mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use in a peer device, the method comprising determining which of two or more peers behind NATs to designate as a host for a service within a peer to peer grid, the method comprising: a) sharing NAT profile information for the peer device with one or more other peers of the two or more peers; b) receiving NAT profile information for the one or more other peers; and c) determining from the NAT profile information for the peer device and the NAT profile information for the one or more other peers which of the two or more peers behind NATs to designate as the host; wherein c) includes assigning priority values to each of the two or more peers based on the NAT profile information for the peer device and the NAT profile information for the one or more other peers and selecting the host based on the priority values. a) sharing NAT profile information for the peer device with one or more other peers of the two or more peers; b) receiving NAT profile information for the one or more other peers; and c) determining from the NAT profile information for the peer device and the NAT profile information for the one or more other peers which of the two or more peers behind NATs to designate as the host; wherein c) includes assigning priority values to each of the two or more peers based on the NAT profile information for the peer device and the NAT profile information for the one or more other peers and selecting the host based on the priority values.
A spray boom assembly for spraying a fluid on an underlying surface, comprising: a center frame and a left and right boom , each coupled to the center frame , each boom comprising a first boom frame ; a first spray section coupled to the first boom frame , the first spray section including an elongated spray pipe configured to be fluidly coupled to a fluid source for supplying fluid to be sprayed on a target; a nozzle coupled to the spray pipe and configured to be fluidly coupled to the fluid source, the nozzle including a tip for spraying the fluid; and a first actuator coupled at one end to the first boom frame and at an opposite end to the first spray section , the actuator controllably extending and retracting to move the spray pipe and nozzle between a raised position and a lowered position. a center frame and a left and right boom , each coupled to the center frame , each boom comprising a first boom frame ; a first spray section coupled to the first boom frame , the first spray section including an elongated spray pipe configured to be fluidly coupled to a fluid source for supplying fluid to be sprayed on a target; a nozzle coupled to the spray pipe and configured to be fluidly coupled to the fluid source, the nozzle including a tip for spraying the fluid; and a first actuator coupled at one end to the first boom frame and at an opposite end to the first spray section , the actuator controllably extending and retracting to move the spray pipe and nozzle between a raised position and a lowered position.
A wetting device for a catheter tube comprising: a) an enclosure enclosing a chamber having at least two apertures through which the tube can traverse; b) a wetting applicator located in the chamber having an opening through which the tube can traverse; characterized in that the wetting applicator is configured to release a wetting agent upon pressure applied from within the chamber to the wetting applicator , wherein the enclosure comprises a port for adding the wetting agent to the wetting applicator . tube comprising: a) an enclosure enclosing a chamber having at least two apertures through which the tube can traverse; b) a wetting applicator located in the chamber having an opening through which the tube can traverse; a) an enclosure enclosing a chamber having at least two apertures through which the tube can traverse; b) a wetting applicator located in the chamber having an opening through which the tube can traverse; characterized in that the wetting applicator is configured to release a wetting agent upon pressure applied from within the chamber to the wetting applicator , wherein the enclosure comprises a port for adding the wetting agent to the wetting applicator .
Hydrostatic radial piston unit comprising: - a front case part accommodating a drive shaft via shaft bearing means so that the drive shaft can rotate around a central axis relative to the front case part ; - a rear case part attached on one side to the front case part and closed on another side in order to define an internal volume; - a cylinder block disposed in the internal volume and attached to the drive shaft in a torque proof manner, wherein axially disposed timing holes in the cylinder block connect radially oriented working volumes in the cylinder block with a cylinder block front face that is arranged perpendicularly to the central axis and faces away from the front case part ; wherein within the rear case part internal annular flow passages connected to an inlet and an outlet of the radial piston unit and running basically in circumferential direction around the central axis , as well as internal distribution conducts configured to hydraulically connect the internal annular flow passages with the cylinder block timing holes , are formed integrally, characterized in that the hydrostatic radial piston unit comprises a park brake mechanism located on the rear side of the internal volume, wherein the brake discs of the park brake mechanism are arranged axially within the rear case part and are disposed at least partially radially inside of the internal annular flow passages . - a front case part accommodating a drive shaft via shaft bearing means so that the drive shaft can rotate around a central axis relative to the front case part ; - a rear case part attached on one side to the front case part and closed on another side in order to define an internal volume; - a cylinder block disposed in the internal volume and attached to the drive shaft in a torque proof manner, wherein axially disposed timing holes in the cylinder block connect radially oriented working volumes in the cylinder block with a cylinder block front face that is arranged perpendicularly to the central axis and faces away from the front case part ; wherein within the rear case part internal annular flow passages connected to an inlet and an outlet of the radial piston unit and running basically in circumferential direction around the central axis , as well as internal distribution conducts configured to hydraulically connect the internal annular flow passages with the cylinder block timing holes , are formed integrally, characterized in that the hydrostatic radial piston unit comprises a park brake mechanism located on the rear side of the internal volume, wherein the brake discs of the park brake mechanism are arranged axially within the rear case part and are disposed at least partially radially inside of the internal annular flow passages .
An air conditioner comprising: an air handling unit comprising a fan for supplying a mixed air of an indoor air and an outdoor air to an indoor space and a heat exchanger for exchanging the mixed air blowing by the fan with a chilled water, and a temperature sensor for sensing temperature, wherein the temperature sensor comprises an indoor temperature sensor for sensing an indoor temperature and a supply air temperature sensor for sensing a temperature of the air supplied to the indoor space; a chiller which includes a compressor , a condenser , an expansion device and an evaporator and supplies the chilled water from the evaporator to the heat exchanger through a water pipe connecting the evaporator with the heat exchanger , wherein the chiller is adapted to communicate with the air handling unit ; an air handling unit controller which is adapted to transmit the sense results of each the indoor temperature sensor and the supply air temperature sensor to the chiller ; and a chiller controller which is adapted to receive the sense results of each of the indoor temperature sensor and the supply air temperature sensor from the air handling unit controller , set a chilled water set temperature of the chilled water supplied from the evaporator to the heat exchanger according to the received sense results, and change a driving capacity of the compressor according to the chilled water set temperature. an air handling unit comprising a fan for supplying a mixed air of an indoor air and an outdoor air to an indoor space and a heat exchanger for exchanging the mixed air blowing by the fan with a chilled water, and a temperature sensor for sensing temperature, wherein the temperature sensor comprises an indoor temperature sensor for sensing an indoor temperature and a supply air temperature sensor for sensing a temperature of the air supplied to the indoor space; a chiller which includes a compressor , a condenser , an expansion device and an evaporator and supplies the chilled water from the evaporator to the heat exchanger through a water pipe connecting the evaporator with the heat exchanger , wherein the chiller is adapted to communicate with the air handling unit ; an air handling unit controller which is adapted to transmit the sense results of each the indoor temperature sensor and the supply air temperature sensor to the chiller ; and a chiller controller which is adapted to receive the sense results of each of the indoor temperature sensor and the supply air temperature sensor from the air handling unit controller , set a chilled water set temperature of the chilled water supplied from the evaporator to the heat exchanger according to the received sense results, and change a driving capacity of the compressor according to the chilled water set temperature.
System for securing a rail by pinching the upper face of the base of the rail and by laterally blocking the rail , comprising: - a spring means capable of coming into abutment on the upper face of the base of the rail ; - a means for securing the spring means to a support structure of the rail , characterized in that the spring means comes into abutment on a device for adjusting the spring means comprising: - a means for supporting the spring means intended to be in contact with a lateral edge of the base of the rail , the spring means being mounted on the support means and being translationally secured with the means for supporting the spring means ; - a means for anchoring to the support structure of the rail ; - a means for adjusting the position of the support means relative to the anchoring means . - a spring means capable of coming into abutment on the upper face of the base of the rail ; - a means for securing the spring means to a support structure of the rail , - a means for supporting the spring means intended to be in contact with a lateral edge of the base of the rail , the spring means being mounted on the support means and being translationally secured with the means for supporting the spring means ; - a means for anchoring to the support structure of the rail ; - a means for adjusting the position of the support means relative to the anchoring means .
Operating head with electro spindles, comprising a central structure rotating orthogonally to a work plane, said central structure supporting a plurality of electro spindles distributed on a circumference with the same angular distance, the axis of rotation of each electro spindle disposed radially with respect to the axis of rotation of the central structure , the central structure comprising a substantially polygonal prismatic turret provided on each side face with a flanged seat designed to receive and support a cylindrical casing of each electro spindle, wherein: - the rotor and the stator of each electro spindle belong to a synchronous motor with permanent magnets, the permanent magnets mounted on the rotor surface or inserted inside the rotor, the stator installed around the rotor with a space between the rotor and the stator, with coils wound around the stator, so that when an electric current is applied to the coils, the rotor is rotated by a force applied in a certain direction; - the central structure allows housing inside it a plurality of wirings for the transmission and distribution of electrical and electronic power; - the operating head comprises at least one pneumatic device with a vertical approach connected to the central structure to balance a certain overall mass and maintain the operating head with electro spindles in a floating condition. - the rotor and the stator of each electro spindle belong to a synchronous motor with permanent magnets, the permanent magnets mounted on the rotor surface or inserted inside the rotor, the stator installed around the rotor with a space between the rotor and the stator, with coils wound around the stator, so that when an electric current is applied to the coils, the rotor is rotated by a force applied in a certain direction; - the central structure allows housing inside it a plurality of wirings for the transmission and distribution of electrical and electronic power; - the operating head comprises at least one pneumatic device with a vertical approach connected to the central structure to balance a certain overall mass and maintain the operating head with electro spindles in a floating condition.
A welded structure of a first member and a second member joined together by welding, wherein the first member includes a second member joint portion joined to the second member , the second member includes a first member joint portion joined to the first member , when the first member and the second member are aligned along a first direction and a second direction is a direction intersecting the first direction, the welded structure includes a cavity (30, 32; 52; 56; 60) formed between the first member joint portion and the second member joint portion , a welded portion formed between the cavity (30, 32; 52; 56; 60) and each end in the second direction of a joint surface where the first member joint portion and the second member joint portion are joined together, the cavity (30, 32; 52; 56; 60) is formed by a groove (26, 28; 51; 54; 59) provided at least to one of the first member and the second member , characterized in that : the second member is made of a material that generates more gas when molten than the first member , and the welded portion is formed along a direction inclined toward the first member side relative to the joint surface , so as to reduce the melting amount of the second member . wherein the first member includes a second member joint portion joined to the second member , the second member includes a first member joint portion joined to the first member , when the first member and the second member are aligned along a first direction and a second direction is a direction intersecting the first direction, the welded structure includes a cavity (30, 32; 52; 56; 60) formed between the first member joint portion and the second member joint portion , a welded portion formed between the cavity (30, 32; 52; 56; 60) and each end in the second direction of a joint surface where the first member joint portion and the second member joint portion are joined together, the cavity (30, 32; 52; 56; 60) is formed by a groove (26, 28; 51; 54; 59) provided at least to one of the first member and the second member , characterized in that : the second member is made of a material that generates more gas when molten than the first member , and the welded portion is formed along a direction inclined toward the first member side relative to the joint surface , so as to reduce the melting amount of the second member . the second member is made of a material that generates more gas when molten than the first member , and the welded portion is formed along a direction inclined toward the first member side relative to the joint surface , so as to reduce the melting amount of the second member .
Method for manufacturing a three-dimensional object from a stack of layers of powder, said three-dimensional object comprising an outer skin and an inner three-dimensional mesh , said object being formed by a superpositioning of several layers of powder, each comprising at least one outer border enclosing a central part comprising an inner mesh comprising grid cells , the superpositioning of the outer borders of the layers forming said outer skin of the object and the superpositioning of the inner meshes of the layers forming said inner three-dimensional mesh of the object , a method wherein: a) a layer of powder is deposited with a total surface area S1 on a working plate; b) an energy beam is used to perform a full scan of a surface S2 contained within said total surface area S1, as a function of the three-dimensional object to be manufactured, so as to form micro-connections between the grains of powder of said surface area S2; c) during a first step of melting-solidification, said energy beam is used to perform the melting of the outer border or of the inner mesh , the latter penetrating into a part of the width of said outer border ; d) during a second step of melting-solidification, said energy beam is used to perform the melting of the element chosen from among the outer border or the inner mesh which has not been solidified during said first step of melting-solidification, so as to melt the part of said mesh penetrating into said outer border twice; e) the steps a) to d) are repeated n times so as to form n superposed layers of metallic powder and manufacture said three-dimensional object , wherein, between said grid cells of the inner mesh , the grains or particles of powder do not undergo any melting but are micro-welded with one another by means of the micro-connections; f) a hot isostatic compression of the three-dimensional object is performed. a) a layer of powder is deposited with a total surface area S1 on a working plate; b) an energy beam is used to perform a full scan of a surface S2 contained within said total surface area S1, as a function of the three-dimensional object to be manufactured, so as to form micro-connections between the grains of powder of said surface area S2; c) during a first step of melting-solidification, said energy beam is used to perform the melting of the outer border or of the inner mesh , the latter penetrating into a part of the width of said outer border ; d) during a second step of melting-solidification, said energy beam is used to perform the melting of the element chosen from among the outer border or the inner mesh which has not been solidified during said first step of melting-solidification, so as to melt the part of said mesh penetrating into said outer border twice; e) the steps a) to d) are repeated n times so as to form n superposed layers of metallic powder and manufacture said three-dimensional object , wherein, between said grid cells of the inner mesh , the grains or particles of powder do not undergo any melting but are micro-welded with one another by means of the micro-connections; f) a hot isostatic compression of the three-dimensional object is performed.
Plant for producing foodstuff, in particular a chocolate article, in at least one mould which can be tempered in at least one processing station before and/or after the foodstuff is filled in, wherein the mould being taken over in or at the processing station by a robot and being deposited for tempering, characterized in that , in the processing station individual, separate trays for the moulds are provided on a wall (6 - 6.3), that slots for dispensing a tempering medium are located below and/or above the trays in the wall (6 - 6.3), and that a tempering medium is guided in the trays .
A balloon and tether assembly comprising a plurality of balloons each having a tether , the tether also being an inflation conduit for the balloon , wherein the plurality of tethers are connected to each other along at least parts of their length and wherein the plurality of tethers are severably connected to each other.
Method for producing separate portions of mashed fruit and/or vegetables, optionally provided with pieces of fruit and/or vegetables, wherein said mash is cooled to a mouldable consistency and subsequently portioned, which portions are subsequently further cooled to frozen portions, wherein cooling of the mash is realized by means of a liquid coolant and when moving the mash, characterized in that when cooling to a mouldable consistency, the mash is moved while it is brought into a barrel that can rotate around its shaft and is moved simultaneously by moving one or more blades through the mash.
An additively manufactured hinge assembly defining an axial direction (A), a radial direction (R) extending orthogonally to the axial direction (A), and a circumferential direction (C), comprising: a hub defining a body and a first mounting arm and a second mounting arm each projecting from the body , wherein the first mounting arm and the second mounting arm are spaced from one another and define a hinge axis (HA); and a plurality of vanes each rotatably coupled with the hub and movable about the hinge axis (HA) between a retracted position, in which each respective vane of the plurality of vanes extends generally along the axial direction (A), and an extended position, in which each respective vane of the plurality of vanes extends generally outward from the hub along the radial direction (R), each one of the plurality of vanes defining a hinge member having a first nesting feature shaped complementary to at least a portion of the first mounting arm and a second nesting feature shaped complementary to at least a portion of the second mounting arm to nest the hinge member between the first mounting arm and the second mounting arm , and wherein the hub and the plurality of vanes are simultaneously additively manufactured as distinct, but inseparable monolithic components. a hub defining a body and a first mounting arm and a second mounting arm each projecting from the body , wherein the first mounting arm and the second mounting arm are spaced from one another and define a hinge axis (HA); and a plurality of vanes each rotatably coupled with the hub and movable about the hinge axis (HA) between a retracted position, in which each respective vane of the plurality of vanes extends generally along the axial direction (A), and an extended position, in which each respective vane of the plurality of vanes extends generally outward from the hub along the radial direction (R), each one of the plurality of vanes defining a hinge member having a first nesting feature shaped complementary to at least a portion of the first mounting arm and a second nesting feature shaped complementary to at least a portion of the second mounting arm to nest the hinge member between the first mounting arm and the second mounting arm , and wherein the hub and the plurality of vanes are simultaneously additively manufactured as distinct, but inseparable monolithic components.
A method operable by a first user equipment, UE , for wireless communication, comprising: discovering a peer UE ; determining a first metric for peer-to-peer, P2P, communication with the peer UE; determining a second metric for communicating with a base station in a wide area cellular network ; applying different offsets to the first and second metrics to generate an adjusted first and adjusted second metric, wherein the different offsets create an association bias to either the peer UE or the wide area cellular network ; and deciding whether to associate with the peer UE for P2P communication or with the base station for wide area cellular network communication based on the adjusted first and second metrics. discovering a peer UE ; determining a first metric for peer-to-peer, P2P, communication with the peer UE; determining a second metric for communicating with a base station in a wide area cellular network ; applying different offsets to the first and second metrics to generate an adjusted first and adjusted second metric, wherein the different offsets create an association bias to either the peer UE or the wide area cellular network ; and deciding whether to associate with the peer UE for P2P communication or with the base station for wide area cellular network communication based on the adjusted first and second metrics.