mhurhangee/ep-ind-claims huggingface dataset:
A closure for a cylindrical vessel, the closure comprising: holding means for properly securing the closure in a fully closed state, the holding means having a predetermined actuation force; and at least one mechanical fuse including a shear pin in communication with the holding means; the shear pin having a predetermined load failure force below that of a load failure force of another component of the closure and above that of the predetermined actuation force of the holding means, the another component of the closure selected from the group consisting of a lug containing the shear pin and a pivot point of the holding means.
A method of moulding a settable material including the steps of: providing a first mould or mould cavity; providing an outlet from which a settable material is discharged; aligning the first mould or mould cavity with the outlet; discharging settable material from the outlet into the first mould or mould cavity; providing a second mould or mould cavity; displacing the first mould or mould cavity away from the outlet; aligning the second mould or mould cavity with: (i) the outlet; and (ii) the first mould or mould cavity such that the second mould or mould cavity is in fluid communication with the first mould or mould cavity; discharging settable material from the outlet into the second mould or mould cavity; permitting a portion of the settable material discharged into the second mould or mould cavity to flow from within the second mould or mould cavity to within the first mould or mould cavity; further displacing the first mould or mould cavity and the second mould or mould cavity away from the outlet; permitting: (i) the settable material in the first mould or mould cavity to set into a first moulded article; and (ii) the settable material in the second mould or mould cavity to set into a second moulded article; and severing the first moulded article from the second moulded article; characterised in that the second mould or mould cavity is placed on top of the first mould or mould cavity. providing a first mould or mould cavity; providing an outlet from which a settable material is discharged; aligning the first mould or mould cavity with the outlet; discharging settable material from the outlet into the first mould or mould cavity; providing a second mould or mould cavity; displacing the first mould or mould cavity away from the outlet; aligning the second mould or mould cavity with: (i) the outlet; and (ii) the first mould or mould cavity such that the second mould or mould cavity is in fluid communication with the first mould or mould cavity; discharging settable material from the outlet into the second mould or mould cavity; permitting a portion of the settable material discharged into the second mould or mould cavity to flow from within the second mould or mould cavity to within the first mould or mould cavity; further displacing the first mould or mould cavity and the second mould or mould cavity away from the outlet; permitting: (i) the settable material in the first mould or mould cavity to set into a first moulded article; and (ii) the settable material in the second mould or mould cavity to set into a second moulded article; and severing the first moulded article from the second moulded article; characterised in that the second mould or mould cavity is placed on top of the first mould or mould cavity.
A method for preparing a bridged bi-aromatic phenol ligand of formula from a compound containing at least one phenol moiety wherein the at least one phenol moiety remains unprotected during all steps of the method and the method comprises at least one step of aryl coupling; wherein the method comprises the step of: treating a unprotected phenol of formula with a compound of formula in the presence of a catalyst so as to form the compound of formula; wherein each of R 1, R 2, R 3, R 4, R 5, R 6, R 7, R 8, R 9, R 10, R 11, R 12, R 13 and R 14 is independently selected from the group consisting of hydride, halide, optionally substituted hydrocarbyl, heteroatom-containing optionally substituted hydrocarbyl, alkoxy, aryloxy, silyl, boryl, dialkyl amino, alkylthio, arylthio and seleno; optionally two or more R groups can combine together into ring structures with such ring structures having from 3 to 100 non-hydrogen atoms in the ring; A is a bridging group having from one to 50 non-hydrogen atoms; Y and Y' are independently selected from O, S, NR a and PR a wherein R a is optionally substituted hydrocarbyl; X is halide; Ar is optionally substituted aryl or optionally substituted heteroaryl; Z and Z' are independently selected from BR b 2 and BF 3 - M +, wherein R b is independently selected from hydride, alkyl, hydroxy and alkoxy, wherein when both of R b are alkoxy, optionally they may combine to form a ring structure of formula BO 2 R b 2, and wherein M + is an alkali metal cation.
A safety puncturing system comprising a cannula and a guidewire, wherein the cannula has a distal end having a bevel, a proximal end and a lumen for receiving the guidewire, wherein the guidewire has a proximal section having a proximal end and a distal end and a distal section, wherein the proximal section is releasably connected to the distal section and wherein the proximal end of the proximal section has an expanded region, characterized in that the cannula further has a first length and the proximal section of the guidewire has a second length greater than the first length. wherein the cannula has a distal end having a bevel, a proximal end and a lumen for receiving the guidewire, wherein the guidewire has a proximal section having a proximal end and a distal end and a distal section, wherein the proximal section is releasably connected to the distal section and wherein the proximal end of the proximal section has an expanded region, characterized in that the cannula further has a first length and the proximal section of the guidewire has a second length greater than the first length.
A pane with at least one electrical connection element with a connection bridge, comprising at least - a substrate with an electrically conductive structure on at least one subregion of the substrate, - at least one electrical connection element on at least one subregion of the electrically conductive structure, - a connection bridge on at least one subregion of the connection element, and - a leadfree solder material, which connects the electrical connection element to the electrically conductive structure in at least one subregion, wherein the difference between the coefficients of thermal expansion of the substrate and the connection element is less than 5 x 10 -6 /°C, wherein the connection bridge is implemented as a solid and contains copper, and wherein the material compositions of the connection element and the connection bridge are different. - a substrate with an electrically conductive structure on at least one subregion of the substrate, - at least one electrical connection element on at least one subregion of the electrically conductive structure, - a connection bridge on at least one subregion of the connection element, and - a leadfree solder material, which connects the electrical connection element to the electrically conductive structure in at least one subregion,
A station for application of fluid media, especially glue, to a substrate, for instance to a blank or a web of material for a cigarette packet, with at least one valve group (13a, 13b) comprising valves, wherein with each valve of the valve group (13a, 13b), fluid medium can be applied in each case in targeted manner to the substrate, wherein each valve is automatically movable in each case from a working position, in which it can apply the fluid medium to the substrate, to a nonworking position (2, 3), wherein the valve group (13a, 13b) is made up of redundant valves, each of which when needed may take over the function of another valve of the valve group (13a, 13b), and wherein in the event that a first valve of the valve group (13a, 13b) is moved to the nonworking position (2, 3), a second valve of the valve group (13a, 13b) can be moved into a working position instead of the first valve and takes over the function of the first valve, characterized in that each valve of the group (13a, 13b) is individually swivelable about a common axis of rotation (16a, 16b) from the respective nonworking position (2, 3) to the respective working position and back, wherein each valve is secured to its own movable pivot arm, assigned to it only, which is swivelable about the common axis of rotation (16a, 16b).
Method for manufacturing panels (1, 5) of the type which is at least composed of a substrate and, provided on said substrate, a top layer with a printed decor, wherein the top layer comprises at least two material layers, namely at least a first material layer forming a basic layer for a second material layer provided thereon in the form of a print, wherein the method consists at least of applying said two material layers, wherein said print or second material layer is performed with a printing operation taking place directly on the substrate material and this print forms at least a portion of said printed decor, characterized in that said print is based on water-based pigmented inks and for applying said first material layer or basic layer, it is started from a water-based two-component lacquer, wherein said water-based two-component lacquer as a first component comprises a dispersion of amine-, hydroxy- or carboxy-functional acrylate copolymer or a polyester polyol, polyether polyol or a vinyl polymer, and as a second component comprises an isocyanate or an aziridine component and wherein said two-component lacquer is pigmented, and in that the method also comprises at least the step of providing a transparent or translucent synthetic material layer above said print and that for providing said transparent or translucent layer, it is started from a thermo-hardening resin, such as melamine.
Overspeed governor for an elevator with a toothed timing belt, comprising a clutch (12,15) that limits the blocking force, a toothed pulley engaged by the toothed timing belt, the pulley rotates on a hollow tube, a centrifugal or inertial governing system which is installed on the pulley (6,7), such that when a certain rotation speed of the governing pulley (1,13) is exceeded, the governing system (6,7) abuts against a stop, which stop is concentric with the governing pulley and joins the steering linkage in such a way that the rotation of the stop causes the steering linkage to move by means of the rotation of the steering linkage rod, once the safety gear and the steering linkage are activated the clutch (12,15) allows the toothed pulley to continue to rotate, the clutch (12,15) is set out between the outer toothed wheel of the governing pulley and its inner part, wherein to ensure that tension of the toothed belt is not necessary for the safety gear performance the system is fitted out with one or several diverting pulleys, these pulleys are positioned on a plate connected to a hollow tube or axis on which the pulley rotates, wherein the overspeed governor is further defined by the fact that it consists in using a hollow tube as a rotating axis on the outer part of which the governing pulley is installed and on the inner part of which the steering linkage rod engages, the rest of the components such as the stop and/or the clutch (12,15) also use this hollow tube as rotating axis, further defined in that due to the coupling system with belt and the fact that the toothed wheel functions connected to the lift car, there is no sliding between the latter and the timing belt which makes it possible using an encoder or sensor on the governing pulley, to know the exact position of the lift car.
A moisture-transporting molded bra cup for a sport bra, characterized by the molded bra cup comprising: a first foam zone having a first average cell size, the first foam zone substantially adjacent to a skin surface of a wearer when the sport bra is worn; and a second foam zone having a second average cell size, the second average cell size greater than the first average cell size, the second foam zone comprising an exterior face of the molded bra cup.
A method for calibration and/or error detection in an optical measurement device for biological samples having at least a first and a second measurement channel (3b,..., 3n), the method comprising: between measurements of biological samples in the second measurement channel (3b,..., 3n) of the optical measurement device, repeatedly performing a reference factor update process including: obtaining one or more current reference factors for the second measurement channel (3b,..., 3n), each reference factor being indicative of a relationship between previously obtained measurement signals in the first and second measurement channel (3b,..., 3n) of the optical measurement device; determining a first detection signal of the first measurement channel not including the biological sample; determining a second detection signal of the second measurement channel (3b,..., 3n); calculating an updated reference factor for the second measurement channel (3b,..., 3n) based on the first and second detection signals; comparing the updated reference factor with at least one of the one or more current reference factors; and depending on the result of the comparison, either storing the updated reference factor as a new current reference factor for use in a later measurement in the second measurement channel (3b,...,3n) or keeping the one or more current reference factors for use in a later measurement in the second measurement channel (3b,...,3n), wherein updated reference factors based on the first and second detection signals determined when the biological sample is present in the second measurement channel (3b,..., 3n) are discarded. obtaining one or more current reference factors for the second measurement channel (3b,..., 3n), each reference factor being indicative of a relationship between previously obtained measurement signals in the first and second measurement channel (3b,..., 3n) of the optical measurement device; determining a first detection signal of the first measurement channel not including the biological sample; determining a second detection signal of the second measurement channel (3b,..., 3n); calculating an updated reference factor for the second measurement channel (3b,..., 3n) based on the first and second detection signals; comparing the updated reference factor with at least one of the one or more current reference factors; and depending on the result of the comparison, either storing the updated reference factor as a new current reference factor for use in a later measurement in the second measurement channel (3b,...,3n) or keeping the one or more current reference factors for use in a later measurement in the second measurement channel (3b,...,3n), wherein updated reference factors based on the first and second detection signals determined when the biological sample is present in the second measurement channel (3b,..., 3n) are discarded.
A neural network system implemented by one or more computers, the neural network system comprising: a decoder neural network, wherein the decoder neural network is a recurrent neural network that is configured to, for each of a plurality of time steps: receive a decoder input for the time step, and process the decoder hidden state vector for the preceding time step and the decoder input to generate a decoder hidden state vector for the time step; and a subsystem, wherein the subsystem is configured to, for each of the time steps: generate the decoder input for the time step for the decoder neural network, wherein generating the decoder input for the decoder neural network comprises selecting latent variable samples from a prior distribution; provide the decoder input as input to the decoder neural network for the time step; generate a neural network output update for the time step from the decoder hidden state vector for the time step; and combine the neural network output update for the time step with a current neural network output to generate an updated neural network output, wherein the updated neural network output is one of an image, video or speech output. a decoder neural network, wherein the decoder neural network is a recurrent neural network that is configured to, for each of a plurality of time steps: receive a decoder input for the time step, and process the decoder hidden state vector for the preceding time step and the decoder input to generate a decoder hidden state vector for the time step; and receive a decoder input for the time step, and process the decoder hidden state vector for the preceding time step and the decoder input to generate a decoder hidden state vector for the time step; and a subsystem, wherein the subsystem is configured to, for each of the time steps: generate the decoder input for the time step for the decoder neural network, wherein generating the decoder input for the decoder neural network comprises selecting latent variable samples from a prior distribution; provide the decoder input as input to the decoder neural network for the time step; generate a neural network output update for the time step from the decoder hidden state vector for the time step; and combine the neural network output update for the time step with a current neural network output to generate an updated neural network output, wherein the updated neural network output is one of an image, video or speech output. generate the decoder input for the time step for the decoder neural network, wherein generating the decoder input for the decoder neural network comprises selecting latent variable samples from a prior distribution; provide the decoder input as input to the decoder neural network for the time step; generate a neural network output update for the time step from the decoder hidden state vector for the time step; and combine the neural network output update for the time step with a current neural network output to generate an updated neural network output, wherein the updated neural network output is one of an image, video or speech output.
Separating device for separating veneering materials, comprising a separating knife with a blade as well a drive which is coupled to the separating knife and which is configured so that it can move the separating knife from a standby position into a separating position, wherein the separating device further has a counter bearing which serves to support a veneering material during the separation thereof characterised in that a clamping element is arranged on the separating knife and is configured so that i) it can be elastically deformed in the separating position and/or ii) it can be displaced relative to the separating knife as an element which is displaceable on the separating knife, and is preferably pretensioned by a spring towards the counter bearing, so that the clamping element springs back in relation to the separating knife behind the blade of the separating knife. a clamping element is arranged on the separating knife and is configured so that i) it can be elastically deformed in the separating position and/or ii) it can be displaced relative to the separating knife as an element which is displaceable on the separating knife, and is preferably pretensioned by a spring towards the counter bearing, i) it can be elastically deformed in the separating position and/or ii) it can be displaced relative to the separating knife as an element which is displaceable on the separating knife, and is preferably pretensioned by a spring towards the counter bearing, so that the clamping element springs back in relation to the separating knife behind the blade of the separating knife.
A modular movable robot comprising: a main body; a driving unit mounted on a lower part of the main body so that the main body is movable; a module coupling plate mounted on an upper part of the main body and configured to detect a module coupled to a top surface thereof; a body display unit vertically extending from the module coupling plate; a head display unit mounted on the body display unit; and a control unit configured to receive information with respect to the detected module from the module coupling plate and to control at least one of the body display unit or the head display unit differently on the basis of the received information. a main body; a driving unit mounted on a lower part of the main body so that the main body is movable; a module coupling plate mounted on an upper part of the main body and configured to detect a module coupled to a top surface thereof; a body display unit vertically extending from the module coupling plate; a head display unit mounted on the body display unit; and a control unit configured to receive information with respect to the detected module from the module coupling plate and to control at least one of the body display unit or the head display unit differently on the basis of the received information.
A method for communications controller operation, the method comprising: receiving interferer information from a communications device served by the communications controller, wherein the interferer information comprises N largest interferers detected by a communications device, where N is a non-zero, positive integer value and the interferer information comprises channel state information for each interferer; scheduling a cell edge communications device for downlink communication based on the received interferer information, wherein the cell edge communications device operates in a periphery of a coverage area of the communications controller, and wherein the cell edge communications device is scheduled to a subset of resources reserved for the cell edge communications device; reporting usage information of the subset of resources to neighboring communications controllers; from each neighboring communications controller, receiving neighboring usage information of a neighboring subset of resources reserved for cell edge communications devices served by the neighboring communication controller; scheduling a cell center communications device for downlink communication based on the received neighboring usage information from the neighboring communications controllers, wherein the cell center communications device operates in close proximity to the communications controller, and wherein the cell center communications device is scheduled to resources not in the subset of resources; and transmitting to scheduled communications devices over their respective scheduled resources. receiving interferer information from a communications device served by the communications controller, wherein the interferer information comprises N largest interferers detected by a communications device, where N is a non-zero, positive integer value and the interferer information comprises channel state information for each interferer; scheduling a cell edge communications device for downlink communication based on the received interferer information, wherein the cell edge communications device operates in a periphery of a coverage area of the communications controller, and wherein the cell edge communications device is scheduled to a subset of resources reserved for the cell edge communications device; reporting usage information of the subset of resources to neighboring communications controllers; from each neighboring communications controller, receiving neighboring usage information of a neighboring subset of resources reserved for cell edge communications devices served by the neighboring communication controller; scheduling a cell center communications device for downlink communication based on the received neighboring usage information from the neighboring communications controllers, wherein the cell center communications device operates in close proximity to the communications controller, and wherein the cell center communications device is scheduled to resources not in the subset of resources; and transmitting to scheduled communications devices over their respective scheduled resources.