mhurhangee/patent-ind-claim-en huggingface dataset:
A fuel rail comprising: a main pipe portion extending in a longitudinal direction; and a plurality of distribution pipe portions (20a-d) branching from the main pipe portion , and a fuel passage connecting a main pipe hole , distribution pipe holes (21a-d), and injector attaching holes (22a-d) being seamlessly configured without joints, the main pipe hole penetrating the main pipe portion , the distribution pipe holes (21a-d) respectively penetrating the plurality of distribution pipe portions (20a-d), and the injector attaching holes (22a-d) being for attaching injectors characterized in that the main pipe portion and the distribution pipe portions (20a-d) are cut and formed from a single-sheet plate, the single-sheet plate having a planar or flat shape, and an outer peripheral side surface of the main pipe portion on a side facing the distribution pipe portions (20a-d) is formed as a plane surface perpendicular to an axial center of the distribution pipe portions (20a-d). a main pipe portion extending in a longitudinal direction; and a plurality of distribution pipe portions (20a-d) branching from the main pipe portion , and a fuel passage connecting a main pipe hole , distribution pipe holes (21a-d), and injector attaching holes (22a-d) being seamlessly configured without joints, the main pipe hole penetrating the main pipe portion , the distribution pipe holes (21a-d) respectively penetrating the plurality of distribution pipe portions (20a-d), and the injector attaching holes (22a-d) being for attaching injectors characterized in that the main pipe portion and the distribution pipe portions (20a-d) are cut and formed from a single-sheet plate, the single-sheet plate having a planar or flat shape, and an outer peripheral side surface of the main pipe portion on a side facing the distribution pipe portions (20a-d) is formed as a plane surface perpendicular to an axial center of the distribution pipe portions (20a-d).
A proving unit to verify the operation of a separate contact voltage measurement system and a separate non-contact alternating current, AC, voltage measurement system , the proving unit comprising: a direct current, DC, power source subsystem comprising at least one output that provides a DC voltage; a DC-to-AC converter comprising an input and an output, the input of the DC-to-AC converter electrically coupled to at least one of the at least one output of the DC power source subsystem , wherein in operation the DC-to-AC converter receives the DC voltage from the DC power source subsystem and converts the DC voltage to a specified AC voltage at the output of the DC-to-AC converter ; an insulated wire comprising a conductor surrounded by an insulation layer , the conductor selectively electrically coupleable to the output of the DC-to-AC converter ; a wire support portion coupled to the insulated wire which physically supports the insulated wire such that the insulated wire is accessible to the separate non-contact AC voltage measurement system capable of measuring voltage in the insulated wire without galvanically contacting the conductor in the insulated wire ; and a pair of electrical contacts selectively electrically coupleable to at least one of the output of the DC-to-AC converter or at least one of the at least one output of the DC power source subsystem , each of the pair of electrical contacts accessible to a test instrument probe of the separate contact voltage measurement system. a direct current, DC, power source subsystem comprising at least one output that provides a DC voltage; a DC-to-AC converter comprising an input and an output, the input of the DC-to-AC converter electrically coupled to at least one of the at least one output of the DC power source subsystem , wherein in operation the DC-to-AC converter receives the DC voltage from the DC power source subsystem and converts the DC voltage to a specified AC voltage at the output of the DC-to-AC converter ; an insulated wire comprising a conductor surrounded by an insulation layer , the conductor selectively electrically coupleable to the output of the DC-to-AC converter ; a wire support portion coupled to the insulated wire which physically supports the insulated wire such that the insulated wire is accessible to the separate non-contact AC voltage measurement system capable of measuring voltage in the insulated wire without galvanically contacting the conductor in the insulated wire ; and a pair of electrical contacts selectively electrically coupleable to at least one of the output of the DC-to-AC converter or at least one of the at least one output of the DC power source subsystem , each of the pair of electrical contacts accessible to a test instrument probe of the separate contact voltage measurement system.
A partial discharge detecting device , comprising: an electric field sensor comprising: a first electrode configured to detect by capacitive coupling a partial discharge signal (S PD ) generated by an electric object and provide a corresponding first electrical signal (S 1PD ), and a second electrode isolated from the first electrode and structured to detect an environmental noise and to provide a corresponding second electrical signal (S 1N ); a transmission line structured to propagate an output signal (S 5PD ) obtained from the electric field sensor towards an external analysis apparatus ; and an electronic module connected to the first and second electrodes and structured to process the first and second electrical signals (S 1PD , S 1N ) and to provide the output signal to the transmission line ; wherein the electronic module is structured to decouple the electric field sensor from the transmission line and substantially avoid resonance of the electric field sensor with the transmission line while propagating the output signal (S 5PD ) by the transmission line . an electric field sensor comprising: a first electrode configured to detect by capacitive coupling a partial discharge signal (S PD ) generated by an electric object and provide a corresponding first electrical signal (S 1PD ), and a second electrode isolated from the first electrode and structured to detect an environmental noise and to provide a corresponding second electrical signal (S 1N ); a first electrode configured to detect by capacitive coupling a partial discharge signal (S PD ) generated by an electric object and provide a corresponding first electrical signal (S 1PD ), and a second electrode isolated from the first electrode and structured to detect an environmental noise and to provide a corresponding second electrical signal (S 1N ); a transmission line structured to propagate an output signal (S 5PD ) obtained from the electric field sensor towards an external analysis apparatus ; and an electronic module connected to the first and second electrodes and structured to process the first and second electrical signals (S 1PD , S 1N ) and to provide the output signal to the transmission line ; wherein the electronic module is structured to decouple the electric field sensor from the transmission line and substantially avoid resonance of the electric field sensor with the transmission line while propagating the output signal (S 5PD ) by the transmission line .
A heating device , comprising: a cylinder body , in which a heating cavity is defined and configured to place an object to be processed; an electromagnetic generating module , configured to generate an electromagnetic wave signal; a radiating antenna , electrically connected with the electromagnetic generating module to generate electromagnetic waves of a corresponding frequency in the heating cavity according to the electromagnetic wave signal, so as to heat the object to be processed in the heating cavity; and a signal processing and measurement and control circuit , electrically connected with the electromagnetic generating module and disposed outside the cylinder body , wherein the cylinder body is formed by an upper cover , a bottom plate , a rear cover and two lateral side plates , so that the heating cavity defined in the cylinder body is provided with a front side opening; the heating device further comprises a door body configured to open and close the front side opening; and the signal processing and measurement and control circuit is located on a rear side of the rear cover , characterized in that a housing plate is disposed on the rear side of the rear cover , an accommodating cavity is defined between the housing plate and the rear cover , and the signal processing and measurement and control circuit is disposed in the accommodating cavity; and through holes are formed on a rear plate of the housing plate opposite to the rear cover so as to allow heat generated by the signal processing and measurement and control circuit to be dissipated by the through holes . a cylinder body , in which a heating cavity is defined and configured to place an object to be processed; an electromagnetic generating module , configured to generate an electromagnetic wave signal; a radiating antenna , electrically connected with the electromagnetic generating module to generate electromagnetic waves of a corresponding frequency in the heating cavity according to the electromagnetic wave signal, so as to heat the object to be processed in the heating cavity; and a signal processing and measurement and control circuit , electrically connected with the electromagnetic generating module and disposed outside the cylinder body , wherein the cylinder body is formed by an upper cover , a bottom plate , a rear cover and two lateral side plates , so that the heating cavity defined in the cylinder body is provided with a front side opening; the heating device further comprises a door body configured to open and close the front side opening; and the signal processing and measurement and control circuit is located on a rear side of the rear cover , characterized in that a housing plate is disposed on the rear side of the rear cover , an accommodating cavity is defined between the housing plate and the rear cover , and the signal processing and measurement and control circuit is disposed in the accommodating cavity; and through holes are formed on a rear plate of the housing plate opposite to the rear cover so as to allow heat generated by the signal processing and measurement and control circuit to be dissipated by the through holes .
A handgrip for a leash, comprising a body with a grip part for holding said handgrip wherein said handgrip is embodied for connecting said leash, wherein said handgrip comprises a guiding rail for slidingly coupling said leash along a displacement path, furthermore wherein said guiding rail is embodied for slidingly guiding said leash at a distance from and along the handgrip , wherein said guiding rail is provided with a connector that is embodied for sliding along said guiding rail , for coupling said leash, wherein traveler is slidingly connected to said guiding rail , said traveler comprising a connector for connecting said leash, characterized in that said connector is rotatably connected to said traveler .
A prefilled syringe , comprising - a syringe body which is filled with a medical fluid , which, on a front end, has a nozzle , which is closed by way of a cap and is closed on a rear end by way of a displaceable plunger and - a plunger rod (15', 15", 15"', 15"") which is insertable into the syringe body via the rear end, which, on a front end, has a connecting portion , by means of which the plunger rod (15', 15", 15'", 15"") is connectable to the plunger , wherein on a rear end of the connecting portion at least three ring elements , which extend at least in portions about a longitudinal axis of the plunger rod (15', 15", 15'", 15""), in order to guide the plunger rod (15', 15", 15'", 15"") in the syringe body are arranged on the plunger rod (15', 15", 15'", 15"") in such manner that when the plunger rod (15', 15", 15'", 15"") is fully connected to the plunger , it is located in the syringe body, wherein an outside diameter (D) of the three ring elements is identical to an inside diameter of the syringe body or is somewhat smaller than an inside diameter of the syringe body , wherein between the ring elements wing elements distributed over the circumference of the plunger rod (15', 15", 15'", 15"") are arranged, which extend radially outwardly, connect the ring elements to one another and have an outside diameter (D F ), which is smaller than an outside diameter (D) of the ring elements . - a syringe body which is filled with a medical fluid , which, on a front end, has a nozzle , which is closed by way of a cap and is closed on a rear end by way of a displaceable plunger and - a plunger rod (15', 15", 15"', 15"") which is insertable into the syringe body via the rear end, which, on a front end, has a connecting portion , by means of which the plunger rod (15', 15", 15'", 15"") is connectable to the plunger , wherein
A heating element for an aerosol-generating device , the heating element comprising: a first electrically resistive heating filament , and a support substrate on which the first electrically resistive heating filament is provided, the support substrate comprising a first carbon-fibre support layer comprising a carbon-fibre material. a first electrically resistive heating filament , and a support substrate on which the first electrically resistive heating filament is provided,
A door hinge for connecting a side door of a road vehicle to the body of the road vehicle , wherein the door hinge has a closed state in which the side door is closed and an open state in which the side door is open, the door hinge comprising: a door mount for connecting the door hinge to the side door , a base for mounting the door hinge to the body of the road vehicle , in a mounting orientation, a coupler connected to the door mount , a crank pivotally connected to the base by a first joint and to the coupler by a second joint , and a follower pivotally connected to the base by a third joint and to the coupler by a fourth joint , wherein the base , coupler , crank and follower are arranged to shift the door mount in outward movement relative to the base in its mounting orientation at a change of the state of the door hinge from closed to open, wherein the coupler is connected to the door mount by a fifth joint , wherein the fifth joint is a revolute joint arranged to allow a rotation of the door mount relative to the coupler that is transverse to the outward movement, characterized in that the door hinge further comprises: a gear mechanism connecting the door mount and the crank and arranged to rotate the door mount relative to the coupler at a change of the state of the door hinge from closed to open. a door mount for connecting the door hinge to the side door , a base for mounting the door hinge to the body of the road vehicle , in a mounting orientation, a coupler connected to the door mount , a crank pivotally connected to the base by a first joint and to the coupler by a second joint , and a follower pivotally connected to the base by a third joint and to the coupler by a fourth joint , wherein the base , coupler , crank and follower are arranged to shift the door mount in outward movement relative to the base in its mounting orientation at a change of the state of the door hinge from closed to open, wherein the coupler is connected to the door mount by a fifth joint , wherein the fifth joint is a revolute joint arranged to allow a rotation of the door mount relative to the coupler that is transverse to the outward movement, characterized in that the door hinge further comprises: a gear mechanism connecting the door mount and the crank and arranged to rotate the door mount relative to the coupler at a change of the state of the door hinge from closed to open.
A method, comprising: receiving, wirelessly from a first device , at a second device , user input information associated with a user, the first device comprising one or more input sensors or interfaces for receiving input from the user; receiving, wirelessly at the second device additional information associated with the user, the additional information including information from a third device; identifying, based on the user input information and the additional information, one or more actions for execution including traversing a structure of a plurality of actions, the structure selected from the group consisting of a directed graph, an undirected graph, a finite state model, a decision tree, and a flowchart; and transmitting, from the second device, an indication of the one or more actions to be executed to the third device wirelessly. receiving, wirelessly from a first device , at a second device , user input information associated with a user, the first device comprising one or more input sensors or interfaces for receiving input from the user; receiving, wirelessly at the second device additional information associated with the user, the additional information including information from a third device; identifying, based on the user input information and the additional information, one or more actions for execution including traversing a structure of a plurality of actions, the structure selected from the group consisting of a directed graph, an undirected graph, a finite state model, a decision tree, and a flowchart; and transmitting, from the second device, an indication of the one or more actions to be executed to the third device wirelessly.
Electromedical device for blood coagulation, treatment of ulcers and other dermatological lesions in human and animal patients comprising a gas injection system , an air compressor , an inert gas bottle coupled to the gas injection system , a gas cooling system , a gas dehumidification system , a transport hose , a manual applicator , and a high frequency electric power generating unit ; wherein the gas that flows from the gas injection system is treated by the gas cooling system and the gas dehumidification system before entering in the transport hose towards the manual applicator ; wherein the manual applicator comprises a positive electrode of a frustoconical shape axially perforated at its vertex facing a flat ground electrode generating a region where plasma is produced between them; the high frequency electric power generating unit is coupled to said electrodes ; and a jet of cold non-thermal plasma at atmospheric pressure is produced when the gas flows through the hole made in the center of the positive electrode and crosses the region where the plasma is produced and is driven though a central hole axially perforated in the flat ground electrode and is expelled by a plasma outlet orifice ; and a general digital control system comprising an user control touch screen , wherein the general control system is connected to the high-frequency power generating unit and connected to the gas injection system , the gas cooling system and the gas dehumidification system . wherein the gas that flows from the gas injection system is treated by the gas cooling system and the gas dehumidification system before entering in the transport hose towards the manual applicator ; wherein the manual applicator comprises a positive electrode of a frustoconical shape axially perforated at its vertex facing a flat ground electrode generating a region where plasma is produced between them; the high frequency electric power generating unit is coupled to said electrodes ; and a jet of cold non-thermal plasma at atmospheric pressure is produced when the gas flows through the hole made in the center of the positive electrode and crosses the region where the plasma is produced and is driven though a central hole axially perforated in the flat ground electrode and is expelled by a plasma outlet orifice ; and a general digital control system comprising an user control touch screen , wherein the general control system is connected to the high-frequency power generating unit and connected to the gas injection system , the gas cooling system and the gas dehumidification system .
A permanent magnet rotor for an electrical machine having a stator and a rotor and an air gap arranged between the outer circumference of the rotor and the outer circumference of the stator , the rotor comprising a rotor body configured for rotating around a central rotational axis and further comprising principal permanent magnets that are substantially rectangular in axial cross-section and are embedded in the rotor body and are arranged inclined with respect to the radial plane extending through the centre of the principal magnets and such as to have a circumferential magnetic orientation, wherein the principal magnets have an inner end and an outer end , the outer end of the magnet being arranged in the proximity of the air gap of the outer circumference of the rotor, and outer bridges of magnetically conductive material being formed between the outer ends of the principal magnets and the outer circumference of the rotor, wherein auxiliary magnets are arranged near the outer ends of the principal magnets to magnetically saturate the outer bridges , and characterised in that the principal magnets are made of AINiCo steel, or rare earth magnetic materials and the auxiliary magnets are made from ferrite.
A knitted spacer fabric, in particular a knitted spacer fabric produced on a circular knitting machine, having an upper and a lower knitted cover layer, which are connected to one another by pile yarns , the cover layers being connected to one another by at least two different pile yarns with different elasticity properties, and characterized in that the pile yarns in the cover layers are not included in the knit and the pile yarns in those areas where they are not used to connect the cover layers have been connected to one of the cover layers by tuck loops by means of every second needle.
A waterborne coating composition comprising: an aqueous polyurethane resin comprising urethane linkages, hydrazinecarboxamide linkages, and reactive hydrazide functional groups, wherein the aqueous polyurethane resin has a glass transition temperature of less than 25°C as determined by differential scanning calorimetry; a reactive silicone component; and a crosslinker. an aqueous polyurethane resin comprising urethane linkages, hydrazinecarboxamide linkages, and reactive hydrazide functional groups, wherein the aqueous polyurethane resin has a glass transition temperature of less than 25°C as determined by differential scanning calorimetry; a reactive silicone component; and a crosslinker.
A method for distributing yarn when being wound on a cross-wound bobbin at an operating unit of a textile machine, in which a yarn guide actuated by a synchronous motor reciprocates along the axis of the rotation of the wound bobbin , whereby on the synchronous motor a time interval for the reciprocating travel of the yarn guide from one dead centre (U1) to the other dead centre (U2) is set and the position of the yarn guide is synchronized with the reference position, which is found between these dead centres (U1, U2), characterized in that during each reciprocating travel the time point of the actual passing of the yarn guide through the reference position is detected, the time difference between the time point of the actual passing of the yarn guide through the reference position and the predetermined theoretical time point of the passing of the yarn guide through the reference position is evaluated, and, on the basis of the recorded time difference, the duration of the synchronous motor rotation changes till the moment of finishing the respective reciprocating travel, which also leads to the change of the length of the path of the yarn guide from the reference position to a dead centre (U1, U2), to which the yarn guide is currently approaching.