mhurhangee/ep-ind-claims huggingface dataset:
A method for detecting synthetic indole and indazole cannabinoids selected from the group consisting of: said method comprising: providing a solid botanical sample suspected to contain synthetic indole or indazole cannabinoids; adding a deuterated solvent to the solid botanical sample to create a suspension; mixing the suspension to release synthetic indole or indazole cannabinoids from the solid botanical sample; subjecting the suspension to a NMR spectroscopy process to produce a sample NMR spectrum; detecting the synthetic indole or indazole cannabinoids in the suspension by analysis of the sample NMR spectrum; wherein the NMR spectroscopy process comprises at least one of one-dimensional proton NMR, said analysis in this case comprising detection of a first peak between 8.00 and 8.50 ppm, and a second peak between 4.00 and 4.40 ppm in a corresponding sample NMR spectrum, ppm, and proton-proton two-dimensional COSY NMR, said analysis in this case comprising detection of a first spot between 6.5 and 9 ppm, and a second spot between 1.50 and 4.50 ppm in a corresponding sample NMR spectrum; wherein said method is performed in the absence of chromatography prior to NMR analysis; and wherein the method optionally further comprises quantifying the amount of synthetic indole or indazole cannabinoids. providing a solid botanical sample suspected to contain synthetic indole or indazole cannabinoids; adding a deuterated solvent to the solid botanical sample to create a suspension; mixing the suspension to release synthetic indole or indazole cannabinoids from the solid botanical sample; subjecting the suspension to a NMR spectroscopy process to produce a sample NMR spectrum; detecting the synthetic indole or indazole cannabinoids in the suspension by analysis of the sample NMR spectrum; wherein the NMR spectroscopy process comprises at least one of one-dimensional proton NMR, said analysis in this case comprising detection of a first peak between 8.00 and 8.50 ppm, and a second peak between 4.00 and 4.40 ppm in a corresponding sample NMR spectrum, ppm, and proton-proton two-dimensional COSY NMR, said analysis in this case comprising detection of a first spot between 6.5 and 9 ppm, and a second spot between 1.50 and 4.50 ppm in a corresponding sample NMR spectrum; wherein said method is performed in the absence of chromatography prior to NMR analysis; and wherein the method optionally further comprises quantifying the amount of synthetic indole or indazole cannabinoids. one-dimensional proton NMR, said analysis in this case comprising detection of a first peak between 8.00 and 8.50 ppm, and a second peak between 4.00 and 4.40 ppm in a corresponding sample NMR spectrum, ppm, and proton-proton two-dimensional COSY NMR, said analysis in this case comprising detection of a first spot between 6.5 and 9 ppm, and a second spot between 1.50 and 4.50 ppm in a corresponding sample NMR spectrum; wherein said method is performed in the absence of chromatography prior to NMR analysis; and wherein the method optionally further comprises quantifying the amount of synthetic indole or indazole cannabinoids.
Electric heating device, particularly a booster heater for a motor vehicle, - having a housing comprising a flow chamber that allows the passage of a medium in a flow direction, - wherein the housing comprises two opposing walls that extend in an upward direction crossing the flow direction and delimit the flow chamber, - having an electric heating element that is located inside the flow chamber to heat a fluid that flows through the flow chamber, - having a printed circuit board that is furnished with at least one electric component for controlling the heating element, - wherein the printed circuit board is located inside the housing, - wherein the heating device comprises a flow guidance element with a diversion section for diverting the fluid flowing in the flow direction towards the printed circuit board, - wherein the flow guidance element extends over a subsection of the flow chamber in upward direction, characterised in that the printed circuit board delimits the flow chamber. - having a housing comprising a flow chamber that allows the passage of a medium in a flow direction, - wherein the housing comprises two opposing walls that extend in an upward direction crossing the flow direction and delimit the flow chamber, - having an electric heating element that is located inside the flow chamber to heat a fluid that flows through the flow chamber, - having a printed circuit board that is furnished with at least one electric component for controlling the heating element, - wherein the printed circuit board is located inside the housing, - wherein the heating device comprises a flow guidance element with a diversion section for diverting the fluid flowing in the flow direction towards the printed circuit board, - wherein the flow guidance element extends over a subsection of the flow chamber in upward direction,
A travel support device for supporting a vehicle having an internal combustion engine and a motor as drive sources to move from a current location to a destination, the travel support device comprising a planner adapted to plan vehicle travel modes to be respectively assigned to each of a plurality of sections into which a travel route from the current location to the destination is divided, wherein the planner is adapted to assign, to each of the plurality of sections and based on a road load associated with the respective sections, a travel mode among a first mode, in which a remaining energy charge of a battery of the vehicle is not maintained, and a second mode, in which the remaining energy charge of the battery is maintained, characterized in that the planner is adapted to identify, from among the plurality of sections, an excessive altitude change section, in which a change of altitude is predicted to be greater than or equal to a predetermined value, and assign the second mode with priority to the excessive altitude change section before assigning the travel mode based on the road load.
A control device for controlling movements and/or functions of an operating table, the device having means for selecting a wired mode of connection with the operating table and a wireless mode of connection with the operating table, and a manual activation interface for activating movements and/or functions that, in the wired connection mode, enables a first set of movements and/or functions of the operating table to be controlled, and in the wireless connection mode enables a second set of movements and/or functions of the operating table to be controlled, the device being characterized in that it comprises means for selecting a contact mode of connection with the operating table or with an accessory connected to the operating table, the manual activation interface making it possible, in the contact connection mode, to control a third set of movements and/or functions of the operating table.
Apparatus for generating high-voltage pulses, in particular an inductive voltage adder, wherein, during pulse generation, electromagnetic fields of a series circuit of a number n of discrete stages of voltage sources which are arranged along a wave propagation main axis are combined in a transformer, wherein, in each stage, waves respectively propagate along a radial transmission line having a first characteristic impedance into a coaxial transmission line having a second characteristic impedance, characterized in that, in contrast to the subsequent stages, a continuous transition from the first characteristic impedance to the second characteristic impedance is created in the first stage using a steady and continuous transition region from the radial transmission line to the coaxial transmission line.
Cosmetic or dermatological preparation comprising a) one or more lipids, b) at least one W/O emulsifier c) at least 0.05% by weight of one or more superabsorbents, based on the total mass of the preparation, characterized in that the preparation comprises a maximum of 1% by weight of water, advantageously less than 0.3% by weight water, based on the total mass of the preparation. a) one or more lipids, b) at least one W/O emulsifier c) at least 0.05% by weight of one or more superabsorbents, based on the total mass of the preparation,
A silica hydrogel composite comprising at least one active pharmaceutical ingredient, wherein the silica hydrogel composite is obtainable by mixing a. non-active silica particles having a diameter of ≤ 100 μm measured by laser diffraction, b. a silica sol, having a solid content in the silica sol less than 3 weight-%, and c. solid particles of at least one active pharmaceutical ingredient, the particles having preferably a diameter of ≤ 300 μm, wherein the silica hydrogel composite comprises up to 75 weight-% of said non-active silica particles and wherein the silica hydrogel composite is non-flowing and structurally stable when stored at rest and shear-thinning when shear stress is applied by injection. a. non-active silica particles having a diameter of ≤ 100 μm measured by laser diffraction, b. a silica sol, having a solid content in the silica sol less than 3 weight-%, and c. solid particles of at least one active pharmaceutical ingredient, the particles having preferably a diameter of ≤ 300 μm,
An data distribution system (300, 400) for use in a network-based data distribution system, the data distribution system (300, 400) comprising: a first physical layer device (306, 406) being configurable for interfacing with a plurality of destination devices via corresponding physical layer links (320, 416); a second physical layer device (304, 404) connectable between a network processor (302, 402), which is operative in a link layer or higher layer, and the first physical layer device (306, 406), wherein the second physical layer device (304, 404) is operative: (i) to receive a data stream from the network processor (302, 402), the data stream comprising a first data portion including broadcast data and a second data portion including user-specific data; (ii) to convert the data stream received from the network processor (302, 402) to a format suitable for use by the first physical layer device (306, 406), (iii) to identify the user-specific data and configure these data into a format suitable for use by an intended destination device, (iv) to transmit the broadcast data (314, 318) to the first physical layer device (306, 406) for replication; and (v) to transmit the user-specific data (312, 316) to the first physical layer device (306, 406) for simply routing through to the at least one destination device, and wherein the first physical layer device (306, 406) is operative to replicate the broadcast data at a physical layer for distribution to at least two of the plurality of destination devices associated with the physical layer links (320, 416). a first physical layer device (306, 406) being configurable for interfacing with a plurality of destination devices via corresponding physical layer links (320, 416); a second physical layer device (304, 404) connectable between a network processor (302, 402), which is operative in a link layer or higher layer, and the first physical layer device (306, 406), wherein the second physical layer device (304, 404) is operative: (i) to receive a data stream from the network processor (302, 402), the data stream comprising a first data portion including broadcast data and a second data portion including user-specific data; (ii) to convert the data stream received from the network processor (302, 402) to a format suitable for use by the first physical layer device (306, 406), (iii) to identify the user-specific data and configure these data into a format suitable for use by an intended destination device, (iv) to transmit the broadcast data (314, 318) to the first physical layer device (306, 406) for replication; and (v) to transmit the user-specific data (312, 316) to the first physical layer device (306, 406) for simply routing through to the at least one destination device, and wherein the first physical layer device (306, 406) is operative to replicate the broadcast data at a physical layer for distribution to at least two of the plurality of destination devices associated with the physical layer links (320, 416).
A method for post treatment of titanium dioxide pigment particles comprising, in sequence: a) preparing an aqueous slurry of titanium dioxide pigment core particles with a pH value of about 4.0 to about 6.0, b) adding to the aqueous slurry of titanium dioxide pigment core particles a sufficient quantity of water soluble compounds of zirconia and silica, in sequence, to co-precipitate hydrous zirconia-silica as a composite layer on the core particles, at an acidic pH and without any pH adjustment, to form a mixture, c) digesting the mixture for about 10 to about 30 minutes to complete the precipitation and form a suspension, d) adding a sufficient quantity of water soluble alkaline alumina compound to the suspension in a single step, without any pH adjustment, to form a resulting slurry, e) adjusting the pH of the resulting slurry, if needed, to achieve a pH from about 8.0 to about 8.5 and form a resultant mixture, f) digesting the resultant mixture for about 10 to about 30 minutes to complete the precipitation of hydrous alumina and form a second suspension comprising treated pigment, g) adjusting the pH of the second suspension, if needed, to achieve a pH value of from about 6.0 to about 8.0, h) filtering the second suspension, and i) drying the treated pigment. a) preparing an aqueous slurry of titanium dioxide pigment core particles with a pH value of about 4.0 to about 6.0, b) adding to the aqueous slurry of titanium dioxide pigment core particles a sufficient quantity of water soluble compounds of zirconia and silica, in sequence, to co-precipitate hydrous zirconia-silica as a composite layer on the core particles, at an acidic pH and without any pH adjustment, to form a mixture, c) digesting the mixture for about 10 to about 30 minutes to complete the precipitation and form a suspension, d) adding a sufficient quantity of water soluble alkaline alumina compound to the suspension in a single step, without any pH adjustment, to form a resulting slurry, e) adjusting the pH of the resulting slurry, if needed, to achieve a pH from about 8.0 to about 8.5 and form a resultant mixture, f) digesting the resultant mixture for about 10 to about 30 minutes to complete the precipitation of hydrous alumina and form a second suspension comprising treated pigment, g) adjusting the pH of the second suspension, if needed, to achieve a pH value of from about 6.0 to about 8.0, h) filtering the second suspension, and i) drying the treated pigment.
A method for a mail transfer agent (sender MTA, intermediate MTA) for transmitting an electronic message (mail) from a sender to a mail user agent or mail submission agent as a recipient, comprising: • receiving the electronic message (mail), the electronic message (mail) comprising a recipient address with a recipient domain, • based on the recipient domain of the received electronic message, determining an incoming mail server (recipient MX) responsible for the recipient domain, • forwarding the received electronic message to the incoming mail server (recipient MX) responsible for the recipient domain, the forwarding comprising the following steps: • establishing a connection to the responsible incoming mail server (recipient MX) using a network protocol, • requesting secure transmission via the established connection and evaluating certificate information transmitted via the secure transmission, characterized in that the evaluation of the certificate information transmitted via the secure transmission involves a comparison of the certificate information with a locally stored assignment of the recipient domain and associated, previously stored certificate information, and, if the comparison was successful, the electronic message (mail) is sent to the responsible incoming mail server (recipient MX), and the mail transfer agents involved (sender MTA, intermediate MTA) exchange certificate information for local storage and comparison via another secure connection. • receiving the electronic message (mail), the electronic message (mail) comprising a recipient address with a recipient domain, • based on the recipient domain of the received electronic message, determining an incoming mail server (recipient MX) responsible for the recipient domain, • forwarding the received electronic message to the incoming mail server (recipient MX) responsible for the recipient domain, the forwarding comprising the following steps: • establishing a connection to the responsible incoming mail server (recipient MX) using a network protocol, • requesting secure transmission via the established connection and evaluating certificate information transmitted via the secure transmission, characterized in that • establishing a connection to the responsible incoming mail server (recipient MX) using a network protocol, • requesting secure transmission via the established connection and evaluating certificate information transmitted via the secure transmission, characterized in that
Device comprising: - a first integrated network card, - a second integrated network card, - a memory, which stores a driver for the second network card and a setup program, and - a USB connection (107, 108) internally connected to the second integrated network card and to the memory, wherein the setup program, when executed by a processor of an external device connected to the device via the USB connection (107, 108), is configured to cause the external device to install the driver for the second network card in the external device. - a first integrated network card, - a second integrated network card, - a memory, which stores a driver for the second network card and a setup program, and - a USB connection (107, 108) internally connected to the second integrated network card and to the memory, wherein the setup program, when executed by a processor of an external device connected to the device via the USB connection (107, 108), is configured to cause the external device to install the driver for the second network card in the external device.
A damping system for damping torsional oscillation in a drive shaft of a generator providing a direct current, DC, link voltage across a load resistance shunted by a DC link capacitor smoothing the DC link voltage, the damping system comprising: a sensor disposed to measure an amplitude of a speed ripple of the drive shaft; and a feedforward circuit connected to the sensor and to the generator, the feedforward circuit configured to determine a phase angle (34; Φ) formed by the load resistance and a load capacitance of the DC link capacitor, calculate a voltage signal value based on the amplitude and the phase angle, and adjust the DC link voltage according to the voltage signal value. a sensor disposed to measure an amplitude of a speed ripple of the drive shaft; and a feedforward circuit connected to the sensor and to the generator, the feedforward circuit configured to determine a phase angle (34; Φ) formed by the load resistance and a load capacitance of the DC link capacitor, calculate a voltage signal value based on the amplitude and the phase angle, and adjust the DC link voltage according to the voltage signal value.
A ceramic honeycomb article, comprising: a porous ceramic cordierite composition having a total porosity (%P), wherein %P < 54; and a pore size distribution exhibiting: d 10 ≥ 8 μm, wherein d 10 is the pore diameter at which 10% of the total porosity is comprised of pores having a diameter smaller than d 10; d 90 ≤ 35 μm, wherein d 90 is the pore diameter at which 90% of the total porosity is comprised of pores having a diameter smaller than d 90; and df ≤ 0.50, wherein df = (d 50 -d 10)/d 50, wherein d 50 is the pore diameter at which 50% of the total porosity is comprised of pores having a diameter smaller than d 50. a total porosity (%P), wherein %P < 54; and a pore size distribution exhibiting: d 10 ≥ 8 μm, wherein d 10 is the pore diameter at which 10% of the total porosity is comprised of pores having a diameter smaller than d 10; d 90 ≤ 35 μm, wherein d 90 is the pore diameter at which 90% of the total porosity is comprised of pores having a diameter smaller than d 90; and df ≤ 0.50, wherein df = (d 50 -d 10)/d 50, wherein d 50 is the pore diameter at which 50% of the total porosity is comprised of pores having a diameter smaller than d 50. d 10 ≥ 8 μm, wherein d 10 is the pore diameter at which 10% of the total porosity is comprised of pores having a diameter smaller than d 10; d 90 ≤ 35 μm, wherein d 90 is the pore diameter at which 90% of the total porosity is comprised of pores having a diameter smaller than d 90; and df ≤ 0.50, wherein df = (d 50 -d 10)/d 50, wherein d 50 is the pore diameter at which 50% of the total porosity is comprised of pores having a diameter smaller than d 50.
A power encoder, comprising: a pulse width modulator configured to modulate a signal according to a set of thresholds including at least two positive voltage thresholds to produce a pulse width modulated, PWM, signal; a first and a second switching device (650, I1, I2); and a switch mode power amplifier configured to amplify the PWM signal by switching states of switching the devices according to amplitudes of the PWM signal, characterised in that at least one or a combination of a distribution of values of the voltage thresholds in the set of thresholds and a distribution of values of a current generated by the different switching devices are non-uniform, wherein the distribution of values of the voltage thresholds in the set of thresholds are non-uniform such, that the distance between neighbouring voltage thresholds varies, wherein the set of thresholds includes a first voltage threshold, V 1, for a first level of the PWM signal and a second voltage threshold, V 2, for a second level of the PWM signal, wherein a ratio a v =V 1 /V 2 is between 0.3 and 0.4, inclusively; and wherein the power amplifier includes the first switching device configured to generate a current with a first value I 1, such that the power amplifier produces I 1 current for the first level of the PWM signal, wherein the power amplifier includes the second switching device configured to generate a current with a second value I 2, such that the power amplifier produces I 1 +I 2 current for the second level of the PWM signal, wherein a ratio a i =I 1 /(I 1 +I 2) is between 0.2 and 0.4 inclusively. a pulse width modulator configured to modulate a signal according to a set of thresholds including at least two positive voltage thresholds to produce a pulse width modulated, PWM, signal; a first and a second switching device (650, I1, I2); and a switch mode power amplifier configured to amplify the PWM signal by switching states of switching the devices according to amplitudes of the PWM signal, characterised in that at least one or a combination of a distribution of values of the voltage thresholds in the set of thresholds and a distribution of values of a current generated by the different switching devices are non-uniform, wherein the distribution of values of the voltage thresholds in the set of thresholds are non-uniform such, that the distance between neighbouring voltage thresholds varies, wherein the set of thresholds includes a first voltage threshold, V 1, for a first level of the PWM signal and a second voltage threshold, V 2, for a second level of the PWM signal, wherein a ratio a v =V 1 /V 2 is between 0.3 and 0.4, inclusively; and wherein the power amplifier includes the first switching device configured to generate a current with a first value I 1, such that the power amplifier produces I 1 current for the first level of the PWM signal, wherein the power amplifier includes the second switching device configured to generate a current with a second value I 2, such that the power amplifier produces I 1 +I 2 current for the second level of the PWM signal, wherein a ratio a i =I 1 /(I 1 +I 2) is between 0.2 and 0.4 inclusively.