mhurhangee/ep-ind-claims huggingface dataset:
Protection method for a rail network, which is divided by track elements (S1, S2,..., Sp) into track sections (G1, G2,..., Gq) and on which vehicles (Z1, Z2,..., Zr) can travel, - in which the vehicles (Z1, Z2,..., Zr) request, from selected track elements, steps (B, R, M) for assignment as a route element and - in which each of the selected track elements (Si, where i = 1 to p) automatically assigns itself as a route element, under predefined conditions, for each vehicle (Zm, where m = 1 to r) which requests the steps for assignment as a route element from it, in that - in response to a first request (A B ZmSi, where m = 1 to r and i = 1 to p) of the respective vehicle (Zm, where m = 1 to r) in a type of loading requested by the respective vehicle (F1; F2; F3; F4; f1; f2), makes its authorisation as a route element for the respective vehicle (Zm, where m = 1 to r), - in response to a second request (A R ZmSi, where m = 1 to r and i = 1 to p) of the respective vehicle (Zm, where m = 1 to r) makes its registration as a route element for the respective vehicle, and - in response to a third request (A M ZmSi, where m = 1 to r and i = 1 to p) of the respective vehicle (Zm, where m = 1 to r) makes its marking as a route element for the respective vehicle. - in which the vehicles (Z1, Z2,..., Zr) request, from selected track elements, steps (B, R, M) for assignment as a route element and - in which each of the selected track elements (Si, where i = 1 to p) automatically assigns itself as a route element, under predefined conditions, for each vehicle (Zm, where m = 1 to r) which requests the steps for assignment as a route element from it, in that - in response to a first request (A B ZmSi, where m = 1 to r and i = 1 to p) of the respective vehicle (Zm, where m = 1 to r) in a type of loading requested by the respective vehicle (F1; F2; F3; F4; f1; f2), makes its authorisation as a route element for the respective vehicle (Zm, where m = 1 to r), - in response to a second request (A R ZmSi, where m = 1 to r and i = 1 to p) of the respective vehicle (Zm, where m = 1 to r) makes its registration as a route element for the respective vehicle, and - in response to a third request (A M ZmSi, where m = 1 to r and i = 1 to p) of the respective vehicle (Zm, where m = 1 to r) makes its marking as a route element for the respective vehicle.
A ventilation apparatus comprising: a casing (110, 112); a suction device received in the casing (110, 112) and including a suction fan to generate suction force for suctioning air; and a vortex forming device received in the casing (110, 112) and including a swirler rotated at a lower portion of the casing (110, 112) to generate the vortex and a driving motor to rotate the swirler, wherein the swirler includes a rotating plate having an air passage hole and a plurality of blades arranged along a rim of the rotating plate and spaced apart from each other in a circumferential direction, and wherein the vortex forming device is positioned lower than a rotation center of the suction fan, in the casing (110, 112), characterized in that the suction device includes a suction motor to rotate the suction fan and a fan housing receiving the suction fan to allow air flow when the suction fan is rotated, wherein the casing (110, 112) includes: a first casing in which the suction device is received; and a second casing disposed under the first casing, having a horizontal sectional area wider than a horizontal sectional area of the first casing, and receiving the vortex forming device therein, and an uppermost point of the driving motor is positioned higher than a lowermost point of the suction device. a casing (110, 112); a suction device received in the casing (110, 112) and including a suction fan to generate suction force for suctioning air; and a vortex forming device received in the casing (110, 112) and including a swirler rotated at a lower portion of the casing (110, 112) to generate the vortex and a driving motor to rotate the swirler, wherein the swirler includes a rotating plate having an air passage hole and a plurality of blades arranged along a rim of the rotating plate and spaced apart from each other in a circumferential direction, and wherein the vortex forming device is positioned lower than a rotation center of the suction fan, in the casing (110, 112), characterized in that the suction device includes a suction motor to rotate the suction fan and a fan housing receiving the suction fan to allow air flow when the suction fan is rotated, wherein the casing (110, 112) includes: a first casing in which the suction device is received; and a second casing disposed under the first casing, having a horizontal sectional area wider than a horizontal sectional area of the first casing, and receiving the vortex forming device therein, and a first casing in which the suction device is received; and a second casing disposed under the first casing, having a horizontal sectional area wider than a horizontal sectional area of the first casing, and receiving the vortex forming device therein, and an uppermost point of the driving motor is positioned higher than a lowermost point of the suction device.
Cutting strand segment for a cutting strand of a power-tool parting device, having at least one a cutter carrier element (16a; 16a'; 16c), having at least one cutting element (18a; 18a'; 18c) arranged on the cutter carrier element (16a; 16a'; 16c), and having at least one cut-depth limiting element (20a; 20a'; 20c), arranged on the cutter carrier element (16a; 16a'; 16c), for limiting a maximum depth of cut of the cutting element (18a; 18a'; 18c), wherein the cut-depth limiting element (20a; 20a'; 20c) limits a maximum depth of cut of the cutting element (18a; 18a'; 18c) to a value of less than 0.5 mm, characterized by at least one transverse securing element (22a; 22a') which is arranged on the cutter carrier element (16a; 16a'; 16b; 16b') and which is intended to secure the cutter carrier element (16a; 16a'), when in a mounted state, as far as possible against a transverse movement relative to a further cutter carrier element of the cutting strand wherein the transverse securing element (22a; 22a') is intended, as a result of a form fit and/or as a result of a force fit, to secure a movement along a transverse axis that extends at least substantially perpendicularly to a cutting plane of the cutting element (18a; 18a'; 18c), wherein the cutting strand element (10a, 10a'), for connection to a further cutting strand segment (48a, 48a) of the cutting strand (12a, 12a'), has at least one stud-form connecting element (46a, 46a') which is formed integrally with a cutter carrier element (16a, 16a') of the cutting strand segment (10a, 10a').
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, first system information, SI, which is broadcasted periodically, the first SI including first information indicating whether second SI other than the first SI is being broadcasted or not, second information on a physical random access channel, PRACH, preamble, and third information on a PRACH resource, wherein the PRACH preamble and the PRACH resource are for requesting the second SI; transmitting, to the base station, the PRACH preamble on the PRACH resource to request the second SI, based on the first information indicating that the second SI is not being broadcasted; and receiving, from the base station, the requested second SI. receiving, from a base station, first system information, SI, which is broadcasted periodically, the first SI including first information indicating whether second SI other than the first SI is being broadcasted or not, second information on a physical random access channel, PRACH, preamble, and third information on a PRACH resource, wherein the PRACH preamble and the PRACH resource are for requesting the second SI; transmitting, to the base station, the PRACH preamble on the PRACH resource to request the second SI, based on the first information indicating that the second SI is not being broadcasted; and receiving, from the base station, the requested second SI.
A user equipment comprising: a transceiver that is configured to: receive, from a network equipment, system information for performing cell reselection, the system information including a cell list and priority information, wherein the cell list includes an identifier of a cell connected to an evolved packet core, EPC, or an identifier of a cell connected to a 5G core, 5GC, wherein the cell corresponding to the identifier is a serving cell or a neighbour cell of the serving cell, and wherein the priority information indicates that a frequency associated with 5GC has a higher priority than a frequency associated with EPC, or the frequency associated with 5GC has the same priority as the frequency associated with EPC, wherein the system information further includes a threshold value, a time interval, an offset value, and/or a network type of the neighbour cell, and wherein: the user equipment is configured to use the threshold value when reselecting towards a higher priority cell; to apply the time interval when the neighbour cell is evaluated for camping; and to apply the offset value to the cell connected to the 5GC; the transceiver is configured to receive a signal from the neighbour cell; and the user equipment further comprises a processor that is configured to: perform wireless signal strength measurement for the neighbour cell in response to the priority information indicating the frequency associated with 5GC has a higher priority than the frequency associated with EPC; and enable the user equipment to be camped on the neighbour cell in response to the signal strength measurement for the neighbour cell is not less than the threshold value during the time interval. the user equipment is configured to use the threshold value when reselecting towards a higher priority cell; to apply the time interval when the neighbour cell is evaluated for camping; and to apply the offset value to the cell connected to the 5GC; the transceiver is configured to receive a signal from the neighbour cell; and the user equipment further comprises a processor that is configured to: perform wireless signal strength measurement for the neighbour cell in response to the priority information indicating the frequency associated with 5GC has a higher priority than the frequency associated with EPC; and enable the user equipment to be camped on the neighbour cell in response to the signal strength measurement for the neighbour cell is not less than the threshold value during the time interval. perform wireless signal strength measurement for the neighbour cell in response to the priority information indicating the frequency associated with 5GC has a higher priority than the frequency associated with EPC; and enable the user equipment to be camped on the neighbour cell in response to the signal strength measurement for the neighbour cell is not less than the threshold value during the time interval.
A corded hose for an electric tool, comprising a hose configured to connect between a dust collector and an electric tool, a power cord extending through the hose, cylindrical holders provided at both ends of the hose respectively, and a pullout port formed in an upper side of each cylindrical holder substantially at a longitudinal center thereof, wherein the power cord comprises respective ends wherein each of both ends of the power cord is pulled out to an outside of the hose through the pullout port of the corresponding one of the holders, characterized in that each of the cylindrical holders comprises a pair of half cylinders which sandwich a corresponding one of the ends of the hose in a state in which the pair of half cylinders are assembled with each other, each half cylinder comprises a semicircular notch such that the pullout port is formed in the upper side of the respective cylindrical holder substantially at the longitudinal center thereof in the assembled state of the half cylinders, wherein the pullout port is formed by the semicircular notches open in an inclined manner toward a proximate one of the ends of the hose, and the end of the power cord pulled out to the outside of the hose through the pullout port of the corresponding one of the cylindrical holders is sandwiched and held in the assembled state of the pair of half cylinders.
A withdrawable base module for a switch, comprising: a base configured to be coupled to a busbar of a switchgear for electrically connecting the switch and comprising a second female contact arranged to be electrically connected to the busbar; a conversion assembly coupled to the base and comprising a drive mechanism, a first female contact and a carrying mechanism adapted to carry the switch; a mounting assembly for the switch to be placed on the base; and an auxiliary assembly moveably attached to the mounting assembly and being slidable relative to the conversion assembly and comprising a first male contact configured to be electrically connected to the switch; wherein the drive mechanism is operable to drive the auxiliary assembly to slide to cause the first male contact to move towards and contact the first female contact to only close a test circuit for the switch, and wherein the mounting assembly comprises a second male contact via which the switch is configured to contact the second female contact for closing a main circuit of the switch in response to a further operation of the drive mechanism after the test circuit is closed. a base configured to be coupled to a busbar of a switchgear for electrically connecting the switch and comprising a second female contact arranged to be electrically connected to the busbar; a conversion assembly coupled to the base and comprising a drive mechanism, a first female contact and a carrying mechanism adapted to carry the switch; a mounting assembly for the switch to be placed on the base; and an auxiliary assembly moveably attached to the mounting assembly and being slidable relative to the conversion assembly and comprising a first male contact configured to be electrically connected to the switch; wherein the drive mechanism is operable to drive the auxiliary assembly to slide to cause the first male contact to move towards and contact the first female contact to only close a test circuit for the switch, and wherein the mounting assembly comprises a second male contact via which the switch is configured to contact the second female contact for closing a main circuit of the switch in response to a further operation of the drive mechanism after the test circuit is closed.
A system for managing illumination of a keyboard that is coupled to an electronic device or computer system, the system comprising: an imaging device configured to determine a direction of a user's eyesight relative to the keyboard; and a light source controller configured to place one or more backlights illuminating the keyboard in an on-state or an off-state according to the determined direction of the user's eyesight relative to the keyboard, wherein the light source controller is configured to turn off or keep off at least one backlight illuminating the keyboard if the user's eyesight is directed away from the keyboard. an imaging device configured to determine a direction of a user's eyesight relative to the keyboard; and a light source controller configured to place one or more backlights illuminating the keyboard in an on-state or an off-state according to the determined direction of the user's eyesight relative to the keyboard, wherein the light source controller is configured to turn off or keep off at least one backlight illuminating the keyboard if the user's eyesight is directed away from the keyboard.
A method for automatically operating a continuous mining machine, the method comprising: accessing at least one coordinate of a cutting face stored in a computer-readable medium; automatically operating at least one actuator (136, 171, 172) to position a platform (128, 130, 168) a predetermined starting distance from the at least one coordinate, the platform (128, 120, 168) supporting a cutterhead; and automatically operating the at least one actuator (136, 171, 172) to advance the platform (128, 130, 168) toward the cutting face and beyond the at least one coordinate by a predetermined depth-of-cut to perform a cut of the cutting face with the cutterhead. accessing at least one coordinate of a cutting face stored in a computer-readable medium; automatically operating at least one actuator (136, 171, 172) to position a platform (128, 130, 168) a predetermined starting distance from the at least one coordinate, the platform (128, 120, 168) supporting a cutterhead; and automatically operating the at least one actuator (136, 171, 172) to advance the platform (128, 130, 168) toward the cutting face and beyond the at least one coordinate by a predetermined depth-of-cut to perform a cut of the cutting face with the cutterhead.
A device comprising: a display, the display comprising: a main area; a first curved area extending from a right side of the main area; and a second curved area extending from a left side of the main area; a sensor configured to detect a state and/or a change in the state of the device; wherein the change in the state of the device comprises a change in an angle of orientation of the device along an axis of rotation about which the device rotates; and a controller configured to control the display to, in response to the change in the angle of orientation of the device being beyond a preset angle to the right side while a first information related to a first application is provided on the first curved area and a second information related to a second application is provided on the main area, move and provide the first information displayed on the first curved area to the second curved area according to the changed state of the device, and maintain the second information displayed on the main area, wherein the first information comprises a user interface provided by the first application. a display, the display comprising: a main area; a first curved area extending from a right side of the main area; and a second curved area extending from a left side of the main area; a main area; a first curved area extending from a right side of the main area; and a second curved area extending from a left side of the main area; a sensor configured to detect a state and/or a change in the state of the device; wherein the change in the state of the device comprises a change in an angle of orientation of the device along an axis of rotation about which the device rotates; and a controller configured to control the display to, in response to the change in the angle of orientation of the device being beyond a preset angle to the right side while a first information related to a first application is provided on the first curved area and a second information related to a second application is provided on the main area, move and provide the first information displayed on the first curved area to the second curved area according to the changed state of the device, and maintain the second information displayed on the main area, wherein the first information comprises a user interface provided by the first application.
A system for humidifying breathing gas, the system comprising: a housing having a liquid inlet, a liquid outlet, a gas inlet, and a gas outlet; a vapor transfer compartment disposed within the housing and having: a first gas passage coupling the gas inlet to the gas outlet; a liquid passage (111a-f) coupling the liquid inlet to the liquid outlet; and a porous membrane separating the first gas passage and the liquid passage (111a-f); and a bypass gas passage disposed within the housing and coupling the gas inlet to the gas outlet, characterised in that the bypass gas passage comprises a constriction and is configured to receive a fraction of the gas received by the gas inlet; wherein the constriction narrows the internal diameter of the bypass gas passage so that the fraction of gas received by the bypass passage decreases as a rate of gas flow into the gas inlet increases. a housing having a liquid inlet, a liquid outlet, a gas inlet, and a gas outlet; a vapor transfer compartment disposed within the housing and having: a first gas passage coupling the gas inlet to the gas outlet; a liquid passage (111a-f) coupling the liquid inlet to the liquid outlet; and a porous membrane separating the first gas passage and the liquid passage (111a-f); and a first gas passage coupling the gas inlet to the gas outlet; a liquid passage (111a-f) coupling the liquid inlet to the liquid outlet; and a porous membrane separating the first gas passage and the liquid passage (111a-f); and a bypass gas passage disposed within the housing and coupling the gas inlet to the gas outlet, characterised in that the bypass gas passage comprises a constriction and is configured to receive a fraction of the gas received by the gas inlet; wherein the constriction narrows the internal diameter of the bypass gas passage so that the fraction of gas received by the bypass passage decreases as a rate of gas flow into the gas inlet increases.
An antisense oligonucleotide selected from the group consisting of: (i) an antisense oligonucleotide of 22 bases comprising the base sequence GAT CTG TCA AAT CGC CTG CAG G (SEQ ID NO: 5); and (ii) an antisense oligonucleotide of 24 bases comprising the base sequence CAG ATC TGT CAA ATC GCC TGC AGG (SEQ ID NO: 1); wherein the sugar moieties of the oligonucleotide backbone are replaced with morpholinos or a pharmaceutically acceptable salt thereof. (i) an antisense oligonucleotide of 22 bases comprising the base sequence GAT CTG TCA AAT CGC CTG CAG G (SEQ ID NO: 5); and (ii) an antisense oligonucleotide of 24 bases comprising the base sequence CAG ATC TGT CAA ATC GCC TGC AGG (SEQ ID NO: 1);
A vacuum cleaner comprising: a head unit including: a suction pipe configured to transfer a suction force; a first suction chamber in communication with the suction pipe and configured to use the suction force to suction debris having a first size from a surface at a first vacuum pressure; a second suction chamber, separated from the first suction chamber, provided behind the first suction chamber relative to a direction of travel of the head unit, in communication with the suction pipe, and configured to use the suction force to suction debris, having passed under the first suction chamber and having a second size smaller than the first size, from the surface at a second vacuum pressure stronger than the first vacuum pressure; characterized in that the head unit further includes a nozzle blade provided between the first suction chamber and the second suction chamber and configured to restrict debris suctioned through the first suction chamber having the first size from being transferred to the second suction chamber and allow debris having the second size to be transferred to the second suction chamber. a suction pipe configured to transfer a suction force; a first suction chamber in communication with the suction pipe and configured to use the suction force to suction debris having a first size from a surface at a first vacuum pressure; a second suction chamber, separated from the first suction chamber, provided behind the first suction chamber relative to a direction of travel of the head unit, in communication with the suction pipe, and configured to use the suction force to suction debris, having passed under the first suction chamber and having a second size smaller than the first size, from the surface at a second vacuum pressure stronger than the first vacuum pressure; characterized in that the head unit further includes a nozzle blade provided between the first suction chamber and the second suction chamber and configured to restrict debris suctioned through the first suction chamber having the first size from being transferred to the second suction chamber and allow debris having the second size to be transferred to the second suction chamber.