mhurhangee/ep-ind-claims huggingface dataset:
An information providing method using a mobile terminal, the method comprising: placing the mobile terminal within a wireless communication range of a sensor-based Bluetooth Low Energy, BLE, device; receiving identification information and sensing information detected by the sensor-based BLE device from the sensor-based BLE device; selecting a notification message corresponding to the received identification information of the device from among a plurality of notification messages which are previously set in the mobile device, based on the received identification information of the device; and outputting a message corresponding to the selected notification message based on the received sensing information, wherein the plurality of notification messages is previously received from a user of the mobile terminal for each of a plurality of devices. placing the mobile terminal within a wireless communication range of a sensor-based Bluetooth Low Energy, BLE, device; receiving identification information and sensing information detected by the sensor-based BLE device from the sensor-based BLE device; selecting a notification message corresponding to the received identification information of the device from among a plurality of notification messages which are previously set in the mobile device, based on the received identification information of the device; and outputting a message corresponding to the selected notification message based on the received sensing information, wherein the plurality of notification messages is previously received from a user of the mobile terminal for each of a plurality of devices.
An apparatus for preheating welding wire, the apparatus comprising: an input configured to receive multi-phase power; a first tungsten electrode (162, 202) connected via a first conductor (138, 206) to the input, wherein the first conductor (138, 206) is configured to conduct a first phase of the multi-phase power received at the input; a second tungsten electrode (164, 204) connected via a second conductor (140, 208) to the input, wherein the second conductor (140, 208) is configured to conduct a second phase of the multi-phase power received at the input; a third tungsten electrode (166, 205) connected via a third conductor to the input, wherein the third conductor is configured to conduct a third phase of the multi-phase power received at the input; a first region; a contact tip (160, 226, 312) configured to deliver the welding wire to the first region for preheating; a wire guide configured to deliver preheated welding wire from the first region to a workpiece; and a gas connecter configured to deliver shielding gas to the first region around the preheated welding wire delivered to the workpiece; wherein the first, second and third electrodes are configured to preheat welding wire via electric arc preheating and wherein the electric arc preheating occurs within the first region. an input configured to receive multi-phase power; a first tungsten electrode (162, 202) connected via a first conductor (138, 206) to the input, wherein the first conductor (138, 206) is configured to conduct a first phase of the multi-phase power received at the input; a second tungsten electrode (164, 204) connected via a second conductor (140, 208) to the input, wherein the second conductor (140, 208) is configured to conduct a second phase of the multi-phase power received at the input; a third tungsten electrode (166, 205) connected via a third conductor to the input, wherein the third conductor is configured to conduct a third phase of the multi-phase power received at the input; a first region; a contact tip (160, 226, 312) configured to deliver the welding wire to the first region for preheating; a wire guide configured to deliver preheated welding wire from the first region to a workpiece; and a gas connecter configured to deliver shielding gas to the first region around the preheated welding wire delivered to the workpiece; wherein the first, second and third electrodes are configured to preheat welding wire via electric arc preheating and wherein the electric arc preheating occurs within the first region.
A computer-implemented method of simulating activity of a fluid in a volume that represents a physical space, the activity of the fluid in the volume being simulated so as to model movement of elements within the volume, the method comprising: at a first time in the fluid flow simulation, identifying a first set of vortices in a transient and turbulent flow modeled by the fluid flow; at a second time in the fluid flow simulation that is subsequent to the first time, identifying a second set of vortices in the transient and turbulent flow; tracking changes in the vortices by comparing the first set of discrete vortices and the second set of discrete vortices; identifying one or more noise sources based on the tracking; determining contribution of the one or more noise sources at a receiver, wherein the receiver location is within the volume, wherein determining the contribution of the one or more noise sources at the receiver comprises applying a transfer function to at least one noise source, wherein the transfer function determines the contribution based on a relationship between a location of at least one noise source and a location of the receiver, and wherein the transfer function is noise frequency dependent; and outputting data, based on the determining step, indicating one or more physical modifications to one or more geometric features for a design change of a device or an entity to minimize the contribution of the one or more noise sources at the receiver. at a first time in the fluid flow simulation, identifying a first set of vortices in a transient and turbulent flow modeled by the fluid flow; at a second time in the fluid flow simulation that is subsequent to the first time, identifying a second set of vortices in the transient and turbulent flow; tracking changes in the vortices by comparing the first set of discrete vortices and the second set of discrete vortices; identifying one or more noise sources based on the tracking; determining contribution of the one or more noise sources at a receiver, wherein the receiver location is within the volume, wherein determining the contribution of the one or more noise sources at the receiver comprises applying a transfer function to at least one noise source, wherein the transfer function determines the contribution based on a relationship between a location of at least one noise source and a location of the receiver, and wherein the transfer function is noise frequency dependent; and outputting data, based on the determining step, indicating one or more physical modifications to one or more geometric features for a design change of a device or an entity to minimize the contribution of the one or more noise sources at the receiver.
A set of cartridges for determining the methylation state of a nucleic acid, said set of cartridges comprising: a first cartridge comprising: a sample receiving chamber; a column comprising a first matrix material; a channel or chamber that can be temperature controlled; a sample removal chamber; and a plurality of chambers containing reagents and/or buffers, wherein when in use at least one of said chambers contains a bisulfite reagent; and a second cartridge comprising: a sample receiving chamber; a column comprising a second matrix material; a channel or chamber that can be temperature controlled; and a plurality of chambers containing reagents and/or buffers, wherein when in use at least one of said chambers contains a desulphonation and/or elution reagent. a first cartridge comprising: a sample receiving chamber; a column comprising a first matrix material; a channel or chamber that can be temperature controlled; a sample removal chamber; and a plurality of chambers containing reagents and/or buffers, wherein when in use at least one of said chambers contains a bisulfite reagent; and a sample receiving chamber; a column comprising a first matrix material; a channel or chamber that can be temperature controlled; a sample removal chamber; and a plurality of chambers containing reagents and/or buffers, wherein when in use at least one of said chambers contains a bisulfite reagent; and a second cartridge comprising: a sample receiving chamber; a column comprising a second matrix material; a channel or chamber that can be temperature controlled; and a plurality of chambers containing reagents and/or buffers, wherein when in use at least one of said chambers contains a desulphonation and/or elution reagent. a sample receiving chamber; a column comprising a second matrix material; a channel or chamber that can be temperature controlled; and a plurality of chambers containing reagents and/or buffers, wherein when in use at least one of said chambers contains a desulphonation and/or elution reagent.
A work vehicle comprising: an upper plate defining an upper surface of an engine room and having a first opening part; an air cleaner contained in the engine room; a hose member coupled to the air cleaner and extending upward from the engine room via the first opening part; and an air intake pipe coupled in a removable manner to an upper end part of the hose member; characterized by a supporting member having a first attachment part, a side part, and a horizontal part, the first attachment part being attached in a removable manner to the upper plate so as to encircle the first opening part as seen in a plan view, the side part extending upward from the first attachment part and including a second opening part, the horizontal part extending horizontally from the side part and being fixed to a side surface of the air intake pipe; a first lid member having a first body part and a second attachment part, the first body part covering the second opening part, the second attachment part extending horizontally from the first body part and being disposed on the horizontal part; and a first fastening member attaching the first lid member to the supporting member by fastening the second attachment part and the horizontal part. an upper plate defining an upper surface of an engine room and having a first opening part; an air cleaner contained in the engine room; a hose member coupled to the air cleaner and extending upward from the engine room via the first opening part; and an air intake pipe coupled in a removable manner to an upper end part of the hose member; characterized by a supporting member having a first attachment part, a side part, and a horizontal part, the first attachment part being attached in a removable manner to the upper plate so as to encircle the first opening part as seen in a plan view, the side part extending upward from the first attachment part and including a second opening part, the horizontal part extending horizontally from the side part and being fixed to a side surface of the air intake pipe; a first lid member having a first body part and a second attachment part, the first body part covering the second opening part, the second attachment part extending horizontally from the first body part and being disposed on the horizontal part; and a first fastening member attaching the first lid member to the supporting member by fastening the second attachment part and the horizontal part.
Method for producing an electrically conductive contact element, wherein the method comprises the following steps: a) providing a metal band having an upper side and a lower side opposite the upper side, b) introducing wedge-like grooves which extend only in the longitudinal direction of the metal band as desired breaking locations in the upper side and/or the lower side of the metal band so that band regions which are delimited by the grooves are produced, c) stamping mutually spaced-apart recesses in at least one of the two sides (11, 12) of the metal band so that at the opposite side (12, 11) of the metal band mutually spaced-apart projections (21, 22) are formed, wherein the stamping is carried out in such a manner that the metal band in the region of the stamping locations is separated only at the desired breaking locations so that the projections (21, 22) are formed in the form of curvatures, and at least one of the separation faces which are formed in this instance forms a portion of the boundary of the projection (21, 22), d) transversely splitting the metal band so that at least one contact element in the form of a band portion is formed, wherein the contact element has at least one projection (21, 22). a) providing a metal band having an upper side and a lower side opposite the upper side, b) introducing wedge-like grooves which extend only in the longitudinal direction of the metal band as desired breaking locations in the upper side and/or the lower side of the metal band so that band regions which are delimited by the grooves are produced, c) stamping mutually spaced-apart recesses in at least one of the two sides (11, 12) of the metal band so that at the opposite side (12, 11) of the metal band mutually spaced-apart projections (21, 22) are formed, wherein the stamping is carried out in such a manner that the metal band in the region of the stamping locations is separated only at the desired breaking locations so that the projections (21, 22) are formed in the form of curvatures, and at least one of the separation faces which are formed in this instance forms a portion of the boundary of the projection (21, 22), d) transversely splitting the metal band so that at least one contact element in the form of a band portion is formed, wherein the contact element has at least one projection (21, 22).
A method of removing ballast of a first ballast bed of a first track, wherein ballast clearing devices (11, 12) are guided along a second track which is parallel to the ballast bed, characterized in that ballast of the first ballast bed, located in a section adjoining a second ballast bed of the second track, is picked up by the ballast clearing device separately from the remaining ballast of the first ballast bed.
Method for converting flow energy into electrical energy, comprising the following steps: - providing a flow body in a flowing fluid, wherein the flow body is connected by at least one connecting element to at least one EAP generator (3, 7) with an electroactive polymer; - creating a movement of the flow body through the flowing fluid and - carrying out an EAP generator cycle for converting kinetic energy into electrical energy, comprising deformation of the electroactive polymer by the movement of the flow body, which is transmitted to the EAP generator (3, 7) via the connecting element, characterized in that a flow path of the flow body is controlled by at least one control element located on the flow body and by at least one EAP actuator actuating the connecting element, wherein the EAP actuator is the EAP generator (3, 7) operated in reverse. - providing a flow body in a flowing fluid, wherein the flow body is connected by at least one connecting element to at least one EAP generator (3, 7) with an electroactive polymer; - creating a movement of the flow body through the flowing fluid and - carrying out an EAP generator cycle for converting kinetic energy into electrical energy, comprising deformation of the electroactive polymer by the movement of the flow body, which is transmitted to the EAP generator (3, 7) via the connecting element, characterized in that a flow path of the flow body is controlled by at least one control element located on the flow body and by at least one EAP actuator actuating the connecting element, wherein the EAP actuator is the EAP generator (3, 7) operated in reverse.
An active wearable robot comprising at least two articulated modules (20, 21, 22) adapted to correspond to respective body joints of a user, said robot further comprising: - actuation means defining a single primary motion output from which a torque is delivered; - at least one first motion distribution element connected to said single primary motion output to receive said delivered torque in input and to distribute it in differential modes through two derivative motion outputs (110, 111) to said at least two articulated modules; characterised by the active wearable robot further comprising: - torque sensing means interposed between said actuation means and said at least one first mechanical motion distribution element, adapted to detect the deviation between the torque delivered by said single primary motion output and the torque actually absorbed by said at least one first motion distribution element, wherein said robot further comprises a control unit communicating with said sensor means and said actuation means, configured to perform a feedback control for said actuation means based on said deviation. - actuation means defining a single primary motion output from which a torque is delivered; - at least one first motion distribution element connected to said single primary motion output to receive said delivered torque in input and to distribute it in differential modes through two derivative motion outputs (110, 111) to said at least two articulated modules; characterised by the active wearable robot further comprising: - torque sensing means interposed between said actuation means and said at least one first mechanical motion distribution element, adapted to detect the deviation between the torque delivered by said single primary motion output and the torque actually absorbed by said at least one first motion distribution element, wherein said robot further comprises a control unit communicating with said sensor means and said actuation means, configured to perform a feedback control for said actuation means based on said deviation.
Fuel supply system for injecting a liquefied vapour, such as liquefied petroleum gas or dimethyl ether fuel, under high pressure into a combustion chamber of a combustion engine, comprising: (i) a first fuel supply tank for a petrol fuel equipped with a supply pump; (ii) a second fuel supply tank for liquefied vapour equipped with a supply pump; (iii)a petrol fuel high-pressure pump downstream of the first fuel supply tank; (iv)a liquefied vapour high-pressure pump downstream of the second fuel supply tank; (v) a fuel selector switch between said petrol fuel high-pressure pump and said liquefied vapour high-pressure pump for operating the fuel supply system in a petrol feeding state or in a liquefied vapour feeding state; (vi)a high-pressure rail downstream of said petrol fuel high-pressure pump and downstream of said liquefied vapour high-pressure pump, with multiple injectors (I1, I2, I3, 14) for direct injection of fuel into the combustion chambers; wherein said liquefied vapour high-pressure pump is arranged for receiving high-pressurized petrol from said petrol fuel high-pressure pump via said fuel selector switch in two petrol chambers (A, B), and for receiving liquefied vapour from said second fuel supply tank in two liquefied vapour chambers (C, D); and wherein said liquefied vapour high-pressure pump further comprises a piston for transmitting the pressure of petrol fuel in said petrol chambers (A, B) to the liquefied vapour fuel in said liquefied vapour chambers (C, D), wherein the piston rod of said piston is provided with a seal, wherein said seal comprises a multiple-lip seal, and wherein said multiple-lip seal comprises one or more, preferably one, two or three, leakage channels (10a, 10b, 11, 12a, 12b), at least one of said one or more leakage channels being arranged for returning petrol to said first fuel supply tank and/or at least one of said one or more leakage channels being arranged for returning liquefied vapour to said second fuel supply tank and/or at least one of said one or more leakage channels being arranged for returning petrol and/or liquefied vapour to a purge canister. (i) a first fuel supply tank for a petrol fuel equipped with a supply pump; (ii) a second fuel supply tank for liquefied vapour equipped with a supply pump; (iii)a petrol fuel high-pressure pump downstream of the first fuel supply tank; (iv)a liquefied vapour high-pressure pump downstream of the second fuel supply tank; (v) a fuel selector switch between said petrol fuel high-pressure pump and said liquefied vapour high-pressure pump for operating the fuel supply system in a petrol feeding state or in a liquefied vapour feeding state; (vi)a high-pressure rail downstream of said petrol fuel high-pressure pump and downstream of said liquefied vapour high-pressure pump, with multiple injectors (I1, I2, I3, 14) for direct injection of fuel into the combustion chambers;
Electric connection device comprising: a first electric connection element; a second electric connection element connectable to said first electric connection element by means of respective electric contacts; a locking and unlocking mechanism configured to couple and uncouple the first connection element and the second connection element following a rotation of one with respect to the other; a secondary safety locking mechanism, configured to prevent the rotation of the first connection element and of the second connection element one with respect to the other and the consequent separation of the two elements (10, 12); electric contacting means associated with the first connection element and/or the second connection element and configured for controlling an auxiliary circuit connected thereto; characterized in that the electric connection device further comprises actuating means configured to actuate the electric contacting means when the first electric connection element and the second electric connection element are mutually connected, and a retractable bar which is pushed in contact with the actuating means of the electric contacting means to actuate them when the first electric connection element and the second electric connection element are mutually connected, wherein the actuating means and the bar are configured to get in contact with the first or the second connecting elements, during their coupling, and be pushed thereto in contact with the electric contacting means, to actuate them, the bar being inserted into a housing obtained in the first or in the second connecting elements.