mhurhangee/ep-ind-claims huggingface dataset:
A fuse for projectile, comprising: - detonation means, capable of assuming a detonation means safety condition and a detonation means armed condition; - actuating means, suitable to detonate said detonation means, said actuating means being capable of assuming an actuating means safety condition, an actuating means armed condition, and an actuating means active condition, in which said active condition the actuating means detonate the detonation means; - a timer, suitable to actuate said actuating means; - speed sensor means independent from said timer, operating on the basis of parameters depending on the projectile speed, said speed sensor means being safety means suitable to control the transition of the actuating means from the safety condition thereof to the armed condition thereof; characterized in that: - said speed sensor means are further configured to control the transition of the detonation means from the safety condition thereof to the armed condition thereof; - said timer being allowed to cause the transition of said actuating means from the armed condition thereof, to the active condition thereof, only if the detonation means have assumed the armed condition thereof, after being enabled by said speed sensor means. - detonation means, capable of assuming a detonation means safety condition and a detonation means armed condition; - actuating means, suitable to detonate said detonation means, said actuating means being capable of assuming an actuating means safety condition, an actuating means armed condition, and an actuating means active condition, in which said active condition the actuating means detonate the detonation means; - a timer, suitable to actuate said actuating means; - speed sensor means independent from said timer, operating on the basis of parameters depending on the projectile speed, said speed sensor means being safety means suitable to control the transition of the actuating means from the safety condition thereof to the armed condition thereof; characterized in that: - said speed sensor means are further configured to control the transition of the detonation means from the safety condition thereof to the armed condition thereof; - said timer being allowed to cause the transition of said actuating means from the armed condition thereof, to the active condition thereof, only if the detonation means have assumed the armed condition thereof, after being enabled by said speed sensor means. - said speed sensor means are further configured to control the transition of the detonation means from the safety condition thereof to the armed condition thereof; - said timer being allowed to cause the transition of said actuating means from the armed condition thereof, to the active condition thereof, only if the detonation means have assumed the armed condition thereof, after being enabled by said speed sensor means.
A method for the production of a circuit board (1, 15, 25) involving the removal of a subregion (6, 6', 16, 26) thereof, wherein at least two layers or plies (2, 3, 4, 5) of the circuit board (1, 15, 25) are interconnected, and the subregion (6, 6', 16, 26) to be removed is prevented from being connected to an adjacent ply of the circuit board (1, 15, 25) by providing or applying an adhesion-preventing material (7, 17, 30), and edge regions of the subregion (6, 6', 16, 26) to be removed are separated from adjoining regions of the circuit board (1, 15, 25), characterised in that, following a separation or severing (8, 19) of the edge regions, an external surface (9, 20, 27) of the subregion (6, 6', 16, 26) to be removed is connected to an external element (11, 21, 28), and in that the subregion (6, 6', 16, 26) to be removed is separated from the adjacent ply of the circuit board (1, 15, 25) by a raising or displacement the external element (11, 21, 28).
A cartilage repair implant for repair and regeneration of a cartilage lesion, the implant comprising: a three-dimensional scaffold comprising at least three layers of woven fibers, characterized in that: said at least three layers of woven fibers are in a form of three-dimensional warp interlock fabric; and a three-dimensional porous substrate fixedly bonded directly to the scaffold and configured to press fit and integrate into bone. said at least three layers of woven fibers are in a form of three-dimensional warp interlock fabric; and a three-dimensional porous substrate fixedly bonded directly to the scaffold and configured to press fit and integrate into bone.
An air delivery system comprising: a housing including a supply air channel and an exhaust air channel, wherein the supply air channel includes a supply air inlet configured to allow air to pass into the supply air channel, and a supply air outlet configured to allow supply air to pass to an enclosed structure, and wherein the exhaust air channel includes an exhaust air inlet configured to allow exhaust air from the enclosed structure to pass into the exhaust air channel, and an exhaust air outlet configured to allow exhaust air to exhaust to an outside environment; an exhaust liquid-to-air-membrane energy exchanger (LAMEE) wherein the exhaust LAMEE is disposed within the exhaust air channel and is configured to receive the air during a desiccant regeneration mode in order to regenerate desiccant within the exhaust LAMEE; and a desiccant storage tank in communication with the exhaust LAMEE, wherein the exhaust LAMEE is configured to store regenerated desiccant within the desiccant storage tank, and wherein the regenerated desiccant is configured to be tapped during a normal operation mode; a control sub-system configured to control operation of and to transition the air delivery system between the normal operation mode and the desiccant regeneration mode. a housing including a supply air channel and an exhaust air channel, wherein the supply air channel includes a supply air inlet configured to allow air to pass into the supply air channel, and a supply air outlet configured to allow supply air to pass to an enclosed structure, and wherein the exhaust air channel includes an exhaust air inlet configured to allow exhaust air from the enclosed structure to pass into the exhaust air channel, and an exhaust air outlet configured to allow exhaust air to exhaust to an outside environment; an exhaust liquid-to-air-membrane energy exchanger (LAMEE) wherein the exhaust LAMEE is disposed within the exhaust air channel and is configured to receive the air during a desiccant regeneration mode in order to regenerate desiccant within the exhaust LAMEE; and a desiccant storage tank in communication with the exhaust LAMEE, wherein the exhaust LAMEE is configured to store regenerated desiccant within the desiccant storage tank, and wherein the regenerated desiccant is configured to be tapped during a normal operation mode; a control sub-system configured to control operation of and to transition the air delivery system between the normal operation mode and the desiccant regeneration mode.
A drive configuration for a skid steered vehicle comprising a respective drive member adapted to be located at each side of the vehicle, each drive member engaging with a track or wheel of the vehicle; at least one electric propulsion motor (1a, 1b) in operable communication with said drive members operable to drive the tracks or wheels of the skid steered vehicle; at least one steer motor (9a, 9b) in driveable communication with a controlled differential positioned between and connecting a pair of primary shafts (7a, 7b) and in driveable communication with each primary shaft (7a, 7b), the ends of each primary shaft (7a, 7b) remote from the controlled differential forming an output of the drive configuration and being in driveable communication with the drive members; wherein the at least one electric propulsion motor (1a, 1b) is provided on a secondary shaft (20a, 20b) remote from the primary shafts (7a, 7b) and the drive configuration further comprises at least one gear change unit (2a, 2b) associated with the at least one electric propulsion motor (1a, 1b) provided remote from the primary shaft (7a, 7b).
Method for increasing the electrical conductivity of a surface of a composite material part suitable for an aircraft, the composite material part comprising at least one surface, the method comprising the step of applying a metallic material coating layer, the coating layer thickness being 0.1-10 μm and said coating layer being applied on the at least one surface of the composite material part, by means of physical vapour deposition; wherein the application of the coating layer is made in vacuum conditions, characterized in that the method further comprises a step of preparing the surface of the composite material part prior to the application of the coating layer, this step being performed in vacuum conditions, and comprising applying an intermediate bonding layer by means of physical vapour deposition before the coating layer and wherein the bonding layer comprises a metal nitride. applying a metallic material coating layer, the coating layer thickness being 0.1-10 μm and said coating layer being applied on the at least one surface of the composite material part, by means of physical vapour deposition; wherein the application of the coating layer is made in vacuum conditions, characterized in that the method further comprises a step of preparing the surface of the composite material part prior to the application of the coating layer, this step being performed in vacuum conditions, and comprising applying an intermediate bonding layer by means of physical vapour deposition before the coating layer and wherein the bonding layer comprises a metal nitride.
A field mountable dedicated process diagnostic device (8; 100; 152) coupleable to a two wire process control loop (18; 168) and configured to be completely powered with power received over the two wire process control loop, and dedicated to diagnosing operation of an industrial control or monitoring system of an industrial process such that the device is not configured to perform functions other than diagnostics, namely the device is not configured to measure a process variable used in performing or monitoring process control or to control process operation, the device comprising: an input (40; 102) configured to receive at least one process signal related to operation of the industrial process from a diagnostic sensor; a memory containing diagnostic program instructions configured to implement a diagnostic algorithm using the at least one process signal and wherein the diagnostic algorithm is selected from a plurality of diagnostic algorithms so as to be specific to the industrial process; and a microcontroller (42; 106) configured to perform the diagnostic program instructions and responsively diagnose operation of the industrial process based upon the at least one process signal. an input (40; 102) configured to receive at least one process signal related to operation of the industrial process from a diagnostic sensor; a memory containing diagnostic program instructions configured to implement a diagnostic algorithm using the at least one process signal and wherein the diagnostic algorithm is selected from a plurality of diagnostic algorithms so as to be specific to the industrial process; and a microcontroller (42; 106) configured to perform the diagnostic program instructions and responsively diagnose operation of the industrial process based upon the at least one process signal.
A customer-specific medium for registering the take-up of services, characterised in that it comprises a first and a second antenna (2, 3) for long-range data communication, a third antenna, an integrated circuit including at least one crypto-engine, a microprocessor connected to the integrated circuit or integrated into the integrated circuit, an operational amplifier and an RF transceiver connected to the second antenna, wherein the third antenna is connected to an NFC module in the integrated circuit and facilitates short-range data communication when the customer-specific medium is in an active mode, wherein the first antenna serves as a wake-up antenna for receiving an amplitude-modulated wake-up signal when the customer-specific medium is in a 'sleep' mode, wherein the signal received by the wake-up antenna is demodulated and amplified by the operational amplifier acting as a wake-up detecting module and evaluated by the microprocessor which is partially activated in `sleep' mode, and wherein the microprocessor is fully activated in the case of a wake-up signal recognised as valid, whereby the customer-specific medium switches into the active mode and wherein the operational amplifier is the only component of the customer-specific medium which is fully active in 'sleep' mode.
A wireless communication method, comprising: transmitting, by a wireless communication node, a first information element that includes a plurality of parameters, the plurality of parameters configured for a plurality of wireless communication devices to perform respective random access procedures; and transmitting, by the wireless communication node, a second information element that includes a subset of the plurality of parameters, the subset of parameters configured for a wireless communication device of the plurality of wireless communication devices to perform one of the random access procedures, wherein the plurality of parameters in the first information element is further commonly configured for each of the plurality of wireless communication devices to transmit one or more messages, that include a preamble and a payload, to the wireless communication node in the random access procedure, wherein the subset of parameters in the second information element is further dedicatedly configured for the wireless communication device to transmit the one or more messages to the wireless communication node in the random access procedure, and wherein the wireless communication node comprises a base station, and wherein each wireless communication device of the plurality of wireless communication devices comprises a user equipment. transmitting, by a wireless communication node, a first information element that includes a plurality of parameters, the plurality of parameters configured for a plurality of wireless communication devices to perform respective random access procedures; and transmitting, by the wireless communication node, a second information element that includes a subset of the plurality of parameters, the subset of parameters configured for a wireless communication device of the plurality of wireless communication devices to perform one of the random access procedures, wherein the plurality of parameters in the first information element is further commonly configured for each of the plurality of wireless communication devices to transmit one or more messages, that include a preamble and a payload, to the wireless communication node in the random access procedure, wherein the subset of parameters in the second information element is further dedicatedly configured for the wireless communication device to transmit the one or more messages to the wireless communication node in the random access procedure, and wherein the wireless communication node comprises a base station, and wherein each wireless communication device of the plurality of wireless communication devices comprises a user equipment.
Method for exchanging data in a communication system, wherein the communication system comprises a number of communication subscribers (2, 3, 27) and a central terminal integrated in a vehicle, wherein respective communication subscribers (2, 3, 27) exchange data with a data source using a radio connection via the integrated terminal used as a switching device, and wherein at least one of the communication subscribers (2, 3, 27) transmits a catalogue of requirements to an intelligent connection manager running on the integrated terminal, and wherein the catalogue of requirements comprises bandwidth-related information about an application of the at least one communication subscriber (2, 3, 27), wherein a respective bandwidth, which is allocated to a respective communication subscriber (2, 3, 27), of a data connection between the integrated terminal, which is connected to the number of communication subscribers (2, 3, 27) and is used as a switching device, and the data source is reduced or increased dynamically by the intelligent connection manager depending on a rule that is to be provided, wherein the rule is provided by the intelligent connection manager itself and defines the pattern or proportions according to which a respective bandwidth is distributed to respective communication subscribers, wherein an internal prioritisation of applications with respect to the available bandwidth is influenced by a driver of the vehicle by means of a slider of a control unit connected to the integrated terminal, said applications running on a communication subscriber configured in the form of a rear seat entertainment device.
Pivoting trailer hitch of a vehicle with a pivoting mechanism with a single locking element, wherein the locking element is formed by a locking pin, wherein the mechanism further comprises an eccentric with a surface of revolution arranged eccentrically with respect to its axis of rotation and which is arranged to move the locking pin, characterized in that the locking pin has a guide slot, wherein the eccentric for moving the locking pin through its surface of revolution engages in the guide slot of the locking pin.
A printing press comprising: a printing cylinder including an outer surface and configured to convey a sheet; an inkjet head (23 - 26) configured to execute printing by discharging ink droplets to the sheet conveyed by the printing cylinder; characterized by a drying device arranged on a downstream side of the inkjet head (23 - 26) in a convey direction of the sheet, opposing the printing cylinder and configured to dry printed ink; and a heat dissipation member overlaid and attached on the outer surface of the printing cylinder, absorbing heat of the sheet when opposing the drying device, and dissipating the heat when moving away from the drying device by the rotation of the printing cylinder, the heat dissipation member including a main body made of a non-metal material in a sheet-like shape, and a plurality of ventilation portions through which air passes in a thickness direction of the main body. a printing cylinder including an outer surface and configured to convey a sheet; an inkjet head (23 - 26) configured to execute printing by discharging ink droplets to the sheet conveyed by the printing cylinder; characterized by a drying device arranged on a downstream side of the inkjet head (23 - 26) in a convey direction of the sheet, opposing the printing cylinder and configured to dry printed ink; and a heat dissipation member overlaid and attached on the outer surface of the printing cylinder, absorbing heat of the sheet when opposing the drying device, and dissipating the heat when moving away from the drying device by the rotation of the printing cylinder,
Blade for an industrial axial fan comprising an attachment (10, 10', 10"', 10"', 10'"") and an airfoil (20, 20', 20"', 20"", 20""'), said attachment (10, 10', 10"', 10"', 10""') for connecting the airfoil to a hub of the axial fan, wherein said attachment (10, 10', 10'", 10"", 10""') comprises a first part (11, 11', 11'", 11"", 11'"") for the connection to the hub and a second part (14, 14', 14'", 14"", 14""') connecting to the airfoil (20, 20', 20'", 20"", 20""'), characterized in that said attachment (10, 10', 10'", 10"", 10""') has a decreasing stiffness along its longitudinal direction from said first part (11, 11', 11'", 11"", 11""') to said second part (14, 14', 14'", 14"", 14""'), so that during the operation of the axial fan the attachment (10, 10', 10'", 10"", 10""') deforms in a way to have at least an inflection point thus leading the blade to vibrate according to the second vibrating mode.
A method of manufacturing adhesives comprising: obtaining an actinic radiation-polymerizable adhesive precursor composition disposed on a major surface of an actinic radiation-transparent substrate; irradiating a first portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a first irradiation dosage to form a first adhesive; moving the actinic radiation-transparent substrate; and irradiating a second portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a second irradiation dosage to form a second adhesive, wherein the first adhesive and the second adhesive are individual adhesives separated from each other by approximately the distance the actinic radiation-transparent substrate was moved. obtaining an actinic radiation-polymerizable adhesive precursor composition disposed on a major surface of an actinic radiation-transparent substrate; irradiating a first portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a first irradiation dosage to form a first adhesive; moving the actinic radiation-transparent substrate; and irradiating a second portion of the actinic radiation-polymerizable adhesive precursor composition through the actinic radiation-transparent substrate for a second irradiation dosage to form a second adhesive, wherein the first adhesive and the second adhesive are individual adhesives separated from each other by approximately the distance the actinic radiation-transparent substrate was moved.