mhurhangee/ep-ind-claims huggingface dataset:
An electronic device, comprising: an input module configured to detect a gesture; a memory configured to store information regarding at least one direction combination; and a control module configured to compare information regarding a direction combination corresponding to the gesture with the information regarding the at least one direction combination, which is stored in the memory, and to change a state of the electronic device from a first state to a second state according to a result of comparing the information regarding the direction combination corresponding to the gesture with the information regarding the at least one direction combination, which is stored in the memory, wherein the direction combination corresponding to the gesture comprises a plurality of directions; wherein the control module is further configured to recognize a number of directions, the number of directions being set by a user; and wherein the first state is a lock state, and the second state is an unlock state or a state in which a specific application is executed. an input module configured to detect a gesture; a memory configured to store information regarding at least one direction combination; and a control module configured to compare information regarding a direction combination corresponding to the gesture with the information regarding the at least one direction combination, which is stored in the memory, and to change a state of the electronic device from a first state to a second state according to a result of comparing the information regarding the direction combination corresponding to the gesture with the information regarding the at least one direction combination, which is stored in the memory, wherein the direction combination corresponding to the gesture comprises a plurality of directions; wherein the control module is further configured to recognize a number of directions, the number of directions being set by a user; and wherein the first state is a lock state, and the second state is an unlock state or a state in which a specific application is executed.
A metal detector for detecting insertion of a metallic surgical device into a hollow tube, comprising: a coil mounted to the hollow tube; a capacitor coupled to and defining a resonant circuit with the coil; a switch adapted to couple a voltage source (Vs) to the resonant circuit (210,206); a controller connected to the switch and the resonant circuit (210, 206), and operable to turn on the switch for a preselected time period to temporarily provide a current to the resonant circuit (210, 206) and analyze a decaying voltage waveform originating from the resonant circuit (210, 206) when the switch is turned off to determine a presence of the metallic surgical device in the hollow tube and a depth of insertion of the metallic surgical device in the hollow tube, wherein the hollow tube is defined by a tool portion of an end-effector configured for use in a robot-assisted surgery, and wherein a determination of the presence of the metallic surgical device in the hollow tube prevents movement of the end-effector. a coil mounted to the hollow tube; a capacitor coupled to and defining a resonant circuit with the coil; a switch adapted to couple a voltage source (Vs) to the resonant circuit (210,206); a controller connected to the switch and the resonant circuit (210, 206), and operable to turn on the switch for a preselected time period to temporarily provide a current to the resonant circuit (210, 206) and analyze a decaying voltage waveform originating from the resonant circuit (210, 206) when the switch is turned off to determine a presence of the metallic surgical device in the hollow tube and a depth of insertion of the metallic surgical device in the hollow tube, wherein the hollow tube is defined by a tool portion of an end-effector configured for use in a robot-assisted surgery, and wherein a determination of the presence of the metallic surgical device in the hollow tube prevents movement of the end-effector.
A human IgG1 isotype antibody that binds CD38 for use in the treatment of cancer, wherein the antibody is for administration, or to be administered, in combination therapy with at least one corticosteroid, wherein said at least one corticosteroid comprises a glucocorticoid, and at least one non-corticosteroid chemotherapeutic agent, wherein said at least one non-corticosteroid chemotherapeutic agent comprises (i) thalidomide or a thalidomide analog and/or (ii) a proteasome inhibitor, and wherein said antibody comprises human light chain and human heavy variable regions, wherein the light chain variable region comprises a V L CDR1 having the sequence as set forth in SEQ ID NO:13, a V L CDR2 having the sequence as set forth in SEQ ID NO:14 and a V L CDR3 having the sequence as set forth in SEQ ID NO:15, and the heavy chain variable region comprises a V H CDR1 having the sequence as set forth in SEQ ID NO:18, a V H CDR2 having the sequence as set forth in SEQ ID NO:19 and a V H CDR3 having the sequence as set forth in SEQ ID NO:20.
An anti-BAFF monoclonal antibody molecule comprising a light chain variable domain of SEQ ID NO: 93 and a heavy chain variable domain of SEQ ID NO: 114.
Method for adopting a proposed standard value in the control apparatus of a medical device, including the steps of: outputting a first parameter value characterizing the medical device, said first parameter value being a standard value, handwritten inputting of a second parameter value characterizing the device, wherein the input is implemented by way of a touch-sensitive area and the second parameter value characterizing the device is obtained by analysing the handwritten input by means of handwriting recognition software kept available in the medical device and translating the input into a numerical value by way of the handwriting recognition software, checking the second parameter value, the check comprising comparing the second parameter value characterizing the medical device to the first parameter value characterizing the medical device, prompting the control apparatus to adopt the output standard value for parameterizing a control program for controlling the medical device if the input second parameter value characterizing the device corresponds to the first parameter value characterizing the medical device. outputting a first parameter value characterizing the medical device, said first parameter value being a standard value, handwritten inputting of a second parameter value characterizing the device, wherein the input is implemented by way of a touch-sensitive area and the second parameter value characterizing the device is obtained by analysing the handwritten input by means of handwriting recognition software kept available in the medical device and translating the input into a numerical value by way of the handwriting recognition software, checking the second parameter value, the check comprising comparing the second parameter value characterizing the medical device to the first parameter value characterizing the medical device, prompting the control apparatus to adopt the output standard value for parameterizing a control program for controlling the medical device if the input second parameter value characterizing the device corresponds to the first parameter value characterizing the medical device.
A memory comprising: a plurality of bit cells (210, 212, 214, 216) arranged in a row; each bit cell comprising a write port (324, 332) and a read only port (334, 336); a write word line connected to the write ports of the plurality of bit cells; a first read word line connected only to the read only ports of a first subset (210, 214) of the plurality of bit cells; and a second read word line connected only to the read only ports of a second subset (212, 216) of the plurality of bit cells, wherein the first and second subsets are located in the same row of bit cells, and wherein the first and second subsets are different subsets, and wherein the bit cells of the first subset are interdigitated with the bit cells of the second subset. a plurality of bit cells (210, 212, 214, 216) arranged in a row; each bit cell comprising a write port (324, 332) and a read only port (334, 336); a write word line connected to the write ports of the plurality of bit cells; a first read word line connected only to the read only ports of a first subset (210, 214) of the plurality of bit cells; and a second read word line connected only to the read only ports of a second subset (212, 216) of the plurality of bit cells, wherein the first and second subsets are located in the same row of bit cells, and wherein the first and second subsets are different subsets, and wherein the bit cells of the first subset are interdigitated with the bit cells of the second subset.
A method for testing a multipath circuit, comprising: activating a testing path into a signal path (102-1, 102-2) of a plurality of signal paths of the multipath circuit, each signal path (102-1, 102-2) comprising a plurality of circuit blocks (103, 104, 106) and a three-way transformer (105-1, 105-2), wherein a first winding (105-1-1, 105-2-1) of the three-way transformer is coupled to a first group of circuit blocks of the plurality of circuit blocks, a second winding (105-1-2, 105-2-2) of the three-way transformer is coupled to a second group of circuit blocks of the plurality of circuit blocks, and wherein the testing path coupled to a third winding (105-1-3, 105-2-3) of a three-way transformer, wherein activating the testing path comprises activation of one or more switches (109, 111) coupled between the third winding of the three-way transformer of each of the plurality of signal paths and a test pin; transmitting one or more deactivation signals via the testing path to at least one of: the one or more circuit blocks of a plurality of circuit blocks within the signal path and one or more common components of a plurality of common components coupled to each of the plurality of signal paths; and testing active ones of each of the plurality of circuit blocks and the plurality of common components using the testing path. activating a testing path into a signal path (102-1, 102-2) of a plurality of signal paths of the multipath circuit, each signal path (102-1, 102-2) comprising a plurality of circuit blocks (103, 104, 106) and a three-way transformer (105-1, 105-2), wherein a first winding (105-1-1, 105-2-1) of the three-way transformer is coupled to a first group of circuit blocks of the plurality of circuit blocks, a second winding (105-1-2, 105-2-2) of the three-way transformer is coupled to a second group of circuit blocks of the plurality of circuit blocks, and wherein the testing path coupled to a third winding (105-1-3, 105-2-3) of a three-way transformer, wherein activating the testing path comprises activation of one or more switches (109, 111) coupled between the third winding of the three-way transformer of each of the plurality of signal paths and a test pin; transmitting one or more deactivation signals via the testing path to at least one of: the one or more circuit blocks of a plurality of circuit blocks within the signal path and one or more common components of a plurality of common components coupled to each of the plurality of signal paths; and testing active ones of each of the plurality of circuit blocks and the plurality of common components using the testing path.
A vehicle control device configured to control switching of a drive mode of a vehicle (3; 3A) including an internal combustion engine and a motor, the vehicle control device comprising a processor configured to switch, in a case where a road surface of a perimeter of a geofencing zone is a road surface on which there is a high probability that the vehicle (3; 3A) slips, in a movement route from an outside of the geofencing zone to an inside of the geofencing zone, the drive mode of the vehicle (3; 3A) to drive by the motor in a state in which there is a low probability that the vehicle (3; 3A) slips, outside the geofencing zone, the geofencing zone being set by a virtual perimeter in which travel of the vehicle (3; 3A) is restricted to travel by a power of the motor, wherein the processor is configured to switch the drive mode of the vehicle (3; 3A) to the drive by the motor at a position where is outside the geofencing zone and where there is the low probability that the vehicle (3; 3A) slips.
A quadrupole mass spectrometer includin a quadrupole mass filter composed of a plurality of electrodes (2a-2d), a quadrupole power source for applying a predetermined voltage to each of the electrodes of the quadrupole mass filter so as to selectively allow an ion having a specific mass-to-charge ratio to pass through the quadrupole mass filter, and a controller for giving the quadrupole power source an instruction on a target voltage corresponding to the mass-to-charge ratio of a target ion, characterised in that the quadrupole power source having a wave detector for detecting a radio-frequency voltage applied to the quadrupole mass filter and generating a DC detection output, a detection output adjuster for adjusting a gain of the detection output generated by the wave detector, a radio-frequency power source which includes a signal generator for generating a radio-frequency signal with a variable frequency and which produces a radio-frequency voltage whose amplitude is based on a comparison between an output of the detection output adjuster and the target voltage and whose frequency is equal to or proportional to the frequency of the radio-frequency signal, a direct-current power source for producing a direct-current voltage based on the output of the detection output adjuster, and a superimposer for superimposing the direct-current voltage produced by the direct-current power source and the radio-frequency voltage produced by the radio-frequency power source, where the radio-frequency voltage superimposed by the superimposer is applied to the quadrupole mass filter after being increased by an LC resonation circuit including, as a component thereof, a stray capacitance between the electrodes of the quadrupole mass filter, and where the LC resonance circuit is tuned by adjusting the frequency of the radio-frequency signal, wherein the detection output adjuster in the quadrupole power source includes an amplifier for amplifying a voltage with a constant gain independent of the frequency of the radio-frequency signal and a first corrector for correcting a voltage at a stage of input to or output from the amplifier according to a ratio of a frequency change so that the radio-frequency voltage applied to the quadrupole mass filter maintains a constant amplitude when the frequency of the radio-frequency signal is changed from a standard frequency for a purpose of tuning, and the quadrupole power source further includes a second corrector for correcting the target voltage according to a square of the ratio of the frequency change when the aforementioned frequency change for the tuning is made.
A method for producing a fermented soybean meal by solid fermentation, comprising inoculating Bacillus amyloliquefaciens strain with Accession No. KCCM11471P into a soybean meal.
An LED filament arrangement providing LED filament arrangement light, comprising: a first LED filament adapted to emit first LED filament light; and a second LED filament adapted to emit second LED filament light, wherein the first LED filament and the second LED filament are parallel, and wherein the first LED filament and the second LED filament are separated by a gap and mechanically connected to each other by a plurality of spacers (30a-c) arranged between the first LED filament and the second LED filament, wherein said plurality of spacers includes at least three spacers (30a-c), preferably at least five spacers, and most preferably at least seven spacers, and wherein the first LED filament comprises a first carrier and the second LED filament comprises a second carrier, and wherein the first carrier, the second carrier, and said plurality of spacers are made from a single carrier. a first LED filament adapted to emit first LED filament light; and a second LED filament adapted to emit second LED filament light, wherein the first LED filament and the second LED filament are parallel, and wherein the first LED filament and the second LED filament are separated by a gap and mechanically connected to each other by a plurality of spacers (30a-c) arranged between the first LED filament and the second LED filament, wherein said plurality of spacers includes at least three spacers (30a-c), preferably at least five spacers, and most preferably at least seven spacers, and wherein the first LED filament comprises a first carrier and the second LED filament comprises a second carrier, and wherein the first carrier, the second carrier, and said plurality of spacers are made from a single carrier.
A method for the preparation of a catalysed monolith, comprising the steps of a) providing a porous monolith substrate with a plurality of longitudinal flow channels separated by gas permeable partition walls, the monolith substrate having a first end face and at a distance to the first end face a second end face; b) in a container providing a sol solution at least in an amount corresponding to pore volume of the gas permeable partition walls, the sol solution containing a water soluble or colloidal precursor of one or more catalytically active compounds and a water soluble or colloidal precursor of one or more metal oxides catalyst carrier compounds, at least one of the one or more precursors is colloid and at least one of the one or more precursors is water soluble; c) placing the monolith substrate substantially vertically in the container with the first or second end face dipped into the sol solution; d) sucking up the sol solely by capillary forces into pores of the permeable partition walls from the end face dipped into the sol solution without applying vacuum or pressure to a predetermined distance in the permeable partition walls from the end face dipped into the sol solution; e) subsequently inverting the monolith substrate and placing the monolith substrate substantially vertically in the container with the opposite end face dipped into the sol solution; f) sucking up the sol solely by capillary forces into pores of the permeable partition walls from the opposite end face dipped into the sol solution without applying vacuum or pressure; and g) drying and calcining the thus coated monolith substrate. a) providing a porous monolith substrate with a plurality of longitudinal flow channels separated by gas permeable partition walls, the monolith substrate having a first end face and at a distance to the first end face a second end face; b) in a container providing a sol solution at least in an amount corresponding to pore volume of the gas permeable partition walls, the sol solution containing a water soluble or colloidal precursor of one or more catalytically active compounds and a water soluble or colloidal precursor of one or more metal oxides catalyst carrier compounds, at least one of the one or more precursors is colloid and at least one of the one or more precursors is water soluble; c) placing the monolith substrate substantially vertically in the container with the first or second end face dipped into the sol solution; d) sucking up the sol solely by capillary forces into pores of the permeable partition walls from the end face dipped into the sol solution without applying vacuum or pressure to a predetermined distance in the permeable partition walls from the end face dipped into the sol solution; e) subsequently inverting the monolith substrate and placing the monolith substrate substantially vertically in the container with the opposite end face dipped into the sol solution; f) sucking up the sol solely by capillary forces into pores of the permeable partition walls from the opposite end face dipped into the sol solution without applying vacuum or pressure; and g) drying and calcining the thus coated monolith substrate.
A nucleotide composition for use in a method of promoting reparation of enterocytes after damage caused by oxidation, wherein on the weight basis, the composition consists of CMP, AMP, UMP and GMP, and the proportions of the components are CMP: 58-72%, AMP: 6-14%, UMP: 10-18% and GMP: 8-14%, provided that sum of the components is 100%, wherein the method involves administering the nucleotide composition to a subject.
A method for multiple level program verify in a memory device, the method comprising: applying a plurality of programming pulses to a selected memory cell; and performing a program verify after each programming pulse wherein a voltage of the program verify changes in response to a programming voltage of an associated programming pulse; wherein the programming voltage of the associated programming pulse is greater than or equal to a reference voltage; and wherein the reference voltage is determined in response to quick charge loss characteristics of the memory device. applying a plurality of programming pulses to a selected memory cell; and performing a program verify after each programming pulse wherein a voltage of the program verify changes in response to a programming voltage of an associated programming pulse; wherein the programming voltage of the associated programming pulse is greater than or equal to a reference voltage; and wherein the reference voltage is determined in response to quick charge loss characteristics of the memory device.
A method of lyophilizing a pharmaceutical substance in a liquid formulation, wherein the pharmaceutical substance is an unconjugated polysaccharide of one of the serotypes of Pneumococcal 13-Valent vaccine (Serotype X) and the formulation including the polysaccharide, sucrose and Diphteria CRM 197 protein, the method comprising a freezing step, wherein water in the liquid formulation is converted to ice, followed by a primary drying step, characterized in that the primary drying step removes water in the pharmaceutical substance by direct sublimation, and is executed at a product temperature at or above the collapse temperature but below the eutectic melting temperature without avoiding cake collapse, wherein collapse temperature is the temperature at which the lyophilized cake loses or changes its original structure, such that the lyophilized pharmaceutical substance is suitable for later reconstitution to a biologically or pharmaceutically active substance.
Process for producing nanostructured layers, comprising the following stages: a) providing a free-flowing composition comprising nanoscale inorganic solid particles having polymerizable and/or polycondensable surface groups; b) applying the composition from stage a) to a substrate; and c) polymerizing and/or polycondensing the surface groups of the solid particles to form a cured layer, wherein stage c) includes a photochemical polymerization/polycondensation. a) providing a free-flowing composition comprising nanoscale inorganic solid particles having polymerizable and/or polycondensable surface groups; b) applying the composition from stage a) to a substrate; and c) polymerizing and/or polycondensing the surface groups of the solid particles to form a cured layer,