mhurhangee/ep-ind-claims huggingface dataset:
Dewatering screen for production of paper with high-resolution watermarks, having a carrier screen with a plurality of individual-use regions which, during paper production, each produce one of a plurality of individual uses of the watermark paper, wherein the individual-use regions of the dewatering screen are provided with watermark inserts which, at least in sub-regions, are formed as high-resolution multi-level watermark inserts, characterized in that the watermark inserts each have a series watermark region, which is identical for all individual uses, and an individual watermark region, which is individualized for each individual use.
A process for the enhanced production of (a) eicosapentaenoic acid in microalgae selected from the family Pleurochloridaceae; or (b) exopolysaccharide in microalgae of the species Dictyosphaerium chlorelloides, said process comprising the steps of: (i) culturing a microalgal strain selected from the family Pleurochloridaceae or from the species Dictyosphaerium chlorelloides through a production phase; (ii) exposing the microalgal culture to a stimulus, wherein the stimulus comprises (a) a decrease in pH to a pH of no more than around pH 6, followed by an increase in pH to a pH of no less than around pH 7 and (b) an increase in light irradiance to at least 400 μmol/m 2 /sec. (i) culturing a microalgal strain selected from the family Pleurochloridaceae or from the species Dictyosphaerium chlorelloides through a production phase; (ii) exposing the microalgal culture to a stimulus, wherein the stimulus comprises (a) a decrease in pH to a pH of no more than around pH 6, followed by an increase in pH to a pH of no less than around pH 7 and (b) an increase in light irradiance to at least 400 μmol/m 2 /sec.
Bottle (1; 20; 60) comprising a shaped body (2; 67) and a removable bottom (3; 21; 61) provided with one or more shaped elements, at least one of which is pressure-fitted to said shaped body (2; 67) of said bottle (1; 20; 60), characterized in that said shaped elements of said removable bottom (3; 21; 61) comprise a lid (4; 62) and a counter-lid (5; 63) coupled with each other.
A molded product that is made from a resin composition including a polyamide resin and that has a thickness of not less than 0.56 mm, wherein a difference (Q - P) between Q and P is less than 0.06, where P (A1680/ A1632) denotes an intensity ratio of a maximum value of absorbance A1680 at 1680 cm -1 ± 8 cm -1 to a maximum value of absorbance A1632 at 1632 cm -1 ± 8 cm -1 with an absorbance at 1800 cm -1 being set to 0 with regard to an infrared absorption spectrum of a cutting surface at a depth of 0.28 mm from a surface of the molded product, and Q (A'1680/A'1632) denotes an intensity ratio of a maximum value of absorbance A'1680 at 1680 cm -1 ± 8 cm -1 to a maximum value of absorbance A'1632 at 1632 cm -1 ± 8 cm -1 with an absorbance at 1800 cm -1 being set to 0 with regard to an infrared absorption spectrum of a heat-treated cutting surface that is the cutting surface after heat treatment at a temperature lower than a melting point of the polyamide resin by 35°C for 24 hours, and wherein the resin composition further comprises sodium hypophosphite, and the phosphorous atom content obtained by absorption spectrophotometry is 1000 to 3500 ppm relative to the polyamide resin content.
A protective helmet, in particular motorcycle protective helmet, having an outer shell for distributing impact forces and having an antenna, arranged at least partially inside the outer shell, for transmitting a radio signal, wherein the outer shell consists of a main material in a main region, characterised in that the outer shell consists of a cut-out material in a cut-out region, which material has a lower damping effect on the radio signal compared to the main material.
Epicyclic gear train comprising a toothed planet wheel and an external ring gear, said epicyclic gear train being provided with a plurality of toothed planetary gears which are carried by the same planetary carrier, the planetary carrier comprising a support and a plurality of crank pins carried by said support, each crank pin comprising a fastening portion which moves away from said support to a distal end in one direction, each planetary gear being arranged around said fastening portion and having a degree of rotational freedom about an axis of extension of said fastening portion, characterised in that said epicyclic gear train comprises a retaining link which is carried by said crank pins and connects the crank pins, each planetary gear being arranged in a zone between the support and the retaining link, each crank pin having a restricted freedom of movement with respect to the retaining link, said retaining link comprising a centring pin for each crank pin, each crank pin and an associated said centring pin being nested axially at least partially one within the other along the axis of extension of said crank pin, said centring pin entering a cavity in the associated crank pin or said crank pin entering a cavity in said associated centring pin, a radial clearance separating a crank pin and the associated centring pin perpendicularly to said axis of extension of the crank pin when at rest.
A process for manufacturing a cross-linked product comprising the cross-linking of a benzoxazine monomer of formula A provided below: in this formula: A 1 is selected from aromatic carbocyclic or heterocyclic, monocyclic or polycyclic, groups, substituted by a cross-linkable group, said cross-linkable group is selected from: a hydroxyl group, a carbonitrile group, a phthalonitrile group, R 1 a is selected from: substituted or unsubstituted furfuryl groups. A 1 is selected from aromatic carbocyclic or heterocyclic, monocyclic or polycyclic, groups, substituted by a cross-linkable group, said cross-linkable group is selected from: a hydroxyl group, a carbonitrile group, a phthalonitrile group, R 1 a is selected from: substituted or unsubstituted furfuryl groups.
An apparatus for obtaining electrical energy from radiant energy comprising: a) first and second photovoltaic receivers (18", 18'); b) a primary curved reflective surface disposed to reflect incident polychromatic radiation I toward a first focal plane P; and c) a spectral separator disposed between the first focal plane and the primary curved reflective surface, the spectral separator comprising: (i) a dichroic separating surface, convex with respect to the incident reflected polychromatic radiation and treated to reflect a first spectral band toward the first photovoltaic receiver (18") and to transmit reflected polychromatic radiation outside the first spectral band; characterized in that the spectral separator further comprises (ii) a curved separator reflective surface, convex with respect to the light transmitted through the dichroic separating surface and treated to reflect at least a portion of the light transmitted through the dichroic separating surface toward the second photovoltaic receiver 18'. a) first and second photovoltaic receivers (18", 18'); b) a primary curved reflective surface disposed to reflect incident polychromatic radiation I toward a first focal plane P; and c) a spectral separator disposed between the first focal plane and the primary curved reflective surface, the spectral separator comprising: (i) a dichroic separating surface, convex with respect to the incident reflected polychromatic radiation and treated to reflect a first spectral band toward the first photovoltaic receiver (18") and to transmit reflected polychromatic radiation outside the first spectral band; characterized in that the spectral separator further comprises (ii) a curved separator reflective surface, convex with respect to the light transmitted through the dichroic separating surface and treated to reflect at least a portion of the light transmitted through the dichroic separating surface toward the second photovoltaic receiver 18'. (i) a dichroic separating surface, convex with respect to the incident reflected polychromatic radiation and treated to reflect a first spectral band toward the first photovoltaic receiver (18") and to transmit reflected polychromatic radiation outside the first spectral band; characterized in that the spectral separator further comprises (ii) a curved separator reflective surface, convex with respect to the light transmitted through the dichroic separating surface and treated to reflect at least a portion of the light transmitted through the dichroic separating surface toward the second photovoltaic receiver 18'.
A method for operating a centrifuge device, the centrifuge device comprising: - a centrifuge in which a centrifuge drum (10, 210) is rotatably arranged; - a light detector and a light source, the light detector and the light source being arranged on the centrifuge device in such a way that a detection of a filling material parameter can be carried out in an interior of the centrifuge drum (10, 210); - and a software module for plausibility check of the filling material parameter detected by means of the light detector, wherein the software module can be connected to the light detector by means of an inlet for receiving a detection signal; wherein the method for operating the centrifuge device by detecting the filling material parameter of the filling material inside the centrifuge drum (10, 210) comprises the following steps: - illuminating at least a part of a surface of the filling material with the light source, receiving a light reflected from the filling material by means of the light detector and generating a corresponding detection signal, - plausibility check of the detection signal of the light detector by means of the software module, - processing a plausible detection signal by means of the software module and - generating at least one output signal from the plausible detection signal by means of the software module. - a centrifuge in which a centrifuge drum (10, 210) is rotatably arranged; - a light detector and a light source, the light detector and the light source being arranged on the centrifuge device in such a way that a detection of a filling material parameter can be carried out in an interior of the centrifuge drum (10, 210); - and a software module for plausibility check of the filling material parameter detected by means of the light detector, wherein the software module can be connected to the light detector by means of an inlet for receiving a detection signal; - illuminating at least a part of a surface of the filling material with the light source, receiving a light reflected from the filling material by means of the light detector and generating a corresponding detection signal, - plausibility check of the detection signal of the light detector by means of the software module, - processing a plausible detection signal by means of the software module and - generating at least one output signal from the plausible detection signal by means of the software module.
A method for calibrating a pressure sensor device, wherein the pressure sensor device includes a capacitive pressure transducer with a membrane; the method comprising: - creating a physical model from several capacitance-pressure calibration points generated by applying reference pressures to the membrane and measuring the capacitance when each pressure is applied; - measuring a resonant frequency of the membrane and storing in a memory; - determining a resonant frequency of the membrane after the pressure sensor device has been attached to a circuit board; - calculating a change in resonant frequency between the determined resonant frequency and the resonant frequency stored in the memory; - calculating strain of the membrane from the change in resonant frequency; - updating the physical model using the strain of the membrane; - deriving new calibration points using the updated physical model; and - performing an interpolation over the new calibration points in order to generate a capacitance-to-pressure curve. wherein the pressure sensor device includes a capacitive pressure transducer with a membrane; the method comprising: - creating a physical model from several capacitance-pressure calibration points generated by applying reference pressures to the membrane and measuring the capacitance when each pressure is applied; - measuring a resonant frequency of the membrane and storing in a memory; - determining a resonant frequency of the membrane after the pressure sensor device has been attached to a circuit board; - calculating a change in resonant frequency between the determined resonant frequency and the resonant frequency stored in the memory; - calculating strain of the membrane from the change in resonant frequency; - updating the physical model using the strain of the membrane; - deriving new calibration points using the updated physical model; and - performing an interpolation over the new calibration points in order to generate a capacitance-to-pressure curve. - creating a physical model from several capacitance-pressure calibration points generated by applying reference pressures to the membrane and measuring the capacitance when each pressure is applied; - measuring a resonant frequency of the membrane and storing in a memory; - determining a resonant frequency of the membrane after the pressure sensor device has been attached to a circuit board; - calculating a change in resonant frequency between the determined resonant frequency and the resonant frequency stored in the memory; - calculating strain of the membrane from the change in resonant frequency; - updating the physical model using the strain of the membrane; - deriving new calibration points using the updated physical model; and - performing an interpolation over the new calibration points in order to generate a capacitance-to-pressure curve.
A method comprising: receiving an indication of an anticipated utilization of a patient monitoring device for which the patient monitoring device is not configured; wherein receiving the indication of the anticipated utilization of the patient monitoring device comprises receiving an indication of an environment in which the patient monitoring device is located and an indication of a body part of a patient to which the patient monitoring device is attached; determining whether to differently configure the patient monitoring device in accordance with the anticipated utilization of the patient monitoring device for which the patient monitoring device is not configured; accessing device configuration information relating to the indication of the environment in which the patient monitoring device is located and the body part of the patient to which the patient monitoring device is attached; and causing provision of the device configuration information relating to the configuration associated with the anticipated utilization of the patient monitoring device. receiving an indication of an anticipated utilization of a patient monitoring device for which the patient monitoring device is not configured; wherein receiving the indication of the anticipated utilization of the patient monitoring device comprises receiving an indication of an environment in which the patient monitoring device is located and an indication of a body part of a patient to which the patient monitoring device is attached; determining whether to differently configure the patient monitoring device in accordance with the anticipated utilization of the patient monitoring device for which the patient monitoring device is not configured; accessing device configuration information relating to the indication of the environment in which the patient monitoring device is located and the body part of the patient to which the patient monitoring device is attached; and causing provision of the device configuration information relating to the configuration associated with the anticipated utilization of the patient monitoring device.
An optical cable, comprising: - a strength member element, - a plurality of buffer tubes, wherein each of the buffer tubes encapsulates at least one optical fiber, - a cable jacket surrounding the plurality of the buffer tubes, - wherein each of the buffer tubes has at least one first section and at least one second section adjacent to the at least one first section, wherein the at least one first section of the buffer tubes is stranded around the strength member element in a first direction of lay and the at least one second section of the buffer tubes is stranded around the strength member element in a second direction of lay opposite to the first direction of lay, - an adhesive component disposed in at least one fixing area (151, 152, 153) of the optical cable, the at least one fixing area (151, 152, 153) being a regional area of the optical cable, where the at least one first section of the buffer tubes adjoins the at least one second section of the buffer tubes, wherein the buffer tubes are fixed to the strength member element by the adhesive component, - characterized in that the adhesive component is disposed in the at least one fixing area (151, 152, 153) of the optical cable such that a first area of the optical cable between the buffer tubes and the strength member element and a second area of the optical cable between the buffer tubes and the cable jacket are completely filled up with the adhesive component. - a strength member element, - a plurality of buffer tubes, wherein each of the buffer tubes encapsulates at least one optical fiber, - a cable jacket surrounding the plurality of the buffer tubes, - wherein each of the buffer tubes has at least one first section and at least one second section adjacent to the at least one first section, wherein the at least one first section of the buffer tubes is stranded around the strength member element in a first direction of lay and the at least one second section of the buffer tubes is stranded around the strength member element in a second direction of lay opposite to the first direction of lay, - an adhesive component disposed in at least one fixing area (151, 152, 153) of the optical cable, the at least one fixing area (151, 152, 153) being a regional area of the optical cable, where the at least one first section of the buffer tubes adjoins the at least one second section of the buffer tubes, wherein the buffer tubes are fixed to the strength member element by the adhesive component, - characterized in that the adhesive component is disposed in the at least one fixing area (151, 152, 153) of the optical cable such that a first area of the optical cable between the buffer tubes and the strength member element and a second area of the optical cable between the buffer tubes and the cable jacket are completely filled up with the adhesive component.
A feedback and compliance device for use with an inhaler for delivering a respiratory medication, comprising: a housing having an opening, the opening being structured to receive a mouthpiece of the inhaler; a plurality of sensors (46, 52, 54, 56), each sensor (46, 52, 54, 56) being structured to sense a parameter relating to use of the inhaler without modifying or interfering with a flow of medication introduced by actuation of the inhaler; one or more feedback devices (48, 50, 62); and a processing unit programmed to cause the one or more feedback devices to provide feedback information to a patient regarding use of the inhaler based on an output of at least one of the sensors; characterized in that the plurality of sensors includes: (i) a motion sensing device for sensing shaking of the inhaler, (ii) a flow sensor for sensing inhalation by the patient, and (iii) a force sensing device for sensing actuation of the inhaler by sensing the force applied thereto by the inhaler during its actuation. a housing having an opening, the opening being structured to receive a mouthpiece of the inhaler; a plurality of sensors (46, 52, 54, 56), each sensor (46, 52, 54, 56) being structured to sense a parameter relating to use of the inhaler without modifying or interfering with a flow of medication introduced by actuation of the inhaler; one or more feedback devices (48, 50, 62); and a plurality of sensors (46, 52, 54, 56), each sensor (46, 52, 54, 56) being structured to sense a parameter relating to use of the inhaler without modifying or interfering with a flow of medication introduced by actuation of the inhaler; one or more feedback devices (48, 50, 62); and a processing unit programmed to cause the one or more feedback devices to provide feedback information to a patient regarding use of the inhaler based on an output of at least one of the sensors; characterized in that the plurality of sensors includes: (i) a motion sensing device for sensing shaking of the inhaler, (ii) a flow sensor for sensing inhalation by the patient, and (iii) a force sensing device for sensing actuation of the inhaler by sensing the force applied thereto by the inhaler during its actuation.
Method for operating a magnetomechanical sensor apparatus for paramagnetic gas analysis, comprising - a test specimen for being rotatably suspended in an inhomogeneous magnetic field, - a conductor loop which is fastened to the test specimen in order to generate a torque for mechanically stabilizing the test specimen when current is supplied to the said conductor loop by electromagnetic interaction with the inhomogeneous magnetic field, - an electrically conductive suspension apparatus for rotatably mounting the test specimen and for supplying current to the conductor loop, which is connected in series with the said suspension apparatus, by means of electrical contact points (5a, 5b), and also - a measuring apparatus is provided for measuring the electrical resistance of the current path formed by suspension apparatus, contact points (5a, 5b) and conductor loop, characterized in that an electrical resistance between two points of the suspension apparatus is determined by means of the measuring apparatus, wherein the DC resistance is determined and is evaluated for the purpose of detecting instability of the electrical contact points (5a, 5b). - a test specimen for being rotatably suspended in an inhomogeneous magnetic field, - a conductor loop which is fastened to the test specimen in order to generate a torque for mechanically stabilizing the test specimen when current is supplied to the said conductor loop by electromagnetic interaction with the inhomogeneous magnetic field, - an electrically conductive suspension apparatus for rotatably mounting the test specimen and for supplying current to the conductor loop, which is connected in series with the said suspension apparatus, by means of electrical contact points (5a, 5b), and also - a measuring apparatus is provided for measuring the electrical resistance of the current path formed by suspension apparatus, contact points (5a, 5b) and conductor loop,
A recording material for thermal printing methods comprising a carrier and a dye-absorbing layer equipped for the thermal dye transfer, characterised in that a barrier layer is arranged between the carrier and the dye-absorbing layer and the barrier layer contains gelatine and a polymer binder dispersible in water, wherein the gelatine and the polymer binder dispersible in water being cross-linked with one another, the mass ratio of gelatine to the binder dispersible in water is 80:20 to 40:60, the gelatine is a non-derivatised gelatine and the water-dispersible polymer binder is a polyester polyurethane copolymer.