mhurhangee/ep-ind-claims huggingface dataset:
A method of detecting electric variables of a three-phase AC network having a first, a second and a third phase, including the steps: - measuring a respective voltage value u 1, u 2, u 3 of the first, second and third phases (L1, L2, L3) in relation to a neutral conductor at a first moment in time (t 1), - transforming the three voltage values u 1, u 2, u 3 of the first moment in time (t 1) into polar co-ordinates with a voltage amplitude (U N) and a phase angle (φ N) so that transformation of the voltage values (u 1, u 2, u 3) measured at the first moment in time in polar co-ordinates (U N, φ N) into a complex-value variable is effected in accordance with the equation: u → = u 1 + u 2 exp j 2 3 π + u 3 exp j 4 3 π so that an amount and a phase angle correspondingly occur in that case, - repeating measurement and transformation for at least one further moment in time, and - determining the currently prevailing frequency from the voltage values transformed into polar co-ordinates (U N, φ N) wherein a frequency regulation which regulates out a first auxiliary frequency (dφ A /dt) is used for detection of the frequency, wherein the first auxiliary frequency (dφ A /dt) is used as an estimate of the frequency and output, and wherein a first difference angle is formed for frequency regulation between - the phase angle (φ N) formed in the transformation operation, and - a first auxiliary phase angle (φ A) which is back by a sampling time, said first difference angle is multiplied by a first amplification factor (P 11) and/or added to an initial frequency value (ω 0) to obtain the first auxiliary frequency (dφ A /dt), and the first auxiliary phase angle (φ A) is determined from the first auxiliary frequency (dφ A /dt). - measuring a respective voltage value u 1, u 2, u 3 of the first, second and third phases (L1, L2, L3) in relation to a neutral conductor at a first moment in time (t 1), - transforming the three voltage values u 1, u 2, u 3 of the first moment in time (t 1) into polar co-ordinates with a voltage amplitude (U N) and a phase angle (φ N) so that transformation of the voltage values (u 1, u 2, u 3) measured at the first moment in time in polar co-ordinates (U N, φ N) into a complex-value variable is effected in accordance with the equation: u → = u 1 + u 2 exp j 2 3 π + u 3 exp j 4 3 π so that an amount and a phase angle correspondingly occur in that case, - repeating measurement and transformation for at least one further moment in time, and - determining the currently prevailing frequency from the voltage values transformed into polar co-ordinates (U N, φ N) wherein a frequency regulation which regulates out a first auxiliary frequency (dφ A /dt) is used for detection of the frequency, wherein the first auxiliary frequency (dφ A /dt) is used as an estimate of the frequency and output, and wherein a first difference angle is formed for frequency regulation between - the phase angle (φ N) formed in the transformation operation, and - a first auxiliary phase angle (φ A) which is back by a sampling time,
A clutch assembly comprising: a clutch hub; a clutch drum disposed about the clutch hub; a first gear connected to the clutch drum, the first gear configured to be coupled with a first shaft; the clutch hub configured to be coupled with a second shaft; a clutch pack disposed between the clutch hub and the clutch drum; an air-actuated piston assembly for selective actuation of the clutch pack to engage the clutch hub and the clutch drum, the piston assembly having a piston housing and a piston disposed within housing, and a plurality of lever arms disposed between the piston assembly and the clutch pack, characterized in that each lever arm is pivotally mounted to the piston assembly to engage the piston and the clutch pack, wherein each lever arm has an outer pivot portion, a toe portion, and a knee portion between the pivot portion and the toe portion, the toe portions engaging the piston and the knee portions engaging the clutch pack, and wherein a fixed frame defines the piston housing and the pivot portion of each lever arm is pivotally mounted to an outer portion of the piston housing. a clutch hub; a clutch drum disposed about the clutch hub; a first gear connected to the clutch drum, the first gear configured to be coupled with a first shaft; the clutch hub configured to be coupled with a second shaft; a clutch pack disposed between the clutch hub and the clutch drum; an air-actuated piston assembly for selective actuation of the clutch pack to engage the clutch hub and the clutch drum, the piston assembly having a piston housing and a piston disposed within housing, and a plurality of lever arms disposed between the piston assembly and the clutch pack, characterized in that each lever arm is pivotally mounted to the piston assembly to engage the piston and the clutch pack, wherein each lever arm has an outer pivot portion, a toe portion, and a knee portion between the pivot portion and the toe portion, the toe portions engaging the piston and the knee portions engaging the clutch pack, and wherein a fixed frame defines the piston housing and the pivot portion of each lever arm is pivotally mounted to an outer portion of the piston housing.
Method of routing by a router of data packets in a packet communication network supported by a transport network, said method comprising a step of determining on the basis of a data packet received by the router a security level and a routing required, characterized in that it furthermore comprises: - in the control plane, a prior step of establishing a table storing, for a routing in the given packet communication network, transport network links (Ifpl-Ifp6) able to ensure said routing and classed by security level; - in the transfer plane, - a step of selecting from the table, on the basis of the security level and of the routing required determined on the basis of the packet, a link of said transport network, - a step of dispatching by the router of the packet on the selected link. - in the control plane, a prior step of establishing a table storing, for a routing in the given packet communication network, transport network links (Ifpl-Ifp6) able to ensure said routing and classed by security level; - in the transfer plane, - a step of selecting from the table, on the basis of the security level and of the routing required determined on the basis of the packet, a link of said transport network, - a step of dispatching by the router of the packet on the selected link. - a step of selecting from the table, on the basis of the security level and of the routing required determined on the basis of the packet, a link of said transport network, - a step of dispatching by the router of the packet on the selected link.
A lighting assembly comprising: an AC-DC module configured to: convert an AC power signal (P AC) to a DC power signal (P DC); receive a DC module feedback signal; change one or more characteristics of the DC power signal based on the DC module feedback signal; and generate an output dimming signal based on a characteristic of the AC power signal and the DC module feedback signal; a lighting module comprising: an LED module comprising a plurality of LEDs; and a DC-DC module configured to: receive the DC power signal (P DC) from the AC-DC module; receive the output dimming signal from the AC-DC module; provide at least one drive signal (I N) based on the output dimming signal to drive the plurality of LEDs of the LED module, wherein the LED module is configured to provide an LED feedback signal (F LED) including information about the operation of the LED module to the DC-DC module, which is further configured to control the at least one drive signal based at least in part on the LED feedback signal; and provide the DC module feedback signal including information about the operation of the DC-DC module to the AC-DC module. convert an AC power signal (P AC) to a DC power signal (P DC); receive a DC module feedback signal; change one or more characteristics of the DC power signal based on the DC module feedback signal; and generate an output dimming signal based on a characteristic of the AC power signal and the DC module feedback signal; an LED module comprising a plurality of LEDs; and a DC-DC module configured to: receive the DC power signal (P DC) from the AC-DC module; receive the output dimming signal from the AC-DC module; provide at least one drive signal (I N) based on the output dimming signal to drive the plurality of LEDs of the LED module, wherein the LED module is configured to provide an LED feedback signal (F LED) including information about the operation of the LED module to the DC-DC module, which is further configured to control the at least one drive signal based at least in part on the LED feedback signal; and provide the DC module feedback signal including information about the operation of the DC-DC module to the AC-DC module. receive the DC power signal (P DC) from the AC-DC module; receive the output dimming signal from the AC-DC module; provide at least one drive signal (I N) based on the output dimming signal to drive the plurality of LEDs of the LED module, wherein the LED module is configured to provide an LED feedback signal (F LED) including information about the operation of the LED module to the DC-DC module, which is further configured to control the at least one drive signal based at least in part on the LED feedback signal; and provide the DC module feedback signal including information about the operation of the DC-DC module to the AC-DC module.
A porous polymeric separation material characterized by containing pores in the mesoporous region; having a total surface area > 50 m 2 /g material, a pore volume between 0.2 and 1.2 ml/g material, as determined by BET analysis, and a metal binding capacity of between 0.2 and 1.0 mmol/g material, wherein the material comprises one or more functional group(s) bound to one or more metal ion(s) selected from the group consisting of Cu +, Ag +, Pd 2+, Cu 2+ or Zn 2+. containing pores in the mesoporous region; having a total surface area > 50 m 2 /g material, a pore volume between 0.2 and 1.2 ml/g material, as determined by BET analysis, and a metal binding capacity of between 0.2 and 1.0 mmol/g material, wherein the material comprises one or more functional group(s) bound to one or more metal ion(s) selected from the group consisting of Cu +, Ag +, Pd 2+, Cu 2+ or Zn 2+.
Cylindrical system for animal excrement removal including a basic structure that supports a rotating cylinder, the rotating cylinder having an internal chamber (2.1) with a filtration grid (2.2) inside the rotating cylinder, an opening along its side (2.3) for the excrements to exit and an opening for animal entry and exit (2.5), characterized by comprising: - a removable litter tray inserted in the rotating cylinder; - opening (2.4) for insertion and removal of the removable litter tray, in the rotating cylinder; - a support base in the removable litter tray; - a grid in the support base; and by - an excrement collection drawer, in the basic structure. - a removable litter tray inserted in the rotating cylinder; - opening (2.4) for insertion and removal of the removable litter tray, in the rotating cylinder; - a support base in the removable litter tray; - a grid in the support base; and by - an excrement collection drawer, in the basic structure.
A method performed by a user equipment, UE, for wireless communication, the method comprising: receiving an indicator of retransmission scheduling for a plurality of UEs; determining, based on a modulation and coding scheme, MCS, update in the indicator, resources for receiving a retransmission, wherein the MCS update indicates which resources are assigned to the UE for receiving the retransmission, based on the MCS requirements of the UE wherein the determining the resources comprises identifying resource blocks for receiving the retransmission based on a position of the UE in a sequential ordering of the plurality of UEs, wherein the identifying the resource blocks further comprises identifying at least a particular resource block in which the UE received a prior transmission and, based on the MCS update, identifying additional consecutive resource blocks mapped to the UE; and receiving the retransmission on the determined resources. receiving an indicator of retransmission scheduling for a plurality of UEs; determining, based on a modulation and coding scheme, MCS, update in the indicator, resources for receiving a retransmission, wherein the MCS update indicates which resources are assigned to the UE for receiving the retransmission, based on the MCS requirements of the UE wherein the determining the resources comprises identifying resource blocks for receiving the retransmission based on a position of the UE in a sequential ordering of the plurality of UEs, wherein the identifying the resource blocks further comprises identifying at least a particular resource block in which the UE received a prior transmission and, based on the MCS update, identifying additional consecutive resource blocks mapped to the UE; and receiving the retransmission on the determined resources.
An electronic component comprising: a ceramic element assembly, an internal electrode provided inside the ceramic element assembly; and an external electrode provided on the surface of the ceramic element assembly and electrically connected with the internal electrode, characterized in that the external electrode has an electroconductive resin layer including a hardened product of epoxy resin containing a bisphenol type epoxy resin having a molecular weight of 2000 or more and plural epoxy groups as a base compound. a ceramic element assembly, an internal electrode provided inside the ceramic element assembly; and an external electrode provided on the surface of the ceramic element assembly and electrically connected with the internal electrode, characterized in that the external electrode has an electroconductive resin layer including a hardened product of epoxy resin containing a bisphenol type epoxy resin having a molecular weight of 2000 or more and plural epoxy groups as a base compound.
A method for controlling the charge of an energy storage device configured to store power from a renewable energy source, the method comprising: determining an estimated energy production prediction for the renewable energy source from a present time to a target time, wherein the target time is a time by which the energy storage device is desired to reach a top of charge energy level when being charged by the renewable energy source; determining an available amount of energy for storage at the energy storage device when the energy storage device is charged from the estimated energy production of the renewable energy source at a first charge rate from the present time until the target time; comparing the available amount of energy to an energy storage capacity of the energy storage device; controlling a present charge rate for the energy storage device to be the first charge rate when the available amount of energy is less than the energy storage capacity of the energy storage device; and controlling a present charge rate for the energy storage device to be a second charge rate when the available amount of energy is greater than the energy storage capacity of the energy storage device, wherein the second charge rate is less than the first charge rate; characterised in that the target time is before a planned dispatch time for the energy storage device and is selected to limit the total time between the target time and dispatch time during which the energy storage device remains at the top of charge energy level. determining an estimated energy production prediction for the renewable energy source from a present time to a target time, wherein the target time is a time by which the energy storage device is desired to reach a top of charge energy level when being charged by the renewable energy source; determining an available amount of energy for storage at the energy storage device when the energy storage device is charged from the estimated energy production of the renewable energy source at a first charge rate from the present time until the target time; comparing the available amount of energy to an energy storage capacity of the energy storage device; controlling a present charge rate for the energy storage device to be the first charge rate when the available amount of energy is less than the energy storage capacity of the energy storage device; and controlling a present charge rate for the energy storage device to be a second charge rate when the available amount of energy is greater than the energy storage capacity of the energy storage device, wherein the second charge rate is less than the first charge rate; characterised in that the target time is before a planned dispatch time for the energy storage device and is selected to limit the total time between the target time and dispatch time during which the energy storage device remains at the top of charge energy level.
Valve device for an internal combustion engine comprising a housing comprising an inlet and an outlet, a flow channel configured between the inlet and the outlet, a valve member, via which a free cross-section of the flow channel can be regulated, a valve rod connected to the valve member, which can be moved by means of an actuator, a bore in the housing and a valve guide attached in the bore, which can be heated by a heating element (60, 61), characterised in that the heating element (60, 61) comprises at least one conductor path, and the valve guide is at least partially reduced in its outer diameter and the heating element (60, 61) is arranged at the region of the valve guide which is reduced in its outer diameter. a housing comprising an inlet and an outlet, a flow channel configured between the inlet and the outlet, a valve member, via which a free cross-section of the flow channel can be regulated, a valve rod connected to the valve member, which can be moved by means of an actuator, a bore in the housing and a valve guide attached in the bore, which can be heated by a heating element (60, 61), characterised in that the heating element (60, 61) comprises at least one conductor path, and the valve guide is at least partially reduced in its outer diameter and the heating element (60, 61) is arranged at the region of the valve guide which is reduced in its outer diameter.
A method performed by a wireless communication device configured for use in a wireless communication system, the method comprising: performing, by a first radio access technology, RAT, module of the wireless communication device, functions relating to a first RAT; performing, by a second RAT module of the wireless communication device, functions relating to a second RAT; and performing, by the second RAT module, a subset of functions relating to the first RAT on behalf of the first RAT module when one or more defined conditions are met, characterized in that, the one or more defined conditions include a remaining battery level of the wireless communication device being below a defined threshold. performing, by a first radio access technology, RAT, module of the wireless communication device, functions relating to a first RAT; performing, by a second RAT module of the wireless communication device, functions relating to a second RAT; and performing, by the second RAT module, a subset of functions relating to the first RAT on behalf of the first RAT module when one or more defined conditions are met, characterized in that, the one or more defined conditions include a remaining battery level of the wireless communication device being below a defined threshold.
A multiplier (1A, 1B, 1C) configured to produce an output current representing a product of a first input voltage and a second input voltage, comprising: a first transconductance stage which is configured to input the first input voltage and to output a first pair of differential currents, when being supplied with a first fixed bias current, wherein the first transconductance stage comprises a negative feedback network, at least one second transconductance stage which is configured to input the second input voltage and to output a pre-distorted voltage of the second input voltage, when being supplied with a second fixed bias current, wherein each second transconductance stage comprises a negative feedback network, a pair of third transconductance stages, each of which is configured to input a voltage corresponding to the pre-distorted voltage of the second input voltage and to output a second pair of differential currents, when being supplied with a bias current corresponding to a respective current of the first pair of differential currents, and a combination network which is configured to generate the output current by combining the second pairs of differential currents from both of the pair of third transconductance stages, wherein each transconductance stage (10, 20, 30) is realized with MOSFET transistors in CMOS technology. a first transconductance stage which is configured to input the first input voltage and to output a first pair of differential currents, when being supplied with a first fixed bias current, wherein the first transconductance stage comprises a negative feedback network, at least one second transconductance stage which is configured to input the second input voltage and to output a pre-distorted voltage of the second input voltage, when being supplied with a second fixed bias current, wherein each second transconductance stage comprises a negative feedback network, a pair of third transconductance stages, each of which is configured to input a voltage corresponding to the pre-distorted voltage of the second input voltage and to output a second pair of differential currents, when being supplied with a bias current corresponding to a respective current of the first pair of differential currents, and a combination network which is configured to generate the output current by combining the second pairs of differential currents from both of the pair of third transconductance stages, wherein each transconductance stage (10, 20, 30) is realized with MOSFET transistors in CMOS technology.
A method of forming a panel characterised in that the method includes the steps of: using a kit including a panel component, the panel component including a surface sheet formed from a first material, and a body layer to which the surface sheet is adhered, wherein the body layer has a thickness greater than a thickness of the surface sheet, the body layer has a density less than a density of the surface sheet, the kit including a separate side edge portion adapted to be adhered along at least one edge of the panel component; cutting the panel component to a dimension to suit to expose an edge of the panel component; and adhering the side edge portion to said exposed edge of the panel component. using a kit including a panel component, the panel component including a surface sheet formed from a first material, and a body layer to which the surface sheet is adhered, wherein the body layer has a thickness greater than a thickness of the surface sheet, the body layer has a density less than a density of the surface sheet, the kit including a separate side edge portion adapted to be adhered along at least one edge of the panel component; cutting the panel component to a dimension to suit to expose an edge of the panel component; and adhering the side edge portion to said exposed edge of the panel component.
A pharmaceutical composition or kit for use in treating cancer in a mammal comprising asparaginase and methioninase for at least one sequential administration with methioninase being administered before asparaginase.