mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for forcing poles and piles into the ground which apparatus comprises a fastening body for attaching it to a working machine, a structure attached to the fastening body with the help of suppression pieces which structure comprises a vibrator unit and gripping jaws; for gripping the pieces to be forced in which case at least one of the gripping jaws is turnable and squeezing jaw and the compression force of said jaw can be directed to the piece to be forced in order to keep the piece in place between the jaws; during the forcing, wherein the turnable and squeezing jaw comprises turning cylinders, the turning forces of which turning cylinders can be separately directed to gripping surfaces of said jaw including an upper and a lower gripping surface of the jaw with the help of an upper arm and a lower arm, wherein the apparatus further comprises - a structure combining said arms; that is located in the direction of a swiveling axis line of said jaw and which structure combining said arms; is adjusted to direct the turning force of all the turning cylinders to all of the gripping surfaces; of the jaw along with the jaw body, and - an axle or pins located at the swiveling axis line of said turnable jaw wherein - the jaw is configured to be turned with a first one of the cylinders, which is at an altitude of a lower part of the jaw and a second one of the cylinders, which is at the altitude of an upper part of the jaw, - the upper arm is arranged at the upper part of the jaw and the lower arm is arranged at the lower part of the jaw, - the axle or pins is/are attached to the structure attached to the fastening body at its lower end and at its upper end such that a distance of the pivot mountings of the jaw has been maximized in the elevation direction. - a structure combining said arms; that is located in the direction of a swiveling axis line of said jaw and which structure combining said arms; is adjusted to direct the turning force of all the turning cylinders to all of the gripping surfaces; of the jaw along with the jaw body, and - an axle or pins located at the swiveling axis line of said turnable jaw wherein - the jaw is configured to be turned with a first one of the cylinders, which is at an altitude of a lower part of the jaw and a second one of the cylinders, which is at the altitude of an upper part of the jaw, - the upper arm is arranged at the upper part of the jaw and the lower arm is arranged at the lower part of the jaw, - the axle or pins is/are attached to the structure attached to the fastening body at its lower end and at its upper end such that a distance of the pivot mountings of the jaw has been maximized in the elevation direction.
A polarization scattering compensation device used for a receiver receiving data modulated on signal in first polarization state and signal in second polarization state and transmitted by a transmitter, characterized in that the polarization scattering compensation device comprises: a) a time sequence alignment unit (300, 300') for aligning time sequences of the signal in the first polarization state and the signal in the second polarization state which is transmitted by the transmitter simultaneously when the signal in the first polarization state is transmitted; b) a polarization scattering estimation unit (400, 500) for estimating a time-domain scattering coefficient of a scattering by the signal in the first polarization state on the signal in the second polarization state, and a time-domain scattering coefficient of a scattering by the signal in the second polarization state on the signal in the first polarization state, according to the signals in the first polarization state and the second polarization state after the time sequence alignment; and c) a polarization scattering removal unit (500, 500') for removing the scattering by the signal in the first polarization state on the signal in the second polarization state, and the scattering by the signal in the second polarization state on the signal in the first polarization state, in accordance with the time-domain scattering coefficient of the scattering by the signal in the first polarization state on the signal in the second polarization state, and the time-domain scattering coefficient of the scattering by the signal in the second polarization state on the signal in the first polarization state estimated by the polarization scattering estimation unit. a) a time sequence alignment unit (300, 300') for aligning time sequences of the signal in the first polarization state and the signal in the second polarization state which is transmitted by the transmitter simultaneously when the signal in the first polarization state is transmitted; b) a polarization scattering estimation unit (400, 500) for estimating a time-domain scattering coefficient of a scattering by the signal in the first polarization state on the signal in the second polarization state, and a time-domain scattering coefficient of a scattering by the signal in the second polarization state on the signal in the first polarization state, according to the signals in the first polarization state and the second polarization state after the time sequence alignment; and c) a polarization scattering removal unit (500, 500') for removing the scattering by the signal in the first polarization state on the signal in the second polarization state, and the scattering by the signal in the second polarization state on the signal in the first polarization state, in accordance with the time-domain scattering coefficient of the scattering by the signal in the first polarization state on the signal in the second polarization state, and the time-domain scattering coefficient of the scattering by the signal in the second polarization state on the signal in the first polarization state estimated by the polarization scattering estimation unit.
A nozzle for extruding a surface comprising: a first outlet configured to controllably extrude a first extrudate of unhardened material; a second outlet configured to controllably extrude a second extrudate of unhardened material that is separated from the first extrudate; and a third outlet configured to extrude a third extrudate of unhardened material between the first and the second extrudates, whereby the third extrudate has a width that is substantially less than the distance between the first and second extrudates; characterized in that: the nozzle further comprises a controller configured to cause the third outlet to reciprocate back and forth such that the third extrudate repeatedly traverses between the first and second extrudates. a first outlet configured to controllably extrude a first extrudate of unhardened material; a second outlet configured to controllably extrude a second extrudate of unhardened material that is separated from the first extrudate; and a third outlet configured to extrude a third extrudate of unhardened material between the first and the second extrudates, whereby the third extrudate has a width that is substantially less than the distance between the first and second extrudates; characterized in that: the nozzle further comprises a controller configured to cause the third outlet to reciprocate back and forth such that the third extrudate repeatedly traverses between the first and second extrudates.
Optical thread position detection device for detecting the rotational position of threads of containers in relation to a longitudinal axis of the container, and comprising at least a container, wherein the optical thread position detection device comprising at least an optical detector (4a, 4b), a processor device and a positioning device for the defined orientation of a longitudinal axis of the containers relative to the detector (4a,b), wherein the positioning device and a defined coupling area (8a,b,c) of the container are designed and intended to be connectable to one another, characterized in that the optical detector (4a,b) is designed and intended to detect position values and information on at least one relative rotational position of at least one thread portion without coming into contact, and wherein the processor device is designed an intended to generate data on the rotational position of the container, incorporating a defined reference variable and at least two substantially spaced apart position values of formed thread portions, wherein the information, i.e. image information, generates data for the rotational position of the container and to transmit information regarding the position of the position values for the preparation or determination of position data to the processor device and wherein the data are processed, modified, supplemented and/or converted image information, wherein the defined reference variable corresponds to a reference point (10a, b, d) arranged independently of the rotational position of the container which is a defined oriented container portion (10a,b) and/or at least one defined marking formed in the beam path of the detector (4a, b) in the area of the positioning device.
Method of producing an article, comprising the steps of: - applying a layer of particles to a target surface; - introducing energy into a selected portion of the layer corresponding to a cross section of the article in a chamber such that the particles in the selected portion are bonded; - repeating the steps of applying and introducing energy for a multitude of layers, such that the bonded portions of the adjacent layers become bonded in order to form the article; where at least some of the particles include a fusible polymer; where the fusible polymer is a polyurethane obtainable from the reaction of a polyisocyanate component and a polyol component, said polyol component comprising a polyesterpolyol, characterized in that the polyesterpolyol has a no-flow point (ASTM D5985) of ≥ 25°C, the fusible polymer has a melting range (DSC, differential scanning calorimetry, 2nd heating operation at heating rate 5 K/min.) of ≥ 20°C to ≤ 100°C, the fusible polymer has a magnitude of the complex viscosity | η *| (determined by viscometry measurement in the melt with a plate/plate oscillation viscometer according to ISO 6721-10 at 100°C and a shear rate of 1/s) of ≥ 10 Pas to ≤ 1 000 000 Pas and in that the temperature within the chamber is ≤ 50°C. - applying a layer of particles to a target surface; - introducing energy into a selected portion of the layer corresponding to a cross section of the article in a chamber such that the particles in the selected portion are bonded; - repeating the steps of applying and introducing energy for a multitude of layers, such that the bonded portions of the adjacent layers become bonded in order to form the article;
A conotoxin peptide κ-CPTx-btl03 for use in therapeutically inhibiting a calcium ion channel, wherein the conotoxin peptide κ-CPTx-btl03 is: (a) a polypeptide having the amino acid sequence shown in SEQ ID NO: 1; or (b) a polypeptide derived from polypeptide (a) by substitution, addition and deletion of one or more amino acids in the amino acid sequence of SEQ ID NO: 1 of polypeptide (a) and having the function of polypeptide (a); wherein the amino acids to be substituted, added or deleted do not include cysteine; the amino acid sequences of polypeptides (a) and (b) contain three pairs of disulfide bonds. (a) a polypeptide having the amino acid sequence shown in SEQ ID NO: 1; or (b) a polypeptide derived from polypeptide (a) by substitution, addition and deletion of one or more amino acids in the amino acid sequence of SEQ ID NO: 1 of polypeptide (a) and having the function of polypeptide (a); wherein the amino acids to be substituted, added or deleted do not include cysteine;
Body part for a motor vehicle, comprising a composite component having at least first and second individual parts (12, 14) and having a plurality of hollow chambers, wherein the first individual part has increased ductility relative to the second individual part for the absorption of impact energy resulting from an accident, and wherein the second individual part, which is designed to support the first individual part has, on the other hand, increased stiffness, wherein the first and second individual parts (12, 14) are formed from different materials, characterised in that the free ends (22, 24) of the free legs (16, 18) of the first individual part are form-fitted to corresponding steps (26, 28) of the second individual part.
A method for controlling a rotary wing aircraft provided with an engine installation comprising a plurality of engines (11, 12) moving said rotary wing, said aircraft comprising a human-machine interface controlling a command chain opening onto a control member suitable for acting on a longitudinal acceleration of the aircraft, said aircraft comprising a control computer, the aircraft being able to operate in an economical operating mode during which at least one of said plurality of engines (11, 12) does not provide mechanical power to said rotary wing and at least one of said plurality of engines (11, 12) provides mechanical power to said rotary wing, characterized in that during the economical operating mode, the method comprises the following steps: - measuring a forward speed of the aircraft, - adjusting an authority of said human-machine interface on said longitudinal acceleration with the control computer as a function of the forward speed. - measuring a forward speed of the aircraft, - adjusting an authority of said human-machine interface on said longitudinal acceleration with the control computer as a function of the forward speed.
A system for harvesting energy from a vehicle in operation, comprising: a plurality of piezoelectric members configured to be coupled between structural members in the vehicle; and electrical conversion circuitry (420a-420n) coupled to each of the plurality of piezoelectric members for converting an output of each of the plurality of piezoelectric members to usable electrical energy, the output or outputs of the electrical conversion circuitry (420a-420n) coupled to an energy storage device for storing the usable electrical energy and/or to an interface circuit for supplying energy for use in an electrical system in the vehicle; wherein a first portion of the plurality of piezoelectric members comprise resonant piezoelectric fillers (410a-410n) configured to be coupled between structural members in the vehicle subject to a cyclical load at a first predetermined frequency during operation of the vehicle, each of the plurality of piezoelectric members in the first portion tuned to optimize energy harvesting at the first predetermined frequency. a plurality of piezoelectric members configured to be coupled between structural members in the vehicle; and electrical conversion circuitry (420a-420n) coupled to each of the plurality of piezoelectric members for converting an output of each of the plurality of piezoelectric members to usable electrical energy, the output or outputs of the electrical conversion circuitry (420a-420n) coupled to an energy storage device for storing the usable electrical energy and/or to an interface circuit for supplying energy for use in an electrical system in the vehicle; wherein a first portion of the plurality of piezoelectric members comprise resonant piezoelectric fillers (410a-410n) configured to be coupled between structural members in the vehicle subject to a cyclical load at a first predetermined frequency during operation of the vehicle, each of the plurality of piezoelectric members in the first portion tuned to optimize energy harvesting at the first predetermined frequency.
Pole pack for a rotor of a synchronous generator of a wind power plant, wherein - the pole pack has a plurality of pole pack laminations and each pole pack lamination comprises a pole shank region and a pole head region, wherein - the pole head region projects laterally beyond the pole shank region, and the pole head region has a side which faces the pole shank region and a side which is averted from the pole shank region, and wherein - the contour of the pole head region is ellipsoidal on that side which is averted from the pole shank region characterized in that the contour of the pole head region on that side which is averted from the pole shank region and at least an adjoining portion of the contour of the pole head region which projects beyond the pole shank region and faces the side which faces the pole shank region is ellipsoidal. - the pole pack has a plurality of pole pack laminations and each pole pack lamination comprises a pole shank region and a pole head region, wherein - the pole head region projects laterally beyond the pole shank region, and the pole head region has a side which faces the pole shank region and a side which is averted from the pole shank region, and wherein - the contour of the pole head region is ellipsoidal on that side which is averted from the pole shank region
A polypeptide consisting of SEQ ID NO: 1 or a functionally equivalent variant thereof having a degree of identity with respect to SEQ ID NO: 1 greater than 70%, wherein the functionally equivalent variant is a polypeptide which results from the insertion or addition of one amino acid and/or from the deletion of one or more amino acids and/or from the conservative substitution of one or more amino acids with respect to the polypeptide of SEQ ID NO: 1 and wherein the functionally equivalent variant thereof can dimerize with Myc and inhibit its activity once found in the nucleus, being capable of translocating across the cell membrane and across the nuclear envelope for use in medicine, wherein the polypeptide or the functionally equivalent variant thereof is to be administered.
An optical volume measurement device, comprising: a main body, comprising a working surface; a pair of photographic lenses (200a, 200b), disposed on the working surface, each of the photographic lenses (200a, 200b) comprising an image acquiring area (201a, 201b) extended forwardly therefrom and capturing images within the image acquiring area (201a, 201b) separately, wherein an resolution distance range is located in front of each photographic lens (200a, 200b), and each photographic lens (200a, 200b) identifies images within the resolution distance range, and the pair of image acquiring areas (201a, 201b) are partially overlapped to form a measurement area within the resolution distance range, wherein the resolution distance range is a range between closest distance and furthest distance that each photographic lenses (200a, 200b) is able to focus and resolve; an optical distance measuring unit, disposed on the working surface; and an optical projecting unit, disposed on the working surface and forwardly projecting an optical alignment indicator in a projection area; wherein the projection area is located in the measurement area within the resolution distance range; and wherein the optical alignment indicator is arranged along two different intersecting sides of the measurement area and across the measurement area, so that users may position an object within the measurement area by aligning the optical alignment indicator with the object. a main body, comprising a working surface; a pair of photographic lenses (200a, 200b), disposed on the working surface, each of the photographic lenses (200a, 200b) comprising an image acquiring area (201a, 201b) extended forwardly therefrom and capturing images within the image acquiring area (201a, 201b) separately, wherein an resolution distance range is located in front of each photographic lens (200a, 200b), and each photographic lens (200a, 200b) identifies images within the resolution distance range, and the pair of image acquiring areas (201a, 201b) are partially overlapped to form a measurement area within the resolution distance range, wherein the resolution distance range is a range between closest distance and furthest distance that each photographic lenses (200a, 200b) is able to focus and resolve; an optical distance measuring unit, disposed on the working surface; and an optical projecting unit, disposed on the working surface and forwardly projecting an optical alignment indicator in a projection area; wherein the projection area is located in the measurement area within the resolution distance range; and wherein the optical alignment indicator is arranged along two different intersecting sides of the measurement area and across the measurement area, so that users may position an object within the measurement area by aligning the optical alignment indicator with the object.
A method for protecting the data of an application compiled in intermediate code planned for being executed on a digital apparatus equipped with a virtual machine managing the execution of the code via an execution stack defining at least one stack frame corresponding to a method called during the execution of the code, characterised in that it comprises the application of a secured execution mode of the code, comprising: - the determination of at least one global checksum (gck) associated with an area of each stack frame and, said global checksum (gck) being calculated using the value of all data from the associated area, - each time that a datum (a) of the code is manipulated, the calculation of a local checksum (LCK(a)) associated with said datum, based on one hand, on the global checksum associated with the area corresponding to the manipulated datum and, on the other hand, on at least one part of the other data constituting said area. - the determination of at least one global checksum (gck) associated with an area of each stack frame and, said global checksum (gck) being calculated using the value of all data from the associated area, - each time that a datum (a) of the code is manipulated, the calculation of a local checksum (LCK(a)) associated with said datum, based on one hand, on the global checksum associated with the area corresponding to the manipulated datum and, on the other hand, on at least one part of the other data constituting said area.
An alpha-amylase variant of a parent alpha-amylase comprising one or more substitutions, using SEQ ID NO: 1 for numbering, or corresponding substitutions, in groups a) and b): group a) I201; group b) K136, K154, K170, K234, K237, K251, K306, K315, K319, K392; wherein the variant has at least 80%, but less than 100% sequence identity to: (i) the mature polypeptide of any of SEQ ID NOs: 1 or 14, or (ii) amino acids 1 to 483 of SEQ ID NO: 1 or amino acids 1 to 481 of SEQ ID NO: 14; wherein the variant has alpha-amylase activity, and wherein the variant has improved stability, in particular improved stability in the presence of glucose, compared to the mature polypeptide of SEQ ID NO: 1 or 14, respectively. group a) I201; group b) K136, K154, K170, K234, K237, K251, K306, K315, K319, K392; (i) the mature polypeptide of any of SEQ ID NOs: 1 or 14, or (ii) amino acids 1 to 483 of SEQ ID NO: 1 or amino acids 1 to 481 of SEQ ID NO: 14;