mhurhangee/patent-ind-claim-en huggingface dataset:
An active vibration absorption system for absorbing a vibration of a vibrating element , comprising: - a body sound generator with a coupling element for coupling to the vibrating element , wherein the coupling element is adapted to be vibrated upon vibration of the vibrating element and with an electrical coil for moving the coupling element by means of a coil current , wherein the coupling element is further adapted to induce by movement an electromagnetic current in the electrical coil ; and - a control device, characterized in that the body sound generator is adapted to detect an induced voltage in the electrical coil and to provide a signal correlated with the detected induced voltage; and the control device is configured to receive the measurement signal and to determine a target current intensity of the coil current as a function of the measurement signal , wherein the target current intensity is set up such that the movement of the coupling element is set such that the vibration of the vibrating element is at least partially absorbed, and the control device is further adapted to control an actual current of the applied coiled current on the target current intensity, as well as from the measurement signal determine a detection portion and a control portion, wherein the detection portion corresponds to the vibrating element induced voltage, and wherein the control portion is caused by the applied coil current , and to determine the target current intensity as a function of the detection portion. - a body sound generator with a coupling element for coupling to the vibrating element , wherein the coupling element is adapted to be vibrated upon vibration of the vibrating element and with an electrical coil for moving the coupling element by means of a coil current , wherein the coupling element is further adapted to induce by movement an electromagnetic current in the electrical coil ; and - a control device, characterized in that the body sound generator is adapted to detect an induced voltage in the electrical coil and to provide a signal correlated with the detected induced voltage; and the control device is configured to receive the measurement signal and to determine a target current intensity of the coil current as a function of the measurement signal , wherein the target current intensity is set up such that the movement of the coupling element is set such that the vibration of the vibrating element is at least partially absorbed, and the control device is further adapted to control an actual current of the applied coiled current on the target current intensity, as well as from the measurement signal determine a detection portion and a control portion, wherein the detection portion corresponds to the vibrating element induced voltage, and wherein the control portion is caused by the applied coil current , and to determine the target current intensity as a function of the detection portion.
Welding electrode arrangement for welding in each case one interconnector of two adjacent electrochemical cells of a rechargeable battery, in particular a lead acid rechargeable battery , wherein the interconnectors are disposed so as to be separated from one another by means of a housing partition and so as to be opposite one another on opposite sides of the housing partition, wherein the housing partition has an opening in a region in which the interconnectors lie opposite one another, wherein the welding electrode arrangement has at least one pair of welding electrodes, wherein at least one, in particular each, of the welding electrodes of the at least one pair of welding electrodes has an insert part which is conceived to contact a corresponding interconnector, and to weld the interconnectors through the opening in the housing partition in such a manner that an area proportion of plastics inclusions in the welding area is at most 8% of the welding area, wherein the insert part has a welding plate , on the front side of which is formed a welding protrusion that extends from the welding plate , and wherein the welding protrusion has a recess . wherein the interconnectors are disposed so as to be separated from one another by means of a housing partition and so as to be opposite one another on opposite sides of the housing partition, wherein the housing partition has an opening in a region in which the interconnectors lie opposite one another, wherein the welding electrode arrangement has at least one pair of welding electrodes, wherein at least one, in particular each, of the welding electrodes of the at least one pair of welding electrodes has an insert part which is conceived to contact a corresponding interconnector, and to weld the interconnectors through the opening in the housing partition in such a manner that an area proportion of plastics inclusions in the welding area is at most 8% of the welding area, wherein the insert part has a welding plate , on the front side of which is formed a welding protrusion that extends from the welding plate , and wherein the welding protrusion has a recess .
A method at a first node for encoding a message for secure transmission to a second node comprising: receiving the message for transmission to the second node; fragmenting the message into a plurality of fragments, wherein each fragment is of a selected size; encoding separately each fragment of the plurality of fragments using Datagram Transport Layer Security, DTLS; combining DTLS encoded fragments into a Stream Control Transmission Protocol, SCTP, message; and transmitting the message as a plurality of DTLS encoded fragments in the SCTP message to the second node. receiving the message for transmission to the second node; fragmenting the message into a plurality of fragments, wherein each fragment is of a selected size; encoding separately each fragment of the plurality of fragments using Datagram Transport Layer Security, DTLS; combining DTLS encoded fragments into a Stream Control Transmission Protocol, SCTP, message; and transmitting the message as a plurality of DTLS encoded fragments in the SCTP message to the second node.
A multi-ply tissue product comprising a first wet pressed tissue ply and a second wet pressed tissue ply, the product having a geometric mean tensile strength (GMT) greater than about 1,400 g/3" (g/7.62 cm), a TS7 value less than about 16.0 and a TS750 value from about 12.0 to about 20.0, wherein each of the first and the second wet pressed tissue plies has a first outer surface and a latex polymer disposed thereon.
Method of manufacturing decorative laminates for wood based colour patterns including the steps of: a) inkjet printing a first decorative layer 7 by a first multi-pass inkjet printer 13 and delivering the inkjet printed first decorative layer 7 to a laminate heating press 11 where it is heat pressed into a decorative laminate; and b) inkjet printing a second decorative layer 7 by a second multi-pass inkjet printer 13 and delivering the inkjet printed second decorative layer 7 to the same laminate heating press 11 where it is heat pressed into a decorative laminate, wherein the decorative layer includes a paper substrate having an ink acceptance layer present on the surface of the paper substrate; wherein the inkjet printing of a colour pattern is performed on an ink acceptance layer using pigmented aqueous inkjet inks from a CRYK ink set; wherein a protective layer is applied after printing above the colour pattern; and wherein the protective layer is a thermosetting resin impregnated paper substrate. a) inkjet printing a first decorative layer 7 by a first multi-pass inkjet printer 13 and delivering the inkjet printed first decorative layer 7 to a laminate heating press 11 where it is heat pressed into a decorative laminate; and b) inkjet printing a second decorative layer 7 by a second multi-pass inkjet printer 13 and delivering the inkjet printed second decorative layer 7 to the same laminate heating press 11 where it is heat pressed into a decorative laminate,
A method of operating a communication device , comprising: - while the communication device operates in a disconnected mode in which a data connection is not set-up between the communication device and a network , receiving at least one downlink signal transmitted by a base station of the network , - determining a receive property of the at least one downlink signal based on said receiving, and - transmitting an uplink report signal indicative of the receive property of the at least one downlink signal , wherein the receive property comprises at least one of a signal strength, signal-to-noise ratio, an error rate of decoding a plurality of downlink signals , or a decoding reliability, wherein the at least one downlink signal comprises a plurality of downlink signals , wherein the plurality of downlink signals are received in receive timeslots of a repetitive probing schedule, wherein the receive timeslots are coincident in time domain with paging occasions , and characterized in that the repetitive probing schedule is time-aligned with a discontinuous reception cycle of the disconnected mode such that not every on duration of the discontinuous reception cycle includes a receive timeslot of the repetitive probing schedule. - while the communication device operates in a disconnected mode in which a data connection is not set-up between the communication device and a network , receiving at least one downlink signal transmitted by a base station of the network , - determining a receive property of the at least one downlink signal based on said receiving, and - transmitting an uplink report signal indicative of the receive property of the at least one downlink signal , wherein the receive property comprises at least one of a signal strength, signal-to-noise ratio, an error rate of decoding a plurality of downlink signals , or a decoding reliability, wherein the at least one downlink signal comprises a plurality of downlink signals , wherein the plurality of downlink signals are received in receive timeslots of a repetitive probing schedule, wherein the receive timeslots are coincident in time domain with paging occasions , and characterized in that the repetitive probing schedule is time-aligned with a discontinuous reception cycle of the disconnected mode such that not every on duration of the discontinuous reception cycle includes a receive timeslot of the repetitive probing schedule.
A wind tunnel test stand, especially a multi-configuration wind tunnel test stand, convertible at least to a one-band, three-band and/or five-band configuration, comprising a test stand frame for receiving forces, a weighing platform supported movably in relation to said test stand frame , at least one force detecting means arranged between said weighing platform and said test stand frame to detect forces between weighing platform and test stand frame , and at least one belt unit comprising a moving belt wrapped around two reels , characterized by a slide for receiving at least a belt unit of a one-band or three-band configuration, said slide supported such that said slide is movable in X and Y directions in relation to said test stand frame , and that said slide transfers forces in a Z direction separately from said weighing platform to a bearing base. comprising a test stand frame for receiving forces, a weighing platform supported movably in relation to said test stand frame , at least one force detecting means arranged between said weighing platform and said test stand frame to detect forces between weighing platform and test stand frame , and at least one belt unit comprising a moving belt wrapped around two reels , characterized by a slide for receiving at least a belt unit of a one-band or three-band configuration, said slide supported such that said slide is movable in X and Y directions in relation to said test stand frame , and that said slide transfers forces in a Z direction separately from said weighing platform to a bearing base.
A process for preparing an overbased salt of a sulfurized alkyl-substituted hydroxyaromatic composition comprising: (a) providing an overbased salt of a sulfurized alkyl-substituted hydroxyaromatic composition having a total base number greater than 250 as determined by ASTM Test No. D2896-11; and (b) sparging the overbased salt of a sulfurized alkyl-substituted hydroxyaromatic composition with air at a temperature ranging from 190°C to 250°C. (a) providing an overbased salt of a sulfurized alkyl-substituted hydroxyaromatic composition having a total base number greater than 250 as determined by ASTM Test No. D2896-11; and (b) sparging the overbased salt of a sulfurized alkyl-substituted hydroxyaromatic composition with air at a temperature ranging from 190°C to 250°C.
A drying assembly for a printer , comprising: a number N of fan units directed to force air to a drying zone, characterized in that N is an integer 2 or greater and each fan unit comprises: a fan ; a heating element positioned to heat the air moved by the fan ; and a temperature sensor positioned near an exhaust of the fan unit; a controller coupled to each fan unit, the controller to monitor the temperature senor in each fan unit, the controller to independently adjust a speed of each fan to maintain the same temperature at all N fan units, the controller to keep the total airflow through all N fan units at a constant value. a number N of fan units directed to force air to a drying zone, characterized in that N is an integer 2 or greater and each fan unit comprises: a fan ; a heating element positioned to heat the air moved by the fan ; and a temperature sensor positioned near an exhaust of the fan unit; a fan ; a heating element positioned to heat the air moved by the fan ; and a temperature sensor positioned near an exhaust of the fan unit; a controller coupled to each fan unit, the controller to monitor the temperature senor in each fan unit, the controller to independently adjust a speed of each fan to maintain the same temperature at all N fan units, the controller to keep the total airflow through all N fan units at a constant value.
A pressure-limiting valve comprising a valve housing and comprising a valve piston and comprising a pressure-limiting adjusting spring , wherein at least one valve inlet and at least one valve outlet are provided in the valve housing , wherein the valve piston can assume an open position (B), in which the valve inlet and the valve outlet are connected to one another, and at least one closed position (D), in which the valve inlet and the valve outlet are separated from one another, wherein the valve piston has a first piston ring with a sealing face and has a second piston ring , characterized in that in the closed position (D), the sealing face of the first piston ring is pulled in a sealing manner against a housing lip by a pneumatic force which acts on the first piston ring and second piston ring and which is directed against the force of the pressure-limiting adjusting spring , and wherein, furthermore, there is a pneumatic passage in the valve piston for the purpose of creating a safety valve function, which pneumatic passage can be closed by a spring-loaded safety valve body which is arranged on that side of the second piston ring which is opposite the valve outlet .
A method for adjusting a handover area, carried out by a device for adjusting a handover area, the method comprising: acquiring running information of a train after the train starts (S100), wherein the running information of the train comprises position information and speed information of the train; determining, based on the running information of the train, a required handover area range of a target handover area which the train is about to enter (S200); adjusting a handover area range of the target handover area based on a comparison result between the required handover area range of the target handover area which the train is about to enter and a current handover area range of the target handover area (S300), wherein an overlapped coverage area of source and target cell forms the target handover area; and when there is no train passing the target handover area within a first preset time, adjusting the handover area range of the target handover area to be a preset handover area range (S400). acquiring running information of a train after the train starts (S100), wherein the running information of the train comprises position information and speed information of the train; determining, based on the running information of the train, a required handover area range of a target handover area which the train is about to enter (S200); adjusting a handover area range of the target handover area based on a comparison result between the required handover area range of the target handover area which the train is about to enter and a current handover area range of the target handover area (S300), wherein an overlapped coverage area of source and target cell forms the target handover area; and when there is no train passing the target handover area within a first preset time, adjusting the handover area range of the target handover area to be a preset handover area range (S400).
A load detector comprising: a beam-type load cell which is supported on a support base in a cantilever manner; and a placement part which is connected to the beam-type load cell, wherein the placement part includes a placement plate (P 30 , P 31 , P 32 , P 33 , P 34 , P 35 , P 36 ) onto which a subject is to be placed, and a slope (SL) which is configured to guide the subject from a floor surface onto the placement plate, wherein a forward end (SLT) of the slope is swingable about a first perpendicular axis (X) perpendicular to an upper surface of the placement plate or a second perpendicular axis (X) perpendicular to an upper surface of the slope, and/or is movable in a width direction of the placement plate, wherein the width direction is orthogonal to a front-rear direction of the slope. a beam-type load cell which is supported on a support base in a cantilever manner; and a placement part which is connected to the beam-type load cell, wherein the placement part includes a placement plate (P 30 , P 31 , P 32 , P 33 , P 34 , P 35 , P 36 ) onto which a subject is to be placed, and a slope (SL) which is configured to guide the subject from a floor surface onto the placement plate, wherein a forward end (SLT) of the slope is swingable about a first perpendicular axis (X) perpendicular to an upper surface of the placement plate or a second perpendicular axis (X) perpendicular to an upper surface of the slope, and/or is movable in a width direction of the placement plate, wherein the width direction is orthogonal to a front-rear direction of the slope.
A passive electromagnetic pen, comprising: a pen core ; a first iron core ; and an iron core holder , wherein a coil is wound outside the first iron core , the first iron core is fixed to an end of the iron core holder adjacent to a pen tip of the pen core , a second iron core , an elastic component , a pressure regulating plate , and a first structure matched with the pressure regulating plate are disposed in the iron core holder sequentially from front to back, and the pen core is configured to pass through a center of the first iron core , and to push the second iron core to move during writing; characterized in that a rotary handle is disposed on the pressure regulating plate , the pressure regulating plate when in rotation by the rotary handle is configured to be in surface contact with the first structure by a surface contact of the pressure regulating plate , so as to generate an axial displacement of the pressure regulating plate to change a space for accommodating the elastic component and to generate a corresponding axial displacement of the elastic component. a pen core ; a first iron core ; and an iron core holder , wherein a coil is wound outside the first iron core , the first iron core is fixed to an end of the iron core holder adjacent to a pen tip of the pen core , a second iron core , an elastic component , a pressure regulating plate , and a first structure matched with the pressure regulating plate are disposed in the iron core holder sequentially from front to back, and the pen core is configured to pass through a center of the first iron core , and to push the second iron core to move during writing; characterized in that a rotary handle is disposed on the pressure regulating plate , the pressure regulating plate when in rotation by the rotary handle is configured to be in surface contact with the first structure by a surface contact of the pressure regulating plate , so as to generate an axial displacement of the pressure regulating plate to change a space for accommodating the elastic component and to generate a corresponding axial displacement of the elastic component.
A resonant transformer comprising: a secondary winding group including a bobbin having a first through hole ; a primary winding group provided on the bobbin of the secondary winding group including a second through hole in communication with the first through hole ; a magnetic sheet provided in the bobbin of the secondary winding group including a through hole in communication with the first and second through holes; and a core group including a first core and a second core symmetrically disposed, the first core being disposed on the top of the primary winding group , the second core being disposed at the bottom of the primary winding group , wherein the primary winding group is provided on the secondary winding group , and after the first and second cores are disposed on the top and bottom, during operation of the resonant transformer , leakage inductance of a required magnitude is created by the magnetic sheet ; and wherein the aperture of the through hole of the magnetic sheet is inversely proportional to the leakage inductance created in the resonant transformer ; the thickness of the the magnetic sheet is proportional to the leakage inductance created in the resonant transformer ; and the permeability of the magnetic sheet is proportional to the leakage inductance created in the resonant transformer , thereby rendering the leakage inductance created in the resonant transformer adjustable. a secondary winding group including a bobbin having a first through hole ; a primary winding group provided on the bobbin of the secondary winding group including a second through hole in communication with the first through hole ; a magnetic sheet provided in the bobbin of the secondary winding group including a through hole in communication with the first and second through holes; and a core group including a first core and a second core symmetrically disposed, the first core being disposed on the top of the primary winding group , the second core being disposed at the bottom of the primary winding group , wherein the primary winding group is provided on the secondary winding group , and after the first and second cores are disposed on the top and bottom, during operation of the resonant transformer , leakage inductance of a required magnitude is created by the magnetic sheet ; and wherein the aperture of the through hole of the magnetic sheet is inversely proportional to the leakage inductance created in the resonant transformer ; the thickness of the the magnetic sheet is proportional to the leakage inductance created in the resonant transformer ; and the permeability of the magnetic sheet is proportional to the leakage inductance created in the resonant transformer , thereby rendering the leakage inductance created in the resonant transformer adjustable.
Method for producing a portion capsule , wherein, in a first step, a basic element , having a capsule bottom (2"), a capsule wall encircling the capsule bottom (2") and a flange encircling the capsule wall , is produced in a forming process, wherein, in a second step, a beverage raw material is placed into a capsule interior bordered by the capsule bottom (2") and the capsule wall , wherein, in a third step, a capsule cover closing the capsule interior is fastened to the flange , characterized in that , after the third step, a bead encircling the capsule wall (2") is impressed into the flange .