mhurhangee/ep-ind-claims huggingface dataset:
A long term evolution, LTE, relay node configured to: receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB, the relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; and receive a second MAC PDU from an LTE user equipment, UE, the relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU, wherein the LTE relay node is further configured to perform a cyclic redundant check, CRC, on the first MAC PDU and to transmit a non-acknowledgement/acknowledgement, NACK/ACK, signal to the LTE eNodeB, and wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB, wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions. receive a first medium access control packet data unit, MAC PDU, from an LTE eNodeB, the relay node comprising a first hybrid automatic repeat request, HARQ, entity configured to perform HARQ functionality with respect to the first MAC PDU; and receive a second MAC PDU from an LTE user equipment, UE, the relay node comprising a second HARQ entity configured to perform HARQ functionality with respect to the second MAC PDU, wherein the LTE relay node is further configured to perform a cyclic redundant check, CRC, on the first MAC PDU and to transmit a non-acknowledgement/acknowledgement, NACK/ACK, signal to the LTE eNodeB, and wherein the LTE relay node is configured to avoid transmitting the first MAC PDU to the LTE UE unless the first MAC PDU is free of errors when received from the LTE eNodeB, wherein the LTE relay node is configured to break apart the first MAC PDU and/or the second MAC PDU to create smaller transport block sizes, TBS, and wherein transport block size depends on radio conditions.
Thermally expandable microspheres comprising a thermoplastic polymer shell encapsulating a blowing agent, wherein the thermoplastic polymer shell comprises a copolymer of an itaconate dialkylester and at least one aliphatic or aromatic mono-ethylenically unsaturated comonomer, wherein the itaconate dialkylester is according to formula: wherein each of R 1 and R 2, separately from one another, is an alkyl group preferably with 1-4 carbon atoms, and wherein the copolymer contains 0-50 wt.% of vinyl aromatic comonomers, based on the total weight of the comonomers.
A method for killing or controlling a corn rootworm pest population comprising contacting said population with a pesticidally-effective amount of a polypeptide comprising an amino acid sequence having at least 95% sequence identity to the amino acid sequence of SEQ ID NO:3, wherein the polypeptide has pesticidal activity against a corn rootworm pest.
Structural component, in particular a kinetic structural component, which comprises a flexible structure (5, 50, 500) having at least one degree of freedom (F1, F2, R1, R2), wherein - the flexible structure (5, 50, 500) is movable between a compressed position and an expanded position or vice versa, and - wherein the flexible structure (5, 50, 500) comprises at least one substructure (5.1, 5.2) which is configured, in the expanded position of the flexible structure (5, 50, 500), to expand to form a curve or an arc and/or in a linear manner, - wherein the substructure (5.1, 5.2) is designed as a flexible grid having a plurality of lever elements (50.3, 500.3), characterized in that the lever elements (50.3, 500.3) are articulated on at least one moving link (50.1, 500.1) by joints (5.4, 50.2, 500.2), wherein the joints (5.4, 50.2, 500.2) are designed as film hinges or film joints made from polypropylene. - the flexible structure (5, 50, 500) is movable between a compressed position and an expanded position or vice versa, and - wherein the flexible structure (5, 50, 500) comprises at least one substructure (5.1, 5.2) which is configured, in the expanded position of the flexible structure (5, 50, 500), to expand to form a curve or an arc and/or in a linear manner, - wherein the substructure (5.1, 5.2) is designed as a flexible grid having a plurality of lever elements (50.3, 500.3),
A composition comprising at least one ethylene/a-olefin blocked interpolymer comprising two or more intramolecular blocks comprising differing chemical or physical properties and having a difference in mole percent α-olefin content greater than 20 mol.%, said intramolecular blocks characterized by possessing a most probable molecular weight distribution based on the polymer forming conditions of each intramolecular block, wherein the ethylene/a-olefin block interpolymer is characterized by a molecular weight distribution, M w /M n, in the range of from about 1.4 to about 2.8 and by an average block index greater than zero and up to about 1.0; and, wherein the ethylene/a-olefin block interpolymer is mesophase separated, wherein the ethylene/a-olefin block copolymer comprises domains wherein the domains have a smallest dimension in the range of from about 40 nm to about 300 nm.
A method for configuration and/or parameterization of a control device of an automation system which comprises at least one I/O module (260, 270) which is able to communicate with the control device via a transfer medium and which comprises at least one terminal point for connecting a signal line (1; 280); and at least one information carrier (110a, 110b; 261) which contains configuration and/or parameterization information, wherein the information carrier (110a, 110b; 261) is adapted for being read out by a mobile and portable reading device (230; 290); wherein the method comprises the steps of: a) reading out, by a mobile and portable reading device, the configuration and/or parameterization information from the at least one information carrier (261, 271) of the at least one I/O module (260, 270), wherein the configuration and/or parameterization information read out from the at least one information carrier (261, 271) contain addressing information of the I/O module (260, 270); b) reading, into a memory of the control device, the configuration and/or parameterization information stored in the reading device; and c) transmitting addressing information from the control device to the at least one I/O module (260, 270). at least one information carrier (110a, 110b; 261) which contains configuration and/or parameterization information, wherein the information carrier (110a, 110b; 261) is adapted for being read out by a mobile and portable reading device (230; 290); wherein the method comprises the steps of: a) reading out, by a mobile and portable reading device, the configuration and/or parameterization information from the at least one information carrier (261, 271) of the at least one I/O module (260, 270), wherein the configuration and/or parameterization information read out from the at least one information carrier (261, 271) contain addressing information of the I/O module (260, 270); b) reading, into a memory of the control device, the configuration and/or parameterization information stored in the reading device; and c) transmitting addressing information from the control device to the at least one I/O module (260, 270). a) reading out, by a mobile and portable reading device, the configuration and/or parameterization information from the at least one information carrier (261, 271) of the at least one I/O module (260, 270), wherein the configuration and/or parameterization information read out from the at least one information carrier (261, 271) contain addressing information of the I/O module (260, 270); b) reading, into a memory of the control device, the configuration and/or parameterization information stored in the reading device; and c) transmitting addressing information from the control device to the at least one I/O module (260, 270).
A flexible external gear of a strain wave gearing, in which the flexible external gear is flexed in a radial direction by a wave generator to partially mesh with a rigid internal gear, the flexible external gear comprising: a cylindrical body part capable of flexing in the radial direction; a disc-shaped diaphragm extending inwardly or outwardly in the radial direction from a rear end of the cylindrical body part, which represents a diaphragm side; external teeth that are formed on an outer circumferential surface portion at a side of the other end of the cylindrical body part, which represents an open end of the cylindrical body part (11, and are formed at a constant pitch along a circumferential direction of the outer circumferential surface; and grooves formed on an inner circumferential surface of the cylindrical body part at a same pitch as that of the external teeth along a circumferential direction of the inner circumferential surface, wherein each of the grooves has a wave-shaped cross-sectional shape with a groove center line that is a tooth crest center line of each of the external teeth, and the grooves extend from the open end to a position corresponding to an end of the external teeth in a tooth trace direction towards the diaphragm side, and extended groove portions are formed continuously from the position on the inner circumferential surface, in which the extended groove portions are formed until to a middle way toward the diaphragm side so that a depth and a width of the extended groove portions are gradually decreased. a cylindrical body part capable of flexing in the radial direction; a disc-shaped diaphragm extending inwardly or outwardly in the radial direction from a rear end of the cylindrical body part, which represents a diaphragm side; external teeth that are formed on an outer circumferential surface portion at a side of the other end of the cylindrical body part, which represents an open end of the cylindrical body part (11, and are formed at a constant pitch along a circumferential direction of the outer circumferential surface; and grooves formed on an inner circumferential surface of the cylindrical body part at a same pitch as that of the external teeth along a circumferential direction of the inner circumferential surface, wherein each of the grooves has a wave-shaped cross-sectional shape with a groove center line that is a tooth crest center line of each of the external teeth, and the grooves extend from the open end to a position corresponding to an end of the external teeth in a tooth trace direction towards the diaphragm side, and extended groove portions are formed continuously from the position on the inner circumferential surface, in which the extended groove portions are formed until to a middle way toward the diaphragm side so that a depth and a width of the extended groove portions are gradually decreased.
Method for operating a modular multilevel converter which has a plurality of converter branches (1, 2) in each of which series circuits of bridge modules are arranged, the bridge modules each having a bridge circuit in the form of a half-bridge or a full bridge composed of power semiconductors and at least one capacitor which can be switched via the bridge circuit, the method providing an output AC voltage (v ac) with an output frequency at an output side of the converter, characterized in that the desired temporal amplitude profile of the output AC voltage (v ac) of the converter is set by means of two-point control, in which all series-connected bridge modules of a respective converter branch (1,2) are always switched on and switched off again, is synthesized by a modulation AC voltage generated by the bridge modules of one or more converter branches (1, 2) at a modulation frequency which is higher than the output frequency, the modulation AC voltage alternately exceeding and falling below the output AC voltage (v ac) in time with the modulation frequency, and the switching times of the power semiconductors of the bridge modules of a converter branch (1, 2) are controlled by means of an energy controller assigned to each converter branch (1, 2) with the control objective of minimizing the energy variation of the converter branch (1, 2) by generating and controlling a circular current (i cir) in the converter.
Transfer film, comprising a carrier film and a transfer ply which can be detached from the carrier film, wherein the transfer film is provided to transfer the transfer ply to a component, in particular to a three-dimensional component, characterised in that a deep-drawing membrane is arranged between the carrier film and the transfer ply, and the deep-drawing membrane is formed to be stretchable by 200% at a deep-drawing temperature in the range of from 130°C to 160°C.
An electrical center configured to distribute electrical power to an electrical system of a vehicle, said electrical center comprising: a printed circuit board structure having a first printed circuit board section angularly arranged with respect to a second PCB section and having a flexible connection element integrally formed with the first and second PCB sections (22, 24) and forming a printed circuit extending from the first PCB section to the second PCB section; a first plurality of electrical terminals extending perpendicularly from a first major surface of the first PCB section; a second plurality of electrical terminals extending perpendicularly from a second major surface of the second PCB section; and a housing in which the printed circuit board structure is disposed, wherein the first major surface is angularly arranged at about a ninety degree angle relative to the second major surface; wherein a portion of the second plurality of electrical terminals are male blade terminals configured to interface with an electrical connector containing corresponding female terminals, wherein the electrical center further comprises a shroud configured to receive the electrical connector and wherein the shroud defines a plurality of apertures in which the second plurality of electrical terminals are received and through which the second plurality of electrical terminals extend, and wherein the shroud is attached to the housing by a living hinge. a printed circuit board structure having a first printed circuit board section angularly arranged with respect to a second PCB section and having a flexible connection element integrally formed with the first and second PCB sections (22, 24) and forming a printed circuit extending from the first PCB section to the second PCB section; a first plurality of electrical terminals extending perpendicularly from a first major surface of the first PCB section; a second plurality of electrical terminals extending perpendicularly from a second major surface of the second PCB section; and a housing in which the printed circuit board structure is disposed, wherein the first major surface is angularly arranged at about a ninety degree angle relative to the second major surface; wherein a portion of the second plurality of electrical terminals are male blade terminals configured to interface with an electrical connector containing corresponding female terminals, wherein the electrical center further comprises a shroud configured to receive the electrical connector and wherein the shroud defines a plurality of apertures in which the second plurality of electrical terminals are received and through which the second plurality of electrical terminals extend, and wherein the shroud is attached to the housing by a living hinge.
Explosion detection apparatus adapted to be used in a vehicle, comprising a first detection device for detecting an explosion based on electromagnetic waves and generating a first detection result signal, a second detection device for detecting an explosion based on a mechanical quantity and generating a second detection result signal, characterized by an explosion judging means adapted to receive the first detection result signal from the first detection device and the second detection result signal from the second detection device, and further adapted to judge that an explosion has occurred by evaluating both the received first detection result signal and the received second detection result signal. a first detection device for detecting an explosion based on electromagnetic waves and generating a first detection result signal, a second detection device for detecting an explosion based on a mechanical quantity and generating a second detection result signal, characterized by an explosion judging means adapted to receive the first detection result signal from the first detection device and the second detection result signal from the second detection device, and further adapted to judge that an explosion has occurred by evaluating both the received first detection result signal and the received second detection result signal.
A cooling system, comprising: two or more cooling subsystems which are fluidly separate from each other and thermally coupled to each other, wherein each of the two or more cooling subsystems comprises: a first cooling circuit for cooling a set of first heating components; a second cooling circuit for cooling a set of second heating components, wherein the set of second heating components are different from the set of first hearing components; a third cooling circuit for cooling a set of third heating components, wherein the set of third heating components are different from the set of first heating components and the set of second heating components; a fourth cooling circuit for cooling a set of fourth heating components, wherein the set of fourth heating components are different from the set of first heating components, the set of second heating components and the set of third heating components; a pump station unit; and a heat dissipation unit; wherein the first cooling circuit and the fourth cooling circuit are connected in parallel to form a first branch, the second cooling circuit and the third cooling circuit are connected in parallel to form a second branch, and the first branch and the second branch are connected in parallel and are connected with the pump station unit and the heat dissipation unit. a first cooling circuit for cooling a set of first heating components; a second cooling circuit for cooling a set of second heating components, wherein the set of second heating components are different from the set of first hearing components; a third cooling circuit for cooling a set of third heating components, wherein the set of third heating components are different from the set of first heating components and the set of second heating components; a fourth cooling circuit for cooling a set of fourth heating components, wherein the set of fourth heating components are different from the set of first heating components, the set of second heating components and the set of third heating components; a pump station unit; and a heat dissipation unit; wherein the first cooling circuit and the fourth cooling circuit are connected in parallel to form a first branch, the second cooling circuit and the third cooling circuit are connected in parallel to form a second branch, and the first branch and the second branch are connected in parallel and are connected with the pump station unit and the heat dissipation unit.
A cell culture medium comprising 2-deoxyglucose and glucose, wherein 2-deoxyglucose is present at between 0.25 grams per liter and 1 gram per liter, wherein the ratio of 2-deoxyglucose to glucose is equal to or less than 1 to 9, and, wherein the medium is defined.
A hierarchical graphitized carbon foam comprising an interconnected macroporous structure with an ordered mesoporous wall structure, further characterized in that the carbon foam has a surface area higher than 400 m 2 /g.
A system for verifying a sample volume, comprising: a sample reservoir defining an inner volume and configured to receive a volume of bodily fluid, the inner volume containing an additive; a volumetric verification device including a first indicator and a second indicator, the volumetric verification device configured to be removably coupled to the sample reservoir to place the first indicator in a first position along a length of the sample reservoir such that the first indicator is substantially aligned with a surface of the additive and place the second indicator in a second position along the length of the sample reservoir such that the second indicator is substantially aligned with a predetermined fill volume when bodily fluid is transferred to the inner volume; characterized in that the system further comprising: a cradle configured to be removably coupled to the volumetric verification device, the cradle configured to support the volumetric verification device and the sample reservoir when bodily fluid is transferred to the inner volume. a sample reservoir defining an inner volume and configured to receive a volume of bodily fluid, the inner volume containing an additive; a volumetric verification device including a first indicator and a second indicator, the volumetric verification device configured to be removably coupled to the sample reservoir to place the first indicator in a first position along a length of the sample reservoir such that the first indicator is substantially aligned with a surface of the additive and place the second indicator in a second position along the length of the sample reservoir such that the second indicator is substantially aligned with a predetermined fill volume when bodily fluid is transferred to the inner volume; characterized in that the system further comprising: a cradle configured to be removably coupled to the volumetric verification device, the cradle configured to support the volumetric verification device and the sample reservoir when bodily fluid is transferred to the inner volume.
A particulate precursor compound for manufacturing a lithium transition metal oxide powder for use as an active positive electrode material in lithium-ion batteries, the precursor having the general formula Ni x Mn y Co z A a O v w, wherein 0.15<v<0.30, v+w=2, 0.30≤x≤0.75, 0.10≤y≤0.40, 0.10≤z≤0.40, A being a dopant with a≤0.05, and x+y+z+a=1, the precursor consisting of a crystal structure having an XRD pattern with twin peaks at 2θ=38±0.5°, the twin peaks having a left peak having a peak intensity I L and a right peak having a peak intensity I R, and a peak intensity ratio R= I R /I L with R>0.7, and the XRD pattern being free of peaks belonging to either one or both of a spinel and an oxyhydroxide compound.
An autonomous underwater vehicle for recording seismic signals during a marine seismic survey, the AUV comprising: a propulsion system for guiding the AUV to a final target on the ocean bottom; jet pumps connected to corresponding nozzles located on a body of the AUV; and a control device connected to the jet pumps, a seismic sensor configured to record seismic signals, wherein the jet pumps are configured to be actuated by the control device in a given sequence so that a base of the body is anchored into the ocean bottom and/or penetrates into the ocean bottom, and wherein the given sequence comprises a rocking and/or twisting motion of the base. a propulsion system for guiding the AUV to a final target on the ocean bottom; jet pumps connected to corresponding nozzles located on a body of the AUV; and a control device connected to the jet pumps, a seismic sensor configured to record seismic signals, wherein the jet pumps are configured to be actuated by the control device in a given sequence so that a base of the body is anchored into the ocean bottom and/or penetrates into the ocean bottom, and wherein the given sequence comprises a rocking and/or twisting motion of the base.