mhurhangee/ep-ind-claims huggingface dataset:
A method of forming an ophthalmic lens (201, 900), the method comprising: placing an energy source (109, 202, 800, 810, 820, 830, 910) capable of providing electrical current to a component (108, 203, 990) proximate to a first mold part, wherein the energy source (109, 202, 800, 810, 820, 830, 910) comprises an electrochemical cell; applying a binder layer to the first mold part prior to placement of the energy source; depositing a reactive monomer mix into the first mold part; positioning the energy source (109, 202, 800, 810, 820, 830, 910) capable of providing electrical current to a component (108, 203, 990) in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the energy source (109, 202, 800, 810, 820, 830, 910) capable of providing electrical current to a component (108, 203, 990) and at least some of reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation. placing an energy source (109, 202, 800, 810, 820, 830, 910) capable of providing electrical current to a component (108, 203, 990) proximate to a first mold part, wherein the energy source (109, 202, 800, 810, 820, 830, 910) comprises an electrochemical cell; applying a binder layer to the first mold part prior to placement of the energy source; depositing a reactive monomer mix into the first mold part; positioning the energy source (109, 202, 800, 810, 820, 830, 910) capable of providing electrical current to a component (108, 203, 990) in contact with the reactive monomer mix; positioning the first mold part proximate to a second mold part thereby forming a lens cavity with the energy source (109, 202, 800, 810, 820, 830, 910) capable of providing electrical current to a component (108, 203, 990) and at least some of reactive monomer mix in the lens cavity; and exposing the reactive monomer mix to actinic radiation.
Device for assisting a driver to drive a vehicle during a driving phase, comprising: i) analysis means arranged to detect, on the one hand, at least one cause of inattention of said driver in first data representative of a behaviour of the latter, and, on the other hand, at least one effect of this inattention in second data representative of images of a portion of a traffic lane situated in front of said vehicle and on which the latter is travelling, and ii) processing means arranged to estimate at least one level of overall alertness of said driver as a function of each cause of inattention and each effect of inattention determined during a selected time interval, and to generate a message intended to be broadcast in said vehicle and representative of said estimated level of overall alertness when the latter is greater than a first selected threshold; and characterised in that said processing means are arranged to estimate each level of overall alertness as a function of an estimated level of effect as a function of each determined effect, and of at least two estimated levels of cause as a function of different determined causes respectively. i) analysis means arranged to detect, on the one hand, at least one cause of inattention of said driver in first data representative of a behaviour of the latter, and, on the other hand, at least one effect of this inattention in second data representative of images of a portion of a traffic lane situated in front of said vehicle and on which the latter is travelling, and ii) processing means arranged to estimate at least one level of overall alertness of said driver as a function of each cause of inattention and each effect of inattention determined during a selected time interval, and to generate a message intended to be broadcast in said vehicle and representative of said estimated level of overall alertness when the latter is greater than a first selected threshold;
A temperature sensor for detecting heating of at least one electrode pole (22, 24) of a temporarily or permanently implantable electrode line or a similar implant having at least one elongate electrical conductor which is connected to at least one electrode pole (22, 24), wherein the temperature sensor comprises an impedance detection unit or is connected to such a unit, wherein the impedance detection unit is electrically connected to the at least one electrode pole (22, 24), and wherein the temperature sensor is designed, in order to detect the heating of the at least one electrode pole (22, 24), to evaluate an electrode pole impedance detected by the impedance detection unit, wherein the evaluation is performed in respect of a temperature-dependent feature of the electrode pole impedance, characterised in that the temperature sensor or the impedance detection unit is configured to detect or to evaluate an electrode pole impedance only within at least one event-dependent time window.
A sprinkler bulb for a fire suppression system, comprising: a sealed frangible housing; and characterised by a circuit device within the housing, wherein the circuit device comprises an ultraviolet light source; and a photosensitive fluid within the housing that in use undergoes a chemical reaction when exposed to ultraviolet light from the light source. a sealed frangible housing; and characterised by a circuit device within the housing, wherein the circuit device comprises an ultraviolet light source; and a photosensitive fluid within the housing that in use undergoes a chemical reaction when exposed to ultraviolet light from the light source.
A cutting tool comprising a main part (16; 116), which can be rotationally driven about a rotational axis, at least one cutting insert holder (12; 112) arranged on the main part (16; 116) such that it can be radially set, and a setting device for setting the position of the cutting insert holder (12; 112) relative to the main part (16; 116), wherein the cutting insert holder (12; 112) is arranged in a guide recess (18; 118) in the main part (16; 116) such that it can be moved transversely to the rotational axis, and the setting device has a setting element, which can be set inside the main part (16; 116) transversely to the rotational axis and transversely to the direction of movement of the cutting insert holder (12; 112), and supports the cutting insert holder (12; 112), characterized by an adjusting device, which is integrated in the cutting insert holder (12; 112), for adjusting the position of the cutting insert holder (12; 112) relative to the setting element. the cutting insert holder (12; 112) is arranged in a guide recess (18; 118) in the main part (16; 116) such that it can be moved transversely to the rotational axis, and the setting device has a setting element, which can be set inside the main part (16; 116) transversely to the rotational axis and transversely to the direction of movement of the cutting insert holder (12; 112), and supports the cutting insert holder (12; 112), characterized by an adjusting device, which is integrated in the cutting insert holder (12; 112), for adjusting the position of the cutting insert holder (12; 112) relative to the setting element.
A homoplasmic somatic embryo of a non-green carrot cell transformed with a plastid transformation vector comprising, as operably linked components, a first flanking sequence, a 5' regulatory sequence comprising a Prrn 16S rRNA promoter functional in proplastids and chloroplasts in light and in dark, a DNA sequence coding for a foreign gene, a DNA sequence encoding a selectable marker, and a second flanking sequence, wherein said vector facilitates stable integration into a carrot plastid genome, and wherein said first and second flanking sequence are substantially homologous to sequences in a spacer region of said plastid genome.
Seat device, in particular flight passenger seat device, with at least one seat bottom unit that forms a sitting region, with at least one backrest unit delimiting the sitting region at least rearwards, with at least one armrest unit (34, 36) configured to delimit at least the sitting region sidewise, and with at least one support element (54, 56) spanning over at least a region between the seat bottom unit, the armrest unit (34, 36) and/or the backrest unit, characterised in that the support element (54, 56) is embodied as a covering element which is tensioned between the armrest unit (34, 36), the seat bottom unit and the backrest unit and which a passenger may support himself with part of his body, wherein the support element (54, 56) is at its lower end connected to the seat bottom unit and is at its upper end connected to the armrest unit (34, 36).
A method of determining an altitude of a user equipment operating in a wireless telecommunications network comprising the user equipment and another network entity, the method comprising: measuring (S2, T2), by the user equipment, an indication of barometric pressure in the vicinity of the user equipment; establishing, at the other network entity, calibration information for the indication of barometric pressure measured at the user equipment; and determining the altitude of the user equipment from the indication of barometric pressure measured by the user equipment and the calibration information established at the other network entity, characterized in that the other network entity is another user equipment operating in the wireless telecommunications network. measuring (S2, T2), by the user equipment, an indication of barometric pressure in the vicinity of the user equipment; establishing, at the other network entity, calibration information for the indication of barometric pressure measured at the user equipment; and determining the altitude of the user equipment from the indication of barometric pressure measured by the user equipment and the calibration information established at the other network entity, characterized in that the other network entity is another user equipment operating in the wireless telecommunications network.
A sputter etching comprising an inlet for the introduction of ionizable gas, a support surface located in said chamber adapted to support a wafer to be etched in the chamber, and an actively-cooled element located in the chamber adjacent said support surface, characterised in that said actively-cooled element comprises a dark space shield (26, 28) located at a base of said sputter etching chamber.
The use of a fluoroacrylate polymer to achieve a covering or treatment at the side edges of decorative panels, characterized in that the C-atoms of the fluoroacrylate are saturated by F-atoms.
A heat-resistant, austenitic cast steel having excellent thermal fatigue properties, comprising by mass 0.3-0.5% of C, 0.5-3% of Si, 0.5-2% of Mn, 15-30% of Cr, 6-22% of Ni, 0.6-5% of Nb, 0.01-0.5% of N, and 0.05-0.5% of S, the balance being Fe and inevitable impurities, said inevitable impurities comprising 0.06% or less of P, 0.05% or less of Al, 0.5% or less of W and 0.5% or less of Mo, characterized in that an amount ratio C/N of C to N is 4-7, that a ratio A/B of a Cr-carbide-forming index A to a Nb-carbide-forming index B expressed by the following formulae and: A = 8.5 ⁢ C − Nb + 0.05 ⁢ Cr + 0.65 ⁢ Ni − 5 and B = 7.8 ⁢ Nb wherein the symbol of an element in each formula represents its content (% by mass), is 0.6-1.7, and that optionally the heat-resistant, austenitic cast steel further contains 0.005-0.5% by mass of Zr, wherein the number of Zr nitride particles having equivalent circle diameters of 1.5 μm or more in the structure is 20-150 per a field area of 0.25 mm 2, wherein this number is measured using the method described in the description under the heading "Number of Zr nitride particles".
A beverage container comprising: a body extending longitudinally on a central axis; a base, comprising: a skirt extending from the body towards the central axis; and a punt coupled to the skirt; feet extending from the skirt and the punt such that each foot crosses both the skirt and the punt; and interstitials formed between the feet and extending across the skirt and the punt, each interstitial having a minimum interstitial width at a single point, and wherein the width of each interstitial continuously increases from the single point towards the body and towards an apex of the punt. a body extending longitudinally on a central axis; a base, comprising: a skirt extending from the body towards the central axis; and a punt coupled to the skirt; a skirt extending from the body towards the central axis; and a punt coupled to the skirt; feet extending from the skirt and the punt such that each foot crosses both the skirt and the punt; and interstitials formed between the feet and extending across the skirt and the punt, each interstitial having a minimum interstitial width at a single point, and wherein the width of each interstitial continuously increases from the single point towards the body and towards an apex of the punt.
A heater for warm air, comprising: a fan, an air duct, a heating part disposed in the air duct, a driving part, comprising: a driving circuit board provided with a silicon-controlled element, the driving circuit board and silicon-controlled element being arranged in the air duct upstream of the heating part relative to the direction of air flow in the air duct. a fan, an air duct, a heating part disposed in the air duct, a driving part, comprising: a driving circuit board provided with a silicon-controlled element, the driving circuit board and silicon-controlled element being arranged in the air duct upstream of the heating part relative to the direction of air flow in the air duct.
A method for dual polarisation optical reception, the method comprising: splitting a received polarisation multiplexed signal onto first and second optical paths, the received polarisation multiplexed signal comprising first and second sub-channels, the first sub-channel having superimposed a first pilot tone and the second sub-channel having superimposed a second pilot tone; and on each of the first and second paths: passing the received polarisation multiplexed signal on the path through a polarisation recovery device, the polarisation recovery device having at least one control variable; on output from the polarisation recovery device, extracting the first and second pilot tones; characterised in that the method further comprises: estimating a power of the pilot tones; and adjusting a value of the control variable of the polarisation recovery device until a power of one of the first or second pilot tones reaches a convergence threshold. splitting a received polarisation multiplexed signal onto first and second optical paths, the received polarisation multiplexed signal comprising first and second sub-channels, the first sub-channel having superimposed a first pilot tone and the second sub-channel having superimposed a second pilot tone; and on each of the first and second paths: passing the received polarisation multiplexed signal on the path through a polarisation recovery device, the polarisation recovery device having at least one control variable; on output from the polarisation recovery device, extracting the first and second pilot tones; characterised in that the method further comprises: estimating a power of the pilot tones; and adjusting a value of the control variable of the polarisation recovery device until a power of one of the first or second pilot tones reaches a convergence threshold. passing the received polarisation multiplexed signal on the path through a polarisation recovery device, the polarisation recovery device having at least one control variable; on output from the polarisation recovery device, extracting the first and second pilot tones; estimating a power of the pilot tones; and adjusting a value of the control variable of the polarisation recovery device until a power of one of the first or second pilot tones reaches a convergence threshold.
A signal sender configured to send first and second transmission signals (S(+), S(-)) of mutually opposite phases to a signal receiver via first and second transmission paths (31, 32), respectively, characterized in that the signal sender comprises an amplitude adjuster configured to adjust each amplitude of the first and second transmission signals so that the amplitude of the first transmission signal differs from the amplitude of the second transmission signal.
A manufacture for conducting current, the manufacture comprising: a first segment of high temperature superconducting wire including a defect; a patch including: a second segment of high temperature superconducting wire positioned to overlap the defect; a bond layer provided between the first segment of high temperature superconducting wire and the second segment of high temperature superconducting wire; wherein the bond layer establishes a path such that current flows through the second segment of high temperature superconducting wire; and characterised in further including a lamination structure surrounding the first segment of high temperature superconducting wire and the patch. a first segment of high temperature superconducting wire including a defect; a patch including: a second segment of high temperature superconducting wire positioned to overlap the defect; a bond layer provided between the first segment of high temperature superconducting wire and the second segment of high temperature superconducting wire; wherein the bond layer establishes a path such that current flows through the second segment of high temperature superconducting wire; and characterised in further including a lamination structure surrounding the first segment of high temperature superconducting wire and the patch. a second segment of high temperature superconducting wire positioned to overlap the defect; a bond layer provided between the first segment of high temperature superconducting wire and the second segment of high temperature superconducting wire; wherein the bond layer establishes a path such that current flows through the second segment of high temperature superconducting wire; and characterised in further including a lamination structure surrounding the first segment of high temperature superconducting wire and the patch.
Process for producing a rolling bearing cage, in particular for a large rolling bearing, wherein a steel strip having openings for in each case one rolling body is provided and bent to form a ring, wherein, for thermal coating with a thermoplastic powder, the ring is subsequently heated to a temperature above a minimum coating temperature, wherein the ring is subsequently dipped in a fluidized bed containing the thermoplastic powder, wherein, during the residence time of the ring in the fluidized bed, plastics powder adheres to the ring, melts and forms a continuous coating, and wherein the ring is removed from the fluidized bed after the coating, characterized in that the ring is heated by an alternating electromagnetic field of an induction coil, wherein a pause for making the temperature of the ring uniform is provided between the heating of the ring and the dipping into the fluidized bed, wherein the ring is also at a temperature above the minimum coating temperature at the end of the pause.
A system, comprising: an external device (45; 50) and an implantable spinal cord stimulator device configured to treat back pain of a patient, wherein the external device (45; 50) is configured to determine information for the patient during a testing procedure by providing test pulses to the patient and determining a perception threshold for the test pulses, wherein the information comprises a range or volume of stimulation parameters for the patient, wherein the external device (45; 50) is configured to transmit the information to the stimulator device; and wherein the stimulator device is configured to execute instructions, the instructions specifying an amplitude, a pulse width, and a frequency of stimulation pulses provided at one of more of electrodes in an electrode array of the stimulator device, wherein during the execution of the instructions the amplitude, the pulse width, and the frequency are automatically varied over time within the range or volume of stimulation parameters determined for the patient. an external device (45; 50) and an implantable spinal cord stimulator device configured to treat back pain of a patient, wherein the external device (45; 50) is configured to determine information for the patient during a testing procedure by providing test pulses to the patient and determining a perception threshold for the test pulses, wherein the information comprises a range or volume of stimulation parameters for the patient, wherein the external device (45; 50) is configured to transmit the information to the stimulator device; and wherein the stimulator device is configured to execute instructions, the instructions specifying an amplitude, a pulse width, and a frequency of stimulation pulses provided at one of more of electrodes in an electrode array of the stimulator device, wherein during the execution of the instructions the amplitude, the pulse width, and the frequency are automatically varied over time within the range or volume of stimulation parameters determined for the patient.
A breathing device comprising: a thermoplastic moldable tray configured to be positioned proximate to the occlusal surface of a user's maxillary dental arch such that the thermoplastic moldable tray extends beyond the cuspids of the user's maxillary dental arch, the thermoplastic moldable tray coupled to a post configured to extend out of the user's mouth when the thermoplastic moldable tray is positioned proximate to the occlusal surface of the user's maxillary dental arch; the moldable tray configured to engage at least some of the teeth of the user's maxillary dental arch; a mask (850, 890, 892, 894) configured to engage the post to couple the mask (850, 890, 892, 894) to the thermoplastic moldable tray, such that a coupler allows for adjustment of the mask (850, 890, 892, 894) relative to the thermoplastic moldable tray, wherein the coupler is configured to allow for the mask (850, 890, 892, 894) to be rotated in a substantially sagittal plane, characterized in that the post defines at least one vertical channel proximate to the anterior end of the post; the coupler comprises a flange configured to engage the at least one vertical channel, to adjustably couple the mask (850, 890, 892, 894) to the thermoplastic moldable tray; and the coupler is configured to allow for the mask (850, 890, 892, 894) to be adjusted in the anterior-posterior direction, and adjusted in the superior-inferior direction. a thermoplastic moldable tray configured to be positioned proximate to the occlusal surface of a user's maxillary dental arch such that the thermoplastic moldable tray extends beyond the cuspids of the user's maxillary dental arch, the thermoplastic moldable tray coupled to a post configured to extend out of the user's mouth when the thermoplastic moldable tray is positioned proximate to the occlusal surface of the user's maxillary dental arch; the moldable tray configured to engage at least some of the teeth of the user's maxillary dental arch; a mask (850, 890, 892, 894) configured to engage the post to couple the mask (850, 890, 892, 894) to the thermoplastic moldable tray, such that a coupler allows for adjustment of the mask (850, 890, 892, 894) relative to the thermoplastic moldable tray, wherein the coupler is configured to allow for the mask (850, 890, 892, 894) to be rotated in a substantially sagittal plane, characterized in that the post defines at least one vertical channel proximate to the anterior end of the post; the coupler comprises a flange configured to engage the at least one vertical channel, to adjustably couple the mask (850, 890, 892, 894) to the thermoplastic moldable tray; and the coupler is configured to allow for the mask (850, 890, 892, 894) to be adjusted in the anterior-posterior direction, and adjusted in the superior-inferior direction.
A microencapsulated particle having a coating comprising a lactamic polymerizable copolymer, wherein the lactamic polymerizable copolymer comprises N -vinyl caprolactam - 2-phenoxy ethyl acrylate - 2-hydroxy-ethyl acrylate (VCap-PEA-HEA acrylate).