mhurhangee/ep-ind-claims huggingface dataset:
A security feature for value documents, in particular bank notes, identification cards and the like, wherein the security feature comprises at least two tactilely detectable structures which are located on at least one side of a substrate of the value document, wherein each of the at least two tactilely detectable structures comprises a tactilely detectable surface condition, and wherein the surface condition of at least two tactilely detectable structures differs, characterized in that the sum of the surfaces of the at least two tactilely detectable structures amounts to at least 30%, preferably at least 50%, based on the total surface of one side of the value document.
An apparatus comprising: a first oscillator configured to generate a first frequency comprising a first ideal component and a first non-ideal component; a second oscillator configured to generate a second frequency comprising a second ideal component and a second non-ideal component; and a processing means configured to: determine a difference between the first frequency and the second frequency; characterised in that the processing means is further configured to determine the first non-ideal component of the first frequency based on the difference between the first frequency and the second frequency, where a relationship between the difference between the first and second frequencies and the first non-ideal component of the first frequency is modelled; and wherein, the determined first non-ideal component of the first frequency is used to compensate the first frequency. a first oscillator configured to generate a first frequency comprising a first ideal component and a first non-ideal component; a second oscillator configured to generate a second frequency comprising a second ideal component and a second non-ideal component; and a processing means configured to: determine a difference between the first frequency and the second frequency; characterised in that the processing means is further configured to determine the first non-ideal component of the first frequency based on the difference between the first frequency and the second frequency, where a relationship between the difference between the first and second frequencies and the first non-ideal component of the first frequency is modelled; and wherein, the determined first non-ideal component of the first frequency is used to compensate the first frequency. determine a difference between the first frequency and the second frequency; characterised in that the processing means is further configured to determine the first non-ideal component of the first frequency based on the difference between the first frequency and the second frequency, where a relationship between the difference between the first and second frequencies and the first non-ideal component of the first frequency is modelled; and wherein, the determined first non-ideal component of the first frequency is used to compensate the first frequency.
A raw edge V-belt for transmission, the raw edge V-belt comprising: a V-belt body made of rubber, both sides of the V-belt body in a belt width direction serving as a pulley contact surface; and a cord embedded in the V-belt body so as to form a helical pattern having a pitch in the belt width direction, wherein the cord is made of a plied yarn obtained by first twisting, in one direction, each of a plurality of filament bundles, each being made of polyester fibers of 2000 dtex or more to 3000 dtex or less, to make a plurality of first-twist yarns, paralleling the plurality of first-twist yarns, and second twisting the plurality of first-twist yarns in a direction opposite to the first twisting, characterized by a shrinkage force per dtex of the polyester fibers forming the cord, generated in a belt length of 300 mm when the raw edge V-belt is held in a temperature atmosphere of 120°C for one hour is 0.0015 N or more. a V-belt body made of rubber, both sides of the V-belt body in a belt width direction serving as a pulley contact surface; and a cord embedded in the V-belt body so as to form a helical pattern having a pitch in the belt width direction, wherein the cord is made of a plied yarn obtained by first twisting, in one direction, each of a plurality of filament bundles, each being made of polyester fibers of 2000 dtex or more to 3000 dtex or less, to make a plurality of first-twist yarns, paralleling the plurality of first-twist yarns, and second twisting the plurality of first-twist yarns in a direction opposite to the first twisting, characterized by a shrinkage force per dtex of the polyester fibers forming the cord, generated in a belt length of 300 mm when the raw edge V-belt is held in a temperature atmosphere of 120°C for one hour is 0.0015 N or more.
Method for making a piezoelectric device and electrodes for monitoring the structural integrity of a structure, comprising the steps of: - defining a directivity function D(k1,k2) that has, in the domain of wave numbers, a plurality of maxima arranged on different concentric circumferences having center in the origin of the axes, - computing a load distribution in spatial coordinates f(x1,x2) by inverse Fourier transform of the directivity function D(k1,k2) defined in the domain of wave numbers, - making said device and electrodes, wherein - the directivity function D(k1,k2) is asymmetrical, - the electrodes (1,2,3..n) of the device are made according to the following steps: - gathering the values of the load distribution f(x1,x2) in the complex plane (R,I), - defining at least two sectors of said plane that comprise at least one real value and one imaginary value, - making said plurality of electrodes equal in number to the number of the defined sectors, wherein each electrode of said plurality has a shape corresponding to the points of the load distribution f(x1,x2) that lie in the same sector. - defining a directivity function D(k1,k2) that has, in the domain of wave numbers, a plurality of maxima arranged on different concentric circumferences having center in the origin of the axes, - computing a load distribution in spatial coordinates f(x1,x2) by inverse Fourier transform of the directivity function D(k1,k2) defined in the domain of wave numbers, - making said device and electrodes, wherein - the directivity function D(k1,k2) is asymmetrical, - the electrodes (1,2,3..n) of the device are made according to the following steps: - gathering the values of the load distribution f(x1,x2) in the complex plane (R,I), - defining at least two sectors of said plane that comprise at least one real value and one imaginary value, - making said plurality of electrodes equal in number to the number of the defined sectors, wherein each electrode of said plurality has a shape corresponding to the points of the load distribution f(x1,x2) that lie in the same sector. - gathering the values of the load distribution f(x1,x2) in the complex plane (R,I), - defining at least two sectors of said plane that comprise at least one real value and one imaginary value, - making said plurality of electrodes equal in number to the number of the defined sectors, wherein each electrode of said plurality has a shape corresponding to the points of the load distribution f(x1,x2) that lie in the same sector.
A method for evaluating a user Quality of Experience (QoE) score in a wireless network (201, 202), comprising: capturing data packets from network interfaces in the wireless network (201, 202); identifying video sessions associated with the captured data packets; monitoring key parameters for the video sessions within the captured data packets; and determining an effective throughput per video session based upon the key parameters; characterized by calculating a QoE score for one or more users associated with the video sessions based upon the effective throughput per video session; transcoding video data in a video transcoding device (112, 113, 213); inserting a header extension into transcoded video data packets associated with the video sessions, the header extension comprising summary data comprising a codec, bit-rate or resolution for original data received at the video transcoding device (112, 113, 213) from a video source and a codec, bit-rate or resolution of the transcoded video data; evaluating an impact of video transcoding on the QoE score using the summary data in the header extension; and sending updates to a transcoding policy engine, the updates identifying the impact of video transcoding on the QoE score. capturing data packets from network interfaces in the wireless network (201, 202); identifying video sessions associated with the captured data packets; monitoring key parameters for the video sessions within the captured data packets; and determining an effective throughput per video session based upon the key parameters; calculating a QoE score for one or more users associated with the video sessions based upon the effective throughput per video session; transcoding video data in a video transcoding device (112, 113, 213); inserting a header extension into transcoded video data packets associated with the video sessions, the header extension comprising summary data comprising a codec, bit-rate or resolution for original data received at the video transcoding device (112, 113, 213) from a video source and a codec, bit-rate or resolution of the transcoded video data; evaluating an impact of video transcoding on the QoE score using the summary data in the header extension; and sending updates to a transcoding policy engine, the updates identifying the impact of video transcoding on the QoE score.
A multi input multi output, MIMO, antenna device for a terminal, comprising: a main board, two end areas of the main board being respectively provided with a group of antenna radiating units, a middle area of the main board being provided with a metal ground unit, wherein a first group of antenna radiating units on one end area of the main board comprises a first top-layer radiating subunit and a first bottom-layer radiating subunit placed in the end area, a second group of antenna radiating units on the other end area of the main board comprises a second top-layer radiating subunit and a second bottom-layer radiating subunit placed in the end area, and the metal ground unit on the middle area of the main board comprises a top-layer metal ground and a bottom-layer metal ground, and a first feeding port and a second feeding port are arranged on the bottom metal ground. a main board, two end areas of the main board being respectively provided with a group of antenna radiating units, a middle area of the main board being provided with a metal ground unit, wherein a first group of antenna radiating units on one end area of the main board comprises a first top-layer radiating subunit and a first bottom-layer radiating subunit placed in the end area, a second group of antenna radiating units on the other end area of the main board comprises a second top-layer radiating subunit and a second bottom-layer radiating subunit placed in the end area, and the metal ground unit on the middle area of the main board comprises a top-layer metal ground and a bottom-layer metal ground, and a first feeding port and a second feeding port are arranged on the bottom metal ground.
Splicing device for splicing yarn, comprising a valve block for regulating a fluid flow and one or more conduit element s, in particular tubular elements, for transporting fluids, in particular compressed air, wherein the valve block comprises a valve block housing with a valve block housing casing, wherein the valve block housing casing comprises the interior of the valve block housing, characterised in that the one or more conduit element s are arranged continuously in the interior of the valve block housing, wherein a fluid supply connection is connected to an actuator element connection for an actuator element by the conduit element or elements, wherein the valve block housing is manufactured in one piece with the conduit element or elements.
A wiper frame comprising a liquid distributing and/or spraying device comprising: - at least one liquid circulation duct of which one longitudinal end opens into an end face of the device; - a plug for plugging said longitudinal end of the liquid circulation duct and which is inserted into a longitudinal end portion of said duct; - and an endpiece arranged facing said end face of the device, the plug being a component distinct from the endpiece, so that the endpiece and the plug together plug said longitudinal end of the liquid circulation duct, characterized in that the endpiece comprises a stem which is received inside said longitudinal end portion of said duct. - at least one liquid circulation duct of which one longitudinal end opens into an end face of the device; - a plug for plugging said longitudinal end of the liquid circulation duct and which is inserted into a longitudinal end portion of said duct; - and an endpiece arranged facing said end face of the device,
Lighting system for growing of plants in a plant growth space, the system comprising a lighting arrangement consisting of several, preferably on external power supply operable electric lamps, having one or more electric components (1a1) that bring about a light function, and a cooling arrangement at least for cooling down the light producing components of the lamps due to heat being generated by the lamps while producing light, wherein the lighting system is arranged to be utilized in connection with the cooling arrangement being separate with respect to the lamps of the lighting arrangement and comprising a cooling structure, being made of a heat conducting plastic, metallic and/or magnetic material, wherein the lamps belonging to the lighting arrangement comprise a mechanical fastening frame (1a2), being coupled in a built-in manner in connection with its one or more electric components (1a1), such as LEDs or like, in order to attach the lamps externally against an outer surface of the cooling structure for cooling the lamps conductively through the cooling structure, and wherein the cross section of the cooling structure stays constant essentially uninterruptedly in the plant growth space and, in which the lamps are installable at a freely chosen point in longitudinal direction (s) thereof and/or in radial direction, when viewed in a cross section thereof, characterized in that,the cooling arrangement includes: a feed and return piping (I,II) for a cooling medium in liquid form that is connected with a delivery piping in the plant growth space, wherein the delivery piping acting as the cooling structure comprises a pipe that has in one and the same cross section at least two flow channels (2a") at least for a feed flow of the cooling medium from the feed piping in one of the channels and for a return flow thereof to the return piping in another channel thereof, and/or the cooling structure that has a heat radiating surface with cooling fins. a feed and return piping (I,II) for a cooling medium in liquid form that is connected with a delivery piping in the plant growth space, wherein the delivery piping acting as the cooling structure comprises a pipe that has in one and the same cross section at least two flow channels (2a") at least for a feed flow of the cooling medium from the feed piping in one of the channels and for a return flow thereof to the return piping in another channel thereof, and/or the cooling structure that has a heat radiating surface with cooling fins.
A method performed by a user equipment, UE, for wireless communications, comprising: receiving, at the UE, a configuration of a first radio access technology, RAT, including a plurality of parameters associated with a plurality of first channels of the first RAT, wherein the first RAT includes a long term evolution, LTE, network and wherein the second RAT includes a new radio, NR, network; and determining, based on the plurality of parameters, a location of a common reference signal, CRS, associated with each first channel of the plurality of first channels; receiving, at the UE, a second channel associated with a second RAT different from the first RAT, wherein the second channel of the second RAT overlaps with the plurality of first channels of the first RAT in a frequency domain; and adapting a rate matching around the location of the CRS based on a frequency offset between the second channel and each first channel when the RBs of the second channel are unaligned with the RBs of the plurality of first channels. receiving, at the UE, a configuration of a first radio access technology, RAT, including a plurality of parameters associated with a plurality of first channels of the first RAT, wherein the first RAT includes a long term evolution, LTE, network and wherein the second RAT includes a new radio, NR, network; and determining, based on the plurality of parameters, a location of a common reference signal, CRS, associated with each first channel of the plurality of first channels; receiving, at the UE, a second channel associated with a second RAT different from the first RAT, wherein the second channel of the second RAT overlaps with the plurality of first channels of the first RAT in a frequency domain; and adapting a rate matching around the location of the CRS based on a frequency offset between the second channel and each first channel when the RBs of the second channel are unaligned with the RBs of the plurality of first channels.
Installation for manufacturing containers from preforms made of thermoplastic material, said installation comprising at least: - one molding machine which comprises at least one molding device comprising a mold having a main axis, said mold comprising at least two mold elements (14, 16, 34) each provided with a molding surface (18, 36) and which are mounted to move between an open position and a closed position of the mold, and - a device for decontaminating at least one mold borne by a molding device of the machine, said decontamination device associated with the machine comprising at least ultraviolet radiation irradiation means, characterized in that said decontamination device comprises means for driving said ultraviolet radiation irradiation means to introduce said irradiation means between said at least two constituent mold elements (14, 16, 34) of the mold of the molding device, said driving means being controlled to displace said irradiation means relative to the machine between at least: - a rest position in which the irradiation means are retracted to avoid any interference between said irradiation means of the decontamination device and the mold of the molding device of the machine, and at least - a working position in which the irradiation means are arranged inside the mold occupying its open position, between said elements (14, 16, 34) of the mold to decontaminate by irradiation at least said molding surfaces (18, 36). - one molding machine which comprises at least one molding device comprising a mold having a main axis, said mold comprising at least two mold elements (14, 16, 34) each provided with a molding surface (18, 36) and which are mounted to move between an open position and a closed position of the mold, and - a device for decontaminating at least one mold borne by a molding device of the machine, said decontamination device associated with the machine comprising at least ultraviolet radiation irradiation means, - a rest position in which the irradiation means are retracted to avoid any interference between said irradiation means of the decontamination device and the mold of the molding device of the machine, and at least - a working position in which the irradiation means are arranged inside the mold occupying its open position, between said elements (14, 16, 34) of the mold to decontaminate by irradiation at least said molding surfaces (18, 36).
A two-stroke internal combustion engine comprising: two opposed cylinders, each cylinder housing two opposed pistons (3,4,5,6) and having one or more intake ports and one or more exhaust ports, and a crankshaft for driving the pistons (3,4,5,6), characterised in that each cylinder comprises a sleeve-valve (7,8) drivable by the crankshaft to control the opening and closing of the intake and exhaust port or ports (33,35); and the pistons (3,4,5,6) and the sleeve valves (7,8) in each cylinder operate to open its exhaust port or ports before its intake port or ports and to close its exhaust port or ports before its intake port or ports. two opposed cylinders, each cylinder housing two opposed pistons (3,4,5,6) and having one or more intake ports and one or more exhaust ports, and a crankshaft for driving the pistons (3,4,5,6), characterised in that each cylinder comprises a sleeve-valve (7,8) drivable by the crankshaft to control the opening and closing of the intake and exhaust port or ports (33,35); and the pistons (3,4,5,6) and the sleeve valves (7,8) in each cylinder operate to open its exhaust port or ports before its intake port or ports and to close its exhaust port or ports before its intake port or ports.
A formulation comprising fenfluramine or a pharmaceutically acceptable salt thereof for use in the treatment of Dravet syndrome, wherein the formulation is for oral administration, and wherein said treatment comprises administration of fenfluramine as a monotherapy, as the sole therapeutic agent.
Mixed crystalline form of agomelatine, its X-ray diffraction diagram having the following values for Bragg angle 2θ: 2θ° 9.493 9.809 10.815 11.171 11.879 12.770 13.811 14.939 15.315 16.085 17.544 18.491 19.065 19.538 19.774 20.801 21.156 21.807 22.499 23.032 23.780 24.610 25.419 27.075 31.931 including crystals whose peak diffraction angles are within 2θ±0.2° of the above.
A system, comprising: at least two independent implantable devices adapted to communicate with each other, each including a port to connect to a lead with at least one electrode; and each further including a stimulator circuit (206A, 209, 203A; 327; 641) connected to the respective port: the stimulator circuit for a first one of the independent implantable devices being adapted to deliver neural stimulation to a neural stimulation target using the at least one electrode, the first one of the devices further including a first controller configured to implement a first algorithm to control delivery of the neural stimulation through a first intended current path; a second one of the independent implantable devices including a second controller configured to implement a second algorithm to control delivery of another energy discharge through a second intended current path; wherein the first controller is adapted to prevent delivery of the neural stimulation while the other energy discharge is occurring to prevent an unintended current path (643B, 643C). at least two independent implantable devices adapted to communicate with each other, each including a port to connect to a lead with at least one electrode; and each further including a stimulator circuit (206A, 209, 203A; 327; 641) connected to the respective port: the stimulator circuit for a first one of the independent implantable devices being adapted to deliver neural stimulation to a neural stimulation target using the at least one electrode, the first one of the devices further including a first controller configured to implement a first algorithm to control delivery of the neural stimulation through a first intended current path; a second one of the independent implantable devices including a second controller configured to implement a second algorithm to control delivery of another energy discharge through a second intended current path; wherein the first controller is adapted to prevent delivery of the neural stimulation while the other energy discharge is occurring to prevent an unintended current path (643B, 643C).