mhurhangee/ep-ind-claims huggingface dataset:
Apparatus for the erosion of dense aggregates comprising: - a casing defining an operating chamber, where the casing includes at least: f) a bottom, g) lateral walls, h) a covering wall, i) a hatch for accessing the chamber and allowing the insertion of an article to be eroded or broken up, j) at least one window for viewing the article inside the chamber; - a spraying device, housed in the chamber, for dispensing a pressurized liquid; - pumping means for feeding said pressurized liquid toward said spraying device; - first gripping means for gripping and handling, inside the chamber, the spraying device; - second gripping means for gripping and handling, inside the chamber, the article to be eroded or broken up; wherein said spraying device includes a body, which acts as handle, in which there is produced at least one duct for passage of the pressurized liquid and at least one nozzle, in communication with said body, the apparatus being characterized by the fact that the nozzle comprises an inner channel with a first stretch and a second stretch, from which the pressurized liquid flows, where said second stretch has a cross section between 0.007 mm 2 and 3 mm 2, and in which the pumping means operate at a pressure between 50 bar and 300 bar. - a casing defining an operating chamber, where the casing includes at least: f) a bottom, g) lateral walls, h) a covering wall, i) a hatch for accessing the chamber and allowing the insertion of an article to be eroded or broken up, j) at least one window for viewing the article inside the chamber; f) a bottom, g) lateral walls, h) a covering wall, i) a hatch for accessing the chamber and allowing the insertion of an article to be eroded or broken up, j) at least one window for viewing the article inside the chamber; - a spraying device, housed in the chamber, for dispensing a pressurized liquid; - pumping means for feeding said pressurized liquid toward said spraying device; - first gripping means for gripping and handling, inside the chamber, the spraying device; - second gripping means for gripping and handling, inside the chamber, the article to be eroded or broken up;
A method for heating the passenger compartment of an electric vehicle in which all of the energy for the movement thereof is provided by an on board electrical energy source that can be recharged from an external source, said method comprising the following steps: - pre-heating at least one part of said passenger compartment by at least one electric heater when said vehicle is connected to an external energy source, and - heating said at least one part of said passenger compartment by a combustion heater when said vehicle is in use; characterized in that the pre-heating step carries out pre-heating only of a driver's area of said vehicle distinct from a passenger area of said vehicle. - pre-heating at least one part of said passenger compartment by at least one electric heater when said vehicle is connected to an external energy source, and - heating said at least one part of said passenger compartment by a combustion heater when said vehicle is in use;
A system for optimizing forward error correction code for interfering users in a multiple access communication, the system comprising: a transmitter apparatus, associated with one of the interfering users, the transmitter apparatus including: a controller configured to receive an FEC code optimization information, switchable between at least a first value and a second value, to select a first FEC code based at least in part on the FEC code optimization information being at the first value, or a second FEC code based at least in part on the FEC code optimization information being at the second value, a forward error correction, FEC, encoder configured to receive a source bit stream, and encode bits of the source bit stream according to the selected FEC code, and output a series of FEC encoded bits, wherein: a parity check matrix of the first FEC code has a first average information bit node degree, and a parity check matrix of the second FEC code has a second average information bit node degree, the first FEC code has an FEC rate, and the second FEC code has the FEC rate, and the controller is further configured to receive, as the FEC code optimization information, an information indicating a target average number of interfering users, the first value indicating a first target average number, and the second value indicating a second target average number. a controller configured to receive an FEC code optimization information, switchable between at least a first value and a second value, to select a first FEC code based at least in part on the FEC code optimization information being at the first value, or a second FEC code based at least in part on the FEC code optimization information being at the second value, a forward error correction, FEC, encoder configured to receive a source bit stream, and encode bits of the source bit stream according to the selected FEC code, and output a series of FEC encoded bits, wherein: a parity check matrix of the first FEC code has a first average information bit node degree, and a parity check matrix of the second FEC code has a second average information bit node degree, the first FEC code has an FEC rate, and the second FEC code has the FEC rate, and the controller is further configured to receive, as the FEC code optimization information, an information indicating a target average number of interfering users, the first value indicating a first target average number, and the second value indicating a second target average number. a parity check matrix of the first FEC code has a first average information bit node degree, and a parity check matrix of the second FEC code has a second average information bit node degree, the first FEC code has an FEC rate, and the second FEC code has the FEC rate, and the controller is further configured to receive, as the FEC code optimization information, an information indicating a target average number of interfering users, the first value indicating a first target average number, and the second value indicating a second target average number.
Lock for a wing, in particular a sliding wing, with a lock case, which is closed on one side by a face plate (3.1), and with a locking arrangement which is arranged in the lock case and has at least one lock bolt (12A, 12B), wherein the at least one lock bolt (12A, 12B) is moveable through an opening in the face plate (3.1) between a retracted open position and a locking position which is extended out of the lock case and in which the at least one lock bolt (12A, 12B) engages in a corresponding recess of a striker plate, wherein an actuating device, upon corresponding actuation, transfers at least one lock bolt (12A, 12B) out of the retracted open position into the extended locking position or from the extended locking position into the retracted open position, wherein the actuating device comprises a pushing element which is coupled to the at least one lock bolt (12A, 12B) and is mounted displaceably between a starting position and an end position, and a latching mechanism, which, in a first position, releases the pushing element for a pushing movement in the direction of the end position and, in a second position, blocks the pushing movement in a predetermined latching position, wherein the latching mechanism, in the second position, releases the pushing element for a pushing movement in the direction of the end position and blocks said pushing element for an opposed pushing movement (Down1) in the direction of the starting position, wherein the latching mechanism, in a third position, releases the pushing element for an opposed pushing movement (Down2) in the direction of the starting position, characterized in that the latching mechanism comprises a blocking element and a spring element which acts on the blocking element and, in the second position, forces the blocking element against a latching lug arranged on the pushing element, and therefore the pushing element is secured in the latching position, wherein, during a first opposed pushing movement (Down1) of the pushing element in the direction of the starting position following a first pushing movement in the direction of the end position, the latching lug transfers the latching mechanism from the first position into the second position, wherein, during a second pushing movement of the pushing element following the first opposed pushing movement (Down1), the latching lug transfers the latching mechanism from the second position into the third position, and wherein, during a second opposed pushing movement (Down2) of the pushing element in the direction of the starting position following a second pushing movement in the direction of the end position, the latching lug transfers the latching mechanism from the third position into the first position.
A method for removing impurities from a hydrocarbon stream comprising at least one vinyl aromatic compound, said method comprising: a. pre-treating the at least one clay sorbent to a pH of greater than 9; b. contacting the hydrocarbon stream with at least one clay sorbent that adsorbs at least a portion of the impurities from the hydrocarbon stream to provide a purified hydrocarbon stream; and c. separating the purified hydrocarbon stream from the at least one clay sorbent. a. pre-treating the at least one clay sorbent to a pH of greater than 9; b. contacting the hydrocarbon stream with at least one clay sorbent that adsorbs at least a portion of the impurities from the hydrocarbon stream to provide a purified hydrocarbon stream; and c. separating the purified hydrocarbon stream from the at least one clay sorbent.
Electro-pneumatic parking brake valve device for actuating a spring-loaded parking brake in an electro-pneumatic brake system, wherein the parking brake valve device is of bi-stable design with a drive position and a parking position as steady-state positions and comprises: three pneumatic ports (1a, 1b, 1c), which form a compressed air inlet for connection to a compressed air supply, a compressed air outlet for connection to the spring-loaded parking brake and a venting port, a relay valve line connecting the compressed air inlet and the compressed air outlet and having a relay valve provided in the relay valve line and pneumatically actuatable by a control volume, an electrically actuatable inlet and outlet valve device (10, 11) for ventilating the control volume through connection to the compressed air inlet and venting the control volume through connection to the venting port, characterized in that a bypass line (19, 119) having a bypass valve device (12, 112) pneumatically actuated by the control volume is provided between the control volume and at least one of the ports (1a, 1c) for connecting the control volume to the at least one port (1a, 1c) or separating it therefrom, and the bypass valve device (12, 112) is actuated by the control volume in at least one of the steady-state positions, in such a way that it at least partially bypasses the inlet and outlet valve device (10, 11) and connects the control volume to the at least one port (1a, 1c). three pneumatic ports (1a, 1b, 1c), which form a compressed air inlet for connection to a compressed air supply, a compressed air outlet for connection to the spring-loaded parking brake and a venting port, a relay valve line connecting the compressed air inlet and the compressed air outlet and having a relay valve provided in the relay valve line and pneumatically actuatable by a control volume, an electrically actuatable inlet and outlet valve device (10, 11) for ventilating the control volume through connection to the compressed air inlet and venting the control volume through connection to the venting port, characterized in that a bypass line (19, 119) having a bypass valve device (12, 112) pneumatically actuated by the control volume is provided between the control volume and at least one of the ports (1a, 1c) for connecting the control volume to the at least one port (1a, 1c) or separating it therefrom, and the bypass valve device (12, 112) is actuated by the control volume in at least one of the steady-state positions, in such a way that it at least partially bypasses the inlet and outlet valve device (10, 11) and connects the control volume to the at least one port (1a, 1c).
Method for commissioning an installation, which has two actuators that are electrically contact-connected to a common DC voltage circuit by means of a respective converter, and which is intended to be in accordance with a method in which a pulse-width-modulated signal is created on the basis of a respective periodic carrier signal depending on a respective useful signal for the respective actuator, and the respective converter is operated so as to apply a corresponding voltage to the respective actuator, and in which the two carrier signals are chosen to be identical, but to be offset by a predetermined phase offset in relation to one another, characterized in that - the two carrier signals are started at a shared time without a phase offset, and - depending on an address of the respective converter, the frequency of the associated carrier signal is changed for a period and is then set to the original value again so as to produce the predetermined phase offset between the carrier signals. - the two carrier signals are started at a shared time without a phase offset, and - depending on an address of the respective converter, the frequency of the associated carrier signal is changed for a period and is then set to the original value again so as to produce the predetermined phase offset between the carrier signals.
A vehicle including a vehicle air conditioner installed in a passenger compartment, the vehicle comprising: a partition that separates a passenger compartment from an outside of the passenger compartment, the vehicle air conditioner comprising: a casing accommodating a heat exchanger (21, 22); a piping component (21d, 21e; 22e, 22d) supplying a heating medium to the heat exchanger (21; 22) or exhausting the heating medium from the heat exchanger (21; 22); and a seal sealing a portion between the casing and a periphery of an opening of the partition, wherein the piping component (21 d, 21 e; 22e, 22d) is inserted into the opening of the partition, the seal has a surface facing the partition and including a notch (60d, 60h), characterized in that the notch (60d, 60h) is positioned outside the periphery of the opening of the partition. a partition that separates a passenger compartment from an outside of the passenger compartment, the vehicle air conditioner comprising: a casing accommodating a heat exchanger (21, 22); a piping component (21d, 21e; 22e, 22d) supplying a heating medium to the heat exchanger (21; 22) or exhausting the heating medium from the heat exchanger (21; 22); and a seal sealing a portion between the casing and a periphery of an opening of the partition, wherein the piping component (21 d, 21 e; 22e, 22d) is inserted into the opening of the partition, the seal has a surface facing the partition and including a notch (60d, 60h), characterized in that the notch (60d, 60h) is positioned outside the periphery of the opening of the partition. a casing accommodating a heat exchanger (21, 22); a piping component (21d, 21e; 22e, 22d) supplying a heating medium to the heat exchanger (21; 22) or exhausting the heating medium from the heat exchanger (21; 22); and a seal sealing a portion between the casing and a periphery of an opening of the partition, wherein the piping component (21 d, 21 e; 22e, 22d) is inserted into the opening of the partition, the seal has a surface facing the partition and including a notch (60d, 60h), characterized in that the notch (60d, 60h) is positioned outside the periphery of the opening of the partition.
A sensor delivery device for monitoring a fluid pressure within a vascular structure of a patient, the sensor delivery device comprising: an elongated tubular sheath sized for sliding along a guidewire, the sheath having an outer surface; a sensor assembly comprising: a fiber optic sensor; a housing surrounding the sensor, the housing comprising a proximal end having a proximal aperture, a distal end having a distal aperture, an inner surface adjoined to the outer surface of the sheath, and an outer surface opposing the inner surface; a cavity between the distal end of the sensor and the distal aperture of the housing; a filler extending distally outside of the housing, the filler having an outer surface that tapers inward toward the outer surface of the sheath as the filler extends distally; a cavity in the filler, the cavity in the filler comprising an opening at the outer surface of the filler, the cavity in the filler adjoining the distal aperture of the housing; and an optical fiber extending along the outer surface of the sheath; and an outer layer overlying the filler. an elongated tubular sheath sized for sliding along a guidewire, the sheath having an outer surface; a sensor assembly comprising: a fiber optic sensor; a housing surrounding the sensor, the housing comprising a proximal end having a proximal aperture, a distal end having a distal aperture, an inner surface adjoined to the outer surface of the sheath, and an outer surface opposing the inner surface; a cavity between the distal end of the sensor and the distal aperture of the housing; a filler extending distally outside of the housing, the filler having an outer surface that tapers inward toward the outer surface of the sheath as the filler extends distally; a cavity in the filler, the cavity in the filler comprising an opening at the outer surface of the filler, the cavity in the filler adjoining the distal aperture of the housing; and an optical fiber extending along the outer surface of the sheath; and a fiber optic sensor; a housing surrounding the sensor, the housing comprising a proximal end having a proximal aperture, a distal end having a distal aperture, an inner surface adjoined to the outer surface of the sheath, and an outer surface opposing the inner surface; a cavity between the distal end of the sensor and the distal aperture of the housing; a filler extending distally outside of the housing, the filler having an outer surface that tapers inward toward the outer surface of the sheath as the filler extends distally; a cavity in the filler, the cavity in the filler comprising an opening at the outer surface of the filler, the cavity in the filler adjoining the distal aperture of the housing; and an optical fiber extending along the outer surface of the sheath; and an outer layer overlying the filler.
Filtration element useful for capturing one or more gaseous pollutants, in particular selected from NOx, SO 2, aldehydes and ketones, said filtration element comprising at least one deep eutectic solvent possessing a melting point of greater than or equal to 45°C, in particular greater than 60°C, and a solid support on which said DES is immobilized, with said element being configured to heat said DES to a temperature conducive to the melting thereof.
A method for coordinating a first radio resource partitioning scheme being used by a first base station and by a first relay node being served by the first base station with a second radio resource partitioning scheme being used by a second base station and by a second relay node being served by the second base station, the method comprising • acquiring an information from the second base station by the first base station, wherein the information is indicative for a relative timing displacement between (a) a first time pattern of the first radio resource partitioning scheme and (b) a second time pattern of the second radio resource partitioning scheme, and • adapting the first time pattern of the first radio resource partitioning scheme, which is used by the first relay node, to the second time pattern of the second radio resource partitioning scheme, which is used by the second relay node, so that a synchronization between the base stations (BS1, BS2) is reached and a radio interference between the first relay node and the second relay node is reduced at least partially, wherein during the adaptation of the first time pattern of the first radio resource partitioning scheme the second radio resource partitioning scheme is maintained unchanged and the adaptation comprises performing a small change on the first time pattern by shifting only one time slot at a time towards an optimal adapted first time pattern so that slots of the adapted first radio resource partitioning scheme more or less coincide with slots of the second radio resource partitioning scheme. • acquiring an information from the second base station by the first base station, wherein the information is indicative for a relative timing displacement between (a) a first time pattern of the first radio resource partitioning scheme and (b) a second time pattern of the second radio resource partitioning scheme, and (a) a first time pattern of the first radio resource partitioning scheme and (b) a second time pattern of the second radio resource partitioning scheme, and • adapting the first time pattern of the first radio resource partitioning scheme, which is used by the first relay node, to the second time pattern of the second radio resource partitioning scheme, which is used by the second relay node, so that a synchronization between the base stations (BS1, BS2) is reached and a radio interference between the first relay node and the second relay node is reduced at least partially, wherein during the adaptation of the first time pattern of the first radio resource partitioning scheme the second radio resource partitioning scheme is maintained unchanged and the adaptation comprises performing a small change on the first time pattern by shifting only one time slot at a time towards an optimal adapted first time pattern so that slots of the adapted first radio resource partitioning scheme more or less coincide with slots of the second radio resource partitioning scheme.