mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition comprising one or more antisense oligonucleotides in a pharmaceutically acceptable diluent, solvent, carrier, salt and/or adjuvant for use in treating or preventing Angelman syndrome in a subject, wherein the one or more antisense oligonucleotide comprises a nucleotide sequence of 10 to 30 nucleotides in length with 100% complementarity to a contiguous portion of nucleic acid sequence selected from SEQ ID NO:1, SEQ ID NO:2, SEQ ID NO:3, SEQ ID NO:4, and SEQ ID NO:5, wherein the antisense oligonucleotide is capable of targeting the 5' end of UBE3A-AS transcript.
A method for detecting the presence of an electrical current and/or voltage, comprising providing a detection means to detect a physical effect associated with the presence of the electrical current and/or voltage; providing an evaluation means for converting a detection signal generated in the presence of an electrical current and/or electrical voltage into an evaluation signal ; providing an output means for converting the evaluation signal into an output signal ; wherein the method comprises the detection of a sound associated with the presence of the electrical current and/or the electrical voltage, the sound comprises body sound, and the method comprises non-contact detection; characterized in that : the detection means and the output means are comprised by a portable apparatus . providing a detection means to detect a physical effect associated with the presence of the electrical current and/or voltage; providing an evaluation means for converting a detection signal generated in the presence of an electrical current and/or electrical voltage into an evaluation signal ; providing an output means for converting the evaluation signal into an output signal ; wherein the method comprises the detection of a sound associated with the presence of the electrical current and/or the electrical voltage, the sound comprises body sound, and the method comprises non-contact detection; characterized in that : the detection means and the output means are comprised by a portable apparatus .
An end cap for a tubular light source , comprising: a first housing portion ; a second housing portion ; two connector pins at least partly arranged on an outside of the first housing portion and adapted to fit in a socket of a lighting fixture ; a switch assembly comprising a switch element and conductive receiving means arranged in the second housing portion , wherein the switch assembly being adapted to form a conductive path between the socket and a tubular light source through a depression of the switch element in combination with a relative rotational motion of the second housing portion in relation to the first housing portion as the tubular light source is mounted in the fixture and wherein the receiving means are configured to receive the connector pins during that relative rotational motion of the second housing portion in relation to the first housing portion and are further configured to be axially aligned with the connector pins only when the switch element is depressed. a first housing portion ; a second housing portion ; two connector pins at least partly arranged on an outside of the first housing portion and adapted to fit in a socket of a lighting fixture ; a switch assembly comprising a switch element and conductive receiving means arranged in the second housing portion , wherein the switch assembly being adapted to form a conductive path between the socket and a tubular light source through a depression of the switch element in combination with a relative rotational motion of the second housing portion in relation to the first housing portion as the tubular light source is mounted in the fixture and wherein the receiving means are configured to receive the connector pins during that relative rotational motion of the second housing portion in relation to the first housing portion and are further configured to be axially aligned with the connector pins only when the switch element is depressed.
A high speed circuit for a low interference differential trace, the high speed circuit comprising: a printed circuit board having a first surface and an opposite second surface ; a ground plane layer having a first surface in contact with the second surface of the printed circuit board ; a pair of first and second differential traces on the first surface of the board structure, the differential traces carrying an electrical signal; a first void section on the first surface of the ground plane layer , the first void section on one side of the first differential trace , wherein the first void section is parallel to the first differential trace ; a second void section on the first surface of the ground plane layer , the second void section on one side of the second differential trace , wherein the second void section is parallel to the second differential trace ; and a third void section on the first surface of the ground plane layer , the third void section joining the first and second void sections ; characterized in that a length of the first void section and the second void section for current returning is determined based on a target radiation frequency which the high speed circuit avoids and a time delay per mil length for a differential signal propagating in the differential traces according to the equation Length = 1 / 2 f * TD wherein TD is the time delay per mil length for the differential signal propagating in the differential traces , 1 mil = 25,4 micrometers, and f is the target radiation frequency. a printed circuit board having a first surface and an opposite second surface ; a ground plane layer having a first surface in contact with the second surface of the printed circuit board ; a pair of first and second differential traces on the first surface of the board structure, the differential traces carrying an electrical signal; a first void section on the first surface of the ground plane layer , the first void section on one side of the first differential trace , wherein the first void section is parallel to the first differential trace ; a second void section on the first surface of the ground plane layer , the second void section on one side of the second differential trace , wherein the second void section is parallel to the second differential trace ; and a third void section on the first surface of the ground plane layer , the third void section joining the first and second void sections ; characterized in that a length of the first void section and the second void section for current returning is determined based on a target radiation frequency which the high speed circuit avoids and a time delay per mil length for a differential signal propagating in the differential traces according to the equation Length = 1 / 2 f * TD wherein TD is the time delay per mil length for the differential signal propagating in the differential traces , 1 mil = 25,4 micrometers, and f is the target radiation frequency.
A bearing house comprising a bearing house body for receiving a rotating shaft, and two or more bearing house feet for attaching the bearing house to a base , wherein each of the two or more bearing house feet extends from the bearing house body by the means of an arm , wherein at a base end of the bearing feet, which are the only parts of the bearing house which are in contact with the base when the bearing house is attached to the base, a sealing is provided.
Coating apparatus for coating a food product with a batter, comprising: - a frame supporting an endless conveyor belt having an upper transport run to advance food products from an entry section (A, B) towards a discharge section (D) thereof in a transport direction (T), the conveyor belt further having a lower return run , the conveyor belt extending between a front roller at a front end of the entry section and a rear roller at a rear end of the discharge section; - an upper batter applicator , wherein said upper batter applicator is positioned over the conveyor belt downstream of the entry section and configured to form, in operation, one or more curtains of batter flow from the upper batter applicator to the transport run of the conveyor belt in order to provide batter to an upper surface of the food products, - a batter pump assembly adapted to feed batter from a batter container to at least the upper batter applicator ; - a wall structure provided at the front end adjacent the conveyor belt and in proximity of the front roller configured to cause, in operation, batter to be dragged with the conveyor belt and/or the front roller upwards towards the entry section, characterized by - a batter overflow device below the entry section of the conveyor belt, the batter overflow device comprising a perforated surface having one or more perforations below at least a part of the entry section of the conveyor belt and a batter reservoir below said perforated surface, wherein the batter pump assembly is further adapted to feed batter to the batter overflow device so that in operation batter flows through the perforated surface and forms a lower batter layer on top of said surface, and wherein the entry section passes through said lower batter layer. - a frame supporting an endless conveyor belt having an upper transport run to advance food products from an entry section (A, B) towards a discharge section (D) thereof in a transport direction (T), the conveyor belt further having a lower return run , the conveyor belt extending between a front roller at a front end of the entry section and a rear roller at a rear end of the discharge section; - an upper batter applicator , wherein said upper batter applicator is positioned over the conveyor belt downstream of the entry section and configured to form, in operation, one or more curtains of batter flow from the upper batter applicator to the transport run of the conveyor belt in order to provide batter to an upper surface of the food products, - a batter pump assembly adapted to feed batter from a batter container to at least the upper batter applicator ; - a wall structure provided at the front end adjacent the conveyor belt and in proximity of the front roller configured to cause, in operation, batter to be dragged with the conveyor belt and/or the front roller upwards towards the entry section, characterized by - a batter overflow device below the entry section of the conveyor belt, the batter overflow device comprising a perforated surface having one or more perforations below at least a part of the entry section of the conveyor belt and a batter reservoir below said perforated surface,
Method for producing aqueous polyurethane-polyurea dispersions, wherein in a first step (I) an isocyanate-functional prepolymer free from urea groups is produced by complete or partial reaction of at least compounds selected from the group comprising A) polyisocyanates, B) polyols having number-average molecular weights of 400 to 8000 g/mol as determined by means of the hydroxy-value while having a hydroxyl value of 22 to 400 mg KOH/g and an OH-functionality of 1.5 to 6, C') low-molecular-weight compounds having a molecular weight between 60 and 400 g/mol, which in total have two or more hydroxyl groups, E) isocyanate-reactive, ionically or potentially ionically hydrophilising compounds, F) isocyanate-reactive, non-ionically hydrophilising compounds, optionally already in at least one organic solvent, or in a second step (II), if not in step (I), this isocyanate-functional prepolymer is dissolved in at least one organic solvent in such a way that a solution of the isocyanate-functional prepolymer is produced in a concentration of 20 wt.% to 70 wt.%, relative to all components of the solution, and then dispersion takes place by mixing water with the polymer solution with simultaneous distillation of the organic solvent in a dispersion and distillation unit, with the proviso that the volumetric content of the dispersion and distillation unit is 50 vol.% to 95 vol.%, and then a largely solvent-free polyurethane-polyurea dispersion having a residual content of organic solvent of 0.0 wt.% to 5 wt.% and a concentration of polyurethane-polyurea polymer particles of 20 wt.% to 70 wt.%, relative in each case to all components of the polyurethane-polyurea dispersion, is obtained. A) polyisocyanates, B) polyols having number-average molecular weights of 400 to 8000 g/mol as determined by means of the hydroxy-value while having a hydroxyl value of 22 to 400 mg KOH/g and an OH-functionality of 1.5 to 6, C') low-molecular-weight compounds having a molecular weight between 60 and 400 g/mol, which in total have two or more hydroxyl groups, E) isocyanate-reactive, ionically or potentially ionically hydrophilising compounds, F) isocyanate-reactive, non-ionically hydrophilising compounds,
A robot cleaner comprising: a body to travel on a floor; an obstacle sensing unit to sense an obstacle approaching the body; at least one auxiliary cleaning unit mounted to a bottom of the body , to be extendable and retractable; and a control unit to control extension or retraction of the auxiliary cleaning unit by adjusting an extension or retraction degree of the auxiliary cleaning unit when the obstacle is sensed, characterized in that : the control unit is adapted to determine a distance between the body and the obstacle based on an output signal from the obstacle sensing unit and to adjust an extension distance of the auxiliary cleaning unit based on the determined distance according to an extension direction of the auxiliary cleaning unit. a body to travel on a floor; an obstacle sensing unit to sense an obstacle approaching the body; at least one auxiliary cleaning unit mounted to a bottom of the body , to be extendable and retractable; and a control unit to control extension or retraction of the auxiliary cleaning unit by adjusting an extension or retraction degree of the auxiliary cleaning unit when the obstacle is sensed, characterized in that : the control unit is adapted to determine a distance between the body and the obstacle based on an output signal from the obstacle sensing unit and to adjust an extension distance of the auxiliary cleaning unit based on the determined distance according to an extension direction of the auxiliary cleaning unit.
A display device comprising: a display panel disposed in a first area (DR1) of the display device and a second area (DR2) of the display device, wherein the first area of the display device lies in a first plane and the second area of the display device lies in a second plane at a predetermined angle to the first plane, or the first area of the display device includes a flat portion of the display device and the second area of the display device includes a curved portion of the display device; and a first force sensor disposed in the second area (DR2) of the display device, wherein the first force sensor is disposed below the display panel and adjacent to a first edge of the display panel, the first force sensor extending along the first edge of the display panel, wherein the first force sensor comprises: a first sensing region (SR 1 ); a second sensing region (SR 2 ) located adjacent the first sensing region and having a larger area than the first sensing region; a first force concentration bump overlapping the first sensing region; a second force concentration bump overlapping the second sensing region and spaced apart from the first force concentration bump; a first electrode ; and a second electrode separated from the first electrode, wherein the first electrode is disposed in the first sensing region (SR1) and the second sensing region (SR 2 ), and the second electrode is disposed in the first sensing region (SR 1 ) and the second sensing region (SR 2 ). a display panel disposed in a first area (DR1) of the display device and a second area (DR2) of the display device, wherein the first area of the display device lies in a first plane and the second area of the display device lies in a second plane at a predetermined angle to the first plane, or the first area of the display device includes a flat portion of the display device and the second area of the display device includes a curved portion of the display device; and a first force sensor disposed in the second area (DR2) of the display device, wherein the first force sensor is disposed below the display panel and adjacent to a first edge of the display panel, the first force sensor extending along the first edge of the display panel, a first sensing region (SR 1 ); a second sensing region (SR 2 ) located adjacent the first sensing region and having a larger area than the first sensing region; a first force concentration bump overlapping the first sensing region; a second force concentration bump overlapping the second sensing region and spaced apart from the first force concentration bump; a first electrode ; and a second electrode separated from the first electrode, wherein the first electrode is disposed in the first sensing region (SR1) and the second sensing region (SR 2 ), and the second electrode is disposed in the first sensing region (SR 1 ) and the second sensing region (SR 2 ).
A method, comprising: wirelessly broadcasting , by a broadcast base station , a common set of audio and video data to a plurality of broadcast receiver devices using a particular frequency band and a set of three or more consecutive broadcast frames, wherein each broadcast frame of the set of three or more consecutive broadcast frames comprises a preamble, wherein the broadcast base station does not receive content data from any of the broadcast receiver devices; and discontinuing broadcasting , based on one or more predetermined time durations between broadcast frames, between each of the broadcast frames in the set of broadcast frames, to enable one or more cellular base stations to perform cellular packet-switched wireless data communications using the particular frequency band. wirelessly broadcasting , by a broadcast base station , a common set of audio and video data to a plurality of broadcast receiver devices using a particular frequency band and a set of three or more consecutive broadcast frames, wherein each broadcast frame of the set of three or more consecutive broadcast frames comprises a preamble, wherein the broadcast base station does not receive content data from any of the broadcast receiver devices; and discontinuing broadcasting , based on one or more predetermined time durations between broadcast frames, between each of the broadcast frames in the set of broadcast frames, to enable one or more cellular base stations to perform cellular packet-switched wireless data communications using the particular frequency band.
An antimicrobial solution comprising: at least one alcohol which is ethanol; at least one antimicrobial agent which is minocycline; and at least one chelator and/or anticoagulant, which is EDTA; wherein the concentration of the alcohol is in the range of 10% to 45% (v/v). at least one alcohol which is ethanol; at least one antimicrobial agent which is minocycline; and at least one chelator and/or anticoagulant, which is EDTA; wherein the concentration of the alcohol is in the range of 10% to 45% (v/v).
Digital input circuit for receiving digital input signals of at least one signal generator , comprising - a first subcircuit with a first digital input , via which a first digital input signal can be supplied to the first subcircuit , and with a first threshold value element , by means of which a logic state of the first subcircuit can be determined, wherein the first subcircuit adopts a first state, when the first digital input signal reaches or falls below a lower threshold, and wherein the first subcircuit adopts a second state, when the first digital input signal reaches or exceeds an upper threshold, and - at least one second subcircuit with a second digital input , via which a second digital input signal can be supplied to the second subcircuit , and with a second threshold value element , by means of which a logic state of the second subcircuit can be determined, wherein the second subcircuit adopts a first state, when the second digital input signal reaches or falls below a lower threshold, and wherein the second subcircuit adopts a second state, when the second digital input signal reaches or exceeds an upper threshold, characterised in that the digital input circuit has a combined test and current boosting device , which is configured to generate a driving signal such that a function test of the two subcircuits is performed simultaneously with the driving signal and an input current of the digital inputs is increased, wherein each of the two subcircuits has a current limiting device with a transistor , and wherein the subcircuits are configured so that on receiving the driving signal of the combined test and current boosting device for testing the subcircuits the levels of the digital input signals, which are supplied via the digital inputs to the subcircuits , are lowered internally so far by means of the transistors that they correspond to the first state of the relevant subcircuit , and an increased input current flows via the transistors . - a first subcircuit with a first digital input , via which a first digital input signal can be supplied to the first subcircuit , and with a first threshold value element , by means of which a logic state of the first subcircuit can be determined, wherein the first subcircuit adopts a first state, when the first digital input signal reaches or falls below a lower threshold, and wherein the first subcircuit adopts a second state, when the first digital input signal reaches or exceeds an upper threshold, and - at least one second subcircuit with a second digital input , via which a second digital input signal can be supplied to the second subcircuit , and with a second threshold value element , by means of which a logic state of the second subcircuit can be determined, wherein the second subcircuit adopts a first state, when the second digital input signal reaches or falls below a lower threshold, and wherein the second subcircuit adopts a second state, when the second digital input signal reaches or exceeds an upper threshold,
A cationic electrodeposition coating composition comprising an amine-modified epoxy resin (A), a curing agent (B), a Group-3 element compound (C), and a cationic or nonionic resin (D), wherein the amine-modified epoxy resin (A) has a number-average molecular weight within a range of 1,000 to 5,000, and the cationic or nonionic resin (D) has a number-average molecular weight of 10,000 or more.