mhurhangee/patent-ind-claim-en huggingface dataset:
A method of preparing a film, said method comprising: applying a composition on a substrate to give an uncured layer; irradiating the uncured layer; and exposing the uncured layer to moisture, thereby preparing the film; wherein the composition comprises: (a) a polysiloxane resin, wherein the (a) polysiloxane resin comprises the following siloxy units: [R 3 SiO 1/2 ], [(OZ) q SiO (4-q)/2 ] and at least one of [(OZ) t R MA SiO (3-t)/2 ] or [(OZ) d RR MA SiO (2-d)/2 ]; where: each R is independently a substituted or unsubstituted hydrocarbyl group, each R MA is independently an acryloxy functional group, each Z is independently H or an alkyl group, subscript q is in each occurrence a number selected from a range of 0-3, subscript t is in each occurrence a number selected from a range of 0-2, and subscript d is in each occurrence a number selected from a range of 0-1, with the proviso that the average concentration of OZ groups is at least 12 mole-percent relative to moles of silicon atoms in the (a) polysiloxane resin; (b) a photoinitiator; optionally (c) a functional diluent; and (d) a condensation catalyst. applying a composition on a substrate to give an uncured layer; irradiating the uncured layer; and exposing the uncured layer to moisture, thereby preparing the film; wherein the composition comprises: (a) a polysiloxane resin, wherein the (a) polysiloxane resin comprises the following siloxy units: [R 3 SiO 1/2 ], [(OZ) q SiO (4-q)/2 ] and at least one of [(OZ) t R MA SiO (3-t)/2 ] or [(OZ) d RR MA SiO (2-d)/2 ]; where: each R is independently a substituted or unsubstituted hydrocarbyl group, each R MA is independently an acryloxy functional group, each Z is independently H or an alkyl group, subscript q is in each occurrence a number selected from a range of 0-3, subscript t is in each occurrence a number selected from a range of 0-2, and subscript d is in each occurrence a number selected from a range of 0-1, with the proviso that the average concentration of OZ groups is at least 12 mole-percent relative to moles of silicon atoms in the (a) polysiloxane resin; (b) a photoinitiator; optionally (c) a functional diluent; and (d) a condensation catalyst. (a) a polysiloxane resin, wherein the (a) polysiloxane resin comprises the following siloxy units: [R 3 SiO 1/2 ], [(OZ) q SiO (4-q)/2 ] and at least one of [(OZ) t R MA SiO (3-t)/2 ] or [(OZ) d RR MA SiO (2-d)/2 ]; where: each R is independently a substituted or unsubstituted hydrocarbyl group, each R MA is independently an acryloxy functional group, each Z is independently H or an alkyl group, subscript q is in each occurrence a number selected from a range of 0-3, subscript t is in each occurrence a number selected from a range of 0-2, and subscript d is in each occurrence a number selected from a range of 0-1, with the proviso that the average concentration of OZ groups is at least 12 mole-percent relative to moles of silicon atoms in the (a) polysiloxane resin; (b) a photoinitiator; optionally (c) a functional diluent; and (d) a condensation catalyst.
A scoring balloon catheter that comprises: a shaft ; an inflatable balloon mounted on the shaft's distal section ; a biasing member associated with the shaft , proximal to the balloon , wherein the biasing member comprises a hub ; and a scoring wire having: a fixed end mounted on the shaft between a shaft distal end and the balloon ; a longitudinally movable end associated with the biasing member ; and an intermediate portion running alongside of the balloon , the biasing member preferably being arranged to exert a biasing force acting against a distal movement of the longitudinally movable end , wherein the longitudinally movable end is fixed in or to a lumen located in the hub and the hub displays longitudinal resilience or the longitudinally movable end is fixed in or to a spring , whereby the spring sits around the shaft and partially within the hub . a shaft ; an inflatable balloon mounted on the shaft's distal section ; a biasing member associated with the shaft , proximal to the balloon , wherein the biasing member comprises a hub ; and a scoring wire having: a fixed end mounted on the shaft between a shaft distal end and the balloon ; a longitudinally movable end associated with the biasing member ; and an intermediate portion running alongside of the balloon , the biasing member preferably being arranged to exert a biasing force acting against a distal movement of the longitudinally movable end , a fixed end mounted on the shaft between a shaft distal end and the balloon ; a longitudinally movable end associated with the biasing member ; and an intermediate portion running alongside of the balloon , the biasing member preferably being arranged to exert a biasing force acting against a distal movement of the longitudinally movable end , wherein the longitudinally movable end is fixed in or to a lumen located in the hub and the hub displays longitudinal resilience or the longitudinally movable end is fixed in or to a spring , whereby the spring sits around the shaft and partially within the hub .
Boom of an agricultural implement , in particular a distribution boom of a field sprayer, comprising a plurality of portions (A1-A3) which are adjustable via joints between a working position, preferably folded out transversely to a working direction, and a folded-in transport position, preferably pointing approximately in or perpendicularly to the working direction, comprising at least one illuminating and/or detection device which has a plurality of illuminating and/or detection elements , which are coupled to the portions (A1-A3) in a distributed manner via a plurality of holding devices , wherein at least one of the holding devices is arranged on at least one of the portions (A1-A3) so as to be adjustable between the working position and the transport position, characterized in that the at least one adjustable holding device can be brought into the transport position together with at least one further holding device between two successive portions (A1-A3), within a gap enclosed by the at least two successive portions (A1-A3).
A fine tuning structure for headphones , configured for tuning an angle between a head band and a earpiece unit of a headphone, wherein the fine tuning structure for headphones comprises an upper assembly connected to an end of the head band and a lower assembly connected to the earpiece unit , the upper assembly and the lower assembly are hinged together, characterized in that the upper assembly is provided with a step portion , the lower assembly is movably connected to a limiting part , and the limiting part is provided with a plurality of limiting blocks having different thicknesses that are capable of being abutted against the step portion and are configured for limiting an angle of the lower assembly relative to the upper assembly , wherein the upper assembly is provided with a protruded block , the protruded block is provided with a rotating cavity , when the limiting part rotates, the limiting blocks having different thicknesses are driven to rotate in the rotating cavity to adjust the angle between the head band and the earpiece unit .
A method of performing a random access procedure over a radio interface , the method being performed by a mobile terminal and comprising the following steps: - transmitting a synchronization request for synchronization information; - receiving synchronization information in response to the synchronization request; - transmitting , based on at least one transmission parameter adjusted in accordance with the synchronization information, a resource request for data transmission resources and - starting a synchronization timer in response to at least one of the reception of synchronization information and the transmission of data, wherein the expiry of the synchronization timer has been set according to a prediction of a validity of the synchronization information. - transmitting a synchronization request for synchronization information; - receiving synchronization information in response to the synchronization request; - transmitting , based on at least one transmission parameter adjusted in accordance with the synchronization information, a resource request for data transmission resources and - starting a synchronization timer in response to at least one of the reception of synchronization information and the transmission of data, wherein the expiry of the synchronization timer has been set according to a prediction of a validity of the synchronization information.
A coiling machine comprising: feed rollers configured to move a wire ; a wire guide into which, in use, the wire is inserted; a first forming roller configured to come into contact with the wire coming out of the wire guide ; a second forming roller disposed on a front side of a movement direction of the wire with respect to the first forming roller , said second forming roller being configured to form an arc portion by bending the wire between the first forming roller and the second forming roller ; a pitch tool disposed on a front side of the movement direction of the wire with respect to the second forming roller and configured to be brought into contact with the wire , the pitch tool being configured to come into contact with a rear surface of the arc portion and to push the wire with respect to the direction (F2) in which the coil spring grows, such that the coil spring is pitched; a support mechanism configured to support the arc portion of the wire ; the coiling machine being characterized in that the support mechanism comprises the pitch tool and a clamping tool disposed between the second forming roller and the pitch tool , the pitch tool and the clamping tool being configured to sandwich the front surface and rear surface of the arc portion and configured to prevent the arc portion from moving in a radial direction (D1) of the wire ; and in that a cutting rotor is configured to cut the wire supported by the support mechanism in a radial direction of the wire between the second forming roller and the pitch tool . feed rollers configured to move a wire ; a wire guide into which, in use, the wire is inserted; a first forming roller configured to come into contact with the wire coming out of the wire guide ; a second forming roller disposed on a front side of a movement direction of the wire with respect to the first forming roller , said second forming roller being configured to form an arc portion by bending the wire between the first forming roller and the second forming roller ; a pitch tool disposed on a front side of the movement direction of the wire with respect to the second forming roller and configured to be brought into contact with the wire , the pitch tool being configured to come into contact with a rear surface of the arc portion and to push the wire with respect to the direction (F2) in which the coil spring grows, such that the coil spring is pitched; a support mechanism configured to support the arc portion of the wire ; the coiling machine being characterized in that the support mechanism comprises the pitch tool and a clamping tool disposed between the second forming roller and the pitch tool , the pitch tool and the clamping tool being configured to sandwich the front surface and rear surface of the arc portion and configured to prevent the arc portion from moving in a radial direction (D1) of the wire ; and in that a cutting rotor is configured to cut the wire supported by the support mechanism in a radial direction of the wire between the second forming roller and the pitch tool .
A rotational moulding system , comprising a mould having a mould wall surrounding a mould cavity , a mould heating and cooling system at least partly integrated with the mould wall and provided for applying a temperature-time program to the mould, a motion system to which the mould is connectable and provided for applying a motion-time program to the mould, and a control system for controlling the mould heating and cooling system and the motion system , characterized in that the control system is configured for determining at least one suitable temperature-time program and at least one suitable motion-time program for the rotational moulding of an object by means of the rotational moulding system on the basis of target values for mould cavity temperature parameters for a raw material to be used for the rotational moulding of the object, wherein the rotational moulding system comprises at least one sensor for collecting feedback of at least one process parameter during the rotational moulding of the object, said at least one sensor comprising at least one mould cavity temperature sensor , and wherein the control system is configured for evaluating the collected feedback and adjusting at least one of the temperature-time program and the motion-time program that is being applied on the basis of at least the measured at least one mould cavity temperature. a mould having a mould wall surrounding a mould cavity , a mould heating and cooling system at least partly integrated with the mould wall and provided for applying a temperature-time program to the mould, a motion system to which the mould is connectable and provided for applying a motion-time program to the mould, and a control system for controlling the mould heating and cooling system and the motion system , characterized in that the control system is configured for determining at least one suitable temperature-time program and at least one suitable motion-time program for the rotational moulding of an object by means of the rotational moulding system on the basis of target values for mould cavity temperature parameters for a raw material to be used for the rotational moulding of the object, wherein the rotational moulding system comprises at least one sensor for collecting feedback of at least one process parameter during the rotational moulding of the object, said at least one sensor comprising at least one mould cavity temperature sensor , and wherein the control system is configured for evaluating the collected feedback and adjusting at least one of the temperature-time program and the motion-time program that is being applied on the basis of at least the measured at least one mould cavity temperature.
Switching device , in particular load interrupter for medium-voltage switchgear assemblies, having a main contact system and a quenching contact system connected in series with the main contact system , wherein the main contact system and the quenching contact system are arranged linearly one behind the other, characterized in that a single drive is provided for introducing a drive movement into a single driveshaft of the switching device , wherein a single cam disk for transferring the drive movement has a main contact system curved path for actuating the main contact system and a quenching contact system curved path for actuating the quenching contact system .
An arrangement of feet with automatic leveling function for a washing machine, wherein: each of the feet comprises a fixed part and a movable part, a hollow chamber is formed between the fixed part and the movable part, and the hollow chamber is provided with a hydraulic medium, characterized in that every two feet are connected by a high-pressure oil pipe to communicate between the hollow chambers of the two feet, or all the feet are respectively connected to a communicating device by high-pressure oil pipes to communicate among the hollow chambers of all the feet, wherein the hydraulic medium flows between hollow chambers of the feet communicated with each other expanding and contracting the movable part under pressure to execute automatic leveling, and in that the feet comprise a first foot and a second foot which are respectively provided with an orifice and a valve opening , wherein the orifice and the valve opening are respectively communicated with the hollow chamber, and wherein the orifice of the first foot is connected to the valve opening of the second foot by one high-pressure oil pipe , and the valve opening of the first foot is connected to the orifice of the second foot by another high-pressure oil pipe
A computer-implemented method for confirming tissue specimens removed using contrast-enhanced x-ray imaging, the method comprising: receiving a specimen of breast tissue removed during a biopsy from a site of a patient's breast subsequent to an injection of a vascular contrast agent into the patient; capturing a high energy image of the specimen ; capturing a low energy image of the specimen ; subtracting the low energy image from the high energy image to generate a subtracted image of the specimen; and determining , based on the subtracted image of the specimen , that the contrast agent is present within the specimen to confirm that the site from which the specimen was removed is an intended area of interest for the biopsy, wherein the intended area of interest for the biopsy is an area including at least a portion of potentially abnormal breast tissue, and wherein the contrast agent is opaque in the high energy image of the specimen and the contrast agent is translucent in the low energy image of the specimen such that the presence of the contrast agent in the specimen is visible in the subtracted image of the specimen when the low energy image is subtracted from the high energy image. receiving a specimen of breast tissue removed during a biopsy from a site of a patient's breast subsequent to an injection of a vascular contrast agent into the patient; capturing a high energy image of the specimen ; capturing a low energy image of the specimen ; subtracting the low energy image from the high energy image to generate a subtracted image of the specimen; and determining , based on the subtracted image of the specimen , that the contrast agent is present within the specimen to confirm that the site from which the specimen was removed is an intended area of interest for the biopsy, wherein the intended area of interest for the biopsy is an area including at least a portion of potentially abnormal breast tissue, and wherein the contrast agent is opaque in the high energy image of the specimen and the contrast agent is translucent in the low energy image of the specimen such that the presence of the contrast agent in the specimen is visible in the subtracted image of the specimen when the low energy image is subtracted from the high energy image.
A method of detecting a leak event within a wellbore, the method comprising: inducing a pressure differential within a wellbore comprising a fluid; obtaining a sample data set while inducing the pressure differential, wherein the sample data set is a sample of an acoustic signal originating within the wellbore, and wherein the sample data set is representative of the acoustic signal across a frequency spectrum; determining a plurality of frequency domain features of the sample data set, wherein each frequency domain feature of the plurality of frequency domain features is determined from across the frequency spectrum; determining a presence of a flow condition at one or more depths within the wellbore based on determining that the plurality of frequency domain features match a flow condition event signature; correlating the flow condition with the induced pressure differential; and determining a presence and location of a leak event within the wellbore based on the presence of the flow condition and the correlating of the flow condition with the induced pressure differential. inducing a pressure differential within a wellbore comprising a fluid; obtaining a sample data set while inducing the pressure differential, wherein the sample data set is a sample of an acoustic signal originating within the wellbore, and wherein the sample data set is representative of the acoustic signal across a frequency spectrum; determining a plurality of frequency domain features of the sample data set, wherein each frequency domain feature of the plurality of frequency domain features is determined from across the frequency spectrum; determining a presence of a flow condition at one or more depths within the wellbore based on determining that the plurality of frequency domain features match a flow condition event signature; correlating the flow condition with the induced pressure differential; and determining a presence and location of a leak event within the wellbore based on the presence of the flow condition and the correlating of the flow condition with the induced pressure differential.
Ultrasonic transducer comprising: - an active element for generating and/or receiving ultrasonic waves, and - a support element located at the rear of the active element and adapted to serve as a shape reference and mechanical reinforcement for said active element , characterized in that the transducer comprises an assembly layer between said active element and said support element , said assembly layer comprising a glue layer adhering to the active element and to the support element , and ensuring the assembly of the active element with the support element , said assembly layer comprising gas-containing cavities and acoustically decoupling said active element and said support element by means of said gas-containing cavities present in the assembly layer, the cavities being formed by gas-containing microballoons , and a layer of microballoons being embedded in said adhesive layer. - an active element for generating and/or receiving ultrasonic waves, and - a support element located at the rear of the active element and adapted to serve as a shape reference and mechanical reinforcement for said active element ,
An aircraft comprising: a wing assembly ; a pod storing a hose and a drogue , towed decoys, or electronic countermeasure equipment; and a pylon attaching the pod to the wing assembly , wherein the pylon has a swept pylon flap extending from its trailing edge, defines , in use, an angle of incidence with respect to a freestream flow and is swept towards an aft direction, wherein the freestream flow is the flow of air far upstream of the aircraft , wherein the swept pylon flap comprises a leading edge (L) and is configured to unload the pylon and pod during flight of the aircraft , and also to create downward flow that counters a vortex trailing the pod , wherein an uppermost portion of the swept pylon flap is configured with a shallow incidence angle with respect to the freestream flow , wherein the uppermost portion is closest to the wing assembly , the incidence angle increasing towards a lowermost portion of the flap , wherein the lowermost portion is furthest from the wing assembly and closest to the pod , and wherein the uppermost portion of the swept pylon flap is swept in the aft direction and has an incidence angle , in use, between 0 and 30 degrees with respect to the freestream flow . a wing assembly ; a pod storing a hose and a drogue , towed decoys, or electronic countermeasure equipment; and a pylon attaching the pod to the wing assembly , wherein the pylon has a swept pylon flap extending from its trailing edge, defines , in use, an angle of incidence with respect to a freestream flow and is swept towards an aft direction, wherein the freestream flow is the flow of air far upstream of the aircraft , wherein the swept pylon flap comprises a leading edge (L) and is configured to unload the pylon and pod during flight of the aircraft , and also to create downward flow that counters a vortex trailing the pod , wherein an uppermost portion of the swept pylon flap is configured with a shallow incidence angle with respect to the freestream flow , wherein the uppermost portion is closest to the wing assembly , the incidence angle increasing towards a lowermost portion of the flap , wherein the lowermost portion is furthest from the wing assembly and closest to the pod , and wherein the uppermost portion of the swept pylon flap is swept in the aft direction and has an incidence angle , in use, between 0 and 30 degrees with respect to the freestream flow .