mhurhangee/ep-ind-claims huggingface dataset:
A method for separating and isolating fetal nucleic acids from maternal nucleic acids in a plasma sample, comprising: (a) flowing a plasma sample comprising fetal nucleic acids and maternal nucleic acids through a first filter under conditions that allow specific binding of the fetal and maternal nucleic acids to the first filter; (b) eluting bound fetal and maternal nucleic acids from the first filter to form a concentrated nucleic acid sample comprising fetal nucleic acids and maternal nucleic acids; (c) flowing the concentrated nucleic acid sample through a second filter under conditions that allow the maternal nucleic acids to bind to the second filter and the fetal nucleic acids to flow through the second filter; and (d) collecting the flow-through fraction from the second filter, wherein the flowthrough fraction from the second filter contains fetal nucleic acids, wherein the conditions that allow specific binding of the fetal and maternal nucleic acids to the first filter in step (a) comprise forming a first binding mixture that comprises the plasma sample, an aliphatic alcohol in a range between about 17-25% (v/v) and a chaotropic salt in a concentration range between about 0.5 M to about 4.0 M, and wherein the conditions for binding the maternal nucleic acids to the second glass frit filter in step (c) comprise forming a second binding mixture that comprises the concentrated nucleic acid sample, an aliphatic alcohol in a range between about 0-10% (v/v) and a chaotropic salt in a concentration range between about 1 M to about 4.0 M. (a) flowing a plasma sample comprising fetal nucleic acids and maternal nucleic acids through a first filter under conditions that allow specific binding of the fetal and maternal nucleic acids to the first filter; (b) eluting bound fetal and maternal nucleic acids from the first filter to form a concentrated nucleic acid sample comprising fetal nucleic acids and maternal nucleic acids; (c) flowing the concentrated nucleic acid sample through a second filter under conditions that allow the maternal nucleic acids to bind to the second filter and the fetal nucleic acids to flow through the second filter; and (d) collecting the flow-through fraction from the second filter, wherein the flowthrough fraction from the second filter contains fetal nucleic acids,
Method for producing an electrical coil, in particular an induction coil (12, 12'), for electric cooking by means of inductive heating, wherein a thick-film paste is applied to a support having the desired geometry for the coil (12, 12'), characterized in that a per se conventional thick-film paste is applied to the support in the desired geometry, and after application the surface is enriched with nanoparticles, and subsequently is dried and cured.
Sensor for a motor vehicle, comprising: - an anode conductor that extends along a longitudinal axis, - an adapter sleeve that extends along the longitudinal axis and has an external diameter at least in sections, wherein the anode conductor is rigidly connected to the adapter sleeve by means of an electrical insulator, wherein the anode conductor is longer than the adapter sleeve and has a region that projects beyond the adapter sleeve along the longitudinal axis, - an anode sleeve that is connected to the anode conductor and is fitted onto the region of the anode conductor, - a housing that has an internal diameter that is greater than the external diameter of the adapter sleeve at least in sections, such that the adapter sleeve is arranged in the housing with play, - a connection that connects the housing and the adapter sleeve to one another, - a cathode sleeve that is connected to the housing in such a way that the cathode sleeve surrounds the anode sleeve along the longitudinal axis and that a circumferential gap is formed between the cathode sleeve and the anode sleeve, wherein the anode sleeve and the cathode sleeve are arranged coaxially with respect to one another within the scope of the production tolerances. - an anode conductor that extends along a longitudinal axis, - an adapter sleeve that extends along the longitudinal axis and has an external diameter at least in sections, wherein the anode conductor is rigidly connected to the adapter sleeve by means of an electrical insulator, wherein the anode conductor is longer than the adapter sleeve and has a region that projects beyond the adapter sleeve along the longitudinal axis, - an anode sleeve that is connected to the anode conductor and is fitted onto the region of the anode conductor, - a housing that has an internal diameter that is greater than the external diameter of the adapter sleeve at least in sections, such that the adapter sleeve is arranged in the housing with play, - a connection that connects the housing and the adapter sleeve to one another, - a cathode sleeve that is connected to the housing in such a way that the cathode sleeve surrounds the anode sleeve along the longitudinal axis and that a circumferential gap is formed between the cathode sleeve and the anode sleeve, wherein the anode sleeve and the cathode sleeve are arranged coaxially with respect to one another within the scope of the production tolerances.
A method configured to clip a signal according to a clipping boundary, wherein the signal comprises an I component comprising a series of I values and a Q component comprising a series of Q values, wherein each I value and Q value pair defines Cartesian coordinates of a data point being transmitted on the real and imaginary axes of the complex plane, respectively, the method comprising: receiving an I value and a Q value; determining a magnitude of the I value; determining a magnitude of the Q value; determining a clipping error as a vector distance between a first point defined by the magnitude of the I value and the magnitude of the Q value and a nearest point on the clipping boundary to the first point; filtering the clipping error to generate a filtered clipping error; combining the filtered clipping error with the I value to generate a clipped I value; and combining the filtered clipping error with the Q value to generate a clipped Q value; and wherein if the clipped I value or the clipped Q value exceeds a hard clipping limit, subsequently clipping the clipped I value or the clipped Q value that exceeds the hard clipping limit; providing the clipped I value and the clipped Q value to a radio frequency digital-to-analog converter, RFDAC, in a transmit chain. receiving an I value and a Q value; determining a magnitude of the I value; determining a magnitude of the Q value; determining a clipping error as a vector distance between a first point defined by the magnitude of the I value and the magnitude of the Q value and a nearest point on the clipping boundary to the first point; filtering the clipping error to generate a filtered clipping error; combining the filtered clipping error with the I value to generate a clipped I value; and combining the filtered clipping error with the Q value to generate a clipped Q value; and wherein if the clipped I value or the clipped Q value exceeds a hard clipping limit, subsequently clipping the clipped I value or the clipped Q value that exceeds the hard clipping limit; providing the clipped I value and the clipped Q value to a radio frequency digital-to-analog converter, RFDAC, in a transmit chain.
A method of operating a wireless mesh network to route messages between a host computer and a plurality of field devices, the wireless mesh network having a gateway and a plurality of nodes capable of transmitting and receiving messages with each node being associated with at least one of the field devices, the method comprising: synchronizing the nodes of the wireless mesh network to a global regular active schedule that defines when the nodes are in an active state and an inactive state, wherein messages can be transmitted and received by the nodes when in the active state; receiving a message, by the gateway, from the host computer addressed to a selected field device; identifying, by the gateway, those nodes required to route the message to the selected field device; activating nodes of the wireless mesh network according to the global regular active schedule; and communicating a message from the gateway to those nodes identified as required to route the message to the selected field device with instructions to remain in an active state as long as the host computer is communicating with the selected field device. synchronizing the nodes of the wireless mesh network to a global regular active schedule that defines when the nodes are in an active state and an inactive state, wherein messages can be transmitted and received by the nodes when in the active state; receiving a message, by the gateway, from the host computer addressed to a selected field device; identifying, by the gateway, those nodes required to route the message to the selected field device; activating nodes of the wireless mesh network according to the global regular active schedule; and
A system for setting one or more parameters for a multi-test-period titration for oral appliance therapy, comprising: a mandibular displacement device configured to be positioned in an oral cavity of a subject; a monitoring unit (30, 1114) configured to sense one or more physiological inputs from the subject; and a control unit (10, 1114) comprising a processing unit and a memory operatively coupled to the processing unit, the memory having computer-executable instructions stored thereon that, when executed by the processing unit, cause the system to: perform a titration for oral appliance therapy during a first test period; identify a variable associated with the titration performed during the first test period; set a parameter for a titration for oral appliance therapy to be performed during a second test period, wherein the parameter is dependent on the variable associated with the titration performed during the first test period; perform the titration for oral appliance therapy during the second test period; and establish an outcome of oral appliance therapy based on the titrations performed during the first and second test periods. a mandibular displacement device configured to be positioned in an oral cavity of a subject; a monitoring unit (30, 1114) configured to sense one or more physiological inputs from the subject; and a control unit (10, 1114) comprising a processing unit and a memory operatively coupled to the processing unit, the memory having computer-executable instructions stored thereon that, when executed by the processing unit, cause the system to: perform a titration for oral appliance therapy during a first test period; identify a variable associated with the titration performed during the first test period; set a parameter for a titration for oral appliance therapy to be performed during a second test period, wherein the parameter is dependent on the variable associated with the titration performed during the first test period; perform the titration for oral appliance therapy during the second test period; and establish an outcome of oral appliance therapy based on the titrations performed during the first and second test periods. perform a titration for oral appliance therapy during a first test period; identify a variable associated with the titration performed during the first test period; set a parameter for a titration for oral appliance therapy to be performed during a second test period, wherein the parameter is dependent on the variable associated with the titration performed during the first test period; perform the titration for oral appliance therapy during the second test period; and establish an outcome of oral appliance therapy based on the titrations performed during the first and second test periods.
Liquid-crystalline medium, characterised in that it has negative dielectric anisotropy and in that it comprises a compound of the formula IA, in which Z 1 denotes a single bond, -CH 2 CH 2 -, -CH=CH-, -CH 2 O-, -OCH 2 -, -CF 2 O-, -OCF 2 -, -COO-, -OCO-, -C 2 F 4 -, -C≡C-, -CF=CF-, -CH=CHCHO- or -CH 2 CF 2 O-, additionally at least one compound of the formula CC-n-V and/or the compound of the formula CC-V-V1, where n denotes 2, 3, 4, 5 or 6, and additionally one or more compounds of the formula IIB, in which R 2B denotes H, an alkyl or alkenyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, L 3-4 each, independently of one another, denote F, CF 3, CHF 2 or Cl, Z 2' denotes a single bond, -CH 2 CH 2 -, -CH=CH-, -CF 2 O-, -OCF 2 -, -CH 2 O-, -OCH 2 -, -COO-, -OCO-, -C 2 F 4 -, -CF=CF-, -C≡C- or -CH=CHCH 2 O-, q denotes 0, v denotes 1 to 6, and denotes a single bond or -O-, with the provisos that - the percentage proportion of the compounds of the formula IA is greater than or equal to the percentage proportion of CC-n-V, and/or - the percentage proportion of the compounds of the formula IA is greater than the percentage proportion of CC-V-V1, where the percentage proportion is in each case based on the liquid-crystalline medium. Z 1 denotes a single bond, -CH 2 CH 2 -, -CH=CH-, -CH 2 O-, -OCH 2 -, -CF 2 O-, -OCF 2 -, -COO-, -OCO-, -C 2 F 4 -, -C≡C-, -CF=CF-, -CH=CHCHO- or -CH 2 CF 2 O-, R 2B denotes H, an alkyl or alkenyl radical having up to 15 C atoms which is unsubstituted, monosubstituted by CN or CF 3 or at least monosubstituted by halogen, where, in addition, one or more CH 2 groups in these radicals may be replaced by -O-, -S-, -C≡C-, -CF 2 O-, -OCF 2 -, -OC-O- or -O-CO- in such a way that O atoms are not linked directly to one another, L 3-4 each, independently of one another, denote F, CF 3, CHF 2 or Cl, Z 2' denotes a single bond, -CH 2 CH 2 -, -CH=CH-, -CF 2 O-, -OCF 2 -, -CH 2 O-, -OCH 2 -, -COO-, -OCO-, -C 2 F 4 -, -CF=CF-, -C≡C- or -CH=CHCH 2 O-, q denotes 0, v denotes 1 to 6, and denotes a single bond or -O-, - the percentage proportion of the compounds of the formula IA is greater than or equal to the percentage proportion of CC-n-V, and/or - the percentage proportion of the compounds of the formula IA is greater than the percentage proportion of CC-V-V1,
A drive point for a tubular driven pile, the drive point comprising - a series of ribs, wherein - the series of ribs comprises -- outer ribs extending from an outer circumference of the drive point towards a centre axis of said drive point, wherein the outer rib is provided with an inner face faced towards said centre axis of the drive point, and wherein said inner face is arranged to slant in respect to the centre axis of the drive point, characterized in that the series of ribs further comprises -- inner ribs extending from direction of the centre axis towards the outer circumference of the drive point, wherein the inner rib is provided with an outer face faced towards outer circumference of the drive point, and wherein said outer face is arranged to slant in respect to the centre axis of the drive point, wherein - a gap is arranged for receiving a distal end of the tubular driven pile, - the gap being construed between said two series of ribs, the gap being defined by said inner faces and said outer faces, and - width between the outer and the inner faces (5, 6) decreasing from an upper end of the gap to a lower end of said gap. - a series of ribs, wherein - the series of ribs comprises -- outer ribs extending from an outer circumference of the drive point towards a centre axis of said drive point, wherein the outer rib is provided with an inner face faced towards said centre axis of the drive point, and wherein said inner face is arranged to slant in respect to the centre axis of the drive point, characterized in that the series of ribs further comprises -- inner ribs extending from direction of the centre axis towards the outer circumference of the drive point, wherein the inner rib is provided with an outer face faced towards outer circumference of the drive point, and wherein said outer face is arranged to slant in respect to the centre axis of the drive point, wherein -- outer ribs extending from an outer circumference of the drive point towards a centre axis of said drive point, wherein the outer rib is provided with an inner face faced towards said centre axis of the drive point, and wherein said inner face is arranged to slant in respect to the centre axis of the drive point, characterized in that the series of ribs further comprises -- inner ribs extending from direction of the centre axis towards the outer circumference of the drive point, wherein the inner rib is provided with an outer face faced towards outer circumference of the drive point, and wherein said outer face is arranged to slant in respect to the centre axis of the drive point, wherein - a gap is arranged for receiving a distal end of the tubular driven pile, - the gap being construed between said two series of ribs, the gap being defined by said inner faces and said outer faces, and - width between the outer and the inner faces (5, 6) decreasing from an upper end of the gap to a lower end of said gap.
A method of determining spectral emission characteristics of incident radiation, the method comprising: sensing at least some of the incident radiation using a plurality of light detectors each having respective first and second photosensitive regions that are arranged as stacked photodiodes and whose optical responsivity characteristics differ from one another, wherein each light detector is configured to sense a different respective part of the optical spectrum, wherein incident radiation sensed by each particular light detector passes through a respective optical filter (26, 126) before being sensed by the particular light detector, wherein each optical filter passes a respective band of wavelengths that differs from at least some of the other optical filters; identifying wavelengths of the incident radiation, wherein each wavelength is identified based on a ratio of a photocurrent from a first one of the first photosensitive regions and a photocurrent from the second photosensitive region in the same light detector as the first region; determining whether at least one wavelength of the identified wavelengths is within a specified tolerance of a predetermined wavelength; and causing an alarm or message to be generated if the at least one wavelength is not within the specified tolerance of the predetermined wavelength. sensing at least some of the incident radiation using a plurality of light detectors each having respective first and second photosensitive regions that are arranged as stacked photodiodes and whose optical responsivity characteristics differ from one another, wherein each light detector is configured to sense a different respective part of the optical spectrum, wherein incident radiation sensed by each particular light detector passes through a respective optical filter (26, 126) before being sensed by the particular light detector, wherein each optical filter passes a respective band of wavelengths that differs from at least some of the other optical filters; identifying wavelengths of the incident radiation, wherein each wavelength is identified based on a ratio of a photocurrent from a first one of the first photosensitive regions and a photocurrent from the second photosensitive region in the same light detector as the first region; determining whether at least one wavelength of the identified wavelengths is within a specified tolerance of a predetermined wavelength; and causing an alarm or message to be generated if the at least one wavelength is not within the specified tolerance of the predetermined wavelength.
An autogyro rotor blade for generating lift by autorotation comprising a root-side inner profile region, which has a first profile, with a tip-side main profile region, which has a second profile different from the first profile, and with a profile depth curve, which decreases monotonically in the longitudinal direction of the autogyro rotor blade from the region of the blade root in the direction of the blade tip, characterized in that the autogyro rotor blade has a twist having a twist curve, which decreases monotonically from the region of the blade root in the direction of the blade tip, that the twist curve has a variable slope in the inner profile region and main profile region, and therefore the twist curve is concavely curved in this region (9, 10), that the autogyro rotor blade has a transition profile region, which is situated between the inner profile region and the main profile region, and a third profile, the profile geometry of which changes continuously radially outwardly from the first profile to the second profile and that the twist curve has a constant slope in the transition profile region, and therefore the twist curve is straight, in particular across the entire transition profile region.
A caster indicator comprising: plural levers configured to determine states of plural casters, respectively; a link configured to connect the plural levers to one another such that positions of the plural levers are simultaneously changed; a display unit (210, 310) configured to display the states of the plural casters according to positions of the plural levers, the display unit including plural regions, and indicators corresponding to respective states of the plural casters printed in the respective regions; a connection unit connecting at least one of the plural levers to the display unit and configured to move the position of the display unit according to a moving direction of at least one of the plural levers; and a lid fixed to the link connected to the lever or to the caster and covering the upper surface of the display unit, wherein the lid includes a display window having a size corresponding to one of the respective regions of the display unit. plural levers configured to determine states of plural casters, respectively; a link configured to connect the plural levers to one another such that positions of the plural levers are simultaneously changed; a display unit (210, 310) configured to display the states of the plural casters according to positions of the plural levers, the display unit including plural regions, and indicators corresponding to respective states of the plural casters printed in the respective regions; a connection unit connecting at least one of the plural levers to the display unit and configured to move the position of the display unit according to a moving direction of at least one of the plural levers; and a lid fixed to the link connected to the lever or to the caster and covering the upper surface of the display unit, wherein the lid includes a display window having a size corresponding to one of the respective regions of the display unit.