has galactanase activity; wherein the parent galactanase has any of SEQ ID NOs: 1-4; wherein the variant has at least 80% identity to the parent galactanase; and wherein the numbering is defined by alignment to SEQ ID NO:1 using the programme Clustalw with the option profile alignment with the multiple alignment of Fig. 5 as profile 1, and any sequence not present in Fig. 5 as profile 2 to be aligned to the 1st. profile, using the parameters: Multiple alignment parameters = Slow/Accurate; Gap Open Penalty=10.00; Gap Extension Penalty=0.20; Delay divergent sequences=30%; DNA Transitions Weight:0.50; Protein weight matrix=Gonnet series; DNA weight matrix=IUB; Use negative matrix=OFF; Protein Gap Parameters: Toggle Residue-Specific Penalties=ON; Toggle Hydrophilic Penalties=ON; Hydrophilic Residues = GPSNDQEKR; Gap Separation Distance = 4; Toggle End Gap Separation=OFF.
A data capture terminal for processing at least one of a plurality of data arranged at spaced-apart locations on a target, comprising: an electro-optical reader for electro-optically reading the at least one data on the target; and a controller operatively connected to the reader, for processing the at least one data, and for determining whether the at least one data has been successfully processed; characterized by: an interpretation engine for customizing the controller with user-selected logic, wherein the user-selected logic is loaded into the interpretation engine after the data capture terminal is delivered from a manufacturer to an end-user, the interpretation engine being operative to interpret blocks in the user-selected logic to execute each of the blocks directly, block by block, for instructing the controller with logical conditions under which the other data on the target is to be processed, wherein the user-selected logic includes specifying a set of logical steps that determine the outcome of a decision that includes at least one of whether to proceed to decode more symbols based on decoded data available to the terminal at the moment that calls for the determination of the decision, and whether to terminate the decode process based on decoded data available to the terminal at the moment that calls for the determination of the decision. an electro-optical reader for electro-optically reading the at least one data on the target; and a controller operatively connected to the reader, for processing the at least one data, and for determining whether the at least one data has been successfully processed; characterized by: an interpretation engine for customizing the controller with user-selected logic, wherein the user-selected logic is loaded into the interpretation engine after the data capture terminal is delivered from a manufacturer to an end-user, the interpretation engine being operative to interpret blocks in the user-selected logic to execute each of the blocks directly, block by block, for instructing the controller with logical conditions under which the other data on the target is to be processed, wherein the user-selected logic includes specifying a set of logical steps that determine the outcome of a decision that includes at least one of whether to proceed to decode more symbols based on decoded data available to the terminal at the moment that calls for the determination of the decision, and whether to terminate the decode process based on decoded data available to the terminal at the moment that calls for the determination of the decision.
A computer system, comprising: - a client device, wherein the client device is a client computing device acting as a source for a display signal; and - a display device, operationally connected to the client device and acting as a sink for the display signal; wherein - the display device is configured to provide the client device with an operating energy; and - the display device is further configured to determine a standard or vendor identifier, SVID, and/or a product identifier, PID, received from the client device, to detect a type of the client device based on a comparison of the determined SVID and/or PID with a predefined pattern, and, in case the client device is a non-mobile device not equipped with a battery, to provide the client device with an operating energy even if the display device enters an energy-saving mode or is switched off. - a client device, wherein the client device is a client computing device acting as a source for a display signal; and - a display device, operationally connected to the client device and acting as a sink for the display signal; wherein - the display device is configured to provide the client device with an operating energy; and - the display device is further configured to determine a standard or vendor identifier, SVID, and/or a product identifier, PID, received from the client device, to detect a type of the client device based on a comparison of the determined SVID and/or PID with a predefined pattern, and, in case the client device is a non-mobile device not equipped with a battery, to provide the client device with an operating energy even if the display device enters an energy-saving mode or is switched off.