mhurhangee/ep-ind-claims huggingface dataset:
A voltage regulator having an output terminal adapted to be connected to a load (R, C), including a device for limiting the current (Iout) flowing through the load to a first threshold current if the voltage of the output terminal (Vout) is lower than a threshold voltage (Vt), and to a second threshold current higher than the first current threshold if the voltage of the output terminal (Vout) is greater than the threshold voltage (Vt), characterized in that it includes: a comparator for comparing the voltage (Vout) of the output terminal to the threshold voltage (Vt), first and second feedback loops (14, 16, 20, 22, R1, T3) for limiting the current flowing through the load respectively to the first and second threshold currents, and a switching block (T2, 10) controllable by the comparator to activate either the first or the second feedback loop according to whether the voltage of the output terminal (Vout) is smaller or not than the threshold voltage (Vt). a comparator for comparing the voltage (Vout) of the output terminal to the threshold voltage (Vt), first and second feedback loops (14, 16, 20, 22, R1, T3) for limiting the current flowing through the load respectively to the first and second threshold currents, and a switching block (T2, 10) controllable by the comparator to activate either the first or the second feedback loop according to whether the voltage of the output terminal (Vout) is smaller or not than the threshold voltage (Vt).
A blood vessel-generating device comprising: a) a sink channel in fluid communication with a sink inlet; b) a source channel in fluid communication with a source inlet substantially parallel to the sink channel; c) a blood vessel-forming channel in fluid communication with a blood vessel-forming channel inlet, disposed in contact with the sides of the sink channel and the source channel between the sink channel and the source channel, substantially parallel to the source channel and the sink channel; d) a first culture channel in fluid communication with a first culture channel inlet, disposed in contact with the other side of the sink channel, substantially parallel to the sink channel; and e) a second culture channel in fluid communication with a second culture channel inlet, disposed in contact with the other side of the source channel, substantially parallel to the source channel, wherein a plurality of microstructures configured to allow interaction between biochemical materials included in each channel are arranged in the interfaces of the respective adjacent channels at set intervals, and wherein the sink channel is disposed between the blood vessel-forming channel and the first culture channel, and the source channel is disposed between the blood vessel-forming channel and the second culture channel. a) a sink channel in fluid communication with a sink inlet; b) a source channel in fluid communication with a source inlet substantially parallel to the sink channel; c) a blood vessel-forming channel in fluid communication with a blood vessel-forming channel inlet, disposed in contact with the sides of the sink channel and the source channel between the sink channel and the source channel, substantially parallel to the source channel and the sink channel; d) a first culture channel in fluid communication with a first culture channel inlet, disposed in contact with the other side of the sink channel, substantially parallel to the sink channel; and e) a second culture channel in fluid communication with a second culture channel inlet, disposed in contact with the other side of the source channel, substantially parallel to the source channel,
A battery case which houses a battery module having a plurality of cells, the battery module defined by opposing XY surfaces, opposing YZ surfaces (A, B), and opposing XZ surfaces (C, D), wherein X, Y and Z define directional planes, the battery case comprising: a first cover layer disposed on and covering an entire outer surface of at least one of the opposing XY surfaces, opposing YZ surfaces, and opposing XZ surfaces of the battery module, the first cover layer having a higher thermal radiation emissivity than the thermal radiation emissivity of the outer surface of the battery module; an outer case having a second cover layer, wherein the second cover layer is disposed on and covering an entire inner surface of the outer case opposing the first cover layer, the second cover layer having a higher thermal radiation emissivity than the thermal radiation emissivity of the inner surface of the outer case; and a supporting mechanism connecting the battery module to the outer case and configured to suspend the battery module within the outer case such that the first cover layer and the second cover layer are opposed to each other and form an air space configured to dissipate heat between all six sides of the battery module and the outer case. a first cover layer disposed on and covering an entire outer surface of at least one of the opposing XY surfaces, opposing YZ surfaces, and opposing XZ surfaces of the battery module, the first cover layer having a higher thermal radiation emissivity than the thermal radiation emissivity of the outer surface of the battery module; an outer case having a second cover layer, wherein the second cover layer is disposed on and covering an entire inner surface of the outer case opposing the first cover layer, the second cover layer having a higher thermal radiation emissivity than the thermal radiation emissivity of the inner surface of the outer case; and a supporting mechanism connecting the battery module to the outer case and configured to suspend the battery module within the outer case such that the first cover layer and the second cover layer are opposed to each other and form an air space configured to dissipate heat between all six sides of the battery module and the outer case.
An extension table with multiples legs witch two sliding table tops sliding back and forth in relation to each other and a number of leaves and at least four supporting members each comprising two table legs - a first table leg and a second table leg - said supporting members supporting the sliding table top with multiple legs when the sliding table tops are pushed together in a first position and supporting the sliding table tops when the sliding table tops are pulled apart in a second position, characterised in that the first table legs in each supporting member are directly or indirectly connected to one of the sliding table tops by fastening means and fasteners comprising sliding means, and by said fastener, the first table legs and the connected corresponding sliding stable top are arranged to slide relative to each other from a position A to a second position B differing from position A and at least in the extension direction of the table and with fastening means co-operating with the sliding means of the fastener in order to secure the first table legs in the chosen position.
A communications device acting as a relay device configured to communicate with communications devices operating with a mobile communications network and infrastructure equipment forming part of the mobile communications network, the communications device acting as the relay device comprising transmitter circuitry configured to transmit signals to the communications devices and to transmit signals to the infrastructure equipment, receiver circuitry configured to receive signals from the communications devices and to receive signals from the infrastructure equipment, and controller circuitry configured in combination with the transmitter circuitry to determine whether predetermined conditions relating to the setting of an indication bit have been met, wherein the indication bit indicates whether the communications device acting as the relay device is able to form new connections with one or more of the communications devices, to set the indication bit dependent on the determination of whether the predetermined conditions have been met, wherein the communications device acting as the relay device is not able to form new connections with one or more of the communications devices when the predetermined conditions are met, and to broadcast the indication bit. transmitter circuitry configured to transmit signals to the communications devices and to transmit signals to the infrastructure equipment, receiver circuitry configured to receive signals from the communications devices and to receive signals from the infrastructure equipment, and controller circuitry configured in combination with the transmitter circuitry to determine whether predetermined conditions relating to the setting of an indication bit have been met, wherein the indication bit indicates whether the communications device acting as the relay device is able to form new connections with one or more of the communications devices, to set the indication bit dependent on the determination of whether the predetermined conditions have been met, wherein the communications device acting as the relay device is not able to form new connections with one or more of the communications devices when the predetermined conditions are met, and to broadcast the indication bit.
A process for decomposing nitrous oxide from a gas stream, comprising: (a) splitting the gas stream into at least two partial streams (3, 5; 23) and heating the partial streams (3, 5; 23); (b) feeding each of the partial streams (3, 5; 23) into a separate decomposition reactor, wherein each reactor comprises a catalyst; (c) decomposing the nitrous oxide into nitrogen and oxygen in the decomposition reactors to obtain purified streams (13, 15; 27); (d) optionally feeding each purified stream (13, 15; 27) into a unit for decomposing nitrogen dioxide and/or nitrogen monoxide or combining at least two purified streams (13, 15; 27) and feeding the combined purified streams into a unit for decomposing nitrogen dioxide and/or nitrogen monoxide, wherein the catalysts of the decomposition reactors are changed alternatingly and wherein one of the catalysts is changed when the arithmetic mean of the lifetime of the catalysts in the other reactors has reached 25 to 75 % of the lifetime of one catalyst. (a) splitting the gas stream into at least two partial streams (3, 5; 23) and heating the partial streams (3, 5; 23); (b) feeding each of the partial streams (3, 5; 23) into a separate decomposition reactor, wherein each reactor comprises a catalyst; (c) decomposing the nitrous oxide into nitrogen and oxygen in the decomposition reactors to obtain purified streams (13, 15; 27); (d) optionally feeding each purified stream (13, 15; 27) into a unit for decomposing nitrogen dioxide and/or nitrogen monoxide or combining at least two purified streams (13, 15; 27) and feeding the combined purified streams into a unit for decomposing nitrogen dioxide and/or nitrogen monoxide,
A converter comprising: a first bridge arm comprising a first switch unit and a second switch unit electrically coupled in series at an output terminal; a second bridge arm comprising a first voltage source and a second voltage source electrically coupled in series at a neutral point terminal; characterised in that the converter further comprises: a switch circuit directly and electrically coupled to the neutral point terminal and the output terminal; and a voltage clamp circuit (140a, 104b) electrically coupled to the output terminal, the neutral point terminal, and one of a positive input terminal and a negative input terminal, the voltage clamp circuit (140a, 104b) configured to clamp a voltage across the switch circuit. a first bridge arm comprising a first switch unit and a second switch unit electrically coupled in series at an output terminal; a second bridge arm comprising a first voltage source and a second voltage source electrically coupled in series at a neutral point terminal; characterised in that the converter further comprises: a switch circuit directly and electrically coupled to the neutral point terminal and the output terminal; and a voltage clamp circuit (140a, 104b) electrically coupled to the output terminal, the neutral point terminal, and one of a positive input terminal and a negative input terminal, the voltage clamp circuit (140a, 104b) configured to clamp a voltage across the switch circuit. a switch circuit directly and electrically coupled to the neutral point terminal and the output terminal; and a voltage clamp circuit (140a, 104b) electrically coupled to the output terminal, the neutral point terminal, and one of a positive input terminal and a negative input terminal, the voltage clamp circuit (140a, 104b) configured to clamp a voltage across the switch circuit.
A method for expressing a disintegrin and metalloproteinase with thrombospondin motifs (ADAMTS) protein, the method comprising culturing a cell harboring a nucleic acid encoding an ADAMTS protein in a culture medium comprising zinc at a concentration between 2 μM to 12 μM.
A system for producing a three-dimensional object, the system comprising: an extrusion assembly including at least one actuator and an extrusion head; and a controller, the controller configured to control the at least one actuator to supply a build material to the extrusion head based on an input control value, the extrusion head configured to heat the build material within a melting zone of the extrusion head prior to extruding an output flow of the build material to produce the 3D object, characterized in that the input control value is a function of (i) a hydraulic capacitance and a hydraulic resistance, representing hydraulic capacitance values and hydraulic resistance values, respectively, associated with the build material, the extrusion assembly, or a combination thereof at one or more locations of the extrusion assembly relative to the melting zone and (ii) a target output flow, the input control value enabling the output flow to match the target output flow. an extrusion assembly including at least one actuator and an extrusion head; and a controller, the controller configured to control the at least one actuator to supply a build material to the extrusion head based on an input control value, the extrusion head configured to heat the build material within a melting zone of the extrusion head prior to extruding an output flow of the build material to produce the 3D object, characterized in that the input control value is a function of (i) a hydraulic capacitance and a hydraulic resistance, representing hydraulic capacitance values and hydraulic resistance values, respectively, associated with the build material, the extrusion assembly, or a combination thereof at one or more locations of the extrusion assembly relative to the melting zone and (ii) a target output flow, the input control value enabling the output flow to match the target output flow.
A modular composite structure being a vehicle floor pan section, the vehicle floor pan section comprising: a. a first molded composite core structure (10, 20, 30) comprising i. a first core (12, 22, 32) comprising a first surface, the first surface of the first core bonded to a first fiber layer embedded in a first polymer; ii. a first fiber reinforcement region overlying a portion of the first surface of the first core; b. a second molded composite core structure (10, 20, 30) comprising i. a first fiber substrate, the first fiber substrate comprising fibers embedded in a second polymer, the first fiber substrate bonded to a first surface of a second core (12, 22, 32); ii. a second fiber reinforcement region bonded to and overlying a portion of the first fiber substrate; wherein the first molded composite core structure is attached to the second molded composite core structure to form the vehicle floor pan section. a. a first molded composite core structure (10, 20, 30) comprising i. a first core (12, 22, 32) comprising a first surface, the first surface of the first core bonded to a first fiber layer embedded in a first polymer; ii. a first fiber reinforcement region overlying a portion of the first surface of the first core; i. a first core (12, 22, 32) comprising a first surface, the first surface of the first core bonded to a first fiber layer embedded in a first polymer; ii. a first fiber reinforcement region overlying a portion of the first surface of the first core; b. a second molded composite core structure (10, 20, 30) comprising i. a first fiber substrate, the first fiber substrate comprising fibers embedded in a second polymer, the first fiber substrate bonded to a first surface of a second core (12, 22, 32); ii. a second fiber reinforcement region bonded to and overlying a portion of the first fiber substrate; wherein the first molded composite core structure is attached to the second molded composite core structure to form the vehicle floor pan section. i. a first fiber substrate, the first fiber substrate comprising fibers embedded in a second polymer, the first fiber substrate bonded to a first surface of a second core (12, 22, 32); ii. a second fiber reinforcement region bonded to and overlying a portion of the first fiber substrate;
A wireless communication method performed by an eNode B, eNB, comprising: transmitting repetitions of one or more control channels in a control region to a first user equipment, UE, in a coverage enhancement level; wherein the control region comprises multiple sub-regions each of which can be used to transmit repetitions of one control channel; wherein possible sub-regions for the coverage enhancement level are selected from the multiple sub-regions and are allocated for transmitting one control channel to the first UE in the coverage enhancement level, wherein the possible sub-regions for the coverage enhancement level start from the same subframe; the possible sub-regions for the coverage enhancement level for the first UE constitute a subset of a set of available sub-regions for the coverage enhancement level; and the possible sub-regions for the coverage enhancement level are determined by using a UE index of the first UE. transmitting repetitions of one or more control channels in a control region to a first user equipment, UE, in a coverage enhancement level; wherein the control region comprises multiple sub-regions each of which can be used to transmit repetitions of one control channel; wherein possible sub-regions for the coverage enhancement level are selected from the multiple sub-regions and are allocated for transmitting one control channel to the first UE in the coverage enhancement level, wherein the possible sub-regions for the coverage enhancement level start from the same subframe; the possible sub-regions for the coverage enhancement level for the first UE constitute a subset of a set of available sub-regions for the coverage enhancement level; and the possible sub-regions for the coverage enhancement level are determined by using a UE index of the first UE.
A method for preventing microbiological contamination in a building comprising a ventilation system, the method comprising the following steps: - first detecting the contamination in a first ventilated sub-part of the building by a VOC sensor based on a first volume of air flowing through the ventilation system; and - taking a first action in order to prevent further contamination; and - performing a second measurement of the contamination based on a second larger volume of air from the sub-part supplied by the ventilation system upon the first detecting; and - when the measurement is positive, taking a second action in order to prevent further contamination; and - when the second measurement is negative, undoing the first action further characterized in that the performing a second measurement further comprises guiding the second larger volume of air through an air filter for a certain amount of time, extracting the air filter and performing a microbiological culture on air particles from the air filter. - first detecting the contamination in a first ventilated sub-part of the building by a VOC sensor based on a first volume of air flowing through the ventilation system; and - taking a first action in order to prevent further contamination; and - performing a second measurement of the contamination based on a second larger volume of air from the sub-part supplied by the ventilation system upon the first detecting; and - when the measurement is positive, taking a second action in order to prevent further contamination; and - when the second measurement is negative, undoing the first action further characterized in that the performing a second measurement further comprises guiding the second larger volume of air through an air filter for a certain amount of time, extracting the air filter and performing a microbiological culture on air particles from the air filter.
Direct printing device for applying a circumferential print onto containers with at least one container seam (3a, 3b), comprising a printhead adapted for printing directly onto a container, a detection device which is adapted in such a way that at least one predetermined feature of said container, for example a marking or said container seam (3a, 3b), is recorded, a computing device which is configured to determine, based on said at least one feature, whether and, if so, how said container is to be oriented in order to be moved from an actual container orientation to a predetermined target container orientation, and an orientation device configured to orient said container to said target container orientation based on the determination by said computing device, where said target container orientation is predetermined such that the container seam is oriented relative to said printhead such that a print seam, which is created during the application of a circumferential print, substantially coincides with said container seam (3a, 3b). a printhead adapted for printing directly onto a container, a detection device which is adapted in such a way that at least one predetermined feature of said container, for example a marking or said container seam (3a, 3b), is recorded, a computing device which is configured to determine, based on said at least one feature, whether and, if so, how said container is to be oriented in order to be moved from an actual container orientation to a predetermined target container orientation, and an orientation device configured to orient said container to said target container orientation based on the determination by said computing device, where said target container orientation is predetermined such that the container seam is oriented relative to said printhead such that a print seam, which is created during the application of a circumferential print, substantially coincides with said container seam (3a, 3b).