mhurhangee/ep-ind-claims huggingface dataset:
A vertical indexable insert with nicks for a rotary tool, which comprises: side surfaces serving as a rake faces; an upper surface serving as a flank face; cutting edges provided by a left ridge line at a position in which a left side surface intersects with the upper surface at a left side of the upper surface and by a right ridge line at a position in which a right side surface intersects with the upper surface at a right side; and a plurality of nicks that divide the left and right ridge lines into a plurality of cutting edge sections, each nick having an end in the upper surface, each nick having a width gradually increasing toward the end, characterized in that positions of said nicks dividing on the left ridge line are shifted from positions of nicks dividing on the right ridge line in a direction so as to provide a step arrangement of cutting edge sections for complementary turning without phases of insert mount positions with respect to a tool body being changed in a tool-axis direction. side surfaces serving as a rake faces; an upper surface serving as a flank face; cutting edges provided by a left ridge line at a position in which a left side surface intersects with the upper surface at a left side of the upper surface and by a right ridge line at a position in which a right side surface intersects with the upper surface at a right side; and a plurality of nicks that divide the left and right ridge lines into a plurality of cutting edge sections, each nick having an end in the upper surface, each nick having a width gradually increasing toward the end, characterized in that positions of said nicks dividing on the left ridge line are shifted from positions of nicks dividing on the right ridge line in a direction so as to provide a step arrangement of cutting edge sections for complementary turning without phases of insert mount positions with respect to a tool body being changed in a tool-axis direction.
Temperature-stable solution consisting of a) 0.1 - 10% by weight of at least one hexamidine salt, b) 40 - 95% by weight of an alkanediol having a C3 to C5 carbon chain and a ClogP of -0.2 to -1.1, c) 5 - 60% by weight of water and d) one additive or more additives for adjusting the pH value of the solution from 3.0 to 6.0 inclusive, wherein the total amount of components a) to d) is 100% by weight. a) 0.1 - 10% by weight of at least one hexamidine salt, b) 40 - 95% by weight of an alkanediol having a C3 to C5 carbon chain and a ClogP of -0.2 to -1.1, c) 5 - 60% by weight of water and d) one additive or more additives for adjusting the pH value of the solution from 3.0 to 6.0 inclusive,
An agricultural device for distributing grains, comprising a multiplicity of metering devices for separating the grains on the basis of a pressure difference by means of a separating member, wherein the individual metering devices have a grain chamber and are connected to: - a first line for supplying the grains on the basis of compressed air from a main container for storing the grains, - a second line for supplying compressed air in order to produce a pressure difference with respect to the separating of the grains on the basis of a pressure difference, and - a third line for supplying compressed air in order to transport separated grains on the basis of compressed air to the arable soil, wherein the third line branches off from the second line in a branching region, characterized in that a flow cross section of the third line is smaller than a flow cross section of the second line. - a first line for supplying the grains on the basis of compressed air from a main container for storing the grains, - a second line for supplying compressed air in order to produce a pressure difference with respect to the separating of the grains on the basis of a pressure difference, and - a third line for supplying compressed air in order to transport separated grains on the basis of compressed air to the arable soil,
A mechanical oscillator device comprising a thin film on a supporting substrate, with the supporting substrate being shaped to expose an area of the thin film to form an unsupported membrane; the membrane comprising a multitude of discrete mass elements distributed to form regions of additional mass on the membrane, with each region of additional mass comprising a plurality of discrete mass elements; wherein: - the regions of additional mass form a periodic pattern providing a phononic crystal structure on the membrane; - the phononic crystal structure exhibits a defect for confining a mechanical oscillation mode having a resonance frequency, f, and corresponding wavelength, λ; characterized in that a minimum lateral dimension, d, of the discrete mass elements is less than 1/10 of the wavelength of the mechanical oscillation mode. - the regions of additional mass form a periodic pattern providing a phononic crystal structure on the membrane; - the phononic crystal structure exhibits a defect for confining a mechanical oscillation mode having a resonance frequency, f, and corresponding wavelength, λ; characterized in that a minimum lateral dimension, d, of the discrete mass elements is less than 1/10 of the wavelength of the mechanical oscillation mode.
Method for serving passenger-specific destination calls in an elevator system, which comprises at least one elevator and also means for determining the acceleration data of an elevator car belonging to the aforementioned elevator, characterized in that the method comprises the phases: a passenger-specific destination call is registered; the vertical acceleration of the passenger is measured with a terminal device in the possession of the passenger; the acceleration data of the elevator car leaving a floor is compared with the measured acceleration data of the passenger; and the aforementioned elevator car that has left a floor is guided to the destination floor according to the aforementioned destination call if, on the basis of the comparison, there is sufficient correlation between the acceleration data of the passenger and the acceleration data of the elevator car that has left a floor. a passenger-specific destination call is registered; the vertical acceleration of the passenger is measured with a terminal device in the possession of the passenger; the acceleration data of the elevator car leaving a floor is compared with the measured acceleration data of the passenger; and the aforementioned elevator car that has left a floor is guided to the destination floor according to the aforementioned destination call if, on the basis of the comparison, there is sufficient correlation between the acceleration data of the passenger and the acceleration data of the elevator car that has left a floor.
A hydraulic lift apparatus, comprising a plurality of hydraulic actuators; a hydraulic pump; a housing (202, 302) comprising a first end and a second end, wherein the housing (202, 302) defines a generally cylindrical interior space (240, 242, 244); a piston positioned in the interior space (240, 242, 244) and partitioning the interior space (240, 242, 244) into a first region and a second region (242, 244); a dividing member (236, 238) positioned in the second region (242, 244) that partitions the second region (242, 244) into a first output region and a second output region, wherein the dividing member (236, 238, 336, 338) comprises a first hollow shaft and a second hollow shaft wherein the first hollow shaft extends downwardly from the piston and wherein the second hollow shaft is coaxial with the first hollow shaft and extends upwardly from the second end, and an input port (210, 310), a first output port (212, 312), and a second output port (214, 314) to the interior space, wherein the input port (210, 310) provides fluid communication between the first region of the interior space and the hydraulic pump; the first output port (212, 312) provides fluid communication between the first output region (242, 342) and a first one of the plurality of hydraulic actuators; and the second output port (214, 314) provides fluid communication between the second output region (244, 344) and a second one of the plurality of hydraulic actuators characterised in that the housing, the piston, the first hollow shaft, and the second hollow shaft define the first output region (242, 342), and the housing, the piston, the first hollow shaft, and the second hollow shaft define the second output region (244, 344). the dividing member (236, 238, 336, 338) comprises a first hollow shaft and a second hollow shaft wherein the first hollow shaft extends downwardly from the piston and wherein the second hollow shaft is coaxial with the first hollow shaft and extends upwardly from the second end, and an input port (210, 310), a first output port (212, 312), and a second output port (214, 314) to the interior space, wherein the input port (210, 310) provides fluid communication between the first region of the interior space and the hydraulic pump; the first output port (212, 312) provides fluid communication between the first output region (242, 342) and a first one of the plurality of hydraulic actuators; and the second output port (214, 314) provides fluid communication between the second output region (244, 344) and a second one of the plurality of hydraulic actuators characterised in that the housing, the piston, the first hollow shaft, and the second hollow shaft define the first output region (242, 342), and the housing, the piston, the first hollow shaft, and the second hollow shaft define the second output region (244, 344).
Machine for producing a metal mesh reinforcement from interconnected metal profiles, wherein the metal mesh reinforcement has multiple longitudinal profiles and one winding profile, wherein the machine has a device and a driven, rotatable main wheel for receiving multiple longitudinal profiles, wherein the device comprises a welding unit for welding a longitudinal profile to the winding profile at a connecting point of the two metal profiles and a feed unit for feeding a portion of the winding profile, provided from a master, to the welding unit, wherein the feed unit comprises a cutting arrangement for severing the winding profile in order to separate a profile portion of the winding profile from the master, wherein the cutting arrangement is also present in a cutting region of the device that is remote from the welding unit, wherein the device is configured, after the winding profile has been severed, to feed the end portion of the winding profile that was separated from the master from the cutting region to the welding unit and at least one further weld is made between the separated end portion of the winding profile and a longitudinal profile to complete the metal mesh reinforcement, characterized in that the feed unit comprises an advancing arrangement with a drive unit for the driven movement of the winding profile in a longitudinal direction of the winding profile, wherein the advancing arrangement is designed to move, from among multiple winding profiles provided next to one another in the feed unit, one of the multiple provided winding profiles to the welding unit in a driven manner by means of the drive unit.
Method for welding rotors for power generation, which comprise a plurality of rotor discs (26, 27) arranged along a rotor axis, said method comprising the steps of: providing said discs with a weld seam preparation, said weld seam preparation comprising a root, a first, gap-like welding section adjoining said root in radial direction, and a second, gap-like welding section adjoining said first welding section in radial direction; melting the root by means of a first welding process; making a weld in said first welding section by means of a second welding process; and filling up said second welding section by means of a third welding process; characterized in that said first welding process is Laser Welding; said second welding process Laser Welding; and said third welding process is Cold Metal Transfer welding providing said discs with a weld seam preparation, said weld seam preparation comprising a root, a first, gap-like welding section adjoining said root in radial direction, and a second, gap-like welding section adjoining said first welding section in radial direction; melting the root by means of a first welding process; making a weld in said first welding section by means of a second welding process; and filling up said second welding section by means of a third welding process; said first welding process is Laser Welding; said second welding process Laser Welding; and
A method for cell reselection operational on a user equipment, UE, comprising: entering into a CELL_PCH, a URA_PCH or an idle radio resource control, RRC, state from a RRC state other than the CELL_PCH state, the URA_PCH state, and the idle state; and searching for one or more carrier frequencies and/or radio access technologies, RATs, exclusively of higher priority within a predetermined period of time upon the entering into the CELL_PCH, a URA_PCH or idle state, regardless of an RF quality of a current serving cell.
Fiber optic probe comprising: at least a first optical fiber to convey an electromagnetic radiation towards a measuring area at an exit end of said first optical fiber; at least a second optical fiber to collect an electromagnetic radiation from said measuring area, an entrance end of said second optical fiber being arranged in said measuring area and arranged side-by-side to the exit end of said first optical fiber; wherein said exit end of the first optical fiber and said entrance end of the second optical fiber are treated so that at least part of the electromagnetic radiation conveyed along the first optical fiber exits laterally from said first optical fiber and enters laterally in said second optical fiber; characterized in that: - in said measuring area an indicating material is arranged indicating a parameter to be measured with said probe; - and the radiation exiting from said first optical fiber passes through said indicating material, the radiation collected by said second optical fiber being modulated by said indicating material; and - said indicating material is anchored on the side surface of at least one of said first optical fiber and said second optical fiber. - in said measuring area an indicating material is arranged indicating a parameter to be measured with said probe; - and the radiation exiting from said first optical fiber passes through said indicating material, the radiation collected by said second optical fiber being modulated by said indicating material; and - said indicating material is anchored on the side surface of at least one of said first optical fiber and said second optical fiber.
A split stator segment manufacturing method comprising the steps of: forming an insulator on a split core segment by resin molding using a molding die, the molding die including a first upper die and a second upper die, which are selectively used, and a lower die, the first upper die and the lower die being used for forming the insulator; inserting a formed coil wound in a predetermined shape in the lower die of the molding die, and molding a winding portion of the coil with resin by the second upper die and the lower die of the molding die. forming an insulator on a split core segment by resin molding using a molding die, the molding die including a first upper die and a second upper die, which are selectively used, and a lower die, the first upper die and the lower die being used for forming the insulator; inserting a formed coil wound in a predetermined shape in the lower die of the molding die, and molding a winding portion of the coil with resin by the second upper die and the lower die of the molding die.
Method for controlling a hybrid drivetrain of a hybrid motor vehicle, where the hybrid drivetrain has a dual-clutch transmission having two sub-transmissions (3, 4) of which the transmission input shafts (5, 6) are in each case able to be operatively coupled for driving to a first drive unit by means of a friction clutch (7, 8), wherein one of the two transmission input shafts (5, 6) is operatively coupled, or able to be operatively coupled, for driving to a second drive unit, wherein during a synchronization procedure for preparing a gear shift in the event of a malfunction of the second drive unit, the friction clutch (7, 8) which is assigned to that sub-transmission (3, 4) of which the transmission input shaft (5, 6) is operatively coupled, or able to be operatively coupled, for driving to the second drive unit is at least briefly placed in slip in such a way that the sub-transmission (3, 4) and the second drive unit by way of the first drive unit are set to a synchronization rotation speed, characterized in that a required rotation speed jump for setting the synchronization rotation speed is set substantially by half by the respective friction clutch (7, 8) if in the event of a required upshift in gear the rotation speed of the first drive unit is higher than the synchronization rotation speed to be set, or if in the event of a required downshift in gear the rotation speed of the first drive unit is lower than the synchronization rotation speed to be set.
An adaptive data communication control method of a portable device, the method comprising: storing a table containing data communication setting information defined for each of a plurality of service operator networks (10, 20), wherein the data communication setting information includes Fast Dormancy, FD, information corresponding to each of the plurality of service operator networks, and wherein the table records a mapping relation between Mobile Country Code/Mobile Network Code, MCC/MNC, information of each of the plurality of service operator networks (10, 20), and the FD information; performing a Public Land Mobile Network, PLMN, selection after entering into a service area of a specific service operator network; receiving MCC/MNC information from the specific service operator network while the PLMN selection is being performed; extracting data communication setting information, from the table, based on the received MCC/MNC information and the mapping relation recorded in the table; updating a current data communication setting information with the data communication setting information extracted from the table, if the received MCC/MNC information does not match MCC/MNC information stored in a subscriber module of the portable device; and performing data communication with the specific service operator network according to the updated data communication setting information, wherein the FD information contains timing information for releasing a Radio Resource Control, RRC, of each of the plurality of service operator networks. storing a table containing data communication setting information defined for each of a plurality of service operator networks (10, 20), wherein the data communication setting information includes Fast Dormancy, FD, information corresponding to each of the plurality of service operator networks, and wherein the table records a mapping relation between Mobile Country Code/Mobile Network Code, MCC/MNC, information of each of the plurality of service operator networks (10, 20), and the FD information; performing a Public Land Mobile Network, PLMN, selection after entering into a service area of a specific service operator network; receiving MCC/MNC information from the specific service operator network while the PLMN selection is being performed; extracting data communication setting information, from the table, based on the received MCC/MNC information and the mapping relation recorded in the table; updating a current data communication setting information with the data communication setting information extracted from the table, if the received MCC/MNC information does not match MCC/MNC information stored in a subscriber module of the portable device; and performing data communication with the specific service operator network according to the updated data communication setting information, wherein the FD information contains timing information for releasing a Radio Resource Control, RRC, of each of the plurality of service operator networks.
A purge apparatus for purging by purge gas a container that houses an article and has a gas introduction hole in a bottom portion thereof comprising: a platform for placing the container thereon; a nozzle (8; 50; 60) protruding upward from the platform and configured to contact the gas introduction hole of the container and to inject purge gas; and an alignment member configured to align the container, characterized in that said nozzle (8; 50; 60) is provided within a side surface of a tip portion thereof with a guide surface (30; 51; 61) configured to guide the container and the nozzle (8; 50; 60) is configured to lower an upper surface (32; 52; 62) of the nozzle (8; 50; 60) by a load applied from the container, wherein said alignment member comprises alignment pins fixed to the platform, protruding upward from the platform, and configured to fit into recesses provided in the bottom portion of the container, and wherein the nozzle (8; 50; 60) is higher than the alignment pins. a platform for placing the container thereon; a nozzle (8; 50; 60) protruding upward from the platform and configured to contact the gas introduction hole of the container and to inject purge gas; and an alignment member configured to align the container, characterized in that said nozzle (8; 50; 60) is provided within a side surface of a tip portion thereof with a guide surface (30; 51; 61) configured to guide the container and the nozzle (8; 50; 60) is configured to lower an upper surface (32; 52; 62) of the nozzle (8; 50; 60) by a load applied from the container,
A propulsion system for a vessel comprising at least two generator sets (1.1 to 1.4), each including a prime mover (1.1 to 1.4) and a generator (2.1 to 2.4), an electric propulsion unit (3.1 to 3.4) and an energy storage (4.1, 4.2), a main switchboard by which the at least two generator sets, the electric propulsion unit (3.1 to 3.4) and the energy storage (4.1, 4.2) are connected to each other, and a controller for controlling the propulsion system, wherein the controller is configured to cause storing excess electrical power in the energy storage (4.1, 4.2) when a generator (2.1 to 2.4) of one of the at least two generator sets produces electric power in excess for the instantaneous needs of the vessel, and taking needed additional energy from the energy storage (4.1, 4.2) for the use of the ship electricity network when a generator (2.1 to 2.4) of one of the at least two generator sets produces electric power instantaneously insufficiently, and to operate a generator (2.1 to 2.4) of one of the at least two generator sets as a phase compensator for supplying reactive power to the propulsion system, wherein the generator (2.1 to 2.4) operated as a phase compensator is connected to the prime mover (1.1 to 1.4) via a clutch (9.1 to 9.4), and the controller is configured to de-clutch the generator (2.1 to 2.4) from the prime mover (1.1 to 1.4) when the generator (2.1 to 2.4) is operated as the phase compensator, and, when a failure occurs in the power supplying generator set, to re-clutch the generator (2.1 to 2.4) operated as the phase compensator with its prime mover (1.1 to 1.4) and to operate this generator set as a new power supplying generator set.
A bale transporter comprising a chassis extending between a forward end and a rearward end and supported on at least a pair of rotatably mounted ground engaging wheels spaced apart transversely relative to the direction of normal forward motion of the transporter, and a transfer means configured to pick up bales from the ground with the bales in the transfer means in an aligned state, characterised in that the chassis defines an elongated first bale carrier, an elongated second bale carrier is mounted on the chassis and is moveable between a first state adjacent the first bale carrier and a second state spaced apart upwardly above the first bale carrier, and the transfer means is further configured to transfer the bales in the aligned state onto a selected one of the first and second bale carriers (19,25).