mhurhangee/ep-ind-claims huggingface dataset:
Conveying device having at least one movable transport device, wherein - the conveying device has an optical free-beam communication system having at least two transmission and reception units (101, 102), each of which comprises a transmitter, a receiver and a control unit and one of which is mounted on the movable transport device and the other of which is mounted on another section of the conveying device, - wherein the at least two transmission and reception units (101, 102) are in an optical free-beam connection and allow transmission of data packets, - characterized in that at least one of the, preferably both of the at least two, transmission and reception units (101, 102) is/are designed to generate a received clock signal (Ta(t)) from optical received signals received via the optical free-beam connection, capture the times of rising and/or falling edge changes in the received clock signal (Ta(t)) over a multiplicity of clock periods, use the times in the past to estimate the time of the respective next edge change to form an estimated edge change time and use the estimated edge change time and the actual edge change time to form a distance change value (dS) indicating a change of distance between the transmission and reception units (101, 102). - the conveying device has an optical free-beam communication system having at least two transmission and reception units (101, 102), each of which comprises a transmitter, a receiver and a control unit and one of which is mounted on the movable transport device and the other of which is mounted on another section of the conveying device, - wherein the at least two transmission and reception units (101, 102) are in an optical free-beam connection and allow transmission of data packets, - characterized in that at least one of the, preferably both of the at least two, transmission and reception units (101, 102) is/are designed to generate a received clock signal (Ta(t)) from optical received signals received via the optical free-beam connection, capture the times of rising and/or falling edge changes in the received clock signal (Ta(t)) over a multiplicity of clock periods, use the times in the past to estimate the time of the respective next edge change to form an estimated edge change time and use the estimated edge change time and the actual edge change time to form a distance change value (dS) indicating a change of distance between the transmission and reception units (101, 102).
A flat membrane element comprising a sheet-type filtration membrane bonded to a surface of a filter plate made of thermoplastic resin, the flat membrane element including a first thermal welding part in which an outer edge of the filtration membrane is bonded to the surface of the filter plate by thermal welding, wherein the thermal welding part is formed over the entire area between an outer boundary line inside an outer edge of the filter plate and an inner boundary line located further inside than the outer boundary line, the outer boundary line has a plurality of projected portions and recessed portions that are alternately formed in a consecutive manner, the projected portion projects toward the outer edge of the filter plate, and the recessed portion is formed between the projected portions and retracts in an inward direction opposite to the outer edge of the filter plate, characterized in that the outer edge of the filtration membrane is disposed inside an outer end of the projected portion of the thermal welding part and outside an inner end of the recessed portion of the thermal welding part. the flat membrane element including a first thermal welding part in which an outer edge of the filtration membrane is bonded to the surface of the filter plate by thermal welding, wherein the thermal welding part is formed over the entire area between an outer boundary line inside an outer edge of the filter plate and an inner boundary line located further inside than the outer boundary line, the outer boundary line has a plurality of projected portions and recessed portions that are alternately formed in a consecutive manner, the projected portion projects toward the outer edge of the filter plate, and the recessed portion is formed between the projected portions and retracts in an inward direction opposite to the outer edge of the filter plate, characterized in that the outer edge of the filtration membrane is disposed inside an outer end of the projected portion of the thermal welding part and outside an inner end of the recessed portion of the thermal welding part.
A tank cover of a urea tank for SCR aftertreatment system, wherein the tank cover is mounted at a liquid injection port of a urea tank body of the urea tank, a ventilation hole is provided at a part of the tank cover corresponding to the liquid injection port, the ventilation hole is covered by a water-impermeable and air-permeable membrane, an air inlet hole and an air outlet hole are provided at the part of the tank cover corresponding to the liquid injection port, a first constant pressure check valve and a second constant pressure check valve are mounted on the tank cover, an inlet of the first constant pressure check valve is butted with the air outlet hole, and an outlet of the first constant pressure check valve is in communication with outside of the tank body, an inlet of the second constant pressure check valve is butted with the air inlet hole, and an outlet of the second constant pressure check valve is in communication with inside of the tank body. an air inlet hole and an air outlet hole are provided at the part of the tank cover corresponding to the liquid injection port, a first constant pressure check valve and a second constant pressure check valve are mounted on the tank cover, an inlet of the first constant pressure check valve is butted with the air outlet hole, and an outlet of the first constant pressure check valve is in communication with outside of the tank body, an inlet of the second constant pressure check valve is butted with the air inlet hole, and an outlet of the second constant pressure check valve is in communication with inside of the tank body.
A method for producing a heat-shrinkable product which comprises the steps of: (i) preparing by melt mixing a polymer composition containing a polyethylene crosslinkable polymer, a crosslinking agent and a micro-encapsulated foaming agent uniformly dispersed therein, the foaming agent having a peak activation temperature higher than the melt mixing temperature, and (ii) moulding the composition under conditions of temperature and pressure such that expansion of the composition by the foaming agent takes place within the mould; characterised by: the moulding of the composition step involving injection moulding, and subsequent to expansion of the composition, crosslinking the moulded product within the mould; the polymer composition comprising 30 to 70% by weight polyethylene and further comprising 10 to 25% by weight of ethylene-vinyl acetate copolymer, based on the total composition; and the crosslinking agent comprising an organic peroxide compound. (i) preparing by melt mixing a polymer composition containing a polyethylene crosslinkable polymer, a crosslinking agent and a micro-encapsulated foaming agent uniformly dispersed therein, the foaming agent having a peak activation temperature higher than the melt mixing temperature, and (ii) moulding the composition under conditions of temperature and pressure such that expansion of the composition by the foaming agent takes place within the mould; characterised by: the moulding of the composition step involving injection moulding, and subsequent to expansion of the composition, crosslinking the moulded product within the mould; the polymer composition comprising 30 to 70% by weight polyethylene and further comprising 10 to 25% by weight of ethylene-vinyl acetate copolymer, based on the total composition; and the crosslinking agent comprising an organic peroxide compound. the moulding of the composition step involving injection moulding, and subsequent to expansion of the composition, crosslinking the moulded product within the mould; the polymer composition comprising 30 to 70% by weight polyethylene and further comprising 10 to 25% by weight of ethylene-vinyl acetate copolymer, based on the total composition; and the crosslinking agent comprising an organic peroxide compound.
A medical supplies packaging, comprising an outer box openable on an upper side, in which a number of medical supplies, in particular disposable cannulas, are accommodated, wherein a tub-like plastic waste container accommodating the medical supplies is arranged in the outer box for later accommodating the supplies after use thereof, wherein an opening side of said container, which can be closed by means of a lid that is arranged between a closed bottom face of the plastic waste container and the upper face of the outer box and comprises an insertion opening for used medical supplies, faces a lower face of the outer box and the closed bottom face of said container faces the upper face of the outer box.
An aqueous metal surface-treating agent, wherein an organic silicon compound which has, in one molecule, two or more of functional groups (a) represented by the formula -SiR 1 R 2 R 3, wherein R 1, R 2 and R 3 represent mutually independently alkyl groups, alkoxyl groups or hydroxyl groups, and at least one of them is an alkoxyl group, and at least one hydrophilic functional group (b) selected from hydroxyl groups, which are different from those containable in the functional groups (a), and amino groups, and has a molecular weight, per one functional group (b), of 100 to 10,000, and a metallic compound containing a bivalent or more metallic ion, are compounded, in which aqueous metal surface-treating agent, the organic silicon compound is a compound obtained by reacting an organic compound selected from epoxy silanes, amino silanes, mercapto silanes, isocyanato silanes, vinyl group-containing silanes, epoxy compounds selected from sorbitol polyglycidyl ethers, polyglycerol polyglycidyl ethers and pentaerythritol polyglycidyl ethers, isocyanate compounds, methylol group-containing compounds, active methylene-containing compounds and imido compounds with an organic compound being an amino silane, wherein when the metallic ion is a Zr ion, a Ti ion, a Hf ion or a Ce ion, the case where the metallic compound is a colloidal dispersoid is excluded, and wherein the organic compound having a functional group, and the organic compound having a functional group capable of reacting with the functional group and at least one hydrophilic functional group selected from hydroxyl groups, which are different from those containable in the following functional groups (a), primary, secondary and tertiary amino groups, quaternary ammonium groups, phosphoric acid groups, phosphonic acid groups, sulfonic acid groups, primary amido groups, secondary amido groups and polyoxyethylene chains, all these groups and chains being different from those included in the functional groups and/or the functional groups are compounded, and at least one of the organic compound and the organic compound is an organic silane compound having the functional group (a).
Method for producing at least one microelectronic component on a substrate which includes, exposed on a first face of the substrate, at least one active region and at least one electrically insulating region adjacent to the active region, the method comprising forming a transistor gate on the active region, forming spacers each configured to cover a surface of a different sidewall of the gate, and forming source and drain regions by doping portions of the active region adjacent to the gate, the method successively comprising: - forming a first layer, made of a spacer material, above the active region and above the electrically insulating region; - carrying out ion implantation configured to produce the doping of the portions of the active region adjacent to the gate through the first layer, the first layer forming a protective coating protecting the electrically insulating region throughout the implantation and until completion thereof; - removing a modified portion of the first layer overhanging the active region and the electrically insulating region, said modified portion originating from the ion implantation, said removal being configured to at least partially preserve the first layer at the sidewalls of the gate. - forming a first layer, made of a spacer material, above the active region and above the electrically insulating region; - carrying out ion implantation configured to produce the doping of the portions of the active region adjacent to the gate through the first layer, the first layer forming a protective coating protecting the electrically insulating region throughout the implantation and until completion thereof; - removing a modified portion of the first layer overhanging the active region and the electrically insulating region, said modified portion originating from the ion implantation, said removal being configured to at least partially preserve the first layer at the sidewalls of the gate.
Supporting pin for supporting an electrically heatable honeycomb body on a first honeycomb body, wherein the supporting pin has a first end region, a second end region and an intermediate region, characterized in that the supporting pin has a core made of electrically non-conductive ceramic material and a metallized surface on at least one end region (5; 6) and an electrically non-conductive intermediate region with a length of at least 3 mm.
A thermistor holder assembly for a high current charging connector, comprising a terminal retaining structure, attachable to a high current charging connector housing, said terminal retraining structure comprises a tunnel configured to guide a high current wire through the terminal retraining structure, whereby the terminal retraining structure comprises a clip cavity that extends along a mating axis which is parallel to an axis along which the tunnel extends and wherein the clip cavity extends perpendicular to the mating axis into a tunnel wall, the assembly further comprising a thermistor holder clip adapted to hold a thermal sensor and configured to be clipped to the high current wire, whereby the thermistor holder clip is, at least partly, received and held in the clip cavity, wherein the thermistor holder clip has an elongated clip base aligned along an axis parallel with the mating axis and having a first clip end and a second clip end, characterized in that a first clip wing and a second clip wing extend perpendicular to the elongated clip base and between the first clip end and the second clip end from the elongated clip base, whereby the clip wings (104, 105) extend spaced apart from and parallel to each other.
A tunable matching network, comprising: a first inductor connected to a first port and a first node; a second inductor, coupled between the first node and a second node, such that the second inductor is connected to the first node and to the second node; a first capacitor, coupled between the first node and a ground node, such that the first capacitor is connected to the first node and to the ground node; a second capacitor, coupled between the second node and the ground node, such that the second capacitor is connected to the second node and to the ground node; a third inductor, coupled between the second node and a third node, such that the third inductor is connected to the second node and to the third node; a third capacitor, coupled between the third node and the ground node, such that the third capacitor is connected to the third node and to the ground node; a fourth inductor, coupled between the third node and a second port, such that the fourth inductor is connected to the third node and to the second port; and a fourth capacitor, connected to the first node and the third node, wherein the fourth capacitor is a variable capacitor, wherein the fourth capacitor tunes a self-resonant frequency of the series combination of the second and third inductors. a first inductor connected to a first port and a first node; a second inductor, coupled between the first node and a second node, such that the second inductor is connected to the first node and to the second node; a first capacitor, coupled between the first node and a ground node, such that the first capacitor is connected to the first node and to the ground node; a second capacitor, coupled between the second node and the ground node, such that the second capacitor is connected to the second node and to the ground node; a third inductor, coupled between the second node and a third node, such that the third inductor is connected to the second node and to the third node; a third capacitor, coupled between the third node and the ground node, such that the third capacitor is connected to the third node and to the ground node; a fourth inductor, coupled between the third node and a second port, such that the fourth inductor is connected to the third node and to the second port; and
A method of monitoring and testing a duct leak detection system of an aircraft having bleed air ducts, comprising: monitoring in real time plural air duct sensors (212a-212d) by a control system; displaying in real time, on an interface coupled to the control system, faults, ruptures or possible emergencies sensed by the sensors (212a-212d), characterized in that the interface includes a display and at least two selector switches; the method further comprises: selecting with the interface, one of the sensors (212a-212d) for sensor health testing; sending, by the control system, a test current which is an alternating current through the selected sensor; measuring, by the control system a resistance of the selected sensor in response to the test current; displaying, with the interface, measured results; and in addition to displaying measured results generating an indicative signal that is displayed with the interface when the measured resistance of the selected sensor is outside of a specification of the selected sensor. monitoring in real time plural air duct sensors (212a-212d) by a control system; displaying in real time, on an interface coupled to the control system, faults, ruptures or possible emergencies sensed by the sensors (212a-212d), characterized in that the interface includes a display and at least two selector switches; the method further comprises: selecting with the interface, one of the sensors (212a-212d) for sensor health testing; sending, by the control system, a test current which is an alternating current through the selected sensor; measuring, by the control system a resistance of the selected sensor in response to the test current; displaying, with the interface, measured results; and in addition to displaying measured results generating an indicative signal that is displayed with the interface when the measured resistance of the selected sensor is outside of a specification of the selected sensor. selecting with the interface, one of the sensors (212a-212d) for sensor health testing; sending, by the control system, a test current which is an alternating current through the selected sensor; measuring, by the control system a resistance of the selected sensor in response to the test current; displaying, with the interface, measured results; and in addition to displaying measured results generating an indicative signal that is displayed with the interface when the measured resistance of the selected sensor is outside of a specification of the selected sensor.
An apparatus for producing molybdenum-99 from a plurality of molybdenum-100 targets through a photo-nuclear reaction on the 100 Mo targets, the apparatus comprising: a linear accelerator component having at least 5 kW of power to about 100 kW of power adapted to produce an electron beam; a converter component adapted to receive the electron beam and producing therefrom a shower of bremsstrahlung photons having a flux of at least 20 MeV to about 45 MeV; a target irradiation component adapted to receive the shower of bremsstrahlung photons, the target irradiation component having a chamber for receiving, demountingly engaging, and positioning therein a target holder housing a plurality of 100 Mo target discs; a remote controlled grapple assembly transportable along and within the apparatus, the grapple assembly demountably engageable with an end of the target holder; and a cooling system sealingly engaged with the converter component for circulation of a coolant fluid therethrough. a linear accelerator component having at least 5 kW of power to about 100 kW of power adapted to produce an electron beam; a converter component adapted to receive the electron beam and producing therefrom a shower of bremsstrahlung photons having a flux of at least 20 MeV to about 45 MeV; a target irradiation component adapted to receive the shower of bremsstrahlung photons, the target irradiation component having a chamber for receiving, demountingly engaging, and positioning therein a target holder housing a plurality of 100 Mo target discs; a remote controlled grapple assembly transportable along and within the apparatus, the grapple assembly demountably engageable with an end of the target holder; and a cooling system sealingly engaged with the converter component for circulation of a coolant fluid therethrough.
A power supply system comprising: a running rail having at least one low place and at least one high place located at a level higher than the low place in a gravity direction; a powerless carrier placed on the running rail so as to be run on the running rail; a powerless transporter, and if required a powered transporter, for transporting the powerless carrier to the high place; a wind power generating mechanism with an impeller, the mechanism being provided on the powerless carrier; and a power output terminal provided on the wind power generating mechanism, wherein electric power generated by rotation of the impeller directly or indirectly caused by running wind generated by running of the powerless carrier can be taken out from the running rail electrically connected to the power output terminal or taken out from a power-feeding rail or an overhead power line arranged in parallel to the running rail. a running rail having at least one low place and at least one high place located at a level higher than the low place in a gravity direction; a powerless carrier placed on the running rail so as to be run on the running rail; a powerless transporter, and if required a powered transporter, for transporting the powerless carrier to the high place; a wind power generating mechanism with an impeller, the mechanism being provided on the powerless carrier; and a power output terminal provided on the wind power generating mechanism, wherein electric power generated by rotation of the impeller directly or indirectly caused by running wind generated by running of the powerless carrier can be taken out from the running rail electrically connected to the power output terminal or taken out from a power-feeding rail or an overhead power line arranged in parallel to the running rail.
Operating device for a handling device, having a gripping section and a coupling for a gripping device, at least a part of the coupling being located at or in the gripping section, so as to be rotatable about an axis of rotation, so that the coupling can assume different rotational positions, wherein a reading device for reading out an information carrier with coded information is located at the side of the gripping section facing the coupling, characterized in that the reading device is configured so as to read an information carrier of a gripping device coupled to the coupling regardless of the rotational position of the coupling.