mhurhangee/ep-ind-claims huggingface dataset:
A method for sequencing immune cell receptor genes, comprising providing RNA from immune cells; transcribing the RNA into complementary RNA (cRNA), followed by reverse transcribing the cRNA into complementary DNA (cDNA) using one or more primers that comprise a first adapter sequence, wherein each 5' end of the cDNA produced by reverse transcription contains the first adapter sequence; amplifying the cDNA to produce a first amplification product using a first primer pair comprising a first primer that hybridizes to the first adapter sequence and a second primer that hybridizes to a constant region of immune cell receptor gene; amplifying the first amplification product to produce a second amplification product using a second primer pair, in which i. a first primer of the second primer pair binds to the adapter sequence at the 5' end of the first amplification product, ii. the second primer of the second primer pair binds to the constant region of immune cell receptor gene in the first amplification product, and iii. the first and second primers comprise adapter sequences for sequencing; and sequencing the second amplification product. providing RNA from immune cells; transcribing the RNA into complementary RNA (cRNA), followed by reverse transcribing the cRNA into complementary DNA (cDNA) using one or more primers that comprise a first adapter sequence, wherein each 5' end of the cDNA produced by reverse transcription contains the first adapter sequence; amplifying the cDNA to produce a first amplification product using a first primer pair comprising a first primer that hybridizes to the first adapter sequence and a second primer that hybridizes to a constant region of immune cell receptor gene; amplifying the first amplification product to produce a second amplification product using a second primer pair, in which i. a first primer of the second primer pair binds to the adapter sequence at the 5' end of the first amplification product, ii. the second primer of the second primer pair binds to the constant region of immune cell receptor gene in the first amplification product, and iii. the first and second primers comprise adapter sequences for sequencing; and i. a first primer of the second primer pair binds to the adapter sequence at the 5' end of the first amplification product, ii. the second primer of the second primer pair binds to the constant region of immune cell receptor gene in the first amplification product, and iii. the first and second primers comprise adapter sequences for sequencing; and sequencing the second amplification product.
A dosing system with an actuator unit and a fluidic unit which can be coupled thereto in a detachable manner, wherein the fluidic unit has a nozzle and an element, mounted in a movable manner, and the actuator unit has an actuator system, in order to actuate the movable element of the fluidic unit, wherein the fluidic unit has a first plug coupling part and the actuator unit has a second plug coupling part, which can be plugged into one another for coupling the fluidic unit to the actuator unit along a plugging axis and can be coupled to one another integrally, characterised in that the first plug coupling part and the second plug coupling part have interacting projections (12, 62) and/or recesses.
A ceramic having a plane orientation in a pseudo-cubic form, which comprises a perovskite-type metal oxide represented by the following general formula: General Formula xBiFeO 3 -(1-x) ABO 3 provided that x is within a range of 0.3 ≤ x ≤ 1; wherein ABO 3 is at least one selected from the group consisting of KNbO 3, NaNbO 3, LiNbO 3, LiTaO 3, AgNbO 3, BiCrO 3, BiMnO 3, BiCoO 3, BiNiO 3, (Bi 0.5 Na 0.5)TiO 3, (Bi 0.5 K 0.5)TiO 3, Bi(Zn 0.5 Ti 0.5)O 3, and BaTiO 3, which has a thickness of 50 μm or more, and wherein a Lotgering factor F of a plane in the pseudo-cubic form is 10% or more and 100% or less.
A method for the automated production of three-dimensional metallic structures (21, 21a, 21b) on a metallic base material, wherein a first metallic additive (ZSa) is fed to a welding point, which metallic additive is melted at least by means of a first arc, generated between a first electrode and the base material, in order to produce a first weld seam at the welding point, and wherein a laser beam is fed to the welding point, wherein a second metallic additive (ZSb) is fed to the welding point, which second metallic additive is melted at the welding point at least by means of a second arc, generated between a second electrode and the base material, in order to produce a second weld seam, wherein different materials are used as the first metallic additive (ZSa) and as the second metallic additive (ZSb), characterized in that the first metallic additive (ZSa) and the second metallic additive (ZSb) are fed sequentially in time to the welding point and are melted in the region of the welding point in the respectively burning first or second arc (11a, 11b) in order to form the three-dimensional metallic structure (21, 21a, 21b).
A near field communication reader comprising, - a first section; a second section; wherein the first section includes - an NFC controller; - a filter coupled to the NFC controller, wherein the filter includes a filter capacitor; - a first tuning circuit coupled to the filter, wherein the first tuning circuit includes a tuner capacitor that is electrically coupled in parallel to the filter capacitor, wherein the first tuning circuit includes a first cable connector; wherein the second section includes - a second tuning circuit, wherein the second tuning circuit includes a second tuner capacitor and a damping resistor, wherein the second tuning circuit includes a second cable connector; and - an antenna coupled to the second tuning circuit; wherein the filter is an electromagnetic compatibility low pass filter having an asymmetrical component structure in which two transmitter lines are coupled together and wherein two receiver lines are coupled together to form only one receiver line including a capacitor and a resistor. - a first section; - an NFC controller; - a filter coupled to the NFC controller, wherein the filter includes a filter capacitor; - a first tuning circuit coupled to the filter, wherein the first tuning circuit includes a tuner capacitor that is electrically coupled in parallel to the filter capacitor, wherein the first tuning circuit includes a first cable connector; - a second tuning circuit, wherein the second tuning circuit includes a second tuner capacitor and a damping resistor, wherein the second tuning circuit includes a second cable connector; and - an antenna coupled to the second tuning circuit; wherein the filter is an electromagnetic compatibility low pass filter having an asymmetrical component structure in which two transmitter lines are coupled together and wherein two receiver lines are coupled together to form only one receiver line including a capacitor and a resistor.
Method for monitoring an operation of an elevator door arrangement, the elevator door arrangement comprising at least one door wing and an electric actuator for displacing the door wing in at least one of an opening and a closing direction during a door motion event, the method comprising a learning phase and an application phase; wherein, during the learning phase, different types of door motion events (19, 21) are identified and for each type of door motion event (19, 21) a reference motion event duration ((Δt O, Δt C, Δt R) is learned; and wherein, during the application phase, a door arrangement operation is observed such as to detect door motion events (19, 21) and the different types of door motion events (19, 21) are distinguished upon comparison of the learned reference motion event durations ((Δt O, Δt C, Δt R) with actual motion event durations as measured during the application phase. the elevator door arrangement comprising at least one door wing and an electric actuator for displacing the door wing in at least one of an opening and a closing direction during a door motion event, the method comprising a learning phase and an application phase; wherein, during the learning phase, different types of door motion events (19, 21) are identified and for each type of door motion event (19, 21) a reference motion event duration ((Δt O, Δt C, Δt R) is learned; and wherein, during the application phase, a door arrangement operation is observed such as to detect door motion events (19, 21) and the different types of door motion events (19, 21) are distinguished upon comparison of the learned reference motion event durations ((Δt O, Δt C, Δt R) with actual motion event durations as measured during the application phase.
A container comprising: a plurality of package segments (S 1 -S 28), each associated with a respective conductive lead (T 1 -T 28) that is interrupted when the package segment is opened; and a signaling source configured to provide two signals that are distinguishable from each other, wherein a presence of one or both of the signals on a shared return line (L 1 -L 14) indicates whether one of the package segments (S 1 -S 28) has been opened, wherein the signaling source is configured to provide the two signals as DC signals having different voltages, as AC signals having different frequencies, or is configured to provide a first one of the signals as an AC signal and a second one of the signals as a DC signal, and wherein the conductive leads (T 1 -T 28) are arranged in sets (R 1 -R 14), each set including a respective first conductive lead and a respective second conductive lead, and for each set: a respective first node of the first and second conductive leads both connect to a common node, wherein a shared return line (L 1 -L 14) provides a connection between the common node of the associated set and the signaling source; and a respective second node of the first and second conductive leads each have a separate signal path to the signaling source. a plurality of package segments (S 1 -S 28), each associated with a respective conductive lead (T 1 -T 28) that is interrupted when the package segment is opened; and a signaling source configured to provide two signals that are distinguishable from each other, wherein a presence of one or both of the signals on a shared return line (L 1 -L 14) indicates whether one of the package segments (S 1 -S 28) has been opened, wherein the signaling source is configured to provide the two signals as DC signals having different voltages, as AC signals having different frequencies, or is configured to provide a first one of the signals as an AC signal and a second one of the signals as a DC signal, and wherein the conductive leads (T 1 -T 28) are arranged in sets (R 1 -R 14), each set including a respective first conductive lead and a respective second conductive lead, and for each set: a respective first node of the first and second conductive leads both connect to a common node, wherein a shared return line (L 1 -L 14) provides a connection between the common node of the associated set and the signaling source; and a respective second node of the first and second conductive leads each have a separate signal path to the signaling source. a respective first node of the first and second conductive leads both connect to a common node, wherein a shared return line (L 1 -L 14) provides a connection between the common node of the associated set and the signaling source; and a respective second node of the first and second conductive leads each have a separate signal path to the signaling source.
A waste and sewage treatment system comprising a sewage treatment plant;: an organic waste supply unit adapted to dry, store, and supply an organic waste; a combustible waste supply unit adapted to supply a combustible waste; a combustion unit connected to the organic waste supply unit and the combustible waste supply unit so as to burn the organic waste and the combustible waste; a power generation unit adapted to perform cogeneration using heat generated by the combustion unit; and a hot water generation unit connected to the power generation unit and the organic waste supply unit so as to generate hot water using waste heat generated by the power generation unit, wherein: the organic waste supply unit is connected to the hot water generation unit to dry the organic waste using the hot water supplied from the hot water generation unit; and the hot water generation unit is connected to the sewage treatment plant, and the hot water of the hot water generation unit is supplied to the sewage treatment plant, and characterized in that the organic waste supply unit is connected to the sewage treatment plant, and the waste heat of the organic waste supply unit is supplied to the sewage treatment plant, and wherein the combustion unit comprises: a first combustion device adapted to burn the organic waste supplied from the organic waste supply unit; and a second combustion device adapted to burn the combustible waste supplied from the combustible waste supply unit. an organic waste supply unit adapted to dry, store, and supply an organic waste; a combustible waste supply unit adapted to supply a combustible waste; a combustion unit connected to the organic waste supply unit and the combustible waste supply unit so as to burn the organic waste and the combustible waste; a power generation unit adapted to perform cogeneration using heat generated by the combustion unit; and a hot water generation unit connected to the power generation unit and the organic waste supply unit so as to generate hot water using waste heat generated by the power generation unit, wherein: the organic waste supply unit is connected to the hot water generation unit to dry the organic waste using the hot water supplied from the hot water generation unit; and the hot water generation unit is connected to the sewage treatment plant, and the hot water of the hot water generation unit is supplied to the sewage treatment plant, and the organic waste supply unit is connected to the hot water generation unit to dry the organic waste using the hot water supplied from the hot water generation unit; and the hot water generation unit is connected to the sewage treatment plant, and the hot water of the hot water generation unit is supplied to the sewage treatment plant, and characterized in that the organic waste supply unit is connected to the sewage treatment plant, and the waste heat of the organic waste supply unit is supplied to the sewage treatment plant, and a first combustion device adapted to burn the organic waste supplied from the organic waste supply unit; and a second combustion device adapted to burn the combustible waste supplied from the combustible waste supply unit.
A circuit breaker, comprising: a first current detecting circuit that is adapted to detect a load current; a second current detecting circuit that is adapted to detect the load current; and comparison means that is adapted to compare an output signal of the first current detecting circuit and an output signal of the second current detecting circuit, characterized in that the first current detecting circuit is adapted to detect the load current using a microcomputer in accordance with a signal output from a current detecting coil; and the second current detecting circuit is adapted to detect the load current using an output current of a power supply CT; wherein the output current of the power supply CT of the second current detecting circuit is supplied to the microcomputer of the first current detecting circuit as a drive power supply; and wherein the circuit breaker is adapted to determine whether an operation of the microcomputer is normal or abnormal based on an output of the comparison means. a first current detecting circuit that is adapted to detect a load current; a second current detecting circuit that is adapted to detect the load current; and comparison means that is adapted to compare an output signal of the first current detecting circuit and an output signal of the second current detecting circuit, characterized in that the first current detecting circuit is adapted to detect the load current using a microcomputer in accordance with a signal output from a current detecting coil; and the second current detecting circuit is adapted to detect the load current using an output current of a power supply CT; wherein the output current of the power supply CT of the second current detecting circuit is supplied to the microcomputer of the first current detecting circuit as a drive power supply; and wherein the circuit breaker is adapted to determine whether an operation of the microcomputer is normal or abnormal based on an output of the comparison means.
A connector comprising: a housing (604, 704) having a row of regularly spaced contact receiving channels (610-626,710-726); and a multiplicity of contacts (630-646, 730-746) comprising an electrically conductive material and mounted in the contact receiving channels, each contact having a blade arm (502, 532, 562), an attaching tail (508, 538, 568), and a mounting area between the blade arm and the attaching tail (510, 540, 570), each mounting area being similarly sized and having a top edge (514, 544, 574) and a bottom edge (516, 546, 576, 576) for making an interference fit with the housing, the multiplicity of contacts including a first contact (500, 630, 730) mounted in a first contact receiving channel, the first contact mounting area consisting entirely of the electrically conductive material, and a second contact (530, 632, 732) mounted in a second contact receiving channel adjacent to the first contact receiving channel, the second contact mounting area having a non-conductive center portion. a housing (604, 704) having a row of regularly spaced contact receiving channels (610-626,710-726); and a multiplicity of contacts (630-646, 730-746) comprising an electrically conductive material and mounted in the contact receiving channels, each contact having a blade arm (502, 532, 562), an attaching tail (508, 538, 568), and a mounting area between the blade arm and the attaching tail (510, 540, 570), each mounting area being similarly sized and having a top edge (514, 544, 574) and a bottom edge (516, 546, 576, 576) for making an interference fit with the housing, the multiplicity of contacts including a first contact (500, 630, 730) mounted in a first contact receiving channel, the first contact mounting area consisting entirely of the electrically conductive material, and a second contact (530, 632, 732) mounted in a second contact receiving channel adjacent to the first contact receiving channel, the second contact mounting area having a non-conductive center portion.
A method for monitoring the operation of a gripper, particularly a pneumatically actuated gripper, wherein the gripper comprises the following: - a housing in which a preferably pneumatically actuable linear drive is formed; and - a first and a second gripping jaw (10, 20), each of which being pivotably mounted about an axis of rotation (D1, D2) relative to the housing, wherein the first and second gripping jaw (10, 20) are coupled to the linear drive such that a linear movement produced by the linear drive is converted into a pivoting movement of the first and second gripping jaw (10, 20) respectively in an opening or closing direction of the gripping jaws (10, 20), wherein a system for measuring vibrations is assigned to the gripper which has an acceleration sensor designed to measure the acceleration of a gripping jaw (10, 20) upon the actuation of the gripper, characterized in that a vibrational spectrum of the gripper is recorded as an acceleration time signal by means of at least one vibration measurement over a previously defined or definable period of time and the recorded vibrational spectrum analyzed, wherein the at least one vibration measurement is performed over a period of time in which the gripper is closed at least once so that the recorded vibrational spectrum is a spectrum which is characteristic of the closing operation of the gripper. - a housing in which a preferably pneumatically actuable linear drive is formed; and - a first and a second gripping jaw (10, 20), each of which being pivotably mounted about an axis of rotation (D1, D2) relative to the housing, wherein the first and second gripping jaw (10, 20) are coupled to the linear drive such that a linear movement produced by the linear drive is converted into a pivoting movement of the first and second gripping jaw (10, 20) respectively in an opening or closing direction of the gripping jaws (10, 20), wherein a system for measuring vibrations is assigned to the gripper which has an acceleration sensor designed to measure the acceleration of a gripping jaw (10, 20) upon the actuation of the gripper, characterized in that a vibrational spectrum of the gripper is recorded as an acceleration time signal by means of at least one vibration measurement over a previously defined or definable period of time and the recorded vibrational spectrum analyzed, wherein the at least one vibration measurement is performed over a period of time in which the gripper is closed at least once so that the recorded vibrational spectrum is a spectrum which is characteristic of the closing operation of the gripper.
An apparatus, comprising: a first housing segment coupled to a first side of a board of a circuit assembly; a second housing segment coupled to a second side of the board, wherein the second side of the board is the opposite side to the first side of the board, wherein the first housing segment and the second housing segment create a liquid chamber that encloses a portion of the board between the first housing segment and the second housing segment, wherein the liquid chamber exposes a first component coupled to the first side of the board and encloses a second component coupled to the first side of the board; and a first liquid cooling supply line positioned on the first component exposed from the liquid chamber and positioned on a surface of the first housing segment of the liquid chamber. a first housing segment coupled to a first side of a board of a circuit assembly; a second housing segment coupled to a second side of the board, wherein the second side of the board is the opposite side to the first side of the board, wherein the first housing segment and the second housing segment create a liquid chamber that encloses a portion of the board between the first housing segment and the second housing segment, wherein the liquid chamber exposes a first component coupled to the first side of the board and encloses a second component coupled to the first side of the board; and
Portable power tool having a tool holder for retaining a tool, a handle for holding and guiding the portable power tool, an electric motor, a drive train that couples the electric motor to the tool holder, wherein the drive train contains a planetary transmission with a planet carrier and a plurality of planet gears, characterized in that at least one of the planet gears has a cylindrical cutout and the planet carrier has a collar in the form of a circular arc that protrudes into the cutout. a tool holder for retaining a tool, a handle for holding and guiding the portable power tool, an electric motor, a drive train that couples the electric motor to the tool holder, wherein the drive train contains a planetary transmission with a planet carrier and a plurality of planet gears, characterized in that at least one of the planet gears has a cylindrical cutout and the planet carrier has a collar in the form of a circular arc that protrudes into the cutout.
An electrical component comprising a housing, a contact carrier and at least one plug-in contact (3, 4, 5, 6), wherein the contact carrier is held in a floating manner on the housing, characterised in that the plug-in contact is held in a floating manner on the contact carrier, wherein a lateral offset and a height offset are both made possible as a result of the floating holding.