mhurhangee/ep-ind-claims huggingface dataset:
An adjustable mirror mount for rotating a reflection surface of a mirror, the adjustable mirror mount comprising: a mirror holder (102a/b) that is configured to hold a mirror such that a reflection surface of the mirror is parallel with a horizontal axis; a vertical adjustment arm, wherein the vertical adjustment arm is rigidly connected to the mirror holder; a horizontal adjustment arm, wherein the horizontal adjustment arm is coupled to the vertical adjustment arm by one or more vertical pivots (124, 126) that allow the vertical adjustment arm to rotate about the horizontal axis relative to the horizontal adjustment arm; a horizontal pivot coupled with the horizontal adjustment arm and having a center axis aligned with a vertical axis that passes through the reflection surface; a cleat, wherein the cleat is adjustably coupled to the horizontal adjustment arm; a horizontal adjustment screw, wherein rotation of the horizontal adjustment screw changes a separation distance between the horizontal adjustment arm and the cleat and causes the horizontal adjustment arm and the mirror holder to rotate about the vertical axis relative to the cleat when the horizontal pivot and the cleat are held in fixed locations; and a vertical adjustment screw, wherein rotation of the vertical adjustment screw changes a separation distance between the vertical adjustment arm and the horizontal adjustment arm and causes the vertical adjustment arm and the mirror holder to rotate about the horizontal axis. a mirror holder (102a/b) that is configured to hold a mirror such that a reflection surface of the mirror is parallel with a horizontal axis; a vertical adjustment arm, wherein the vertical adjustment arm is rigidly connected to the mirror holder; a horizontal adjustment arm, wherein the horizontal adjustment arm is coupled to the vertical adjustment arm by one or more vertical pivots (124, 126) that allow the vertical adjustment arm to rotate about the horizontal axis relative to the horizontal adjustment arm; a horizontal pivot coupled with the horizontal adjustment arm and having a center axis aligned with a vertical axis that passes through the reflection surface; a cleat, wherein the cleat is adjustably coupled to the horizontal adjustment arm; a horizontal adjustment screw, wherein rotation of the horizontal adjustment screw changes a separation distance between the horizontal adjustment arm and the cleat and causes the horizontal adjustment arm and the mirror holder to rotate about the vertical axis relative to the cleat when the horizontal pivot and the cleat are held in fixed locations; and a vertical adjustment screw, wherein rotation of the vertical adjustment screw changes a separation distance between the vertical adjustment arm and the horizontal adjustment arm and causes the vertical adjustment arm and the mirror holder to rotate about the horizontal axis.
Method for identifying the load condition of a fluid-delivering, electric motor driven pump of a household appliance, wherein the pump is driven by a three-line, three-phase, star-connected permanently excited electric motor embodied as a synchronous motor using a vector control, wherein at least one load condition of the pump is determined from a current component iq of the vector control forming a torque by means of a detector circuit, characterised in that the current ia or ib is only measured in two of the three lines, wherein a load case of the pump, an idling case of the pump, a blocked fluid flow through the pump and/or a pumped quantity of fluid is/are determined as the load condition/load conditions and wherein the pumped quantity of fluid is determined from the temporal integral of the difference of the variable of the current component iq present in the load case and the variable of the current component iq present in the idling case.
Lighting device, comprising - a light mixing element having a light entry surface and a light exit surface, - multiple light sources (5, 5'), the primary light of which can be radiated onto the light entry surface, - a wavelength conversion unit (8, 9) having a carrier, on which a luminescent volume is arranged, - which luminescent volume can be illuminated by means of the primary light emitted by the light exit surface, and - at least one decoupling optical unit for forming useful light (P, S) emitted by the wavelength conversion unit (8, 9), which has at least one non-imaging safety region, wherein - the multiple light sources (5, 5') radiate the primary light thereof at an angle (β) onto the light entry surface, - the at least one safety region occupies a position on the decoupling optical unit which corresponds to a region of high intensity of the primary light in the case of remote luminescent volume characterized in that - the at least one safety region is a specularly reflective region, which reflects the light (P; P, S) incident thereon in a spatial angle which does not contribute to the light emission pattern which can be decoupled by the decoupling optical unit as useful light. - a light mixing element having a light entry surface and a light exit surface, - multiple light sources (5, 5'), the primary light of which can be radiated onto the light entry surface, - a wavelength conversion unit (8, 9) having a carrier, on which a luminescent volume is arranged, - which luminescent volume can be illuminated by means of the primary light emitted by the light exit surface, and - at least one decoupling optical unit for forming useful light (P, S) emitted by the wavelength conversion unit (8, 9), which has at least one non-imaging safety region, wherein - the multiple light sources (5, 5') radiate the primary light thereof at an angle (β) onto the light entry surface, - the at least one safety region occupies a position on the decoupling optical unit which corresponds to a region of high intensity of the primary light in the case of remote luminescent volume characterized in that - the at least one safety region is a specularly reflective region, which reflects the light (P; P, S) incident thereon in a spatial angle which does not contribute to the light emission pattern which can be decoupled by the decoupling optical unit as useful light.
A vacuum cleaner nozzle comprising a housing, a suction connecting piece arranged on the housing rear end in a working direction (x), a suction mouth which is arranged on the housing on the bottom side and which extends in a transverse direction (y) standing perpendicularly to the working direction (x), and comprising decorative lighting comprising a light source and a light-guiding manifold, wherein the light source is arranged on a coupling point of the light-guiding manifold, characterized in that at least one uncoupling region of the light-guiding manifold is arranged on the housing on the top side, on the bottom side and/or on the end side in the transverse direction (y).
A fire/flame-proofing roof comprising an outer face composed of a combustible material, said material being either from thatch, straw, Japanese cypress bark, Japanese cedar bark, or persimmon, and mounted on a lattice shaped backing formed by a plurality of rafters and by a plurality of lath-like members (8; 24; 27) crossing the rafters, characterized in that the outer face excepting an inside face of the roof (11; 21) is covered with a fire/flame-proofing net for blocking entry of sparks or flying sparks from the outside into the outer face of the roof.
Battery-electrically operated industrial truck having at least one electric traction motor and one on-board electrical system and at least one traction battery which supplies at least the traction motor with electrical energy, wherein at least one additional buffer battery is provided, which supplies the on-board electrical system with electrical energy, characterized in that an electric brake device of the industrial truck, which electric brake device is supplied with electrical energy by the buffer battery, is provided for controlled braking of the industrial truck in the event of operational problems with the traction battery, in that the traction battery has a higher operating voltage than the buffer battery and is connected to the buffer battery via at least one voltage transformer for the purpose of charging the buffer battery, and in that the voltage transformer is configured as a controllable voltage transformer which controls the charging current for the buffer battery depending on operating conditions of the industrial truck, wherein the voltage converter is configured to temporarily reduce or interrupt the supply of charging current for the buffer battery in order to optimize the lifting power or the acceleration of the industrial truck, as a result of which all the electrical power of the traction battery is available to the electric traction motor of the traction drive and/or to the electric hydraulic pump motor of the working hydraulics, and wherein the voltage transformer is configured to then increase the supply of charging current again during braking or steady-state driving. in that the traction battery has a higher operating voltage than the buffer battery and is connected to the buffer battery via at least one voltage transformer for the purpose of charging the buffer battery, and in that the voltage transformer is configured as a controllable voltage transformer which controls the charging current for the buffer battery depending on operating conditions of the industrial truck, wherein the voltage converter is configured to temporarily reduce or interrupt the supply of charging current for the buffer battery in order to optimize the lifting power or the acceleration of the industrial truck, as a result of which all the electrical power of the traction battery is available to the electric traction motor of the traction drive and/or to the electric hydraulic pump motor of the working hydraulics, and wherein the voltage transformer is configured to then increase the supply of charging current again during braking or steady-state driving.
A method for Internet Protocol, IP, Multimedia Subsystem, IMS, communication registration through a relay user equipment, the method comprising: receiving, at the relay user equipment from a remote user equipment (612, 614), an association message, the association message containing a remote user equipment identifier; and responsive to the receiving, sending a registration message from the relay user equipment to a network node of an IMS, the IMS being selected from a visited IMS of the relay user equipment or a home IMS of the relay user equipment, the registration message including an indication that the registration message is for the remote user equipment. receiving, at the relay user equipment from a remote user equipment (612, 614), an association message, the association message containing a remote user equipment identifier; and responsive to the receiving, sending a registration message from the relay user equipment to a network node of an IMS, the IMS being selected from a visited IMS of the relay user equipment or a home IMS of the relay user equipment, the registration message including an indication that the registration message is for the remote user equipment.
A washing machine comprising: a cabinet; a rotary tub disposed to rotate around a driving shaft (31 B), which is vertically provided inside of the cabinet, and comprising a bottom and a sidewall; a driving apparatus disposed at a lower side of the rotary tub to rotate the rotary tub; a bracket plate connected to the rotary tub through the driving shaft (31 B) at the lower side of the rotary tub and having the driving apparatus provided at a lower side thereof; a base disposed at a lower side of the bracket plate; and a suspension member having a lower side supported by the base and an upper side connected to the bracket plate at a lateral side of a center of gravity of the rotary tub so that vibration generated from the rotary tub is absorbed; characterized in that the cabinet comprises an outer part forming an external appearance of the washing machine, and an inner part which is provided in a cylindrical shape, connected to an inner surface of the outer part and in which the driving shaft (31 B) is vertically provided, wherein the side wall is slantingly extending from the bottom to have a diameter increasing toward an upper side of the rotary tub from the bottom. a cabinet; a rotary tub disposed to rotate around a driving shaft (31 B), which is vertically provided inside of the cabinet, and comprising a bottom and a sidewall; a driving apparatus disposed at a lower side of the rotary tub to rotate the rotary tub; a bracket plate connected to the rotary tub through the driving shaft (31 B) at the lower side of the rotary tub and having the driving apparatus provided at a lower side thereof; a base disposed at a lower side of the bracket plate; and a suspension member having a lower side supported by the base and an upper side connected to the bracket plate at a lateral side of a center of gravity of the rotary tub so that vibration generated from the rotary tub is absorbed; characterized in that the cabinet comprises an outer part forming an external appearance of the washing machine, and an inner part which is provided in a cylindrical shape, connected to an inner surface of the outer part and in which the driving shaft (31 B) is vertically provided, wherein
A cross-linked polyethylene AC cable insulating material, comprising following components by mass: 100phr of low-density polyethylene, 0.2-1.2phr of a maleic anhydride modified voltage stabilizer, 0.2-0.5phr of an antioxidant, and 1.5-2.2phr of an initiator; wherein the low-density polyethylene has a melt index of 1.9-2.1g/10min at 190°C and 2.16kg load and a density of 0.902-0.942g/cm 3; the maleic anhydride modified voltage stabilizer has a structural formula represented by Formula 1: 100phr of low-density polyethylene, 0.2-1.2phr of a maleic anhydride modified voltage stabilizer, 0.2-0.5phr of an antioxidant, and 1.5-2.2phr of an initiator; wherein the low-density polyethylene has a melt index of 1.9-2.1g/10min at 190°C and 2.16kg load and a density of 0.902-0.942g/cm 3; the maleic anhydride modified voltage stabilizer has a structural formula represented by Formula 1:
A device for supplying at least one sprayer with a liquid coating product, this device comprising at least one valve (100, 200) controlling the flow of the coating product toward the sprayer, this valve in turn comprising: - a moving needle, - a valve body (102, 202) that defines a circulation volume (104A, 106A, 115, 116) for the coating product and a bearing seat for the needle in the closed configuration of the valve, - pneumatic driving means (128, 140, 146) for translating the needle along an axis of separation/approach relative to the seat, these pneumatic driving means comprising a piston secured in translation to the needle and mounted sliding in a guide body, - a head mounted on the guide body and defining, with the latter and a face of the piston, a variable volume chamber in which an elastic return member is provided for returning the piston to its position, characterized in that the head and the guide body are secured in rotation using corresponding reliefs (154, 158) respectively arranged on the head and on the guide body and that comprise slots arranged on one edge of the guide body opposite the needle, respectively on one edge of the head, and protruding elements arranged on an outer radial surface of the head, of the guide body, respectively, and received in spaces defined between the slots. - a moving needle, - a valve body (102, 202) that defines a circulation volume (104A, 106A, 115, 116) for the coating product and a bearing seat for the needle in the closed configuration of the valve, - pneumatic driving means (128, 140, 146) for translating the needle along an axis of separation/approach relative to the seat, these pneumatic driving means comprising a piston secured in translation to the needle and mounted sliding in a guide body, - a head mounted on the guide body and defining, with the latter and a face of the piston, a variable volume chamber in which an elastic return member is provided for returning the piston to its position,
An airfoil vane assembly, comprising: a vane piece defining a first vane platform, a second vane platform, and a hollow airfoil section joining the first vane platform and the second vane platform, the first vane platform defining a collar projection therefrom; a spar piece defining a spar platform and a spar extending from the spar platform into the hollow airfoil section, the spar platform including a radial opening defined by first and second axial faces (82, 84), the radial opening configured to receive the collar projection, and characterised in that the spar platform further includes a groove in the first axial face; and in that the airfoil vane assembly comprises a seal situated in the groove, the seal sealing against the collar projection; and a biasing member configured to bias the seal towards the collar projection. a vane piece defining a first vane platform, a second vane platform, and a hollow airfoil section joining the first vane platform and the second vane platform, the first vane platform defining a collar projection therefrom; a spar piece defining a spar platform and a spar extending from the spar platform into the hollow airfoil section, the spar platform including a radial opening defined by first and second axial faces (82, 84), the radial opening configured to receive the collar projection, and characterised in that the spar platform further includes a groove in the first axial face; and in that the airfoil vane assembly comprises a seal situated in the groove, the seal sealing against the collar projection; and a biasing member configured to bias the seal towards the collar projection.
A method of calculating at a first wireless device round trip time between the first wireless device and a second wireless device, the method comprising: Receiving a calculation of a first RTT in a first direction, where the first direction is from said first wireless device to said second wireless device and back to said first wireless device, wherein the calculation of the first RTT is based at least on a timestamp of a first time at which a first frame is transmitted by the first wireless device to the second device and based on a timestamp of a fourth time at which a first acknowledgement is received at the first device from the second device; calculating a second RTT in a second direction, where the second direction is from said second wireless device to said first wireless device and back to said second wireless device, wherein the calculation of the second RTT is based on a timestamp of a fifth time (t1') at which a second frame is transmitted by the second wireless device to the first wireless device and based on a timestamp of an eight time (t4') at which a second acknowledgement is received at the second device from the first device; and calculating an average RTT, wherein the average RTT is based on the first RTT and the second RTT. Receiving a calculation of a first RTT in a first direction, where the first direction is from said first wireless device to said second wireless device and back to said first wireless device, wherein the calculation of the first RTT is based at least on a timestamp of a first time at which a first frame is transmitted by the first wireless device to the second device and based on a timestamp of a fourth time at which a first acknowledgement is received at the first device from the second device; calculating a second RTT in a second direction, where the second direction is from said second wireless device to said first wireless device and back to said second wireless device, wherein the calculation of the second RTT is based on a timestamp of a fifth time (t1') at which a second frame is transmitted by the second wireless device to the first wireless device and based on a timestamp of an eight time (t4') at which a second acknowledgement is received at the second device from the first device; and calculating an average RTT, wherein the average RTT is based on the first RTT and the second RTT.
A hand disinfecting composition, comprising a) at least 40 wt% water, b) at least one dissolving ether, c) at last one fatty entity and d) 0.1 to 20 wt% of a microbicidal cationic tenside, characterized in that • the at least one dissolving ether is dipropylene glycol, tripropylene glycol or tetrapropylene glycol, • the at least one fatty entity is phenoxy ethanol, phenoxy propanol, isodecanol, isododecanol or isotridecanol, wherein the content of fatty particles is higher than the water solubility of the compound and • the microbicidal cationic tenside is didecyl-dimethyl-ammonium chloride, bromide or iodide, wherein the hand disinfecting composition comprises neither ethanol nor a propanol nor any other alcohol having fewer than 9 carbon atoms. a) at least 40 wt% water, b) at least one dissolving ether, c) at last one fatty entity and d) 0.1 to 20 wt% of a microbicidal cationic tenside, • the at least one dissolving ether is dipropylene glycol, tripropylene glycol or tetrapropylene glycol, • the at least one fatty entity is phenoxy ethanol, phenoxy propanol, isodecanol, isododecanol or isotridecanol, wherein the content of fatty particles is higher than the water solubility of the compound and • the microbicidal cationic tenside is didecyl-dimethyl-ammonium chloride, bromide or iodide,
An interconnect apparatus configured to communicate data packets through a network, the data packets arranged in a plurality of sub-packets, including an address sub-packet that identifies a target processing core for receiving a data packet, the interconnect apparatus comprising a chip with • a Data Vortex switch (1220, 1410) on said chip, and • an array of processing cores on said chip wherein the Data Vortex switch receives data from an external source and the array of processing cores receives data from the Data Vortex switch, wherein a data packet sent to the Data Vortex switch is not reassembled in the Data Vortex switch but travels through the Data Vortex switch in wormhole fashion. • a Data Vortex switch (1220, 1410) on said chip, and • an array of processing cores on said chip wherein the Data Vortex switch receives data from an external source and the array of processing cores receives data from the Data Vortex switch, wherein a data packet sent to the Data Vortex switch is not reassembled in the Data Vortex switch but travels through the Data Vortex switch in wormhole fashion.