mhurhangee/patent-ind-claim-en huggingface dataset:
A tamping assembly for a capsule filling machine , the tamping assembly comprising: a dosing disc provided with a plurality of sets of through vertical passages placed equidistantly around the periphery thereof; a bottom plate disposed below the dosing disc to close the vertical passages at the bottom thereof, the bottom plate having an open region aligned with a carousel of the capsule filling machine disposed adjacent to the tamping assembly; and a set of apertures aligned with at-least one set of through vertical passages of the dosing disc; plurality of sets of top tamping plungers disposed above the dosing disc, the set of top tamping plungers aligned with each set of through vertical passages of the dosing disc and configured to be driven downwards for pressing a powdered product in the passages from the top; and at-least one set of bottom tamping plungers disposed below the bottom plate, the set of bottom tamping plungers provided to close each set of apertures of the bottom plate and/or corresponding vertical passages of the dosing disc, and configured to be driven upwards for pressing the powdered product in the vertical passages from the bottom. a dosing disc provided with a plurality of sets of through vertical passages placed equidistantly around the periphery thereof; a bottom plate disposed below the dosing disc to close the vertical passages at the bottom thereof, the bottom plate having an open region aligned with a carousel of the capsule filling machine disposed adjacent to the tamping assembly; and a set of apertures aligned with at-least one set of through vertical passages of the dosing disc; plurality of sets of top tamping plungers disposed above the dosing disc, the set of top tamping plungers aligned with each set of through vertical passages of the dosing disc and configured to be driven downwards for pressing a powdered product in the passages from the top; and at-least one set of bottom tamping plungers disposed below the bottom plate, the set of bottom tamping plungers provided to close each set of apertures of the bottom plate and/or corresponding vertical passages of the dosing disc, and configured to be driven upwards for pressing the powdered product in the vertical passages from the bottom.
A mobile device for commissioning and/or controlling a plurality of nodes comprising: - a motion sensor configured to determine a motion of the mobile device ; - a radiofrequency transceiver configured to receive a respective advertisement of each one of the plurality of nodes ; - a controller configured to receive the motion of the mobile device ; - a user interface , wherein the user interface is a touchscreen display for receiving a user input; wherein the controller is configured to (i) obtain and parse the respective advertisements of the plurality of nodes , when the mobile device is in a first motion, and (ii) display a list comprising the parsed advertisements of the plurality of nodes on the user interface , when the mobile device is in a second motion; wherein the first motion is the mobile device moving along a path , wherein the second motion is the mobile device standing still; wherein the user input comprises selecting a node of the plurality of nodes from said list , wherein the controller is configured to control the radiofrequency transceiver to send a control command to said node in response to said user input of selecting said node; wherein the controller is configured to determine, from the respective advertisement of each one of the plurality of nodes , a respective Received Signal Strength Indicator, RSSI, value indicative of the distance between each one of the plurality of nodes and the mobile device ; wherein said list is hierarchically ordered by the respective RSSI value of the plurality of nodes . - a motion sensor configured to determine a motion of the mobile device ; - a radiofrequency transceiver configured to receive a respective advertisement of each one of the plurality of nodes ; - a controller configured to receive the motion of the mobile device ; - a user interface , wherein the user interface is a touchscreen display for receiving a user input; wherein the controller is configured to (i) obtain and parse the respective advertisements of the plurality of nodes , when the mobile device is in a first motion, and (ii) display a list comprising the parsed advertisements of the plurality of nodes on the user interface , when the mobile device is in a second motion; wherein the first motion is the mobile device moving along a path , wherein the second motion is the mobile device standing still; wherein the user input comprises selecting a node of the plurality of nodes from said list , wherein the controller is configured to control the radiofrequency transceiver to send a control command to said node in response to said user input of selecting said node; wherein the controller is configured to determine, from the respective advertisement of each one of the plurality of nodes , a respective Received Signal Strength Indicator, RSSI, value indicative of the distance between each one of the plurality of nodes and the mobile device ; wherein said list is hierarchically ordered by the respective RSSI value of the plurality of nodes .
A pump capable of delivering a heated fluid, comprising a driving portion , an impeller portion , and a cover portion that are sequentially connected, wherein a fluid inlet and a fluid outlet are provided on the cover portion, the driving portion comprises a first housing , the impeller portion comprises an impeller and a second housing , and the first housing, the second housing, and the cover portion are sequentially fixedly connected to define an impeller cavity for mounting the impeller, wherein the second housing and the impeller are respectively made of materials having same or similar thermal expansion coefficients, wherein the second housing is located on a radial outer side of the impeller and extends in an axial direction, characterized in that the second housing comprises a first flange and a second flange that are located at two ends in the axial direction and a cylindrical peripheral wall located between the first flange and the second flange, and the first flange and the second flange are fixedly connected to the first housing and the cover portion respectively.
A method for processing a control channel at a user agent to identify at least one of an uplink and a downlink resource allocated by a resource grant within a multi-carrier communication system wherein resource grants are specified by control channel element subsets, wherein each control channel element subset is a control channel candidate, the method comprising the steps of: associating a first subset of control channel candidates on a first carrier with the first carrier (f1), wherein the first subset associated with the first carrier includes first carrier candidates; associating a second subset of control channel candidates on the first carrier with a second carrier (f2), wherein the second subset associated with the second carrier includes second carrier candidates; receiving a control channel candidate on the first carrier (f1); and attempting to decode the received control channel candidate to identify a resource grant for the second carrier (f2), wherein there are first, second, fourth and eighth aggregation levels of control channel element subset candidates, and wherein the location of control channel elements corresponding to first carrier control channel candidates and second carrier control channel candidates at each aggregation level are each determined by pseudorandom number. associating a first subset of control channel candidates on a first carrier with the first carrier (f1), wherein the first subset associated with the first carrier includes first carrier candidates; associating a second subset of control channel candidates on the first carrier with a second carrier (f2), wherein the second subset associated with the second carrier includes second carrier candidates; receiving a control channel candidate on the first carrier (f1); and attempting to decode the received control channel candidate to identify a resource grant for the second carrier (f2), wherein there are first, second, fourth and eighth aggregation levels of control channel element subset candidates, and wherein the location of control channel elements corresponding to first carrier control channel candidates and second carrier control channel candidates at each aggregation level are each determined by pseudorandom number.
A method for producing a trivalent chromium based coating on a metal substrate, comprising the steps of: - depositing a layer of nickel phosphorus alloy on a metal substrate; - electroplating a chromium layer on the layer of Ni-P; and - subjecting the coated metal substrate to one or more heat treatments to harden the coating to have a Vickers microhardness of 1000-3000 HV and to produce multiphase layers including at least one layer containing crystalline Ni and crystalline Ni 3 P and at least one layer containing crystalline Cr and crystalline CrNi, characterized in that the chromium layer is electroplated from a trivalent chromium bath. - depositing a layer of nickel phosphorus alloy on a metal substrate; - electroplating a chromium layer on the layer of Ni-P; and - subjecting the coated metal substrate to one or more heat treatments to harden the coating to have a Vickers microhardness of 1000-3000 HV and to produce multiphase layers including at least one layer containing crystalline Ni and crystalline Ni 3 P and at least one layer containing crystalline Cr and crystalline CrNi, characterized in that the chromium layer is electroplated from a trivalent chromium bath.
Joining system with a processing station for a film, having a processing tool at the processing station, which tool can be opened and closed with a closing movement, the film being translated through the joining system in a machine direction and a driven insertion device being provided for inserting the film into the open processing tool, which device has a gripper adapted to keep the film gripped during advancement and to move away from the film with a spacing movement, characterized in that the joining system is adapted to perform the spacing movement of the gripper in timed coordination with the closing movement of the processing tool, which provides for the spacing movement of the gripper to start before the closing movement of the processing tool ends, in particular before the closing movement of the processing tool causes the processing tool to collide with the gripper . characterized in that the joining system is adapted to perform the spacing movement of the gripper in timed coordination with the closing movement of the processing tool, which provides for the spacing movement of the gripper to start before the closing movement of the processing tool ends, in particular before the closing movement of the processing tool causes the processing tool to collide with the gripper .
A method of polar encoding an information vector obtained by multiplying information bits with an expansion matrix for wireless communication performed by a transmitter device , comprising: splitting the information vector in m consecutive elements; determining indices of the m consecutive elements, each of the m consecutive elements having a different index; bit reversing a binary sequence of each of the m consecutive elements, each of the m consecutive elements including a different binary sequence; determining a bit-reversed order of the indices; writing each of the m consecutive elements to a different memory bank in parallel based on the bit-reversed order of the indices; applying a non-reversed polar encoding matrix to the reversed m consecutive elements to obtain a codeword vector ; and transmitting the codeword vector to a receiver device . splitting the information vector in m consecutive elements; determining indices of the m consecutive elements, each of the m consecutive elements having a different index; bit reversing a binary sequence of each of the m consecutive elements, each of the m consecutive elements including a different binary sequence; determining a bit-reversed order of the indices; writing each of the m consecutive elements to a different memory bank in parallel based on the bit-reversed order of the indices; applying a non-reversed polar encoding matrix to the reversed m consecutive elements to obtain a codeword vector ; and transmitting the codeword vector to a receiver device .
A soundproof system (10, 10a, 10b, 10c, 10d, 10e, 10f, 10g 10h, 10i, 10j, 10k, 101, 10m, 10n, 10o, 10p, 10q) comprising: a tube structure having one or more opening ends ; and a soundproof structure , wherein the soundproof structure has an opening portion or a radiation surface on which sound is incident and from which sound is radiated, the opening portion or the radiation surface of the soundproof structure is provided in the tube structure , characterized in that the soundproof structure is configured so that the following Expression is satisfied: θ 1 − θ 2 ≤ π / 2 where θ1 is a phase difference between sound incident on the soundproof structure and sound re-radiated from the soundproof structure ; for one or more maximum values of pressure of sound forming a sound pressure distribution in the tube structure , L is a distance between a position of a center of gravity of the opening portion or the radiation surface of the soundproof structure and a position where the sound pressure has a maximum value in the tube structure ; λ is a wavelength of the sound incident on the soundproof structure ; and θ2 is a phase difference defined as 2π×2L/λ. a tube structure having one or more opening ends ; and a soundproof structure , wherein the soundproof structure has an opening portion or a radiation surface on which sound is incident and from which sound is radiated, the opening portion or the radiation surface of the soundproof structure is provided in the tube structure , characterized in that the soundproof structure is configured so that the following Expression is satisfied: θ 1 − θ 2 ≤ π / 2
A female part of an animal-identifying device, comprising a cavity intended to receive a head of a male part of said animal-identifying device, characterized in that said cavity comprises a blocking element provided within said cavity, intended to hold said head inside said cavity, said blocking element comprising a base and at least two resilient claws extending from said base towards the entrance of said cavity, said base of the blocking element having a cylindrical or partially spherical shape, said claws of said blocking element being shaped as a truncated cone whose smallest diameter corresponds to the diameter of said base and being movable between several positions, comprising: - a resting position before insertion of the head into the cavity, in which the claws are relaxed, - an insertion position, in which the claws are stressed into opening, and - a blocking position after insertion of the head into the cavity, enabling blocking of said head inside said cavity. characterized in that said cavity comprises a blocking element provided within said cavity, intended to hold said head inside said cavity, said blocking element comprising a base and at least two resilient claws extending from said base towards the entrance of said cavity, said base of the blocking element having a cylindrical or partially spherical shape, said claws of said blocking element being shaped as a truncated cone whose smallest diameter corresponds to the diameter of said base and being movable between several positions, comprising: - a resting position before insertion of the head into the cavity, in which the claws are relaxed, - an insertion position, in which the claws are stressed into opening, and - a blocking position after insertion of the head into the cavity, enabling blocking of said head inside said cavity. - a resting position before insertion of the head into the cavity, in which the claws are relaxed, - an insertion position, in which the claws are stressed into opening, and - a blocking position after insertion of the head into the cavity, enabling blocking of said head inside said cavity.
A complex comprising a compound complexed with 212 Pb wherein the compound comprises a PSMA unit and chelating unit, wherein the PSMA unit is carbon-backbone linked to the chelating unit, and wherein the compound is of the formula: p-SCN-Bn-TCMC-PSMA ligand 1.
Computer-implemented method for correcting a 2D measurement value (m), comprising the steps of: - receiving 2D image data (I) of an examination object, - detecting landmarks (LM) in the 2D image data (I) wherein 2D positions (a) of the landmarks (LM) are estimated, - predicting a corrected measurement value (m^_pdf) of the examination object using a trained model (Z(a, I, o ref )), which depends on the received 2D image data (I), the estimated 2D positions (a) of the landmarks (LM) and a reference parameter (o ref ) of a reference 3D orientation of the examination object, characterised in that the trained model (Z(a, I, o ref )) comprises a first trained model (U(I)) and a second trained model (V(m, o^_pdf, o ref )) to be carried out one after another, wherein - an input of the first trained model (U(I)) comprises the 2D image data (I) and - an output of the first trained model (U(I)) comprises estimated 3D orientation parameters (o^_pdf), wherein - an input for the second trained model (V(m, o^_pdf, o ref )) comprises - the estimated 3D orientation parameters (o^_pdf), - the reference parameters (o ref ) of a reference 3D-orientation of the examination object and - a 2D measurement value (m), depending on the estimated 2D positions (a), to be corrected, and - an output of the second trained model (V(m, o^_pdf, o ref )) comprises the corrected measurement value (m^_pdf). - receiving 2D image data (I) of an examination object, - detecting landmarks (LM) in the 2D image data (I) wherein 2D positions (a) of the landmarks (LM) are estimated, - predicting a corrected measurement value (m^_pdf) of the examination object using a trained model (Z(a, I, o ref )), which depends on the received 2D image data (I), the estimated 2D positions (a) of the landmarks (LM) and a reference parameter (o ref ) of a reference 3D orientation of the examination object, characterised in that the trained model (Z(a, I, o ref )) comprises a first trained model (U(I)) and a second trained model (V(m, o^_pdf, o ref )) to be carried out one after another, wherein the trained model (Z(a, I, o ref )) comprises a first trained model (U(I)) and a second trained model (V(m, o^_pdf, o ref )) to be carried out one after another, wherein - an input of the first trained model (U(I)) comprises the 2D image data (I) and - an output of the first trained model (U(I)) comprises estimated 3D orientation parameters (o^_pdf), wherein - an input for the second trained model (V(m, o^_pdf, o ref )) comprises - the estimated 3D orientation parameters (o^_pdf), - the reference parameters (o ref ) of a reference 3D-orientation of the examination object and - a 2D measurement value (m), depending on the estimated 2D positions (a), to be corrected, and - the estimated 3D orientation parameters (o^_pdf), - the reference parameters (o ref ) of a reference 3D-orientation of the examination object and - a 2D measurement value (m), depending on the estimated 2D positions (a), to be corrected, and - an output of the second trained model (V(m, o^_pdf, o ref )) comprises the corrected measurement value (m^_pdf).
An energy storage device comprising: an electrode element including an anode plate, a separator, and a cathode plate; a housing configured to accommodate the electrode element; a terminal plate configured to cover an opened top surface of the housing; and electrode terminals protruding to an outside of the terminal plate and including an anode terminal, a cathode terminal, and two terminal pins, characterized in that the terminal plate consists of: a metal member ; and a sealing member that surrounds a top surface and a bottom surface of the metal member, and an outermost side surface between the top surface and the bottom surface, wherein the sealing member comprises an outer upper horizontal portion, an outer lower horizontal portion, and an outer vertical portion disposed between the housing and the metal member, and wherein the metal member has a plurality of through holes formed in a region thereof so as to accommodate the sealing member, the plurality of through holes being filled with the sealing member. an electrode element including an anode plate, a separator, and a cathode plate; a housing configured to accommodate the electrode element; a terminal plate configured to cover an opened top surface of the housing; and electrode terminals protruding to an outside of the terminal plate and including an anode terminal, a cathode terminal, and two terminal pins, characterized in that the terminal plate consists of: a metal member ; and a sealing member that surrounds a top surface and a bottom surface of the metal member, and an outermost side surface between the top surface and the bottom surface, wherein the sealing member comprises an outer upper horizontal portion, an outer lower horizontal portion, and an outer vertical portion disposed between the housing and the metal member, and wherein the metal member has a plurality of through holes formed in a region thereof so as to accommodate the sealing member, the plurality of through holes being filled with the sealing member. a metal member ; and a sealing member that surrounds a top surface and a bottom surface of the metal member, and an outermost side surface between the top surface and the bottom surface, wherein the sealing member comprises an outer upper horizontal portion, an outer lower horizontal portion, and an outer vertical portion disposed between the housing and the metal member, and wherein the metal member has a plurality of through holes formed in a region thereof so as to accommodate the sealing member, the plurality of through holes being filled with the sealing member.
A control method for an internal combustion engine carried out by means of a feedback control of the speed of the engine itself, based on an error (Err) of said speed of the engine, calculated between a reference value (Ref) and a measured value (Speed) of the speed, wherein said control comprises a sum (S2) of a proportional contribution (D) and an integral contribution (I), the method comprising a step of also adding a derivative contribution (D) only when it occurs at least that a first sign of said error and a second sign of a derivative of said engine speed are concordant to one another; characterized by further comprising the step of saturating said integral contribution as a function of (F(Err, ΔSpeed)): - a derivative (ΔSpeed) of said measured value of the speed (Speed) of the engine, and - said speed error (Err), when said first sign of said error and said second sign of said derivative contribution are at least discordant to one another. - a derivative (ΔSpeed) of said measured value of the speed (Speed) of the engine, and - said speed error (Err),