mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus (102; 202) comprising a memory and a processor , the processor configured to cause a media-agnostic 'MA' Universal Serial Bus 'USB' host of an MA USB Protocol Adaptation Layer 'PAL' to: transmit a USB device reset request 'USBDevResetReq' to an MA USB device (104; 204), the USB device reset request comprising a handle of a USB device to be transitioned to a default state; following receipt of a USB device reset response 'USBDevResetResp' comprising a status code indicating success from the MA USB device, transmit a modify EP0 request `ModifyEP0Request' packet to the MA USB device, the modify EP0 request packet configured to request for an updated End-Point 'EP' handle corresponding to the USB device; and process a modify EP0 response `ModifyEP0Response' packet from the MA USB device, the modify EP0 response packet comprising the updated EP handle. transmit a USB device reset request 'USBDevResetReq' to an MA USB device (104; 204), the USB device reset request comprising a handle of a USB device to be transitioned to a default state; following receipt of a USB device reset response 'USBDevResetResp' comprising a status code indicating success from the MA USB device, transmit a modify EP0 request `ModifyEP0Request' packet to the MA USB device, the modify EP0 request packet configured to request for an updated End-Point 'EP' handle corresponding to the USB device; and process a modify EP0 response `ModifyEP0Response' packet from the MA USB device, the modify EP0 response packet comprising the updated EP handle.
A retaining device with hooks, comprising: • a base extending in a longitudinal direction and presenting a top face and a bottom face ; and • a plurality of retaining elements extending from the top face of the base, each retaining element being formed by a stem and a head ; wherein the base presents a thickness lying in the range 10 μm to 700 μm, where the thickness is the distance between the top face and the bottom face ; and • the base has two edges in the longitudinal direction, each of said edges presents highs and lows, wherein the maximum offset (E) between the highs and the lows along a direction transverse to the longitudinal direction is less than 1 mm over a length (L) in the longitudinal direction that corresponds to three consecutive highs, characterized in that the base is free from any continuous extra thickness along the two edges , and the two edges are obtained on making the tape and the retaining elements, without additional cutting step, by injecting molding material through material dispenser means . • a base extending in a longitudinal direction and presenting a top face and a bottom face ; and • a plurality of retaining elements extending from the top face of the base, each retaining element being formed by a stem and a head ; wherein the base presents a thickness lying in the range 10 μm to 700 μm, where the thickness is the distance between the top face and the bottom face ; and • the base has two edges in the longitudinal direction, each of said edges presents highs and lows, wherein the maximum offset (E) between the highs and the lows along a direction transverse to the longitudinal direction is less than 1 mm over a length (L) in the longitudinal direction that corresponds to three consecutive highs,
A fire resistant fibre optic cable comprising: a core comprising: a central strength member , and a plurality of buffer tubes arranged around said central strength member , each buffer tube containing a plurality of optical fibres ; a first mica layer arranged around the core ; an inner sheath surrounding the first mica layer ; a metal wire armour surrounding the inner sheath ; and an outer sheath surrounding and in direct contact with the metal wire armour , further comprising a second mica layer , wherein said second mica layer surrounds the inner sheath and the metal wire armour surrounds the second mica layer , wherein the buffer tubes contain a water-blocking filling material comprising a silicone gel, wherein said silicone gel has a drop point of at least 200 °C, wherein the central strength member comprises a hydroxide-containing flame retardant polymeric material, wherein the inner sheath and/or the outer sheath are made of a flame retardant low smoke zero halogen, LSOH, polymer-based material having a limiting oxygen index, LOI, ≥30 %. a core comprising: a central strength member , and a plurality of buffer tubes arranged around said central strength member , each buffer tube containing a plurality of optical fibres ; a central strength member , and a plurality of buffer tubes arranged around said central strength member , each buffer tube containing a plurality of optical fibres ; a first mica layer arranged around the core ; an inner sheath surrounding the first mica layer ; a metal wire armour surrounding the inner sheath ; and an outer sheath surrounding and in direct contact with the metal wire armour , further comprising a second mica layer , wherein said second mica layer surrounds the inner sheath and the metal wire armour surrounds the second mica layer , wherein the buffer tubes contain a water-blocking filling material comprising a silicone gel, wherein said silicone gel has a drop point of at least 200 °C, wherein the central strength member comprises a hydroxide-containing flame retardant polymeric material, wherein the inner sheath and/or the outer sheath are made of a flame retardant low smoke zero halogen, LSOH, polymer-based material having a limiting oxygen index, LOI, ≥30 %.
Method for operation of a dishwasher , in particular a household dishwasher, at least having the following steps: - a first amount of liquid is heated in a partial program step, - the heated first amount of liquid is at least partially stored in heat-conducting contact with the interior of a tub , in the interior of a liquid reservoir , - in a further partial program step a second amount of liquid is heated, and - emptying of the liquid reservoir , when a heat transition from the liquid reservoir to the interior of the tub has essentially ceased, characterised in that the liquid reservoir is emptied during the further partial program step. - a first amount of liquid is heated in a partial program step, - the heated first amount of liquid is at least partially stored in heat-conducting contact with the interior of a tub , in the interior of a liquid reservoir , - in a further partial program step a second amount of liquid is heated, and - emptying of the liquid reservoir , when a heat transition from the liquid reservoir to the interior of the tub has essentially ceased,
A method for wireless communication at a first access point, AP, comprising: receiving , from a second AP, a first signal associated with a channel sounding procedure to be performed simultaneously by the second AP and the first AP; receiving , from the second AP and prior to a substantially simultaneous transmission by the second AP and the first AP, a second signal comprising timing information relative to the first signal; determining a start time of the substantially simultaneous transmission at the first AP based at least in part on the timing information; and initiating the substantially simultaneous transmission according to the determined start time. receiving , from a second AP, a first signal associated with a channel sounding procedure to be performed simultaneously by the second AP and the first AP; receiving , from the second AP and prior to a substantially simultaneous transmission by the second AP and the first AP, a second signal comprising timing information relative to the first signal; determining a start time of the substantially simultaneous transmission at the first AP based at least in part on the timing information; and initiating the substantially simultaneous transmission according to the determined start time.
A compound represented by Formula IIa and/or IIb: wherein: A is an unsubstituted alkyl being at least 4 carbon atoms in length; B is alkoxy; D and G are each independently selected from hydrogen, alkoxy and an unsubsituted alkyl, provided that one of D and G is hydrogen and the other is alkoxy or said unsubstituted alkyl, wherein when one of D and G is said unsubstituted alkyl, said unsubstituted alkyl is at least 4 carbon atoms in length; R 1 is hydrogen; and each of R 2 -R 5 is hydrogen. A is an unsubstituted alkyl being at least 4 carbon atoms in length; B is alkoxy; D and G are each independently selected from hydrogen, alkoxy and an unsubsituted alkyl, provided that one of D and G is hydrogen and the other is alkoxy or said unsubstituted alkyl, wherein when one of D and G is said unsubstituted alkyl, said unsubstituted alkyl is at least 4 carbon atoms in length; R 1 is hydrogen; and each of R 2 -R 5 is hydrogen.
Liquid treatment system comprising an inlet and an outlet defining a liquid flow direction from the inlet to the outlet , a liquid treatment zone arranged between the inlet and the outlet , the liquid treatment zone comprising a number of ultraviolet radiators arranged to radiate ultraviolet radiation into a liquid flowing through the treatment zone , a first transition zone downstream of the inlet and a second transition zone upstream of the outlet , which adapt the cross section of the inlet to the cross section of the treatment zone , and the cross section of the treatment zone to the cross section of the outlet , respectively, wherein the inlet , the transition zones , the treatment zone and the outlet confine the liquid flow in a closed channel, characterized in that a degassing zone is provided between the inlet and the treatment zone at the top of the channel; the degassing zone is provided between the first transition zone and the treatment zone ; the degassing zone is of essentially the same shape and cross section as the treatment zone , and that no ultraviolet radiators are provided in the degassing zone ; a degassing device is provided at the end of the degassing zone and arranged to communicate with the degassing zone ; the treatment zone and the degassing zone are of essentially rectangular cross section with longitudinal edges and that, relative to a horizontal plane, the edges are essentially horizontally oriented, that is at angles between +10 degrees and -10 degrees against the horizontal plane, and that one upper edge is located at the top of the system; the degassing device is located at the upper edge of the system; the degassing zone comprises a baffle plate which is arranged at the top of the degassing zone upstream of the treatment zone and downstream of the degassing device ; the degassing device is dome-shaped and comprises an internal volume for collection of the gas which is released from the liquid prior to the venting of the gas; the first transition zone transforms the circular cross section of the closed inlet to a rectangular or quadratic cross-section of larger dimension, thus enlarging the cross-section of the flow and reducing the flow velocity; and the second transition zone reduces the cross-section of the degassing and the treatment zone to a smaller circular cross section of the outlet .
Test device for impacting drilling machines or drilling hammers with a substitute substrate, comprising an array of components oriented in an axial direction, comprising: a) An axially rotatable impact initiator, b) a solid body damping element , and c) a force sensor for detecting forces in the axial direction, characterised in that d) the initiator is an axially rotatable impact and torque initiator , e) means are provided for initiating a braking torque or drive torque into the torque initiation, f) the means, the solid body damping element, and the force sensor of the axially rotatable impact and torque initiator are arranged downstream and g) the solid body damping element comprises at least one grey cast iron element . a) An axially rotatable impact initiator, b) a solid body damping element , and c) a force sensor for detecting forces in the axial direction, characterised in that d) the initiator is an axially rotatable impact and torque initiator , e) means are provided for initiating a braking torque or drive torque into the torque initiation, f) the means, the solid body damping element, and the force sensor of the axially rotatable impact and torque initiator are arranged downstream and g) the solid body damping element comprises at least one grey cast iron element .
A frequency doubler comprising: a first delay stage having an input coupled to an input node of the frequency doubler; a second delay stage having an input coupled to the input node, the second delay stage configured to generate a complementary delayed version of a signal at the input of the second delay stage; a first phase frequency detector, PFD, having a first input coupled to an output of the first delay stage; a first rising-edge-only adjustable delay cell having an input coupled to the output of the first delay stage and having an output coupled to a second input of the first PFD; a second PFD having a first input coupled to an output of the second delay stage; a second rising-edge-only adjustable delay cell having an input coupled to the output of the second delay stage and having an output coupled to a second input of the second PFD; a logic gate having a first input coupled to an output of the first PFD and having a second input coupled to an output of the second PFD; and a comparator configured to: compare a direct-current, DC, voltage value of an output of the logic gate with a reference voltage (Vref); and control the first and second rising-edge-only adjustable delay cells based on the comparison. a first delay stage having an input coupled to an input node of the frequency doubler; a second delay stage having an input coupled to the input node, the second delay stage configured to generate a complementary delayed version of a signal at the input of the second delay stage; a first phase frequency detector, PFD, having a first input coupled to an output of the first delay stage; a first rising-edge-only adjustable delay cell having an input coupled to the output of the first delay stage and having an output coupled to a second input of the first PFD; a second PFD having a first input coupled to an output of the second delay stage; a second rising-edge-only adjustable delay cell having an input coupled to the output of the second delay stage and having an output coupled to a second input of the second PFD; a logic gate having a first input coupled to an output of the first PFD and having a second input coupled to an output of the second PFD; and a comparator configured to: compare a direct-current, DC, voltage value of an output of the logic gate with a reference voltage (Vref); and control the first and second rising-edge-only adjustable delay cells based on the comparison. compare a direct-current, DC, voltage value of an output of the logic gate with a reference voltage (Vref); and control the first and second rising-edge-only adjustable delay cells based on the comparison.
A method for protecting a resonant linear compressor , the resonant linear compressor comprising: a piston , a cylinder , a motor and a spring , the resonant linear compressor further comprising: a structural resonance frequency (w E ) which depends only on the dimension characteristics of the resonant linear compressor , a motor that is fed by a feed voltage (V ENT ) that has an amplitude (A) and a drive frequency (w A ) both controlled according to the product A.sen(w A t), wherein the drive frequency (w A ) is derived from actuation of the spring and from the amplitude (A) of the feed voltage (V ENT ) on the piston , wherein the feed voltage (V ENT ) further encompasses a inductor voltage (V L (i(t)), a voltage induced in the motor, and a resistance voltage (V R ), the method being characterized by comprising a step of: controlling, by means of an electronic control, a phase between an electric current i(t) of the resonant linear compressor and the piston displacement velocity in order to prevent the drive of the resonant linear compressor at drive frequencies (w A ) that have at least one harmonic coinciding with the structural resonance frequency (w E ) of the resonant linear compressor . a structural resonance frequency (w E ) which depends only on the dimension characteristics of the resonant linear compressor , a motor that is fed by a feed voltage (V ENT ) that has an amplitude (A) and a drive frequency (w A ) both controlled according to the product A.sen(w A t), wherein the drive frequency (w A ) is derived from actuation of the spring and from the amplitude (A) of the feed voltage (V ENT ) on the piston , wherein the feed voltage (V ENT ) further encompasses a inductor voltage (V L (i(t)), a voltage induced in the motor, and a resistance voltage (V R ), the method being characterized by comprising a step of: controlling, by means of an electronic control, a phase between an electric current i(t) of the resonant linear compressor and the piston displacement velocity in order to prevent the drive of the resonant linear compressor at drive frequencies (w A ) that have at least one harmonic coinciding with the structural resonance frequency (w E ) of the resonant linear compressor .
A robot arm link for a robot , comprising: a body made of non-metallic material; a transmission cable made of conductive material and embedded within the body ; and at least one connector arranged on the body and coupled to the transmission cable , each connector adapted to be electrically connected to a connector (103 1 ) of a further robot arm link (100 1 ) of a same specification, a sensor , or a power source of the robot characterised in that the transmission cable is integrally formed in the body by injection molding the body . a body made of non-metallic material; a transmission cable made of conductive material and embedded within the body ; and at least one connector arranged on the body and coupled to the transmission cable , each connector adapted to be electrically connected to a connector (103 1 ) of a further robot arm link (100 1 ) of a same specification, a sensor , or a power source of the robot characterised in that the transmission cable is integrally formed in the body by injection molding the body .
A method for customizing visual field tests, comprising: selecting a visual field test for a patient, the selected visual field test having one or more test points of definable light intensities; obtaining a biometric measurement of a retina of the patient; deriving a respective threshold sensitivity value for one or more select test points of the selected visual field test based at least in part on the biometric measurement, each threshold sensitivity value being a light intensity measure that the patient is expected to discern with a predefined success rate; and using the derived threshold sensitivity values to determine one or more starting intensity values for the one or more select test points when applying the selected visual field test to the patient; characterised in that the deriving is provided at least in part by a machine learning system established, at least in part, within a computing system including a trained neural network that includes a first neural network of a first type (NN-1) in series with a second neural network (NN-2) different than the first type, and wherein the first type neural network receives as input image data and the second type neural network receives as input non-image data. selecting a visual field test for a patient, the selected visual field test having one or more test points of definable light intensities; obtaining a biometric measurement of a retina of the patient; deriving a respective threshold sensitivity value for one or more select test points of the selected visual field test based at least in part on the biometric measurement, each threshold sensitivity value being a light intensity measure that the patient is expected to discern with a predefined success rate; and using the derived threshold sensitivity values to determine one or more starting intensity values for the one or more select test points when applying the selected visual field test to the patient; characterised in that the deriving is provided at least in part by a machine learning system established, at least in part, within a computing system including a trained neural network that includes a first neural network of a first type (NN-1) in series with a second neural network (NN-2) different than the first type, and wherein the first type neural network receives as input image data and the second type neural network receives as input non-image data.
A method for mitigating condensate banking in the vicinity of a wellbore for a gas condensate reservoir, the method comprising: contacting a rock formation in the vicinity of a wellbore for a gas condensate reservoir with a polymer solution, wherein the polymer solution comprises a charged polymer with a first net charge, thereby forming a modified rock formation; and contacting the modified rock formation with a particle suspension, wherein the particle suspension comprises charged particles with a second net charge, wherein the first and second net charges are opposed. contacting a rock formation in the vicinity of a wellbore for a gas condensate reservoir with a polymer solution, wherein the polymer solution comprises a charged polymer with a first net charge, thereby forming a modified rock formation; and contacting the modified rock formation with a particle suspension, wherein the particle suspension comprises charged particles with a second net charge, wherein the first and second net charges are opposed.
A device for transporting and storing goods, comprising a base , which forms a resting surface and has a substantially quadrangular shape with a pair of long sides and a pair of short sides , and a plurality of uprights associated with said base and adapted to support at least one supporting bracket for resting goods, characterized in that each one of said uprights can move between at least one first position, in which it is laterally adjacent to a respective short side of said base , and at least one second position, in which it is laterally adjacent to at least one respective long side of said base .
Use of epoxidized triacylglycerol to increase the transmittance, determined according to DIN EN ISO 13468-2:2006 at a layer thickness of 4 mm, of a transparent thermoplastic composition based on aromatic melt polycarbonate.
Method for machining a blade for a turbomachine comprising a shroud which is positioned on a tip side of the blade having an outer surface with at least one circumferential fin arranged thereon, wherein the shroud has recesses with reinforcement ribs arranged therebetween, characterized in that at least one section of the outer surface of the ribs beside the at least one fin is processed in at least two manufacturing steps: - machining the outer surface along a first machining path , which runs circumferentially around a machining axis (C) which corresponds to the rotation axis (A) of the turbomachine or which is a linear machining path, and - machining the outer surface along a second machining path which is different to the first machining path , wherein by way of this machining step, which in the process flow can also be applied before the aforementioned step, the thickness of the ribs of the shroud is adapted differently in diverse areas of the outer shroud of the blade. - machining the outer surface along a first machining path , which runs circumferentially around a machining axis (C) which corresponds to the rotation axis (A) of the turbomachine or which is a linear machining path, and - machining the outer surface along a second machining path which is different to the first machining path , wherein by way of this machining step, which in the process flow can also be applied before the aforementioned step, the thickness of the ribs of the shroud is adapted differently in diverse areas of the outer shroud of the blade.