mhurhangee/ep-ind-claims huggingface dataset:
An electric vehicle, especially an electric car with (a) a first axle, (b) a second axle, (c) an electric motor for driving at least one of the axles, and (d) a battery for supplying the electric motor with electrical energy, (e) wherein the electric motor is composed of a first electric motor module (38.1) and at least a second electric motor module (38.2, 38.3), (f) wherein the electric motor modules (38.1, 38.2, 38.3) are arranged one behind the other in relation to a motor rotational axis (D 18), and have a common rotor shaft or coupled rotor shafts, and (g) wherein the first electric motor module (38.1) and the second electric motor module (38.2) are connected to one another via a plug connection which has - at least one cooling medium connection for cooling medium, and - at least one power connection for power current, characterised in that (h) the plug connection comprises (i) a first axial plug connector and (ii) a second axial plug connector, and (iii) the first axial plug connector is arranged laterally on a first side adjacent to the rotor shaft and the second axial plug connector is arranged laterally on a second side opposite the first side adjacent to the rotor shaft. (a) a first axle, (b) a second axle, (c) an electric motor for driving at least one of the axles, and (d) a battery for supplying the electric motor with electrical energy, (e) wherein the electric motor is composed of a first electric motor module (38.1) and at least a second electric motor module (38.2, 38.3), (f) wherein the electric motor modules (38.1, 38.2, 38.3) are arranged one behind the other in relation to a motor rotational axis (D 18), and have a common rotor shaft or coupled rotor shafts, and (g) wherein the first electric motor module (38.1) and the second electric motor module (38.2) are connected to one another via a plug connection which has - at least one cooling medium connection for cooling medium, and - at least one power connection for power current, characterised in that - at least one cooling medium connection for cooling medium, and - at least one power connection for power current, (h) the plug connection comprises (i) a first axial plug connector and (ii) a second axial plug connector, and (iii) the first axial plug connector is arranged laterally on a first side adjacent to the rotor shaft and the second axial plug connector is arranged laterally on a second side opposite the first side adjacent to the rotor shaft. (i) a first axial plug connector and (ii) a second axial plug connector, and (iii) the first axial plug connector is arranged laterally on a first side adjacent to the rotor shaft and the second axial plug connector is arranged laterally on a second side opposite the first side adjacent to the rotor shaft.
A chocolate or compound chocolate product comprising added functional ingredients including vitamin C, vitamin E, zinc, copper and, optionally, a xanthophyll, the chocolate or chocolate compound product having a casing and a filling wherein at least the vitamin C, the vitamin E and the xanthophyll are comprised in the filling and wherein one or both of the zinc and the copper are present in the casing, and the ingredients are essentially chemically stable and do not produce a textural or taste effect detectable by a typical consumer during the shelf life of the chocolate or compound chocolate product, provided that the concentration of the added vitamin C does not exceed about 75 mg/g, that of the added vitamin E about 45 mg/g, that of the added zinc about 3 mg/g, that of the added copper about 0.4 mg/g and that of the added xanthophyll about 2.6 mg/g of the chocolate or compound chocolate product.
A system configurable to operate in at least two modes comprising a first mode and a second mode, the system comprising: an inlet providing fresh air; an inlet providing air from a pressurized volume; a compressing device comprising a compressor, a turbine, and a second turbine, wherein the compressing device is in communication with the inlet providing the fresh air and the second turbine is in communication with the inlet providing the air from a pressurized volume, and wherein the turbine is downstream of the compressor; and at least one heat exchanger located downstream of the compressor, wherein an outlet of the at least one heat exchanger is in fluid communication with an inlet of the compressor and an inlet of the turbine, wherein, in the first mode, the fresh air is mixed with the air from a pressurized volume at a first mixing point; and wherein, in the second mode, the fresh air is mixed with the air from a pressurized volume at a second mixing point. an inlet providing fresh air; an inlet providing air from a pressurized volume; a compressing device comprising a compressor, a turbine, and a second turbine, wherein the compressing device is in communication with the inlet providing the fresh air and the second turbine is in communication with the inlet providing the air from a pressurized volume, and wherein the turbine is downstream of the compressor; and at least one heat exchanger located downstream of the compressor, wherein an outlet of the at least one heat exchanger is in fluid communication with an inlet of the compressor and an inlet of the turbine, wherein, in the first mode, the fresh air is mixed with the air from a pressurized volume at a first mixing point; and wherein, in the second mode, the fresh air is mixed with the air from a pressurized volume at a second mixing point.
A vinyl chloride-based resin composition for transparent products, which is characterized by comprising 0.01 to 0.3 parts by mass of (a) zinc acetylacetonate, 0.1 to 10 parts by mass of (b) a zinc-modified hydrotalcite and 0.1 to 10 parts by mass of (c) an ultraviolet absorber, with respect to 100 parts by mass of a vinyl chloride-based resin.
A provisioning device for communicating information to a wireless device, the provisioning device comprising: a wireless interface (8, 9) for transmitting data packets; a provisioning unit configured for obtaining the information in an encoded form in the provisioning device and for controlling the wireless interface (8, 9) to transmit via the wireless interface (8, 9) a sequence of data packets in accordance with a pattern generated based on the information, the pattern comprising elements representing the information, each element corresponding to a predetermined time distance between consecutive data packets, wherein the data packets have an equal predefined length which is smaller than a maximum length supported by the wireless interface (8, 9). a wireless interface (8, 9) for transmitting data packets; a provisioning unit configured for obtaining the information in an encoded form in the provisioning device and for controlling the wireless interface (8, 9) to transmit via the wireless interface (8, 9) a sequence of data packets in accordance with a pattern generated based on the information, the pattern comprising elements representing the information, each element corresponding to a predetermined time distance between consecutive data packets, wherein the data packets have an equal predefined length which is smaller than a maximum length supported by the wireless interface (8, 9).
An automated network congestion and trouble locating method for use in a network, the method comprising: receiving an event notification from a device in a network, the event notification indicative of a problem in the network; querying a network flow information database storing network flow information about the network; receiving the queried network flow information; processing the received network flow information and identifying a congested link in the network; and characterised in that the method further comprises: in response to identifying the congested link, examining the received network flow information and a previously determined topology mapping of the network, automatically identifying a host causing the problem in the network, and automatically initiating an action to be performed to correct the problem, the action comprising restricting operation of the identified host within the network. receiving an event notification from a device in a network, the event notification indicative of a problem in the network; querying a network flow information database storing network flow information about the network; receiving the queried network flow information; processing the received network flow information and identifying a congested link in the network; and characterised in that the method further comprises: in response to identifying the congested link, examining the received network flow information and a previously determined topology mapping of the network, automatically identifying a host causing the problem in the network, and automatically initiating an action to be performed to correct the problem, the action comprising restricting operation of the identified host within the network. in response to identifying the congested link, examining the received network flow information and a previously determined topology mapping of the network, automatically identifying a host causing the problem in the network, and automatically initiating an action to be performed to correct the problem, the action comprising restricting operation of the identified host within the network.
A carrier substrate for electrical components, wherein the carrier substrate has a primary layer made of ceramic and at least one metal layer (2, 15, 30) bonded to the primary layer, wherein the at least one metal layer (2, 15, 30) has at least one void on the side facing the primary layer, wherein the metal layer (2, 15, 30) has a first subregion and a second subregion in the central region, characterized in that the number and/or the size of the voids in the first subregion differs from the number and/or the size of the voids in the second subregion, wherein the average number and/or the average depth of the void changes continuously over the metal layer in relation to surface sections or per subregion of the metal layer.
An air bag fabric comprising a warp and a weft both of polyamide multifilaments with a total fineness of 200 to 700 dtex and a single fiber fineness of 1.2 to 1.8 dtex and having a cover factor measured according to the description of 1,800 to 2,300 wherein the ratio ECw/Mtw between the edgecomb resistance. ECw, and the single fiber fineness, Mtw, in the warp direction, and the ratio ECf/Mtf between the edgecomb resistance, ECf, and the single fiber fineness, Mtf, in the weft direction are both in the range of 280 to 950 N/dtex, wherein the edgecomb resistance is measured according to ASTM D6479-02.
A capacitive contactless powering system, comprising: a pair of receiver electrodes (141, 142) connected to a load through a first inductor, wherein the first inductor is coupled to the load to resonate the system; a pair of transmitter electrodes (121, 122) connected to a driver; and an insulating layer having a first side and a second side opposite each other, wherein the pair of transmitter electrodes (121, 122) is coupled to the first side of the insulating layer and the pair of receiver electrodes (141, 142) is decoupled from the second side of the insulating layer, such that a capacitive impedance is formed between the pair of transmitter electrodes (121, 122) and the pair of receiver electrodes (141, 142), wherein the driver is configured to generate a power signal and wirelessly transfer said power signal from the pair of transmitter electrodes (121, 122) to the pair of receiver electrodes (141, 142) to power the load when a frequency of the power signal matches a series-resonance frequency of the first inductor and the capacitive impedance; characterized in that the system comprises a location indicator for providing an indication when power above a predefined threshold is transferred from the driver to the load to thereby determine the correct placement of the receiver electrodes (141, 142) with respect to the transmitter electrodes (121, 122) such as to tune the system to resonate at the series-resonance frequency by changing a position of the receiver electrodes relative to the transmitter electrodes. a pair of receiver electrodes (141, 142) connected to a load through a first inductor, wherein the first inductor is coupled to the load to resonate the system; a pair of transmitter electrodes (121, 122) connected to a driver; and an insulating layer having a first side and a second side opposite each other, wherein the pair of transmitter electrodes (121, 122) is coupled to the first side of the insulating layer and the pair of receiver electrodes (141, 142) is decoupled from the second side of the insulating layer, such that a capacitive impedance is formed between the pair of transmitter electrodes (121, 122) and the pair of receiver electrodes (141, 142), wherein the driver is configured to generate a power signal and wirelessly transfer said power signal from the pair of transmitter electrodes (121, 122) to the pair of receiver electrodes (141, 142) to power the load when a frequency of the power signal matches a series-resonance frequency of the first inductor and the capacitive impedance; characterized in that the system comprises a location indicator for providing an indication when power above a predefined threshold is transferred from the driver to the load to thereby determine the correct placement of the receiver electrodes (141, 142) with respect to the transmitter electrodes (121, 122) such as to tune the system to resonate at the series-resonance frequency by changing a position of the receiver electrodes relative to the transmitter electrodes.
A method for the continuous characterization and quantification of C1-C120 hydrocarbons present in a single sample taken from a sedimentary basin, said method comprising pyrolysis under a non-oxidizing atmosphere of the sample, the entrainment of the gaseous pyrolysis effluents by means of an inert gas stream and then the analysis of said effluents in order to obtain their profiles as a function of the pyrolysis temperature, characterized in that said profiles are deconvolved into sub-areas corresponding to each class of isomer via a reference chart established via the equation below for each of said classes and obtained using the empirical Antoine equation derived from the integration of the Clausius-Clapeyron physical law for an assumed constant enthalpy of vaporization; m i = D v × M i × t / R × T × 10 A − B / T + C with: m i (kg): mass of the hydrocarbon considered D v (m 3.s -1): volume flow rate of the carrier gas M i (kg.mol -1): molar mass of the hydrocarbon considered T: temperature t (s): time R (J.mol -1.K -1): ideal gas constant A (Pa), B (-) and C: parameters of the Antoine equation P i (Pa): partial pressure m i (kg): mass of the hydrocarbon considered D v (m 3.s -1): volume flow rate of the carrier gas M i (kg.mol -1): molar mass of the hydrocarbon considered T: temperature t (s): time R (J.mol -1.K -1): ideal gas constant A (Pa), B (-) and C: parameters of the Antoine equation P i (Pa): partial pressure
A printing apparatus comprising a printing table and a loader to load sheets of print media to the printing table, and further comprising a moveable tray (40, 40', 40") on which at least one row of media sheets can be placed, said tray being moveable between a position in which it is accessible to an operator for placing media sheets thereon and another position in which at least part of the tray (40, 40', 40") is accessible to the loader for picking the print media sheets but inaccessible to the operator, characterized in that the loader comprises two sets of cups (21 a-21 b, 22a-22b), each with two rows of cups, to pick up, transport and release two rows of sheets of print media.
A material collecting equipment comprising: an implement compartment having a work implement disposed therein and having a receiving portion; a handle having a first end coupled to a top surface of the implement compartment and a second end located distally away from the first end; and a collection basket disposed below the handle, the collection basket having a pair of side walls (114, 116) disposed sidewardly at a distance to the mid-plane of the collection basket, the collection basket having a cross-member transverse to the mid-plane and extending between the pair of side walls (114, 116), wherein the collection basket has a fore portion engaging with the receiving portion; the cross-member is located on the collection basket between the fore portion and an end of the collection basket opposite to the fore portion; characterized in that: one of the handle and the cross-member is provided with a hook member extending therefrom such that the hook member is adapted to releasably engage other one of the cross-member and the handle, wherein the collection basket is releasably secured to the handle via the hook member. an implement compartment having a work implement disposed therein and having a receiving portion; a handle having a first end coupled to a top surface of the implement compartment and a second end located distally away from the first end; and a collection basket disposed below the handle, the collection basket having a pair of side walls (114, 116) disposed sidewardly at a distance to the mid-plane of the collection basket, the collection basket having a cross-member transverse to the mid-plane and extending between the pair of side walls (114, 116), wherein the collection basket has a fore portion engaging with the receiving portion; the cross-member is located on the collection basket between the fore portion and an end of the collection basket opposite to the fore portion; characterized in that: one of the handle and the cross-member is provided with a hook member extending therefrom such that the hook member is adapted to releasably engage other one of the cross-member and the handle, wherein the collection basket is releasably secured to the handle via the hook member. one of the handle and the cross-member is provided with a hook member extending therefrom such that the hook member is adapted to releasably engage other one of the cross-member and the handle, wherein the collection basket is releasably secured to the handle via the hook member.
A battery cell, comprising: a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof by heat fusion; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case via the sealing portion; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead, wherein the lead film has a dented portion recessed toward an inside of the battery case, and the dented portion is opened toward an outside of the battery case, wherein the lead film surrounds a rear surface of the dented portion and an upper surface of the dented portion based on the protruding direction of the electrode lead. a battery case having an accommodation portion in which an electrode assembly is mounted, and a sealing portion formed by sealing an outer periphery thereof by heat fusion; an electrode lead electrically connected to an electrode tab included in the electrode assembly and protruding out of the battery case via the sealing portion; and a lead film located at a portion corresponding to the sealing portion in at least one of an upper portion and a lower portion of the electrode lead, wherein the lead film has a dented portion recessed toward an inside of the battery case, and the dented portion is opened toward an outside of the battery case, wherein the lead film surrounds a rear surface of the dented portion and an upper surface of the dented portion based on the protruding direction of the electrode lead.
Method for backing up data in a peer-to-peer network, this method comprising the following steps: a) a client node of the peer-to-peer network executing backup software in order to generate a backup file from which the backed-up data are able to be restored, b) dividing the generated backup file into a plurality of data blocks, and c) saving the data blocks in the memory of various backup nodes of the peer-to-peer network, characterized in that the data are premium data benefiting from a guaranteed quality of service, this quality of service corresponding to a predetermined volume of premium data able to be restored from the peer-to-peer network within a predetermined maximum restoration period, this method comprising, for this purpose: - a client node of the peer-to-peer network downloading a set of one or more premium blocks from a backup node and, at the same time, measuring the actually available uplink bandwidth of the backup node during this download, each premium block being a data block generated by dividing the backup file in step b) when the backed-up data are premium data, - computing a maximum volume of premium blocks able to be saved in the memory of this backup node on the basis of the actually available uplink bandwidth measured for this backup node and of a minimum uplink bandwidth necessary to allow the restoration of the predetermined volume of premium data within the maximum restoration period, and - when the premium blocks are saved in a backup node, the method prohibits a premium block from being saved in this backup node if this leads to the maximum volume of premium blocks able to be saved in this backup node being exceeded. a) a client node of the peer-to-peer network executing backup software in order to generate a backup file from which the backed-up data are able to be restored, b) dividing the generated backup file into a plurality of data blocks, and c) saving the data blocks in the memory of various backup nodes of the peer-to-peer network, - a client node of the peer-to-peer network downloading a set of one or more premium blocks from a backup node and, at the same time, measuring the actually available uplink bandwidth of the backup node during this download, each premium block being a data block generated by dividing the backup file in step b) when the backed-up data are premium data, - computing a maximum volume of premium blocks able to be saved in the memory of this backup node on the basis of the actually available uplink bandwidth measured for this backup node and of a minimum uplink bandwidth necessary to allow the restoration of the predetermined volume of premium data within the maximum restoration period, and - when the premium blocks are saved in a backup node, the method prohibits a premium block from being saved in this backup node if this leads to the maximum volume of premium blocks able to be saved in this backup node being exceeded.
An electrode for a lithium-ion battery comprising an active layer comprising an electrode active material; a conductive additive; and a linear styrene-ethylene/butylene-styrene (SEBS) copolymer as a binder which is characterized by having: - a melt flow rate measured at 230 °C and 2.16 kg load from 4 to 220 g/10 min; - a molecular weight of less than 100,000 g/mol, particularly from 50,000 g/mol to 100,000 g/mol and; - a styrene content from 10 to 20 wt. %. - a melt flow rate measured at 230 °C and 2.16 kg load from 4 to 220 g/10 min; - a molecular weight of less than 100,000 g/mol, particularly from 50,000 g/mol to 100,000 g/mol and; - a styrene content from 10 to 20 wt. %.