mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a terminal device of a wireless telecommunication network, the wireless telecommunication network further comprising first and second radio access nodes (NB1, NB2), the method comprising: repeatedly measuring one or more metrics for signals transmitted by the first radio access node and signals transmitted by the second radio access node; wherein a frequency with which the one or more metrics are measured varies as a function inversely proportional of: a difference between the average value of the one or more metrics for signals transmitted by the first radio access node and the average value of the one or more metrics for signals transmitted by the second radio access node over a measurement period; or as a function proportional of a rate of change of the difference between the average value of the one or more metrics for signals transmitted by the first radio access node and the average value of the one or more metrics for signals transmitted by the second radio access node over a measurement period. repeatedly measuring one or more metrics for signals transmitted by the first radio access node and signals transmitted by the second radio access node; wherein a frequency with which the one or more metrics are measured varies as a function inversely proportional of: a difference between the average value of the one or more metrics for signals transmitted by the first radio access node and the average value of the one or more metrics for signals transmitted by the second radio access node over a measurement period; or as a function proportional of a rate of change of the difference between the average value of the one or more metrics for signals transmitted by the first radio access node and the average value of the one or more metrics for signals transmitted by the second radio access node over a measurement period. a difference between the average value of the one or more metrics for signals transmitted by the first radio access node and the average value of the one or more metrics for signals transmitted by the second radio access node over a measurement period; or as a function proportional of a rate of change of the difference between the average value of the one or more metrics for signals transmitted by the first radio access node and the average value of the one or more metrics for signals transmitted by the second radio access node over a measurement period.
A coffee machine comprising a body , a heater provided in the body , realizing the cooking process, a cooking container in which the cooking process is performed, and a resting surface provided on the heater , on which the cooking container is placed, a projection provided on the resting surface and a cavity provided on the cooking container and configured to match with the projection characterized by a magnet provided below the resting surface and by the cooking container having a base at least partially made of ferromagnetic material.
A charging socket , for example for an hybrid or electric vehicle, comprising: - an electrically insulating housing ; - one or more cavities for inserting one or more electrical contacts, said one or more cavities being accommodated into said housing ; - a dual-functional element partially protruding from an outer surface of said electrically insulating housing , wherein said dual-functional element comprises a fixing component and a drainage component , wherein said fixing component protrudes from said electrically insulating housing and is configured for fixing said electrically insulating housing to a mounting bracket and said drainage component includes at least one drainage channel , formed within said housing , for discharging fluids from said charging socket ; and - a bracket mounted on said electrically insulating housing , said bracket comprising a fitting portion on which said fixing component is fitted, in order to fasten said bracket to said electrically insulating housing ; characterized in that: said bracket further comprises a fixing opening into which said fixing component is inserted, in order to fasten said bracket to said electrically insulating housing , and said bracket further comprises a flat protective portion and is configured in such a way that, when said bracket is mounted on said electrically insulating housing , said flat protective portion covers said drainage component so as to prevent external objects from entering into said housing . - an electrically insulating housing ; - one or more cavities for inserting one or more electrical contacts, said one or more cavities being accommodated into said housing ; - a dual-functional element partially protruding from an outer surface of said electrically insulating housing , wherein said dual-functional element comprises a fixing component and a drainage component , wherein said fixing component protrudes from said electrically insulating housing and is configured for fixing said electrically insulating housing to a mounting bracket and said drainage component includes at least one drainage channel , formed within said housing , for discharging fluids from said charging socket ; and - a bracket mounted on said electrically insulating housing , said bracket comprising a fitting portion on which said fixing component is fitted, in order to fasten said bracket to said electrically insulating housing ; said bracket further comprises a fixing opening into which said fixing component is inserted, in order to fasten said bracket to said electrically insulating housing , and said bracket further comprises a flat protective portion and is configured in such a way that, when said bracket is mounted on said electrically insulating housing , said flat protective portion covers said drainage component so as to prevent external objects from entering into said housing .
A method for evaluating a deviation in shape of an actual surface portion (S1) of a real actual surface from a desired surface portion based on measured vertical information in each case of measurement points (P) of a group of measurement points (P) which are located on the actual surface, wherein the group of measurement points (P) are located in a measurement-point extent portion (M) of the actual surface portion (S1) which defines the positions thereof, wherein the method uses at least one iteration in each case with an arrangement of evaluation portions (F1, F2, F3, F4) which in the actual surface portion (S1) are located at least in portions distributed over the measurement-point extent portion (M) and offset relative to one another, wherein an iteration comprises in each case the following steps: (a) for each measurement point (P) of a number of measurement points (P) of each evaluation portion (F1, F2, F3, F4), ascertaining a maximum vertical distance (ΔY) which is yielded as the greatest distance in a predetermined vertical direction between two measurement points (P) in each case, wherein the vertical direction runs transversely to the measurement-point extent portion (M1) and the maximum vertical distance (ΔY) in each case occurs between an evaluation portion trough (P1) and an evaluation portion peak (P2), (b) ascertaining an evaluation portion gradient which has a straight connecting line between the evaluation portion trough (P1) and the evaluation portion peak (P2) on the basis of the maximum vertical distance (ΔY) relative to a distance between the evaluation portion trough (P1) and the evaluation portion peak (P2) in the projection thereof onto a desired surface portion which represents an ideal model of the actual surface portion (S1), wherein in a further method step the value pairs of in each case a maximum vertical distance (ΔY) and an evaluation portion gradient which are ascertained in each case in the at least one iteration for the respective evaluation portions (F1, F2, F3, F4) thereof is associated with a limit criterion. (a) for each measurement point (P) of a number of measurement points (P) of each evaluation portion (F1, F2, F3, F4), ascertaining a maximum vertical distance (ΔY) which is yielded as the greatest distance in a predetermined vertical direction between two measurement points (P) in each case, wherein the vertical direction runs transversely to the measurement-point extent portion (M1) and the maximum vertical distance (ΔY) in each case occurs between an evaluation portion trough (P1) and an evaluation portion peak (P2), (b) ascertaining an evaluation portion gradient which has a straight connecting line between the evaluation portion trough (P1) and the evaluation portion peak (P2) on the basis of the maximum vertical distance (ΔY) relative to a distance between the evaluation portion trough (P1) and the evaluation portion peak (P2) in the projection thereof onto a desired surface portion which represents an ideal model of the actual surface portion (S1),
A method of moving an aircraft undercarriage comprising a leg that is movable between a deployed position and a retracted position in which the leg is held stationary by means of a strut held in an aligned position by a stabilizer member comprising two links , one of which is hinged to the structure of the aircraft, the method including using a single drive actuator for raising the undercarriage from the deployed position to the retracted position, the method being characterized in that the actuator is coupled only to the leg and to the stabilizer member in such a manner that on being activated the actuator begins by causing the stabilizer member to unlock and then moves the undercarriage leg towards the retracted position.
Infrared absorbing fine particles, which are antimony-containing tin oxide (ATO) fine particles having a crystal lattice constant a being 4.736 Å or more and 4.743 Å or less, a crystal lattice constant c being 3.187 Å or more and 3.192 Å or less, and a crystallite size being 5.5 nm or more and 10.0 nm or less; wherein in the ATO fine particles, Sn element is contained in a concentration of 66.0 mass% or more and 70.0 mass% or less and Sb element is contained in a concentration of 8.0 mass% or more and 9.0 mass% or less.
A method of enhancing growth of a plant comprising administering a liquid composition treatment comprising a culture of Chlorella to soil of the plant, the composition comprising whole pasteurized Chlorella cells, wherein the composition is administered in a concentration in the range of 0.003-0.080% solids by weight.
Lipophosphonoxins of general formula I, wherein R 1 is selected from C8-C22 alkyl, hexadecyloxypropyl, tetradecyloxypropyl, tetradecyloxyetyl, hexadecyloxyetyl; R 2 is selected from uracil, thymine, cytosine; and R 3 is selected from the group consisting of compounds of formulas II - V: wherein R 4 is H, CH 2 NH 2 or CH 2 OH, R 5 is H, NH 2 or OH, R 6 is H, NH 2 or OH, R 7 is H, CH 2 NH 2 or CH 2 OH, R 8 is H, CH 2 NH 2 or CH 2 OH, R 9 is H, NH 2 or OH, R 10 is H, NH 2 or OH, R 11 is H, NH 2 or OH, R 12 is H, CH 2 NH 2 or CH 2 OH, R 13 is NH 2 or NH-CH(NH 2 )NH, R 14 is NH 2 or NH-CH(NH 2 )NH, R 15 is NH 2 or NH-CH(NH 2 )NH, R 16 is NH 2 or NH-CH(NH 2 )NH, whereas at least one of R 5 and R 6 groups must be NH 2 or at least one of R 4 and R 7 groups must be CH 2 NH 2 , and whereas at least one of R 9 , R 10 and R 11 groups must be NH 2 or at least one of R 8 and R 12 groups must be CH 2 NH 2 ; and their pharmaceutically acceptable salts and/or hydrates. R 1 is selected from C8-C22 alkyl, hexadecyloxypropyl, tetradecyloxypropyl, tetradecyloxyetyl, hexadecyloxyetyl; R 2 is selected from uracil, thymine, cytosine; and R 3 is selected from the group consisting of compounds of formulas II - V: wherein R 4 is H, CH 2 NH 2 or CH 2 OH, R 5 is H, NH 2 or OH, R 6 is H, NH 2 or OH, R 7 is H, CH 2 NH 2 or CH 2 OH, R 8 is H, CH 2 NH 2 or CH 2 OH, R 9 is H, NH 2 or OH, R 10 is H, NH 2 or OH, R 11 is H, NH 2 or OH, R 12 is H, CH 2 NH 2 or CH 2 OH, R 13 is NH 2 or NH-CH(NH 2 )NH, R 14 is NH 2 or NH-CH(NH 2 )NH, R 15 is NH 2 or NH-CH(NH 2 )NH, R 16 is NH 2 or NH-CH(NH 2 )NH, whereas at least one of R 5 and R 6 groups must be NH 2 or at least one of R 4 and R 7 groups must be CH 2 NH 2 , and whereas at least one of R 9 , R 10 and R 11 groups must be NH 2 or at least one of R 8 and R 12 groups must be CH 2 NH 2 ; R 4 is H, CH 2 NH 2 or CH 2 OH, R 5 is H, NH 2 or OH, R 6 is H, NH 2 or OH, R 7 is H, CH 2 NH 2 or CH 2 OH, R 8 is H, CH 2 NH 2 or CH 2 OH, R 9 is H, NH 2 or OH, R 10 is H, NH 2 or OH, R 11 is H, NH 2 or OH, R 12 is H, CH 2 NH 2 or CH 2 OH, R 13 is NH 2 or NH-CH(NH 2 )NH, R 14 is NH 2 or NH-CH(NH 2 )NH, R 15 is NH 2 or NH-CH(NH 2 )NH, R 16 is NH 2 or NH-CH(NH 2 )NH,
A flooring mat , comprising: a first layer ; a second layer comprising a textile pad ; and a third layer comprising an entangled filament structure , wherein the second layer is disposed between the first layer and the third layer , wherein the entangled filament structure is formed by extrusion into a three-dimensional structure having a patterned configuration, wherein the entangled filament structure comprises thermally bonded polypropylene or polyamide 6, characterized in that the patterned configuration includes individual cubes or domes, wherein the individual cubes or domes are separated by intersecting lanes, each of the individual cubes or domes of filaments being separated from adjacent ones of the individual cubes or domes of filaments along both a first axis and a second axis perpendicular to the first axis. a first layer ; a second layer comprising a textile pad ; and a third layer comprising an entangled filament structure , wherein the second layer is disposed between the first layer and the third layer , wherein the entangled filament structure is formed by extrusion into a three-dimensional structure having a patterned configuration, wherein the entangled filament structure comprises thermally bonded polypropylene or polyamide 6, characterized in that the patterned configuration includes individual cubes or domes, wherein the individual cubes or domes are separated by intersecting lanes, each of the individual cubes or domes of filaments being separated from adjacent ones of the individual cubes or domes of filaments along both a first axis and a second axis perpendicular to the first axis.
An insect decoy , comprising: a vapor-isolated vessel having at least one infrared transmissive window ; a chemical compound disposed within the vessel, the chemical compound having one or more absorption bands at a set of absorption wavelengths and having one or more emission bands at a set of emission wavelengths; and an excitation energy source , the excitation energy source configured to produce electromagnetic radiation at the absorption wavelengths so as to fluoresce the chemical compound and release photons at the emission wavelengths, wherein the at least one infrared transmissive window is substantially transparent to the released photons at the emission wavelengths. a vapor-isolated vessel having at least one infrared transmissive window ; a chemical compound disposed within the vessel, the chemical compound having one or more absorption bands at a set of absorption wavelengths and having one or more emission bands at a set of emission wavelengths; and an excitation energy source , the excitation energy source configured to produce electromagnetic radiation at the absorption wavelengths so as to fluoresce the chemical compound and release photons at the emission wavelengths, wherein the at least one infrared transmissive window is substantially transparent to the released photons at the emission wavelengths.
Process for preparing amidomethylated vinylaromatic bead polymers, characterized in that at least one vinylaromatic bead polymer is reacted with at least one compound of formula (I) or salts thereof where R 1 = -CH-(C 1 -C 6 -alkyl) or -CH 2 - and R 2 = -CH-(C 1 -C 6 -alkyl) or -CH 2 - or R 1 and R 2 are two carbon atoms of an aromatic C 6 ring optionally substituted by one or two C 1 -C 6 -alkyl radicals, or R 1 and R 2 are each -CH=, and at least one condensed formaldehyde in the presence of at least one protic acid and in the presence of at least one compound of the formula (II) H (3-n )C(Br) nR 3 (II) where R 3 = C 1 -C 4 -alkyl, Br, H or C 1 -C 4 -bromoalkyl and n may be 0 or 1, where, if n = 0, R 3 = C 1 -C 4 -bromoalkyl or Br.
A process for treating human dermis, wherein a human dermis collected from a cadaver and deprived of the epidermal component is: (a) decellularized; (b) freeze-dried; (c) sterilized; characterized in that the deepidermized dermis is decellularized (a) as follows: - two consecutive treatments in purified water of 20'-40' each at 30°-40°C under stirring; - two incubations with a zwitterionic detergent solution in a concentration of 0.03-0.01 M, the first of which lasting 70'-110' in an ultrasonic bath at 30°-40°C and the second being overnight under stirring in a thermostatic bath again at 30°-40°C; - a wash with purified water at 30°-40°C for 5-30 minutes in an ultrasonic bath and two washes with buffer at neutral pH, the first of which occurring in a sonicator at 30°-40°C and the second in a thermostatic bath under stirring at 30°-40°C, followed by at least one wash of 20'-40' with purified water under stirring at 30°-40°C. (a) decellularized; (b) freeze-dried; (c) sterilized; - two consecutive treatments in purified water of 20'-40' each at 30°-40°C under stirring; - two incubations with a zwitterionic detergent solution in a concentration of 0.03-0.01 M, the first of which lasting 70'-110' in an ultrasonic bath at 30°-40°C and the second being overnight under stirring in a thermostatic bath again at 30°-40°C; - a wash with purified water at 30°-40°C for 5-30 minutes in an ultrasonic bath and two washes with buffer at neutral pH, the first of which occurring in a sonicator at 30°-40°C and the second in a thermostatic bath under stirring at 30°-40°C, followed by at least one wash of 20'-40' with purified water under stirring at 30°-40°C.
Motor vehicle controller (ECU), comprising a first processor system that is designed to control at least one actuator of an electric parking brake, EPB, and at least one further motor vehicle functional unit (SYS-1, SYS-2); a second processor system that is designed to control the at least one EPB actuator at least partially redundantly with respect to the first processor system ; a changeover device that is designed to allow actuation of the at least one EPB actuator selectively via the first processor system or the second processor system , characterized in that it furthermore comprises at least one monitoring device that is designed to monitor the functionality of the first processor system and to control the changeover device on the basis of the functionality of the first processor system .
A user device, UE, (302 1 ) for a wireless communication system, wherein the UE (302 1 ) is configured to be connected to at least one further UE (302 n ) via a sidelink for a sidelink communication with the further UE (302 n ), and for transmitting to the further UE (302 n ) via the sidelink , the UE (302 1 ) is configured to obtain distance information representing a certain communication range or a certain distance around the UE (302 1 ), initiate a HARQ feedback mechanism for the sidelink communication when the further UE (302 n ) is at or within the certain communication range or the certain distance, not initiate the HARQ feedback mechanism for the sidelink communication when the further UE (302 n ) is outside the certain communication range or the certain distance, and when determining the further UE (302 n ) to be within the minimum required communication range, explicitly signal to the further UE (302 n ) to activate the HARQ feedback mechanism so as to send the HARQ feedback in response to a sidelink transmission by the UE (302 1 ). the UE (302 1 ) is configured to be connected to at least one further UE (302 n ) via a sidelink for a sidelink communication with the further UE (302 n ), and for transmitting to the further UE (302 n ) via the sidelink , the UE (302 1 ) is configured to obtain distance information representing a certain communication range or a certain distance around the UE (302 1 ), initiate a HARQ feedback mechanism for the sidelink communication when the further UE (302 n ) is at or within the certain communication range or the certain distance, not initiate the HARQ feedback mechanism for the sidelink communication when the further UE (302 n ) is outside the certain communication range or the certain distance, and when determining the further UE (302 n ) to be within the minimum required communication range, explicitly signal to the further UE (302 n ) to activate the HARQ feedback mechanism so as to send the HARQ feedback in response to a sidelink transmission by the UE (302 1 ). obtain distance information representing a certain communication range or a certain distance around the UE (302 1 ), initiate a HARQ feedback mechanism for the sidelink communication when the further UE (302 n ) is at or within the certain communication range or the certain distance, not initiate the HARQ feedback mechanism for the sidelink communication when the further UE (302 n ) is outside the certain communication range or the certain distance, and when determining the further UE (302 n ) to be within the minimum required communication range, explicitly signal to the further UE (302 n ) to activate the HARQ feedback mechanism so as to send the HARQ feedback in response to a sidelink transmission by the UE (302 1 ).
Housing arrangement with at least one electrical unit vulnerable to overheating, - wherein the housing arrangement has at least one accommodation apparatus in which the electrical unit is accommodated, and - comprises at least one covering apparatus and - wherein the covering apparatus covers the accommodation apparatus on at least one associated open side and - comprises at least one first cover plate and at least one second cover plate , - wherein the first cover plate is arranged parallel to the second cover plate and - the first cover plate is rectangular and has first openings , and the second cover plate is rectangular and has second openings , - the first cover plate and the second cover plate are spaced apart and - the first openings in the first cover plate are each arranged offset from the second openings in the second cover plate , irrespective of a thermal state of the electrical unit, - the first cover plate has a plurality of circular first openings and the second cover plate has a plurality of circular second openings , characterized in that - the first openings and/or the second openings each have different diameters. - wherein the housing arrangement has at least one accommodation apparatus in which the electrical unit is accommodated, and - comprises at least one covering apparatus and - wherein the covering apparatus covers the accommodation apparatus on at least one associated open side and - comprises at least one first cover plate and at least one second cover plate , - wherein the first cover plate is arranged parallel to the second cover plate and - the first cover plate is rectangular and has first openings , and the second cover plate is rectangular and has second openings , - the first cover plate and the second cover plate are spaced apart and - the first openings in the first cover plate are each arranged offset from the second openings in the second cover plate , irrespective of a thermal state of the electrical unit, - the first cover plate has a plurality of circular first openings and the second cover plate has a plurality of circular second openings , - the first openings and/or the second openings each have different diameters.