mhurhangee/patent-ind-claim-en huggingface dataset:
A wire feeding mechanism comprising a slip clutch mechanism connectable to a motor, wherein the wire feeding mechanism comprises one or more wheels that frictionally engage with the wire to cause the wire to be conveyed, each such wheel including a gear , and being characterised in that the slip clutch mechanism is a push-type friction clutch having first and second moving parts and a shaft , the first moving part comprising a rotating disc received on the shaft and the second moving part comprising friction members mounted on a rotating member also received on the shaft , wherein the second moving part includes a gear , wherein the rotating disc is fixed relative to the rotating shaft and the rotating member rotates freely relative to the rotating shaft , and wherein the gear of each wheel is meshed with the gear of the second moving part .
A method for producing a hollow component made of a composite material, comprising the steps of: - producing or providing (S1) a winding mandrel having at least one water-soluble portion ; - winding (S2) filaments or fibers of the composite material around the winding mandrel to form an assembly comprising the winding mandrel and the hollow component wound around the winding mandrel ; - subjecting the assembly consisting of the winding mandrel and the hollow component to a heat treatment (S3) to consolidate the shape of the hollow component ; - dissolving (S4) the at least one water-soluble portion of the winding mandrel , by immersing the assembly consisting of the winding mandrel and the hollow component in water or in an aqueous solution; characterized in that said at least one water-soluble portion has a body made as a mesh or a three-dimensional grid in which a fluid can flow. - producing or providing (S1) a winding mandrel having at least one water-soluble portion ; - winding (S2) filaments or fibers of the composite material around the winding mandrel to form an assembly comprising the winding mandrel and the hollow component wound around the winding mandrel ; - subjecting the assembly consisting of the winding mandrel and the hollow component to a heat treatment (S3) to consolidate the shape of the hollow component ; - dissolving (S4) the at least one water-soluble portion of the winding mandrel , by immersing the assembly consisting of the winding mandrel and the hollow component in water or in an aqueous solution;
A conveyor skirt system , the system comprising: a support member fixed relative to the conveyor; and a series of skirting panels releasably fixed to the support member , characterised in that the system further comprises a rail assembly positioned outside the conveyor, extending in a direction substantially parallel to the direction of the conveyor; and a trolley assembly mounted on the rail assembly , the trolley assembly being adapted to engage and support one or more of the skirting panels . a support member fixed relative to the conveyor; and a series of skirting panels releasably fixed to the support member , characterised in that the system further comprises a rail assembly positioned outside the conveyor, extending in a direction substantially parallel to the direction of the conveyor; and a trolley assembly mounted on the rail assembly , the trolley assembly being adapted to engage and support one or more of the skirting panels .
A method of communication for multi-link multi-beam communications apparatus, comprising: obtaining first measurement information for a first wireless communication link, wherein the obtaining of the first measurement information comprises receiving first signals using a first beam associated with the first wireless communication link; obtaining second measurement information for a second wireless communication link, wherein the obtaining of the second measurement information comprises receiving second signals using a second beam associated with the second wireless communication link; aggregating the first measurement information and the second measurement information; and generating an event trigger based on the aggregated first measurement information and second measurement information. obtaining first measurement information for a first wireless communication link, wherein the obtaining of the first measurement information comprises receiving first signals using a first beam associated with the first wireless communication link; obtaining second measurement information for a second wireless communication link, wherein the obtaining of the second measurement information comprises receiving second signals using a second beam associated with the second wireless communication link; aggregating the first measurement information and the second measurement information; and generating an event trigger based on the aggregated first measurement information and second measurement information.
Method of manufacturing a spar cap for a wind turbine blade part , comprising the steps of: - providing a plurality of precured elongate elements of a fibre reinforced resin composite material comprising a first main surface and a second opposite main surface and a first lateral face and a second opposite lateral face and a first end and an opposite second end , - stacking the plurality of precured elements, an interlayer of an elongate non-cured fibre material being arranged between the first and second main surface of successive precured elements, thereby forming a stack of precured elements and interlayer(s), the stack having a lower stack surface and an opposite upper stack surface , a first lateral stack face and an opposite second lateral stack face , and a first stack end and an opposite second stack end , - moving the stack of precured elements and interlayer(s) to a spar cap mould comprising a mould bottom and mould side walls, - arranging the stack of precured elements and interlayer(s) in the cavity of the spar cap mould I. - infusing resin into the stack of precured elements and interlayers in the mould, - allow the resin to cure to form a cured stack of precured elements and interlayer(s) forming a spar cap, - remove the cured stack of precured elements and interlayer(s) in from the mould, i.e. demould the stack. - providing a plurality of precured elongate elements of a fibre reinforced resin composite material comprising a first main surface and a second opposite main surface and a first lateral face and a second opposite lateral face and a first end and an opposite second end , - stacking the plurality of precured elements, an interlayer of an elongate non-cured fibre material being arranged between the first and second main surface of successive precured elements, thereby forming a stack of precured elements and interlayer(s), the stack having a lower stack surface and an opposite upper stack surface , a first lateral stack face and an opposite second lateral stack face , and a first stack end and an opposite second stack end , - moving the stack of precured elements and interlayer(s) to a spar cap mould comprising a mould bottom and mould side walls, - arranging the stack of precured elements and interlayer(s) in the cavity of the spar cap mould I. - infusing resin into the stack of precured elements and interlayers in the mould, - allow the resin to cure to form a cured stack of precured elements and interlayer(s) forming a spar cap, - remove the cured stack of precured elements and interlayer(s) in from the mould, i.e. demould the stack.
A portable electronic device , comprising: at least two microphones ; earphones ; and a processor configured to record a training signal sent through a plurality of loudspeakers and received by a combination of the at least two microphones and microphones integrated in the earphones , and to transmit the recorded training signal and/or information based thereupon via a transmit interface for calibration of an audio rendering system . at least two microphones ; earphones ; and a processor configured to record a training signal sent through a plurality of loudspeakers and received by a combination of the at least two microphones and microphones integrated in the earphones , and to transmit the recorded training signal and/or information based thereupon via a transmit interface for calibration of an audio rendering system .
A method for operating a device, the method comprising: receiving state information on each of a plurality of control devices from each of the plurality of control devices generating a plurality of data requests to a storage device ; determining a threshold value indicating a number of at least one data request queued without response among the plurality of data requests based on the received state information wherein whether to transmit the plurality of data requests to the storage device is based on the threshold value; the method is characterized in further comprising transmitting the determined threshold value to at least one another device , wherein the state information includes a time deadline for processing operation of the control device and a processing time of the requested data. receiving state information on each of a plurality of control devices from each of the plurality of control devices generating a plurality of data requests to a storage device ; determining a threshold value indicating a number of at least one data request queued without response among the plurality of data requests based on the received state information wherein whether to transmit the plurality of data requests to the storage device is based on the threshold value; the method is characterized in further comprising transmitting the determined threshold value to at least one another device , wherein the state information includes a time deadline for processing operation of the control device and a processing time of the requested data. transmitting the determined threshold value to at least one another device , wherein the state information includes a time deadline for processing operation of the control device and a processing time of the requested data.
A microscope comprising: a pair of Cassegrain reflectors that are coaxially installed with a measurement position (P) interposed therebetween, wherein each of the pair of Cassegrain reflectors includes a primary mirror and a secondary mirror disposed coaxially with the primary mirror and laterally supported by a plurality of supporting rods , and is configured to reflect light incident from an opening formed on an axial line (L) of the primary mirror by the secondary mirror , reflect the light by the primary mirror , and emit the light to the measurement position (P) from a side of the secondary mirror , wherein at least one of the pair of Cassegrain reflectors is retained by a Cassegrain reflector retention mechanism that comprises: a retainer that retains the Cassegrain reflector ; and a rotation adjustment mechanism that adjusts rotational positions of the plurality of supporting rods of the Cassegrain reflector retained by the retainer about the axial line (L); wherein the rotation adjustment mechanism is configured to adjust the rotational positions of the plurality of supporting rods of the Cassegrain reflector so that the plurality of supporting rods of the pair of Cassegrain reflectors overlap each other when viewed along the axial line (L). a pair of Cassegrain reflectors that are coaxially installed with a measurement position (P) interposed therebetween, wherein each of the pair of Cassegrain reflectors includes a primary mirror and a secondary mirror disposed coaxially with the primary mirror and laterally supported by a plurality of supporting rods , and is configured to reflect light incident from an opening formed on an axial line (L) of the primary mirror by the secondary mirror , reflect the light by the primary mirror , and emit the light to the measurement position (P) from a side of the secondary mirror , wherein at least one of the pair of Cassegrain reflectors is retained by a Cassegrain reflector retention mechanism that comprises: a retainer that retains the Cassegrain reflector ; and a rotation adjustment mechanism that adjusts rotational positions of the plurality of supporting rods of the Cassegrain reflector retained by the retainer about the axial line (L); wherein the rotation adjustment mechanism is configured to adjust the rotational positions of the plurality of supporting rods of the Cassegrain reflector so that the plurality of supporting rods of the pair of Cassegrain reflectors overlap each other when viewed along the axial line (L). a retainer that retains the Cassegrain reflector ; and a rotation adjustment mechanism that adjusts rotational positions of the plurality of supporting rods of the Cassegrain reflector retained by the retainer about the axial line (L); wherein the rotation adjustment mechanism is configured to adjust the rotational positions of the plurality of supporting rods of the Cassegrain reflector so that the plurality of supporting rods of the pair of Cassegrain reflectors overlap each other when viewed along the axial line (L).
A ball joint comprising a ring-shaped outer housing which consists of at least one sheet metal sleeve, a ring-shaped inner housing which is firmly received in the outer housing in the axial direction and which consists of at least one metal sleeve, a bearing shell received in the inner housing , and a ball stud which is received in the bearing shell , characterized in that the inner housing includes a circumferential collar on its outside and the outer housing includes two plastically deformed circumferential beads which are located on either side of the circumferential collar .
A method performed by a wireless device for handling power allocation during a multicarrier operation having a mixed transmission time interval ,TTI, configuration, wherein a first TTI configured on a first frequency is configured with a shorter length than a second TTI configured on a second frequency, the method comprising: determining a power allocation for a scheduled data transmission carried over the first frequency when the first TTI and the second TTI are not at a common TTI boundary, wherein determining the power allocation is based on a remaining power for scheduled transmissions, wherein the remaining power is based on a maximum transmitter power of the wireless device deducting any power for non-scheduled transmissions and a reserved power for any scheduled data transmission on the second frequency, wherein the reserved power is based on a filtered power of a dedicated physical control channel, DPCCH, and a power offset for an enhanced-transport format combination, E-TFC, of a transmission for the second frequency configured with the second TTI, wherein the filtered power is averaged over a number of slots having a total duration equal to the second TTI length. determining a power allocation for a scheduled data transmission carried over the first frequency when the first TTI and the second TTI are not at a common TTI boundary, wherein determining the power allocation is based on a remaining power for scheduled transmissions, wherein the remaining power is based on a maximum transmitter power of the wireless device deducting any power for non-scheduled transmissions and a reserved power for any scheduled data transmission on the second frequency, wherein the reserved power is based on a filtered power of a dedicated physical control channel, DPCCH, and a power offset for an enhanced-transport format combination, E-TFC, of a transmission for the second frequency configured with the second TTI, wherein the filtered power is averaged over a number of slots having a total duration equal to the second TTI length.
An in-building access path installation type smoke control system, which is openably and closably installed in an in-building access path, the in-building access path installation type smoke control system comprising: a door casing having an intake port and a discharge port ; a door nozzle installed in the door casing and configured to spray water supplied from the outside; and a main door body including a negative pressure inducer configured to allow water sprayed from the door nozzle to pass therethrough, generate negative pressure on the basis of the Venturi effect while the water passes therethrough, suck gas at the periphery of the door casing through the intake port , mix the sucked gas with water, and move the gas mixed with the water downward toward the discharge port . a door casing having an intake port and a discharge port ; a door nozzle installed in the door casing and configured to spray water supplied from the outside; and a main door body including a negative pressure inducer configured to allow water sprayed from the door nozzle to pass therethrough, generate negative pressure on the basis of the Venturi effect while the water passes therethrough, suck gas at the periphery of the door casing through the intake port , mix the sucked gas with water, and move the gas mixed with the water downward toward the discharge port .
A resin composition for forming an insulation layer of a power cable, the resin composition comprising: polyethylene, wherein the polyethylene includes methine groups, and the polyethylene satisfies the following formula in a 13 C nuclear magnetic resonance spectrum, RX ≤ 5 where RX satisfies RX = X/(X+Y+Z)} × 100, and X, Y, and Z respectively represent an integrated intensity of the methine groups, an integrated intensity of methylene groups, and an integrated intensity of methyl groups in the 13 C nuclear magnetic resonance spectrum of the polyethylene, measured as detailed in the description. polyethylene, wherein the polyethylene includes methine groups, and the polyethylene satisfies the following formula in a 13 C nuclear magnetic resonance spectrum, RX ≤ 5 where RX satisfies RX = X/(X+Y+Z)} × 100, and X, Y, and Z respectively represent an integrated intensity of the methine groups, an integrated intensity of methylene groups, and an integrated intensity of methyl groups in the 13 C nuclear magnetic resonance spectrum of the polyethylene, measured as detailed in the description.
Induction hob device having at least two overlapping induction heating elements (12a-g) and having at least one magnetic flux bundling unit (14a-g), which is provided to bundle at least one magnetic flux provided by at least one of the induction heating elements (12a-g), and which has at least one magnetic flux bundling element (16a-g), which, for flux bundling purposes, is assigned to the overlapping induction heating elements (12a-g), wherein the magnetic flux bundling unit (14a-g) has at least one further magnetic flux bundling element (24a-g), which is assigned to at least one of the induction heating elements (12a-g), characterised in that an identical number of magnetic flux bundling elements (16a-g) is assigned to the induction heating elements (12a-g) in each case, wherein the overlapping induction heating elements (15a-g) are identical to one another.
A detector array for an imaging system , including: an array of scintillator crystals , wherein each scintillator crystal includes a plurality of side surfaces and is laser etched with a pattern onto at least a portion of at least one scintillator crystal side surface by creating microfractures on, or on and directly underneath the surface of the scintillator crystals to diffusely reflect light; and an array of photodetectors optically coupled to the array of scintillator crystals. an array of scintillator crystals , wherein each scintillator crystal includes a plurality of side surfaces and is laser etched with a pattern onto at least a portion of at least one scintillator crystal side surface by creating microfractures on, or on and directly underneath the surface of the scintillator crystals to diffusely reflect light; and an array of photodetectors optically coupled to the array of scintillator crystals.
Component module having a component having at least one electrical contact , in which an open-pore contact piece for making electrical contact is connected to the at least one electrical contact , wherein the component module has a cooling system for cooling using a cooling fluid, said cooling system comprising one or more cooling ducts, which are formed by means of pores of the open-pore contact piece , and in which the at least one open-pore contact piece is formed by a fabric-like and/or foam-like and/or mesh-like structure or by means of stacked leadframes.
A system for moving an ocular prosthetic comprising a support and an ocular prosthetic mounted to the support, wherein the ocular prosthetic 140 is movable about at least two axes of rotation, and a control system P680 controlling a movement of the ocular prosthetic , characterized in that the support comprises a gimbal having at least two degrees of rotation, wherein the gimbal comprises an ocular frame supporting a pitch arm and an yaw arm ; an ocular prosthetic supported by the pitch arm and the yaw arm, wherein the ocular prosthetic is movable about at least two axes of rotation ; and the control system comprises: a sensor positioned to sense a movement of a human pupil; a motor connected to the support member; and at least one control signal communicated between the sensor and the motor. a gimbal having at least two degrees of rotation, wherein the gimbal comprises an ocular frame supporting a pitch arm and an yaw arm ; an ocular prosthetic supported by the pitch arm and the yaw arm, wherein the ocular prosthetic is movable about at least two axes of rotation ; and the control system comprises: a sensor positioned to sense a movement of a human pupil; a motor connected to the support member; and at least one control signal communicated between the sensor and the motor. a sensor positioned to sense a movement of a human pupil; a motor connected to the support member; and at least one control signal communicated between the sensor and the motor.
A dolly carrier pallet comprising a pallet provided with a dolly receiving layer , wherein the dolly receiving layer is provided with generally rectangular wheel receiving recesses for receiving swivel casters and is provided with generally rectangular wheel receiving recesses for receiving fixed casters , wherein the swivel caster wheel receiving recesses are longer than the fixed caster wheel receiving recesses .