mhurhangee/patent-ind-claim-en huggingface dataset:
An applicator for guiding a first web to a base web as the base web is advanced in a machine direction , the applicator comprising: a support structure ; a cantilever arm (22; 24) supported by the support structure and moveable through a range of motion relative to the support structure in a cross machine direction ; a guide roller (30; 32; 34) for guiding the first web onto the base web , the guide roller (30; 32; 34) being pivotally mounted on the cantilever arm (22; 24) for pivotal movement of the guide roller (30; 32; 34) with respect to the cantilever arm (22; 24); and wherein positioning of the guide roller (30; 32; 34) in the cross machine direction is dependent on movement of the cantilever arm (22; 24); characterised in that the applicator comprises a connecting link operatively coupled to the guide roller (30; 32; 34); wherein pivotal movement of the guide roller (30; 32; 34) is dependent on movement of the connecting link . a support structure ; a cantilever arm (22; 24) supported by the support structure and moveable through a range of motion relative to the support structure in a cross machine direction ; a guide roller (30; 32; 34) for guiding the first web onto the base web , the guide roller (30; 32; 34) being pivotally mounted on the cantilever arm (22; 24) for pivotal movement of the guide roller (30; 32; 34) with respect to the cantilever arm (22; 24); and wherein positioning of the guide roller (30; 32; 34) in the cross machine direction is dependent on movement of the cantilever arm (22; 24); characterised in that the applicator comprises a connecting link operatively coupled to the guide roller (30; 32; 34); wherein pivotal movement of the guide roller (30; 32; 34) is dependent on movement of the connecting link .
An insect capturing device comprising: a housing ; first and second reflection surfaces ; an insect disabling portion located in between the first and second reflection surfaces; and one or more light emitting diodes (LEDs) operable to emit light for attracting insects; wherein the LEDs are oriented inwardly with respect to the housing so that light emitted by the LEDs does not leave the housing directly, wherein the LEDs are oriented to direct light onto the reflection surfaces for reflecting said light out from the housing to attract insects onto the insect disabling portion, wherein the light reflected out from the housing by the first reflection surface is directed across the insect disabling portion in a first direction, and wherein the light reflected out from the housing by the second reflection surface is directed across the insect disabling portion in a second direction, thereby to create a region in front of the housing in which insects are attracted inward towards the insect disabling portion. a housing ; first and second reflection surfaces ; an insect disabling portion located in between the first and second reflection surfaces; and one or more light emitting diodes (LEDs) operable to emit light for attracting insects;
An implantable device for optically stimulating the brain of a human being or animal, including a biocompatible multi-channel catheter , comprising a plurality of channels (2a-2i) extending substantially in parallel to each other relative to a longitudinal axis (X) of the multi-channel catheter , the multi-channel catheter including a proximal end and a distal end , and further including: - a light guide , extending into a channel of the multi-channel catheter , for optically stimulating the brain, including a proximal end for receiving light emitted by a light source and a distal end for delivering this light inside the brain, the multi-channel catheter acting as a sheath for totally wrapping the light guide , - a functional element , extending into another channel of the multi-channel catheter , for measuring the light injected into the surrounding medium at the distal end of the light guide , the distal end of the multi-channel catheter including a light scattering element including a fluorophore for fluorescence monitoring, that the light scattering element be located at the distal end of the light guide inside the channel into which the light guide extends, characterized in that it further includes a light source , emitting in the infrared range, connected to at least the proximal end of the light guide , and in that the light source includes a sensor and a dichroic mirror, located between the sensor and the scattering element , the sensor enabling wavelengths back from the scattering element emitted by fluorescence to be measured. - a light guide , extending into a channel of the multi-channel catheter , for optically stimulating the brain, including a proximal end for receiving light emitted by a light source and a distal end for delivering this light inside the brain, the multi-channel catheter acting as a sheath for totally wrapping the light guide , - a functional element , extending into another channel of the multi-channel catheter , for measuring the light injected into the surrounding medium at the distal end of the light guide ,
Working vehicle having a driver's cabin that has a closed cabin interior that is enclosed by structurally rigid cabin wall elements and at least one pane that closes off a cabin wall opening left free by the cabin wall elements, having an actuator device acting on the pane, a sensor device and a control unit connected to the sensor device and the actuator device, which control unit is designed to actuate the actuator device so as to reduce noise in the cabin interior on the basis of signals from the sensor device, characterized in that the actuator device is an inertial oscillator attached to the inner surface of the pane, the sensor device is a microphone oriented towards the cabin interior and the control unit is designed to actuate the inertial oscillator with adaptive and predictive regulation on the basis of the microphone signals in order to perform active noise reduction in the cabin interior, wherein the microphone is placed on or in the housing of the inertial oscillator and is attached in a manner oriented such that a central surface normal to the membrane of the microphone is perpendicular to the axis of oscillation of the inertial oscillator .
A rubber film-forming silicone emulsion composition comprising: (A) 100 parts by weight of organopolysiloxane containing per molecule at least two hydroxyl groups bonded to silicon atoms at molecular ends, (B) 0.1 to 5 parts by weight of aminoalkyltrialkoxysilane having the general formula wherein R 1 , R 2 and R 3 are hydrogen or substituted or unsubstituted C 1 -C 10 monovalent hydrocarbon group, R 4 is C 1 -C 4 divalent hydrocarbon group, R 5 is substituted or unsubstituted C 1 -C 6 divalent hydrocarbon group, and n is an integer of 0 to 6, (C) vinyltrialkoxysilane having the formula CH 2 =CHSi(OC 2 H 5 ) 3 in an amount of 0.1 to 50 parts by weight which is at least equal to the amount of component (B), (D) 0.1 to 20 parts by weight of surfactant, and (E) 40 to 1,000 parts by weight of water, the composition being free of organotin compounds. (A) 100 parts by weight of organopolysiloxane containing per molecule at least two hydroxyl groups bonded to silicon atoms at molecular ends, (B) 0.1 to 5 parts by weight of aminoalkyltrialkoxysilane having the general formula wherein R 1 , R 2 and R 3 are hydrogen or substituted or unsubstituted C 1 -C 10 monovalent hydrocarbon group, R 4 is C 1 -C 4 divalent hydrocarbon group, R 5 is substituted or unsubstituted C 1 -C 6 divalent hydrocarbon group, and n is an integer of 0 to 6, (C) vinyltrialkoxysilane having the formula CH 2 =CHSi(OC 2 H 5 ) 3 in an amount of 0.1 to 50 parts by weight which is at least equal to the amount of component (B), (D) 0.1 to 20 parts by weight of surfactant, and (E) 40 to 1,000 parts by weight of water,
A method of aiding the diagnosis of stroke in a patient suspected of having had or currently suffering a stroke, said method comprising; i) Determining the concentration of Parkinson disease protein 7 (PARK7) and D-dimer in an ex vivo blood, serum or plasma sample obtained from the patient; ii) Establishing the statistical significance of the concentration of the biomarkers by comparison to a control value, wherein each of the biomarker concentration values are inputted into a statistical algorithm or algorithms to produce an output value that correlates with diagnosis of stroke. i) Determining the concentration of Parkinson disease protein 7 (PARK7) and D-dimer in an ex vivo blood, serum or plasma sample obtained from the patient; ii) Establishing the statistical significance of the concentration of the biomarkers by comparison to a control value, wherein each of the biomarker concentration values are inputted into a statistical algorithm or algorithms to produce an output value that correlates with diagnosis of stroke.
Built-in device for producing infusion beverages, comprising: - a heating means for heating water and/or for producing steam, - a brewing unit for preparing the infusion beverage using the heated water, - a dispensing apparatus comprising at least one beverage outlet for dispensing the infusion beverage produced in the built-in device by means of the brewing unit , - a door which closes the built-in device , characterised in that a receiving chamber comprising at least one guide track designed for inserting and removing the brewing unit is provided behind the open door of the built-in device , which track first guides the brewing unit towards the rear wall of the receiving chamber in order to then deflect said unit and move it laterally into its end position. - a heating means for heating water and/or for producing steam, - a brewing unit for preparing the infusion beverage using the heated water, - a dispensing apparatus comprising at least one beverage outlet for dispensing the infusion beverage produced in the built-in device by means of the brewing unit , - a door which closes the built-in device ,
Pump device having at least one chamber or conduit containing or provided for containing a liquid, a concentration sensor arranged in said chamber or conduit for detecting a concentration of a substance in said liquid and an evaluation unit connected to said sensor , wherein said sensor and said evaluation unit are designed for an electrical impedance measurement, characterized in that said evaluation unit is designed such that a measurement for detecting said concentration is carried out by use of an electrical signal applied to said sensor having at least one frequency corresponding to an upper cut-off frequency (f 2 ) of a frequency range showing a constant electrical impedance, and such that a capacitance (Cm) of the liquid is detected and said concentration is determined on basis of said capacitance (Cm), wherein said capacitance is determined by detecting a resistance of said liquid (Rm) and said upper cut-off frequency (f2).
A high voltage, high frequency switching circuit comprising: a high voltage switching power supply that produces pulses having a voltage greater than 1 kV and with frequencies greater than 10 kHz; an output; wherein the output can produce a high voltage pulse having a voltage greater than 1 kV and with frequencies greater than 10 kHz and with a pulse fall time less than about 400 ns; and a resistive output stage electrically coupled to, and in parallel with the output of the high voltage switching power supply, characterized in that the resistive output stage comprises at least one resistor (R1) and at least one inductor (L1) arranged in series with the at least one resistor, the at least one resistor discharges a load coupled with the output, wherein the resistor in the resistive output stage includes a resistance R and the output is coupled with a load having a capacitance C such that R ≈ C/tf where t f is the pulse fall time. a high voltage switching power supply that produces pulses having a voltage greater than 1 kV and with frequencies greater than 10 kHz; an output; wherein the output can produce a high voltage pulse having a voltage greater than 1 kV and with frequencies greater than 10 kHz and with a pulse fall time less than about 400 ns; and a resistive output stage electrically coupled to, and in parallel with the output of the high voltage switching power supply, characterized in that the resistive output stage comprises at least one resistor (R1) and at least one inductor (L1) arranged in series with the at least one resistor, the at least one resistor discharges a load coupled with the output,
A MEMS ultrasonic transducer, MUT, device , comprising a semiconductor body of semiconductor material having a first and a second main surface and integrating a first MUT element which includes: a first chamber extending into the semiconductor body at a distance from the first main surface ; a membrane formed by the semiconductor body between the first main surface and the first chamber ; a piezoelectric element extending on the first main surface of the semiconductor body above the membrane ; and characterized by further comprising a second chamber extending into the semiconductor body between the first chamber and the second main surface ; a central fluidic passage extending into the semiconductor body from the second main surface to the first chamber and traversing the second chamber ; and one or more lateral fluidic passages extending into the semiconductor body from the second main surface to the second chamber , wherein the one or more lateral fluidic passages , the central fluidic passage and the second chamber define a fluidic recirculation path that fluidically connects the first chamber with the outside of the semiconductor body . a first chamber extending into the semiconductor body at a distance from the first main surface ; a membrane formed by the semiconductor body between the first main surface and the first chamber ; a piezoelectric element extending on the first main surface of the semiconductor body above the membrane ; and characterized by further comprising a second chamber extending into the semiconductor body between the first chamber and the second main surface ; a central fluidic passage extending into the semiconductor body from the second main surface to the first chamber and traversing the second chamber ; and one or more lateral fluidic passages extending into the semiconductor body from the second main surface to the second chamber , wherein the one or more lateral fluidic passages , the central fluidic passage and the second chamber define a fluidic recirculation path that fluidically connects the first chamber with the outside of the semiconductor body .
Screen system (10; 10'; 10"; 10′′′; 10ʺʺ; 10ʺ′′′), containing - at least a first substantially annular screen support (11; 11'; 11"; 11"'; 11""; 11ʺ′′′) and a second substantially annular screen support (12; 12'; 12ʺ; 12ʺ′′′), - at least one pressure rod (14; 14'; 14"; 14ʺ′′′), which braces the screen supports (11, 12; 11', 12'; 11", 12", 51"; 11′′′; 11ʺʺ; 11ʺ′′′, 12ʺ′′′) against one another in such a way that a compressive stress is produced between the screen supports (11, 12; 11', 12'; 11", 12", 51"; 11′′′; 11ʺʺ; 11ʺ′′′, 12ʺ′′′), - at least one substantially cylinder-jacket-shaped screen surface (13; 13'; 13", 52"; 13′′′; 13ʺʺ; 13ʺ′′′) clamped between the screen supports (11, 12; 11', 12'; 11", 12", 51"; 11′′′; 11ʺʺ; 11ʺ′′′, 12ʺ′′′), - at least one resonator (15; 15'; 15", 53"; 15′′′; 15ʺʺ; 15ʺ′′′) for introducing ultrasound vibrations directly into the screen surface (13; 13'; 13", 52"; 13"'; 13ʺʺ; 13ʺ′′′), wherein the resonator (15; 15'; 15", 53"; 15′′′; 15ʺʺ; 15ʺ′′′) is attached to the screen surface (13; 13'; 13", 52"; 13"'; 13ʺʺ; 15ʺ′′′), characterized in that the resonator (15; 15'; 15", 53"; 15′′′; 15ʺʺ; 15ʺ′′′) extends substantially from the first screen support (11; 11'; 11ʺ; 11′′′; 11ʺʺ; 11ʺ′′′) to the second screen support (12; 12'; 12ʺ; 12ʺ′′′). - at least a first substantially annular screen support (11; 11'; 11"; 11"'; 11""; 11ʺ′′′) and a second substantially annular screen support (12; 12'; 12ʺ; 12ʺ′′′), - at least one pressure rod (14; 14'; 14"; 14ʺ′′′), which braces the screen supports (11, 12; 11', 12'; 11", 12", 51"; 11′′′; 11ʺʺ; 11ʺ′′′, 12ʺ′′′) against one another in such a way that a compressive stress is produced between the screen supports (11, 12; 11', 12'; 11", 12", 51"; 11′′′; 11ʺʺ; 11ʺ′′′, 12ʺ′′′), - at least one substantially cylinder-jacket-shaped screen surface (13; 13'; 13", 52"; 13′′′; 13ʺʺ; 13ʺ′′′) clamped between the screen supports (11, 12; 11', 12'; 11", 12", 51"; 11′′′; 11ʺʺ; 11ʺ′′′, 12ʺ′′′), - at least one resonator (15; 15'; 15", 53"; 15′′′; 15ʺʺ; 15ʺ′′′) for introducing ultrasound vibrations directly into the screen surface (13; 13'; 13", 52"; 13"'; 13ʺʺ; 13ʺ′′′),
A method comprising: receiving, by a wireless device, from a base station, one or more configuration parameters associated with uplink reporting, wherein the one or more configuration parameters indicate: a time domain behavior for uplink reporting; and one or more physical uplink control channel, PUCCH, resources; activating a first antenna panel of a plurality of antenna panels of the wireless device; and sending, via a PUCCH resource of the one or more PUCCH resources, an uplink report message comprising an indication that the first antenna panel is activated. receiving, by a wireless device, from a base station, one or more configuration parameters associated with uplink reporting, wherein the one or more configuration parameters indicate: a time domain behavior for uplink reporting; and one or more physical uplink control channel, PUCCH, resources; a time domain behavior for uplink reporting; and one or more physical uplink control channel, PUCCH, resources; activating a first antenna panel of a plurality of antenna panels of the wireless device; and sending, via a PUCCH resource of the one or more PUCCH resources, an uplink report message comprising an indication that the first antenna panel is activated.
A tooth coating and whitening composition comprising a whitening ingredient comprising materials with a high refractive index of at least 2.0 or blue dyes/pigments, an acryl based polymer and 5 to 25 wt% of the total composition of a smectite clay.
Modular system, comprising as optical components (1.1, 1.2, 10) - at least one phase plate (1.1), - at least one aspheric focusing lens (1.2) and - at least one beam expander for the diffraction-limited change of the diameter of a beam of monochromatic light having the same wavelength that is collimated to the optical axis (X), which are mounted in each case in a tubular housing arranged coaxially to the optical axis (X), wherein, concentrically to the optical axis (X), an annular first stop (2.2) and a first fine thread (2.1) are formed and arranged at a first end of the housing and an annular second stop (2.4) and a second fine thread (2.3) are formed and arranged at a second end of the housing in a manner such that the second fine thread (2.3) of a first mounted optical component can be screwed into the first fine thread (2.1) of a second optical component up to a stop position in which the second stop (2.4) of the housing of the first component contacts the first stop (2.2) of the housing of the second optical component and orients it such that the optical axes (X) of the first and of the second optical component are aligned within the diffraction-limited divergence and wherein the at least one mounted phase plate (1.1) is configured such that it forms with an aspheric focusing lens (1.2) arranged downstream in the beam path a focusing beam shaper for transforming light having one wavelength, which is collimated to the optical axis (X), and an entry beam density distribution with a Gaussian profile into an exit beam density distribution (LS) with an alternating beam density profile (TP, TP', TP", DP, BP) in at least one image plane (B1 to B5), and additionally comprising as optical component at least one fibre collimator , which is mounted in a collimator housing and has an entrance (E) for supplying monochromatic light having the same wavelength from an optical fibre and an exit (A) for outputting light collimated along the optical axis (X), wherein the entrance (E) is arranged at an entry-side, tubular fibre receptacle (20.4), configured for receiving an optical fibre, having a fibre coupling (20.4.3) and wherein, concentrically to the optical axis, an exit-side stop (102.4) and an exit-side fine thread (102.3) are arranged at the exit (A) of the fibre collimator such that the exit-side fine thread (102.3) of the fibre collimator can be screwed into the first fine thread (2.1) of a second optical component mounted in a housing up to a stop position in which the exit-side stop (102.4) of the fibre collimator contacts the first stop (2.2) of the second optical component and orients it such that the optical axes (X) of the fibre collimator and of the second component are aligned within the diffraction-limited divergence. - at least one phase plate (1.1), - at least one aspheric focusing lens (1.2) and - at least one beam expander for the diffraction-limited change of the diameter of a beam of monochromatic light having the same wavelength that is collimated to the optical axis (X),
An irrigation device, comprising: a pump wherein a flow from the pump moves in one direction only: an irrigation fluid reservoir in fluid communication with the pump; a rectal catheter having a main passage therethrough; at least a first hydraulically-operated device mounted on the rectal catheter; fluid tubing having at least two lumens, a first lumen providing fluid communication between the pump and the main passage of the catheter, and a second lumen providing fluid communication between the pump and said first hydraulic device; and a hydraulic control circuit including a plurality of valves arranged for selectably directing pumped fluid alternately from the reservoir to the first hydraulically-operated device and from the first hydraulically-operated device to the reservoir. an irrigation fluid reservoir in fluid communication with the pump; a rectal catheter having a main passage therethrough; at least a first hydraulically-operated device mounted on the rectal catheter; fluid tubing having at least two lumens, a first lumen providing fluid communication between the pump and the main passage of the catheter, and a second lumen providing fluid communication between the pump and said first hydraulic device; and a hydraulic control circuit including a plurality of valves arranged for selectably directing pumped fluid alternately from the reservoir to the first hydraulically-operated device and from the first hydraulically-operated device to the reservoir.