mhurhangee/ep-ind-claims huggingface dataset:
A server apparatus comprising a data communication interface, one or more processors, and one or more memories including computer program code, the one or more memories and the computer program code configured to, with the one or more processors, cause the server apparatus at least to: receive, with the data communication interface, from a plurality of mobile apparatuses (110, 120) usage data (154, 158) about wireless communication networks as utilized by the plurality of mobile apparatuses (110, 120) each associated with a set (112, 122) of subscriber identity modules (114, 116, 124, 126) performing subscriber identification and authentication in the wireless communication networks, wherein the usage data comprises information on at least one of the following relating to the utilization of the wireless communication networks: connectivity, connection performance, connection quality; update subscriber identity module-specific preferred roaming lists based on the usage data (154, 158); and transmit, with the data communication interface, the updated preferred roaming lists (156, 160) for use by the sets (112, 122) of the subscriber identity modules (114, 116, 124, 126) in the plurality of the mobile apparatuses (110, 120). receive, with the data communication interface, from a plurality of mobile apparatuses (110, 120) usage data (154, 158) about wireless communication networks as utilized by the plurality of mobile apparatuses (110, 120) each associated with a set (112, 122) of subscriber identity modules (114, 116, 124, 126) performing subscriber identification and authentication in the wireless communication networks, wherein the usage data comprises information on at least one of the following relating to the utilization of the wireless communication networks: connectivity, connection performance, connection quality; update subscriber identity module-specific preferred roaming lists based on the usage data (154, 158); and transmit, with the data communication interface, the updated preferred roaming lists (156, 160) for use by the sets (112, 122) of the subscriber identity modules (114, 116, 124, 126) in the plurality of the mobile apparatuses (110, 120).
Adjustment drive for adjusting a component, in particular tailgate drive, with a bearing cover (2.1') which has a bearing surface (2.1.5') for the mounting of an output-side gearing arrangement, wherein the output-side gearing arrangement is rotatable about an output axis (2.5), wherein the bearing surface (2.1.5') is arranged concentrically about a bearing cover axis (2.1.6'), wherein a gearing housing for the mounting of a drive-side gearing arrangement and/or of a drive motor is provided on the drive side of the bearing cover (2.1'), wherein a fastening component for the fastening of the adjustment drive is provided on the output side of the bearing cover (2.1'), and wherein the fastening component and/or the gearing housing are fastened to the bearing cover (2.1') by means of fastening means, wherein the bearing cover (2.1') comprises a first reference element (61.1) which is at a defined distance (a) from the bearing cover axis (2.1.6') and on which the fastening component is arranged, and a second reference element (61.2) which is at the defined distance (a) from the bearing cover axis (2.1.6') and on which the gearing housing is arranged, characterized in that the fastening component and the gearing housing are arranged on a first reference component which is designed as a locating pin and forms the reference elements (61.1, 61.2), and a second reference component which is designed as a locating pin is arranged as third reference element (62.1) in an elongated hole, which is designed as a third counter reference element (3.5'), for the arrangement of the fastening component.
A speed control device configured to be installed in a traveling work vehicle, the speed control device configured to change a speed of rotational drive power from an engine to drive vehicle wheels and comprising: a speed change device; a maximum speed definer configured to define a maximum speed of the traveling work vehicle; a target speed calculator configured to calculate a ratio of a target speed to the maximum speed and determine the target speed, based on operation movement or position of the speed change device; a vehicle speed controller configured to adjust or change at least one of: engine revolutions; and/or a speed change ratio; a vehicle speed obtainer configured to obtain an actual speed of the traveling work vehicle; and a braking device configured to brake the traveling work vehicle; characterized by a forcible target speed modifier configured to forcibly modify the target speed to a lower speed based on operation or movement of the braking device; and a release operable to treat an operation of the speed change device as a trigger to cancel the target speed forcibly modified by the forcible target speed modifier, and conform the target speed to the actual vehicle speed. a speed change device; a maximum speed definer configured to define a maximum speed of the traveling work vehicle; a target speed calculator configured to calculate a ratio of a target speed to the maximum speed and determine the target speed, based on operation movement or position of the speed change device; a vehicle speed controller configured to adjust or change at least one of: engine revolutions; and/or a speed change ratio; engine revolutions; and/or a speed change ratio; a vehicle speed obtainer configured to obtain an actual speed of the traveling work vehicle; and a braking device configured to brake the traveling work vehicle; characterized by a forcible target speed modifier configured to forcibly modify the target speed to a lower speed based on operation or movement of the braking device; and a release operable to treat an operation of the speed change device as a trigger to cancel the target speed forcibly modified by the forcible target speed modifier, and conform the target speed to the actual vehicle speed.
A fuel cell system comprising: a fuel cell that generates power by using a fuel and an oxidant gas; a housing that stores the fuel cell; a ventilating device that includes a ventilation fan which performs ventilation of the inside of the housing, and a flow rate detection device which is disposed on a flow channel of a fluid which flows due to the ventilation when the ventilation of the inside of the housing is performed by the ventilation fan, and outputs an On signal in a case where a flow rate of the fluid is higher than a first flow rate (Qk) and outputs an Off signal in a case where the flow rate of the fluid is equal to or lower than the first flow rate; and a control device that controls at least the ventilation fan, wherein the first flow rate is set to be higher than a second flow rate (Qx) corresponding to the maximum flow rate of a flow rate of the fluid which causes the fluid to become flammable in a case where the fluid contains a fuel, a part of the flow channel of the fluid is constituted by an exhaust portion (Ex) through which the fluid discharged out of the housing flows during the ventilation, the ventilation fan is disposed in the exhaust portion, the control device includes a first abnormality checking portion (S112-S116) that, after the control device starts control for driving the ventilation fan so as to ventilate the inside of the housing, reduces a driving amount of the ventilation fan from a first driving amount (Dv) of the ventilation fan within an On-driving amount range (Hon) in which an output signal from the flow rate detection device is an On signal to a second driving amount (Dc) of the ventilation fan within an Off-driving amount range in which an output signal from the flow rate detection device is an Off signal and checks abnormality of the flow rate detection device by checking whether or not an output signal from the flow rate detection device changes from the On signal to the Off signal, and the Off-driving amount range (Hoff1) is set to be greater than zero and to be equal to or smaller than a first flow rate driving amount (Dk) corresponding to the first flow rate, or the Off-driving amount range (Hoff2) is set to be greater than a second flow rate driving amount (Dx) corresponding to the second flow rate and to be equal to or smaller than the first flow rate driving amount. a fuel cell that generates power by using a fuel and an oxidant gas; a housing that stores the fuel cell; a ventilating device that includes a ventilation fan which performs ventilation of the inside of the housing, and a flow rate detection device which is disposed on a flow channel of a fluid which flows due to the ventilation when the ventilation of the inside of the housing is performed by the ventilation fan, and outputs an On signal in a case where a flow rate of the fluid is higher than a first flow rate (Qk) and outputs an Off signal in a case where the flow rate of the fluid is equal to or lower than the first flow rate; and a control device that controls at least the ventilation fan, wherein
Method for aligning dough pieces on a conveying surface of a conveyor, comprising the steps of: providing at least one dough piece to a supply device arranged above the conveying surface, wherein the at least one dough piece is temporarily held by said supply device; supplying the at least one dough piece onto the conveying surface, wherein said conveying surface is moving in a conveyance direction, and wherein the at least one dough piece is supplied onto said conveying surface up-stream of a roller arranged at a distance above said conveying surface; blocking the conveyance of the at least one dough piece by the roller, wherein said roller is driven to rotate in a rotation direction such that a peripheral velocity at a side of said roller facing said conveying surface is substantially opposite to said conveyance direction; temporarily reversing said rotation direction of the roller in order to pass the at least one dough piece underneath said roller; and conveying the at least one dough piece on said conveying surface. providing at least one dough piece to a supply device arranged above the conveying surface, wherein the at least one dough piece is temporarily held by said supply device; supplying the at least one dough piece onto the conveying surface, wherein said conveying surface is moving in a conveyance direction, and wherein the at least one dough piece is supplied onto said conveying surface up-stream of a roller arranged at a distance above said conveying surface; blocking the conveyance of the at least one dough piece by the roller, wherein said roller is driven to rotate in a rotation direction such that a peripheral velocity at a side of said roller facing said conveying surface is substantially opposite to said conveyance direction; temporarily reversing said rotation direction of the roller in order to pass the at least one dough piece underneath said roller; and conveying the at least one dough piece on said conveying surface.
A method of selectively plating nickel on an intermediate semiconductor device structure, comprising: providing an intermediate semiconductor device structure comprising at least one exposed tungsten structure and at least one of at least one exposed aluminum structure and at least one exposed copper structure on a semiconductor substrate; activating either the at least one exposed tungsten structure or the at least one of the at least one exposed aluminum structure and the at least one exposed copper structure toward nickel plating; and nickel plating either the activated at least one exposed tungsten structure or the activated at least one of the at least one exposed aluminum structure and the at least one exposed copper structure while the other of the at least one exposed tungsten structure or the at least one of the at least one exposed aluminum structure and the at least one exposed copper structure remains unplated. providing an intermediate semiconductor device structure comprising at least one exposed tungsten structure and at least one of at least one exposed aluminum structure and at least one exposed copper structure on a semiconductor substrate; activating either the at least one exposed tungsten structure or the at least one of the at least one exposed aluminum structure and the at least one exposed copper structure toward nickel plating; and nickel plating either the activated at least one exposed tungsten structure or the activated at least one of the at least one exposed aluminum structure and the at least one exposed copper structure while the other of the at least one exposed tungsten structure or the at least one of the at least one exposed aluminum structure and the at least one exposed copper structure remains unplated.
A lower part structure for a saddle-type vehicle, having exhaust pipes extending from exhaust ports of a multi-cylinder engine, each of the exhaust pipes passing on a lower side of a vehicle body and connected to a muffler, wherein the number of the exhaust pipes connected to the exhaust ports is four, and collecting parts, where two left ones or two right ones of the exhaust pipes collect, are provided respectively on left and right sides, and a catalyst device is disposed in each of the collecting parts; a pair of left and right down frames are provided to separately extend to left and right sides from a head pipe and extend downward; the two left ones and the two right ones of the exhaust pipes are provided in such a manner that the pair of left and right down frames are each interposed between the two exhaust pipes in plan view; the collecting parts are disposed on transverse-directionally inner sides as compared to the pair of left and right down frames, characterised in that the exhaust pipes located on outer sides of the down frames are formed with curved parts (85c, 87c) of which only portions connected to the collecting parts are curved to transverse-directionally inner sides; and protectors are provided in such a manner as to cover the curved parts (85c, 87c) from lateral sides.
A method of scheduling tasks within a GPU, the method comprising: whilst executing a first GPU task and in response to a second GPU task becoming ready to run, determining which of the first and second GPU task has a higher priority; and in response to determining that the second GPU task has a higher priority than the currently executing first GPU task: estimating a completion time for each of the first and second GPU tasks; determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task; and in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to continue execution (308, 330) and setting a timer to a time given by D-(E+C), wherein D is the deadline for the second GPU task, E is the estimated time to complete the second GPU task, and C is the time taken to perform the context switch from the first GPU task to the second GPU task; and in response to the timer expiring prior to completion of execution of the first GPU task, interrupting the execution of the first GPU task and executing the second GPU task. whilst executing a first GPU task and in response to a second GPU task becoming ready to run, determining which of the first and second GPU task has a higher priority; and in response to determining that the second GPU task has a higher priority than the currently executing first GPU task: estimating a completion time for each of the first and second GPU tasks; determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task; and in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to continue execution (308, 330) and setting a timer to a time given by D-(E+C), wherein D is the deadline for the second GPU task, E is the estimated time to complete the second GPU task, and C is the time taken to perform the context switch from the first GPU task to the second GPU task; and estimating a completion time for each of the first and second GPU tasks; determining, using the estimated completion times, whether both the first and second GPU tasks can be completed before a deadline associated with the second GPU task; and in response to determining that both the first and second GPU tasks can be completed before the deadline associated with the second GPU task, allowing the first GPU task to continue execution (308, 330) and setting a timer to a time given by D-(E+C), wherein D is the deadline for the second GPU task, E is the estimated time to complete the second GPU task, and C is the time taken to perform the context switch from the first GPU task to the second GPU task; and in response to the timer expiring prior to completion of execution of the first GPU task, interrupting the execution of the first GPU task and executing the second GPU task.
A composition comprising a hepatitis C virus Envelope 2 polypeptide wherein the polypeptide is modified to comprise a cysteine mutated at 2, 3, or 4 cysteines selected from C452, C486, C569, and C597, wherein the polypeptide residues are numbered according to the prototype HCV-H77 polyprotein sequence in Genbank Accession No. AF009606, and wherein the polypeptide forms fewer multimers by intermolecular disulfide bonding relative to the HCV E2 polypeptide without cysteine modification, and retains CD81 binding.
Machine for producing and distributing a stream of warm air in open-country agricultural crops in order to protect' them against frost and cold, and comprising: - at least one blower able to produce at least one stream of air, the said blower comprising an air suction intake and at least one air delivery outlet, - at least one heat exchanger through which a stream of air that is to be heated passes, comprising: - at least one flow canal for a stream of air that is to be heated, provided with an air inlet and with an air outlet, - at least one heat source in a heat exchange relationship with the flow canal for the stream of air, the said heat source comprising an internal combustion chamber equipped with at least one burner comprising an oxidizing-air supply nozzle and a fuel supply nozzle, the said chamber being equipped with a burnt gas discharge outlet, characterized in that the or each blower, when considering the direction in which the stream of air progresses through the heat exchanger, is arranged downstream of the said exchanger and, via its suction intake is in direct communication with the air outlet of the flow canal that the heat exchanger comprises, and in that the oxidizing-air supply nozzle that the burner comprises is in communication via a duct with the or one of the delivery outlets of the blower, so as to be supplied with warm air by the latter. - at least one blower able to produce at least one stream of air, the said blower comprising an air suction intake and at least one air delivery outlet, - at least one heat exchanger through which a stream of air that is to be heated passes, comprising: - at least one flow canal for a stream of air that is to be heated, provided with an air inlet and with an air outlet, - at least one heat source in a heat exchange relationship with the flow canal for the stream of air, the said heat source comprising an internal combustion chamber equipped with at least one burner comprising an oxidizing-air supply nozzle and a fuel supply nozzle, the said chamber being equipped with a burnt gas discharge outlet,
A vapor or liquid phase reagent dispensing apparatus comprising: a vessel which comprises a removable top wall member, a sidewall member and a bottom wall member configured to form an internal vessel compartment to hold a source chemical up to a fill level and to additionally define an inner gas volume above the fill level; said sidewall member having a protuberance that extends into the internal vessel compartment adjacent to the top wall member; said top wall member and said sidewall member having opposing flat surfaces, wherein the opposing flat surfaces are optionally in contact with one another; fastening means for securing said top wall member to said sidewall member through the opposing flat surfaces that are optionally in contact with one another; said top wall member and said protuberance having opposing flat surfaces, wherein the opposing flat surfaces are not in contact with one another and at least a portion of the opposing flat surfaces are hardened; and a metal seal aligned and in contact with the hardened opposing flat surfaces of said top wall member and said protuberance; wherein said hardened opposing flat surfaces of said top wall member and said protuberance have a hardness greater than the hardness of said metal seal. a vessel which comprises a removable top wall member, a sidewall member and a bottom wall member configured to form an internal vessel compartment to hold a source chemical up to a fill level and to additionally define an inner gas volume above the fill level; said sidewall member having a protuberance that extends into the internal vessel compartment adjacent to the top wall member; said top wall member and said sidewall member having opposing flat surfaces, wherein the opposing flat surfaces are optionally in contact with one another; fastening means for securing said top wall member to said sidewall member through the opposing flat surfaces that are optionally in contact with one another; said top wall member and said protuberance having opposing flat surfaces, wherein the opposing flat surfaces are not in contact with one another and at least a portion of the opposing flat surfaces are hardened; and a metal seal aligned and in contact with the hardened opposing flat surfaces of said top wall member and said protuberance;
An electrostatically controlled micro-electro mechanical system device comprising: first and second adjacent electrodes (14, 16) formed in a substrate; a trench disposed between the first and second adjacent electrodes (14, 16) to form a gap of a width (a) between opposing sides of said first and second electrodes and a depth (b); and an insulating layer with a protrusion disposed between the first and second electrodes (14, 16) having a height (h) said protrusion protruding from a bottom surface of the trench, characterized in that the aspect ratio ((b-h)/a) is ≥ 2. first and second adjacent electrodes (14, 16) formed in a substrate; a trench disposed between the first and second adjacent electrodes (14, 16) to form a gap of a width (a) between opposing sides of said first and second electrodes and a depth (b); and an insulating layer with a protrusion disposed between the first and second electrodes (14, 16) having a height (h) said protrusion protruding from a bottom surface of the trench, characterized in that the aspect ratio ((b-h)/a) is ≥ 2.