mhurhangee/patent-ind-claim-en huggingface dataset:
Method for producing a vehicle composite component with a layer structure having a core layer in a molding tool , the core layer being formed with regions of different thickness, having the following steps: 1.1 placing a cover layer , in particular a preformed cover layer, which in particular forms an outer skin of the vehicle composite component , onto a mold base plate of the open molding tool , 1.2 introducing a first fiber layer , which is impregnated with PU resin and has not been subjected to forming, between the cover layer and a first mold counterplate of the open molding tool , 1.3 closing the molding tool and compression molding the first fiber layer , which is impregnated with PU resin, against the cover layer , as a result of which a preform with a first support layer containing the first fiber layer is formed and hardened while supplying heat, 1.4 opening the molding tool and replacing the first mold counterplate with a second mold counterplate with a highly structured mold surface, 1.5 introducing a second fiber layer , which is impregnated with PU resin and has not been subjected to forming, between the preform arranged on the mold base plate and the second mold counterplate of the open molding tool , 1.6 closing the molding tool and injecting foamable PU between the first support layer of the preform and the second fiber layer , the PU foam forming the core layer pressing the second fiber layer against the second mold counterplate , which has a profiled mold surface, and shaping it thereon as a second profiled support layer , 1.7 opening the molding tool and removing the composite component formed. 1.1 placing a cover layer , in particular a preformed cover layer, which in particular forms an outer skin of the vehicle composite component , onto a mold base plate of the open molding tool , 1.2 introducing a first fiber layer , which is impregnated with PU resin and has not been subjected to forming, between the cover layer and a first mold counterplate of the open molding tool , 1.3 closing the molding tool and compression molding the first fiber layer , which is impregnated with PU resin, against the cover layer , as a result of which a preform with a first support layer containing the first fiber layer is formed and hardened while supplying heat, 1.4 opening the molding tool and replacing the first mold counterplate with a second mold counterplate with a highly structured mold surface, 1.5 introducing a second fiber layer , which is impregnated with PU resin and has not been subjected to forming, between the preform arranged on the mold base plate and the second mold counterplate of the open molding tool , 1.6 closing the molding tool and injecting foamable PU between the first support layer of the preform and the second fiber layer , the PU foam forming the core layer pressing the second fiber layer against the second mold counterplate , which has a profiled mold surface, and shaping it thereon as a second profiled support layer , 1.7 opening the molding tool and removing the composite component formed.
Modular tunnel formwork device , comprising: - at least two modules (12a,b, 14a-g) which are arranged one behind the other in the longitudinal direction of the tunnel formwork device and can be detachably connected to one another, - wherein the at least two modules (12a,b, 14a-g) each have a frame part (16a,b), and the frame parts (16a,b) of the interconnected modules (12a,b, 14a-g) form a frame of the tunnel formwork device , - at least two support structures , which can be connected to the frame of the tunnel formwork device and are spaced apart from one another in the longitudinal direction of the tunnel formwork device, for supporting the frame on a tunnel floor , characterized in that the frame carries at least two support cylinders (26a,b, 28a,b, 30a,b) which are located in at least two positions spaced apart from one another in the longitudinal direction, which support cylinders can be connected to longitudinal beams (32a-f) running in the longitudinal direction, which longitudinal beams (32a-f) carry tunnel formwork elements of the tunnel formwork device . - at least two modules (12a,b, 14a-g) which are arranged one behind the other in the longitudinal direction of the tunnel formwork device and can be detachably connected to one another, - wherein the at least two modules (12a,b, 14a-g) each have a frame part (16a,b), and the frame parts (16a,b) of the interconnected modules (12a,b, 14a-g) form a frame of the tunnel formwork device , - at least two support structures , which can be connected to the frame of the tunnel formwork device and are spaced apart from one another in the longitudinal direction of the tunnel formwork device, for supporting the frame on a tunnel floor ,
A retort chamber comprising: a) a top , b) a bottom , c) a heater at or near the bottom of the retort chamber capable of heating the bottom to a temperature between about 900 and 1300°C, d) two or more inlet ports located at or near the bottom of the retort chamber , e) one or more outlet ports located at or near the top of the retort chamber , f) temperature monitors at or near the top and bottom of the retort chamber , g) a temperature monitor located at a position between about 30 and about 70% of the distance between the top and the bottom of the retort chamber , and h) a vacuum line or aspirator located in the upper third of the retort chamber , wherein the heater is a burner placed on a carriage , which carriage is adapted to allow the burner to move along the bottom of the retort chamber , wherein the bottom of the retort chamber comprises a plurality of registers , which registers are spaced so as to provide substantially equal pressure along the entire bottom of the retort chamber , wherein substantially equal means that the pressure along the bottom of the retort chamber does not vary by more than 20%. a) a top , b) a bottom , c) a heater at or near the bottom of the retort chamber capable of heating the bottom to a temperature between about 900 and 1300°C, d) two or more inlet ports located at or near the bottom of the retort chamber , e) one or more outlet ports located at or near the top of the retort chamber , f) temperature monitors at or near the top and bottom of the retort chamber , g) a temperature monitor located at a position between about 30 and about 70% of the distance between the top and the bottom of the retort chamber , and h) a vacuum line or aspirator located in the upper third of the retort chamber ,
Body part of a motor vehicle comprising: - a main body made of plastic material and sized to be bonded to a motor vehicle body structure , and - at least one bead of glue arranged to receive a second bead of glue , the bead of glue being made of a more flexible material than that forming the main body , characterized in that wherein the bead of glue comprises a core configured to soften the bead of glue . - a main body made of plastic material and sized to be bonded to a motor vehicle body structure , and - at least one bead of glue arranged to receive a second bead of glue , the bead of glue being made of a more flexible material than that forming the main body , characterized in that wherein the bead of glue comprises a core configured to soften the bead of glue .
A power supply of two-wire communication line adapted for transmission of signals between electronic devices, as well as for transmission of signals between electronic devices and for supplying them with power, which comprises a two-pole primary power supply , characterized in that the aforesaid power supply further comprises a two-pole secondary power supply , its poles connected to the wires of the two-wire communication line, as well as to eponymous poles of the primary power supply through resistors of the same value.
A virtual reality headset stand comprising: a base ; a stem extending from the base , wherein the stem is angled toward the base and the stem comprises an input device to control actions presented in a virtual reality headset ; and a docking station attached to the stem , wherein the docking station is angled away from the stem , wherein the docking station is contoured to hold the virtual reality headset , and wherein the docking station comprises: a lip connected to the stem ; a body portion connected to the lip ; and a clip connected to the body portion . a base ; a stem extending from the base , wherein the stem is angled toward the base and the stem comprises an input device to control actions presented in a virtual reality headset ; and a docking station attached to the stem , wherein the docking station is angled away from the stem , wherein the docking station is contoured to hold the virtual reality headset , and wherein the docking station comprises: a lip connected to the stem ; a body portion connected to the lip ; and a clip connected to the body portion . a lip connected to the stem ; a body portion connected to the lip ; and a clip connected to the body portion .
Method for producing a custom seat, characterised in that it includes the following steps: - providing an orthopaedic positioning device, especially for a wheelchair, including a seat or base secured to a securing plate that can be adjusted from the front to the rear and different supports, especially pelvic supports, adduction supports, and abduction supports, wherein the supports are stackable supports and are positioned on predefined locations on the seat or base, and wherein the supports interlock and are covered with a gripping fabric, enabling Velcro fastening, marks being visible on the seat or base, - positioning the supports on the seat or base to infer measurements therefrom, - reporting in a measurement sheet the markers visible on the seat or base, as well as the supports selected, to ascertain the sought location, and - manufacturing a foam seat based on the measurements made by milling a foam block. - providing an orthopaedic positioning device, especially for a wheelchair, including a seat or base secured to a securing plate that can be adjusted from the front to the rear and different supports, especially pelvic supports, adduction supports, and abduction supports, wherein the supports are stackable supports and are positioned on predefined locations on the seat or base, and wherein the supports interlock and are covered with a gripping fabric, enabling Velcro fastening, marks being visible on the seat or base, - positioning the supports on the seat or base to infer measurements therefrom, - reporting in a measurement sheet the markers visible on the seat or base, as well as the supports selected, to ascertain the sought location, and - manufacturing a foam seat based on the measurements made by milling a foam block.
Tool for installing an annular seal intended to ensure the seal-tightness between two tubular parts, one male and one female , the male part being provided with a groove into which the seal is inserted and the end of the female part being chamfered, characterized in that the tool comprises a clamping band having a cylindrical inner face of planar surface forming a so-called compression ring intended to encircle the male part at least at the groove and to exert a compression on the seal , one of the two ends of the band being called female end because it is intended to come into contact with the female part and the other being called male end , the female end of the band having a tongue protruding outwards of which one of the faces forms part of the cylindrical inner face of the band , the tongue having a form allowing it to come into contact with the chamfered surface of the female part .
A method for modifying a plurality of cooling holes of a turbine component , the method comprising: disposing a recess-shaped modification in a recess of the component comprising a plurality of cooling hole outlets , the recess-shaped modification formed to substantially fill the recess and comprising a plurality of modified cooling holes passing there through; aligning the plurality of modified cooling holes of the recess-shaped modification with the plurality of cooling hole outlets of the component wherein aligning the plurality of the modified cooling holes of the recess-shaped modification with the plurality of cooling hole outlets of the component is temporary and further comprises: inserting at least one alignment pin into at least one of the modified cooling holes of the recess-shaped modification and at least one of the cooling holes of the component; and bonding the recess-shaped modification disposed in the recess to the component , wherein the plurality of modified cooling holes of the recess-shaped modification is fluidly connected with the plurality of cooling holes of the component . disposing a recess-shaped modification in a recess of the component comprising a plurality of cooling hole outlets , the recess-shaped modification formed to substantially fill the recess and comprising a plurality of modified cooling holes passing there through; aligning the plurality of modified cooling holes of the recess-shaped modification with the plurality of cooling hole outlets of the component wherein aligning the plurality of the modified cooling holes of the recess-shaped modification with the plurality of cooling hole outlets of the component is temporary and further comprises: inserting at least one alignment pin into at least one of the modified cooling holes of the recess-shaped modification and at least one of the cooling holes of the component; and bonding the recess-shaped modification disposed in the recess to the component , wherein the plurality of modified cooling holes of the recess-shaped modification is fluidly connected with the plurality of cooling holes of the component .
A user equipment, UE, device comprising: a wireless communication interface adapted to transmit and receive data wirelessly to and from a network wherein the network comprises a session key management device , a source mobility management entity, MME , and a target MME ; and a processing circuit communicatively coupled to the wireless communication interface, the processing circuit adapted to: identify entry into a new service area; transmit a service area update request to the target mobility management entity, MME ; receive a control plane message from the network indicating control plane device relocation or a key refresh due to a service area change in response to transmitting the service area update request, said control plane message being a non-access stratum security mode command; and derive a first key for performance of security mode command, SMC, procedures between the UE and the target MME, wherein the key management device is a session key management function, SKMF, and the first key is based in part on (i) data included in the control plane message received and (ii) a second key shared between the device and the key management device. a wireless communication interface adapted to transmit and receive data wirelessly to and from a network wherein the network comprises a session key management device , a source mobility management entity, MME , and a target MME ; and a processing circuit communicatively coupled to the wireless communication interface, the processing circuit adapted to: identify entry into a new service area; transmit a service area update request to the target mobility management entity, MME ; receive a control plane message from the network indicating control plane device relocation or a key refresh due to a service area change in response to transmitting the service area update request, said control plane message being a non-access stratum security mode command; and derive a first key for performance of security mode command, SMC, procedures between the UE and the target MME, wherein the key management device is a session key management function, SKMF, and the first key is based in part on (i) data included in the control plane message received and (ii) a second key shared between the device and the key management device. identify entry into a new service area; transmit a service area update request to the target mobility management entity, MME ; receive a control plane message from the network indicating control plane device relocation or a key refresh due to a service area change in response to transmitting the service area update request, said control plane message being a non-access stratum security mode command; and derive a first key for performance of security mode command, SMC, procedures between the UE and the target MME, wherein the key management device is a session key management function, SKMF, and the first key is based in part on (i) data included in the control plane message received and (ii) a second key shared between the device and the key management device.
A system (100; 200) for resonance based cable compensation comprising: a first switch with a first terminal for connection to a first connection of a cable (108; 208) having a resonant circuit (110; 210) on an end of the cable opposite the first switch; a second terminal for connection to a second connection of a cable that has its first connection connected to the first terminal; and a logic component (116; 216) operatively connected to control the first switch to selectively apply voltage pulses across the first and second terminals to generate a resonance signal in a cable connected to the terminals; characterized by a processor system configured to measure the system resonance and to compensate for the resonant frequency shift from the nominal resonant frequency by changing the operating frequency to the measured resonance. a first switch with a first terminal for connection to a first connection of a cable (108; 208) having a resonant circuit (110; 210) on an end of the cable opposite the first switch; a second terminal for connection to a second connection of a cable that has its first connection connected to the first terminal; and a logic component (116; 216) operatively connected to control the first switch to selectively apply voltage pulses across the first and second terminals to generate a resonance signal in a cable connected to the terminals; characterized by a processor system configured to measure the system resonance and to compensate for the resonant frequency shift from the nominal resonant frequency by changing the operating frequency to the measured resonance.
A sensor apparatus for use in measuring the temperature of an aircraft brake, the sensor apparatus comprising: a temperature sensor for attachment to a brake disc of an aircraft brake, the temperature sensor being configured to wirelessly transmit a measurement signal containing information relating to a temperature of the brake disc, responsive to receiving a wireless interrogation signal; and a relay for attachment to the brake, the relay being configured to: receive an interrogation signal from a remote interrogation apparatus; wirelessly transmit the received interrogation signal to the temperature sensor; receive the wireless measurement signal from the temperature sensor; and transmit the received measurement signal. a temperature sensor for attachment to a brake disc of an aircraft brake, the temperature sensor being configured to wirelessly transmit a measurement signal containing information relating to a temperature of the brake disc, responsive to receiving a wireless interrogation signal; and a relay for attachment to the brake, the relay being configured to: receive an interrogation signal from a remote interrogation apparatus; wirelessly transmit the received interrogation signal to the temperature sensor; receive the wireless measurement signal from the temperature sensor; and transmit the received measurement signal. receive an interrogation signal from a remote interrogation apparatus; wirelessly transmit the received interrogation signal to the temperature sensor; receive the wireless measurement signal from the temperature sensor; and transmit the received measurement signal.
A system comprising: a first conduit for flowing a multiphase fluid; a flotation gas source ; a mixing system having a first inlet in fluid communication with a downstream end of the first conduit , a second inlet in fluid communication with the flotation gas source , and an outlet, the mixing system configured to mix the multiphase fluid flowing from the downstream end of the first conduit with flotation gas from the flotation gas source so as to produce at the outlet an enhanced multiphase fluid having bubbles of the flotation gas therein; a second conduit having an upstream end in fluid communication with the outlet of the mixing system ; a bubble control system associated with the second conduit and configured to: determine one of a fluid velocity or flow rate of the multiphase fluid in the first conduit and the enhanced multiphase fluid in the second conduit to determine a fluid velocity or flowrate increase across the mixing system ; and characterised in that it is further configured to control the mixing system as a function of the flow rate or velocity drop so as to maintain the velocity or flowrate increase within a desired range that maintains the bubble size distribution of bubbles within the enhanced multiphase fluid within a desired range. a first conduit for flowing a multiphase fluid; a flotation gas source ; a mixing system having a first inlet in fluid communication with a downstream end of the first conduit , a second inlet in fluid communication with the flotation gas source , and an outlet, the mixing system configured to mix the multiphase fluid flowing from the downstream end of the first conduit with flotation gas from the flotation gas source so as to produce at the outlet an enhanced multiphase fluid having bubbles of the flotation gas therein; a second conduit having an upstream end in fluid communication with the outlet of the mixing system ; a bubble control system associated with the second conduit and configured to: determine one of a fluid velocity or flow rate of the multiphase fluid in the first conduit and the enhanced multiphase fluid in the second conduit to determine a fluid velocity or flowrate increase across the mixing system ; and characterised in that it is further configured to control the mixing system as a function of the flow rate or velocity drop so as to maintain the velocity or flowrate increase within a desired range that maintains the bubble size distribution of bubbles within the enhanced multiphase fluid within a desired range. determine one of a fluid velocity or flow rate of the multiphase fluid in the first conduit and the enhanced multiphase fluid in the second conduit to determine a fluid velocity or flowrate increase across the mixing system ; and characterised in that it is further configured to control the mixing system as a function of the flow rate or velocity drop so as to maintain the velocity or flowrate increase within a desired range that maintains the bubble size distribution of bubbles within the enhanced multiphase fluid within a desired range.