mhurhangee/ep-ind-claims huggingface dataset:
A distribution system with an electronic fuse terminal (SK 1) and at least one first series terminal (RK 1), • wherein the electronic fuse terminal (SK 1) and the at least one first series terminal (RK 1) are arranged immediately adjacent to one another on a mounting rail, and wherein the electronic fuse terminal (SK 1) and the at least one first series terminal (RK 1) each have at least one adjacent bridging slot, • wherein the electronic fuse terminal (SK 1) can be supplied with unprotected input voltage, with the electronic fuse terminal (SK 1) making at least one protected first output potential (OUTs) available, • characterized in that the protected first output potential (OUTs) is forwarded to the first series terminal (RK 1) by means of a first bridging plug (BS 1) to the first series terminal (RK 1) within a first bridging plane, • whereby the system further at a second bridging slot within a second bridging plane also makes a second protected output potential (GND, IN) available, that is different from the first output potential (OUTs), • whereby the unprotected input voltage may be directly connected towards a second electronic fuse terminal (SK 1). • wherein the electronic fuse terminal (SK 1) and the at least one first series terminal (RK 1) are arranged immediately adjacent to one another on a mounting rail, and wherein the electronic fuse terminal (SK 1) and the at least one first series terminal (RK 1) each have at least one adjacent bridging slot, • wherein the electronic fuse terminal (SK 1) can be supplied with unprotected input voltage, with the electronic fuse terminal (SK 1) making at least one protected first output potential (OUTs) available, • characterized in that the protected first output potential (OUTs) is forwarded to the first series terminal (RK 1) by means of a first bridging plug (BS 1) to the first series terminal (RK 1) within a first bridging plane, • whereby the system further at a second bridging slot within a second bridging plane also makes a second protected output potential (GND, IN) available, that is different from the first output potential (OUTs), • whereby the unprotected input voltage may be directly connected towards a second electronic fuse terminal (SK 1).
A urea phosphate calcium sulfate (UPCS) fertilizer granule comprising urea phosphate and a urea-calcium sulfate adduct, wherein the granule comprises 22 wt.% to 28 wt.% nitrogen (22 wt.% to 28 wt.% N), an amount of phosphorus equal to that provided by 5 wt.% to 10 wt.% P 2 O 5 (5 wt.% to 10 wt.% P), 2 wt.% to 8 wt.% sulfur (2 wt.% to 8 wt.% S), and 5 wt.% to 11 wt.% calcium (5 wt.% to 11 wt.% Ca).
Element, in particular a sewer pipe section for constructing a sewer, comprising - a first end region having an end side and at least one second end region having an end side for connecting at least one further element; - a lower region that forms a bearing side, and an upper region that faces away from the bearing side; - a continuous opening between the first end side and the second end side; - at least one first and one second connection means (2, 3) of a device for the guided joining of one further element to the element; - wherein the first connection means is fastened or fastenable to the element by way of a fastening means; - wherein the first connection means has a guide element having at least one guiding face which in the intended use of the element is inclined in relation to a horizontal plane, - and interacts with an engagement element of the second connection means of the further element in such a manner that lowering of the further element onto the first element causes a contraction of the neighbouring elements (10, 10') in the joining direction; - and wherein the first connection means has a lateral guide for delimiting the relative movement transversely to the joining direction of the elements (10, 10') between the connection means (2, 3), characterized in that the lateral guide has a conical guiding region, and in that each of the two connection means (2, 3) at the end regions of neighbouring elements (10, 10') in the upper region is fastenable or fastened by way of a fastening means (25, 26). - a first end region having an end side and at least one second end region having an end side for connecting at least one further element; - a lower region that forms a bearing side, and an upper region that faces away from the bearing side; - a continuous opening between the first end side and the second end side; - at least one first and one second connection means (2, 3) of a device for the guided joining of one further element to the element; - wherein the first connection means is fastened or fastenable to the element by way of a fastening means; - wherein the first connection means has a guide element having at least one guiding face which in the intended use of the element is inclined in relation to a horizontal plane, - and interacts with an engagement element of the second connection means of the further element in such a manner that lowering of the further element onto the first element causes a contraction of the neighbouring elements (10, 10') in the joining direction; - and wherein the first connection means has a lateral guide for delimiting the relative movement transversely to the joining direction of the elements (10, 10') between the connection means (2, 3),
A withdrawal system for withdrawing particulate matter from a high-temperature industrial process or for withdrawing material from a cryogenic process, said withdrawal system comprising: (a) a heat exchanger comprising an inlet end and an outlet end; (b) a first collection vessel and a second collection vessel; and (c) a conduit from the outlet end of the heat exchanger to the first collection vessel and the second collection vessel; and wherein the conduit comprises a first valve that controls flow of particulate material into the first collection vessel and a second valve that controls flow of particulate material into the second collection vessel; and when the first valve is open allowing flow of particulate material into the first collection vessel, the second valve is closed; and when the second valve is open allowing flow of particulate material into the second collection vessel, the first valve is closed, wherein the heat exchanger comprises: (i) a first pipe comprising a particulate material inlet and a particulate material outlet, wherein the first pipe is contained within a housing having a cooling fluid inlet and a cooling fluid outlet; or (ii) a structure comprising a rectangular frame; piping that is supported by the rectangular frame and completes at least one circumference around the rectangular frame, wherein the piping is supported to the frame on a series of moving supports, and the piping comprises a piping inlet end and a piping outlet end, and the piping contains external cooling fins; and one or more fans, wherein the structure is sealed except for where the piping is located. (a) a heat exchanger comprising an inlet end and an outlet end; (b) a first collection vessel and a second collection vessel; and (c) a conduit from the outlet end of the heat exchanger to the first collection vessel and the second collection vessel; and (i) a first pipe comprising a particulate material inlet and a particulate material outlet, wherein the first pipe is contained within a housing having a cooling fluid inlet and a cooling fluid outlet; or (ii) a structure comprising a rectangular frame; piping that is supported by the rectangular frame and completes at least one circumference around the rectangular frame, wherein the piping is supported to the frame on a series of moving supports, and the piping comprises a piping inlet end and a piping outlet end, and the piping contains external cooling fins; and one or more fans, wherein the structure is sealed except for where the piping is located.
A secondary battery pack comprising: a battery cell having an electrode assembly mounted in a battery case together with an electrolyte, the battery case having an open top sealed by a top cap; a protection circuit module having a protection circuit for controlling overcharge, overdischarge, and overcurrent of the battery cell; an insulative mounting member constructed in a structure in which the protection circuit module is loaded at a top of the insulative mounting member, the insulative mounting member being mounted to the top cap of the battery cell; and an insulative cap coupled to an upper end of the battery cell for covering the insulative mounting member in a state in which the protection circuit module is loaded on the insulative mounting member, wherein the top cap is provided with at least one protrusion-type electrode terminal (112, 114), and the top cap is provided with a depression space, that is a space depressed downward by a predetermined depth for allowing elements loaded on a bottom of the protection circuit module to be received therein or a positive temperature coefficient element to be mounted therein. a battery cell having an electrode assembly mounted in a battery case together with an electrolyte, the battery case having an open top sealed by a top cap; a protection circuit module having a protection circuit for controlling overcharge, overdischarge, and overcurrent of the battery cell; an insulative mounting member constructed in a structure in which the protection circuit module is loaded at a top of the insulative mounting member, the insulative mounting member being mounted to the top cap of the battery cell; and an insulative cap coupled to an upper end of the battery cell for covering the insulative mounting member in a state in which the protection circuit module is loaded on the insulative mounting member, wherein the top cap is provided with at least one protrusion-type electrode terminal (112, 114), and the top cap is provided with a depression space, that is a space depressed downward by a predetermined depth for allowing elements loaded on a bottom of the protection circuit module to be received therein or a positive temperature coefficient element to be mounted therein.
A method by a user equipment, UE, (102, 402) comprising: receiving repeated Physical Downlink Shared Channel, PDSCH, transmissions; determining a repetition level; determining an initialization value for a scrambling sequence generator based on the repetition level, and based on a Radio Network Temporary Identifier, RNTI, associated with the PDSCH transmissions; generating the scrambling sequence by initializing the scrambling sequence generator with use of the initialization value; and decoding a codeword of the repeated PDSCH transmissions based on the scrambling sequence, wherein the repetition level is associated with the repeated PDSCH transmissions and determined by a Radio Resource Control, RRC, configuration. receiving repeated Physical Downlink Shared Channel, PDSCH, transmissions; determining a repetition level; determining an initialization value for a scrambling sequence generator based on the repetition level, and based on a Radio Network Temporary Identifier, RNTI, associated with the PDSCH transmissions; generating the scrambling sequence by initializing the scrambling sequence generator with use of the initialization value; and decoding a codeword of the repeated PDSCH transmissions based on the scrambling sequence, wherein the repetition level is associated with the repeated PDSCH transmissions and determined by a Radio Resource Control, RRC, configuration.
A fault tolerant system, comprising: a primary virtual machine that is formed on a primary machine in which a primary hypervisor runs, and is configured to input virtual interrupt based on an external interrupt from the primary hypervisor to a primary guest OS; and a secondary virtual machine that is formed on a secondary machine in which a secondary hypervisor runs, and is configured to input the virtual interrupt to a secondary guest OS on the basis of timing information on the virtual interrupt transmitted from the primary virtual machine, wherein the primary virtual machine is configured to transmit the timing information on the virtual interrupt to the secondary virtual machine, the timing information including the number of branch instructions executed by the primary guest OS before inputting the virtual interrupt, which is the number of times an execution order is changed from a sequential execution, and including an execution suspension position when inputting the virtual interrupt. a primary virtual machine that is formed on a primary machine in which a primary hypervisor runs, and is configured to input virtual interrupt based on an external interrupt from the primary hypervisor to a primary guest OS; and a secondary virtual machine that is formed on a secondary machine in which a secondary hypervisor runs, and is configured to input the virtual interrupt to a secondary guest OS on the basis of timing information on the virtual interrupt transmitted from the primary virtual machine, wherein the primary virtual machine is configured to transmit the timing information on the virtual interrupt to the secondary virtual machine, the timing information including the number of branch instructions executed by the primary guest OS before inputting the virtual interrupt, which is the number of times an execution order is changed from a sequential execution, and including an execution suspension position when inputting the virtual interrupt.
A plastics material container with an aperture area, a shoulder area adjoining the aperture area in a longitudinal direction of the plastics material container, a main body adjoining this shoulder area in the longitudinal direction of the plastics material container and a base area adjoining the main body in the longitudinal direction of the plastics material container, wherein the shoulder area is widened in the longitudinal direction of the plastics material container from the aperture area in the direction of the main body, and wherein a transition area is provided between the aperture area and the shoulder area, wherein the transition area has a portion widening in the longitudinal direction of the plastics material container from the aperture in the direction of the shoulder area and having a straight course, wherein the transition area comprises in addition to the portion with the straight course a further portion adjoining the portion, starting from the aperture area in the direction of the main body, characterized in that the portion has a concave curved course, wherein said curved portion adjoins the widening section tangentially.
System for analysing the cardiac activity of a patient comprising means for acquiring at least one cardiac electric signal comprising at least one elementary signal corresponding to a heart beat, and means for extracting from said elementary signal at least one elementary wave P, Q, R, S or T, the elementary wave being of the form x ( t) = x 0 + x 1 cos(Φ( t)), wherein Φ( t) is the phase of said elementary wave (P, Q, R, S, T), characterised in that said system comprises: - means for analysing said elementary wave P, Q, R, S or T in order to characterise said elementary wave with a reduced number of parameters, by expressing the time t as a function of the phase Φ of said elementary wave according the following analytical expression: t Φ = Φ + ∑ k = 1 n a k p sin 1 Φ − p k, r k − b k p cos 1 Φ − p k, r k, expression wherein: p cos 1 u v = − 1 2 ln 1 + v 2 − 2 v cos u p sin 1 u v = tan − 1 v sin u 1 − v cos u, a k and b k are weights, parameters r k, comprised between 0 et 1, measure the anharmonicity of said elementary wave, and parameters p k characterise the morphology of said elementary wave; and, - means for comparing the parameters determined for said elementary wave at the output of the means for analysing, with tabulated values of these parameters previously recorded, in order to detect particular cardiac anomalies. - means for analysing said elementary wave P, Q, R, S or T in order to characterise said elementary wave with a reduced number of parameters, by expressing the time t as a function of the phase Φ of said elementary wave according the following analytical expression: t Φ = Φ + ∑ k = 1 n a k p sin 1 Φ − p k, r k − b k p cos 1 Φ − p k, r k, expression wherein: p cos 1 u v = − 1 2 ln 1 + v 2 − 2 v cos u p sin 1 u v = tan − 1 v sin u 1 − v cos u, a k and b k are weights, parameters r k, comprised between 0 et 1, measure the anharmonicity of said elementary wave, and parameters p k characterise the morphology of said elementary wave; and, - means for comparing the parameters determined for said elementary wave at the output of the means for analysing, with tabulated values of these parameters previously recorded, in order to detect particular cardiac anomalies.
Dispersant for inorganic particles, preferably for inorganic binders, more preferably for hydraulic binders, said dispersant comprising the following structural units i) at least one triazine structural unit, preferably at least one 1,3,5-triazine structural unit, the case of more than one triazine structural unit being referred to as case A and the case of one triazine structural unit being referred to as case B, and in case A preferably 2 to 6, more preferably 2 to 4 and especially preferably 2 triazine structural units being present, ii) at least one polyalkylene glycol structural unit, preferably one to 4 and more preferably one or two polyalkylene glycol structural units, especially preferably one polyalkylene glycol structural unit, iii) and at least two phosphoric ester structural units, preferably 2 to 10, more preferably 2 to 6 and especially preferably 2 to 4 phosphoric ester structural units being present, characterized in that, in case A, at least one of the triazine structural units on at least one carbon atom of one or more aromatic triazine rings, preferably on one or two carbon atoms of one or more aromatic triazine rings, is independently substituted by a substituent selected from the general formulae (IIa) and/or (IIb), or, in case B, the triazine structural unit on at least one carbon atom of the aromatic triazine ring, preferably on one or two of the carbon atoms of the aromatic triazine ring, is independently substituted by a substituent selected from the general formulae (IIa) and/or (IIb), where, in cases A and B, the general formulae in each case are (IIa) -N-(CH 2 CH 2 -O-PO 3 H 2) 2 and (IIb) -NH-CH 2 CH 2 -O-PO 3 H 2. i) at least one triazine structural unit, preferably at least one 1,3,5-triazine structural unit, the case of more than one triazine structural unit being referred to as case A and the case of one triazine structural unit being referred to as case B, and in case A preferably 2 to 6, more preferably 2 to 4 and especially preferably 2 triazine structural units being present, ii) at least one polyalkylene glycol structural unit, preferably one to 4 and more preferably one or two polyalkylene glycol structural units, especially preferably one polyalkylene glycol structural unit, iii) and at least two phosphoric ester structural units, preferably 2 to 10, more preferably 2 to 6 and especially preferably 2 to 4 phosphoric ester structural units being present, characterized in that, in case A, at least one of the triazine structural units on at least one carbon atom of one or more aromatic triazine rings, preferably on one or two carbon atoms of one or more aromatic triazine rings, is independently substituted by a substituent selected from the general formulae (IIa) and/or (IIb), or, in case B, the triazine structural unit on at least one carbon atom of the aromatic triazine ring, preferably on one or two of the carbon atoms of the aromatic triazine ring, is independently substituted by a substituent selected from the general formulae (IIa) and/or (IIb), where, in cases A and B, the general formulae in each case are (IIa) -N-(CH 2 CH 2 -O-PO 3 H 2) 2 and (IIb) -NH-CH 2 CH 2 -O-PO 3 H 2.
A method for determining a networking mode supported by a cell, performed by a network device and characterized by comprising: when receiving SIB 1-related information sent by a terminal device, sending a connection setup request to a target cell; and when connection setup of the network device and the target cell fails, determining that the target cell supports standalone networking only; or receiving, from the target cell, a first message responding to the connection setup request, wherein the first message comprises second indication information, and the second indication information is used to indicate a networking mode supported by the target cell; and determining, according to the second indication information, the networking mode supported by the target cell. when receiving SIB 1-related information sent by a terminal device, sending a connection setup request to a target cell; and when connection setup of the network device and the target cell fails, determining that the target cell supports standalone networking only; or receiving, from the target cell, a first message responding to the connection setup request, wherein the first message comprises second indication information, and the second indication information is used to indicate a networking mode supported by the target cell; and determining, according to the second indication information, the networking mode supported by the target cell.