mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor unit for use in a multiphase flow of air and plant parts of the transport and/or separation air flow of a harvesting machine, wherein the sensor unit : a) serves as a transmitter and has at least one device for emitting electromagnetic radiation , or b) serves as a receiver and comprises at least one device for receiving electromagnetic radiation , or c) serves as a transmitter/receiver and comprises at least one device for emitting and at least one device for the receiving electromagnetic radiation , or d) serves as a reflector and has at least one device for reflecting electromagnetic radiation , or e) serves as a receiver/reflector and comprises at least one device for receiving electromagnetic radiation and at least one device for reflecting electromagnetic radiation , wherein the sensor unit comprises at least one device for acquiring flow parameters, and the devices for transmitting and/or receiving and/or reflecting electromagnetic radiation for detecting grains as well as the device for acquiring flow parameters are together arranged in a housing and are in this way positionable in the multiphase flow wherein the leading edge of the housing is rounded, curvedly runs away from the surface of the fastening plane of the sensor unit , and a tripwire or turbulators are arranged at the leading adge. wherein the sensor unit : a) serves as a transmitter and has at least one device for emitting electromagnetic radiation , or b) serves as a receiver and comprises at least one device for receiving electromagnetic radiation , or c) serves as a transmitter/receiver and comprises at least one device for emitting and at least one device for the receiving electromagnetic radiation , or d) serves as a reflector and has at least one device for reflecting electromagnetic radiation , or e) serves as a receiver/reflector and comprises at least one device for receiving electromagnetic radiation and at least one device for reflecting electromagnetic radiation , a) serves as a transmitter and has at least one device for emitting electromagnetic radiation , or b) serves as a receiver and comprises at least one device for receiving electromagnetic radiation , or c) serves as a transmitter/receiver and comprises at least one device for emitting and at least one device for the receiving electromagnetic radiation , or d) serves as a reflector and has at least one device for reflecting electromagnetic radiation , or e) serves as a receiver/reflector and comprises at least one device for receiving electromagnetic radiation and at least one device for reflecting electromagnetic radiation , wherein the sensor unit comprises at least one device for acquiring flow parameters, and the devices for transmitting and/or receiving and/or reflecting electromagnetic radiation for detecting grains as well as the device for acquiring flow parameters are together arranged in a housing and are in this way positionable in the multiphase flow wherein the leading edge of the housing is rounded, curvedly runs away from the surface of the fastening plane of the sensor unit , and a tripwire or turbulators are arranged at the leading adge.
A process for preparing in situ an aqueous gel ink with variable color comprising the following steps: (i) preparing a gel-based matrix of aqueous ink comprising an N-Acyl-aminophenol, wherein said hydroxyl group is preferably in meta or in para position on the benzenic group, preferably in para position, in preferably an N-Acyl-aminophenol of formula HO-R1-NH-CO-R2 wherein R1 is a benzene ring and R2 is an alkyl group comprising preferably from 1 to 6 carbon atoms, preferably from 1 to 3 carbon atoms , preferably the hydroxyl group is preferably in meta or in para position, preferably in para position, (ii) adding a solution of silver salts to the gel-based matrix of aqueous ink prepared in step (i), to obtain an aqueous gel ink with variable color with silver nanoparticles dispersed therein. (i) preparing a gel-based matrix of aqueous ink comprising an N-Acyl-aminophenol, wherein said hydroxyl group is preferably in meta or in para position on the benzenic group, preferably in para position, in preferably an N-Acyl-aminophenol of formula HO-R1-NH-CO-R2 wherein R1 is a benzene ring and R2 is an alkyl group comprising preferably from 1 to 6 carbon atoms, preferably from 1 to 3 carbon atoms , preferably the hydroxyl group is preferably in meta or in para position, preferably in para position, (ii) adding a solution of silver salts to the gel-based matrix of aqueous ink prepared in step (i), to obtain an aqueous gel ink with variable color with silver nanoparticles dispersed therein.
A method of detecting neural activity in a nerve, the method comprising: receiving a first electrical signal from a first pair of electrodes, the first pair of electrodes comprising two first electrodes located proximate each other along the nerve; and receiving a second electrical signal from a second pair of electrodes , the second pair of electrodes comprising two second electrodes located proximate each other along the nerve, wherein the second pair of electrodes is spaced from the first pair of electrodes along the nerve; characterised in that the method further comprises: applying a correlation analysis between the first and second electrical signals , including for at least one non-zero lag time, to obtain correlation data; and detecting, from the correlation data, at least one neural signal indicative of neural activity in the nerve, the neural signal corresponding to increased correlation between the first and second signals at the at least one non-zero lag time. receiving a first electrical signal from a first pair of electrodes, the first pair of electrodes comprising two first electrodes located proximate each other along the nerve; and receiving a second electrical signal from a second pair of electrodes , the second pair of electrodes comprising two second electrodes located proximate each other along the nerve, wherein the second pair of electrodes is spaced from the first pair of electrodes along the nerve; characterised in that the method further comprises: applying a correlation analysis between the first and second electrical signals , including for at least one non-zero lag time, to obtain correlation data; and detecting, from the correlation data, at least one neural signal indicative of neural activity in the nerve, the neural signal corresponding to increased correlation between the first and second signals at the at least one non-zero lag time. applying a correlation analysis between the first and second electrical signals , including for at least one non-zero lag time, to obtain correlation data; and detecting, from the correlation data, at least one neural signal indicative of neural activity in the nerve, the neural signal corresponding to increased correlation between the first and second signals at the at least one non-zero lag time.
A dispenser and applicator head (T) for associating with a dispenser unit (P), such as a pump, the dispenser and applicator head (T) defining a longitudinal axis X, and a front face (f1) and a rear face (f2) on either side of the longitudinal axis X, the dispenser and applicator head (T) comprising a fluid dispenser member and an applicator pad , the fluid dispenser member defining a fluid feed path (C) for connecting the dispenser unit (P) to a dispenser orifice (O) via which the fluid leaves the dispenser member , the applicator pad being mounted on the fluid dispenser member adjacent to the dispenser orifice (O), the dispenser orifice (O) being arranged axially relative to the longitudinal axis X above the applicator pad , that extends mainly over the front face (f1), the dispenser and applicator head being characterized in that the fluid dispenser member comprises a connector base and a mounting collar that co-operate with each other to define the fluid feed path (C), the applicator pad being mounted on the mounting collar .
A method of mass spectrometry for determining if a mutated variant of a target protein is present in a sample, comprising: introducing said sample comprising the target protein into a mass spectrometer, wherein the sample is not subjected to liquid chromatography or digestion prior to being introduced into the mass spectrometer; subjecting the sample to fragmentation so as to cause said target protein to fragment to form first fragment ions, wherein said fragmentation is Atmospheric Pressure Electron Capture Dissociation ('Ap-ECD'); Atmospheric Pressure Electron Transfer Dissociation ('Ap-ETD'); Electron Capture Dissociation ("ECD"); or Electron Transfer Dissociation ("ETD"); fragmenting at least some of said first fragment ions to form second fragment ions; mass analysing said second fragment ions to obtain first spectral data; and determining that an ion in the first spectral data has a mass to charge ratio that differs from the mass to charge ratio of an ion that would be observed if said target protein was a normal unmutated version of said target protein, and by an amount that corresponds to a mass difference that would be caused by the target protein being a mutated variant of said target protein. introducing said sample comprising the target protein into a mass spectrometer, wherein the sample is not subjected to liquid chromatography or digestion prior to being introduced into the mass spectrometer; subjecting the sample to fragmentation so as to cause said target protein to fragment to form first fragment ions, wherein said fragmentation is Atmospheric Pressure Electron Capture Dissociation ('Ap-ECD'); Atmospheric Pressure Electron Transfer Dissociation ('Ap-ETD'); Electron Capture Dissociation ("ECD"); or Electron Transfer Dissociation ("ETD"); fragmenting at least some of said first fragment ions to form second fragment ions; mass analysing said second fragment ions to obtain first spectral data; and determining that an ion in the first spectral data has a mass to charge ratio that differs from the mass to charge ratio of an ion that would be observed if said target protein was a normal unmutated version of said target protein, and by an amount that corresponds to a mass difference that would be caused by the target protein being a mutated variant of said target protein.
A method of controlling fume extraction, comprising: utilizing a welding sequence associated with at least two welds, wherein the welding sequence defines at least a first welding procedure to create a first weld including a first weld parameter and a second welding procedure to create a second weld including a second weld parameter; wherein the first welding procedure includes a first flow rate, and wherein the second welding procedure includes a second flow rate; setting a flow control device associated with fume extraction to the first flow rate during the first weld of the welding sequence ; and setting the flow control device to the second flow rate during the second weld of the welding sequence , characterized in that the first flow rate is based on the first weld parameter and the second flow rate is based on the second weld parameter, wherein the first weld parameter and the second weld parameter are based on at least one of: a cycle time, a duty cycle, a welding process type, a welding wire type, a wire size, a wire feed speed, a waveform, an amperage, a voltage, a trim value, a polarity, a deposition rate, a transfer mode, a welding joint configuration, a type of base material, a welding power source setting, a wire feeder setting, a welding gun setting, a remote amperage control setting, a remote voltage control setting, a shielding gas flow rate, or a shielding gas composition. utilizing a welding sequence associated with at least two welds, wherein the welding sequence defines at least a first welding procedure to create a first weld including a first weld parameter and a second welding procedure to create a second weld including a second weld parameter; wherein the first welding procedure includes a first flow rate, and wherein the second welding procedure includes a second flow rate; setting a flow control device associated with fume extraction to the first flow rate during the first weld of the welding sequence ; and setting the flow control device to the second flow rate during the second weld of the welding sequence , characterized in that the first flow rate is based on the first weld parameter and the second flow rate is based on the second weld parameter, wherein the first weld parameter and the second weld parameter are based on at least one of: a cycle time, a duty cycle, a welding process type, a welding wire type, a wire size, a wire feed speed, a waveform, an amperage, a voltage, a trim value, a polarity, a deposition rate, a transfer mode, a welding joint configuration, a type of base material, a welding power source setting, a wire feeder setting, a welding gun setting, a remote amperage control setting, a remote voltage control setting, a shielding gas flow rate, or a shielding gas composition.
A shelf panel for a cross member of a shelf unit, wherein - the shelf panel has a first limb and a storage plane for storing items is formed by the first limb , - the shelf panel has a fastening region for fixing the shelf panel to the cross member , - the material of the first limb , at the end of the shelf panel facing the fastening region , has a deformation and projects beyond the storage plane on account of the deformation , wherein the deformation has a V-shaped cross section, characterised in that the deformation extends perpendicularly to the main direction of extent of the shelf panel with a length . - the shelf panel has a first limb and a storage plane for storing items is formed by the first limb , - the shelf panel has a fastening region for fixing the shelf panel to the cross member , - the material of the first limb , at the end of the shelf panel facing the fastening region , has a deformation and projects beyond the storage plane on account of the deformation , wherein the deformation has a V-shaped cross section, characterised in that the deformation extends perpendicularly to the main direction of extent of the shelf panel with a length .
A method of providing power to an electrosurgical instrument comprising: generating a non-sinusoidal driving voltage having a constant driving frequency; providing the non- sinusoidal driving voltage to a series LC circuit; generating a quasi- sinusoidal current in the series LC circuit from the non-sinusoidal driving voltage; and providing the quasi-sinusoidal current to an electrical output, wherein the electrical output is configured for coupling to an electrical input of a bipolar tissue-sealing surgical instrument, characterized in that the electrical output has a maximum threshold voltage of 75 Volts and a maximum threshold current of 1.8 amperes, and in that the series LC circuit has a resonant frequency of twice the constant driving frequency.
An industrial four-axle robot comprising: a lower arm mechanism having a first parallel link structure; an upper arm mechanism having a second parallel link structure; a base portion forming a lower side part of the first parallel link structure; a wrist portion forming a distal side part of the second parallel link structure; and an intermediate connection portion forming an upper side part of the first parallel link structure and a proximal side part of the second parallel link structure; characterized by an upper arm biasing unit configured to apply a biasing force against a rotating operation in a direction that the wrist portion descends to an upper arm configuring a lower side part or an upper side part of the second parallel link structure, wherein the wrist portion is configured to rock vertically while always maintaining a vertical axis in a vertical direction when the upper arm is rotated with respect to the intermediate connection portion , wherein the upper arm has an arm extension portion extending so as to exceed a rotational axis (J3A) of the upper arm on a proximal end side of the upper arm , wherein the upper arm biasing unit is configured so as to apply a biasing force to the arm extension portion , wherein the upper arm biasing unit is configured to press the arm extension portion by applying the biasing force, wherein the upper arm biasing unit has a gas spring, and wherein the gas spring has a cylinder connected to the intermediate connection portion side and a piston connected to the arm extension portion side. a lower arm mechanism having a first parallel link structure; an upper arm mechanism having a second parallel link structure; a base portion forming a lower side part of the first parallel link structure; a wrist portion forming a distal side part of the second parallel link structure; and an intermediate connection portion forming an upper side part of the first parallel link structure and a proximal side part of the second parallel link structure; characterized by an upper arm biasing unit configured to apply a biasing force against a rotating operation in a direction that the wrist portion descends to an upper arm configuring a lower side part or an upper side part of the second parallel link structure, wherein the wrist portion is configured to rock vertically while always maintaining a vertical axis in a vertical direction when the upper arm is rotated with respect to the intermediate connection portion , wherein the upper arm has an arm extension portion extending so as to exceed a rotational axis (J3A) of the upper arm on a proximal end side of the upper arm , wherein the upper arm biasing unit is configured so as to apply a biasing force to the arm extension portion , wherein the upper arm biasing unit is configured to press the arm extension portion by applying the biasing force, wherein the upper arm biasing unit has a gas spring, and wherein the gas spring has a cylinder connected to the intermediate connection portion side and a piston connected to the arm extension portion side.
A method implemented by a network device functioning as a Border Gateway Protocol speaker to adaptively control a flow of link-state information to a peer Border Gateway Protocol speaker, where the network device stores, in a link-state database, link-state information pertaining to a network in which the network device operates, the method comprising: determining that a pending change to the link-state information stored in the link-state database exists; determining whether a length of a change list queue meets or exceeds a threshold value; holding off on enqueuing link-state information into the change list queue while the length of the change list queue meets or exceeds the threshold value; determining aggregated link-state information to transmit to the peer Border Gateway Protocol speaker in response to a determination that the length of the change list queue falls below the threshold value; and enqueuing the aggregated link-state information into the change list queue for eventual transmission to the peer Border Gateway Protocol speaker. determining that a pending change to the link-state information stored in the link-state database exists; determining whether a length of a change list queue meets or exceeds a threshold value; holding off on enqueuing link-state information into the change list queue while the length of the change list queue meets or exceeds the threshold value; determining aggregated link-state information to transmit to the peer Border Gateway Protocol speaker in response to a determination that the length of the change list queue falls below the threshold value; and enqueuing the aggregated link-state information into the change list queue for eventual transmission to the peer Border Gateway Protocol speaker.
Composition, in particular for dyeing and/or lightening keratin fibres, in particular human keratin fibres such as the hair, comprising: a) one or more guanidine salts, b) one or more alkanolamine(s), c) ammonium hydroxide and d) at least two different polyols, in a total content greater than or equal to 5% by weight relative to the total weight of the composition, and e) optionally one or more colouring agents. a) one or more guanidine salts, b) one or more alkanolamine(s), c) ammonium hydroxide and d) at least two different polyols, in a total content greater than or equal to 5% by weight relative to the total weight of the composition, and e) optionally one or more colouring agents.
Polyisocyanate-based binder composition for manufacturing and/or finishing of wood-based materials with reduced formaldehyde emission comprising, in each case as solids weight relative to the total solids weight of the binder composition, i) 30 to 95 wt. % polyisocyanate, ii) 1 to 50 wt. % lignosulphonate, and (iii) 1 to 50 wt. % isocyanate-reactive compound, which a) is ammonia or an ammonia-releasing compound such as ammonium carbonate, or b) comprises, in the molecular structure, at least one NH 2 group and one other group capable of reacting with isocyanate groups, or c) is a mixture of compounds from a) and/or b). i) 30 to 95 wt. % polyisocyanate, ii) 1 to 50 wt. % lignosulphonate, and (iii) 1 to 50 wt. % isocyanate-reactive compound, which a) is ammonia or an ammonia-releasing compound such as ammonium carbonate, or b) comprises, in the molecular structure, at least one NH 2 group and one other group capable of reacting with isocyanate groups, or c) is a mixture of compounds from a) and/or b). a) is ammonia or an ammonia-releasing compound such as ammonium carbonate, or b) comprises, in the molecular structure, at least one NH 2 group and one other group capable of reacting with isocyanate groups, or c) is a mixture of compounds from a) and/or b).
Element for fastening a trim to a peripheral seal of a window of a vehicle, comprising at least one clip-type assembly constituted by a base bearing, on the face designed to receive the trim, one or more semi-rigid clips , said clips comprising at least two arms between which a lug element of the trim is inserted, the window is curved and a guide finger, which principally makes it possible to guide the lug of the trim towards the clips, is provided, and the guide finger may be arranged between the two clips, characterized in that the fastening element is constituted as a single component, comprising the base and at least two semi-rigid clips , which is integrated with the peripheral seal during moulding of the latter on the window, the fastening element is made from plastics of ABS-PC type, produced using an injection-moulding process, and the peripheral seal is made from plastics of TPE or PVC type.