mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a host device configured to operate a plurality of user applications (110a-c), the host device including a connection host module, a plurality of communication ports (116a-c) and a plurality of data interfaces (114a-c); a modem module comprising a plurality of modems (122a-c); a serial connection operative to transfer information in accordance with a USB convention between the connection host module and the plurality of modems, the information comprising a plurality of types of data associated with the plurality of user applications and commands for the plurality of modems; wherein each of the plurality of communication ports and each of the plurality of data interfaces corresponds to a particular one of the plurality of modems; and characterized in that: said serial connection comprises a plurality of logical channels implemented with signal levels for a logical low level and a logical high level, wherein the logical high signal level is less than transceiver signal levels specified for logical high signals in accordance with the USB convention to exchange information across the serial connection with logical high signal levels lower than transceiver signals specified for logical high signal in accordance with the USB convention. a host device configured to operate a plurality of user applications (110a-c), the host device including a connection host module, a plurality of communication ports (116a-c) and a plurality of data interfaces (114a-c); a modem module comprising a plurality of modems (122a-c); a serial connection operative to transfer information in accordance with a USB convention between the connection host module and the plurality of modems, the information comprising a plurality of types of data associated with the plurality of user applications and commands for the plurality of modems; wherein each of the plurality of communication ports and each of the plurality of data interfaces corresponds to a particular one of the plurality of modems; and characterized in that: said serial connection comprises a plurality of logical channels implemented with signal levels for a logical low level and a logical high level, wherein the logical high signal level is less than transceiver signal levels specified for logical high signals in accordance with the USB convention to exchange information across the serial connection with logical high signal levels lower than transceiver signals specified for logical high signal in accordance with the USB convention. said serial connection comprises a plurality of logical channels implemented with signal levels for a logical low level and a logical high level, wherein the logical high signal level is less than transceiver signal levels specified for logical high signals in accordance with the USB convention to exchange information across the serial connection with logical high signal levels lower than transceiver signals specified for logical high signal in accordance with the USB convention.
An electronic circuit (51; 61; 71; 81) configured to provide an adjustable impedance at a first frequency, said circuit comprising: • a first transconductance amplifier arranged to receive an input signal at an input terminal of the electronic circuit and provide a first current signal proportional to said input signal; • at least one conversion arrangement, each comprising: • a first mixer arrangement (53; 63; 73; 83) arranged to utilize a first local oscillator signal at said first frequency to down-convert said first current signal to a baseband voltage signal at an output of the mixer arrangement; • a filtering arrangement (54, 55; 64, 65; 74, 75; 84, 85) connected to the output of said first mixer arrangement (53; 63; 73; 83) and comprising at least a resistor and a capacitor in parallel; and • a second mixer arrangement (56; 66; 76; 86) arranged to utilize a second local oscillator signal at said first frequency to up-convert a voltage signal present at said filter arrangement to an up-converted voltage signal at its output; and • a second transconductance amplifier arranged to receive said up-converted voltage signal and provide a second current signal proportional thereto and to feed back said second current signal to the input terminal of the electronic circuit. • a first transconductance amplifier arranged to receive an input signal at an input terminal of the electronic circuit and provide a first current signal proportional to said input signal; • at least one conversion arrangement, each comprising: • a first mixer arrangement (53; 63; 73; 83) arranged to utilize a first local oscillator signal at said first frequency to down-convert said first current signal to a baseband voltage signal at an output of the mixer arrangement; • a filtering arrangement (54, 55; 64, 65; 74, 75; 84, 85) connected to the output of said first mixer arrangement (53; 63; 73; 83) and comprising at least a resistor and a capacitor in parallel; and • a second mixer arrangement (56; 66; 76; 86) arranged to utilize a second local oscillator signal at said first frequency to up-convert a voltage signal present at said filter arrangement to an up-converted voltage signal at its output; and • a first mixer arrangement (53; 63; 73; 83) arranged to utilize a first local oscillator signal at said first frequency to down-convert said first current signal to a baseband voltage signal at an output of the mixer arrangement; • a filtering arrangement (54, 55; 64, 65; 74, 75; 84, 85) connected to the output of said first mixer arrangement (53; 63; 73; 83) and comprising at least a resistor and a capacitor in parallel; and • a second mixer arrangement (56; 66; 76; 86) arranged to utilize a second local oscillator signal at said first frequency to up-convert a voltage signal present at said filter arrangement to an up-converted voltage signal at its output; and • a second transconductance amplifier arranged to receive said up-converted voltage signal and provide a second current signal proportional thereto and to feed back said second current signal to the input terminal of the electronic circuit.
A composition for the transdermal delivery of amphetamine in the form of a flexible finite system for topical application, comprising a polymer matrix comprising a polymer and amphetamine or lisdexamfetamine or a pharmaceutically acceptable salt thereof, wherein the composition comprises polyurethane in an amount effective to control the presence of and/or prevent the formation of phenyl acetone in the polymer matrix, and wherein the polyurethane is included in the polymer matrix and/or is comprised in a layer adjacent the polymer matrix in the form of a polyurethane fiber, particle or powder.
Gas stove arrangement (1b, 1c) for supporting a wok, the arrangement comprising: a gas stove having at least one gas-operated gas hob (2b, 2c) with a gas burner, and a wok support (14, 26) designed to be positioned on the gas hob (2b, 2c), wherein the wok support (14, 26) is designed to support a wok and is designed to receive a bottom portion of a wok when positioned on the wok support (14, 26), wherein the gas burner has a wok burner top which is provided with a top surface area having a symmetry or rotational symmetry and being arranged to at least partially face a bottom portion of a wok when the latter is positioned in said wok support (14, 26), and wherein said top surface area is provided with a plurality of gas-air mix outlet openings arranged in groups, each group comprising a plurality of said gas-air mix outlet openings aligned radially, or substantially radially, along said top surface area, wherein the gas hob (2b, 2c) has a pan supporting structure designed to support a pan above the gas burner, wherein the wok support (14, 26) has recesses and/or extensions (15, 27a), the recesses and/or extensions (15, 27a) are designed to receive supporting elements of the pan supporting structure therebetween for laterally holding the wok support (14, 26) on the pan supporting structure, and characterized in that the maximum spacing (d) between neighboring gas-air mix outlet openings in one of said groups is less than the minimum spacing between the gas-air mix outlet openings of two neighboring groups (32a, 32b). a gas stove having at least one gas-operated gas hob (2b, 2c) with a gas burner, and a wok support (14, 26) designed to be positioned on the gas hob (2b, 2c), wherein the wok support (14, 26) is designed to support a wok and is designed to receive a bottom portion of a wok when positioned on the wok support (14, 26), wherein the gas burner has a wok burner top which is provided with a top surface area having a symmetry or rotational symmetry and being arranged to at least partially face a bottom portion of a wok when the latter is positioned in said wok support (14, 26), and wherein said top surface area is provided with a plurality of gas-air mix outlet openings arranged in groups, each group comprising a plurality of said gas-air mix outlet openings aligned radially, or substantially radially, along said top surface area, wherein the gas hob (2b, 2c) has a pan supporting structure designed to support a pan above the gas burner, wherein the wok support (14, 26) has recesses and/or extensions (15, 27a), the recesses and/or extensions (15, 27a) are designed to receive supporting elements of the pan supporting structure therebetween for laterally holding the wok support (14, 26) on the pan supporting structure, and characterized in that the maximum spacing (d) between neighboring gas-air mix outlet openings in one of said groups is less than the minimum spacing between the gas-air mix outlet openings of two neighboring groups (32a, 32b).
A surgical scalpel for performing the Seldinger technique comprising: a cylindrical tube; a rigid body having a proximal end and a distal end; wherein a portion of the cylindrical tube is encased within a top portion of the proximal end of the rigid body; and a blade attached to the distal end of the rigid body; wherein a length of the cylindrical tube extends from near a tip of the blade to the proximal end of the rigid body; wherein a diameter of the cylindrical tube is great enough to accommodate a guidewire, and wherein the cylindrical tube sits on top of the blade to minimize a distance between the tip of the blade and the guidewire, and wherein the tip of the blade is in line with the guidewire; wherein an end of the cylindrical tube located near the tip of the blade has a beveled edge. a cylindrical tube; a rigid body having a proximal end and a distal end; wherein a portion of the cylindrical tube is encased within a top portion of the proximal end of the rigid body; and a blade attached to the distal end of the rigid body; wherein a length of the cylindrical tube extends from near a tip of the blade to the proximal end of the rigid body; wherein a diameter of the cylindrical tube is great enough to accommodate a guidewire, and wherein the cylindrical tube sits on top of the blade to minimize a distance between the tip of the blade and the guidewire, and wherein the tip of the blade is in line with the guidewire; wherein an end of the cylindrical tube located near the tip of the blade has a beveled edge.
An ocular surgical apparatus comprising: a surgical control device configured to receive input from a user to control at least one ocular surgical parameter and output a series of values; and a buffer configured to receive the series of values from the surgical control device and comprising a detection area and an exclusion area; and a controller configured to receive the series of values from the surgical control device and evaluate the series of values sequentially as the values are provided from the buffer, wherein presence of a desired value in the detection area and an absence of a contrary indication in the exclusion area is determined by the controller to indicate a switch associated with the surgical control device is requested by a user of the surgical control device such that the controller effectuates the function associated with the switch. a surgical control device configured to receive input from a user to control at least one ocular surgical parameter and output a series of values; and a buffer configured to receive the series of values from the surgical control device and comprising a detection area and an exclusion area; and a controller configured to receive the series of values from the surgical control device and evaluate the series of values sequentially as the values are provided from the buffer, wherein presence of a desired value in the detection area and an absence of a contrary indication in the exclusion area is determined by the controller to indicate a switch associated with the surgical control device is requested by a user of the surgical control device such that the controller effectuates the function associated with the switch.
Discharge valve including an aeration means for a vacuum sewer system comprising a sewage receptacle, sewer piping, a vacuum generating means for generating vacuum in the sewer piping, and a control mechanism, which discharge valve including the aeration means is arranged to be installed between the sewage receptacle and the sewer piping and is controlled by the control mechanism, characterised in that the aeration means is arranged to provide direct fluid communication to the discharge valve and is in the form of a rapid vent valve and comprises a valve plate arranged to open or close against a valve seat in the discharge valve, that the valve plate is arranged to be withdrawn from the valve seat so that air is supplied directly to the discharge valve through the open valve seat for rapidly closing the discharge valve after a discharge or flushing sequence, and in that the valve plate is arranged to be closed against the valve seat when the discharge valve is provided with vacuum supplied by the control mechanism for opening the discharge valve for the discharge or flushing sequence.
Attachment device for a pipe stem provided with one or more radially projecting function elements made to be arranged on a downhole tubular body, wherein an end portion of the pipe stem or an end portion of a supporting sleeve for abutting the pipe stem, which is arranged to surround a portion of the tubular body, is provided with an attachment portion which includes at least one clamping element (1312, 1312') arranged for radial displacement so as to rest, in an active position, against the tubular body, wherein said at least one clamping element (1312, 1312') is arranged for radial displacement by the abutment of an abutment surface against a conical abutment portion on a surrounding adapter sleeve, characterized in that an external locking portion of the end portion is formed as several catches extending in the circumferential direction of a jacket surface of the attachment portion and being arranged to engage corresponding engagement elements projecting inwards on the adapter sleeve, the circumferential extent of the catches being defined by slits penetrating at least the locking portion and extending substantially in the axial direction of the attachment portion.
A composition for a non-aqueous secondary battery functional layer, comprising non-conductive particles, a water-soluble polymer, and a water-insoluble polymer; wherein the water-soluble polymer comprises 70% by mass or more and 99% by mass or less of a (meth)acrylamide monomer unit and has a degree of swelling in electrolyte solution of greater than 1.0 time and 2.0 times or less, measured as described in the example <Degree of Swelling in Electrolyte Solution> of the description; and the water-insoluble polymer has a volume-average particle diameter of 0.01 μm or more and 0.30 μm or less, measured by laser diffraction method as described in the example <Volume-Average Particle Diameter of Non-Conductive Particles> of the description.
A method for very short pitch detection and coding, the method is characterized by being implemented by an apparatus for speech or audio coding, the method comprising: detecting in a speech or audio signal a very short pitch lag shorter than a predetermined PIT_MIN value corresponding to a minimum pitch limitation as defined by a predetermined Code Excited Linear Prediction Technique (CELP) algorithm, using a combination of time domain and frequency domain pitch detection techniques including using pitch correlation and detecting a lack of low frequency energy; and coding the very short pitch lag for the speech or audio signal in a range from a minimum very short pitch limitation to PIT_MIN, wherein the minimum very short pitch limitation is predetermined and is smaller than PIT_MIN; wherein, the detecting a lack of low frequency energy comprises: defining Ratio = Energy 1 − Energy 0; where Ratio is an energy ratio, Energy0 is a first energy detected in decibel, dB, in a first frequency region [ 0, F MIN] Hz, Energy1 is a second energy detected in dB in a second frequency region [ F MIN, 900] Hz, and F MIN is a predetermined minimum frequency; adjusting the energy ratio using an average normalized pitch correlation as Ratio = Ratio ⋅ Voicing; where the Ratio on the right side of the equation represents the energy ratio to be adjusted; the Ratio on the left side of the equation represents the adjusted energy ratio; and Voicing represents the average normalized pitch correlation; and determining that the lack of low frequency energy is detected if the adjusted energy ratio is larger than a predetermined threshold. detecting in a speech or audio signal a very short pitch lag shorter than a predetermined PIT_MIN value corresponding to a minimum pitch limitation as defined by a predetermined Code Excited Linear Prediction Technique (CELP) algorithm, using a combination of time domain and frequency domain pitch detection techniques including using pitch correlation and detecting a lack of low frequency energy; and coding the very short pitch lag for the speech or audio signal in a range from a minimum very short pitch limitation to PIT_MIN, wherein the minimum very short pitch limitation is predetermined and is smaller than PIT_MIN; wherein, the detecting a lack of low frequency energy comprises: defining Ratio = Energy 1 − Energy 0; where Ratio is an energy ratio, Energy0 is a first energy detected in decibel, dB, in a first frequency region [ 0, F MIN] Hz, Energy1 is a second energy detected in dB in a second frequency region [ F MIN, 900] Hz, and F MIN is a predetermined minimum frequency; adjusting the energy ratio using an average normalized pitch correlation as Ratio = Ratio ⋅ Voicing; where the Ratio on the right side of the equation represents the energy ratio to be adjusted; the Ratio on the left side of the equation represents the adjusted energy ratio; and Voicing represents the average normalized pitch correlation; and determining that the lack of low frequency energy is detected if the adjusted energy ratio is larger than a predetermined threshold.
Use of 2-fluoro-N-methyl-4-[7-(quinolin-6-ylmethyl)imidazo[1,2-b][1,2,4]triazin-2-yl]benzamide, or a pharmaceutically acceptable salt thereof, for the preparation of a medicament for the treatment of lung cancer, liver cancer, gastric cancer, glioblastoma, breast cancer, or cancer of the kidney.
A compound having the formula: wherein R 1 is selected from the group consisting of a pegylated ester, a hydroxylated ester, a branched hydroxylated ester, and an oxalic acid mixed pegylated ester.
A method for receiving a Physical Downlink Shared Channel, PDSCH, in a user equipment, UE, from a base station, BS, in a wireless communication system, the method comprising: receiving information related to one or more control resource sets, CORESETs; receiving rate matching information via radio resource control; receiving Downlink Control Information, DCI, for scheduling the PDSCH; and receiving the PDSCH based on the DCI, wherein the PDSCH is mapped into at least one CORESET among the one or more CORESETs on the basis of the rate matching info, and based on the one or more CORESETs partially overlapping a resource region of the PDSCH on the frequency axis: - receiving, based on the DCI not indicating a first OFDM symbol index of the PDSCH, a demodulation reference signal, DMRS, for the PDSCH in an orthogonal frequency divisional multiplexing, OFDM, symbol after a last OFDM symbol of the one or more CORESETs; - receiving, based on the DCI indicating an OFDM symbol index of the PDSCH, the DMRS for the PDSCH in an OFDM symbol located before an OFDM symbol corresponding to the OFDM symbol index; - wherein the DMRS is mapped to a frequency resource in which the one or more CORESETs and the resource region of the PDSCH do not overlap. receiving information related to one or more control resource sets, CORESETs; receiving rate matching information via radio resource control; receiving Downlink Control Information, DCI, for scheduling the PDSCH; and receiving the PDSCH based on the DCI, wherein the PDSCH is mapped into at least one CORESET among the one or more CORESETs on the basis of the rate matching info, and based on the one or more CORESETs partially overlapping a resource region of the PDSCH on the frequency axis: - receiving, based on the DCI not indicating a first OFDM symbol index of the PDSCH, a demodulation reference signal, DMRS, for the PDSCH in an orthogonal frequency divisional multiplexing, OFDM, symbol after a last OFDM symbol of the one or more CORESETs; - receiving, based on the DCI indicating an OFDM symbol index of the PDSCH, the DMRS for the PDSCH in an OFDM symbol located before an OFDM symbol corresponding to the OFDM symbol index; - wherein the DMRS is mapped to a frequency resource in which the one or more CORESETs and the resource region of the PDSCH do not overlap. - receiving, based on the DCI not indicating a first OFDM symbol index of the PDSCH, a demodulation reference signal, DMRS, for the PDSCH in an orthogonal frequency divisional multiplexing, OFDM, symbol after a last OFDM symbol of the one or more CORESETs; - receiving, based on the DCI indicating an OFDM symbol index of the PDSCH, the DMRS for the PDSCH in an OFDM symbol located before an OFDM symbol corresponding to the OFDM symbol index; - wherein the DMRS is mapped to a frequency resource in which the one or more CORESETs and the resource region of the PDSCH do not overlap.
Inherent fail safe enabling control and command unit with two out of two architecture comprising a logic processing unit with two processing channels executing in a completely independent way and in parallel the same processing program on same input data and generating two output signals (INPUT_DATI_Q_A and INPUT_DATI_Q_N_B) to a voter unit comprising a signal comparator for determining the congruence of the two output signals and a signal generator (140, 150) for generating a vital output signal only as long as the two signals (INPUT_DATI_Q_A and INPUT_DATI_Q_N_B) are congruent, and in which the said voter unit comprises a status signal generator of status signals (VOTER_OUT_4 and VOTER_OUT_5) of the voter, which signals are fed to a processing unit, characterized in that the said processing unit is the logic processing unit which generates a driving signal (ENABLE) of voter power module to generate a power signal (-24V, ++12V, --24VF, ++12VF) of the voter as long as the status signals (VOTER_OUT_4 and VOTER_OUT_5) corresponds to a non faulty status of the voter; and the voter unit has timer means (140; 141) for measuring the frequency of the incongruence events in the comparison of the two output signals and for disabling the vital output signal only for a predetermined and limited time period when the incongruence events are one isolated event or the frequency of the said incongruence is lower than a certain threshold; the said timer means comprising an oscillator having the function of an AND circuit with four inputs and generating an output signal (V-temp) only if the voltage at the said inputs is higher than a certain value; the output signal of the comparator, a feed back of the vital output signal (V-temp) and the starter signal (12Vdc-starter) of a starter circuit being fed to the timer circuit inputs.