mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a display panel comprising corner portions (CS1, CS2, CS3, CS4) having cut patterns (CP) defined by cut portions (CG) formed between adjacent cut patterns (CP), wherein the cut portions (CG) have parts of the display panel removed, and the cut patterns (CP) have no parts of the display panel removed, wherein the display panel comprises: a substrate (SUB); a light-emitting element comprising a pixel electrode , an emissive layer and a common electrode and disposed on the substrate (SUB) in the cut pattern (CP); a first inorganic encapsulation layer disposed on the common electrode in the cut pattern (CP); an organic encapsulation layer disposed on the first inorganic encapsulation layer in the cut pattern (CP); an organic pattern disposed on the substrate (SUB) in the cut portion (CG); a dam (DAM2) disposed at edges of the cut patterns (CP); and a dam hole (DMH) formed on an inner side of the dam (DAM2) and having an undercut profile, the dam hole (DMH) which disconnects the emissive layer and the common electrode from the cut portion (CG). a display panel comprising corner portions (CS1, CS2, CS3, CS4) having cut patterns (CP) defined by cut portions (CG) formed between adjacent cut patterns (CP), wherein the cut portions (CG) have parts of the display panel removed, and the cut patterns (CP) have no parts of the display panel removed, wherein the display panel comprises: a substrate (SUB); a light-emitting element comprising a pixel electrode , an emissive layer and a common electrode and disposed on the substrate (SUB) in the cut pattern (CP); a first inorganic encapsulation layer disposed on the common electrode in the cut pattern (CP); an organic encapsulation layer disposed on the first inorganic encapsulation layer in the cut pattern (CP); an organic pattern disposed on the substrate (SUB) in the cut portion (CG); a dam (DAM2) disposed at edges of the cut patterns (CP); and a dam hole (DMH) formed on an inner side of the dam (DAM2) and having an undercut profile, the dam hole (DMH) which disconnects the emissive layer and the common electrode from the cut portion (CG). a substrate (SUB); a light-emitting element comprising a pixel electrode , an emissive layer and a common electrode and disposed on the substrate (SUB) in the cut pattern (CP); a first inorganic encapsulation layer disposed on the common electrode in the cut pattern (CP); an organic encapsulation layer disposed on the first inorganic encapsulation layer in the cut pattern (CP); an organic pattern disposed on the substrate (SUB) in the cut portion (CG); a dam (DAM2) disposed at edges of the cut patterns (CP); and a dam hole (DMH) formed on an inner side of the dam (DAM2) and having an undercut profile, the dam hole (DMH) which disconnects the emissive layer and the common electrode from the cut portion (CG).
A pharmaceutical composition for use in therapeutically reducing the frequency of urination, comprising a first analgesic agent, wherein said first analgesic agent is acetaminophen, wherein said pharmaceutical composition is formulated in a delayed-release formulation having an enteric coating, and wherein said first analgesic agent is administered orally at a daily dose of 5 mg to 2000 mg.
A nephelometric turbidimeter vial arrangement (8;8') including a vial and a separate vial cap (60;61), wherein the vial comprises a transparent cylindrical vial body enclosing a vial interior , a bottom inlet window and a circular top vial opening , the vial cap (60;61) closes the top vial opening and comprises a light trap cavity (70;71) which is open to the vial interior , the inner surface (81,82;81',82') of the light trap cavity (70; 71) is a light absorbing surface, the vial cap (60;61) is provided with a plane chip cavity wherein a plane RFID chip is provided, and the plane chip cavity is arranged in an axial plane so that the plane RFID chip is arranged in an axial plane, the axial plane being a plane which is substantially in parallel with the longitudinal axis of the cylindrical vial body . the vial comprises a transparent cylindrical vial body enclosing a vial interior , a bottom inlet window and a circular top vial opening , the vial cap (60;61) closes the top vial opening and comprises a light trap cavity (70;71) which is open to the vial interior , the inner surface (81,82;81',82') of the light trap cavity (70; 71) is a light absorbing surface, the vial cap (60;61) is provided with a plane chip cavity wherein a plane RFID chip is provided, and the plane chip cavity is arranged in an axial plane so that the plane RFID chip is arranged in an axial plane, the axial plane being a plane which is substantially in parallel with the longitudinal axis of the cylindrical vial body .
Palatable product for a cat or a dog, intended to serve as a medicament, as a food supplement or as a palatable support for at least partially coating an active substance initially independent of the support, having a pasty or plastic form and comprising, as weight percentages, on the basis of the total weight of the product, 5% to 90% of proteins of animal origin, 3% to 50% of glucose syrup, the dextrose equivalent of the glucose syrup being greater than 10 and less than 25, and: - at least 5% of an anti-diarrhoea additive chosen from the group formed by a clay of the smectite family, an active carbon, a pectate and mixtures thereof, and/or - at least 15% of L-lysine. - at least 5% of an anti-diarrhoea additive chosen from the group formed by a clay of the smectite family, an active carbon, a pectate and mixtures thereof, and/or - at least 15% of L-lysine.
An agricultural tool for tying/twisting an agricultural item of interest and a support structure together, the agricultural tool comprising a motor , characterised in that the agricultural tool further comprises: a first driving gear to be driven by the motor ; a second driving gear to be driven by the motor ; and a main gear including a plurality of openings along a periphery of the main gear ; wherein the plurality of openings include a first opening and a second opening ; the main gear includes a first receiving portion that defines a first receiving space ; the main gear includes a second receiving portion that defines a second receiving space ; the first opening corresponds and is attached to the first receiving space ; the second opening corresponds and is attached to the second receiving space ; and the first driving gear and the second driving gear engage with the periphery of the main gear to drive the main gear , the agricultural tool optionally comprising a controller configured or programmed to control the motor . a first driving gear to be driven by the motor ; a second driving gear to be driven by the motor ; and a main gear including a plurality of openings along a periphery of the main gear ; wherein the plurality of openings include a first opening and a second opening ; the main gear includes a first receiving portion that defines a first receiving space ; the main gear includes a second receiving portion that defines a second receiving space ; the first opening corresponds and is attached to the first receiving space ; the second opening corresponds and is attached to the second receiving space ; and the first driving gear and the second driving gear engage with the periphery of the main gear to drive the main gear , the agricultural tool optionally comprising a controller configured or programmed to control the motor .
A method for the electro-metallization, in particular chromium plating, of a component realized as a plastic molded part, a covering varnish being applied to the component and the component being metallized afterwards, the covering varnish being applied to the application surface by means of a brush , characterized in that a relative movement between the brush and the application surface of the component is realized by means of automatic relative movement means in order to apply the covering varnish and that a covering varnish reservoir supplies the brush via a covering varnish supply line during the application, in particular in a continuous manner, and that the relative movement means realize the relative movement in such a manner that the brush and/or the component is/are guided along a defined and/or definable movement path.
Method for composing a set of floor panels for flooring a room, based on a data set in accordance at least with the ground surface area of said room , wherein the method contains the step of establishing a laying plan suitable for said room , whereby the step of establishing a laying plan is carried out by means of a computer, wherein the computer proposes a laying plan on the basis of said data set , taking into account desired limitations, wherein said limitations are used to restrict a database of possible solutions; characterized in that said limitations include excluding that short edges (6-7) of floor panels in adjacent rows are positioned closer than a minimum distance (D) to be maintained; and/or excluding that a short edge (6-7) of a floor panel is positioned closer than a minimum distance (L1) to be maintained from the start or the end of a row .
A sole (200a-h, 400, 500, 600) with a midsole (202a-b, 202d-h, 402, 510, 610), wherein the midsole comprises: a first sole region (220a, 220d-h, 420) comprising particle foam ; the sole characterized in that the midsole further comprises a deformation region within the midsole and positioned proximate the first sole region, wherein the deformation region comprises a volume greater than that of a single expanded particle in the particle foam and is configured to allow deformation of the particle foam of the first sole region under a pressure load on the sole. a first sole region (220a, 220d-h, 420) comprising particle foam ; the sole characterized in that the midsole further comprises a deformation region within the midsole and positioned proximate the first sole region, wherein the deformation region comprises a volume greater than that of a single expanded particle in the particle foam and is configured to allow deformation of the particle foam of the first sole region under a pressure load on the sole.
An acoustic radiation control method , comprising: configuring a speaker array ; obtaining transfer functions of speakers in the speaker array based on configuration of the speaker array and directivity of the speakers; obtaining , based on the transfer functions of the speakers, source strength of the speakers which enables acoustic radiation of the speaker array in a first zone greater than acoustic radiation of the speaker array in a second zone; and applying the source strength of the speakers to the speaker array , wherein obtaining transfer functions of speakers in the speaker array based on configuration of the speaker array and directivity of the speakers comprises: calculating an original transfer function of each speaker in the speaker array , wherein the original transfer function is a general free-field transfer function without consideration of the directivity of the speaker; measuring directivity of each speaker in the speaker array , wherein the directivity of the speaker represents acoustic radiation of the speaker at different optimized positions; and obtaining a product of the original transfer function and the directivity of each speaker as the transfer functions of the speakers. configuring a speaker array ; obtaining transfer functions of speakers in the speaker array based on configuration of the speaker array and directivity of the speakers; obtaining , based on the transfer functions of the speakers, source strength of the speakers which enables acoustic radiation of the speaker array in a first zone greater than acoustic radiation of the speaker array in a second zone; and applying the source strength of the speakers to the speaker array , wherein obtaining transfer functions of speakers in the speaker array based on configuration of the speaker array and directivity of the speakers comprises: calculating an original transfer function of each speaker in the speaker array , wherein the original transfer function is a general free-field transfer function without consideration of the directivity of the speaker; measuring directivity of each speaker in the speaker array , wherein the directivity of the speaker represents acoustic radiation of the speaker at different optimized positions; and obtaining a product of the original transfer function and the directivity of each speaker as the transfer functions of the speakers. calculating an original transfer function of each speaker in the speaker array , wherein the original transfer function is a general free-field transfer function without consideration of the directivity of the speaker; measuring directivity of each speaker in the speaker array , wherein the directivity of the speaker represents acoustic radiation of the speaker at different optimized positions; and obtaining a product of the original transfer function and the directivity of each speaker as the transfer functions of the speakers.
A motor current calculation device comprising: a first wire through which flow a motor current that has been passed through a motor and a drive current that has been passed through a motor drive unit for driving the motor , a current detecting unit configured to detect the sum of the motor current and the drive current flowing through the first wire ; a decision unit configured to determine a detection result of the current detecting unit when the motor is not rotating as the drive current; and a calculation unit configured to calculate the motor current by subtracting the drive current determined by the decision unit from a detection result of the current detecting unit when the motor is rotating, characterized in that the motor current calculation device is mounted on a printed board (P1) together with a motor-use power supply device for generating a power supply for the motor and a drive-use power supply device for generating a power supply for the motor drive unit ; a second wire joins the output of the motor-use power supply device and an interface (I/F) of the printed board (P1); and a third wire joins the output of the drive-use power supply device and the interface (I/F) of the printed board (P1). a first wire through which flow a motor current that has been passed through a motor and a drive current that has been passed through a motor drive unit for driving the motor , a current detecting unit configured to detect the sum of the motor current and the drive current flowing through the first wire ; a decision unit configured to determine a detection result of the current detecting unit when the motor is not rotating as the drive current; and a calculation unit configured to calculate the motor current by subtracting the drive current determined by the decision unit from a detection result of the current detecting unit when the motor is rotating, characterized in that the motor current calculation device is mounted on a printed board (P1) together with a motor-use power supply device for generating a power supply for the motor and a drive-use power supply device for generating a power supply for the motor drive unit ; a second wire joins the output of the motor-use power supply device and an interface (I/F) of the printed board (P1); and a third wire joins the output of the drive-use power supply device and the interface (I/F) of the printed board (P1).
Method for operating a hearing aid which has an auditory canal microphone for capturing sound in the auditory canal of the wearer and a control unit comprising an own voice recognition unit for carrying out an adaptive own voice recognition, - wherein sound in the auditory canal is captured by the auditory canal microphone and an auditory canal signal (S G ) that corresponds to the sound is output by the auditory canal microphone , and - wherein training of the adaptive own voice recognition is started only on the basis of the signal (S G ) output by the auditory canal microphone , characterized - in that the training is started automatically during normal operation, in which the auditory canal signal (S G ) and/or a surround signal (S U ) is processed by the control unit and a receiver signal (S H ) is output to a receiver for compensating a hearing deficit of the wearer, - wherein no speech sequences and/or noise sequences defined in advance are included in normal operation for the purposes of training the own voice recognition. - wherein sound in the auditory canal is captured by the auditory canal microphone and an auditory canal signal (S G ) that corresponds to the sound is output by the auditory canal microphone , and - wherein training of the adaptive own voice recognition is started only on the basis of the signal (S G ) output by the auditory canal microphone , - in that the training is started automatically during normal operation, in which the auditory canal signal (S G ) and/or a surround signal (S U ) is processed by the control unit and a receiver signal (S H ) is output to a receiver for compensating a hearing deficit of the wearer, - wherein no speech sequences and/or noise sequences defined in advance are included in normal operation for the purposes of training the own voice recognition.
Method for automatically adjusting at least one smoke detector , wherein the at least one smoke detector to be adjusted is positioned in a channel applied with a flowing aerosol , wherein a smoke detector which is already adjusted and functions as a reference detector is disposed in the channel together with the at least one smoke detector to be adjusted, wherein the channel for receiving the at least one smoke detector to be adjusted and the reference detector has a housing in each case and wherein the housings included in the channel are connected to one another by means of pipe sections such that each output side of a housing is connected to an input side of a housing which follows along the channel wherein the at least one smoke detector to be adjusted is adjusted by means of data available from the reference detector . wherein the at least one smoke detector to be adjusted is positioned in a channel applied with a flowing aerosol , wherein a smoke detector which is already adjusted and functions as a reference detector is disposed in the channel together with the at least one smoke detector to be adjusted, wherein the channel for receiving the at least one smoke detector to be adjusted and the reference detector has a housing in each case and wherein the housings included in the channel are connected to one another by means of pipe sections such that each output side of a housing is connected to an input side of a housing which follows along the channel wherein the at least one smoke detector to be adjusted is adjusted by means of data available from the reference detector .
A biomolecule conjugate comprising a cytokine and a peptide comprising or consisting of the sequence set forth in SEQ ID NO: 1 or a conservative variant thereof.
An ultrasound diagnosis apparatus comprising: transmission and reception circuitry configured to generate reception signals corresponding to a plurality of channels, from reflected waves arranged to be received at a mutually same time by a plurality of transducer elements that transmitted an ultrasound wave, by controlling multiple transducer elements included in an ultrasound probe ; characterized in that the apparatus further comprises Doppler processing circuitry configured to extract, prior to a beam forming process, first blood flow signals corresponding to the plurality of channels from the reception signals corresponding to the channels while suppressing signals originating from a tissue and to further extract a second blood flow signal by suppressing from the extracted first blood flow signals a component whose slope with respect to a channel direction forms a straight line within a predetermined range and by performing a beam forming process after said suppressing; calculating circuitry configured to calculate blood flow information from the second blood flow signal; and controlling circuitry configured to generate a blood flow image from the blood flow information and to cause a display to display the generated blood flow image, wherein the Doppler processing circuitry is configured to apply a plurality of Sobel filters having different straight line detection directions and to calculate a logical sum of a result of the application of the plurality of Sobels filters to suppress the component. transmission and reception circuitry configured to generate reception signals corresponding to a plurality of channels, from reflected waves arranged to be received at a mutually same time by a plurality of transducer elements that transmitted an ultrasound wave, by controlling multiple transducer elements included in an ultrasound probe ; characterized in that the apparatus further comprises Doppler processing circuitry configured to extract, prior to a beam forming process, first blood flow signals corresponding to the plurality of channels from the reception signals corresponding to the channels while suppressing signals originating from a tissue and to further extract a second blood flow signal by suppressing from the extracted first blood flow signals a component whose slope with respect to a channel direction forms a straight line within a predetermined range and by performing a beam forming process after said suppressing; calculating circuitry configured to calculate blood flow information from the second blood flow signal; and controlling circuitry configured to generate a blood flow image from the blood flow information and to cause a display to display the generated blood flow image, wherein the Doppler processing circuitry is configured to apply a plurality of Sobel filters having different straight line detection directions and to calculate a logical sum of a result of the application of the plurality of Sobels filters to suppress the component.