mhurhangee/patent-ind-claim-en huggingface dataset:
A method of manufacturing a plurality of biosensor test strips for blood analysis, comprising: forming a reel containing a conductive layer and a base layer ; forming a first electrode and a second electrode in the conductive layer , wherein each said electrode includes at least one first boundary formed by a first processing technique and at least one second boundary; and forming a diffusion barrier positioned between the first electrode and the second electrode and contiguous with the at least one second boundary of each said electrode, wherein the diffusion barrier is formed by a second processing technique not the same as the first processing technique, wherein the step of forming the first electrode and the second electrode using the first processing technique uses laser ablation having a first ablative beam width and/or a first power output and/or a first type of laser and wherein the step of forming a diffusion barrier using a second processing technique uses laser ablation having a second ablative beam width and/or a second power output and/or a second type of laser, wherein the first beam width and the second beam width are not the same and the first power output and the second power output are not the same and the first type of laser and the second type of laser are not the same. forming a reel containing a conductive layer and a base layer ; forming a first electrode and a second electrode in the conductive layer , wherein each said electrode includes at least one first boundary formed by a first processing technique and at least one second boundary; and forming a diffusion barrier positioned between the first electrode and the second electrode and contiguous with the at least one second boundary of each said electrode, wherein the diffusion barrier is formed by a second processing technique not the same as the first processing technique, wherein the step of forming the first electrode and the second electrode using the first processing technique uses laser ablation having a first ablative beam width and/or a first power output and/or a first type of laser and wherein the step of forming a diffusion barrier using a second processing technique uses laser ablation having a second ablative beam width and/or a second power output and/or a second type of laser, wherein the first beam width and the second beam width are not the same and the first power output and the second power output are not the same and the first type of laser and the second type of laser are not the same.
A method for operating a hearing device for a user having tinnitus, the method comprising the steps of: - generating a stimulation signal depending on characteristics of a perceived disturbing internal signal resulting from a tinnitus perceived by a prospective user of the hearing device, - manually adjusting a level of the stimulation signal , - limiting the manually adjusted stimulation signal thereby generating a limited stimulation signal , - converting an acoustic input signal into a corresponding converted input signal (20; 21), - applying a transfer function to the converted input signal (20; 21) for generating a processed input signal , - superimposing the processed input signal onto the limited stimulation signal for generating a superposition signal, and - feeding the superposition signal to an output transducer for generating a hearing device output signal. - generating a stimulation signal depending on characteristics of a perceived disturbing internal signal resulting from a tinnitus perceived by a prospective user of the hearing device, - manually adjusting a level of the stimulation signal , - limiting the manually adjusted stimulation signal thereby generating a limited stimulation signal , - converting an acoustic input signal into a corresponding converted input signal (20; 21), - applying a transfer function to the converted input signal (20; 21) for generating a processed input signal , - superimposing the processed input signal onto the limited stimulation signal for generating a superposition signal, and - feeding the superposition signal to an output transducer for generating a hearing device output signal.
A process for producing tetrafluoropropenes, namely 1,1-dichloro-2,3,3,3-tetrafluoropropene and 2,3,3,3-tetrafluoropropene, which comprises contacting a raw material composition comprising 1-chloro-2,3,3,3-tetrafluoropropane and dichloropentafluoropropane including 1,1-dichloro-2,2,3,3,3-pentafluoropropane and at least one of its isomers, with an alkali aqueous solution in the presence of a phase-transfer catalyst, to produce 1,1-dichloro-2,3,3,3-tetrafluoropropene from the 1,1-dichloro-2,2,3,3,3-pentafluoropropane and to produce 2,3,3,3-tetrafluoropropene from the 1-chloro-2,3,3,3-tetrafluoropropane.
An apparatus, comprising: an input circuit (310-320; 914-920; 1014-1020; 1214-1220) configured to generate an approximately sinusoidal input current; and an output circuit configured to generate, in response to the input current, charge-balancing currents each flowing through a respective one of battery cells (302; 902; 1002; 1202) that are coupled together in series such that each charge-balancing current has a magnitude that is related to a voltage across the respective one of the battery cells, wherein the output circuit is distinct from the input circuit and includes a transformer (325; 925; 1025; 1225) having a primary winding (324; 924; 1024; 1224) connected to the input circuit and having secondary windings (326; 926; 1026; 1226) each configured to generate a respective one of the charge-balancing currents, each charge-balancing current flowing through the respective secondary winding; the input circuit is configured to generate the input current in response to a power-supply voltage and to drive the primary winding with the input current; characterized in that the input circuit includes an inductor (316; 916; 1013; 1216) and a capacitor (320; 920; 1021; 1220) in series with the primary winding, the inductor and the capacitor forming a resonant circuit configured to generate the input current by causing the resonant circuit to resonate. an input circuit (310-320; 914-920; 1014-1020; 1214-1220) configured to generate an approximately sinusoidal input current; and an output circuit configured to generate, in response to the input current, charge-balancing currents each flowing through a respective one of battery cells (302; 902; 1002; 1202) that are coupled together in series such that each charge-balancing current has a magnitude that is related to a voltage across the respective one of the battery cells, wherein the output circuit is distinct from the input circuit and includes a transformer (325; 925; 1025; 1225) having a primary winding (324; 924; 1024; 1224) connected to the input circuit and having secondary windings (326; 926; 1026; 1226) each configured to generate a respective one of the charge-balancing currents, each charge-balancing current flowing through the respective secondary winding; the input circuit is configured to generate the input current in response to a power-supply voltage and to drive the primary winding with the input current; characterized in that the input circuit includes an inductor (316; 916; 1013; 1216) and a capacitor (320; 920; 1021; 1220) in series with the primary winding, the inductor and the capacitor forming a resonant circuit configured to generate the input current by causing the resonant circuit to resonate.
Intelligent switch , in particular a fuse , comprising at least one inlet (103, 103', 103"), at least one outlet (105, 105', 105", 105"') and a switch circuit electrically connecting the at least one inlet (103, 103', 103") and the at least one outlet (105, 105', 105", 105"'), wherein the switch circuit comprises at least two switching submodules selected from the list of an electromechanic switching submodule and an electric switching submodule , wherein the switch circuit comprises at least one electromechanic switching submodule and at least one electric switching submodule , and wherein the switch further comprises a control unit for controlling an operating state of the at least two switching submodules characterized in that that the control unit is a microcontroller that is connected to the at least one inlet (103, 103', 103") via a power supply line .
Audio encoder for receiving an audio input signal and for generating a bit stream to be transmitted to a decoder, comprising: a warp parameter extractor for estimating a warp parameter sequence, wherein the warp parameter sequence comprises a sequence of warp parameters, wherein each warp parameter describes a finite length interval of the audio signal; a warp transformer for receiving the warp parameter sequence and for deriving a time warped spectral representation of the audio input signal ; a perceptual model calculator for receiving the audio input signal ; a warp coder for encoding the warp parameter sequence to reduce its size during a transmission of an encoded warp parameter sequence within a bit stream; an encoder for receiving the time-warped spectral representation for quantization to obtain an encoded time-warped spectral representation of the audio input signal, wherein the encoder is controlled by the perceptual model calculator ; and a multiplexer for receiving and multiplexing the encoded warp parameter sequence and the encoded time-warped spectral representation of the audio input signal. a warp parameter extractor for estimating a warp parameter sequence, wherein the warp parameter sequence comprises a sequence of warp parameters, wherein each warp parameter describes a finite length interval of the audio signal; a warp transformer for receiving the warp parameter sequence and for deriving a time warped spectral representation of the audio input signal ; a perceptual model calculator for receiving the audio input signal ; a warp coder for encoding the warp parameter sequence to reduce its size during a transmission of an encoded warp parameter sequence within a bit stream; an encoder for receiving the time-warped spectral representation for quantization to obtain an encoded time-warped spectral representation of the audio input signal, wherein the encoder is controlled by the perceptual model calculator ; and a multiplexer for receiving and multiplexing the encoded warp parameter sequence and the encoded time-warped spectral representation of the audio input signal.
A resin molding apparatus that resin-molds an object to be molded, comprising: a molding unit including a mold , wherein the mold is configured to perform resin molding; characterized by a transporting mechanism that is configured to reciprocate linearly in each of three orthogonal axial directions; a loader kit that is detachably attached to the transporting mechanism ; and an unloader kit that is detachably attached to the transporting mechanism , wherein the transporting mechanism and the loader kit are configured such that, in a state in which the unloader kit is not attached to the transporting mechanism and the loader kit is attached to the transporting mechanism , the object to be molded is loaded into the molding unit by the transporting mechanism and the loader kit , wherein the transporting mechanism and the unloader kit are configured such that, in a state in which the loader kit is not attached to the transporting mechanism and the unloader kit is attached to the transporting mechanism , after the object to be molded is molded in the molding unit to form a molded object , the molded object is unloaded from the molding unit by the transporting mechanism and the unloader kit . a transporting mechanism that is configured to reciprocate linearly in each of three orthogonal axial directions; a loader kit that is detachably attached to the transporting mechanism ; and an unloader kit that is detachably attached to the transporting mechanism , wherein the transporting mechanism and the loader kit are configured such that, in a state in which the unloader kit is not attached to the transporting mechanism and the loader kit is attached to the transporting mechanism , the object to be molded is loaded into the molding unit by the transporting mechanism and the loader kit , wherein the transporting mechanism and the unloader kit are configured such that, in a state in which the loader kit is not attached to the transporting mechanism and the unloader kit is attached to the transporting mechanism , after the object to be molded is molded in the molding unit to form a molded object , the molded object is unloaded from the molding unit by the transporting mechanism and the unloader kit .
A user terminal comprising: a receiving section configured to receive downlink control information and a Physical Downlink Shared Channel, PDSCH, by using at least one of a plurality of transmission time intervals, TTIs, contained in one subframe; and a control section configured to control reception of the PDSCH through at least one of the plurality of TTIs based on the downlink control information, wherein the receiving section receives the downlink control information through one TTI, of the plurality of TTIs in the subframe, following a predetermined number of symbols where a Physical Downlink Control Channel, PDCCH, is allocated. a receiving section configured to receive downlink control information and a Physical Downlink Shared Channel, PDSCH, by using at least one of a plurality of transmission time intervals, TTIs, contained in one subframe; and a control section configured to control reception of the PDSCH through at least one of the plurality of TTIs based on the downlink control information, wherein the receiving section receives the downlink control information through one TTI, of the plurality of TTIs in the subframe, following a predetermined number of symbols where a Physical Downlink Control Channel, PDCCH, is allocated.
Equipment for the three-dimensional printing of continuous fiber composite materials, comprising: - a supplying head to supply at least one filiform element of continuous fibers comprising at least one fiber; - a movement assembly for the relative movement between the supplying head and the three-dimensional object to be printed so as to exert traction of the continuous filiform element ; - a coupling unit to couple a quantity of material powder for a composite material matrix on said filiform element ; said coupling unit being configured to deposit a determined quantity of powder on the continuous filiform element so as to form a prepreg filiform element ; - an energy source configured to induce a phase change to the prepreg filiform element from the solid state to the liquid state; said energy source being positioned downstream of said coupling unit ; characterized in that - said coupling unit is housed at least partially inside the supplying head so that the coupling between the determined quantity of powder and said continuous filiform element occurs inside the supplying head ; - a supplying head to supply at least one filiform element of continuous fibers comprising at least one fiber; - a movement assembly for the relative movement between the supplying head and the three-dimensional object to be printed so as to exert traction of the continuous filiform element ; - a coupling unit to couple a quantity of material powder for a composite material matrix on said filiform element ; said coupling unit being configured to deposit a determined quantity of powder on the continuous filiform element so as to form a prepreg filiform element ; - an energy source configured to induce a phase change to the prepreg filiform element from the solid state to the liquid state; said energy source being positioned downstream of said coupling unit ; characterized in that - said coupling unit is housed at least partially inside the supplying head so that the coupling between the determined quantity of powder and said continuous filiform element occurs inside the supplying head ;
An agricultural round baler for baling crop material in a field, comprising: a plurality of rollers defining a bale chamber; a tail gate ; and a frame assembly , comprising: a main frame , and in characterized that: the frame assembly further comprising a pair of frame modules defining a baler size for producing a correspondingly sized round bale, the pair of frame modules being removably connected to the main frame , each frame module of the pair of frame modules comprising at least one roller mount and a tail gate mount defining a pivot axis of the tail gate , wherein at least one roller of the plurality of rollers is mounted to the at least one roller mount , wherein the tail gate is pivotally mounted to the tail gate mount . a plurality of rollers defining a bale chamber; a tail gate ; and a frame assembly , comprising: a main frame , and in characterized that: the frame assembly further comprising a pair of frame modules defining a baler size for producing a correspondingly sized round bale, the pair of frame modules being removably connected to the main frame , each frame module of the pair of frame modules comprising at least one roller mount and a tail gate mount defining a pivot axis of the tail gate , wherein at least one roller of the plurality of rollers is mounted to the at least one roller mount , wherein the tail gate is pivotally mounted to the tail gate mount .
A cordless motorized portable drive unit , in the form of a handle and with no clutch, for food processing tools, the motor being a brushless motor comprising a coupling that is suitable for being removably fastened to a food processing tool situated in the extension of said handle , characterized in that said unit can be used both in a horizontal position and a vertical position, by means of a permanent bearing activation switch situated on the handle when the unit is used in the vertical position or on the tool when the unit is used in a horizontal position, and in that said unit comprises means for identifying the type of tool allowing to adapt the speed of the motor to the type of tool chosen by the user.
A method for providing a cleaned gas diffusion layer for electrochemical applications, comprising the steps: - providing a gas diffusion layer such that a first side of the gas diffusion layer is arranged on a first vacuum conveyor belt , - cleaning an exposed second side of the gas diffusion layer , said second side being situated opposite the first side of the gas diffusion layer , - transferring the partially cleaned gas diffusion layer to a second vacuum conveyor belt that is partially situated opposite the first vacuum conveyor belt , wherein the first vacuum conveyor belt and the second vacuum conveyor belt have a transfer region (B) in which the gas diffusion layer is transferred from the first vacuum conveyor belt to the second vacuum conveyor belt , such that the first side of the gas diffusion layer is exposed, and - cleaning the first side of the gas diffusion layer . - providing a gas diffusion layer such that a first side of the gas diffusion layer is arranged on a first vacuum conveyor belt , - cleaning an exposed second side of the gas diffusion layer , said second side being situated opposite the first side of the gas diffusion layer , - transferring the partially cleaned gas diffusion layer to a second vacuum conveyor belt that is partially situated opposite the first vacuum conveyor belt , wherein the first vacuum conveyor belt and the second vacuum conveyor belt have a transfer region (B) in which the gas diffusion layer is transferred from the first vacuum conveyor belt to the second vacuum conveyor belt , such that the first side of the gas diffusion layer is exposed, and - cleaning the first side of the gas diffusion layer .
Material for providing unidirectional friction, in particular for a ski skin, comprising: a substrate-fabric ; and plate-like structures attached to the substrate-fabric ; wherein the plate-like structures are arranged on the fabric such that they lie substantially flat against an operative surface of the fabric when a frictional force is applied to the structures in a gliding direction (A) substantially parallel to the operative surface of the fabric and lift up from the operative surface of the fabric at one side when a frictional force is applied to the structures in a gripping direction (B) substantially opposite to the gliding direction (A), characterized in that the plate-like structures are attached to the substrate-fabric via stitchings . a substrate-fabric ; and plate-like structures attached to the substrate-fabric ; wherein the plate-like structures are arranged on the fabric such that they lie substantially flat against an operative surface of the fabric when a frictional force is applied to the structures in a gliding direction (A) substantially parallel to the operative surface of the fabric and lift up from the operative surface of the fabric at one side when a frictional force is applied to the structures in a gripping direction (B) substantially opposite to the gliding direction (A), characterized in that the plate-like structures are attached to the substrate-fabric via stitchings .
A method for coordinating movable objects , the method comprising: directing a first movable object and a second movable object to track a target at predetermined positions around the target ; and directing the first movable object to perform a coordinated action with the second movable object keeping track of the target generating a moving path of the first movable object to maintain the predetermined position of the first movable object relative to a position of the target , receiving an image from the second movable object , wherein the method is characterized by transforming the image from a perspective of the second movable object to a perspective of the first movable object , identifying an obstacle in the transformed image, and avoiding the obstacle by altering the moving path of the first movable object . directing a first movable object and a second movable object to track a target at predetermined positions around the target ; and directing the first movable object to perform a coordinated action with the second movable object keeping track of the target generating a moving path of the first movable object to maintain the predetermined position of the first movable object relative to a position of the target , receiving an image from the second movable object , wherein the method is characterized by transforming the image from a perspective of the second movable object to a perspective of the first movable object , identifying an obstacle in the transformed image, and avoiding the obstacle by altering the moving path of the first movable object .