mhurhangee/ep-ind-claims huggingface dataset:
A system for arthroplasty of a knee joint comprising a femur, a tibia, and a patella, comprising: a femoral implant; a tibial implant; and an instrument system (300,500) comprising: a base component (302,502) comprising a bone contacting surface; and a femoral extension rod (306,506) coupled to the base component; wherein, when the instrument system (300,500) is operatively attached to the knee joint, the bone contacting surface of the base component (302,502) is fixed against a distal anterior cortical surface of the femur, the femoral extension rod (306,506) is centered in a distal medial-lateral width of the femur, and the femoral extension rod (306,506) extends over a center of a head of the femur; characterized in that the base component (302, 502) comprises frictional elements (303, 538) protruding from the first bone contacting surface. a femoral implant; a tibial implant; and an instrument system (300,500) comprising: a base component (302,502) comprising a bone contacting surface; and a femoral extension rod (306,506) coupled to the base component; wherein, when the instrument system (300,500) is operatively attached to the knee joint, the bone contacting surface of the base component (302,502) is fixed against a distal anterior cortical surface of the femur, the femoral extension rod (306,506) is centered in a distal medial-lateral width of the femur, and the femoral extension rod (306,506) extends over a center of a head of the femur; characterized in that the base component (302, 502) comprises frictional elements (303, 538) protruding from the first bone contacting surface. a base component (302,502) comprising a bone contacting surface; and a femoral extension rod (306,506) coupled to the base component; wherein, when the instrument system (300,500) is operatively attached to the knee joint, the bone contacting surface of the base component (302,502) is fixed against a distal anterior cortical surface of the femur, the femoral extension rod (306,506) is centered in a distal medial-lateral width of the femur, and the femoral extension rod (306,506) extends over a center of a head of the femur;
Method for analysing the quality of the electrical energy in a three-phase electrical network, the method comprising the steps of: - measuring a set of electrical values, the set containing one electrical value per phase, - forming a space vector from an instantaneous three-dimensional transformation of the set of measured electrical values, - determining a set containing at least one parameter representative of the quality of the electrical energy in the three-phase electrical network, on the basis of the space vector, said set containing at least one parameter representative of the quality of the electrical energy in the three-phase electrical network containing at least one parameter chosen from among: - a parameter (k D) representative of a voltage or current imbalance in the three-phase network, - a parameter (kc) representative of a voltage or current sag, - a parameter (ks) representative of an overvoltage or of an overcurrent, - a parameter (k F) representative of a voltage flicker, - forming a zero-sequence component from the instantaneous three-dimensional transformation of the set of measured electrical values, said determination of the set containing at least one parameter representative of the quality of the electrical energy in the three-phase electrical network is furthermore performed depending on the zero-sequence component, and in that said at least one parameter (k H) represents a voltage or current harmonic pollution. - measuring a set of electrical values, the set containing one electrical value per phase, - forming a space vector from an instantaneous three-dimensional transformation of the set of measured electrical values, - determining a set containing at least one parameter representative of the quality of the electrical energy in the three-phase electrical network, on the basis of the space vector, said set containing at least one parameter representative of the quality of the electrical energy in the three-phase electrical network containing at least one parameter chosen from among: - a parameter (k D) representative of a voltage or current imbalance in the three-phase network, - a parameter (kc) representative of a voltage or current sag, - a parameter (ks) representative of an overvoltage or of an overcurrent, - a parameter (k F) representative of a voltage flicker, - a parameter (k D) representative of a voltage or current imbalance in the three-phase network, - a parameter (kc) representative of a voltage or current sag, - a parameter (ks) representative of an overvoltage or of an overcurrent, - a parameter (k F) representative of a voltage flicker, - forming a zero-sequence component from the instantaneous three-dimensional transformation of the set of measured electrical values,
Joint securing means for securing two levers (2, 3) which are rotatable relative to one another about a joint axis and which are connected via a joint pin, comprising a bow portion for axially fixing the two levers (2, 3) on the joint pin and comprising a connecting portion for connecting to one of the two levers (2, 3), wherein the connecting portion is configured as a latching portion for latching connection with one of the two levers (2, 3), characterized in that the bow portion has two bow legs (4.1, 4.2), wherein the two bow legs (4.1, 4.2) are situated opposite one another, and a receiving space for receiving the two legs (2, 3) is provided between the two bow legs (4.1, 4.2).
A method of producing an abrasive article, the method comprising: moving a production tool along a first web path, the production tool having a first end and a second end spliced together forming a spliced area; providing first shaped abrasive particles to a plurality of cavities formed in a dispensing surface of the production tool; moving a resin coated backing along a second web path; dispensing the first shaped abrasive particles from the plurality of cavities to the resin coated backing; the method characterized in that it further comprises dispensing second shaped abrasive particles to the resin coated backing into gaps in the first shaped abrasive particles caused by an absence of the plurality of cavities in the spliced area. moving a production tool along a first web path, the production tool having a first end and a second end spliced together forming a spliced area; providing first shaped abrasive particles to a plurality of cavities formed in a dispensing surface of the production tool; moving a resin coated backing along a second web path; dispensing the first shaped abrasive particles from the plurality of cavities to the resin coated backing; the method characterized in that it further comprises dispensing second shaped abrasive particles to the resin coated backing into gaps in the first shaped abrasive particles caused by an absence of the plurality of cavities in the spliced area.
A method for managing a network, the network including: a plurality of network elements, each of which being able to run at least one network management function and to store management information being necessary for running the at least one management function, the method being performed by one or more network elements of the plurality of network elements and the method comprising: randomly activating and deactivating the at least one management function on each of the one or more network elements by a randomization process being performed by the network element, wherein the randomization process comprises a probability distribution per management function and/or per network element, wherein the probability distribution is dependent on internal and/or external information, said information comprising the amount of available free storage of the one or more network elements, and wherein the randomization process is dependent on said amount of available free storage. randomly activating and deactivating the at least one management function on each of the one or more network elements by a randomization process being performed by the network element, wherein the randomization process comprises a probability distribution per management function and/or per network element, wherein the probability distribution is dependent on internal and/or external information, said information comprising the amount of available free storage of the one or more network elements, and wherein the randomization process is dependent on said amount of available free storage.
A glucose test device (100, 200), comprising: a casing (110, 310); a carrying unit (120, 220) and a plurality of consumables, the carrying unit (120, 220) being disposed at the casing (110, 310), the consumables being disposed in the carrying unit (120, 220); a first push rod (140, 240) movably disposed at the casing (110, 310) and aligned with the carrying unit (120, 220), wherein the first push rod (140, 240) is suitable for moving to push one of the consumables out of the carrying unit (120, 220); a locking component (150, 250, 350) movably disposed at the casing (110, 310); a first driving unit (160a, 360a) connected to the locking component (150, 250, 350); and a control unit electrically connected to the first driving unit (160a, 360a), wherein the control unit is suitable for controlling the first driving unit (160a, 360a) to drive the locking component (150, 250, 350) to be operated to a locking position so as to lock the first push rod (140, 240) as unmovable, and the control unit is suitable for controlling the first driving unit (160a, 360a) to drive the locking component (150, 250, 350) to be operated to a releasing position so as to release the first push rod (140, 240). a casing (110, 310); a carrying unit (120, 220) and a plurality of consumables, the carrying unit (120, 220) being disposed at the casing (110, 310), the consumables being disposed in the carrying unit (120, 220); a first push rod (140, 240) movably disposed at the casing (110, 310) and aligned with the carrying unit (120, 220), wherein the first push rod (140, 240) is suitable for moving to push one of the consumables out of the carrying unit (120, 220); a locking component (150, 250, 350) movably disposed at the casing (110, 310); a first driving unit (160a, 360a) connected to the locking component (150, 250, 350); and a control unit electrically connected to the first driving unit (160a, 360a), wherein the control unit is suitable for controlling the first driving unit (160a, 360a) to drive the locking component (150, 250, 350) to be operated to a locking position so as to lock the first push rod (140, 240) as unmovable, and the control unit is suitable for controlling the first driving unit (160a, 360a) to drive the locking component (150, 250, 350) to be operated to a releasing position so as to release the first push rod (140, 240).
A filter bank for an audio processing device, e.g. a hearing aid, the filter bank comprising • an analysis filter bank comprising a plurality of M first filters h m (n), where m=0, 1,..., M-1 is a frequency band index, and whose impulse responses are modulated from a first linear phase prototype filter h(n) with a first predetermined modulation sequence ms1, n being a time index, the first linear phase prototype filter h(n) having a first filter length of L h; • a synthesis filter bank comprising a plurality of M second filters g m (n), m=0, 1,..., M-1, whose impulse responses are modulated from a second linear phase prototype filter g(n) with a second predetermined modulation sequence ms2, the second linear phase prototype filter g(n) having a second filter length of L g; • the plurality of first and second filters being arranged in pairs, each pair forming a frequency channel, wherein • the first modulation sequence is a complex or real function of time n, frequency band index m, and a first prototype filter delay τ h, • the second modulation sequence is a complex or real function of time n, frequency band index m, and a second prototype filter delay τ g, • the first filter length L h and the second filter length L g are both uneven, and • the first prototype filter delay τ h is equal to (L h -1)/2 and second prototype filter delay τ g, is equal to (L g -1)/2, and the first and second prototype filter delay τ h and τ g, are constants of the analysis filter bank and the synthesis filter bank, respectively. • an analysis filter bank comprising a plurality of M first filters h m (n), where m=0, 1,..., M-1 is a frequency band index, and whose impulse responses are modulated from a first linear phase prototype filter h(n) with a first predetermined modulation sequence ms1, n being a time index, the first linear phase prototype filter h(n) having a first filter length of L h; • a synthesis filter bank comprising a plurality of M second filters g m (n), m=0, 1,..., M-1, whose impulse responses are modulated from a second linear phase prototype filter g(n) with a second predetermined modulation sequence ms2, the second linear phase prototype filter g(n) having a second filter length of L g; • the plurality of first and second filters being arranged in pairs, each pair forming a frequency channel, • the first modulation sequence is a complex or real function of time n, frequency band index m, and a first prototype filter delay τ h, • the second modulation sequence is a complex or real function of time n, frequency band index m, and a second prototype filter delay τ g, • the first filter length L h and the second filter length L g are both uneven, and • the first prototype filter delay τ h is equal to (L h -1)/2 and second prototype filter delay τ g, is equal to (L g -1)/2, and the first and second prototype filter delay τ h and τ g, are constants of the analysis filter bank and the synthesis filter bank, respectively.
Sensor arrangement for a vehicle, comprising - a capacitive sensor device, wherein the capacitive sensor device comprises at least one sensor electrode for capacitive sensing, - a near-field transfer device, the near-field transfer device comprising at least one near-field transfer coil having at least one turn adjacent the sensor electrode for contactless transfer, - control electronics, which is adapted to drive the near-field transfer coil cooperatively with the sensor electrode to support capacitive sensing, characterized in that, the control electronics are further adapted to determine a potential of the near-field transfer coil for the cooperative control in dependence on a potential of the sensor electrode, preferably such that a ratio between the potential of the near-field transfer coil and the potential of the sensor electrode is minimized to reduce a capacitive load in the capacitive detection. - a capacitive sensor device, wherein the capacitive sensor device comprises at least one sensor electrode for capacitive sensing, - a near-field transfer device, the near-field transfer device comprising at least one near-field transfer coil having at least one turn adjacent the sensor electrode for contactless transfer, - control electronics, which is adapted to drive the near-field transfer coil cooperatively with the sensor electrode to support capacitive sensing,
Device wearable on the body for determining and displaying a subjective duration perceived by a user, comprising: one or several sensors generating at least one measuring signal, an indicator allowing the representation of a duration; a processor processing said measuring signal and commanding said indicator, a computer memory storing a computer module executable by said processor in order to command said indicator to indicate the subjective duration of a time interval, in such a manner that said subjective duration is longer than the actual duration of this interval when said user has the impression that the time passes slowly during said interval, and shorter than the actual duration of said interval when said user has the impression that time is passing quickly during said interval, said computer module being characterized in that it is based on an automatic learning system in order to determine said subjective duration on the basis of said at least one measuring signal. one or several sensors generating at least one measuring signal, an indicator allowing the representation of a duration; a processor processing said measuring signal and commanding said indicator, a computer memory storing a computer module executable by said processor in order to command said indicator to indicate the subjective duration of a time interval, in such a manner that said subjective duration is longer than the actual duration of this interval when said user has the impression that the time passes slowly during said interval, and shorter than the actual duration of said interval when said user has the impression that time is passing quickly during said interval, said computer module being characterized in that it is based on an automatic learning system in order to determine said subjective duration on the basis of said at least one measuring signal.
A support roller arrangement for a lift truck comprising: - a bogie with a pair of support rollers (22.1, 22.2); - a bracket for attaching the bogie to a lift truck, wherein the bogie is pivotally attached to the bracket, wherein a spring device that is coupled to the bogie and to the bracket and configured to force the bogie towards a predetermined resting position characterized in that the spring device is a coiled wire spring with a coiled portion and a first end (42.1) that is attached to the bogie and a second end (42.2) that is attached to the bracket. - a bogie with a pair of support rollers (22.1, 22.2); - a bracket for attaching the bogie to a lift truck, wherein the bogie is pivotally attached to the bracket, wherein a spring device that is coupled to the bogie and to the bracket and configured to force the bogie towards a predetermined resting position characterized in that
A vehicle control system for energy efficient driving, the vehicle control system comprises: a processing circuitry (102a,102b) configured to cause the vehicle control system to: determine that the vehicle is approaching a stop point; determine if the vehicle needs to stop at the stop point; determine the presence of at least a first other vehicle (2a,2b,2c) within a predefined distance behind the vehicle; characterized in that the processing circuitry (102a, 102b) is configured to determine the intended route of the at least first other vehicle (2a,2b,2c) for determining if the vehicle is going to prepare at least a first energy saving action or not.
Cosmetic composition, comprising: (i) from 11% to 15% by weight of one or more anionic surfactants, relative to the total weight of the composition, (ii) from 4% to 8% by weight one or more fatty acids, relative to the total weight of the composition, and (iii) one or more antidandruff agents, the anionic surfactant(s)/fatty acid(s) weight ratio being from 1.5 to 3, the composition comprising lauric acid, the anionic surfactants being chosen from (C 6 -C 24)alkyl sulfates, (C 6 -C 24)alkyl ether sulfates comprising from 1 to 50 ethylene oxide units, (C 6 - 40 acyl)glutamates, and (C 6 - 40 acyl)isethionates, especially in the form of alkali metal, ammonium, amino alcohol and alkaline-earth metal salts. (i) from 11% to 15% by weight of one or more anionic surfactants, relative to the total weight of the composition, (ii) from 4% to 8% by weight one or more fatty acids, relative to the total weight of the composition, and (iii) one or more antidandruff agents, the anionic surfactant(s)/fatty acid(s) weight ratio being from 1.5 to 3, the composition comprising lauric acid, the anionic surfactants being chosen from (C 6 -C 24)alkyl sulfates, (C 6 -C 24)alkyl ether sulfates comprising from 1 to 50 ethylene oxide units, (C 6 - 40 acyl)glutamates, and (C 6 - 40 acyl)isethionates, especially in the form of alkali metal, ammonium, amino alcohol and alkaline-earth metal salts.
A rechargeable lithium ion battery assembly for use in a rechargeable jump starting device comprising a positive battery cable and a negative battery cable (22, 144, 322), the rechargeable battery assembly comprising: a rechargeable lithium ion battery (112, 412) comprising one or more lithium ion battery cells, the rechargeable lithium ion battery having a positive terminal tab (414, 512d) and a negative terminal tab; a positive battery conductor connected to the positive terminal tab of the rechargeable lithium ion battery; a negative battery conductor (130, 530) connected to the negative terminal tab of the rechargeable lithium ion battery, the negative battery conductor being electrically connected to the negative cable of the rechargeable jump starting device; and characterized in that a metal sheet (414, 512e), wherein the positive battery cable is rolled up in the metal sheet. a rechargeable lithium ion battery (112, 412) comprising one or more lithium ion battery cells, the rechargeable lithium ion battery having a positive terminal tab (414, 512d) and a negative terminal tab; a positive battery conductor connected to the positive terminal tab of the rechargeable lithium ion battery; a negative battery conductor (130, 530) connected to the negative terminal tab of the rechargeable lithium ion battery, the negative battery conductor being electrically connected to the negative cable of the rechargeable jump starting device; and characterized in that a metal sheet (414, 512e), wherein the positive battery cable is rolled up in the metal sheet.
Tensile energy absorber (32, 50, 100, 150, 200, 250, 300, 350, 400, 450, 500, 550, 600, 650, 700, 750) for a lightweight structure, in particular for aircraft, spacecraft, watercraft and land vehicles, characterized in that the tensile energy absorber (32, 50, 100, 150, 200, 250, 300, 350, 400, 450, 500, 550, 600, 650, 700, 750) has, for the absorption of kinetic energy, a central portion (52, 102, 152, 202, 252, 302, 352, 402, 452, 500, 552, 602, 652, 702, 752) with two attachment regions (54, 56, 154, 156, 204, 206, 254, 256, 304, 306, 354, 356, 404, 406, 454, 456, 504, 506, 554, 556, 604, 606, 654, 656, 704, 706, 754, 756) each adjoining said central portion on the end sides and intended for mechanical attachment to the lightweight structure, wherein at least one longitudinal axis (38, 66, 112, 162, 208, 262, 308, 372, 414, 466, 532, 572, 620, 666, 724, 772) of the tensile energy absorber (32, 50, 100, 150, 200, 250, 300, 350, 400, 450, 500, 550, 600) extends parallel to two oppositely oriented tensile forces F tensile which act on both sides of the attachment regions (54, 56, 154, 156, 204, 206, 254, 256, 304, 306, 354, 356, 404, 406, 454, 456, 504, 506, 554, 556, 604, 606, 654, 656, 704, 706, 754, 756), characterized in that the central portion has a friction body, in particular a cylinder or a cone, as integrated force amplifier which is arranged transversely to the tensile force F tensile and to a holding force F holding oriented oppositely thereto, and a surface of the friction body is covered at least with one winding of a cable which is flexible and tension-resistant at least in certain portions, wherein the holding force F holding is provided by an absorber.