mhurhangee/ep-ind-claims huggingface dataset:
A method for implementing Direct Mode Operation, DMO, communication on a digital trunking terminal, comprising: after the digital trunking terminal is started and when a DMO controlling module thereof receives a DMO starting command sent by a user through a User Interface, UI, module, sending a close instruction, by the DMO controlling module, to a digital trunking radio frequency module so as to close the digital trunking radio frequency module; when the digital trunking radio frequency module is closed, sending, by the DMO controlling module, an open instruction to a DMO radio frequency module to open the DMO radio frequency module; establishing, by the DMO controlling module, a connection with a DMO controlled module, and informing, by the DMO controlling module, the UI module after the connection is established successfully; sending, by the UI module, a subaudio frequency, a squelch level and a frequency point information which is set by the user to the DMO controlled module through the DMO controlling module, setting, by the DMO controlled module, the subaudio frequency, the squelch level and a frequency parameter of itself to be the subaudio frequency, the squelch level and the frequency point information received from the DMO controlling module; and the digital trunking terminal enters into a DMO communication free state. after the digital trunking terminal is started and when a DMO controlling module thereof receives a DMO starting command sent by a user through a User Interface, UI, module, sending a close instruction, by the DMO controlling module, to a digital trunking radio frequency module so as to close the digital trunking radio frequency module; when the digital trunking radio frequency module is closed, sending, by the DMO controlling module, an open instruction to a DMO radio frequency module to open the DMO radio frequency module; establishing, by the DMO controlling module, a connection with a DMO controlled module, and informing, by the DMO controlling module, the UI module after the connection is established successfully; sending, by the UI module, a subaudio frequency, a squelch level and a frequency point information which is set by the user to the DMO controlled module through the DMO controlling module, setting, by the DMO controlled module, the subaudio frequency, the squelch level and a frequency parameter of itself to be the subaudio frequency, the squelch level and the frequency point information received from the DMO controlling module; and the digital trunking terminal enters into a DMO communication free state.
A control method of an exhaust gas purification system provided with an exhaust gas purifier having an oxidation catalyst to purify components in an exhaust gas and a regeneration control means performing a regeneration control accompanied by a post injection in an in-cylinder fuel injection control to recover the purification ability of the exhaust gas purifier in an exhaust gas passage of an internal combustion engine, characterized in that in an exhaust gas temperature raising control at the regeneration control, a first exhaust gas temperature raising control performing a control using a multiple-stage delayed injection, an air-intake throttling and an exhaust gas throttling without performing a post injection in the case when a temperature of the exhaust gas flowing into the exhaust gas purifier is lower than a predetermined determination value corresponding to an activation temperature of the oxidation catalyst, and a second exhaust gas temperature raising control performing a control using the post injection, the air-intake throttling, and the exhaust gas throttling in addition to the multiple-stage delayed injection in the case when the temperature of the exhaust gas flowing into the exhaust gas purifier is the predetermined determination value or more, so that an air-intake throttle amount in the case of the first exhaust gas temperature raising control becomes larger than an air-intake throttle amount in the case of the second exhaust gas temperature raising control.
A process for the manufacture of a complex of the formula [RhHaI(R 1 R 2 C=CR 3 R 4) 2] 2 with Hal = Cl or Br; and R 1 R 2 C=CR 3 R 4 = a gaseous mono olefin with 2 to 4 carbon atoms, the process comprising the steps: preparing an aqueous alcoholic solution of a RhHaI 3 hydrate salt, reacting the dissolved RhHaI 3 hydrate salt with the gaseous mono olefin R 1 R 2 C=CR 3 R 4 under formation of precipitated [RhHaI(R 1 R 2 C=CR 3 R 4) 2] 2, optionally, cooling the reaction mixture obtained after conclusion of step down to a temperature in the range of > 0 to 10 °C and keeping it there, and collecting and drying the precipitated [RhHaI(R 1 R 2 C=CR 3 R 4) 2] 2, wherein the temperature of the reaction mixture during step is kept in a range of 15 to 30 °C by adequately cooling of the reaction mixture by conventional internal and/or external cooling means. preparing an aqueous alcoholic solution of a RhHaI 3 hydrate salt, reacting the dissolved RhHaI 3 hydrate salt with the gaseous mono olefin R 1 R 2 C=CR 3 R 4 under formation of precipitated [RhHaI(R 1 R 2 C=CR 3 R 4) 2] 2, optionally, cooling the reaction mixture obtained after conclusion of step down to a temperature in the range of > 0 to 10 °C and keeping it there, and collecting and drying the precipitated [RhHaI(R 1 R 2 C=CR 3 R 4) 2] 2,
A receiver device for receiving media packet streams (904, 906) from a data network (100, 114, 902), the receiver device comprising: a first data interface to receive a first media packet stream containing samples of a media channel; a second data interface to receive a second media packet stream containing the samples of the media channel; a processor to extract samples from the first and second media packet streams (904, 906) and to determine an output time for the extracted samples; a buffer to temporarily store the extracted samples for output; and wherein the processor operates to cause the extracted samples to be written to the buffer based on the respective output time, such that extracted samples having the same output time are written to the same location in the buffer. a first data interface to receive a first media packet stream containing samples of a media channel; a second data interface to receive a second media packet stream containing the samples of the media channel; a processor to extract samples from the first and second media packet streams (904, 906) and to determine an output time for the extracted samples; a buffer to temporarily store the extracted samples for output; and wherein the processor operates to cause the extracted samples to be written to the buffer based on the respective output time, such that extracted samples having the same output time are written to the same location in the buffer.
A manufacturing machine for the production of capsules for smoking articles, in particular for filters, designed to contain a liquid to be used in the cooling of smoke; wherein each capsule comprises a cup-shaped body defined by a side wall and, at one end, by a bottom wall; the side wall has a longitudinal axis and delimits, with the bottom wall, a compartment, which is designed to contain a predetermined amount of liquid; the capsule comprising a covering element, which is coupled to a portion of the side wall defining a collar at the end opposite the bottom wall; the manufacturing machine comprises: a feeding system that feeds the semi-finished capsules along a forming path; a number of operating stations (S4, S5, S6), which are arranged along the forming path and comprise a welding station for welding a strip of plastic material to a plurality of cup-shaped bodies; a cutting station for cutting the strip of plastic material welded to the cup-shaped bodies so as to obtain the covering elements, wherein the cutting station is arranged downstream of the welding station; and a dragging device for the strip of plastic material which is interposed between the welding station and the cutting station and is realized to obtain, by dragging the strip of plastic material, a loop of plastic material that allows two groups of semi-finished capsules to be independent, wherein a first group of semi-finished capsules is arranged at the welding station and a second group of semi-finished capsules is arranged at the cutting station wherein the dragging device is of the suction type and comprises a sucking pump, which is connected to a sucking head of a support element by means of a respective suction duct, so as to establish a communication between said sucking head and the sucking pump. a feeding system that feeds the semi-finished capsules along a forming path; a number of operating stations (S4, S5, S6), which are arranged along the forming path and comprise a welding station for welding a strip of plastic material to a plurality of cup-shaped bodies; a cutting station for cutting the strip of plastic material welded to the cup-shaped bodies so as to obtain the covering elements, wherein the cutting station is arranged downstream of the welding station; and a dragging device for the strip of plastic material which is interposed between the welding station and the cutting station and is realized to obtain, by dragging the strip of plastic material, a loop of plastic material that allows two groups of semi-finished capsules to be independent, wherein a first group of semi-finished capsules is arranged at the welding station and a second group of semi-finished capsules is arranged at the cutting station wherein the dragging device is of the suction type and comprises a sucking pump, which is connected to a sucking head of a support element by means of a respective suction duct, so as to establish a communication between said sucking head and the sucking pump.
Method for manufacturing compound material wafers, in particular silicon on insulator type wafers, comprising the steps: a) providing an initial donor substrate, b) forming an insulating layer over the initial donor substrate, c) forming a predetermined splitting area in the initial donor substrate, d) attaching the initial donor substrate to a handle substrate, and e) detaching the donor substrate at the predetermined splitting area, thereby transferring a layer of the initial donor substrate onto the handle substrate to form a compound material wafer, and further comprising at least one thermal treatment step configured to at least partially reduce, in particular by dissolution, oxygen precipitates and/or nuclei, in the initial donor substrate and/or the remainder of the donor substrate, wherein the remainder of the donor substrate is reused as initial donor substrate, wherein steps b) to e) are repeated at least once before further thermal treatment step is carried out, and wherein at least one of the at least one thermal treatment step is carried out between step a) and b); and characterised in that said at least one of the at least one thermal treatment steps is a rapid thermal oxidation step. a) providing an initial donor substrate, b) forming an insulating layer over the initial donor substrate, c) forming a predetermined splitting area in the initial donor substrate, d) attaching the initial donor substrate to a handle substrate, and e) detaching the donor substrate at the predetermined splitting area, thereby transferring a layer of the initial donor substrate onto the handle substrate to form a compound material wafer, and
An optical analysis assembly for a liquid sample, characterized in that it comprises a micro-structured support substrate for a liquid sample comprising a lower face and an upper face, wherein said substrate comprises on the one hand at least one surface cavity with a volume V0 opening onto said upper face and forming an analysis zone for the liquid sample and on the other hand a first groove with a first volume V1 arranged around each surface cavity and opening onto its upper face, as well as at least one second groove (14, 15, 16) opening onto its upper face and arranged around of the first groove, wherein the sum of the volumes of the second grooves is equal to V2, wherein the volume V1+V2 is superior or equal to 0.05 V0, preferably 0.1 V0, wherein the depth of the grooves (13, 14, 15, 16) is superior to 10 microns and inferior to 500 microns, preferably between 20 microns and 500 microns, wherein the grooves are continuous and/or not communicating with each other, wherein at least one liquid sample with a volume superior to the sum of the volumes of the cavity and of the first groove is deposited on said substrate in at least one cavity, wherein the substrate is covered by a thin plate closing all the cavities of the substrate.
A drawer assembly for a refrigerating and freezing device, comprising: a sealing barrel, configured to be shelved in a refrigerating and freezing device and provided with a front-end opening; a tray, configured to be inserted into a bottom of the sealing barrel via the front-end opening in a way of being capable of being pushed and pulled; and a drawer, carried on the tray and configured to be inserted into the sealing barrel along with the tray in a way of being capable of being pushed and pulled, wherein the tray is provided with a head part located outside the sealing barrel when the drawer is in a fully closed state, characterized in that a first sealing member is arranged between the head part of the tray and the drawer, and the first sealing member comprises a body and a deformation blocking sheet extending outward in a bent manner from the body along an arc so as to form an airtight sealing between the head part of the tray and the drawer. a sealing barrel, configured to be shelved in a refrigerating and freezing device and provided with a front-end opening; a tray, configured to be inserted into a bottom of the sealing barrel via the front-end opening in a way of being capable of being pushed and pulled; and a drawer, carried on the tray and configured to be inserted into the sealing barrel along with the tray in a way of being capable of being pushed and pulled, wherein the tray is provided with a head part located outside the sealing barrel when the drawer is in a fully closed state, characterized in that a first sealing member is arranged between the head part of the tray and the drawer, and the first sealing member comprises a body and a deformation blocking sheet extending outward in a bent manner from the body along an arc so as to form an airtight sealing between the head part of the tray and the drawer.
An actuation mechanism for a dual flush toilet assembly, the actuation mechanism comprising: a first handle configured to be mounted to a first side of a toilet tank; a second handle mounted coaxially relative to the first handle and configured to be mounted to the first side of the toilet tank; a housing configured to be mounted to a second side of the toilet tank; a link arm member (553,554) provided within the housing and pivotally coupled to the first and second handles; and a moveable stop member provided within the housing; characterized in that: rotation of one of the first handle and the second handle results in rotation of the link arm member being limited by the moveable stop member such that the link arm member is permitted to rotate a first amount to provide a partial flush for the toilet assembly; and in that rotation of both the first handle and the second handle results in movement of the moveable stop member such that the link arm member is permitted to rotate a second amount greater than the first amount to provide a full flush for the toilet assembly. a first handle configured to be mounted to a first side of a toilet tank; a second handle mounted coaxially relative to the first handle and configured to be mounted to the first side of the toilet tank; a housing configured to be mounted to a second side of the toilet tank; a link arm member (553,554) provided within the housing and pivotally coupled to the first and second handles; and a moveable stop member provided within the housing; rotation of one of the first handle and the second handle results in rotation of the link arm member being limited by the moveable stop member such that the link arm member is permitted to rotate a first amount to provide a partial flush for the toilet assembly; and in that rotation of both the first handle and the second handle results in movement of the moveable stop member such that the link arm member is permitted to rotate a second amount greater than the first amount to provide a full flush for the toilet assembly.
An apparatus for reflow soldering (200, 300) comprising: a. at least one heat source configured to heat a solder material (130, 510) at least up to a liquidus temperature; and b. at least one low pressure control device configured to generate at least twice a low pressure around the solder material (130, 510) during a time interval in which the solder material (130, 510) has a temperature greater than or equal to the liquidus temperature. a. at least one heat source configured to heat a solder material (130, 510) at least up to a liquidus temperature; and b. at least one low pressure control device configured to generate at least twice a low pressure around the solder material (130, 510) during a time interval in which the solder material (130, 510) has a temperature greater than or equal to the liquidus temperature.
A Portland cement-free porous rigid mineral plant substrate, with a final compressive strength after hardening between 3 MPa and 10 MPa and porosity between 25% and 35%, comprising: - a binder consisting of pozzolanic material; - at least one alkaline activator; - a water-to-binder ratio between 0.2 and 0.4 as defined in EN 206 2013; - a paste volume between 75 and 120 l/m 3; - between 1400 kg and 1600 kg of aggregates per m 3 of substrate, said aggregates with Dmax of 4 mm, - whereas the aggregates have a D90/D10 comprised between 1 and 3.5, whereas D90 is selected to be located between 3 and 3.5 mm and the D10 is equal or larger than 1.5 mm, the aggregates comprising a natural packing solid is between 55% and 65% by volume. - a binder consisting of pozzolanic material; - at least one alkaline activator; - a water-to-binder ratio between 0.2 and 0.4 as defined in EN 206 2013; - a paste volume between 75 and 120 l/m 3; - between 1400 kg and 1600 kg of aggregates per m 3 of substrate, said aggregates with Dmax of 4 mm, - whereas the aggregates have a D90/D10 comprised between 1 and 3.5, whereas D90 is selected to be located between 3 and 3.5 mm and the D10 is equal or larger than 1.5 mm, the aggregates comprising a natural packing solid is between 55% and 65% by volume.
A method comprising: receiving, at a node in a network, communication channel data regarding a plurality of communication channels available between a particular device in the network and a neighboring device, wherein at least one of said communication channels comprises a plurality of electrical phases over which the particular device can communicate with the neighboring device, and wherein the communication channel data comprises a count of single-phase channels, a count of dual-phase channels, and a count of tri-phase channels available on power lines between the particular device and the neighboring device; receiving crosstalk data regarding an amount of crosstalk between the electrical phases over which the particular device can communicate with the neighboring device; and generating a routing path in the network based on the received crosstalk and communication channel data. receiving, at a node in a network, communication channel data regarding a plurality of communication channels available between a particular device in the network and a neighboring device, wherein at least one of said communication channels comprises a plurality of electrical phases over which the particular device can communicate with the neighboring device, and wherein the communication channel data comprises a count of single-phase channels, a count of dual-phase channels, and a count of tri-phase channels available on power lines between the particular device and the neighboring device; receiving crosstalk data regarding an amount of crosstalk between the electrical phases over which the particular device can communicate with the neighboring device; and generating a routing path in the network based on the received crosstalk and communication channel data.
A method for forming a mouth roll to a cup made of plastic-coated cup board, wherein the roll is generated at the mouth of the cup by bending the board and stabilised by melting the plastic coating of the board under heat by laser radiation, a laser beam being directed to the base of the roll, so that the opposite surfaces of the board are heat-sealed to each other in the area of the roll.
A suspension controlling apparatus for a vehicle, comprising: a suspension (22F, 22R) whose damping force is variably settable; and a control unit capable of executing skyhook control on the basis of target damping force for skyhook control to control the damping force of the suspension (22F, 22R); the control unit to which a roll angle detected by a roll angle sensor is input including suspension state detection means for detecting a compressed state and a decompressed state of the suspension (22F, 22R), target damping force setting means for determining the target damping force on the basis of sprung and unsprung speeds of the suspension (22F, 22R), and target damping force limit value determination means for determining target damping force limit values such that a value obtained by subtracting, from the target damping force limit value on the decompression side when the suspension (22F, 22R) is in a decompressed state, the target damping force limit value on the compression side when the suspension (22F, 22R) is in a compressed state increases as the roll angle increases, the target damping forces being limited with the target damping force limit value, characterised by a low select means for selecting a lower value between the target damping force for skyhook control determined by the target damping force setting means and the target damping force limit value determined by the target damping force limit value determination means for suppressing vibration ensuring rolling stability to control the suspension of the vehicle. a suspension (22F, 22R) whose damping force is variably settable; and a control unit capable of executing skyhook control on the basis of target damping force for skyhook control to control the damping force of the suspension (22F, 22R); the control unit to which a roll angle detected by a roll angle sensor is input including suspension state detection means for detecting a compressed state and a decompressed state of the suspension (22F, 22R), target damping force setting means for determining the target damping force on the basis of sprung and unsprung speeds of the suspension (22F, 22R), and target damping force limit value determination means for determining target damping force limit values such that a value obtained by subtracting, from the target damping force limit value on the decompression side when the suspension (22F, 22R) is in a decompressed state, the target damping force limit value on the compression side when the suspension (22F, 22R) is in a compressed state increases as the roll angle increases, the target damping forces being limited with the target damping force limit value, characterised by a low select means for selecting a lower value between the target damping force for skyhook control determined by the target damping force setting means and the target damping force limit value determined by the target damping force limit value determination means for suppressing vibration ensuring rolling stability to control the suspension of the vehicle.