mhurhangee/ep-ind-claims huggingface dataset:
A cold field emission electron source, comprising: one or more tips, wherein at least one of the tips comprises one or more fixed emission sites, wherein the emission sites comprises a reaction product of metal atoms on a surface of the tip with gas molecules, the emission sites are rooted in the surface of the tip, wherein the reaction is carried out so that the gas is adsorbed, dissociated under an electric field, and further combined with the metal atoms on the surface to form the reaction product that is directly bonded to the surface, wherein a metal atom material comprises tungsten, and wherein the gas molecules comprise hydrogen-containing gas molecules. one or more tips, wherein at least one of the tips comprises one or more fixed emission sites, wherein the emission sites comprises a reaction product of metal atoms on a surface of the tip with gas molecules, the emission sites are rooted in the surface of the tip, wherein the reaction is carried out so that the gas is adsorbed, dissociated under an electric field, and further combined with the metal atoms on the surface to form the reaction product that is directly bonded to the surface, wherein a metal atom material comprises tungsten, and wherein the gas molecules comprise hydrogen-containing gas molecules.
An agricultural baler comprising a baling chamber with a plunger that is provided to reciprocally move in the baling chamber, the baler further comprising a pre-compression chamber with a slice pushing mechanism provided for periodically pushing a slice of crop material into the baling chamber, the plunger and the slice pushing mechanism being mechanically linked via their respective driving systems (13,14) to ensure synchronization, wherein the agricultural baler further comprises a gearbox comprising an input gear and an output gear linking two rotating shafts (15,16), a first one connected to a plunger driving system and a second one connected to a slice pushing driving mechanism, the gearbox further comprising an intermediary gear element coupling the input gear to the output gear and being movable between a first position and a second position, characterized in that the gearbox is provided to adjust a synchronization timing, wherein a relative angular position of the two rotating shafts (15,16) with respect to each other when the intermediary gear element is in the first position is different from the relative angular position of the two rotating shafts (15,16) with respect to each other when the intermediary gear element is in the second position.
A method for wireless communication, comprising: sending a signal comprising multiple soft time division multiplexing, TDM, assignment fields (315a-x), wherein each soft TDM assignment field (315a-x) is configured to convey: connection information permitting nodes to communicate during specific time slots according to their priority level, wherein the connection information comprises at least a station groups field (315-a-4) including information identifying which nodes are assigned to a group of nodes (115-a, 115-b) and a set of enhanced distributed channel access, EDCA, parameters (315-a-5) per group field (315-a-4), wherein the connection information is conveyed to a first group of nodes (115-a) to communicate during at least one time slot at a first priority level that is different from a second priority level of a second group of nodes (115-b) communicating during the at least one time slot; and communicating with at least one node from the first group of nodes (115-a) during the at least one time slot at the first priority level. sending a signal comprising multiple soft time division multiplexing, TDM, assignment fields (315a-x), wherein each soft TDM assignment field (315a-x) is configured to convey: connection information permitting nodes to communicate during specific time slots according to their priority level, wherein the connection information comprises at least a station groups field (315-a-4) including information identifying which nodes are assigned to a group of nodes (115-a, 115-b) and a set of enhanced distributed channel access, EDCA, parameters (315-a-5) per group field (315-a-4), wherein the connection information is conveyed to a first group of nodes (115-a) to communicate during at least one time slot at a first priority level that is different from a second priority level of a second group of nodes (115-b) communicating during the at least one time slot; and communicating with at least one node from the first group of nodes (115-a) during the at least one time slot at the first priority level.
A welding-type power supply, comprising: - a power converter to output welding-type current; and characterised by: - a temperature monitor to determine a temperature of an electrode using at least one of a temperature measurement or a thermal model; and - a current controller to control the power converter to output a hot start weld current based on the temperature of the electrode, wherein the current controller is configured to select the hot-start weld current based on a proportional relationship between the temperature of the electrode and the hot-start weld current. - a power converter to output welding-type current; - a temperature monitor to determine a temperature of an electrode using at least one of a temperature measurement or a thermal model; and - a current controller to control the power converter to output a hot start weld current based on the temperature of the electrode, wherein the current controller is configured to select the hot-start weld current based on a proportional relationship between the temperature of the electrode and the hot-start weld current.
Chain comprising two mutually hingedly coupled parts (2, 3), comprising side plates (8, 9) and blocks, further comprising chain pins for connecting the side plates to the blocks, wherein the chain pins are received in chain buses in the blocks and extend through passages in the side plates, wherein a first receiving space, located between the at least two parts for receiving lubricant via a lubrication channel provided for this purpose is located between each chain bus and each chain pin, characterised in that grooves (13, 14) for the passage of lubricant from the first receiving space are arranged in the side plates (8, 9) or the chain pins in respectively near the circumference of the passages and in that sealing means (11, 16, 16') are provided for forming a seal between the first receiving space, the grooves (13, 14) and the surroundings.
A fastener device for attaching a plurality of components (102, 104, 106) to one another, the fastener device comprising: a bolt fastener having an external thread; and a bushing (120, 620) having an internal thread (124, 624) that is configured to fasten to the external thread of the bolt fastener before the fastener device attaches the components (102, 104, 106) to one another; wherein the internal thread (124, 624) has a profile including a flat crest (130, 630) that is configured to be spaced apart from the bolt fastener when the fastener device attaches the components (102, 104, 106) to one another. a bolt fastener having an external thread; and a bushing (120, 620) having an internal thread (124, 624) that is configured to fasten to the external thread of the bolt fastener before the fastener device attaches the components (102, 104, 106) to one another; wherein the internal thread (124, 624) has a profile including a flat crest (130, 630) that is configured to be spaced apart from the bolt fastener when the fastener device attaches the components (102, 104, 106) to one another.
A mold assembly for injection molding a component of an article of footwear, the mold assembly comprising: a first mold plate comprising a first side and a first mold cavity wall; a mold ring plate abutting the first mold plate and comprising a first side facing the first side of the first mold plate, a second side opposite the first side, and a second mold cavity wall; and a second mold plate abutting the mold ring plate and comprising a third mold cavity wall, wherein the second mold plate comprises a first side facing towards the second side of the mold ring plate, a second side facing away from the mold ring plate, and a plate body between the first side and the second side; and wherein the second mold plate comprises one or more runner inlets (426, 428, 430, 432) on the second side and one or more gate outlets (434, 436, 438, 440, 442, 444) in the third mold cavity wall.
A method for transporting Ethernet frames between a first node (24, 74A, 84) and a second node (28, 78A-C, 96) via a third node (36A, 74B, 98A) and a fourth node (36B, 74C, 98B), which third node (36A, 74B, 98A) and fourth node (36B, 74C, 98B) are respectively part of different Layer-2 multiple communication paths, the method comprising: defining first and second different Layer-2 multiple communication paths respectively via the third node and the fourth node; sending, by the first node to the third node, a first Ethernet frame addressed to the second node; sending, by the first node to the fourth node, a second Ethernet frame that is identical to the first frame; transporting the first frame over the first communication path to the second node; transporting the second frame over the second communication path to the second node; receiving and using, by the second node, the first frame received via the first communication path; and discarding, the second frame received over the second communication path, wherein the first, third, and fourth nodes are part of a first network that employs ring topology. defining first and second different Layer-2 multiple communication paths respectively via the third node and the fourth node; sending, by the first node to the third node, a first Ethernet frame addressed to the second node; sending, by the first node to the fourth node, a second Ethernet frame that is identical to the first frame; transporting the first frame over the first communication path to the second node; transporting the second frame over the second communication path to the second node; receiving and using, by the second node, the first frame received via the first communication path; and discarding, the second frame received over the second communication path, wherein the first, third, and fourth nodes are part of a first network that employs ring topology.
An opening/closing device for opening/closing an opening/closing body comprising: a driving unit; a movement body to which the opening/closing body is attached; a guide rail configured to guide the movement body; an inner cable configured to move the movement body by being driven by the driving unit; and an inner guide configured to restrict the inner cable such that the inner cable is arranged along the guide rail, characterized in that the inner guide has a first restriction part which is elastic, a second restriction part, and a sliding surface along which the inner cable is able to slide, the sliding surface having a curved surface that is in contact with the inner cable and being curved along a sliding direction of the inner cable, the curved surface being formed so as to be flat in a direction perpendicular to said sliding direction the first restriction part, the second restriction part, and the sliding surface forming a closing structure configured to keep the inner cable in the inner guide, and further configured so that the inner cable is moved into the closing structure and is placed on the sliding surface by an application of tension to the inner cable, with the first restriction part being pressed by the inner cable and deformed. a driving unit; a movement body to which the opening/closing body is attached; a guide rail configured to guide the movement body; an inner cable configured to move the movement body by being driven by the driving unit; and an inner guide configured to restrict the inner cable such that the inner cable is arranged along the guide rail, characterized in that the inner guide has a first restriction part which is elastic, a second restriction part, and a sliding surface along which the inner cable is able to slide, the sliding surface having a curved surface that is in contact with the inner cable and being curved along a sliding direction of the inner cable, the curved surface being formed so as to be flat in a direction perpendicular to said sliding direction the first restriction part, the second restriction part, and the sliding surface forming a closing structure configured to keep the inner cable in the inner guide, and further configured so that the inner cable is moved into the closing structure and is placed on the sliding surface by an application of tension to the inner cable, with the first restriction part being pressed by the inner cable and deformed.
A method comprising: acquiring data during rig operations wherein the rig operations comprise drilling operations that utilize a bit to drill rock and wherein the data comprise different types of data acquired during the drilling operations; analyzing the data utilizing a probabilistic mixture model, i.e. a probabilistic model that assumes that observed data points are generated from a mixture of a finite number of probabilistic distributions, for modes, representing operational states for the rig operations, a detection engine for outputting a probability of operational trends of the rig operations and a Bayesian network model for an inference based at least in part on at least one of a mode and a trend; and outputting information as to the inference wherein the inference characterizes a relationship between the bit and the rock, wherein the inference comprises an inference selected from a group that comprises the bit being engaged with the rock at a bottom of a borehole and the bit having no interaction with the rock at the bottom of the borehole, wherein an initial on bottom instant is provided externally, wherein a measured distance to bottom is then computed, and transformed into complementary probabilities of being on and off bottom. acquiring data during rig operations wherein the rig operations comprise drilling operations that utilize a bit to drill rock and wherein the data comprise different types of data acquired during the drilling operations; analyzing the data utilizing a probabilistic mixture model, i.e. a probabilistic model that assumes that observed data points are generated from a mixture of a finite number of probabilistic distributions, for modes, representing operational states for the rig operations, a detection engine for outputting a probability of operational trends of the rig operations and a Bayesian network model for an inference based at least in part on at least one of a mode and a trend; and outputting information as to the inference wherein the inference characterizes a relationship between the bit and the rock, wherein the inference comprises an inference selected from a group that comprises the bit being engaged with the rock at a bottom of a borehole and the bit having no interaction with the rock at the bottom of the borehole, wherein an initial on bottom instant is provided externally, wherein a measured distance to bottom is then computed, and transformed into complementary probabilities of being on and off bottom.
An alarm peripheral comprising a wall bracket for mounting said alarm peripheral to a surface, a sensor device mountable to said wall bracket, a battery pack for providing power to said alarm peripheral by means of connection means, wherein said battery pack is arranged within a space of said wall bracket, and wherein said wall bracket comprises an opening to said space and a hatch configured to close said opening, through which opening said battery pack is insertable into said space.
Electro-welding fitting, in particular for connecting or hooking-up pipe ends from thermoplastic plastics material, containing a main body from thermoplastic or other welding-capable plastics materials having an elasticity modulus E2 and at least one heating element, preferably a heating wire coil having a plurality of windings for heating the plastics material, wherein the heating element, preferably the heating wire coil, is entirely or partially surrounded by a plastics material that does not correspond to the plastics material of the main body, or is a plastics material different from that of the main body, respectively, or has other properties, in particular another elasticity modulus, respectively, wherein the elasticity modulus E1 of the plastics material that surrounds the heating element, preferably the heating wire coil, is smaller than or equal to 50% of the elasticity modulus E2 of the plastics material of the main body, characterized in that the plastics material that entirely or partially surrounds the heating element, preferably the heating wire coil, is a TPE, PE, LDPE, a mixed PE or a foamed PE.
A method of forming a metal pattern, comprising the steps of: applying a photoresist composition to a substrate, said photoresist composition comprising one or more cationically polymerizable resin components bearing in their structures epoxide groups and carboxylic acid groups wherein resin component A is described by the following Formula 1; wherein Z is H or -COR"COOH; and wherein groups R, R', and R" are individually selected from the group consisting of monomeric, oligomeric or polymeric organic bridging groups, with one or more photoacid generator compounds, and one or more solvents; evaporating most of said solvents by heating to form a film of said photoresist composition on said substrate; irradiating said film through a mask with active rays to form irradiated regions; heating said irradiated regions; developing said film to form an image of hardened photoresist; forming a metal pattern on said substrate by electrolytic or non-electrolytic plating, said metal pattern having dimensions defined by said image of said hardened photoresist; and removing said hardened photoresist to produce said metal pattern. applying a photoresist composition to a substrate, said photoresist composition comprising one or more cationically polymerizable resin components bearing in their structures epoxide groups and carboxylic acid groups wherein resin component A is described by the following Formula 1; wherein Z is H or -COR"COOH; and wherein groups R, R', and R" are individually selected from the group consisting of monomeric, oligomeric or polymeric organic bridging groups, with one or more photoacid generator compounds, and one or more solvents; evaporating most of said solvents by heating to form a film of said photoresist composition on said substrate; irradiating said film through a mask with active rays to form irradiated regions; heating said irradiated regions; developing said film to form an image of hardened photoresist; forming a metal pattern on said substrate by electrolytic or non-electrolytic plating, said metal pattern having dimensions defined by said image of said hardened photoresist; and removing said hardened photoresist to produce said metal pattern.
A developing roller, comprising: a shaft containing a metal; an elastic layer on a circumference of the shaft; and a surface layer on a circumferential surface of the elastic layer, wherein the surface layer comprises: a polyurethane which is a reaction product between a fluoroethylene vinyl ether copolymer and an isocyanurate form of an isocyanate; and particles having an average primary particle diameter of 5 nm to 30 nm, and wherein the polyurethane has a peak intensity ratio of a NCO group to a hydroxyl group of 5.6 to 8.8 in an infrared absorption spectrum obtained by an attenuated total reflection method. a shaft containing a metal; an elastic layer on a circumference of the shaft; and a surface layer on a circumferential surface of the elastic layer, wherein the surface layer comprises: a polyurethane which is a reaction product between a fluoroethylene vinyl ether copolymer and an isocyanurate form of an isocyanate; and particles having an average primary particle diameter of 5 nm to 30 nm, and wherein the polyurethane has a peak intensity ratio of a NCO group to a hydroxyl group of 5.6 to 8.8 in an infrared absorption spectrum obtained by an attenuated total reflection method.
Apparatus for treating containers with at least a first container treatment device which is suitable and intended for providing a different decoration on the containers to be treated, and provides the containers to be treated with a decoration provided according to a predefined decoration sequence, having a transport device, which supplies and/or discharges the containers treated by the first container treatment device along a predefined transport path, preferably individually and successively, to at least one monitoring device (50, 52) for monitoring the treated containers, characterised in that the monitoring device (50, 52) is suitable and intended for monitoring the containers at least with respect to the decoration applied by the first container treatment device, and depending on the monitoring result to carry out and/or initiate a change in the predefined decoration sequence of at least the first and/or a second container treatment device, preferably of a printing device and/or a direct printing machine.
A particulate dispersing apparatus comprising: a vessel configured to contain particulate material and having an opening defined in a bottom portion; a plurality of interchangeable inserts having a shape similar to that of the vessel that when inserted into the vessel the inserts are adapted to engage and removably attach to a ridge inside the vessel via a fastener inserted through at least one attachment slot defined in a perimeter of each insert and at least one attachment aperture defined in the ridge such that a bottom portion of each insert extends into the opening of the vessel, each insert having a funnel-like shape and distinct hole pattern defined in the bottom of each insert, wherein a bottom surface of each insert transitions in a downward direction from a perimeter of each insert to the distinct hole pattern thereby facilitating the flow of the particulate material through the distinct hole pattern defined in a bottom of each insert, the distinct hole pattern facilitating the flow of different sized particulate material from inside the vessel; and a dispersing mechanism that disperses the particulate material flowing through the opening. a vessel configured to contain particulate material and having an opening defined in a bottom portion; a plurality of interchangeable inserts having a shape similar to that of the vessel that when inserted into the vessel the inserts are adapted to engage and removably attach to a ridge inside the vessel via a fastener inserted through at least one attachment slot defined in a perimeter of each insert and at least one attachment aperture defined in the ridge such that a bottom portion of each insert extends into the opening of the vessel, each insert having a funnel-like shape and distinct hole pattern defined in the bottom of each insert, wherein a bottom surface of each insert transitions in a downward direction from a perimeter of each insert to the distinct hole pattern thereby facilitating the flow of the particulate material through the distinct hole pattern defined in a bottom of each insert, the distinct hole pattern facilitating the flow of different sized particulate material from inside the vessel; and a dispersing mechanism that disperses the particulate material flowing through the opening.